CLEANING APPARATUS

Abstract

A vacuum cleaning system comprising a vacuum cleaner having a vacuum motor, a dirt bin, a primary separation system, a membrane filter, and an air valve arrangement configured to control air flow through at least the membrane filter. The vacuum cleaner is configured to be operable in a surface cleaning mode of operation and a self-cleaning mode of operation. In the surface cleaning mode of operation, the vacuum cleaner is configured such that the vacuum motor draws dirty air from a dirty-air inlet through the dirt bin, the primary separation system and the membrane filter in a first airflow direction, and, in the self-cleaning mode of operation, the vacuum cleaner is configured to permit air to flow from the air valve arrangement through the membrane filter in a second airflow direction to clean dirt from the membrane filter. Usefully, therefore, airflow can be routed through the vacuum cleaner in a second or reverse direction to clean the caked on dirt from the membrane filter. The membrane filter may be used as a pre-motor filter positioned upstream from the vacuum motor, or as a post-motor filter, positioned downstream from the vacuum motor, when considered in an airflow direction during a surface cleaning mode of operation.

Claims

1. A cleaning apparatus comprising: a first vacuum cleaner; and a second vacuum cleaner combinable with and separable from the first vacuum cleaner, each of the first and second vacuum cleaners operable to remove debris from a surface; the first vacuum cleaner comprising a first dirty air inlet, a first debris separator, a first debris container, a first suction motor, and a first clean air outlet; and the second vacuum cleaner comprising a second dirty air inlet, a second debris separator, a second debris container, a second suction motor, and a second clean air outlet, wherein the second debris container comprises a smaller volume than the first debris container; wherein the cleaning apparatus is configured to be transitioned between a first mode of operation, a second mode of operation, and a third mode of operation, and wherein: in the first mode of operation, the first suction motor causes air to flow through the first dirty air inlet, the first debris separator, and the first clean air outlet, thereby directing debris through the first dirty air inlet and into the first debris container; in the second mode of operation, the second suction motor causes air to flow through the second dirty air inlet, the second debris separator, and the second clean air outlet, thereby directing debris through the second dirty air inlet and into the second debris container; and in the third mode of operation, the first suction motor causes air to flow into and through the second vacuum cleaner and through the first dirty air inlet, the first debris separator, and the first clean air outlet, thereby directing debris from the second debris container into the first debris container.

2. The cleaning apparatus of claim 1, further comprising a cleaning head supportable by and movable with respect to said surface and comprising a cleaning head dirty air inlet, wherein: the first suction motor causes air to flow from the cleaning head dirty air inlet through the first dirty air inlet when the cleaning apparatus is in the first mode of operation; and the second suction motor causes air to flow from the cleaning head dirty air inlet through the second dirty air inlet when the cleaning apparatus is in the second mode of operation.

3. The cleaning apparatus of claim 2, further comprising a wand connecting the second vacuum cleaner to the cleaning head, wherein: the second suction motor causes air to flow from the cleaning head dirty air inlet through the wand when the cleaning apparatus is in the second mode of operation; and the first suction motor causes air to flow from the second vacuum cleaner through the wand when the cleaning apparatus is in the third mode of operation.

4. The cleaning apparatus of claim 3, wherein, when the cleaning apparatus is in the third mode of operation, flow communication between the cleaning head dirty air inlet and each of the first and second vacuum cleaners is blocked.

5. The cleaning apparatus of claim 4, further comprising: a support member connected to the cleaning head and configured to attach to the wand; and a valve arranged within the support member and configured to move between an open position and a closed position, wherein the valve is in said closed position and blocks flow communication between the cleaning head dirty air inlet and each of the first and second vacuum cleaners when the cleaning apparatus is in the third mode of operation, and wherein the valve is in the said open position when the cleaning apparatus is in the first and second modes of operation, said valve allowing flow communication between the cleaning head dirty air inlet and each of the first and second vacuum cleaners when in said open position.

6. The cleaning apparatus of claim 1, wherein, in the first mode of operation, the first and second vacuum cleaners are attached to one another but flow communication between the first and second debris containers is blocked.

7. A cleaning apparatus comprising: a floor-based vacuum cleaner removably attachable to at least one of a wand and a cleaning head, the cleaning head supportable by and movable with respect to a surface, the wand attachable to the cleaning head, the floor-based vacuum cleaner movable with the cleaning head to remove debris from said surface and comprising a floor-based vacuum dirty air inlet, a floor-based vacuum debris separator, a floor-based vacuum debris container, a floor-based vacuum suction motor, and a floor-based vacuum clean air outlet; and a handheld vacuum cleaner removably attachable to the wand, the handheld vacuum cleaner comprising a handheld vacuum dirty air inlet, a handheld vacuum debris separator, a handheld vacuum debris container, a handheld vacuum suction motor, and a handheld vacuum clean air outlet, wherein the handheld vacuum debris container comprises a smaller volume than the floor-based vacuum debris container; wherein the cleaning apparatus is configured to be transitioned between at least a first mode of operation and a second mode of operation, and wherein: in the first mode of operation, the floor-based vacuum suction motor causes air to flow from a cleaning head dirty air inlet of the cleaning head and through the floor-based vacuum dirty air inlet, the floor-based vacuum debris separator, and the floor-based vacuum clean air outlet, thereby directing debris from said surface through the floor-based vacuum dirty air inlet and into the floor-based vacuum debris container; and in second mode of operation, the handheld vacuum suction motor causes air to flow from the cleaning head dirty air inlet and through the handheld vacuum dirty air inlet, the handheld vacuum debris separator, and the handheld vacuum clean air outlet, thereby directing debris from said surface through the handheld vacuum dirty air inlet and into the handheld vacuum debris container.

8. The cleaning apparatus of claim 7, wherein the cleaning apparatus is further configured to be transitioned to a third mode of operation in which the floor-based vacuum suction motor causes air to flow into and through the handheld vacuum cleaner, the wand, the floor-based vacuum dirty air inlet, the floor-based vacuum debris separator, and the floor-based vacuum clean air outlet, thereby directing debris from the handheld vacuum debris container into the floor-based vacuum debris container.

9. The cleaning apparatus of claim 7, further comprising a valve arranged within the handheld vacuum cleaner and configured to be moved between a closed position and an open position, said valve in said closed position when the cleaning apparatus is in the first mode of operation and in said open position when the cleaning apparatus is in the second mode of operation, wherein, when in said closed position the valve blocks at least one flow path extending through the handheld vacuum cleaner, and wherein said at least one flow path is open when the valve is in said open position.

10. The cleaning apparatus of claim 9, wherein the valve is biased toward said closed position.

11. The cleaning apparatus of claim 9, wherein, when the cleaning apparatus is in the second mode of operation, the handheld vacuum suction motor causes the valve to move to said open position.

12. The cleaning apparatus of claim 9, wherein the handheld vacuum cleaner comprises a filter and the valve is arranged between the filter and the handheld vacuum suction motor.

13. The cleaning apparatus of claim 12, wherein said at least one flow path is defined by at least a portion of an interior cavity of the filter.

14. The cleaning apparatus of claim 13, wherein the filter comprises an opening in fluid communication with the interior cavity, and wherein the valve covers said opening when in said closed position and is spaced from the opening when in said open position.

15. The cleaning apparatus of claim 9, wherein the valve is in said open position when the cleaning apparatus is in the third mode of operation.

16. The cleaning apparatus of claim 9, wherein: the valve comprises a magnet; and the handheld vacuum cleaner further comprises an electromagnet configured magnetically couple with the magnet of the valve and cause the valve to remain in said open position when the cleaning apparatus is in the third mode of operation.

17. The cleaning apparatus of claim 16, wherein the electromagnet is activated when the cleaning apparatus is in the third mode of operation and deactivated when the cleaning apparatus is in the first and/or second modes of operation.

18. The cleaning apparatus of claim 9, wherein: said valve is a first valve of the cleaning apparatus; and the cleaning apparatus further comprises a second valve arranged within the handheld vacuum cleaner, the second valve configured to inhibit debris from falling out of the handheld vacuum debris container through the handheld vacuum dirty air inlet when the cleaning apparatus is in the first mode of operation.

19. The cleaning apparatus of claim 18, wherein: when the cleaning apparatus is in the first mode of operation, the second valve is in a first position in which the second valve blocks a flow passage that extends through the handheld vacuum dirty air inlet; the second valve is moved from said first position to a second position when the cleaning apparatus is transitioned from the first mode of operation to the second mode of operation; the second valve is moved from said first position to a third position when the cleaning apparatus is transitioned from the first mode of operation to the third mode of operation; and the second valve does not block said flow passage when in said second and third position.

20. The cleaning apparatus of claim 8, wherein, in the third mode of operation, the floor-based vacuum suction motor causes air to flow into the handheld vacuum cleaner via the handheld vacuum clean air outlet and/or an auxiliary air inlet of the handheld vacuum cleaner.

Description

BRIEF DESCRIPTION OF THE DRAWINGS

[0045] Certain features of this disclosure are described below with reference to the drawings. The illustrated implementations are intended to illustrate, but not to limit, the implementations. Various features of the different disclosed implementations can be combined to form further implementations, which are part of this disclosure.

[0046] FIGS. 1A-1E illustrate various views of a cleaning apparatus or portions thereof in different modes of operation in accordance with aspects of this disclosure.

[0047] FIGS. 2A-2E illustrate various views of another implementation of a cleaning apparatus or portions thereof in different modes of operation in accordance with aspects of this disclosure.

[0048] FIGS. 3A-3D illustrate schematic diagrams of another implementation of a cleaning apparatus or portions thereof in different modes of operation in accordance with aspects of this disclosure.

[0049] FIGS. 3E-3F illustrate schematic diagrams of a first and second vacuum cleaner of the cleaning apparatus of FIGS. 3A-3D in accordance with aspects of this disclosure.

[0050] FIG. 3G illustrates a schematic diagram of a cleaning head which can be incorporated into the cleaning apparatus of FIGS. 3A-3D in accordance with aspects of this disclosure.

[0051] FIGS. 4A-4E illustrate various views of a valve assembly and a wand that can be incorporated into a cleaning apparatus in accordance with aspects of this disclosure.

[0052] FIGS. 4F-4K illustrate various views of the valve assembly of FIGS. 4A-4E in different modes of operation in accordance with aspects of this disclosure.

[0053] FIG. 5A illustrates another implementation of a cleaning apparatus in an example upright mode of operation in accordance with aspects of this disclosure.

[0054] FIGS. 5B-5E illustrate portions of the cleaning apparatus of FIG. 5A in the example upright mode of operation in accordance with aspects of this disclosure.

[0055] FIG. 5F illustrates the cleaning apparatus of FIG. 5A in an example stick mode of operation in accordance with aspects of this disclosure.

[0056] FIGS. 5G-5H illustrate portions of the cleaning apparatus of FIG. 5A in the example stick mode of operation illustrated in FIG. 5F in accordance with aspects of this disclosure.

[0057] FIG. 5I illustrates the cleaning apparatus of FIG. 5A in an example empty mode of operation in accordance with aspects of this disclosure.

[0058] FIGS. 5J-5L illustrate portions of the cleaning apparatus of FIG. 5A in the example empty mode of operation illustrated in FIG. 5I in accordance with aspects of this disclosure.

[0059] FIGS. 5M-5O illustrate a portion of a handheld vacuum cleaner and a valve in accordance with aspects of this disclosure.

[0060] FIGS. 6A-6F illustrate another implementation of a cleaning apparatus in different modes in accordance with aspects of this disclosure.

[0061] FIGS. 7-8 illustrate portions of cleaning apparatuses in accordance with aspects of this disclosure.

[0062] FIG. 9A illustrates portions of another implementation of a cleaning apparatus in accordance with aspects of this disclosure.

[0063] FIGS. 9B-9D illustrate schematic representations of portions of the cleaning apparatus of FIG. 9A in accordance with aspects of this disclosure.

[0064] FIGS. 10A-10C illustrate another implementation of a cleaning apparatus in different modes of operation in accordance with aspects of this disclosure.

[0065] FIGS. 10D-10L illustrate portions of the cleaning apparatus of FIGS. 10A-10C in different modes of operation in accordance with aspects of this disclosure.

[0066] FIG. 10M illustrates a portion of the cleaning apparatus of FIGS. 10A-10C in accordance with aspects of this disclosure.

[0067] FIGS. 11A and 11C illustrate another implementation of a cleaning apparatus in different modes of operation in accordance with aspects of this disclosure.

[0068] FIGS. 11B and 11D illustrate schematic representations of portions of the cleaning apparatus of FIGS. 11A and 11C in accordance with aspects of this disclosure.

[0069] FIG. 12 illustrates an example handheld vacuum cleaner in accordance with aspects of this disclosure.

[0070] FIGS. 13A-13C illustrate an example valve and portion of a handheld vacuum cleaner in accordance with aspects of this disclosure.

[0071] FIGS. 14A-14LL illustrate various views of portions of another implementation of a cleaning apparatus in accordance with aspects of this disclosure.

[0072] FIGS. 15A-15D illustrate schematic diagrams of certain portions of another implementation of a cleaning apparatus in accordance with aspects of this disclosure.

[0073] FIGS. 16A-16C illustrate perspective views of another implementation of a cleaning apparatus in accordance with aspects of this disclosure.

[0074] FIGS. 16D-16E illustrate portions of the cleaning apparatus of FIGS. 16A-16C with a floor-based vacuum cleaner detached in accordance with aspects of this disclosure.

[0075] FIGS. 16F-16L illustrate various enlarged views of portions of the cleaning apparatus of FIGS. 16A-16C in accordance with aspects of this disclosure.

[0076] FIG. 16M illustrates a top perspective view of a support member and cleaning head of the cleaning apparatus of FIGS. 16A-16C in accordance with aspects of this disclosure.

[0077] FIGS. 16N-16P illustrate various views of a floor-based vacuum cleaner of the cleaning apparatus of FIGS. 16A-16C in accordance with aspects of this disclosure.

[0078] FIGS. 16Q-16U illustrate various views of a wand of the cleaning apparatus of FIGS. 16A-16C in accordance with aspects of this disclosure.

[0079] FIG. 16V illustrates an enlarged view of a portion of a wand and a support member of the cleaning apparatus of FIGS. 16A-16C in accordance with aspects of this disclosure.

[0080] FIGS. 16W-16X illustrate enlarged views of a portion of the wand of FIGS. 16Q-16U in accordance with aspects of this disclosure.

[0081] FIGS. 16Y-16DD illustrate various views of a handheld vacuum cleaner of the cleaning apparatus of FIGS. 16A-16C in accordance with aspects of this disclosure.

[0082] FIG. 16EE-16JJ illustrate various views of the cleaning apparatus of FIGS. 16A-16C in different modes of operation in accordance with aspects of this disclosure.

[0083] FIG. 16KK illustrates a table showing various schematic representations and enlarged views of portions of the cleaning apparatus of FIGS. 16A-16C in different modes of operation in accordance with aspects of this disclosure.

[0084] FIG. 16LL-16VV illustrate various views of actuators and actuator mechanisms of the cleaning apparatus of FIGS. 16A-16C and portions of the cleaning apparatus in accordance with aspects of this disclosure.

[0085] FIG. 16WW-16XX illustrate a valve of the handheld vacuum cleaner of FIGS. 16Y-16DD in accordance with aspects of this disclosure.

[0086] FIGS. 17A-17C illustrate perspective views of another implementation of a cleaning apparatus in accordance with aspects of this disclosure.

[0087] FIGS. 17D-17E illustrate portions of the cleaning apparatus of FIGS. 17A-17C with a floor-based vacuum cleaner detached in accordance with aspects of this disclosure.

[0088] FIGS. 17F-17L illustrate various enlarged views of portions of the cleaning apparatus of FIGS. 17A-17C in accordance with aspects of this disclosure.

[0089] FIG. 17M illustrates a top perspective view of a support member and cleaning head of the cleaning apparatus of FIGS. 17A-17C in accordance with aspects of this disclosure.

[0090] FIGS. 17N-17P illustrate various views of a floor-based vacuum cleaner of the cleaning apparatus of FIGS. 17A-17C in accordance with aspects of this disclosure.

[0091] FIGS. 17Q-17U illustrate various views of a wand of the cleaning apparatus of FIGS. 17A-17C and portions thereof in accordance with aspects of this disclosure.

[0092] FIGS. 17V-17Y illustrate various views of a handheld vacuum cleaner of the cleaning apparatus of FIGS. 17A-17C in accordance with aspects of this disclosure.

[0093] FIGS. 17Z-17KK illustrates various views of actuators and actuator mechanisms of the cleaning apparatus of FIGS. 17A-17C and portions of the cleaning apparatus in accordance with aspects of this disclosure.

[0094] FIGS. 18A-18U illustrate various views of another implementation of a handheld vacuum cleaner and portions thereof in accordance with aspects of this disclosure.

[0095] FIG. 18V illustrates a table showing various schematic representations and enlarged views of portions of a cleaning apparatus in different modes of operation in accordance with aspects of this disclosure.

[0096] FIGS. 18W-18EE illustrate various views of portions of the handheld vacuum cleaner of FIGS. 18A-18U in accordance with aspects of this disclosure.

[0097] FIGS. 19A-19B illustrate cross-sectional views of portions of another implementation of a handheld vacuum cleaner in accordance with aspects of this disclosure

[0098] FIG. 19C illustrates a table showing various schematic representations and enlarged views of portions of a cleaning apparatus in different modes of operation in accordance with aspects of this disclosure.

[0099] FIGS. 20A-20B illustrate schematic representations of portions of another implementation of a handheld vacuum cleaner in accordance with aspects of this disclosure

[0100] FIGS. 21A-21D illustrate another implementation of a handheld vacuum cleaner in accordance with aspects of this disclosure.

[0101] FIGS. 22A-22S illustrate various views of another implementation of a handheld vacuum cleaner and portions thereof in accordance with aspects of this disclosure.

[0102] FIG. 22T illustrates a table showing various schematic representations and enlarged views of portions of a cleaning apparatus in different modes of operation in accordance with aspects of this disclosure.

[0103] FIGS. 22U-22GG illustrate various views of another implementation of a handheld vacuum cleaner and portions thereof in accordance with aspects of this disclosure.

[0104] FIG. 22HH-22XX illustrate various views of another implementation of a handheld vacuum cleaner and portions thereof in accordance with aspects of this disclosure.

[0105] FIG. 23A illustrates an example method of controlling operation of a cleaning apparatus in accordance with aspects of this disclosure.

[0106] FIG. 23B illustrates an example auto-empty mode for a cleaning apparatus in accordance with aspects of this disclosure.

[0107] FIG. 24 illustrates an example method of controlling operation of a cleaning apparatus in accordance with aspects of this disclosure.

[0108] FIGS. 25A-25D illustrate an example cleaning head and support member in accordance with aspects of this disclosure.

DETAILED DESCRIPTION

[0109] Various features and advantages of this disclosure will now be described with reference to the accompanying figures. The following description is merely illustrative in nature and is in no way intended to limit the disclosure, its application, or uses. This disclosure extends beyond the specifically disclosed implementations and/or uses and obvious modifications and equivalents thereof. Thus, it is intended that the scope of this disclosure should not be limited by any particular implementations described below. The features of the illustrated implementations can be modified, combined, removed, and/or substituted as will be apparent to those of ordinary skill in the art upon consideration of the principles disclosed herein.

[0110] FIGS. 1A-1E illustrate an example cleaning apparatus 100, or portions thereof, in various modes of operation and use as described below. Cleaning apparatus 100 can include a first vacuum cleaner 110 (which may be referred to as a floor-based vacuum cleaner), a second vacuum cleaner 120 (which may be referred to as a handheld vacuum cleaner), and a cleaning head 130 (which may be referred to as a surface cleaning head or floor nozzle).

[0111] Floor-based vacuum cleaner 110, handheld vacuum cleaner 120, and cleaning head 130 can be attached and/or attachable (for example, removably attachable) to one another. Cleaning apparatus 100 can include various components to connect (mechanically, electrically, and/or fluidly) floor-based vacuum cleaner 110, handheld vacuum cleaner 120, and cleaning head 130 together. In some implementations, cleaning apparatus 100 includes a wand 103. Wand 103 can be configured to connect and/or connect to any or all of the floor-based vacuum cleaner 110, handheld vacuum cleaner 120, and cleaning head 130. Wand 103 can be elongated and/or tubular, for example, comprising a conduit and an airflow passage. Wand 103 can be extendable (for example, telescopic) or non-extendable. Wand 103 can be configured to facilitate attachment of any or all of floor-based vacuum cleaner 110, handheld vacuum cleaner 120, and cleaning head 130 to one another. For example, any or all of floor-based vacuum cleaner 110, handheld vacuum cleaner 120, and cleaning head 130 can be directly attachable to wand 103 or indirectly attachable to wand 103 (for example, via a separate component). Cleaning apparatus 100 can include a valve assembly similar or identical to any of the valve assemblies described herein, and any or all of floor-based vacuum cleaner 110, handheld vacuum cleaner 120, and cleaning head 130 can be attachable to wand 103 via such valve assembly. In some implementations, cleaning apparatus 100 includes a support member 105 (which also may be referred to as a support, support structure, or neck) that is connected to cleaning head 130 (see FIGS. 1A, 1C, and 1E). In some of such implementations, support member 105 is configured to connect and/or connect to cleaning head 130, floor-based vacuum cleaner 110, and/or wand 103. In some implementations, support member 105 forms a unitary structure with cleaning head 130. In some of such implementations, support member 105 is pivotable relative to cleaning head 130. In some implementations, wand 103 is removably attachable to support member 105 and/or floor-based vacuum cleaner 110 is removably attachable to support member 105. As mentioned previously, cleaning apparatus 100 can include a valve assembly similar or identical to any of the valve assemblies described herein (for example, valve assembly 340, 440, 540). In some of such implementations, support 105 can connect to such valve assembly, and the valve assembly can connect to floor-based vacuum cleaner 110 and wand 103. In some implementations, such valve assembly is connected between floor-based vacuum cleaner 110, handheld vacuum cleaner 120, and cleaning head 130. For example, in some implementations, such valve assembly is configured to connect: to cleaning head 130 via support member 105; to floor-based vacuum cleaner 110; and/or to handheld vacuum cleaner 120 via wand 103. Wand 103, support member 105, and such valve assembly can facilitate mechanical, electrical, and fluid/flow communication between floor-based vacuum cleaner 110, handheld vacuum cleaner 120, and/or cleaning head 130 in order to allow cleaning apparatus 100 to utilize various modes of operation as described herein.

[0112] Cleaning head 130 can be supported by and/or movable with respect to a floor surface. For example, cleaning head 130 can include one or more or a plurality of wheels 132 for supporting and/or moving cleaning head 130, and any other components of cleaning apparatus 100 attached to cleaning head 130, with respect to the floor surface. Cleaning head 130 can include a dirty air inlet 131 for receiving debris from the floor surface. In some implementations, cleaning head 130 includes one or more agitators, for example, at least partially disposed in one or more agitator chambers. Such agitators can be similar or identical to agitator(s) 334 described with respect to FIG. 3E below. Cleaning head 130 can include one or more or a plurality of motors to drive wheel(s) 132 and/or agitator(s) of cleaning head 130. Such motors can be similar or identical to motor(s) 333 described with respect to FIG. 3E below. In some implementations, cleaning head 130 includes a power source (for example rechargeable or non-rechargeable batteries) that can be utilized to provide power to motor(s) of cleaning head 130. Additionally or alternatively, cleaning head 130 can be configured to receive power from another component of cleaning apparatus 100, for example, floor-based vacuum cleaner 110 or handheld vacuum cleaner 120, either or all of which may receive power (for example, AC power) via a cord 101. Cleaning head 130 can include a housing configured to at least partially enclose one or more components of cleaning head 130, and such housing can be connected to wheel(s) 132 of cleaning head 130. In various implementations and/or modes of operation of cleaning apparatus 100, cleaning head 130 may serve as an initial entry point for receiving debris from surface (for example, a floor surface). In such implementations, cleaning head 130 can be configured to direct such debris to and/or toward floor-based vacuum cleaner 110 and/or handheld vacuum cleaner 120. As mentioned previously, cleaning head 130 can include dirty air inlet 131. Cleaning head 130 can include one or more flow conduits (for example, within a housing of cleaning head 130) in flow communication with such dirty air inlet 131 and configured to direct debris to and/or toward floor-based vacuum cleaner 110 and/or handheld vacuum cleaner 120. As mentioned previously, cleaning apparatus 100 can include a support member 105 connected to cleaning head 130. Such support member 105 can be in flow communication with the dirty air inlet 131 of cleaning head 130, for example, via such one or more flow conduits of cleaning head 130. Cleaning apparatus 100 can be configured such that support member 105 is also in flow communication with a dirty air inlet 131 of floor-based vacuum cleaner 110 and/or a dirty air inlet of handheld vacuum cleaner 120, for example, during at least some modes of operation of cleaning apparatus 100. As described further below, cleaning apparatus 100 can include a valve assembly that can enable or disable flow communication between cleaning head 130, floor-based vacuum cleaner 110, and/or handheld vacuum cleaner 120. In some of such configurations, support member 105 can be connected and/or connectable to such valve assembly.

[0113] Floor-based vacuum cleaner 110 can include any of a variety of components that enable floor-based vacuum cleaner 110 to receive, separate, and collect debris from air. Floor-based vacuum cleaner 110 can include any or all of the components shown and/or described with respect to vacuum cleaner 310 in FIG. 3F. For example, floor-based vacuum cleaner 110 can include a dirty air inlet, a clean air outlet, a suction motor, a debris separator, and a debris container, each of which can be similar or identical to dirty air inlet 311, clean air outlet 312, suction motor 313, debris separator 314, and debris container 315, respectively. Floor-based vacuum cleaner 110 can be configured to receive power from another component of cleaning apparatus 100, for example, handheld vacuum cleaner 120, which may receive power via cord 101. In some variants, floor-based vacuum cleaner 110 includes a power source (for example rechargeable or non-rechargeable batteries) that can be utilized to provide power to components of floor-based vacuum cleaner 110 (for example, a suction motor and/or debris separator of floor-based vacuum cleaner 110). In some implementations, handheld vacuum cleaner 120 receives power from cord 101 and floor-based vacuum cleaner 110 includes one or more rechargeable batteries that automatically recharge when floor-based vacuum cleaner 110 is connected with handheld vacuum cleaner 120. In such cases, handheld vacuum cleaner 120 can include a charger controller configured to control such charging of the rechargeable batteries of floor-based vacuum cleaner 110 when handheld vacuum cleaner 120 and floor-based vacuum cleaner 110 are connected. In some implementations, floor-based vacuum cleaner 110 is connected with a power cord and is configured to charge one or more rechargeable batteries in handheld vacuum cleaner 120 when handheld vacuum cleaner 120 and floor-based vacuum cleaner 110 are connected. In such implementations, floor-based vacuum cleaner 110 may be configured to recharge the batteries associated with handheld vacuum cleaner 120 when floor-based vacuum cleaner 110 is coupled to an AC power source. The handheld vacuum cleaner 120 may therefore be disconnected from floor-based vacuum cleaner 110 and operated using the batteries associated with handheld vacuum cleaner 120 independently from floor-based vacuum cleaner 110. In some implementations, cleaning apparatus 100 is configured to derive power for operating in any of the modes of operation described here by drawing on power from batteries from either or both of handheld vacuum cleaner 120 and floor-based vacuum cleaner 110, which may further extend operation time of the cleaning apparatus 100. Floor-based vacuum cleaner 110 can include a housing configured to at least partially enclose any or all components of floor-based vacuum cleaner 110.

[0114] Handheld vacuum cleaner 120 can include any of a variety of components that enable handheld vacuum cleaner 120 to receive, separate, and collect debris from air. Handheld vacuum cleaner 120 can include any or all of the components shown and/or described with respect to vacuum cleaner 320 in FIG. 3G. For example, handheld vacuum cleaner 120 can include a dirty air inlet, a clean air outlet, a suction motor, a debris separator, and a debris container, each of which can be similar or identical to dirty air inlet 321, clean air outlet 322, suction motor 323, debris separator 324, and debris container 325, respectively. Handheld vacuum cleaner 120 can be configured to receive power from an external power source, for example, via a cord 101. Cord 101 can have a variety of lengths, for example, 5 ft, 10 ft, 15 ft, 20 ft, 25 ft, 20 ft, or 35 ft. In some implementations of cleaning apparatus 100, handheld vacuum cleaner 120 provides power to floor-based vacuum cleaner 110 and/or cleaning head 130, for example, in a similar or identical manner as that described with respect to cleaning apparatus 200 below. For example, in some implementations, handheld vacuum cleaner 120 provides power to a suction motor and/or debris separator of floor-based vacuum cleaner 110 and/or wheel(s), agitator(s), and/or motor(s) of cleaning head 130. In some variants, handheld vacuum cleaner 120 includes a power source (for example rechargeable or non-rechargeable batteries) that can be utilized to provide power to handheld vacuum cleaner 120 and/or floor-based vacuum cleaner 110 and/or cleaning head 130. Handheld vacuum cleaner 120 can include a housing configured to at least partially enclose any or all components of floor-based vacuum cleaner 110. Handheld vacuum cleaner 120 can include a handle 129 coupled to or formed as part of such housing. Handle 129 may be arcuate, for example, coupled at two points to the housing. In some implementations, handle 129 is pistol-shaped (for example, extending from one point of such housing). Such pistol-shaped handle may extend along a longitudinal axis of the housing of handheld vacuum cleaner 120 or at an acute angle relative to such longitudinal axis. As shown, handheld vacuum cleaner 120 can include user input device or controls 128 on a portion of such housing or handle 129. Handheld vacuum cleaner 120 can include a controller for controlling operation of handheld vacuum cleaner 120, floor-based vacuum cleaner 110, and/or cleaning head 130. Such controller can be similar or identical to controller 327 of vacuum cleaner 320 described with respect to FIG. 3G. Handheld vacuum cleaner 120 can additionally include controls 128 (including, for example, one or more buttons) for allowing a user to control operation of handheld vacuum cleaner 120, floor-based vacuum cleaner 110, and/or cleaning head 130. Controls 128 can be similar or identical to input device(s) or controls 328 described with respect to FIG. 3G. As an example, controls 128 can allow a user to turn a suction motor of handheld vacuum cleaner 120 or floor-based vacuum cleaner 110 on or off (for example, independently) and/or activate one or more motors of cleaning head 130 to rotate agitator(s) of cleaning head 130 and/or drive wheel(s) 132 of cleaning head 130.

[0115] FIGS. 1A-1C illustrate cleaning apparatus 100 in different example modes of operation. FIG. 1A illustrates a mode of operation which may be referred to as an upright cleaning mode or upright mode. In such mode, floor-based vacuum cleaner 110, handheld vacuum cleaner 120, and cleaning head 130 are attached to one another and are supported by and movable with respect to a surface. In such upright cleaning mode, cleaning apparatus 100 utilizes floor-based vacuum cleaner 110 to remove debris from the floor surface. In the upright cleaning mode, debris can be directed from cleaning head 130 to floor-based vacuum cleaner 110 (for example, at least partially via support member 105 and/or wand 103). FIG. 1B illustrates cleaning apparatus 100 in a mode of operation in which floor-based vacuum cleaner 110 is detached from handheld vacuum cleaner 120 and cleaning head 130 (for example, detached from wand 103 and/or support member 105). In such mode, which may be referred to as a stick cleaning mode or stick mode, cleaning apparatus 100 utilizes handheld vacuum cleaner 120 to remove debris from the floor surface. In such mode, debris can be directed from cleaning head 130 to handheld vacuum cleaner 120 (for example, at least partially via support member 105 and/or wand 103). As illustrated in FIG. 1B, such cleaning mode can advantageously allow cleaning apparatus 100 to more easily maneuver under and/or around furniture, among other objects or obstacles. FIG. 1C illustrates cleaning apparatus 100 in a mode of operation in which floor-based vacuum cleaner 110 and handheld vacuum cleaner 120 are attached to one another. As illustrated, floor-based vacuum cleaner 110 and handheld vacuum cleaner 120 can also be attached to cleaning head 130 and support member 105 in such mode. In such mode, which may be referred to as an empty mode or auto-empty mode, debris from handheld vacuum cleaner 120 can be transferred to (emptied into) floor-based vacuum cleaner 110. For example, in such mode, debris from a debris container of handheld vacuum cleaner 120 can be transferred to a debris container of floor-based vacuum cleaner 110. This can be especially advantageous in cases where the debris container of handheld vacuum cleaner 120 is smaller than the debris container of floor-based vacuum cleaner 110. In some implementations, the debris container of floor-based vacuum cleaner 110 is at least 20%, at least 30%, at least 40%, at least 50%, at least 60%, at least 70%, at least 80%, at least 90%, at least 100%, at least 150%, at least 200%, at least 250%, or at least 300% larger (for example, by volume) than the debris container of handheld vacuum cleaner 120, or any value or range within or bounded by any of these values or ranges.

[0116] Cleaning apparatus 100 can include one or more valves and/or a valve assembly to facilitate transitioning between the upright cleaning mode, stick cleaning mode, and auto-empty mode. By way of non-limiting example, cleaning apparatus 100 can include valves similar to those described with respect to FIGS. 14A-14LL, one of which can be arranged in handheld vacuum cleaner 120 and the other of which can be arranged within support member 105. As another example, cleaning apparatus 100 can include valves similar to valves 1680, 1690 shown and/or described with respect to at least FIG. 16EE-16KK and/or valves 1780, 1790 shown and/or described with respect to at least FIG. 17CC and 17II-17KK, one of which can be arranged in handheld vacuum cleaner 120 and the other of which can be arranged within support member 105. As another example, cleaning apparatus 100 can include any of the valves described and/or illustrated with respect to cleaning apparatus 1800, 1900, 2200 and/or handheld vacuum cleaner 1820, 1920, 2020, 2120, 2220. As another example, cleaning apparatus 100 can include a valve assembly that is similar or identical to valve assembly 340 shown and described with respect to FIGS. 3A-3D. Such valve assembly can be configured to connect and/or connect to various components of cleaning apparatus 100. For example, such valve assembly can be connected to or connectable with cleaning head 130 (for example, via support member 105), floor-based vacuum cleaner 110, and/or handheld vacuum cleaner 120 (for example, via wand 103). Such valve assembly can be configured to open and close flow paths between cleaning head 130, floor-based vacuum cleaner 110, and handheld vacuum cleaner 120, wand 103, and/or support member 105. For example, such valve assembly can be transitionable between a plurality of configurations, each of which enables or disables flow communication between any two of cleaning head 130, floor-based vacuum cleaner 110, and handheld vacuum cleaner 120. For example, to allow cleaning apparatus 100 to operate in the above-described upright cleaning mode, such valve assembly can: enable flow communication between cleaning head 130 (for example, dirty air inlet 131) and floor-based vacuum cleaner 110; disable flow communication between cleaning head 130 (for example, dirty air inlet 131) and handheld vacuum cleaner 120; and disable flow communication between floor-based vacuum cleaner 110 and handheld vacuum cleaner 120. In implementations of cleaning apparatus 100 that include support member 105, the valve assembly can facilitate flow communication between dirty air inlet 131 of cleaning head 130, support member 105, and floor-based vacuum cleaner 110 in such an upright cleaning mode. As mentioned previously, floor-based vacuum cleaner 110 is detached from cleaning apparatus 100 when cleaning apparatus 100 is in the stick cleaning mode (see FIG. 1B). In such mode, the valve assembly can close a flow path that would otherwise be open if floor-based vacuum cleaner 110 was attached to cleaning apparatus 100 and enable flow communication between cleaning head 130 (for example, dirty air inlet 131) and handheld vacuum cleaner 120. In implementations of cleaning apparatus 100 that include support member 105 and/or wand 103, the valve assembly can facilitate flow communication between dirty air inlet 131 of cleaning head 130, support member 105, wand 103, and handheld vacuum cleaner 120 during the stick cleaning mode. As another example, to allow cleaning apparatus 100 to operate in the above-described empty mode, such valve assembly can: disable flow communication between cleaning head 130 (for example, dirty air inlet 131) and both of floor-based vacuum cleaner 110 and handheld vacuum cleaner 120; and enable flow communication between floor-based vacuum cleaner 110 and handheld vacuum cleaner 120. In implementations of cleaning apparatus 100 that include wand 103, the valve assembly can facilitate flow communication between floor-based vacuum cleaner 110, wand 103, and handheld vacuum cleaner 120 during the empty mode of operation. In some implementations, the empty mode of operation may be initiated by a user (for example, by pressing a button) and/or may be automatically initiated, for example, based on feedback from one or more sensors within the handheld vacuum cleaner 120 configured to detect an amount of debris in a debris container of handheld vacuum cleaner 120 and/or a fill level of such debris container. In some implementations, the empty mode of operation can be automatically initiated when attaching handheld vacuum cleaner 120 to floor-based vacuum cleaner 110.

[0117] With reference to FIGS. 1D-1E, in some implementations, handheld vacuum cleaner 120 is removably attachable to wand 103, floor-based vacuum cleaner 110, and/or cleaning head 130. For example, handheld vacuum cleaner 120 can be removably attachable to wand 103 and can be utilized to collect debris from a table or other surface or region, as illustrated in FIG. 1D. As another example, handheld vacuum cleaner 120 and wand 103 can be removable from floor-based vacuum cleaner 110, cleaning head 130, and/or support member 105 and be utilized to remove debris from a wall and/or ceiling surface or region, as illustrated in FIG. 1E.

[0118] In some variants, cleaning apparatus 100 utilizes floor-based vacuum cleaner 110 along with handheld vacuum cleaner 120 for debris collection in the upright cleaning mode, and debris can be directed to, separated by, and collected by each of floor-based vacuum cleaner 110 and handheld vacuum cleaner 120.

[0119] In some implementations, cleaning apparatus 100 is configured to be secured, coupled, or otherwise mounted to a docking station. The docking station may be configured to recharge any of batteries associated with cleaning apparatus 100 (for example, batteries associated with handheld vacuum cleaner 120 and/or floor-based vacuum cleaner 110). The docking station may also be configured to automatically empty a debris container of the floor-based vacuum cleaner 110 and/or a debris container of handheld vacuum cleaner 120. Examples of docking stations which may be used to automatically empty a debris container of the floor-based vacuum cleaner 110 and/or a debris container of the handheld vacuum cleaner 120 are described in US 2024/0008699 A1, PCT/CN2024/102184 filed on Jun. 28, 2024, U.S. patent application Ser. No. 18/786,439, filed Jul. 27, 2024, WO 2024/216567 A1, US 2024/0349965 A1, WO 2024/055224 A1, U.S. Pat. No. 11,896,190 B1, all of which are incorporated by reference herein in their entireties. For example, cleaning apparatus 100 and such docking station may be configured to draw debris from a debris container of the floor-based vacuum cleaner 110, through wand 103, through a debris container of handheld vacuum cleaner 120 and into the docking station using, for example, just a suction motor of handheld vacuum cleaner 120, just a suction motor of floor-based vacuum cleaner 110, just a suction motor associated with the docking station, or any combination of these three suction motors.

[0120] FIGS. 2A-2E illustrate another example cleaning apparatus 200. Cleaning apparatus 200 can be similar or identical to cleaning apparatus 100 in some or many respects. For example, cleaning apparatus 200 can include a cleaning head 230, a floor-based vacuum cleaner 210, and a handheld vacuum cleaner 220, which can be similar or identical to cleaning head 130, floor-based vacuum cleaner 110, and handheld vacuum cleaner 120, respectively. Cleaning apparatus 200 can include a support member 205 and/or wand 203, which can be similar or identical to support member 105 and wand 103, respectively. Although FIG. 2B illustrates wand 203 and support 205 as a contiguous components, this is not intended to be limiting. It is to be understood that cleaning apparatus 200 can include a separate support member 205 and wand 203 that are removably attachable to one another (for example, similar to as shown and/or described with respect to implementations of cleaning apparatus disclosed herein), and such support member 205 can be connected to cleaning head 230. Handheld vacuum cleaner 220 can include a housing and a handle 229 coupled to or formed as part of such housing. Handheld vacuum cleaner 220 can include controls 228 which can be similar or identical to controls 128 and/or controls 328 described below with respect to FIG. 3G. Handheld vacuum cleaner 220 can include a controller that can be similar or identical to the controller described with respect to handheld vacuum cleaner 120 or vacuum cleaner 320 of FIG. 3G. Handheld vacuum cleaner 220 can include a dirty air inlet 221, a debris separator, a debris container 225, and a clean air outlet, which can be similar or identical to the dirty air inlet, debris separator, debris container, and clean air outlet described above (respectively) with respect to handheld vacuum cleaner 120. Handheld vacuum cleaner 220 can include a suction motor 223 which can be similar or identical to the suction motor described with respect to handheld vacuum cleaner 120 or suction motor 323 of vacuum cleaner 320 described below. Floor-based vacuum cleaner 110 can include a dirty air inlet, a debris separator, a suction motor, a debris container, and a clean air outlet, which can be similar or identical to the dirty air inlet, debris separator, suction motor, debris container, and clean air outlet described with respect to floor-based vacuum cleaner 110 previously. Cleaning head 230 can be similar or identical to cleaning head 130 and/or can include any of the features described or shown with respect to cleaning head 330 in FIG. 3G.

[0121] FIG. 2A illustrates cleaning apparatus 200 in an upright cleaning mode which can be similar or identical to the upright cleaning mode described above with respect to cleaning apparatus 100 and FIG. 1A. FIG. 2B illustrates cleaning apparatus 200 in a stick cleaning mode which can be similar or identical to the stick cleaning mode described above with respect to cleaning apparatus 100 and FIG. 1B. FIG. 2C illustrates cleaning apparatus 200 in an empty mode which can be similar or identical to the empty mode described above with respect to cleaning apparatus 100 and FIG. 1C. FIG. 2D illustrates handheld vacuum cleaner 220 detached from wand 203, floor-based vacuum cleaner 210, support member 205, and cleaning head 230, and usable to collect debris independent of such components. FIG. 2E illustrates handheld vacuum cleaner 220 attached to wand 203 and detached from floor-based vacuum cleaner 210, support member 205, and cleaning head 230.

[0122] FIGS. 2A-2C illustrate an example electrical connection between floor-based vacuum cleaner 210, handheld vacuum cleaner 220, and cleaning head 230 in each of the upright cleaning mode, stick cleaning mode, and empty mode. Cleaning apparatus 200 can be configured to allow removable mechanical and electrical connection of floor-based vacuum cleaner 210, handheld vacuum cleaner 220, and cleaning head 230 to one another. In implementations including wand 203 and support member 205, cleaning apparatus 200 can be configured to allow removable mechanical and electrical connection of floor-based vacuum cleaner 210, handheld vacuum cleaner 220, and cleaning head 230 to one another via one or both of wand 203 and support member 205. Cleaning apparatus 200 can include a valve assembly similar or identical to the valve assembly described with respect to cleaning apparatus 100 or any of the other valve assemblies disclosed herein. In such implementations, cleaning apparatus 200 can be configured to allow removable mechanical and electrical connection of floor-based vacuum cleaner 210, handheld vacuum cleaner 220, and cleaning head 230 to one another via one or all of wand 203, support member 205, and/or such valve assembly. In some implementations, cleaning apparatus 100 is configured to receive power from an external power source, for example, via a cord 201 connected to handheld vacuum cleaner 220. In some implementations, floor-based vacuum cleaner 210 and/or cleaning head 230 are configured to be in electrical communication with and receive power from handheld vacuum cleaner 220 when attached (directly or indirectly) to handheld vacuum cleaner 220. Such electrical communication is illustrated by electrical communication path 207 in FIGS. 2A-2C. As shown in FIG. 2A, which illustrates cleaning apparatus 200 in an upright cleaning mode, floor-based vacuum cleaner 210 and/or cleaning head 230 can be in electrical communication with handheld vacuum cleaner 220. Such electrical communication can, among other things, allow floor-based vacuum cleaner 210 and/or cleaning head 230 to receive power, which can allow, for example, operation of suction motor 213 of floor-based vacuum cleaner 210 and/or motor(s) 233 of cleaning head 230. Where cleaning apparatus 200 includes wand 203 and/or support member 205, wand 203 and/or support member 205 can facilitate such electrical communication of floor-based vacuum cleaner 210 and cleaning head 230 with handheld vacuum cleaner 220. FIG. 2C illustrates cleaning apparatus 200 in an empty mode, in which electrical communication between floor-based vacuum cleaner 210, cleaning head 230, and handheld vacuum cleaner 220 can be similar to that present in the upright cleaning mode shown and/or described with respect to FIG. 2A. FIG. 2B illustrates cleaning apparatus in a stick cleaning mode in which floor-based vacuum cleaner 210 is detached. Cleaning apparatus 200 can be configured to allow electrical communication between handheld vacuum cleaner 220 and cleaning head 230 in such mode, for example, via wand 203 and/or support member 205 (which may be integral with or attachable to wand 203). Electrical communication path 207 can be implemented with one or more or a plurality of wires and/or mechanical/electrical components and connections, and such communication path 207 can enable electrical communication between handheld vacuum cleaner 220 (for example, a controller thereof) and floor-based vacuum cleaner 210 and/or cleaning head 230.

[0123] Motor 233 can be configured to operate at various power levels, for example, 150 W, 200 W, 250 W, or 300 W. In some implementations, motor 233 operates at a smaller power level than suction motor 213 of first vacuum cleaner 210 and/or suction motor 223 of second vacuum cleaner 220. Suction motor 213 can include a motor coupled with an impeller, for example. Suction motor 213 can be configured to operate at various power levels, for example, 1050 W, 1100 W, 1150 W, 1200 W, or 1250 W. In some implementations, suction motor 2 is configured to operate at a greater power level than suction motor 223 of second vacuum cleaner 220 and/or motor 233 of cleaning head 230. Suction motor 223 can include a motor coupled with an impeller, for example. Suction motor 223 can be configured to operate at various power levels, for example, 400 W, 450 W, 500 W, or 550 W. In some implementations, suction motor 213 operates at a smaller power level than suction motor 223 of second vacuum cleaner 220. In some implementations, cleaning apparatus 200 is configured to receive up to or more than 1400 W via cord 201.

[0124] In some implementations, handheld vacuum cleaner 220 and wand 203 are configured to removably electrically connect to one another, for example, at point 209 illustrated in FIGS. 2A-2C. Suitable electrical connectors can be incorporated into handheld vacuum cleaner 220 and wand 203 to facilitate electrical connection between the two components. This can advantageously allow handheld vacuum cleaner 220 to be used independently from and together with other components of cleaning apparatus 200. In implementations in which cleaning apparatus 200 includes a valve assembly (which can be similar or identical to any of the valve assemblies described herein), handheld vacuum cleaner 220 and/or wand 203 can be configured to removably electrically connect to such valve assembly. In some implementations, floor-based vacuum cleaner 210 is configured to removably electrically connect to handheld vacuum cleaner 220, for example, via wand 203 and/or support member 205 at point 211 illustrated in FIGS. 2A and 2C. Suitable electrical connectors can be incorporated into floor-based vacuum cleaner 210 and support member 205 (for example) to facilitate electrical connection between the two components. Though not illustrated, it is to be understood that where wand 203 is removably attachable to cleaning head 230 and/or support member 205, a suitable electrical connection and connectors can be included in any of such components to facilitate electrical connection between any of such components when attached to one another. For example, wand 203 can include an electrical connector (for example, at or near a bottom end thereof) that can connect to an electrical connector in a post of support member 205. In implementations in which cleaning apparatus 200 includes a valve assembly (which can be similar or identical to any of the valve assemblies described herein), floor-based vacuum cleaner 210 can be configured to removably electrically connect to handheld vacuum cleaner 220 via such valve assembly. Accordingly, any of the above-described electrical connections can facilitate electrical communication between handheld vacuum cleaner 220 and any/all of wand 203, floor-based vacuum cleaner 210, support member 205, and cleaning head 230. In implementations where cleaning apparatus 200 receives power via cord 201 connected to handheld vacuum cleaner 220, the above-described electrical connections can allow handheld vacuum cleaner 220 provide electrical power to floor-based vacuum cleaner 210 and cleaning head 230 (for example, via wand 203 and/or support member 205).

[0125] FIG. 3A illustrates a schematic block diagram of another implementation of a cleaning apparatus 300. FIGS. 3B-3D schematically illustrate cleaning apparatus 300 in different modes of operation, as described further below. As shown, cleaning apparatus 300 can include a first vacuum cleaner 310, a second vacuum cleaner 320, a cleaning head 330, and a valve assembly 340.

[0126] FIG. 3E illustrates a schematic block diagram of cleaning head 330. Cleaning head 330 can be any of a variety of devices that can serve as a primary and/or initial entry point from which cleaning apparatus 300 collects debris, for example, from a floor surface. For example, cleaning head 330 can include one or more structural components that include or support a dirty air inlet that are connected to wheel(s) which allow the cleaning apparatus 300 to be supported by or moveable with respect to a floor surface. Cleaning head 330 can be similar or identical to any of the cleaning heads described herein. However, cleaning head 330 can take an alternative form yet still include a dirty air inlet for collecting debris from such surface. As shown in FIG. 3E, cleaning head 330 can include one or more or a plurality of wheels 332 for supporting and/or moving cleaning head 330, and any other components of cleaning apparatus 300 attached to cleaning head 330, with respect to a surface. Cleaning head 330 can include a dirty air inlet 331 for receiving debris from the floor surface. Dirty air inlet 331 can serve as a primary and/or initial entry point from which cleaning apparatus 300 collects debris and then directs such debris to either or both of the first or second vacuum cleaners 310, 320 (for example, via valve assembly 340 as described elsewhere herein). Dirty air inlet 331 can be in the form or a slot or other opening in a bottom portion of cleaning head 330 (for example, in a bottom portion of a housing of cleaning head 330). In some implementations, cleaning head 330 includes one or more agitators 334, for example, at least partially disposed in one or more agitator chambers. For example, cleaning head 330 may include a leading roller and a brush roller. The leading roller may include a soft roller and the brush roller may include any combination of bristle strips, bristles tufts, and/or flexible flaps. Alternatively, cleaning head 330 may include only a single agitator or no agitator. Cleaning head 330 can include one or more or a plurality of motors 333, for example, to drive the one or more wheels 332 and/or the one or more agitators 334. For example, cleaning head 330 can include a motor 333 for driving any or all wheel(s) 332. Additionally or alternatively, cleaning head 330 can include a motor 333 configured to rotate each or all agitator(s) 334. In some implementations, cleaning head 330 includes a power source 336 (for example rechargeable or non-rechargeable batteries) that can be utilized to provide power to motor(s) 333. Additionally or alternatively, cleaning head 330 can be configured to receive power from another component of cleaning apparatus 300, for example, the first vacuum cleaner 310 or second vacuum cleaner 320, either or all of which may receive power via a cord. Cleaning head 330 can include a housing configured to at least partially enclose power source 336, motor(s) 333, agitator(s) 334, and such housing can be connected to wheel(s) 332. Motor 333 can be configured to operate at various power levels, for example, 150 W, 200 W, 250 W, or 300 W. In some implementations, motor 333 operates at a smaller power level than suction motor 313 of first vacuum cleaner 310 and/or suction motor 323 of second vacuum cleaner 320. In various implementations and/or modes of operation of cleaning apparatus 300, cleaning head 330 may serve as an initial entry point for receiving debris from surface (e.g., a floor surface). In such implementations, cleaning head 330 can be configured to direct such debris to and/or toward valve assembly 340 which can in turn direct such debris to the first or second vacuum cleaners 310, 320 as described further below. Cleaning head 330 can include dirty air inlet 331 and/or one or more other flow conduits (such as a flexible conduit) configured to direct such debris in such manner. In some implementations, cleaning apparatus 300 includes a support member connected to cleaning head 330 and in flow communication with dirty air inlet 331. Such support member can be connected (removably or non-removably) to valve assembly 340 and/or integral with valve assembly 340. Such support member can include an airflow conduit in flow communication with dirty air inlet 331.

[0127] FIG. 3F illustrates a schematic block diagram of first vacuum cleaner 310. First vacuum cleaner 310 can include a dirty air inlet 311, a clean air outlet 312, a suction motor 313, a debris separator 314, and a debris container 315. In some implementations, first vacuum cleaner 310 is a floor-based vacuum cleaner, and can be similar or identical to floor-based vacuum cleaner 110. Dirty air inlet 311 can be configured to receive debris from cleaning head 330, for example, via valve assembly 340. As further described below, cleaning apparatus 300 may be in an upright cleaning mode when debris travel in such manner (from cleaning head 330 to dirty air inlet 311 of first vacuum cleaner 310. As also further described below, dirty air inlet 311 can be configured to receive debris from second vacuum cleaner 320 when cleaning apparatus 300 is in a mode of operation and valve assembly 340 enables flow communication between first and second vacuum cleaners 310, 320. Such mode may be referred to as an empty mode or auto-empty mode of cleaning apparatus 300. Regardless of where debris are received from, first vacuum cleaner 310 can be configured to separate and collect (store) such debris. First vacuum cleaner 310 can include a suction motor 313 configured to cause air to flow through first vacuum cleaner 310, for example, from dirty air inlet 311 and through clean air outlet 312. Suction motor 313 can be of any suitable design and configuration that is sufficient to impart air flow through first vacuum cleaner 310. Suction motor 313 can include a motor coupled with an impeller, for example. Suction motor 313 can be configured to operate at various power levels, for example, 1050 W, 1100 W, 1150 W, 1200 W, or 1250 W. In some implementations, suction motor 313 is configured to operate at a greater power level than suction motor 323 of second vacuum cleaner 320 and/or motor 333 of cleaning head 330. Debris separator 314 can be positioned in an airflow path between inlet 311 and outlet 312 to separate dirt or other debris from the airflow. Debris separator 314 can comprise one or more cyclones, filters, and/or bags. In some implementations, debris separator 314 is arranged upstream from suction motor 313. Debris container 315 can comprise various structures to allow storage of debris. In some implementations, debris separator 314 is incorporated in an assembly or unit with suction motor 313 and/or debris container 315. First vacuum cleaner 310 can be configured to receive power from another component of cleaning apparatus 300, for example, from first vacuum cleaner 120, which may receive power via a cord. In some implementations, first vacuum cleaner 310 includes a power source 336 (for example rechargeable or non-rechargeable batteries) that can be utilized to provide power to suction motor 313. First vacuum cleaner 310 can include a housing configured to at least partially enclose suction motor 313, debris separator 314, debris container 315, and/or power source 316.

[0128] FIG. 3G illustrates a schematic block diagram of second vacuum cleaner 320. Second vacuum cleaner 320 can include a dirty air inlet 321, a clean air outlet 322, a suction motor 323, a debris separator 324, and a debris container 325. In some implementations, second vacuum cleaner 320 is a handheld vacuum cleaner, and can be similar or identical to handheld vacuum cleaner 120. Dirty air inlet 321 can receive debris from cleaning head 330, for example, via valve assembly 340. Where cleaning apparatus 300 includes a wand and/or support member (for example, similar or identical to wand 103 and support member 105), dirty air inlet 321 can receive debris from cleaning head 330 (for example, dirty air inlet 311 of cleaning head 330) via such support member, valve assembly 340, and such wand, as described further below with respect to FIG. 3C. As also described below, cleaning apparatus 300 may be in a stick cleaning mode when debris travel in such manner (from cleaning head 330 to dirty air inlet 321 of second vacuum cleaner 320). In some implementations, second vacuum cleaner 320 is removably attachable to valve assembly 340, first vacuum cleaner 310, cleaning head 330, and/or such wand or support member (where included). In such implementations, first vacuum cleaner 320 can collect debris independent of these components. Regardless of whether debris are received from cleaning head 330 (for example, dirty air inlet 311) or independent from cleaning head 330 (or other components of cleaning apparatus 300), second vacuum cleaner 320 can be configured to separate and collect (store) such debris. Second vacuum cleaner 320 can include a suction motor 323 configured to cause air to flow through second vacuum cleaner 320, for example, from dirty air inlet 321 and through clean air outlet 322. Suction motor 323 can be of any suitable design and configuration that is sufficient to impart air flow through second vacuum cleaner 320. Suction motor 323 can include a motor coupled with an impeller, for example. Suction motor 323 can be configured to operate at various power levels, for example, 400 W, 450 W, 500 W, or 550 W. In some implementations, suction motor 313 operates at a smaller power level than suction motor 323 of second vacuum cleaner 320. Debris separator 324 can be positioned in an airflow path between inlet 321 and outlet 322 to separate dirt or other debris from the airflow. Debris separator 324 can comprise one or more cyclones, filters, and/or bags. In some implementations, debris separator 324 is arranged upstream from suction motor 323. Debris container 325 can comprise various structure to allow storage of debris. In some implementations, debris separator 324 is incorporated in an assembly or unit with suction motor 323 and/or debris container 325. In some implementations, second vacuum cleaner 320 is configured to receive power from an external source, for example, via a cord connected (removably or non-removably) connected to second vacuum cleaner 320. In some implementations, second vacuum cleaner 320 includes a power source 326 (for example rechargeable or non-rechargeable batteries). In some variants, second vacuum cleaner 320 is configured to receive power from another component of cleaning apparatus 300, for example, from first vacuum cleaner 310 or cleaning head 330, which may receive power via a cord. Regardless of the power source, second vacuum cleaner 320 can be configured to direct received power to suction motor 323 and/or other components of second vacuum cleaner 320 (such as controller 327 and/or input device(s) 328 described further below). In some implementations, second vacuum cleaner 320 is configured to provide power to any or all components of cleaning apparatus 300. For example, in some implementations, either or both of first vacuum cleaner 310 and cleaning head 330 receive power from second vacuum cleaner 320, when connected thereto (directly or indirectly). Second vacuum cleaner 320 can include a housing configured to at least partially enclose suction motor 323, debris separator 324, debris container 325, and/or power source 326.

[0129] Second vacuum cleaner 320 can include a controller 327 for controlling various operations of cleaning apparatus 300 or portions of components thereof. For example, controller 327 can be configured to turn any of vacuum cleaners 310, 320 and/or cleaning head 330 on or off. Controller 327 can comprise one or more processors (for example, microprocessor(s)), and such processor(s) can be communicatively coupled with one or more data storage devices. Controller 327 can be embodied in a printed circuit board. Such storage device(s) can store instructions for operating cleaning apparatus 300 or portions thereof, such as suction motor 323 of vacuum cleaner 320, suction motor 313 of vacuum cleaner 310, and/or motor(s) 333 of cleaning head 330. Such storage device(s) can include one or more memory devices that store data, including without limitation, dynamic and/or static random access memory (RAM), programmable read-only memory (PROM), erasable programmable read-only memory (EPROM), electrically erasable programmable read-only memory (EEPROM), and the like. Controller 327 can comprise a single chip or multiple separate chips and circuitry. Vacuum cleaners 310, 320, cleaning head 330, and/or valve assembly 340 can include electrical circuitry (e.g., wires) and electrical connectors that provide electrical communication with controller 327, for example, when attached to vacuum cleaner 320, for example, in a similar manner as that described above with respect to cleaning apparatus 200. Second vacuum cleaner 320 can include one or more user input devices 328 that allow second vacuum cleaner 320 and/or cleaning apparatus 300 to receive input from a user. Input device(s) 328 can be communicatively coupled with controller 327. Input device(s) 328 can comprise one or more buttons (for example, comprising an actuator and/or switch) and/or one or more capacitive or resistive sensors that can be utilized to receive input from a user. In some implementations, input device(s) 328 is embodied in a user interface (e.g., a touch-screen display) that allows user input and that provides information to a user. Such provided information can include, for example, battery life of on-board batteries in vacuum cleaner 320 (where included), information pertaining to an operational mode of cleaning apparatus 300 (for example, upright cleaning mode, stick cleaning mode, empty mode), whether suction motor 313 and/or 323 is operating or malfunctioning, whether a debris clog is present in any of vacuum cleaners 310, 320 or cleaning head 330 or dirty air inlets thereof, among other things). In some implementations, vacuum cleaner 310 and/or vacuum cleaner 320 include one or more sensors configured to detect pressure and/or airflow in portions therein, and in such implementations, user interface may display such information. In some implementations, vacuum cleaner 310 and/or vacuum cleaner 320 include one or more sensors configured to measure an amount of debris in debris containers 315, 325 (for example, 10% full, 25% full, 50% full, 75% full, 100% full), and in such implementations, such user interface may display such information.

[0130] In some implementations, controller 327 is configured to control operation of valve assembly 340, transition cleaning apparatus 300 between different operational modes, and/or facilitate operation of cleaning apparatus 300 in any of such operational modes. For example, in some implementations, controller 327 is configured to control operation of valve assembly 340 and transition cleaning apparatus 300 between an upright cleaning mode, in which debris flows from dirty air inlet 331 of cleaning head 330 to vacuum cleaner 310, and an empty mode, in which debris flow from vacuum cleaner 320 to vacuum cleaner 310. As an example, controller 327 can be configured to cause a valve of valve assembly 340 to move from a first state, in which vacuum cleaner 310 and cleaning head 330 are in flow communication and vacuum cleaner 320 is not in flow communication with vacuum cleaner and cleaning head 330 (see FIG. 3B), to a second state, in which vacuum cleaners 310, 320 are in flow communication with one another but are not in flow communication with cleaning head 330 (see FIG. 3D). Controller 327 can be configured to control operation of valve assembly 340 alone or in combination with various mechanisms, such as any of those described herein.

[0131] With reference to FIG. 3A, valve assembly 340 can be connected to and between cleaning head 330, vacuum cleaner 310, and vacuum cleaner 320 in a variety of ways to facilitate flow communication therebetween and also mechanical and/or electrical connection therebetween. In some implementations, valve assembly 340 is removably connectable to vacuum cleaner 310, vacuum cleaner 320 (for example, via a wand similar or identical to wand 103), and/or cleaning head 330 (for example, via a support member similar or identical to support member 105). Valve assembly 340 can provide flow paths between any two of cleaning head 330, vacuum cleaner 310, and vacuum cleaner 320. For example, valve assembly 340 can provide a first flow path between cleaning head 330 and vacuum cleaner 310, a second flow path between cleaning head 330 and vacuum cleaner 320, and a third flow path between vacuum cleaner 310 and vacuum cleaner 320. Valve assembly 340 can include one or more flow openings that provide flow communication between cleaning head 330, vacuum cleaner 310, and vacuum cleaner 320. For example, valve assembly 340 can comprise a valve housing that includes three flow openings, each of the flow openings configured to communicate with one of cleaning head 330 (for example, dirty air inlet 331), vacuum cleaner 310, and vacuum cleaner 320. Such flow openings can be in flow communication with an interior of the valve housing. Valve assembly 340 can also include a valve (for example, within the interior of the valve housing) that can be moved between a plurality of positions to open or close such flow openings. In some implementations, valve assembly 340 includes a closure mechanism in addition to such valve that can be utilized to close one of such flow openings, for example, a lid similar or identical to lid 442 of valve assembly 440. In some implementations, such closure mechanism can close a flow opening of valve assembly 340 when vacuum cleaner 310 is detached from cleaning apparatus 300, as illustrated and described with respect to FIG. 3C below.

[0132] FIGS. 3B-3D schematically illustrate cleaning apparatus 300 in different modes of operation. FIG. 3B illustrates cleaning apparatus 300 in a first mode of operation (which may be referred to as an upright cleaning mode) in which debris from cleaning head 330 (for example, from dirty air inlet 331 of cleaning head 330) is directed to vacuum cleaner 310, as indicated by the arrows in FIG. 3B. In some implementations of the upright cleaning mode: vacuum cleaner 310 is in flow communication with cleaning head 330 (for example, with dirty air inlet 331 of cleaning head 330); vacuum cleaner 320 is not in flow communication with vacuum cleaner 310; and vacuum cleaner 320 is not in flow communication with cleaning head 330. In the upright cleaning mode, valve assembly 340 can: provide (open) a flow path between cleaning head 330 (for example, with dirty air inlet 331 of cleaning head 330) and vacuum cleaner 310; block a flow path between cleaning head 330 (for example, with dirty air inlet 331 of cleaning head 330) and vacuum cleaner 320; and block a flow path between vacuum cleaner 310 and vacuum cleaner 320. In the upright cleaning mode, suction motor 313 of vacuum cleaner 310 can cause air to flow through dirty air inlet 331 of cleaning head 330, valve assembly 340 (for example, a valve housing of valve assembly 340), dirty air inlet 311, debris separator 314, and clean air outlet 312, thereby directing debris through dirty air inlet 311 and into debris container 315 of vacuum cleaner 310.

[0133] As mentioned above, valve assembly 340 can include one or more flow openings that provide flow communication between cleaning head 330, vacuum cleaner 310, and vacuum cleaner 320. For example, valve assembly 340 can include a first flow opening configured to provide flow communication with cleaning head 330, a second flow opening configured to provide flow communication with vacuum cleaner 310 (for example, with dirty air inlet 311 of vacuum cleaner 310), and a third flow opening configured to provide flow communication with vacuum cleaner 320 (for example, dirty air inlet 321 of vacuum cleaner 320). In some of such implementations, when cleaning apparatus 300 is in the upright cleaning mode (as shown in FIG. 3B): the first and second flow openings are in flow communication with one another; the first flow opening is not in flow communication with the third flow opening; and the second and third flow openings are not in flow communication with one another. In some implementations, valve assembly 340 includes a valve that blocks the third flow opening of valve assembly 340 when cleaning apparatus 300 is in the above-described mode (upright cleaning mode). Such valve can be movable (for example, rotatable) to one or more other positions such as those described below. The valve can be in a first position when blocking the third flow opening of the valve assembly 340 and cleaning apparatus 300 is in the above-described mode (upright cleaning mode).

[0134] FIG. 3C illustrates cleaning apparatus 300 in a second mode of operation (which may be referred to as a stick cleaning mode) in which debris from cleaning head 330 (for example, from dirty air inlet 331 of cleaning head 330) are directed to vacuum cleaner 320, as indicated by the arrows in FIG. 3C. In some implementations, such mode occurs when vacuum cleaner 310 is detached from valve assembly 340 (for example, detached from a valve housing of valve assembly 340). Such detachment is schematically illustrated with the dotted line in FIG. 3C. In such stick cleaning mode: vacuum cleaner 320 is in flow communication with cleaning head 330 (for example, with dirty air inlet 331 of cleaning head 330); vacuum cleaner 310 is not in flow communication with cleaning head 330; and vacuum cleaner 310 is not in flow communication with vacuum cleaner 320. In such mode, valve assembly 340 can: provide (open) a flow path between cleaning head 330 (for example, with dirty air inlet 331 of cleaning head 330) and vacuum cleaner 320; block a flow path between cleaning head 330 (for example, with dirty air inlet 331 of cleaning head 330) and vacuum cleaner 310; and block a flow path between vacuum cleaner 310 and vacuum cleaner 320. In the stick cleaning mode, suction motor 323 of vacuum cleaner 320 can cause air to flow through dirty air inlet 331 of cleaning head 330, valve assembly 340 (for example, a valve housing of valve assembly 340), dirty air inlet 321, debris separator 324, and clean air outlet 322, thereby directing debris through dirty air inlet 321 and into debris container 325. As mentioned above, valve assembly 340 can include a first flow opening configured to provide flow communication with cleaning head 330, a second flow opening configured to provide flow communication with vacuum cleaner 310 (for example, with dirty air inlet 311 of vacuum cleaner 310), and a third flow opening configured to provide flow communication with vacuum cleaner 320 (for example, dirty air inlet 321 of vacuum cleaner 320). In some of such implementations, when cleaning apparatus 300 is in the stick cleaning mode (as shown in FIG. 3C): the first and third flow openings are in flow communication with one another; the first flow opening is not in flow communication with the second flow opening; and the second and third flow openings are not in flow communication with one another. In some implementations, valve assembly 340 includes a closure mechanism (such as a lid) that blocks the second flow opening of valve assembly 340 when cleaning apparatus 300 is in the above-described mode (stick cleaning mode). In some implementations, such closure mechanism automatically blocks the second flow opening responsive to detachment of vacuum cleaner 310 from valve assembly 340 (for example, detachment from a valve housing of valve assembly 340). As described above, valve assembly 340 can include a valve that can block the above-described third flow opening when cleaning apparatus 300 is in the upright cleaning mode illustrated in FIG. 3B. Such valve can be in a first position when blocking such third flow opening. In some implementations, such valve is configured to be moved (for example, rotated) to a second position, for the stick cleaning mode illustrated in FIG. 3C, in which the valve blocks the second flow opening of valve assembly 340. Such configuration for the valve can be utilized along with or as an alternative to the above-described closure mechanism. In some implementations, such valve does not block the second flow opening and the valve assembly 340 relies on the above-described closure mechanism to block such second flow opening when cleaning apparatus 300 is in the stick cleaning mode.

[0135] FIG. 3D illustrates cleaning apparatus 300 in a third mode of operation (which may be referred to as an empty mode or auto-empty mode) in which debris from vacuum cleaner 320 (for example, from debris container 325 of vacuum cleaner 320) are directed to vacuum cleaner 310, as indicated by the arrows in FIG. 3D. In such mode: vacuum cleaner 310 is in flow communication with vacuum cleaner 320; vacuum cleaner 310 is in not in flow communication with cleaning head 330 (for example, with dirty air inlet 331 of cleaning head 330); and vacuum cleaner 320 is in not in flow communication with cleaning head 330 (for example, with dirty air inlet 331 of cleaning head 330). In such mode, valve assembly 340 can: provide (open) a flow path between vacuum cleaner 310 and vacuum cleaner 320; block a flow path between cleaning head 330 (for example, with dirty air inlet 331 of cleaning head 330) and vacuum cleaner 310; and block a flow path between cleaning head 330 (for example, with dirty air inlet 331 of cleaning head 330) and vacuum cleaner 320. In the empty mode, suction motor 313 of vacuum cleaner 310 can cause air to flow through dirty air inlet 321 of vacuum cleaner 320, valve assembly 340 (for example, a valve housing of valve assembly 340), dirty air inlet 311, debris separator 314, and clean air outlet 312, thereby directing debris from the debris container 325 of vacuum cleaner 320 into debris container 315 of vacuum cleaner 310. As mentioned above, valve assembly 340 can include a first flow opening configured to provide flow communication with cleaning head 330, a second flow opening configured to provide flow communication with vacuum cleaner 310 (for example, with dirty air inlet 311 of vacuum cleaner 310), and a third flow opening configured to provide flow communication with vacuum cleaner 320 (for example, dirty air inlet 321 of vacuum cleaner 320). In some of such implementations, when cleaning apparatus 300 is in the empty mode (as shown in FIG. 3D): the second and third flow openings are in flow communication with one another; the first and second flow openings are not in flow communication with the one another; and the first and third flow openings are not in flow communication with one another. As described above, valve assembly 340 can include a valve that can block such third opening (e.g., when cleaning apparatus 300 is in the upright cleaning mode) and block such second opening (e.g., when cleaning apparatus 300 is in the stick cleaning mode). As also described above, such valve can be in a first position when blocking such third flow opening and a second position when blocking such second opening. In some implementations, such valve is moveable (e.g., rotatable) to a third position in which the valve blocks the above-described first opening of valve assembly 340. In some implementations, such valve is movable (e.g., rotatable) between any of the above-described, first, second, and third positions. In some implementations, such valve is movable between these positions manually (e.g., by mechanical movement of a knob or actuator). In some implementations, such valve is movable between these positions electronically, for example, responsive to user input using input device(s) 328 and using controller 327.

[0136] Cleaning apparatus 300 can be transitioned between the above-described modes in a variety of ways. For example, cleaning apparatus 300 can be transitioned from the upright cleaning mode (FIG. 3B) to the stick cleaning mode (FIG. 3C) responsive to detachment of vacuum cleaner 310 from cleaning apparatus 300 (e.g., detachment from valve assembly 340). As another example, cleaning apparatus 300 can be transitioned from the stick cleaning mode (FIG. 3C) to the upright cleaning mode (FIG. 3B) responsive to attachment of vacuum cleaner 310 to cleaning apparatus 300 (e.g., attachment to valve assembly 340). In some implementations, valve assembly 340 includes a closure mechanism (e.g., a lid) that automatically closes a flow opening of valve assembly to facilitate transitioning of cleaning apparatus 300 to the stick cleaning mode. As another example, cleaning apparatus 300 can be transitioned between the upright cleaning mode and empty mode based on movement and/or orientation of the vacuum cleaner 320, vacuum cleaner 310, and/or valve assembly 340 relative to cleaning head 330.

[0137] For example, with reference to FIGS. 1A and 1C, where vacuum cleaner 310 is a floor-based vacuum cleaner similar to floor-based vacuum cleaner 110, vacuum cleaner 320 is a handheld vacuum cleaner similar to handheld vacuum cleaner 120, and vacuum cleaners 310, 320 and/or valve assembly 340 are coupled with cleaning head 330 via a wand and/or support member (similar or identical to wand 103 and support member 105), movement of such wand and/or support member relative to cleaning head 330 can facilitate transition of cleaning apparatus 300 between an upright cleaning mode and an empty mode. In some implementations, cleaning apparatus 300 (for example, controller 327) is configured to determine an orientation of such wand (and/or vacuum cleaners 310, 320) relative to cleaning head 330, and, responsive to such determination, instruct the valve assembly 340 to transition between the upright cleaning mode and the empty mode. In some implementations, the valve housing of valve assembly 340 includes an actuator or other mechanism for transitioning between the upright cleaning mode and the empty mode. In some implementations, valve assembly 340 is biased toward the stick cleaning mode (FIG. 3C). In such implementations, valve assembly 340 can automatically cause cleaning apparatus to transition to the stick cleaning mode when, for example, vacuum cleaner 310 is detached from cleaning apparatus 300 (for example, from valve assembly 340).

[0138] Variants of the above-described modes are possible. For example, in one variant of the upright cleaning mode, vacuum cleaner 310 is in flow communication with, and can receive debris from, both of cleaning head 330 and vacuum cleaner 320. As another example, in another variant of the upright cleaning mode, both vacuum cleaners 310, 320 receive debris from cleaning head 330 (e.g., both of suction motors 313, 323 cause air to flow from cleaning head 330 (e.g., dirty air inlet 331) to and through vacuum cleaners 310, 320.

[0139] FIGS. 4A-4E illustrate a valve assembly 440 or portions thereof. Valve assembly 440 can be utilized in a cleaning apparatus including a floor-based vacuum cleaner, a handheld vacuum cleaner, and a cleaning head. For example, valve assembly 440 can be utilized in any of cleaning apparatuses 100, 200, or 300. Valve assembly 440 can be an implementation of valve assembly 340 described above. Valve assembly 440 can be configured to connect to various components of a cleaning apparatus, such as a cleaning head, a floor-based vacuum cleaner, and a handheld vacuum cleaner, and/or other components that are connected with any of such cleaning head, floor-based vacuum cleaner, and handheld vacuum cleaner (such as a wand and/or a support member of the cleaning apparatus). FIGS. 4H-4K illustrate valve assembly 440 attached with an example floor-based vacuum cleaner 410, while FIGS. 4A-4C and 4F-4G illustrate valve assembly 440 detached from such floor-based vacuum cleaner 410.

[0140] With reference to FIGS. 4A-4C, valve assembly 440 can include a valve housing 441. Valve housing 441 is shown as transparent in the figures to better illustrate other components of valve assembly 440. Valve housing 441 can include an interior and a plurality of openings configured to provide flow communication between a cleaning head, floor-based vacuum cleaner, and a handheld vacuum cleaner, and/or other components that are connected with any of such cleaning head, floor-based vacuum cleaner, and handheld vacuum cleaner (such as a wand and/or a support member of the cleaning apparatus). Valve housing 441 can include a first opening 441a, a second opening 441b, and a third opening 441c. First opening 441a can provide flow communication between an interior of valve housing 441 and a cleaning head and/or support member of a cleaning apparatus. Second opening 441b can provide flow communication between the interior of valve housing 441 and a floor-based vacuum cleaner of the cleaning apparatus, such as floor-based vacuum cleaner 410. Third opening 441c can provide flow communication between the interior of valve housing 441 and a handheld vacuum cleaner and/or wand of the cleaning apparatus. As shown, first opening 441a can be defined at one end of valve housing 441 and third opening 441c can be defined at another end of valve housing 441. As also shown, second opening 441b can be defined along a portion of valve housing 441 that is between such ends. An axis extending through opening 441b can be arranged non-parallel relative to an axis extending through openings 441a and/or 441c. For example, an axis extending through opening 441b can be arranged oblique or generally perpendicular relative to an axis extending through openings 441a and/or 441c. In some implementations, opening 441b is arranged closer to opening 441a than to opening 441c. For example, opening 441b can be arranged closer to an end of valve housing 441 which defines opening 441a than to an end of valve housing 441 which defines opening 441c. In some implementations, opening 441b can be substantially circular. Valve assembly 440 can include a closure mechanism to close (for example, cover) opening 441b when a floor-based vacuum cleaner is detached from valve assembly 440. For example, valve assembly 440 can include a lid 442 (which also may be referred to as a door). With reference to FIGS. 4A-4C, lid 442 can include a body 442a, an arm 442b, and an opening mechanism 442c. Lid 442 can be pivotably connected to valve housing 441 and configured to move between a closed position in which lid 442 (for example, body 442a) covers opening 441b (FIGS. 4A-4C, 4F) and an open position (FIGS. 4H-4K). With reference to at least FIGS. 4A-4C, lid 442 be pivotably connected to one or more of portions 441e of valve housing 441. For example, arm 442b can be pivotably connected to portions 44le via a pin 442d, and such pin 442d can extend through holes in arm 442b and portions 441e. In some implementations, lid 442 is biased toward the above-described closed position, for example, via a spring (such as a torsional spring). Opening mechanism 442c can extend from body 442a for example, in a direction that is opposite from valve housing 441. Opening mechanism 442c can advantageously be configured to engage a portion of floor-based vacuum cleaner 410 when floor-based vacuum cleaner 410 is attached to valve assembly 440, such that floor-based vacuum cleaner 410 pushes opening mechanism 442c, and thus lid 442 towards an open position (see, e.g., FIGS. 4H-4K).

[0141] FIGS. 4A-4C, 4F, and 4H illustrate a wand 403 attached to valve housing 441. In some implementations, wand 403 extends at least partially through an end of valve housing 441 and/or opening 441c such that wand 403 (for example, an airflow passage within wand 403) is in flow communication with the interior of valve housing 441. Wand 403 can provide flow communication between valve housing 441 and a handheld vacuum cleaner, such as any of those described herein.

[0142] As mentioned previously, valve assembly 440 can be utilized in a cleaning apparatus including a floor-based vacuum cleaner, a handheld vacuum cleaner, and a cleaning head. Valve assembly 440 can advantageously provide flow paths between any two of such floor-based vacuum cleaner, handheld vacuum cleaner, and cleaning head, so as to facilitate multiple modes of operation of the cleaning apparatus. As also mentioned previously: opening 441a can provide flow communication with a cleaning head and/or a support member connected with the cleaning head; opening 441b can provide flow communication with a floor-based vacuum cleaner when attached to valve assembly 440; and opening 441c can provide flow communication with a handheld vacuum cleaner, for example, via wand 403. Valve assembly 440 can provide a first flow path between openings 441a and 441b to facilitate flow communication between a cleaning head and a floor-based vacuum cleaner, which may be described as an upright mode of operation. Valve assembly 440 can provide a second flow path between openings 441a and 441c to facilitate flow communication between the cleaning head and a handheld vacuum cleaner (and wand 403), which may be described as a stick mode of operation. Valve assembly 440 can provide a third flow path between openings 441b and 441c to facilitate flow communication between the handheld vacuum cleaner (and wand 403) and the floor-based vacuum cleaner, which may be described as an empty mode of operation. As explained in more detail below, valve assembly 440 can be transitioned between multiple configurations to facilitate such first, second, and third flow paths and the above-described flow communication and modes of operation. Valve assembly 440 can include a valve 443 and/or other structure to facilitate such first, second, and third flow paths and the above-described flow communication and modes of operation.

[0143] Valve assembly 440 can be transitioned to a first configuration to facilitate the above described upright mode, in which the first flow path is open and the second and third flow paths are closed. Such first configuration can thereby allow debris collected by the cleaning head (for example, from a floor surface) to be directed to the floor-based vacuum cleaner. In some implementations, a valve of valve assembly 440 closes (e.g., blocks) the second and third flow paths when valve assembly 440 is in said first configuration. Valve assembly 440 can be transitioned to a second configuration to facilitate the above described stick mode, in which the second flow path is open and the first and third flow paths are closed. The floor-based vacuum cleaner can be detached and lid 442 can be in a closed position (covering opening 441b) in such stick mode. Such second configuration can thereby allow debris collected by the cleaning head (for example, from a floor surface) to be directed to the handheld vacuum cleaner (for example, via wand 403). In some implementations, lid 442 of valve assembly 440 closes (for example, blocks) the first and third flow paths (for example, by covering opening 441b) when valve assembly 440 is in said second configuration. Valve assembly 440 can be transitioned to a third configuration to facilitate the above described empty mode, in which the third flow path is open and the first and second flow paths are closed. Such third configuration can thereby allow debris from the handheld vacuum cleaner (for example, a debris container of the handheld vacuum cleaner) to be directed to the floor-based vacuum cleaner (for example, a debris container of the floor-based vacuum cleaner). In some implementations, a valve of valve assembly 440 closes (e.g., blocks) the first and second flow paths when valve assembly 440 is in said third configuration. An example of the above-described valve is valve 443.

[0144] Valve assembly 440 can include a valve 443 and various other components for moving and/or positioning valve 443, for example, to facilitate the above-described first, second, and third configurations of valve assembly 440. For example, valve assembly 440 can include a frame 445 and linkage structure movably connected to frame 445 and valve 443 to allow movement (for example, rotation) of valve 443 (for example, within a portion of an interior of valve housing 441).

[0145] FIG. 4D illustrates a perspective view of valve 443. Valve 443 can include a body 443b and walls 443a, 443c connected to body 443b. Walls 443a, 443c can be arranged at opposite ends of valve 443 and spaced from one another by valve body 443b. Valve 443 can be sized and/or shaped to be positioned within a portion of the interior of valve housing 441. In some implementations, valve 443 have a circular profile and/or cross-section, in which case valve 443 can be arranged in a cylindrical portion of valve housing 441 (see FIG. 4B). FIGS. 4B-4C illustrate a partially exploded view of valve assembly 440, in which valve 443, frame 445, and other components are removed from the interior of valve housing 441. Valve housing 441 can include a fourth opening 441d to facilitate insertion and/or removal of valve 443 within the interior of valve housing 441 (for example, a cylindrical portion of valve housing 441). In some implementations, the fourth opening 441d can have a circular shape, for example, in implementations in which valve 443 has a circular profile and/or cross-section. With reference to FIG. 4D, walls 443a and/or 443c can have a circular shape. Wall 443a can have an annular shape having an opening that is configured to be positioned adjacent to and/or aligned with opening 441b of valve housing 441 when valve assembly 440 is assembled. In some implementations, wall 443a is configured to seat and/or seal against a portion of valve housing 441 around opening 441b. In some implementations, wall 443a can have a greater diameter than opening 441b. Wall 443c can comprise a plate, for example, a circular shaped plate. Wall 443c can be configured to engage and/or interact with frame 445, for example, via interaction between valve pin 443d and slot 445e of frame 445 and/or slot 453a of link 453 as described in more detail below. Pin 443d can extend from (for example, perpendicularly from) wall 443c. In some implementations, movement of pin 443d can move and/or rotate wall 443c and valve 443 to transition the valve assembly 440 between the first, second, and/or third configuration. In some implementations, wall 443c is configured to seat and/or seal against a portion of valve housing 441 around opening 441d.

[0146] With reference to FIG. 4C, wall 443c can be arranged within an outer wall of frame body 445a. FIG. 4E illustrates a cross-sectional view taken through valve 443 and valve assembly 440. FIG. 4E illustrates valve body 443b, wall 443a, lid 442, and a portion of valve housing 441 (for example, a cylindrical portion of valve housing 441). Valve body 443b can have a partially cylindrical shape, as shown. With reference to FIG. 4C, valve body 443b can have partially cylindrical shape having a central angle .sub.1 that can be between 90 degrees and 120 degrees, for example, between 95 degrees and 115 degrees, between 100 degrees and 110 degrees, between 100 degrees and 120 degrees, between 105 degrees and 115 degrees, or between 108 degrees and 112 degrees, or any value or range within or bounded by any of these values or ranges.

[0147] With reference to FIGS. 4A-4C and FIG. 4G, valve assembly 440 can include an actuator 444, frame 445, links 451, 453, 455, and an actuator 446. Frame 445 can include a frame body 445a, slots 445d, 445e, a cavity 445f, and frame portions 445b, 445c that can receive a portion of actuator 444 (for example, an end 444a of actuator 444). Frame portion 445c can be connected to link 451 via a spring 477. Spring 477 (for example, a first end thereof) can be connected to frame portion 445c via a hook 445g or other spring connection mechanism. Spring 477 (for example, a second end thereof) can also be connected to link 451 via a hook 451a of link 451. Spring 477 can be in a retracted position when valve assembly 440 is in the configuration shown and described with respect to FIGS. 4H-4I, a first extended position when valve assembly 440 is in the configuration shown and described with respect to FIGS. 4F-4G, and a second extended position when valve assembly 440 is in the configuration shown and described with respect to FIGS. 4J-4K (spring 477 being more extended in the second extended position than when in the first extended position). Link 453 can be connected to frame body 445a via a pin 473. Link 453 can include a slot 453a configured to receive pin 443d of valve 443. Link 453 can be connected to link 451 via a pin 471 (see FIG. 4G). Link 455 can be connected to frame body 445a via a pin 475 and connected to actuator 446 via engagement of a pin 446a of actuator 446 within a hole 455a of link 455 (see FIG. 4G). A portion of actuator 446 can be arranged within cavity 445f of frame 445 and such portion of actuator 446 can be surrounded by a spring 479. Slots 445d, 445e can have a curved shape, which can facilitate rotational movement of valve 443 between multiple positions as described further below. As described further below, various ones of links 451, 453, 455, actuator 446, actuator 444, springs 477, 479, and valve pin 443d can be moved and interact with one another and with floor-based vacuum cleaner 410 (or portions thereof) to facilitate transitioning valve assembly 440 to different configurations. As shown in at least FIGS. 4A-4C, valve housing 441 can include arms 441g (for example, on a side of valve housing 441) that are coupled to actuator 444. Arms 441g can be configured to allow actuator 444 to move along a longitudinal axis of actuator 444 (for example, upward and downward) while remaining coupled to actuator 444.

[0148] FIGS. 4F-4G illustrate valve assembly 440 in a configuration which can facilitate operation of a cleaning apparatus in a stick mode in which debris are collected by a cleaning head and directed to a handheld vacuum cleaner via wand 403 (for example, through a portion of the interior of valve housing 441). As shown, in such configuration, lid 442 is in a closed position and valve 443 is in a position in which valve body 443b does not block flow communication between openings 441a and 441c. In such configuration, wand 403 and a handheld vacuum cleaner connected to wand 403 are in flow communication with a cleaning head (for example, via a support member connected to cleaning head). FIG. 4F illustrates a perspective view of valve assembly 440 and wand 403 while FIG. 4G illustrates a side view of the valve assembly 440. Valve 443 can be held in such position by links 453, 455, 451 along with other components. As mentioned previously, valve 443 can include a valve pin 443d that extends through slot 445e of frame 445 and is received within slot 453a of link 453. Link 453 can be connected to frame 445 via pin 473 and connected to link 451 via pin 471. Spring 477 can connect link 451 to frame portion 445c (for example, via connection with hooks 445g, 451a). Spring 477 can exert a spring force on link 451 that biases link 451 in a direction towards frame portion 445c (for example, an upward direction). Such biasing can cause link 453 to pivot (for example, about an axis of pin 473) towards frame portion 445c (for example, in an upward direction) so as to move pin 443d to a top end of slot 445e (see FIG. 4G). A first end of link 455 can apply a force against link 453 so as to inhibit the upward rotational bias of link 453 imposed by spring 477 and link 451. Such force derives from a spring force applied by spring 479 against a portion of actuator 446. Actuator 446 can be connected to link 455 via engagement between a pin 446a of actuator and a hole 455a of link 455, which may be arranged at a second end of link 455 that is opposite the first end of link 455. Link 455 can be pivotably connected to frame 445a via pin 475 as shown. FIGS. 4F and 4G illustrate an example rest state of valve assembly 440 in which valve 443 is held in the above-described position. Valve assembly 440 can be biased toward the configuration described with respect to FIGS. 4F-4G. In some implementations, valve pin 443d is arranged at or proximate a midpoint of slot 445e and/or a middle of a length of slot 445e when valve assembly 440 is in the configuration of FIGS. 4F-4G.

[0149] FIGS. 4H-4I illustrate valve assembly 440 attached with a floor-based vacuum cleaner 410 and a wand 403 and in another configuration. Such configuration can facilitate operation of a cleaning apparatus in an upright mode in which the floor-based vacuum cleaner 410 is utilized to collect debris from a floor surface, for example, as described herein. FIG. 4H illustrates a perspective view of valve assembly 440, floor-based vacuum cleaner 410, and wand 403 and FIG. 4I illustrates a side view of the same. As shown, floor-based vacuum cleaner 410 is attached to valve assembly 440 such that a dirty air inlet of the floor-based vacuum cleaner 410 is in flow communication with opening 441b of valve housing 441, for example, via opening 441b. As also shown, lid 442 is in an open position. As mentioned previously, lid 442 can be configured to be moved from a closed position (see FIGS. 4A-4C and 4F-4G) to the open position illustrated in FIG. 4H when floor-based vacuum cleaner 410 is attached to valve assembly 440. For example, a portion 410b of floor-based vacuum cleaner 410 can engage lid opening mechanism 442c when floor-based vacuum cleaner 410 is attached to valve assembly 440. During such attachment, portion 410b can be moved downward towards and onto lid opening mechanism 442c. In such cases, portion 410b can act as a cam surface and lid opening mechanism 442c can act as a cam follower. Accordingly, attachment of floor-based vacuum cleaner 410 to valve assembly 440 can cause lid 442 to pivot from the closed position to the open position. Lid opening mechanism 442c can be pivotably connected to valve housing 441 as described above (for example, via pin 442d and portions 441f, 441f of valve housing 441.).

[0150] When valve assembly 440 is in the configuration illustrated in FIGS. 4H-4I, valve 443 is in a second position in which valve body 443b blocks flow communication between opening 441c and both openings 441a, 441b. In such configuration, valve body 443b blocks flow communication between wand 403 (and a handheld vacuum cleaner that may be connected to wand 403) and both of floor-based vacuum cleaner 410 that may be connected to valve housing 441 at opening 441b and a cleaning head that may be connected to valve housing 441 at opening 441a (for example, via a support member such as any of those disclosed herein). In such configuration, floor-based vacuum cleaner 410 is in flow communication with such cleaning head, for example, via flow communication between openings 441b, 441a. Accordingly, this configuration enables debris to be collected by the cleaning head and directed to floor-based vacuum cleaner 410 (for example, through a portion of the interior of valve housing 441). FIG. 4I illustrates a side view of that which is shown in FIG. 4H. In the configuration illustrated in FIGS. 4H-4I, a portion 410a of floor-based vacuum cleaner 410 contacts actuator 446 and holds actuator 446 in a lower position relative to the position illustrated and described with respect to FIG. 4G. In such configuration, portion 410a overcomes the bias of spring 479 and compresses spring 479 within cavity 445f of frame 445, causing actuator 446 to be pushed further into cavity 445f (for example, downward). Spring 479 can be arranged within cavity 445f and an end (for example, a top end) of spring 479 can be below and in contact with a bottom of actuator 446. Accordingly, spring 479 can be arranged between a bottom end of actuator 446 and a surface of cavity 479. Movement of actuator 446 in such manner causes link 455 to pivot from the position shown in FIG. 4G to the position shown in FIG. 4I, due to engagement of actuator pin 446a with hole 455a of link 455. Such pivoting of link 455 moves link 455 (for example, an end of link 455) away from link 453 (for example, an end of link 453). This in turn causes link 453 to pivot such that pin 443d moves to a top portion of slot 445e (see FIG. 4I). Movement of pin 443d in such manner causes valve 443 to rotate, thereby rotating valve body 443b to the position illustrated in FIG. 4H in which valve body 443b blocks flow communication between wand 403/opening 441c and both of openings 441a, 441b. In the configuration illustrated in FIGS. 4H-4I, pin 471, which connects links 451 and 453 to one another, can be arranged closer to a top end of slot 445d than to a bottom end of slot 445d (see FIG. 4I). In some implementations, valve pin 443d is arranged at or proximate a top end of slot 445e when valve assembly 440 is in the configuration of FIGS. 4H-4I.

[0151] FIGS. 4J-4K illustrate valve assembly 440 attached with a floor-based vacuum cleaner 410 and a wand 403 and in another configuration. Such configuration can facilitate operation of a cleaning apparatus in an empty mode in which the debris from a handheld vacuum cleaner are transferred (for example, emptied) into the floor-based vacuum cleaner 410. FIG. 4J illustrates a perspective view of valve assembly 440, floor-based vacuum cleaner 410, and wand 403 and FIG. 4K illustrates a side view of the same. As shown, floor-based vacuum cleaner 410 is attached to valve assembly 440 such that a dirty air inlet of the floor-based vacuum cleaner 410 is in flow communication with opening 441b of valve housing 441. As also shown, lid 442 is in an open position. When valve assembly 440 is in the configuration illustrated in FIGS. 4J-4K, valve 443 is in a third position in which valve body 443b blocks flow communication between opening 441a (and a cleaning head and/or support member connected to valve housing 441 at opening 441a) and both of wand 403 (and a handheld vacuum cleaner that may be connected to wand 403) and floor-based vacuum cleaner 410. In such configuration, floor-based vacuum cleaner 410 is in flow communication with wand 403 (and a handheld vacuum cleaner connected therewith), for example, via flow communication between openings 441b, 441c. Accordingly, this configuration enables debris to be directed from the handheld vacuum cleaner (for example, a debris container of the handheld vacuum cleaner) to floor-based vacuum cleaner 410 (for example, through wand 403 and a portion of the interior of valve housing 441. In the configuration illustrated in FIGS. 4J-4K, the portion 410a of floor-based vacuum cleaner 410 holds actuator 446 in the position described above with respect to FIG. 4I. However, actuator 444 has been moved (for example, downward) to engage with an actuator 451b connected with link 451 (see FIG. 4C), thereby moving link 451 (for example, downward) to the position illustrated in FIG. 4K. Such movement of link 451 overcomes the bias of spring 477 and causes spring 477 to be extended. Such movement of link 451 causes link 453 to be pivoted (due to the connection of links 451, 453 via pin 471) such that valve pin 443d is moved toward a bottom portion of slot 445e (due to the connection of valve pin 443d within slot 453a of link 453). Such movement of valve pin 443d in turn causes valve 443 to rotate, thereby rotating valve body 443b to the position illustrates in FIG. 4J. In such position, valve body 443b blocks flow communication between opening 441a and both of openings 441b, 441c. In some implementations, pin 443d can be arranged at or proximate a bottom end of slot 445e when valve assembly 440 is in the configuration of FIGS. 4J-4K.

[0152] Actuator 444 can include a first end 444a for engaging actuator 451b connected with link 451 (see FIG. 4C) and a second end 444b configured to be engaged (for example, pushed), for example, by a user when the user desires to transition the cleaning apparatus to the empty mode and empty debris from the handheld vacuum cleaner to the floor-based vacuum cleaner. In some implementations, actuator 444 can be moved in a first direction (for example, downward) to transition the cleaning apparatus to the empty mode and/or be moved in a second direction substantially opposite the first direction (for example, upward) to transition the cleaning apparatus to the upright mode. In some implementations, actuator 444 comprises a rod. In some implementations, first end 444a can be sized to fit at least partially within frame portions 445b, 445c. In some implementations, the length and/or curvature of slot 445e can be configured to define a rotational range of rotation for valve 443 and valve body 443b, for example, by limiting the range of motion of pin 443d extending from wall 443c (due to the positioning of pin 443d within slot 445e). In some implementations, slot 445e and/or other components of valve assembly 440 are configured such that valve 443 (and valve body 443b) are configured to rotate less than 360 degrees, for example, 180 degrees, between the three positions described with respect to FIGS. 4A-4K.

[0153] FIGS. 5A-5O illustrate another implementation of a cleaning apparatus 500. With reference to FIG. 5A, cleaning apparatus 500 can include a cleaning head 530, a floor-based vacuum cleaner 510, a handheld vacuum cleaner 520, a support member 505 connected to cleaning head 530, and a wand 503 connected between support member 505 and handheld vacuum cleaner 520. Handheld vacuum cleaner 520 and wand 503 can be removably attachable to one another. Wand 503 can be removably attachable to support member 505. Support member 505 can be pivotably connected to cleaning head 530. Cleaning head 530 can include any of all of the features described with respect to any of the cleaning heads disclosed herein, such as cleaning head 130, 230, and/or 330. Floor-based vacuum cleaner 510 can include any of all of the features described with respect to any of floor-based vacuum cleaner 110, 210 and/or vacuum cleaner 310. Handheld vacuum cleaner 520 can include any of all of the features described with respect to any of handheld vacuum cleaner 120, 220 and/or vacuum cleaner 320. Wand 503 can be similar or identical to any of wands 103, 203. Support member 505 can be similar or identical to any of support members 105, 205.

[0154] FIG. 5A schematically illustrates cleaning apparatus 500 in an upright mode of operation in which debris are collected by cleaning head 530 and directed to floor-based vacuum cleaner 510 (for example, via support member 505). FIG. 5F schematically illustrates cleaning apparatus 500 in a stick mode of operation in which debris are collected by cleaning head 530 and directed to handheld vacuum cleaner 520 (for example, via support member 505 and wand 503). FIG. 5I schematically illustrates cleaning apparatus 500 in an empty mode of operation in which debris from handheld vacuum cleaner 520 are directed (emptied) into floor-based vacuum cleaner 510 (for example, via wand 503). FIGS. 5A, 5F, and 5I schematically illustrate a valve assembly 540 of cleaning apparatus 500. FIGS. 5B-5C, 5G, and 5J-5K illustrate an example implementation of valve assembly 540 in different configurations to facilitate the above-described three modes of operation of cleaning apparatus 500. Valve assembly 540 can include a valve housing 541 that includes openings 541a, 541b, 541c for providing flow paths between cleaning head 530 (via support member 505), floor-based vacuum cleaner 510, and handheld vacuum cleaner 520 (via wand 503). Valve assembly 540 also includes a valve 543 that can be moved to different positions to open or close any of such flow paths and openings 541a, 541b, 541c. Valve 543 can comprise a cylindrically shaped valve with openings 543a, 543b, 543c. In some implementations, valve 543 is arranged within a cylindrically-shaped portion of an interior of valve housing 541.

[0155] FIGS. 5B-5C illustrate a configuration for valve assembly 540 in which a flow path between openings 541a and 541b is open; a flow path between opening 541a and 541c is closed; and a flow path between opening 541b and 541c is closed. Such configuration can provide flow communication between floor-based vacuum cleaner 510 and cleaning head 530 and thereby facilitate the upright mode of operation for cleaning apparatus 500. FIG. 5B illustrates a dirty air inlet 511 of floor-based vacuum cleaner 510 which can be in flow communication with opening 541b of valve assembly 540 when the valve assembly 540 is in the configuration illustrated in FIGS. 5B-5C. Such dirty air inlet 511 can be coupled with opening 541b via a duct. FIG. 5G illustrates a configuration for valve assembly 540 in which: a flow path between openings 541a and 541c is open; a flow path between opening 541b and 541a is closed; and a flow path between opening 541b and 541c is closed. Such configuration can provide flow communication between handheld vacuum cleaner 520 and cleaning head 530 and thereby facilitate the stick mode of operation for cleaning apparatus 500. FIGS. 5J-5K illustrate a configuration for valve assembly 540 in which: a flow path between openings 541b and 541c is open; a flow path between openings 541a and 541b is closed; and a flow path between openings 541a and 541c is closed. Such configuration can provide flow communication between handheld vacuum cleaner 520 and floor-based vacuum cleaner 510 and thereby facilitate the empty mode of operation for cleaning apparatus 500.

[0156] Valve 543 can be configured to be rotated between any of the rotational positions illustrated in FIGS. 5C, 5G, and 5K to facilitate the above-described modes of operation. Valve 543 can comprise a handle 543d that allow a user to rotate valve 543 between any of such rotational positions.

[0157] FIGS. 5M-5N illustrate an example implementation of handheld vacuum cleaner 520. Handheld vacuum cleaner 520 can include a dirty air inlet 521, a handle 529, a clean air outlet 522, a debris container 525, a motor 523, and a filter 581 (such as a HEPA filter) arranged proximate the motor 523 and/or clean air outlet 522. Handheld vacuum cleaner 520 can include any of the features described with respect to any of the other handheld vacuum cleaners disclosed herein, such as handheld vacuum cleaner 320. Handheld vacuum cleaner 520 can include a bleed valve 580 arranged within an auxiliary inlet 582 of handheld vacuum cleaner 520 that is separate from clean air outlet 522 and dirty air inlet 521. Bleed valve 580 and such auxiliary inlet 582 can advantageously be utilized to allow air to flow into handheld vacuum cleaner 520 when cleaning apparatus 500 is in the empty mode of operation and a suction motor of floor-based vacuum cleaner 510 causes air to flow from handheld vacuum cleaner 520 to floor-based vacuum cleaner 510 (to collect debris from debris container 525 into a debris container of floor-based vacuum cleaner 510). Bleed valve 580 can also be utilized to relieve pressure within handheld vacuum cleaner 520 if there is a blockage in airflow during utilization of a suction motor 523 of handheld vacuum cleaner 520. Bleed valve 580 can be a movable member that is biased to a first state (which also may be referred to as a closed position) in which auxiliary inlet 582 is blocked. Bleed valve 580 can be transitioned from such first state to a second state (which also may be referred to as an open position) in which auxiliary inlet 582 is open to an FIG. 5O illustrates the auxiliary air inlet 582 with the bleed valve removed and also illustrates an airflow path (with an arrow) into and through the auxiliary air inlet 582 and into an interior portion of handheld vacuum cleaner 520. FIG. 5N illustrates an airflow path (with an arrow) through the handheld vacuum cleaner 520 and through the dirty air inlet 521.

[0158] FIGS. 5D, 5H, and 5L illustrate enlarged views of a portion of handheld vacuum cleaner 520. FIGS. 5D, 5H, and 5L illustrate dirty air inlet 521 of handheld vacuum cleaner 520 along with a portion 528 of a housing of handheld vacuum cleaner 520. As shown, handheld vacuum cleaner 520 can include a valve 590 that inhibits debris from falling out of debris container 525 of handheld vacuum cleaner 520, for example, when cleaning apparatus 500 (or handheld vacuum cleaner 520) is not being actively used to collect debris from a surface. FIG. 5D illustrates a closed position of valve 590 in which valve 590 blocks an airflow passage between dirty air inlet 521 and debris container 525. Valve 590 can be in such closed position when cleaning apparatus 500 is in the upright mode as described with respect to FIGS. 5A-5C. FIG. 5H illustrates valve 590 in a first open position in which valve 590 does not block the airflow passage between dirty air inlet 521 and debris container 525. As shown, in such first open position, valve 590 is pivoted towards debris container 525 and away from dirty air inlet 521. Such first open position can be induced via suction caused by suction motor 523 of handheld vacuum cleaner 520 when cleaning apparatus 500 is in the stick mode. Valve 590 can be pivotably connected to a portion of handheld vacuum cleaner 520 (for example, portion 528) to facilitate such movement. FIG. 5L illustrates valve 590 in a second open position in which valve 590 does not block the airflow passage between dirty air inlet 521 and debris container 525. As shown, in such second open position, valve 590 is pivoted away from debris container 525 and towards dirty air inlet 521. Such second open position can be induced via suction caused by a suction motor of floor-based vacuum cleaner 510 when cleaning apparatus 500 is in the empty mode. As shown, valve 590 can be pivoted in opposite directions for the first and second open positions. Valve 590 can be biased toward the closed position shown in FIG. 5D.

[0159] In some cases, debris from debris container 525 of handheld vacuum cleaner 520 can fall atop valve 590, for example, under force of gravity. With reference to FIG. 5D, handheld vacuum cleaner 520 can be configured to inhibit valve 590 from opening (for example, pivoting to the above-described second open position shown in FIG. 5L) due to weight of debris. For example, handheld vacuum cleaner 520 can include a stopper 595 that can be moved (for example, actuated) to inhibit valve 590 from opening. FIGS. 5D, 5E, and 5H illustrate stopper 595 in a first position in which stopper 595 presents a physical interference to block valve 590 from opening (for example, in the direction of the position of valve 590 illustrated in FIG. 5L). FIG. 5L illustrates stopper 595 in a second position in which stopper 595 does not block valve 590 and valve 590 is allowed to open (for example, in the direction of the position of valve 590 illustrated in FIG. 5L). Stopper 595 can be moved to the position shown in FIG. 5L to allow valve 590 to be opened via suction induced by a suction motor of floor-based vacuum cleaner 510 so that debris from handheld vacuum cleaner 520 can be directed to floor-based vacuum cleaner 510. With reference to FIGS. 5D, 5E, 5H, and 5L, handheld vacuum cleaner 520 can include a sealing member 593 to seal the air passage within handheld vacuum cleaner 520 when stopper 595 is moved into its blocking position. Stopper 595 can be movable by a user and/or may be automatically and/or electrically actuated by cleaning apparatus 500, for example, when the user desires to operate in the empty mode. In some implementations, stopper 595 is configured to be held in one of the two positions until a user applies a force to stopper 595.

[0160] As mentioned previously, handheld vacuum cleaner 520 can include a bleed valve 580. Bleed valve 580, and an auxiliary air inlet of handheld vacuum cleaner 520 in which bleed valve 580 is arranged, can advantageously provide a robust airflow path through handheld vacuum cleaner 520 when cleaning apparatus 500 is used in the empty mode of operation. As described above with respect to FIGS. 5I, 5J, and 5K, in such mode, a suction motor 523 of floor-based vacuum cleaner 510 can cause air to flow from handheld vacuum cleaner 520 through wand 503, valve assembly 540, and to floor-based vacuum cleaner 510, thereby directing debris from debris container 525 of handheld vacuum cleaner 520 to floor-based vacuum cleaner 510. More specifically, floor-base vacuum cleaner 510 can cause air to flow through a dirty air inlet, debris separator, and a clean air outlet of floor-based vacuum cleaner 510 during such mode. During such operation, bleed valve 580 can be configured to open to allow air to be sucked into the auxiliary air inlet and through one or more flow passages within handheld vacuum cleaner 520 and through debris container 525, thereby causing debris from debris container 525 to be carried towards floor-based vacuum cleaner 510. Accordingly, bleed valve 580 can not only open to relieve pressure due to an airflow clog when handheld suction motor 523 is operated (to avoid motor overheating), but also can open to facilitate the above-described empty mode of operation of cleaning apparatus 500.

[0161] FIGS. 6A-6F illustrate another implementation of cleaning apparatus 600. Cleaning apparatus 600 can be similar or identical to any of cleaning apparatus 100, 200, 300, 500 in some or many respects. Cleaning apparatus 600 includes a floor-based vacuum cleaner 610, a cleaning head 630, a handheld vacuum cleaner 620, a wand 603, a support 605, and a power cord 601, which can be similar or identical to floor-based vacuum cleaner 110, 210, 510, cleaning head 130, 230, 530, handheld vacuum cleaner 120, 220, 520, wand 103, 203, 503, support member 105, 205, 505 and power cord 101, 201, respectively. FIGS. 6B, 6D, and 6F illustrate a valve assembly 640 of cleaning apparatus 600 that can be utilized to facilitate a stick mode of operation (FIGS. 6A-6B), an upright mode of operation (FIGS. 6C-6D), and an empty mode of operation (FIGS. 6E-6F) in a similar manner as described elsewhere herein with respect to valve assemblies 440, 540. Valve assembly 640 includes a valve housing 641 that can include three openings for providing flow communication between floor-based vacuum cleaner 610, cleaning head 630 (for example, via support member 605), and handheld vacuum cleaner 620 (for example, via wand 603). FIGS. 6B, 6D, and 6F illustrate two of such openings-opening 641c which can provide flow communication between wand 603 and an interior of valve housing 641 and opening 641a which can provide flow communication between support member 605 (and cleaning head 630) and the interior of valve housing 641. Valve assembly 640 can include a valve 643 that can be moved (for example, rotated) between a plurality of positions (such as three positions) to selectively open or close flow paths between any two of floor-based vacuum cleaner 610, cleaning head 630, and handheld vacuum cleaner 620. Although FIGS. 6B, 6D, and 6F illustrate a cross-section through valve assembly 640 and valve 643, it is to be understood that valve assembly 640 and valve 643 can be configured to form an chamber to selectively open and close the above-described flow paths, for example, in a similar manner as that shown and/or described with respect to valve assembly 540. In some implementations, valve 643 can be transitioned from the position illustrated in FIGS. 6A-6B to the position illustrated in FIGS. 6C-6D automatically when floor-based vacuum cleaner 610 is attached to cleaning head 630, support member 605, and/or wand 603. In some implementations, valve 643 can be transitioned from the position illustrated in FIGS. 6C-6D to the position illustrated in FIGS. 6E-6F via pressing an actuator (for example, a button), for example, similar to actuator 444 of valve assembly 440.

[0162] FIGS. 7-8 illustrate additional implementations of portions of cleaning apparatuses 700, 800. Cleaning apparatus 700 can include a cleaning head 730, a floor-based vacuum cleaner 710, a support member 705, a valve assembly 740, a valve within valve assembly 740, a handle 743 of valve assembly 740, and a duct 790 that can be connected to an opening of valve assembly 740 to provide flow communication between a dirty air inlet of floor-based vacuum cleaner 710 and an interior of a valve housing of valve assembly 740. Cleaning apparatus 700 can include a wand 703 connected to support member 705. Cleaning apparatus 800 can include a cleaning head 830, a floor-based vacuum cleaner 810, a support member 805, a valve assembly 840, a valve within valve assembly 840, a handle 843 of valve assembly 840, and a duct 890 that can be connected to an opening of valve assembly 840 to provide flow communication between a dirty air inlet of floor-based vacuum cleaner 810 and an interior of a valve housing of valve assembly 840. Although FIGS. 7-8 illustrate only a portion of cleaning apparatus 700, 800, cleaning apparatus 700, 800 can include a handheld vacuum cleaner such as any of those disclosed herein. Cleaning apparatus 700, 800 can be configured to operate in stick, upright, and/or empty modes such as any of those described herein.

[0163] FIG. 9A illustrates a portion of another cleaning apparatus 900. Cleaning apparatus 900 can include a cleaning head 930, a floor-based vacuum cleaner 910, a wand 903, a support member 905, and a valve assembly 940. FIGS. 9B-9D schematically illustrate valve assembly 940 in various configurations, as described below. Valve assembly 940 can include a valve housing 941 which includes openings 941a, 941b, 941c for providing flow communication between wand 903, floor-based vacuum cleaner 910, and cleaning head 930. Cleaning apparatus 900 can include a duct 990 that can be connected to an opening of valve assembly 740 (for example, opening 941b) to provide flow communication between a dirty air inlet of floor-based vacuum cleaner 910 and an interior of valve housing 941 of valve assembly 940.

[0164] FIG. 9B illustrates an actuator feature 910a of floor-based vacuum cleaner 910 engaging a corresponding actuator feature 949 of valve assembly 940 such that the actuator features 910a, 949 move from the position indicated with a in FIG. 9B to the position indicated with b in FIG. 9B. Such movement can cause valve 943 to rotate to a position in which floor-based vacuum cleaner 910 is in flow communication with cleaning head 930. In the position of FIG. 9B, valve 943 blocks flow communication between wand 903 and both of floor-based vacuum cleaner 910 and cleaning head 930. Such movement can thereby facilitate an upright mode of operation of cleaning apparatus 900.

[0165] FIG. 9C illustrates actuator feature 949 being moved (for example, manually by a user) from the position indicated with a b in FIG. 9C to the position indicated with a c in FIG. 9C. Such movement can cause valve 943 to rotate to a position in which floor-based vacuum cleaner 910 is in flow communication with wand 903. In the position of FIG. 9C, valve 943 blocks flow communication between cleaning head 930 and both of floor-based vacuum cleaner 910 and wand 903, thereby facilitating an empty mode of operation of cleaning apparatus 900.

[0166] FIG. 9D illustrates actuator feature 949 being moved (for example, manually by a user) from the position indicated with a b in FIG. 9C to the position indicated with a d in FIG. 9C. As shown, such movement can cause valve 943 to rotate to a position in which floor-based vacuum cleaner 910, wand 903, and cleaning head 930 are in flow communication. In such position, as shown, openings 941a, 941b, and 941c are in flow communication with one another.

[0167] Valve assembly 940 can include a spring (for example, a coil spring) to cause the valve 943 to be rotated to a set position, for example, a position in which actuator feature 949 is located as indicated by a in FIG. 9B.

[0168] FIGS. 10A-10L illustrate another cleaning apparatus 1000 and portions thereof. With reference to FIGS. 10A-10C, cleaning apparatus 1000 can include a cleaning head 1030, a floor-based vacuum cleaner 1010, a handheld vacuum cleaner 1020, a wand 1003, and a cord 1001 connected with handheld vacuum cleaner 1020 and configured to provide power to cleaning apparatus 1000. Cleaning head 1030 can include any or all of the features described with respect to any of the cleaning heads disclosed herein, such as cleaning head 130, 230, and/or 330. Floor-based vacuum cleaner 1010 can include any or all of the features described with respect to any of floor-based vacuum cleaner 110, 210 and/or vacuum cleaner 310. Handheld vacuum cleaner 1020 can include any or all of the features described with respect to any of handheld vacuum cleaner 120, 220 and/or vacuum cleaner 320. Wand 1003 can be similar or identical to any of wands 103, 203. In some implementations, cleaning apparatus 1000 also includes a support member similar or identical to any of the other support members disclosed herein.

[0169] FIGS. 10A-10C illustrate cleaning apparatus 1000 in different modes of operation. More specifically, FIG. 10A illustrate cleaning apparatus 1000 in an upright mode of operation in which debris are drawn in through cleaning head 1030 and directed to floor-based vacuum cleaner 1010, FIG. 10B illustrates cleaning apparatus 1000 in a stick mode of operation in which debris are drawn in through cleaning head 1030 and directed to handheld vacuum cleaner 1020 (with floor-based vacuum cleaner 1010 being detached), and FIG. 10C illustrates cleaning apparatus 1000 in an empty mode of operation in which debris from handheld vacuum cleaner 1020 (for example, a debris container thereof) are transferred (emptied) into floor-based vacuum cleaner 1010. FIGS. 10D-10F illustrate aspects of an example valve assembly 1040 that can be incorporated into cleaning apparatus 1000 to facilitate the above-described upright, stick, and empty modes of operation. FIGS. 10D-10F illustrate cross-sectional views taken through valve assembly 1040 and an end of a conduit 1039, each of which may reside at least partially in a portion of cleaning head 1030 or a support member connected to cleaning head 1030. Such conduit 1039 can be flexible conduit, for example, a corrugated hose that extends at least partially within a housing of cleaning head 1030 and is in flow communication with a dirty air inlet of cleaning head 1030. Valve assembly 1040 can include a valve housing 1041 having openings 1041a, 1041b, 1041c and an interior that receives a valve 1043. Floor-based vacuum cleaner 1010 can be fluidly connected to valve housing 1041 at opening 1041b (for example, via a duct). Wand 1003 (and handheld vacuum cleaner 1020, via wand 1003) can be fluidly connected to valve housing 1041 at opening 1041c. Valve 1043 can include a connector 1043a connected to an end of flexible conduit 1039. Valve 1043 can include walls 1043b, 1043c and an airflow passage extending through valve 1043 and in flow communication with conduit 1039. FIG. 10M illustrates a front view of conduit 1039, valve housing 1041, and valve 1043.

[0170] Valve 1043 and the end of conduit 1039 can be configured to be moved between different positions relative to valve housing 1041 to facilitate different flow paths for the above-described upright, stick, and empty modes of operation. FIG. 10D illustrates valve assembly 1040 in a configuration corresponding to the upright mode of operation of FIG. 10A. FIG. 10E illustrates valve assembly 1040 in a configuration corresponding to the stick mode of FIG. 10B. FIG. 10F illustrates valve assembly 1040 in a configuration corresponding to the empty mode of FIG. 10C. When valve assembly 1040 is in the configuration of FIG. 10D (for the upright mode), wall 1043b of valve 1043 blocks opening 1041c of valve housing 1041 such that flow communication between wand 1003 (and thus handheld vacuum cleaner 1020) and both of floor-based vacuum cleaner 1010 and conduit 1039 is blocked. As also shown in FIG. 10D, opening 1041b is in flow communication with conduit 1039 via valve flow passage 1043d, thereby providing flow communication between floor-based vacuum cleaner 1010 (which can be connected at opening 1041b) and a dirty air inlet of cleaning head 1030 (which can be in flow communication with conduit 1039). An example airflow pattern is illustrated with the arrow in FIG. 10D.

[0171] When valve assembly 1040 is in the configuration of FIG. 10E (for the stick mode), wall 1043c of valve 1043 blocks opening 1041b of valve housing 1041. Floor-based vacuum cleaner 1010 is detached from wand 1003, cleaning head 1030, and handheld vacuum cleaner 1020 when cleaning apparatus is in the stick mode of FIG. 10F (see FIG. 10B). Accordingly, opening 1041b is not in flow communication with both of opening 1041c and conduit 1039. Rather, opening 1041c is in flow communication with conduit 1039 via valve flow passage 1043d, thereby providing flow communication between wand 1003 (which can be connected at opening 1041c) and a dirty air inlet of cleaning head 1030 (which can be in flow communication with conduit 1039). This in turn provides flow communication between handheld vacuum cleaner 1020 and the dirty air inlet of cleaning head 1030 since handheld vacuum cleaner 1020 can be connected to wand 1003. An example airflow pattern is illustrated with the arrow in FIG. 10E.

[0172] When valve assembly 1040 is in the configuration of FIG. 10F (for the empty mode), neither of walls 1043b, 1043c block openings 1041b, 1041c, and openings 1041b, 1041c are in flow communication with one another and valve air passage 1043d. This can in turn allow debris to be transferred from the handheld vacuum cleaner 1020 to the floor-based vacuum cleaner 1010. An example airflow pattern is illustrated with the arrow in FIG. 10F.

[0173] FIGS. 10G-10I schematically illustrate another valve 1045 that can be incorporated into cleaning head 1030 or a support member connected with cleaning head 1030. FIGS. 10G-10H illustrate valve 1045 in an open position and FIG. 10I illustrates valve 1045 in a closed position. FIG. 10G illustrates the position of valve 1045 (open) when cleaning apparatus 1000 is in the upright mode of FIG. 10A and FIG. 10H illustrates the position of valve 1045 (open) when cleaning apparatus 1000 is in the stick mode of FIG. 10B. As shown, valve 1045 is open in both of these modes such that air (and debris) can flow through a dirty air inlet of cleaning head 1030 and to floor-based vacuum cleaner 1010 (for the upright mode of FIG. 10A) and handheld vacuum cleaner 1020 (for the stick mode of FIG. 10B). It is noted that FIGS. 10D and 10G illustrate portions of cleaning apparatus 1000 (as described above) corresponding the upright mode of FIG. 10A and that FIGS. 10E and 10H illustrate portions of cleaning apparatus 1000 (as described above) corresponding the upright mode of FIG. 10B.

[0174] FIG. 10I illustrates the position of valve 1045 (closed) when cleaning apparatus 1000 is in the empty mode of FIG. 10C. In such closed position, valve 1045 inhibits floor-based vacuum cleaner 1010 from drawing in air and debris from a dirty air inlet of cleaning head 1030 so as to facilitate transfer of debris from handheld vacuum cleaner 1020 to floor-based vacuum cleaner 1010. Such closed position of valve 1045 can advantageously improve suction performance of a suction motor of floor-based vacuum cleaner 1010 and/or prevent transfer of debris from handheld vacuum cleaner 1020 to cleaning head 1030.

[0175] Valve 1045 can be pivotably connected to a portion of cleaning head 1030 or a support member connected to cleaning head 1030 such that valve 1045 can pivot between the above-described open and closed position. In such closed position, valve 1045 can block an airflow passage within cleaning head 1030 and/or within a support member connected to cleaning head 1030, and in such open position, valve 1045 can allow air (and debris) to flow through such airflow passage. In some implementations, valve 1045 is configured to pivot between the open and closed positions responsive to rotation of wand 1003, floor-based vacuum cleaner 1010, handheld vacuum cleaner 1020, and/or a support member connected to cleaning head 1030 (and to wand 1003) relative to cleaning head 1030. For example, valve 1045 can be configured to be in an open position when wand 1003 and/or a support member connected to cleaning head 1030 (and to wand 1003) are oriented at an angle that is oblique relative to a plane extending along a bottom portion of cleaning head 1030 and/or a surface on which cleaning head 1030 is supported. As another example, valve 1045 can be configured to be in the closed position when wand 1003 and/or such support member are oriented generally perpendicularly relative to such plane and/or such surface. As another example, valve 1045 can be configured to be in the closed position when wand 1003 and/or such support member are oriented such that the wand 1003 and/or such support member extend along an axis that is within 20 degrees, within 19 degrees, within 18 degrees, within 17 degrees, within 16 degrees, within 15 degrees, within 14 degrees, within 13 degrees, within 12 degrees, within 11 degrees, within 10 degrees, within 9 degrees, within 8 degrees, within 7 degrees, within 6 degrees, within 5 degrees, 4 degrees, 3 degrees, 2 degrees, or within 1 degree from perpendicular relative to such plane and/or such surface.

[0176] Valve 1043 can be moved between the positions described in FIGS. 10D-10F via manual means in some implementations. Additionally or alternatively, valve 1043 can be moved between the positions described in FIGS. 10D-10F automatically, for example, without manual action by a user. FIGS. 10J-10L illustrate example mechanisms to enable such automatic movement of valve 1043. FIG. 10J illustrates valve assembly 1040 and valve 1043 in the configuration of FIG. 10E (stick mode) in which opening 1041b is blocked by valve wall 1043c and opening 1041c is in flow communication with conduit 1039 via airflow passage 1043d. As shown, wand 1003 is connected to valve housing 1041 at opening 1041c. In some implementations, valve 1043 is biased toward this configuration (stick mode) by a biasing mechanism, such as a spring. FIG. 10J illustrates floor-based vacuum cleaner 1010 prior to attachment to cleaning head 1030, a support member of cleaning head 1030, wand 1003, and/or valve assembly 1040. Floor-based vacuum cleaner 1010 can include an actuator 1010a that is configured to engage and interact with an actuator 1046 of valve assembly 1040 to cause valve 1043 to move to the position illustrated in FIG. 10K when floor-based vacuum cleaner 1010 is attached. FIG. 10K illustrates the position of valve 1043 when floor-based vacuum cleaner 1010 is attached and wand 1003 is in an upright orientation in which wand 1003 is generally perpendicular to cleaning head 1030 (and/or a surface on which cleaning head 1030 rests). The position of valve in FIG. 10K is the same as that in the empty mode described with respect to FIG. 10F. To move valve 1043 to the position illustrated in FIG. 10D for the upright mode, wand 1003 and floor-based vacuum cleaner 1010 can be rotated relative to cleaning head 1030 (and/or a surface on which cleaning head 1030 rests), for example, to an inclination as illustrated in FIG. 10A. Such rotation can cause actuator 1046 to be moved from the position illustrated in FIG. 10K to the position illustrated in FIG. 10L, and in turn cause valve 1043 to move to the position illustrated in FIG. 10L (and FIG. 10D) to facilitate the upright mode in which floor-based vacuum cleaner 1010 is in flow communication with a dirty air inlet of cleaning head 1030 (via conduit 1039). FIGS. 10J-10L illustrate a dirty air inlet 1011 of floor-based vacuum cleaner 1010 which can be put into flow communication with opening 1041b of valve housing 1041 directly or indirectly via a duct, for example.

[0177] FIGS. 11A-11D illustrate another cleaning apparatus 1100. Cleaning apparatus 1100 can include a cleaning head 1130, a floor-based vacuum cleaner 1110, a handheld vacuum cleaner 1120, a wand 1103, and a cord 1101 connected with handheld vacuum cleaner 1120 and configured to provide power to cleaning apparatus 1100. Cleaning head 1130 can include any or all of the features described with respect to any of the cleaning heads disclosed herein, such as cleaning head 130, 230, and/or 330. Floor-based vacuum cleaner 1110 can include any or all of the features described with respect to any of floor-based vacuum cleaner 110, 210 and/or vacuum cleaner 310. Handheld vacuum cleaner 1120 can include any of all of the features described with respect to any of handheld vacuum cleaner 120, 220 and/or vacuum cleaner 320. Wand 1103 can be similar or identical to any of wands 103, 203. In some implementations, cleaning apparatus 1000 also includes a support member similar or identical to any of the other support members disclosed herein.

[0178] FIG. 11A illustrates cleaning apparatus 1100 in an empty mode of operation in which debris from handheld vacuum cleaner 1120 (for example, a debris container thereof) are transferred (emptied) into floor-based vacuum cleaner 1110. FIG. 11B schematically illustrates example valve assembly portions 1140a, 1140b, 1140c that facilitate flow communication between floor-based vacuum cleaner 1110 and wand 1103 (and in turn, handheld vacuum cleaner 1120) in such empty mode. As shown, in such empty mode, cleaning head 1130 (for example, a dirty air inlet of cleaning head 1130) is not in flow communication with either of floor-based vacuum cleaner 1110 or wand 1103. FIG. 11C illustrates cleaning apparatus 1100 in an upright mode of operation in which debris are drawn in through cleaning head 1130 and directed to floor-based vacuum cleaner 1110. FIG. 11D schematically illustrates valve assembly portions 1140a, 1140b that facilitate flow communication between floor-based vacuum cleaner 1110 and cleaning head 1130 in such upright mode. As shown, in such upright mode, wand 1103 (and in turn, handheld vacuum cleaner 1120) is not in flow communication with either of floor-based vacuum cleaner 1110 or cleaning head 1130. Cleaning apparatus 1100 can include various actuators that facilitate connection and disconnection of valve assembly portions 1140a, 1140b, 1140c for the modes illustrated in FIGS. 11A-11D, for example, similar to other actuators described elsewhere herein.

[0179] FIG. 12 illustrates a handheld vacuum cleaner 1220. Handheld vacuum cleaner 1220 can be utilized in any of the cleaning apparatus described herein. Handheld vacuum cleaner 1220 can include a housing 1228, a dirty air inlet 1221, a debris container 1224 (which may also be referred to as debris containing region or debris chamber), a filter 1291 (which may be referred to as a fluff screen), a pre-motor filter 1293 (for example, a pleated filter), a bleed valve 1280, a post-motor filter 1281 (for example, a HEPA filter), a handle 1229 (which can be connected to or formed as part of housing 1228), a suction motor 1223, a clean air outlet 1222, and a cord 1201 for providing power to handheld vacuum cleaner 1220 and/or other components of a cleaning apparatus to which handheld vacuum cleaner 1220 is part of. Debris container 1224 may be defined by one or more interior portions of handheld vacuum cleaner 1220 and such interior portion(s) may be at least partially formed by a debris container door of handheld vacuum cleaner 1220. Filter 1293, filter 1293, and/or other components (for example, structural components of handheld vacuum cleaner 1220) may form a debris separator of handheld vacuum cleaner 1220. Suction motor 1223 (which may include a motor coupled with an impeller) can cause air to flow through dirty air inlet 1221, through debris container 1224 and a debris separator of handheld vacuum cleaner 1220, and through clean air outlet 1222 to cause debris to be stored in debris container 1224. Bleed valve 1280 can be biased toward a closed position (which also may be referred to as a first state) in which bleed valve 1280 blocks an auxiliary air inlet of handheld vacuum cleaner 1220 and can be configured to be open when a pressure within the handheld vacuum cleaner 1220 exceeds a threshold, for example, when airflow is clogged by debris. Advantageously, when handheld vacuum cleaner 1220 is utilized in a cleaning apparatus including a floor-based vacuum cleaner, such as those described herein, bleed valve 1280 can be configured to open (which may be referred to as a second state of bleed valve 1280) when the cleaning apparatus is in an empty mode and a suction motor of the floor-based vacuum cleaner causes air to flow from handheld vacuum cleaner 1220 to the floor-based vacuum cleaner (to empty debris from handheld vacuum cleaner 1220 into a debris container of the floor-based vacuum cleaner). Bleed valve 1280 can be similar or identical to any of the other bleed valves disclosed herein.

[0180] FIGS. 13A-13C illustrate an example valve 1390 that can be incorporated into a handheld vacuum cleaner such as any of those disclosed herein. FIG. 13A illustrates a portion 1321 of a housing of a handheld vacuum cleaner defining an airflow passage 1327 and valve 1390 pivotably connected thereto, for example, within a slot 1323. Valve 1390 advantageously can be configured to inhibit debris 1399 from falling out of a debris container of the handheld vacuum cleaner, for example, under force of gravity. FIG. 13A illustrates valve 1390 in a position in which valve 1390 extends across passage 1327 and supports a weight of debris 1399, thereby inhibiting the debris from falling through a dirty air inlet of the handheld vacuum cleaner. Valve 1390 can be biased to such position. FIG. 13B illustrates valve 1390 in a first open position in which valve 1390 has been moved (pivoted) under force induced by a suction motor of the handheld vacuum cleaner, thereby allowing debris 1399 to be received by the handheld vacuum cleaner and into a debris container of the handheld vacuum cleaner. FIG. 13C illustrates valve 1390 in a second open position in which valve 1390 has been moved (pivoted) under force induced by a suction motor of a floor-based vacuum cleaner, which can be connected with handheld vacuum cleaner as described with respect to any of the cleaning apparatuses disclosed herein. As shown, valve 1390 is closer to the dirty air inlet of the handheld vacuum cleaner when in the second open position of FIG. 13C than when in the first open position of FIG. 13B. Valve 1390 can include a first portion 1390a connected to the housing (for example, in slot 1323) and a second portion 1390b connected with the first portion 1390a. First portion 1390a and second portion 1390b can be made of the same or a different material. First portion 1390a can include one or more notches 1390c that form living hinge(s) in valve 1390, thereby facilitating pivotable movement between the positions illustrated in FIGS. 13A-13C. In some implementations, more force is required to cause valve 1390 to move to the position of FIG. 13C (downward) than to the position illustrated in FIG. 13B. This advantageously can help valve 1390 support the weight of debris while at the same time allowing valve 1390 to be movable by the suction motor of the handheld vacuum cleaner, which may be limited in size and/or capacity. For example, the handheld vacuum cleaner can include a protrusion 1325 extending outward from a wall of portion 1321 of a housing of the handheld vacuum cleaner and that extends at least partially across passage 1327. Protrusion 1325 can be arranged between valve 1390 and a dirty air inlet of the handheld vacuum cleaner (see FIG. 13A). Protrusion 1325 can be in contact with (for example, support) valve 1390 when valve 1390 is in the closed position of FIG. 13A. When the handheld vacuum cleaner is connected with a floor-based vacuum cleaner and the suction motor of the floor-based vacuum cleaner is turned on (for example, for an empty mode of operation), the suction motor of the floor-based vacuum cleaner can be strong enough to cause the valve 1390 to overcome the support of protrusion 1325 and move to the open position of FIG. 13C. Accordingly, valve 1390 and protrusion 1325 can facilitate both modes of operation illustrated in FIG. 13B while allowing valve 1390 to stop debris 1399 from inadvertently exiting the handheld vacuum cleaner. Valve 1390 can be a passive valve biased toward the position of FIG. 13A but able to be moved to the positions of FIGS. 13A-13C under force of suction as described above.

[0181] FIGS. 14A-14N illustrate another implementation of a cleaning apparatus 1400 and portions thereof. Cleaning apparatus 1400 can include a cleaning head 1430, a support member 1405, a wand 1403, a handheld vacuum cleaner 1420, a floor-based vacuum cleaner 1410, and a power cord 1401 connected to handheld vacuum cleaner 1420. Support member 1405 can be pivotably connected to cleaning head 1430 so as to be able to pivot between the positions shown in FIGS. 14A and 14M (which may be referred to as an inclined position) and the positions shown in FIGS. 14E and 14I (which may be referred to as an upright position). Floor-based vacuum cleaner 1410 and/or handheld vacuum cleaner 1420 can be removably attachable to cleaning head 1430 at least partially via wand 1403 and/or support member 1405. Floor-based vacuum cleaner 1410, wand 1403, and handheld vacuum cleaner 1420 can be attachable to support member 1405, and accordingly, may pivot together with support member 1405 to such positions, and a plurality of other positions between and/or beyond such positions. Wand 1403 can be removably attachable to cleaning head 1430, support member 1405, handheld vacuum cleaner 1420, and/or floor-based vacuum cleaner 1410. Cleaning apparatus 1400 can be operated to draw air and/or debris from a surface (for example, a floor) to remove debris from the surface. Cleaning head 1430 can be supported by the surface when the cleaning apparatus 1400 is operated to remove debris from the surface. Cleaning head 1430 can be movable with respect to the surface to remove debris from different areas of the surface. Cleaning head 1430 can include any features described with respect to other cleaning heads disclosed herein, such as cleaning head 330. Floor-based vacuum cleaner 1410 can include any features described with respect to other floor-based vacuum cleaners disclosed herein, such as floor-based vacuum cleaner 110. Handheld vacuum cleaner 1420 can include any features described with respect to other handheld vacuum cleaners disclosed herein, such as handheld vacuum cleaner 120.

[0182] FIG. 14A illustrates cleaning apparatus 1400 in a stick mode of operation in which floor-based vacuum cleaner 1410 is detached and support member 1405 is inclined relative to cleaning head 1430. FIG. 14B illustrates an example cross-section taken through a portion of cleaning apparatus 1400 as indicated in FIG. 14A. FIG. 14C illustrates an example cross-section taken through a portion of handheld vacuum cleaner 1420 as indicated in FIG. 14A. FIG. 14D illustrates a perspective view of that which is shown in the cross-section view of FIG. 14C. With reference to FIG. 14B, cleaning apparatus 1400 includes support member 1405, a conduit 1439 (which may be a flexible conduit such as a corrugated hose), and wand 1403 connected to support member 1405. Wand 1403 can include a wand conduit 1403a and an adapter 1403b connected at an end (for example, a bottom end) of wand conduit 1403a. Adapter 1403b can be configured to secure to a portion of support member 1405, for example, within a socket of support member 1405 at or near a port 1405c of support member 1405. Support member 1405 can include a first port 1405a connected to conduit 1439, a second port 1405b, a third port 1405c, and an interior portion 1405d within which valve 1443 (described below) is movable. Port 1405a can be connected and in flow communication with conduit 1439. Conduit 1439 can be in flow communication with a dirty air inlet 1431 of cleaning head 1430, for example, via one or more flow passages within a housing of cleaning head 1430. Port 1405b can be configured to connect to a duct 1410a of floor-based vacuum cleaner 1410 to facilitate flow communication between floor-based vacuum cleaner 1410 and cleaning head 1430, wand 1403, and handheld vacuum cleaner 1420. Port 1405c can provide flow communication between wand 1403 and handheld vacuum cleaner 1420 (via wand 1403) and floor-based vacuum cleaner 1410 and cleaning head 1430. As shown in FIGS. 14B and 14F, cleaning apparatus 1400 (for example, support member 1405) can include a lid 1442 pivotably connected to support member 1405 via an end 1442a. End 1442a can be pivotably connected to an arm 1405e of support member 1405 via a pin, for example. Lid 1442 (which also may be referred to as a door) can be configured to pivot between a closed position, illustrated in FIGS. 14B and 14F, and an open position, illustrated in FIGS. 14J and 14N. Lid 1442 can be moved to and/or held in such open position by a portion of floor-based vacuum cleaner 1410, for example, a portion of duct 1410a. Floor-based vacuum cleaner 1410 can include an engagement feature that engages an end 1442b of lid 1442 to aid in moving lid 1442 to the open position. End 1442b can be curved, as shown, for example, in a direction away from support member 1405.

[0183] In the mode illustrated in FIGS. 14A-14D (stick mode), handheld vacuum cleaner 1420 (for example, a suction motor thereof) can be utilized to draw in air from dirty air inlet 1431 of cleaning head 1430, through one or more flow passages in cleaning head 1430 (such as conduit 1430a shown in FIG. 14X), through conduit 1439, through support member 1405 (for example, through port 1405a, interior portion 1405d, and port 1405c), through wand 1403 (for example, through adapter 1403b and wand conduit 1403a, through a dirty air inlet 1421 of handheld vacuum cleaner 1420, through a debris container and debris separator of handheld vacuum cleaner 1420, and through a clean air outlet of handheld vacuum cleaner 1420. Such flow can cause debris to be collected from a surface (for example, a floor) through cleaning head 1430, support member 1405, wand 1403, and into a debris container of handheld vacuum cleaner 1420. As shown in FIG. 14B, in such mode, lid 1442 is closed (thereby closing port 1405b) and valve 1443 is open. In such mode, cleaning head 1430 (and dirty air inlet 1431) is in flow communication with handheld vacuum cleaner 1420. Since floor-based vacuum cleaner 1410 is detached (and port 1405b is closed by lid 1442), floor-based vacuum cleaner 1410 is not in flow communication with any of cleaning head 1430 or handheld vacuum cleaner 1420. With reference to FIGS. 14C-14D, handheld vacuum cleaner 1420 includes a valve 1490 that is pivotably connected to a portion of handheld vacuum cleaner 1420 (for example, a portion of a housing of handheld vacuum cleaner 1420). In the mode of FIGS. 14A-14D, valve 1490 is in an open position. Valve 1490 can extend across a flow passage 1427 within handheld vacuum cleaner 1420 when in a closed position. Such flow passage 1427 can be arranged between a dirty air inlet 1421 and a debris container of handheld vacuum cleaner 1420. Valve 1490 can include an inner valve portion 1490a (which may be referred to as an inner door) and an outer valve portion 1490b (which may be referred to as an outer door). In the mode of FIGS. 14A-14D, inner valve portion 1490a is in a first open position in which inner valve portion 1490a is pivoted in a direction away from dirty air inlet 1421 of handheld vacuum cleaner 1420 and toward a debris container of handheld vacuum cleaner 1420. In such mode, as shown, outer valve portion 1490b is held in place by a stop member 1495, which can extend within a portion of a housing of handheld vacuum cleaner 1420 and inhibit outer valve portion 1490b from pivoting in a direction toward dirty air inlet 1421 (for example, in a clockwise direction). Outer valve portion 1490b can be annular and/or can comprise an opening that can be covered by inner valve portion 1490a when valve 1490 is closed, for example, in the modes illustrated and described with respect to FIGS. 14E-14H and FIGS. 14M-14P). In the mode of FIGS. 14A-14D, inner valve portion 1490a is open and therefore, valve 1490 is open, thereby allowing flow communication between handheld vacuum cleaner 1420 and wand 1403, support member 1405, and cleaning head 1430.

[0184] FIGS. 14E-14H illustrate a mode in which handheld vacuum cleaner 1420 is off and not performing cleaning. In such mode, the suction motor of handheld vacuum cleaner 1420 is off. FIG. 14E illustrates wand 1403 and handheld vacuum cleaner 1420 in an upright orientation in which wand 1403 is generally perpendicular to cleaning head 1430 (and, for example, a surface on which cleaning head 1430 rests). As shown, floor-based vacuum cleaner 1410 is not attached. As shown, valve 1443 and valve 1490 are closed. Closure of valve 1490 in such position can advantageously inhibit debris from a debris container of handheld vacuum cleaner 1420 from falling out of such debris container under force of gravity. Valves 1490, 1443 can be held in such closed positions as described in more detail below.

[0185] FIG. 14I illustrates cleaning apparatus 1400 in an empty mode of operation in which floor-based vacuum cleaner 1410 is attached. Floor-based vacuum cleaner 1420, wand 1403, support member 1405, and/or handheld vacuum cleaner 1420 can be oriented in an upright orientation in which wand 1403 is generally perpendicular to cleaning head 1430 (and, for example, a surface on which cleaning head 1430 rests). FIG. 14J illustrates an example cross-section taken through a portion of cleaning apparatus 1400 as indicated in FIG. 14I. FIG. 14K illustrates an example cross-section taken through a portion of handheld vacuum cleaner 1420 as indicated in FIG. 14I. FIG. 14L illustrate a perspective view of that which is shown in the cross-section view of FIG. 14K.

[0186] In the mode illustrated in FIGS. 14I-14L (empty mode), floor-based vacuum cleaner 1410 (for example, a suction motor thereof) can be utilized to draw in air from a clean air outlet and/or an auxiliary air inlet of handheld vacuum cleaner 1420, through a debris container of handheld vacuum cleaner 1420, through dirty air inlet 1421, through wand 1403 (for example, through adapter 1403b and wand conduit 1403a), through support member 1405 (for example, through port 1405a, interior portion 1405d, and port 1405c), through a dirty air inlet of floor-based vacuum cleaner 1410 (for example, via duct 1410a), through a debris container and debris separator of floor-based vacuum cleaner 1410, and/or through a clean air outlet of floor-based vacuum cleaner 1410. Such flow can cause debris to be transferred from the debris container of handheld vacuum cleaner 1420 to the debris container of floor-based vacuum cleaner 1410.

[0187] As shown in FIGS. 14J-14L, in such mode, lid 1442 is open (for example, held in such position by duct 1410a) and valve 1490 is open, thereby providing flow communication between floor-based vacuum cleaner 1410 and handheld vacuum cleaner 1420. As also shown, valve 1443 is closed in such mode, thereby preventing fluid communication between cleaning head 1430 and both of floor-based vacuum cleaner 1410 and handheld vacuum cleaner 1420. As shown in FIGS. 14K-14L, both of inner and outer valve portions 1490a, 1490b are open, pivoted in a direction towards dirty air inlet 1421. Inner valve portion 1490a may be described as being in a second open position in such mode, different from the first open position described above with respect to FIGS. 14C-14D for the stick mode of operation. Inner valve portion 1490a is pivoted in an opposite direction when in the mode of FIGS. 14K-14L than when in the mode of FIGS. 14C-14D. As shown in FIGS. 14K-14L, stop member 1495 is in a retracted position in the mode of FIGS. 14I-14L, such that the physical interference imposed by stop member 1495 in the modes of FIGS. 14C-14D and 14G-14H is removed. Retracting stop member 1495 can permit both inner and outer valve portions 1490a, 1490b to pivot in a direction towards dirty air inlet 1421, thereby allowing the inner valve portion 1490a to transition to the second open position. Stop member 1495 may be biased toward an extended position (FIGS. 14C-14D and 14G-14H). As described in more detail below, stop member 1495 can be moved to the retracted position responsive to an inclination/orientation of wand 1403 (for example, relative to cleaning head 1430 and/or a surface on which cleaning head 1430 rests). For example, stop member 1495 may be held in the extended position when wand 1403 is oriented as shown and/or described with respect to FIGS. 14E and 14P and may be moved to and held in the retracted position when wand 1403 is oriented as shown and/or described with respect to FIGS. 14A and 14M. With reference to FIG. 14J, valve 1443 may be held in a closed position via a stop member as described in more detail below.

[0188] FIG. 14M illustrates cleaning apparatus 1400 in an upright mode of operation in which floor-based vacuum cleaner 1410 is attached and support member 1405 (and/or wand 1403) is inclined relative to cleaning head 1430. FIG. 14N illustrates an example cross-section taken through a portion of cleaning apparatus 1400 as indicated in FIG. 14M. FIG. 14O illustrates an example cross-section taken through a portion of handheld vacuum cleaner 1420 as indicated in FIG. 14M. FIG. 14P illustrates a perspective view of that which is shown in the cross-section view of FIG. 14O.

[0189] In the mode illustrated in FIGS. 14M-14P (upright mode), floor-based vacuum cleaner 1410 (for example, a suction motor thereof) can be utilized to draw in air from dirty air inlet 1431 of cleaning head 1430, through one or more flow passages in cleaning head 1430, through conduit 1439, through support member 1405 (for example, through port 1405a, interior portion 1405d, and port 1405b), through a dirty air inlet 1411 of floor-based vacuum cleaner 1410 (for example, via duct 1410a), through a debris container and debris separator of floor-based vacuum cleaner 1410, and/or through a clean air outlet of floor-based vacuum cleaner 1410. Such flow can cause debris to be collected from a surface (for example, a floor) through cleaning head 1430, support member 1405, and into a debris container of floor-based vacuum cleaner 1410.

[0190] As shown in FIG. 14N, in such mode, lid 1442 is open (for example, held in such position by duct 1410a) and valve 1443 is open, thereby providing flow communication between floor-based vacuum cleaner 1410 and cleaning head 1430. As shown in FIGS. 14O-14P, valve 1490 is closed in such mode, thereby preventing fluid communication between handheld vacuum cleaner 1420 and both of floor-based vacuum cleaner 1410 and cleaning head 1430. As shown in FIGS. 14O-14P, stop member 1495 is in an extended position, thereby preventing valve 1490 (for example, both of inner valve portion 1490a and outer valve portion 1490b) from being opened (for example, pivoted downward due to suction force generated by a suction motor of floor-based vacuum cleaner 1410). Maintaining valve 1490 in such closed position can inhibit debris from a debris container of handheld vacuum cleaner 1420 from falling out (for example, through wand 1403), but can also improve suction performance of floor-based vacuum cleaner 1410. In some variants, however, valve 1490 can be opened in the upright mode of FIGS. 14M-14P, which can allow debris from a debris container of handheld vacuum cleaner 1420 to be emptied into floor-based vacuum cleaner 1410. In some variants, floor-based vacuum cleaner 1410 and handheld vacuum cleaner 1420 can be utilized in the upright mode of FIGS. 14M-14P, for example, by operating suctions motors of both floor-based vacuum cleaner 1410 and handheld vacuum cleaner 1420. In such variants, inner valve portion 1490a may be allowed to open (for example, pivot upwards) to allow air and debris to flow through flow passage 1427 of handheld vacuum cleaner 1420.

[0191] FIGS. 14Q-14FF illustrate various aspects and mechanisms of cleaning apparatus 1400 for controlling operation of valves 1490, 1443, for example, for opening and/or closing valves 1490, 1443 in the various modes of operation illustrated and described with respect to FIGS. 14A-14P. FIG. 14Q illustrates a rear perspective view of a portion of cleaning apparatus 1400, illustrating handheld vacuum cleaner 1420, wand 1403, floor-based vacuum cleaner 1410, support member 1405 (with a portion thereof removed), cleaning head 1430, and conduit 1439. FIG. 14R illustrates a side view of that which is shown in FIG. 14Q. Cleaning apparatus 1400 can include one or more actuators for moving valves 1490, 1443 between the positions illustrated and described with respect to FIGS. 14A-14P. For example, cleaning head 1430, support member 1405, wand 1403, and/or handheld vacuum cleaner 1420 can include one or more (or a plurality of) actuators that can engage and/or interact with one another to cause movement of valves 1490, 1443. Such actuators can engage one another: when floor-based vacuum cleaner 1410, cleaning head 1430, support member 1405, wand 1403, and/or handheld vacuum cleaner 1420 are attached to one another; and/or responsive to inclination and/or movement of support member 1405 and/or wand 1403 (which may be moved in tandem with any of floor-based vacuum cleaner 1410 and handheld vacuum cleaner 1420). FIGS. 14Q-14FF illustrate examples of various actuators that can be incorporated into cleaning head 1430, support member 1405, wand 1403, floor-based vacuum cleaner 1410, and handheld vacuum cleaner 1420. However, such examples are not intended to limit the scope of the disclosure. Various other actuators and/or actuator mechanisms may be utilized within cleaning apparatus 1400 in order to cause movement of valves 1490, 1443.

[0192] With reference to at least FIGS. 14R, 14S, 14Y, and 14BB, cleaning apparatus 1400 can include actuators 1450, 1451, 1452, 1453, 1454. FIG. 14S illustrates a side view of a portion of cleaning apparatus 1400 with certain portions hidden to better illustrate actuators 1451, 1452, 1453, 1454.

[0193] With reference to at least FIGS. 14Y and 14BB, cleaning apparatus 1400 can include actuator 1450 arranged on and/or incorporated into cleaning head 1430. Actuator 1450 can include a protrusion 1450a for engaging a portion of actuator 1451 (for example, a portion of body 1451a of actuator 1451). Protrusion 1450a can engage actuator 1451, for example, to cause movement of actuator 1451, when support member 1405 (and any components connected and/or pivotable thereto) is rotated relative to cleaning head 1430. With reference to at least FIGS. 14R-14T and 14W-14BB, actuator 1451 can include a body 1451a that is secured to and/or around a portion of support member 1405. In some implementations, actuator 1451 is connected to and forms a unitary structure with support member 1405. Actuator 1451 can be connected (for example, via an arm 1451b) to actuator 1452. Actuator 1452 can be connected to actuator 1451 and can extend through a wall of support member 1405 and/or along a portion of a length of support member 1405 (see FIG. 14R). Cleaning apparatus 1400 can further include actuator 1453, which can comprise a disc shaped element. Actuator 1453 can be movably arranged within a cavity 1405h defined within a portion of support member 1405. Actuator 1453 can be configured to be moved within cavity 1405h, for example, when actuator 1455 applies a force against actuator 1453 induced from contact with an actuator of floor-based vacuum cleaner 1410 when floor-based vacuum cleaner 1410 is attached to support member 1405. In some implementations, actuator 1455 is biased with a spring in a direction away from actuator 1453 and contact between a portion of floor-based vacuum cleaner 1410 overcomes the spring bias and forces actuator 1453 towards and into contact with actuator 1453 when floor-based vacuum cleaner 1410 is attached to support member 1405. With reference to at least FIGS. 14R-14S, and 14U, cleaning apparatus 1400 can include an actuator 1454 that can be connected with wand 1403 and can interact with actuator 1453. Actuator 1454 can be arranged outside a conduit of wand 1403 or alternatively, within a conduit of wand 1403 (for example, in a conduit that is isolated from an airflow conduit within wand 1403).

[0194] FIGS. 14Z-14BB illustrate portions of cleaning head 1430 and support member 1405 where support member 1405 is in an inclined position, for example, a position in which support member 1405 (and/or wand 1403) is oriented at an angle that is oblique relative to cleaning head 1430 (for example, oblique relative to a plane along a bottom portion of cleaning head 1430). For example, support member 1405 (and/or wand 1403) can be oriented about an axis that is greater than 20 degrees from an axis that is perpendicular to a plane of cleaning head 1430 and/or a surface upon which cleaning head 1430 rests. In such inclined positions, protrusion 1450a is spaced away from actuator 1451 (see FIG. 14BB). FIGS. 14W-14Y illustrate portions of cleaning head 1430 and support member 1405 where support member 1405 is in an example upright position, for example, a position in which support member 1405 (and/or wand 1403) is oriented at an angle that is generally perpendicular relative to cleaning head 1430 (for example, generally perpendicular to a plane along a bottom portion of cleaning head 1430). For example, support member 1405 (and/or wand 1403) can be oriented about an axis that is within 20 degrees from an axis that is perpendicular to a plane of cleaning head 1430 and/or a surface upon which cleaning head 1430 rests (for example, within 19 degrees, within 18 degrees, within 17 degrees, within 16 degrees, within 15 degrees, within 14 degrees, within 13 degrees, within 12 degrees, within 11 degrees, within 10 degrees, within 9 degrees, within 9 degrees, within 8 degrees, within 7 degrees, within 6 degrees, within 5 degrees, within 4 degrees, within 3 degrees, within 2 degrees, or within 1 degrees from such plane). In such upright position, protrusion 1450a contacts actuator 1451, for example, a portion of body 1451a (see FIG. 14Y). Such contact between protrusion 1450a and actuator 1451 causes actuator 1451 to move(for example, upward). Movement of actuator 1451 in such manner in turn causes actuator 1452 to move (for example, upward). FIG. 14EE-14FF schematically illustrate interaction of actuator 1450 with actuator 1451 based on inclination and/or movement of support member 1405 relative to cleaning head 1430. FIG. 14EE illustrates support member 1405 in an inclined position relative to cleaning head 1430 whereas FIG. 14FF illustrates support member 1405 in an upright position relative to cleaning head 1430. As shown in FIG. 14EE, when support member 1405 is in the inclined position, protrusion 1450a of actuator 1450 does not engage/contact actuator 1451. As also shown, when support member 1405 is in the upright position, protrusion 1450a of actuator 1450 engages/contacts actuator 1451, causing actuator 1451 to move (for example, upward) as indicated by the dotted lines. In some implementations, actuator 1452 is biased with a spring in a direction away from actuator 1453 (for example, downward) and contact between cleaning head 1430 and actuator 1452 moves actuator 1452 and overcomes the spring bias and forces actuator 1452 towards and into contact with actuator 1453.

[0195] When floor-based vacuum cleaner 1410 is attached, an actuator of floor-based vacuum cleaner 1410 can push against actuator 1455, thereby causing actuator 1453 to be moved towards (for example, horizontally) actuators 1452, 1454. Actuator 1453 may be held in the position illustrated in the figures (for example, between actuators 1452, 1454) by actuator 1455, which in turn may be pushed against actuator 1453 (for example, in a horizontal direction) by the actuator of the floor-based vacuum cleaner 1410. When actuator 1453 is arranged between actuators 1452 and 1454 and actuator 1452 is pushed upward by actuator 1451 (caused by protrusion 1450a of actuator 1450), actuator 1454 can be moved (for example, upward). With reference to FIGS. 14R and 14LL, movement of actuator 1454 upward can cause actuator 1454 to move stop member 1495 from an extended position (in which stop member 1495 prevents valve 1490 from opening) to a retracted position (in which valve 1490 is free to move. FIG. 14KK illustrates a bottom view of handheld vacuum cleaner 1420, illustrating stop member 1495 and stop member protrusion 1495a which can block valve 1490 when stop member 1495 is in an extended position (for example, in which a stop member protrusion 1495a extends through an opening in a portion of handheld vacuum cleaner 1420). FIG. 14LL illustrates a perspective view of a portion of wand 1403 and handheld vacuum cleaner 1420 and also illustrates actuator 1454 in a first position in which it does not engage stop member 1495. Actuator 1454 can be moved from such first position to a second position (for example, upward) that causes actuator 1454 to move stop member 1495 from the extended position to the retracted position. Accordingly, when cleaning apparatus 1400 is in the above-described upright position and floor-based vacuum cleaner 1410 is attached, actuators 1450, 1451, 1452, 1453, 1455, 1454, and an actuator of floor-based vacuum cleaner 1410 can interact with one another so as to cause stop member 1495 to be retracted and thereby cause valve 1490 to be in an open position. This can advantageously facilitate the empty mode described and/or illustrated with respect to FIGS. 14I-14L above, which allows floor-based vacuum cleaner 1410 to collect debris from handheld vacuum cleaner 1420. Wand 1403 can include an adapter 1403c connected at an end (for example, a top end) of wand conduit 1403a (see FIG. 14LL). Adapter 1403c can be configured to secure to a portion of handheld vacuum cleaner 1420, for example, within a socket of handheld vacuum cleaner 1420 at or near a dirty air inlet 1421 of handheld vacuum cleaner 1420. In some implementations, actuator 1454 can be movably mounted to adapter 1403c (see FIG. 14LL). For example, actuator 1454 can be mounted to adapter 1403c such that actuator 1454 is free to move upward and downward to engage or disengage stop member 1495. With reference to at least FIG. 14R-14S, actuator 1454 may be biased with a spring in a direction towards actuator 1453 (for example, downward) and contact between actuators 1452, 1455, 1453 overcomes the spring bias and forces actuator 1454 upward and into contact with stop member 1495 (see FIG. 14LL).

[0196] In some implementations, cleaning apparatus 1400 is configured such that stop member 1495 is in the retracted position only when cleaning apparatus 1400 is in the empty mode, for example, as illustrated and/or described with respect to FIGS. 14I-14L. For example, cleaning apparatus 1400 is configured such that stop member 1495 is in the retracted position only when floor-based vacuum cleaner is attached and support member 1405 and/or wand 1403 are in upright position. For example, cleaning apparatus 1400 is configured such that stop member 1495 is in the retracted position only when: (1) actuator 1453 is moved, for example, by force applied by actuator 1455, induced by an actuator of floor-based vacuum cleaner 1410 and actuator 1453 is positioned between and/or in contact with actuators 1452, 1454; and (2) actuator 1452 is moved, for example, by force applied from actuator 1451, induced by engagement with actuator 1450 as described above. These configurations can cause actuator 1454 to be moved (for example, upward) so as to engage stop member 1495 and cause stop member 1495 (and stop member protrusion 1495a) to move to a retracted position. In some implementations, stop member 1495 is biased towards the extended position.

[0197] Cleaning apparatus 1400 can be configured such that valve 1443 is open when support member 1405 and/or wand 1403 are in an inclined position, for example, a position in which support member 1405 and/or wand 1403 are oriented at an angle that is oblique relative to cleaning head 1430. Such inclined position can be one in which an axis extending through support member 1405 and/or wand 1403 is oriented at an angle that is greater than 5, 10, 15, or 20 degrees from an axis that is perpendicular to a plane of cleaning head 1430 and/or a surface upon which cleaning head 1430 rests. In such inclined positions, protrusion 1450a can be spaced away from actuator 1451 (see FIG. 14BB) and actuator 1452 can be positioned as illustrated in FIG. 14CC. In the position illustrated in FIG. 14CC, a stop member 1456 is in a retracted position and does not prevent valve 1443 from opening (for example, pivoting). As shown in FIG. 14CC, valve 1443 is open in such case. FIG. 14DD illustrates positions of actuator 1452 and stop member 1456 when support member 1405 is in an upright position (for example, as described above). In such upright position, support member 1405 (and/or wand 1403) may be oriented about an axis that is within about 20, 15, 10, or 5 degrees from perpendicular relative to a plane of cleaning head 1430 and/or a surface upon which cleaning head 1430 rests, for example. In such upright position, actuator 1452 is moved up based on movement of actuator 1451 induced by contact between protrusion 1450a and actuator 1451 as described previously. As shown in FIG. 14DD, movement of actuator 1452 in such manner (for example, upward) pushes stop member 1456 inward such that stop member 1456 prevents valve 1443 from opening. In some implementations, pivoting of valve 1443 is tied to pivotable movement of support member 1405, such that valve 1443 is: pivoted to the open position when support member 1405 is moved from an upright position to an inclined position and when stop member 1456 is retracted; and pivoted to the closed position when support member 1405 is moved from an inclined position to an upright position.

[0198] FIG. 14GG, 14HH, and 14JJ illustrate example cross-sections through portions of cleaning apparatus 1400 and FIG. 14II illustrates a rear perspective view of a portion of cleaning apparatus 1400. With reference to FIG. 14HH and 14JJ, in some variants, cleaning apparatus can include two valves 1443a, 1443b in support member 1405. Valve 1443b may be pivotably connected to support member 1405 and configured to open/close port 1405b. Valve 1443a can be similar or identical in some or all aspects to valve 1443 as described above. Valve 1443b is an optional additional valve and in various implementations, cleaning apparatus 1400 does not include valve 1443b. With reference to FIG. 14II, support member 1405 can be configured to secure to wand 1403 via region 1405g.

[0199] FIGS. 15A-15D schematically illustrate actuators that can be utilized to open and/or close valves of a cleaning apparatus. FIGS. 15A-15D illustrate a cleaning head 1530, an actuator 1550 having a protrusion 1550a, and actuators 1551, 1552, 1553, 1554. FIGS. 15A-15D also illustrate a floor-based vacuum cleaner 1510 having an actuator 1510a. The cleaning apparatus of FIGS. 15A-15D can include a handheld vacuum cleaner, a valve for opening/closing a flow path to cleaning head 1530 (main valve), and a valve for opening/closing a flow path to the handheld vacuum cleaner (handvac valve). FIG. 15A illustrates an example stick mode of operation in which a wand/support member of the cleaning apparatus is in an inclined position relative to cleaning head 1530 (which may be similar or identical to any of the inclined positions discussed previously). In some implementations, the main valve is open when the cleaning apparatus is in the inclined position of FIG. 15A. In the mode of FIG. 15A, protrusion 1550a does not contact actuator 1551, thereby allowing actuator 1551 to remain in a first position (which may be referred to as a lower position). Floor-based vacuum cleaner 1510 is detached in such mode. In some implementations, the handvac valve is open when the cleaning apparatus is in the inclined position of FIG. 15A. In the mode of FIG. 15A, cleaning head 1530 can be in flow communication with the handheld vacuum cleaner. In such mode, air can be drawn in from the cleaning head 1530 and through the handheld vacuum cleaner such that debris can be collected from a surface through cleaning head 1530 into a debris container of the handheld vacuum cleaner.

[0200] FIG. 15B illustrates an example mode in which wand/support member of the cleaning apparatus is in an upright position relative to cleaning head 1530 (which may be similar or identical to any of the upright positions discussed previously). In the mode of FIG. 15B, floor-based vacuum cleaner 1510 is detached and protrusion 1550a contacts actuator 1551, moving it upward. In some implementations, the main valve is closed when the cleaning apparatus is in the upright position of FIG. 15B. As shown, because floor-based vacuum cleaner 1510 is detached, actuator 1510a is not engaged with actuator 1554 and actuator 1554 is not pushed into engagement with actuator 1552. Accordingly, actuator 1553 is not moved. In some implementations, the handvac valve is closed when the cleaning apparatus is in the upright position and the floor-based vacuum cleaner 1510 is detached as shown in FIG. 15B such that debris is inhibited from leaving the handheld vacuum cleaner, for example, under the force of gravity.

[0201] FIG. 15C illustrates an example empty mode in which wand/support member of the cleaning apparatus is in an upright position relative to cleaning head 1530 (which may be similar or identical to any of the upright positions discussed previously) and floor-based vacuum cleaner 1510 is attached. In such empty mode, actuator 1510a engages actuator 1554 and pushes actuator 1552 into engagement with actuator 1553. Actuator 1551 is pushed upward due to contact with protrusion 1550a of actuator 1550 and into engagement with actuator 1552, causing actuators 1552, 1553 to move upward. Movement of actuator 1553 can cause actuator 1553 to engage a stop member of the handheld vacuum cleaner to a retracted position such the handvac valve is pivotable. A suction motor of floor-based vacuum cleaner 1510 can cause airflow from the handheld vacuum cleaner to the floor-based vacuum cleaner 1510, thereby causing the handvac valve to open. This mode thereby allows for debris from the handheld vacuum cleaner to be emptied into the floor-based vacuum cleaner 1510.

[0202] FIG. 15D illustrates an example upright mode in which the wand/support member of the cleaning apparatus is in an inclined position relative to cleaning head 1530 (which may be similar or identical to any of the inclined positions discussed previously) and floor-based vacuum cleaner 1510 is attached. In such upright mode, actuator 1510a may engage actuator 1554, but since protrusion 1550a does not engage and move actuator 1551, actuator 1553 is not moved (for example, not moved upward). In such mode, the stop member of the handheld vacuum cleaner is in an extended position and the handvac valve is in the closed position. In such mode, a suction motor of floor-based vacuum cleaner 1510 can cause airflow from the cleaning head 1530 to the floor-based vacuum cleaner such that debris is drawn from the cleaning head 1530 into the floor-based vacuum cleaner 1510.

[0203] FIGS. 16A-16DD illustrate another implementation of a cleaning apparatus 1600 and portions thereof. Cleaning apparatus can include any features described with respect to other cleaning apparatus described herein, such as cleaning apparatus 1400. Cleaning apparatus 1600 can include a cleaning head 1630, a support member 1605, a wand 1603, a handheld vacuum cleaner 1620, a floor-based vacuum cleaner 1610, and a power cord 1601 connected to handheld vacuum cleaner 1620. Floor-based vacuum cleaner 1610 and handheld vacuum cleaner 1620 may be referred to as a first vacuum cleaner of cleaning apparatus 1600 and handheld vacuum cleaner 1620 may be referred to as a second vacuum cleaner of cleaning apparatus 1600. Cleaning apparatus 1600 can be operated to draw air and/or debris from a surface (for example, a floor) to remove debris from the surface. Cleaning head 1630 (which also may be referred to as a surface cleaning head or floor nozzle) can be supported by the surface when the cleaning apparatus 1600 is operated to remove debris from the surface. Cleaning head 1630 can be movable with respect to the surface to remove debris from different areas of the surface. Cleaning head 1630 can include any features described with respect to other cleaning heads disclosed herein, such as cleaning head 330. Floor-based vacuum cleaner 1610 can include any features described with respect to other floor-based vacuum cleaners disclosed herein, such as floor-based vacuum cleaner 310. Handheld vacuum cleaner 1620 can include any features described with respect to other handheld vacuum cleaners disclosed herein, such as handheld vacuum cleaner 320. Support member 1605 (which also may be referred to as a support or support structure or neck) can be pivotably connected to cleaning head 1630 so as to be pivotable between the positions shown in FIG. 16EE-16JJ (described in more detail below), among other positions. In some implementations, support member 1605 forms a unitary structure with cleaning head 1630, for example, that is removably attachable to wand 1603 and/or floor-based vacuum cleaner 1610.

[0204] Floor-based vacuum cleaner 1610 and/or handheld vacuum cleaner 1620 can be removably attachable to cleaning head 1630 at least partially via wand 1603 and/or support member 1605. Floor-based vacuum cleaner 1610, wand 1603, and handheld vacuum cleaner 1620 can be attachable to support member 1605, and accordingly, may pivot together with support member 1605 to and between the positions shown in FIG. 16EE-16JJ, and a plurality of other positions between and/or beyond such positions. Wand 1603 can be removably attachable to cleaning head 1630, support member 1605, handheld vacuum cleaner 1620, and/or floor-based vacuum cleaner 1610. FIGS. 16A-16C illustrate floor-based vacuum cleaner 1610, handheld vacuum cleaner 1620, support member 1605, wand 1603, and cleaning head 1630 attached to one another. FIG. 16D illustrates floor-based vacuum cleaner 1610 detached from support member 1605, wand 1603, cleaning head 1630, and handheld vacuum cleaner 1620. FIG. 16E illustrates handheld vacuum cleaner 1620 and wand 1603 detached from support member 1605 and cleaning head 1630.

[0205] FIGS. 16F-16I illustrate enlarged views of portions of cleaning apparatus 1600 with floor-based vacuum cleaner 1610, handheld vacuum cleaner 1620, support member 1605, wand 1603, and cleaning head 1630 attached to one another. FIGS. 16J-16L illustrate portions of support member 1605, wand 1603, and cleaning head 1630 attached to one another. FIG. 16M illustrates a top perspective view of support member 1605 and cleaning head 1630. FIGS. 16N-16P illustrate various views of floor-based vacuum cleaner 1610 and portions thereof and FIGS. 16Q-16U illustrate various views of wand 1603 and portions thereof.

[0206] With reference to FIGS. 16Q-16U, wand 1603 can include a wand conduit 1603a, a first adapter 1603b for connecting to handheld vacuum cleaner 1620, and a second adapter 1603c for connecting to support member 1605. Wand conduit 1603a can be tubular. First and second adapters 1603b, 1603c can be arranged at opposite ends of wand 1603 and attached to top and bottom ends of wand conduit 1603a. Wand 1603 can include an airflow passage extending through wand conduit 1603a and first and second adapters 1603b, 1603c. Adapter 1603c can be configured to secure to a portion of support member 1605, for example, within a socket 1605a of support member 1605 (see FIG. 16M). In some variants, adapter 1603c and support member 1605 are configured such that support member 1605 (for example, an end thereof) is received and secured within a portion of adapter 1603c. With reference to FIG. 16U, adapter 1603c can include a snout 1603f that can be at least partially tubular and an electrical connector 1603g configured to mechanically and electrically connect to an electrical connector 1605b of support member 1605 (see FIG. 16M). Wand 1603 and/or support member 1605 can include one or more latch mechanisms to inhibit detachment of wand 1603 from support member 1605. For example, wand 1603 can include a latch 1603h that can be received by a latch opening 1605c in support member 1605 (see FIGS. 16J, 16L, and 16V). Wand 1603 can include one or more mechanisms to move latch 1603h, for example, horizontally so as to move latch 1603h into (through) and out of latch opening 1605c. For example, with reference to at least FIGS. 16Q-16R, wand 1603 can include a rod 1603d that can be moved to cause movement of latch 1603h. Rod 1603d can be coupled to wand conduit 1603a, for example, to an outer portion thereof. Rod 1603d can include an engagement feature 1603e, for example, at an end of rod 1603d that facilitates movement of rod 1603d (for example, downward). In some implementations, wand 1603 includes a coupler 16031 that can facilitate coupling of wand 1603 to floor-based vacuum cleaner 1610, for example, via engagement of protrusions 1603m within slots 1610d as described in more detail below. In some of such implementations, rod 1603d can be coupled to wand conduit 1603a via such coupler 16031 (see FIGS. 16Q-16R). FIG. 16W illustrates an enlarged view of a portion of wand 1603 with a portion of adapter 1603c removed to better illustrate latch 1603h and a portion of rod 1603d. Latch 1603h can be arranged within structure of adapter 1603c and in some implementations, is biased to an extended position by a biasing member such as spring 1603k. FIG. 16X illustrates a partial cross-sectional view taken through a portion of adapter 1603c. Rod 1603d can be configured to push latch 1603h from its extended position (illustrated in the figures) in which latch 1603h extends through latch opening 1605c (when wand 1603 is attached to support member 1605) to a retracted position in which latch 1603h does not extend through latch opening 1605c. In such retracted position, latch 1603h can compress spring 1603k. Rod 1603d can be configured to cause latch 1603h to move to such retracted position when moved in a downward direction, for example. With reference to FIG. 16X, rod 1603d can include an inclined surface 1603j configured to cause latch 1603h to move to such retracted position when rod 1603d is moved downward.

[0207] Adapter 1603b can be configured to attach to handheld vacuum cleaner 1620. Adapter 1603b can include one or more latch mechanisms configured to inhibit detachment of adapter 1603b (and thus, wand 1603) from handheld vacuum cleaner 1620. For example, with reference to at least FIGS. 16Q-16T, adapter 1603b can include a latch 1603n having a locking feature 16030 configured to engage within a portion of handheld vacuum cleaner 1620 (for example, groove 1626a in a portion of snout 1626 (see FIG. 16BB). Latch 1603h can be pivotably connected to a portion of adapter 1603b and can be pushed (for example, by a user) between an extended position (see FIG. 16T) and a retracted position. In such extended position, locking feature 16030 is arranged within groove 1626a when adapter 1603b is attached to handheld vacuum cleaner 1620. In some implementations, latch 1603n is biased toward such extended position. With reference to FIG. 16S, adapter 1603b can include an electrical connector 1603p configured to mechanically and electrically connect to an electrical connector 1629 of handheld vacuum cleaner 1620 (see FIGS. 16Z and 16AA) when adapter 1603b is attached to handheld vacuum cleaner 1620.

[0208] FIGS. 16N-16P illustrate various views of floor-based vacuum cleaner 1610. Floor-based vacuum cleaner 1610 can include a duct 1610a configured to fluidly connect to an outlet 1605e of support member 1605 as shown in FIG. 16L. FIG. 16L illustrates lid/door 1642 in an open position to better illustrate outlet 1605e, however, it is to be understood that lid/door 1642 may be biased closed (as shown in FIG. 16J) by a biasing member (such as a torsional spring) when floor-based vacuum cleaner 1610 is detached. Duct 1610a can fluidly connect a dirty air inlet of floor-based vacuum cleaner 1610 to outlet 1605e. In some variants, floor-based vacuum cleaner 1610 does not include duct 1610a, and in such variants, a dirty air inlet (for example, formed by a port and/or opening in floor-based vacuum cleaner 1610) is directly connected to outlet 1605e. As shown, floor-based vacuum cleaner 1610 can include a handle 1610b that can facilitate detachment of floor-based vacuum cleaner 1610 and/or holding floor-based vacuum cleaner 1610 when detached. Floor-based vacuum cleaner 1610 can be configured to receive and/or secure to wand 1603. As mentioned previously, floor-based vacuum cleaner 1610 can include slots 1610d configured to receive protrusions 1603m of coupler 16031 (see FIGS. 16Q-16R). FIGS. 16F-16G illustrate protrusions 1603m within slots 1610d. Protrusions 1603m can be configured to be inserted within slots 1610d vertically, for example, when floor-based vacuum cleaner 1610 is moved downward when attached to wand 1603. Arrangement of protrusions 1603m within slots 1610d may inhibit detachment of floor-based vacuum cleaner 1610 from wand 1603 (for example, lateral detachment).

[0209] Floor-based vacuum cleaner 1610 and support member 1605 can be configured to electrically connect to one another, which can allow floor-based vacuum cleaner 1610 to receive electrical power from support member 1605. For example, floor-based vacuum cleaner 1610 can include an electrical connector 1610c configured to mechanically and electrically connect to an electrical connector 1605d of support member 1605 (see FIG. 16M). In some implementations, support member 1605 includes a leg 1605f on which electrical connector 1605d is arranged. Such leg 1605f can be configured to support a portion of floor-based vacuum cleaner 1610 which includes electrical connector 1610c (see FIG. 16P). FIGS. 16H-16I illustrate portions of floor-based vacuum cleaner 1610, wand 1603, support member 1605, and cleaning head 1630 when attached to one another.

[0210] FIGS. 16Y-16AA illustrate perspective views of handheld vacuum cleaner 1620 or portions thereof. FIG. 16BB illustrates a cross-sectional view taken through handheld vacuum cleaner 1620. Handheld vacuum cleaner 1620 can include a dirty air inlet 1621, a snout 1626, a groove 1626a (discussed previously), a housing 1623, a debris container door 1624 (which may also be referred to as debris containing region or debris chamber), a debris container 1641 which may be defined by debris container door 1624 and one or more portions of housing 1623, a handle 1625, a clean air outlet 1622, one or more controls 1628, and a motor 1640 (which may also be referred to as a suction motor). Debris container 1624 may be defined by one or more interior portions of handheld vacuum cleaner 1620 and such interior portion(s) may be at least partially formed by a debris container door 1624. Handheld vacuum cleaner 1620 can include a debris separator for separating debris from air suctioned through handheld vacuum cleaner 1620. With reference to FIG. 16BB, handheld vacuum cleaner 1620 can include a mesh filter 1643 (which may also be referred to as a fluff screen), a pre-motor filter 1644 (which may be conical), and/or a post-motor filter 1649 (for example, a HEPA filter). Filter 1643, filter 1644, and/or other components (for example, structural components of handheld vacuum cleaner 1620) may form a debris separator of handheld vacuum cleaner 1220. Filter 1644 can be a radial filter and handheld vacuum cleaner 1620 can be configured such that air flowing through handheld vacuum cleaner 1620 (in any of the modes described herein) flows through a wall of the radial filter and at least partially through an interior of filter 1644. In some implementations, handheld vacuum cleaner 1620 includes a filter support and/or a filter cap similar or identical to filter support 1896, 2296 and filter cap 1897, 2297. As also shown in FIG. 16BB, handheld vacuum cleaner 1620 can include a valve 1690. Valve 1690 can be arranged within an airflow passage of handheld vacuum cleaner 1620 that extends between dirty air inlet 1621 and debris container 1641. Valve 1690 can be configured to be moved between various positions, such as open and closed positions, and can advantageously inhibit debris from falling out of debris container 1641 when in a closed position (for example, a position in which valve 1690 blocks the airflow passage extending between dirty air inlet 1621 and debris container 1641. Valve 1690 can be similar or identical to valve 1490 in some or many respects. For example, valve 1690 can include an inner door 1690a and an outer door 1690b that can be similar or identical to inner door 1490a and outer door 1490b (respectively). Debris container 1641 may also be referred to as debris containing region or debris chamber and may be defined by one or more portions of an interior of handheld vacuum cleaner 1620.

[0211] In some cases, during operation of the handheld vacuum cleaner 1620, an airflow path between dirty air inlet 1621 and clean air outlet 1622 may be blocked, for example, by a buildup of debris on filter 1643 (see FIG. 16BB). Handheld vacuum cleaner 1620 can advantageously include a bleed valve 1645 that can be configured to open to allow air to flow through an auxiliary air inlet of handheld vacuum cleaner 1620, into an interior of handheld vacuum cleaner 1620, and out through clean air outlet 1622, when pressure within handheld vacuum cleaner 1220 exceeds a threshold (for example, when the above-described debris buildup occurs). Handheld vacuum cleaner 1620 can include vents 1627 (see FIGS. 16Y-16Z) in a portion of housing 1623 that are in fluid communication with an interior of handheld vacuum cleaner 1620. FIG. 16CC-16DD illustrate enlarged views of a portion of handle 1625 of handheld vacuum cleaner 1620 with portions of handle 1625 in transparent. As shown handheld vacuum cleaner 1620 can include a chamber 1646 (which may also be referred to as a bleed valve chamber) and an auxiliary air inlet 1648. Chamber 1646 can be arranged in a portion of handle 1625 and can be in fluid communication with an interior of handheld vacuum cleaner 1620 and an airflow passage of handheld vacuum cleaner 1620 (see FIG. 16BB). Bleed valve 1645 can be arranged within chamber 1646 and configured to be transitioned between a first state in which auxiliary air inlet 1648 is closed to a second state in which auxiliary air inlet 1648 is open. FIG. 16CC-16DD illustrate such first state. Bleed valve 1645 can be moved from a first position in which a portion of bleed valve 1645 blocks auxiliary air inlet 1648 to a second position in which bleed valve 1645 does not block/close auxiliary air inlet 1648. When bleed valve 1645 is transitioned to such second state/position, auxiliary air inlet 1648 can provide fluid communication between an airflow passage in handheld vacuum cleaner 1620 (for example, an airflow passage in flow communication with dirty air inlet 1621, debris container 1641, and/or clean air outlet 1622) and ambient, via one or more interior portions of handheld vacuum cleaner 1620 and vents 1627 (see FIGS. 16Y-16Z and 16BB-16DD). As shown, bleed valve 1645 can be biased toward such first state and first position by a biasing member, such as spring 1647. In some implementations, bleed valve 1645 is transitioned from such first state/position to the second state/position when pressure within handheld vacuum cleaner 1220 exceeds a threshold (for example, between 0.5 psi and 5 psi, between 0.5 psi and 4.5 psi, between 0.5 psi and 4 psi, between 0.5 psi and 3.5 psi, between 0.5 psi and 3 psi, between 0.5 psi and 2.5 psi, between 0.5 psi and 2 psi, between 0.5 psi and 1.5 psi, between 0.5 psi and 1 psi, between 1 psi and 3 psi, between 2 psi and 3 psi, or between 2 psi and 2.5 psi, or any value or range within or bounded by any of these values or ranges). This can advantageously allow air to flow into handheld vacuum cleaner 1620 through auxiliary air inlet 1648, around/through motor 1640, and out through clean air outlet 1622, thereby reducing or eliminating motor overheating when there is a blockage in airflow through handheld vacuum cleaner 1620. In such scenario, air may flow through bleed valve chamber 1646, through filter 1644, towards/around motor 1640, and out clean air outlet 1622. Bleed valve 1645 can also be configured to move to such second state/position (thereby opening auxiliary air inlet 1648) when cleaning apparatus 1600 is in an empty mode and a suction motor of floor-based vacuum cleaner 1610 causes air to flow from handheld vacuum cleaner 1220 to the floor-based vacuum cleaner 1610 (to empty debris from handheld vacuum cleaner 1620 into a debris container of floor-based vacuum cleaner 1610). For example, in the empty mode, bleed valve 1645 can open and allow air to flow into handheld vacuum cleaner 1620 through auxiliary air inlet 1648, past and/or around filter 1644 (for example, an end thereof), through filter 1643, through debris container 1641, and out of handheld vacuum cleaner 1620 via dirty air inlet 1621. In some implementations of such empty mode, air flows into handheld vacuum cleaner 1620 via both auxiliary air inlet 1648 and clean air outlet 1622, and such air flow exits handheld vacuum cleaner 1620 via dirty air inlet 1621. Accordingly, such bleed valve can have a dual purpose. Bleed valve 1645 and spring 1647 can be similar or identical to bleed valve 1845 and spring 1847 described below with respect to handheld vacuum cleaner 1820.

[0212] Cleaning apparatus 1600 can be configured to operate in a plurality of modes similar or identical to any of the modes described with respect to any of the other cleaning apparatuses disclosed herein. FIG. 16EE-16FF illustrate cleaning apparatus 1600 in an example upright mode in which floor-based vacuum cleaner 1610 is utilized to collect debris from a floor surface. FIG. 16FF illustrates a cross-sectional view of that shown in FIG. 16EE. Floor-based vacuum cleaner 1610 can include a debris separator 1610e (for example, a cyclone separator), a debris container 1610f, a suction motor 1610g, a filter 1610i (for example, a HEPA filter), and a clean air outlet 1610h. In the upright mode illustrated in FIG. 16EE-16FF, suction motor 1610g can cause air to flow in through a dirty air inlet 1631 of cleaning head 1630, support member 1605 (for example, outlet 1605e), a dirty air inlet of floor-based vacuum cleaner 1610 (for example, via duct 1610a), debris separator 1610e, debris container 1610f, and through clean air outlet 1610h, thereby causing debris to flow into debris container 1610f. Cleaning head 1630 can include one or more airflow passages to facilitate flow communication between dirty air inlet 1631 and support member 1605. Cleaning apparatus 1600 can include a flexible and/or corrugated conduit 1632 within a portion of cleaning head 1630 and support member 1605 (see FIG. 16FF). Similar to as described with respect to other cleaning apparatus disclosed herein, cleaning apparatus 1600 can include a valve 1680 in a portion of support member 1605 that can be opened and closed to allow or inhibit flow communication between dirty air inlet 1631 and other portions of cleaning apparatus 1600. Valve 1680 can be similar or identical to valve 1480 described above in some or many respects. Valve 1680 is open in the upright mode illustrated in FIG. 16EE-16FF, thereby allowing flow communication between dirty air inlet 1631 and support member 1605 and floor-based vacuum cleaner 1610. Similar to as described with respect to other cleaning apparatus disclosed herein, cleaning apparatus 1600 can include a valve 1690 in a portion of handheld vacuum cleaner 1620 that can be opened and closed to allow or inhibit flow communication between handheld vacuum cleaner 1620 and other portions of cleaning apparatus 1600. As mentioned previously, such valve 1690 can advantageously inhibit debris from falling out of debris container 1641 of handheld vacuum cleaner 1620, for example, into wand 1603 when handheld vacuum cleaner 1620 is attached thereto and also from falling out of handheld vacuum cleaner 1620 when used independently from wand 1603 and/or other portions of cleaning apparatus 1600. Valve 1690 can be closed when cleaning apparatus 1600 is in the upright mode illustrated in FIG. 16EE-16FF.

[0213] FIG. 16GG-16HH illustrate an example stick mode of cleaning apparatus 1600, with FIG. 16HH illustrating a cross-sectional view of that shown in FIG. 16GG. As shown, floor-based vacuum cleaner 1610 is detached and handheld vacuum cleaner 1620 is utilized to collect debris from the floor surface. As shown, both of valves 1680, 1690 are open in such mode, thereby allowing flow communication between dirty air inlet 1631 handheld vacuum cleaner 1620, via support member 1605 and wand 1603. Suction motor 1640 of handheld vacuum cleaner 1620 can be operated in such mode to cause air to flow in through dirty air inlet 1631, support member 1605, wand 1603, a debris separator of handheld vacuum cleaner 1620 (for example, filters 1643, 1644, 1649), debris container 1641, and through clean air outlet 1622, thereby causing debris to flow into debris container 1641.

[0214] FIG. 16II-16JJ illustrate an example empty mode of cleaning apparatus 1600 (which also may be referred to as an auto-empty mode), with FIG. 16JJ illustrating a cross-sectional view of that shown in FIG. 16II. In such mode, debris from handheld vacuum cleaner 1620 are transferred (emptied) into floor-based vacuum cleaner 1610. Valve 1690 can be opened in such mode to facilitate flow communication between handheld vacuum cleaner 1620 and floor-based vacuum cleaner 1610. In such mode, suction motor 1610g of floor-based vacuum cleaner 1610 can cause air to flow from handheld vacuum cleaner 1610 to and through floor-based vacuum cleaner 1610, for example, via wand 1603 and at least a portion of support member 1605 (for example, through outlet 1605e of support member 1605 (see FIG. 16L). In some implementations, bleed valve 1645 of handheld vacuum cleaner 1620 (discussed previously) is opened when cleaning apparatus 1600 is in the auto-empty mode (for example, opened via suction induced by suction motor 1610g) and air flows through auxiliary air inlet 1648 (for example, from vents 1627), through handheld vacuum cleaner 1620, dirty air inlet 1621, wand 1603, support member 1605, and to and through floor-based vacuum cleaner 1610. In some implementations, air flows into and through clean air outlet 1622 and through handheld vacuum cleaner 1620 when cleaning apparatus 1600 is in the auto-empty mode. In some implementations, valve 1680 is closed in the auto-empty mode as illustrated in the figures, which can prevent floor-based vacuum cleaner 1610 from suctioning air/debris from dirty air inlet 1631 of cleaning head 1630 and can increase suction efficiency/power of suction motor 1610g (so as to better collect debris from handheld vacuum cleaner 1620).

[0215] FIG. 16EE, 16GG, and 16II illustrate a plane 1699a extending along a bottom portion of cleaning head and/or a surface upon which cleaning apparatus 1600 rests, an axis 1699b extending through wand 1603 and/or support member 1605, an axis 1699c that is perpendicular to plane 1699a, and an angle .sub.1 between axes 1699b, 1699c. In some implementations, valve 1680 is in a closed position when angle .sub.1 is less than 30 degrees, for example, less than 25 degrees, less than 20 degrees, less than 15 degrees, less than 10 degrees, less than 5 degrees, between 0 and 30 degrees, between 0 and 25 degrees, between 0 and 20 degrees, between 0 and 15 degrees, between 0 and 10 degrees, or between 0 and 5 degrees, or any value or range within or bounded by any of these values or ranges. In some implementations, valve 1680 is automatically closed when wand 1603 and/or support member 1605 are moved (for example, rotated relative to cleaning head 1630) to a position in which angle .sub.1 is less than 30 degrees (for example, less than 25 degrees, less than 20 degrees, less than 15 degrees, less than 10 degrees, or less than 5 degrees). Such implementations can thereby cause valve 1680 to be closed when cleaning apparatus 1600 is in the auto-empty mode discussed above (FIG. 16II-16JJ). In some implementations, valve 1680 is in an open position when angle .sub.1 is greater than 5 degrees for example, greater than 10 degrees, greater than 15 degrees, greater than 20 degrees, greater than 25 degrees, or greater than 30 degrees, between 5 degrees and 90 degrees, between 10 degrees and 90 degrees, between 15 degrees and 90 degrees, between 20 degrees and 90 degrees, between 25 degrees and 90 degrees, between 30 degrees and 90 degrees, or any value or range within or bounded by any of these values or ranges. In some implementations, valve 1680 is automatically opened when wand 1603 and/or support member 1605 are moved (for example, rotated relative to cleaning head 1630) to a position in which angle .sub.1 is greater than 5 degrees (for example, greater than 10 degrees, greater than 15 degrees, greater than 20 degrees, greater than 25 degrees, or greater than 30 degrees). Such implementations can thereby cause valve 1680 to be open when cleaning apparatus 1600 is in the stick and/or upright modes (FIG. 16EE, 16GG).

[0216] In some implementations, valve 1690 is in an open position when floor-based vacuum cleaner 1610 is attached and angle .sub.1 is less than 30 degrees, for example, less than 25 degrees, less than 20 degrees, less than 15 degrees, less than 10 degrees, less than 5 degrees, between 0 and 30 degrees, between 0 and 25 degrees, between 0 and 20 degrees, between 0 and 15 degrees, between 0 and 10 degrees, or between 0 and 5 degrees, or any value or range within or bounded by any of these values or ranges. In some implementations, valve 1690 is automatically opened when floor-based vacuum cleaner 1610 is attached and wand 1603 and/or support member 1605 are moved (for example, rotated relative to cleaning head 1630) to a position in which angle .sub.1 is less than 30 degrees (for example, less than 25 degrees, less than 20 degrees, less than 15 degrees, less than 10 degrees, or less than 5 degrees). Such implementations can thereby cause valve 1690 to be open when cleaning apparatus 1600 is in the auto-empty mode discussed above (FIG. 16II-16JJ).

[0217] FIG. 16KK includes a table illustrating various portions of cleaning apparatus 1600 and simplified, schematic representations thereof in various the stick mode, auto-empty mode, upright mode, and another mode (stick (upright lock)). As shown, when cleaning apparatus 1600 is in the stick mode: valve 1690 (for example, an inner door 1690a thereof) is open; valve 1680 is open; and lid 1642 is closed. When cleaning apparatus 1600 is in the auto-empty mode: valve 1690 is open; floor-based vacuum cleaner 1610 is attached, thereby opening lid 1642; and valve 1680 is closed. When cleaning apparatus 1600 is in the upright mode, valve 1690 is closed; floor-based vacuum cleaner 1610 is attached, thereby opening lid 1642; and valve 1680 is open. When cleaning apparatus is in the stick (upright lock) mode: valve 1690 is closed; lid 1642 is closed; and valve 1680 is closed.

[0218] FIG. 16LL-16VV illustrate various aspects and mechanisms of cleaning apparatus 1600 for controlling operation of valves 1680, 1690, for example, for opening and/or closing valves 1680, 1690 in accordance with certain modes of operation. Such examples are not intended to limit the scope of the disclosure. Various other actuators and/or actuator mechanisms may be utilized within cleaning apparatus 1600 in order to cause movement of valves 1680, 1690. Each of cleaning head 1630, support member 1605, wand 1603, and/or handheld vacuum cleaner 1620 can include one or more (for example, a plurality) of actuators that can interact with one another (and/or floor-based vacuum cleaner 1610 or portions thereof) to cause valve 1680 and/or valve 1690 to open and/or close to facilitate any of the modes of operation described herein.

[0219] FIG. 16LL illustrates an enlarged view of a portion of cleaning apparatus 1600, illustrating a portion of floor-based vacuum cleaner 1610, a portion of wand 1603, support member 1605, and cleaning head 1630. FIG. 16 MM shows a similar view as shown in FIG. 16LL with certain portions removed. FIG. 16NN illustrates a side view of that which is shown in FIG. 16 MM. With reference to FIG. 16 MM, cleaning apparatus 1600 can include actuators 1660, 1661, 1662, 1663, and 1664. Actuator 1660 can be coupled with and/or inside a portion of support member 1605. Actuator 1660 can include a first end or portion 1660a and a second end or portion 1660b. Actuator 1660 (for example, portion 1660a) can be configured to contact a portion of cleaning head 1630, for example, when cleaning apparatus 1600 is in the auto-empty mode (for example, when wand 1603 and/or support member 1605 are oriented generally perpendicular relative to a floor surface or within 20 degrees from perpendicular). Contact between actuator 1660 and cleaning head 1630 can cause actuator 1660 to move up, thereby causing portion 1660b to contact and move (for example, push upward) actuator 1661. FIG. 16OO illustrates support member 1605 with various portions removed so as to show valve 1680. Movement of actuator 1660 as described above can cause valve 1680 to move from an open position to a closed position. For example, actuator 1660 can be coupled with actuator 1665 (which also may be referred to as link), and movement (for example, upward movement of actuator 1660) can cause actuator 1665 to move and cause valve 1680 to pivot from the position illustrated in FIG. 16OO (an open position) to a closed position which blocks flow communication with cleaning head 1630. Actuator 1661 (which can have a disc shape) can be pushed laterally (for example, between actuators 1660, 1663) by actuator 1662 which itself may be pushed by a portion 1677 of floor-based vacuum cleaner 1610 when floor-based vacuum cleaner 1610 is attached to support member 1605 (see FIG. 16MM-16NN). This in turn can cause actuator 1663 to be moved (for example, upward). Movement (for example, upward movement) of actuator 1663 can cause movement (for example, upward movement) of actuator 1664.

[0220] FIG. 16PP-16QQ illustrate portions of floor-based vacuum cleaner 1610 and support member 1605 with portions removed, while also illustrating wand 1603 and a bottom portion of handheld vacuum cleaner 1620. Wand 1603 can include actuator 1664, for example, in adapter 1603c. Actuator 1664 can include a leg 1664a (see FIGS. 16PP-16RR) that extends through an opening in adapter 1603c so that leg 1664a is accessible for engagement with actuator 1663 (when wand 1603 is attached to support member 1605). With reference to FIG. 16QQ-16RR, wand 1603 can include an actuator rod 1666 connected to actuator 1664. Actuator rod 1666 can be arranged within wand conduit 1603a. FIG. 16PP illustrate wand conduit 1603a while FIG. 16QQ-16RR do not show wand conduit 1603a, so as to better illustrate actuator rod 1666. Movement of actuator 1664 and/or leg 1664a (for example, upward movement) can cause actuator rod 1666 to move (for example, upward). FIG. 16QQ illustrates another actuator 1667 which can be arranged at least partially within adapter 1603b of wand 1603. Adapter 1603b is not shown in FIG. 16QQ (in contrast to FIG. 16PP) to better illustrate actuator 1667. Movement of actuator rod 1666 (for example, upward) can cause actuator 1667 to also move (for example, upward).

[0221] FIG. 16SS illustrates portions of handheld vacuum cleaner 1620 and wand 1603. FIG. 16TT illustrates a partial cross-sectional view of that which is shown in FIG. 16SS, illustrating actuator 1667. FIG. 16UU-16VV illustrate handheld vacuum cleaner 1620 and adapter 1603b of wand 1603 with various portions removed to illustrate actuators 1666, 1667, 1668, 1669 of cleaning apparatus 1600. FIG. 16UU-16VV also illustrate actuator 1668 arranged within a portion of handheld vacuum cleaner 1620. Movement of actuator 1667 (for example, upward) can cause actuator 1668 to move (for example, upward). Actuator 1668 can be coupled with actuator 1669, for example, via a slot 1668a formed in actuator 1668 that can receive a portion of actuator 1669. Movement of actuator 1668 can cause actuator 1669 to pivot about a pin 1670. In some implementations, actuator 1668 is biased downward by a spring 1672. Contact and movement induced by actuator 1667 can overcome the bias of spring 1672 and cause actuator 1668 to move (for example, upward). Movement (for example, pivotable movement) of actuator 1669 can cause movement (for example, pivotable movement) of actuator 1671. Actuator 1671 can be pivotably mounted to a portion of handheld vacuum cleaner 1620 proximate valve 1690. Pivotable movement of actuator 1671 can cause valve 1690 (for example, inner and outer doors 1690a, 1690b thereof) to open, for example, by pivoting downward. Valve 1690 can include a pivot or rod member 1690c that is coupled with actuator 1671 and with outer and/or inner doors 1690a, 1690b.

[0222] Accordingly, valve 1690 can be opened (for example, automatically opened) by the above-described interaction between actuators 1660-1669, 1671 when floor-based vacuum cleaner 1610 is attached and wand 1603 and support member 1605 are oriented as described above. Such interaction can cause valve 1680 to be closed and valve 1690 to be opened, thereby facilitating the auto-empty mode of operation in which floor-based vacuum cleaner 1610 is in flow communication with handheld vacuum cleaner 1620 and debris from handheld vacuum cleaner 1620 can be transferred to floor-based vacuum cleaner 1610.

[0223] FIG. 16WW-16XX illustrate cross-sectional views through a portion of handheld vacuum cleaner 1620, showing valve 1690. As mentioned previously, valve 1690 can include an inner door 1690a and an outer door 1690b. FIG. 16WW illustrates valve 1690 in a closed position. Valve 1690 can be in such closed position when cleaning apparatus 1600 is in the stick (upright lock) mode and a suction motor of handheld vacuum cleaner 1620 is off and when cleaning apparatus 1600 is in an upright mode in which floor-based vacuum cleaner 1610 is utilized. FIG. 16XX illustrates valve 1690 in an open position in which inner door 1690a is opened (for example, when cleaning apparatus 1600 is in the above-described stick mode). As shown, outer door 1690b can extend across the airflow passageway in the position of FIG. 16XX but does not block such airflow passageway since outer door 1690b has an opening therethrough. Outer door 1690b can be biased to the position shown in FIG. 16WW-16XX which supports inner door 1690a when the suction motor of handheld vacuum cleaner 1620 is off and thereby prevents debris from a debris container of handheld vacuum cleaner 1620 from falling out. However, since outer door 1690b includes an opening therethrough, when the suction motor of handheld vacuum cleaner 1620 is turned on, inner door 1690a can be pivoted upward (via suction induced by the suction motor) to allow air and debris to travel through the opening in the outer door 1690b to be collected by handheld vacuum cleaner 1620. Inner and outer doors 1690a, 1690b can be automatically opened via interaction between actuators 1660-1669, 1671 when floor-based vacuum cleaner 1610 is attached and wand 1603 and support member 1605 are oriented as described above.

[0224] Although valves 1680, 1690 have been described above as being movable (for example, between open and closed positions) via mechanical actuators and mechanisms, in some variants, any or all of valves 1680, 1690 can be additionally or alternatively controlled by electronic means. For example, cleaning apparatus 1600 can be configured to allow for electronic control of valves 1680, 1690 via controls of handheld vacuum cleaner 1620 that may be utilized by a user. For example, a user may open and/or close valves 1680, 1690 by pressing a button or a portion of a user interface on handheld vacuum cleaner 1620. Such electronic controls can be in communication with and configured to cause any of the actuators described herein to move to open and/or close valves 1680, 1690, for example, regardless of the orientation (e.g., inclination) of wand 1603 and/or support member 1605 relative to cleaning head 1630 (or a surface on which cleaning head 1630 rests). Cleaning apparatus 1600 can include one or more motors to facilitate electro-mechanical operation of valves 1680, 1690 in such manner, for example, one or more motors in handheld vacuum cleaner 1620, one or more motors in wand 1603, and/or one or more motors in support member 1605. Such motor(s) can be coupled with any of the mechanical actuators and mechanisms described herein to facilitate such operation.

[0225] Cleaning head 1630, support member 1605, wand 1603, handheld vacuum cleaner 1620, and floor-based vacuum cleaner 1610 can be electrically connectable to one another via one or more electrical connectors to facilitate electrical communication and/or power. For example, in some implementations in which cleaning apparatus 1600 includes a power cord 1601 connected to handheld vacuum cleaner 1620, electrical power can be provided from handheld vacuum cleaner 1620 to floor-based vacuum cleaner 1610 and/or cleaning head 1630 (for example, via wand 1603 and/or support member 1605) to allow control of any electrical components of floor-based vacuum cleaner 1610 and/or cleaning head 1630 (such as a suction motor of floor-based vacuum cleaner 1610). In some variants, cleaning apparatus 1600 does not include a cord 1601, and, in such variants, any of handheld vacuum cleaner 1620, floor-based vacuum cleaner 1610, and/or cleaning head 1630 include a battery. Handheld vacuum cleaner 1620 can include a controller and/or input device (similar or identical to controller 327, input device 328) which can allow control of handheld vacuum cleaner 1620 (for example, a suction motor thereof), floor-based vacuum cleaner 1610 (for example, a suction motor thereof), and/or cleaning head 1630 (for example, a motor and/or agitator thereof). Such implementations can allow suction motors of handheld vacuum cleaner 1620 and floor-based vacuum cleaner 1610 to be operated (for example, turned on or off) to facilitate any of the various operational modes described herein. In some implementations, handheld vacuum cleaner 1620 includes a battery and is removably connectable to cord 1601 so as to allow cleaning apparatus 1600 to be operated with cord 1601 connected and/or disconnected. In the disconnected state of such implementation, cleaning apparatus 1600 (or any portion thereof) may derive electrical power from such battery in handheld vacuum cleaner 1620 and/or a battery in floor-based vacuum cleaner 1610. Any of such batteries may be charged via cord 1601. Such implementations can advantageously allow for convenient operation of cleaning apparatus 1600 without cord 1601 attached.

[0226] FIGS. 17A-17KK illustrate another implementation of a cleaning apparatus 1700 and portions thereof. Cleaning apparatus 1700 can be similar or identical to any of the cleaning apparatus described herein in some or many respects (for example, cleaning apparatus 1600). Cleaning apparatus 1700 can include a floor-based vacuum cleaner 1710, a wand 1703, a support member 1705 (which also may be referred to as a support, support structure, or neck), a cleaning head 1730 (which may be referred to as a surface cleaning head or floor nozzle), a handheld vacuum cleaner 1720, and a cord 1701. FIGS. 17A-17C illustrate views of cleaning apparatus 1700 with floor-based vacuum cleaner 1710 attached while FIG. 17D illustrates cleaning apparatus 1700 with floor-based vacuum cleaner 1710 detached. FIG. 17E illustrates handheld vacuum cleaner 1720 and wand 1703 detached from support member 1705 and cleaning head 1730. Floor-based vacuum cleaner 1710, wand 1703, support member 1705, cleaning head 1730, and handheld vacuum cleaner 1720 can be attached and detached from one another similarly to that described above with respect to any of the cleaning apparatus disclosed herein (for example, cleaning apparatus 1600). Cleaning apparatus 1700 can be configured to operate in a plurality of modes similar or identical to any of the modes described with respect to any of the other cleaning apparatuses disclosed herein (for example, cleaning apparatus 1600). Cleaning head 1730 can include any features described with respect to other cleaning heads disclosed herein (such as cleaning head 330). Floor-based vacuum cleaner 1710 can include any features described with respect to other floor-based vacuum cleaners disclosed herein (such as floor-based vacuum cleaner 310). Handheld vacuum cleaner 1720 can include any features described with respect to other handheld vacuum cleaners disclosed herein (such as handheld vacuum cleaners 320, 1620).

[0227] FIGS. 17F-17I illustrate various enlarged views of portions of cleaning apparatus 1700 with floor-based vacuum cleaner 1710 attached while FIGS. 17J-17L illustrate views of portions of cleaning apparatus 1700 with floor-based vacuum cleaner 1710 detached. FIG. 17M illustrates a top perspective view of support member 1705 and cleaning head 1730. FIGS. 17N-17P illustrate various views of floor-based vacuum cleaner 1710. FIGS. 17Q-17U illustrate various views of wand 1703 and portions thereof. FIGS. 17V-17X illustrate various views of handheld vacuum cleaner 1720 or portions thereof. FIG. 17Y illustrates a cross-sectional view taken through handheld vacuum cleaner 1720.

[0228] With reference to FIG. 17M, support member 1705 can include an electrical connector 1705b configured to electrically and mechanically connect to an electrical connector 1703g of wand 1703 (see FIG. 17U) and an electrical connector 1705d configured to electrically and mechanically connect to an electrical connector 1710c of floor-based vacuum cleaner 1710. With reference to FIGS. 17Q-17R, wand 1703 can include a first adapter 1703b configured to attach to a portion of handheld vacuum cleaner 1720 (for example, to snout 1726) and a second adapter 1703c configured to attach to (for example, within) support member 1705. Wand 1703 can include a main body 1703a extending between adapters 1703b, 1703c. Main body 1703a may form a seamless component with adapter 1703b in some implementations. Adapter 1703c can include a snout 1703f (which may be tubular). With reference to FIGS. 17S-17T and 17V, adapter 1703b can include a latch 1703n with a locking feature 17030 which can engage a groove 1726a on snout 1726 of handheld vacuum cleaner 1720 in a similar or identical manner as that described above with respect to latch 1603, locking feature 16030, groove 1626a, and handheld vacuum cleaner 1620. Adapter 1703b can include an electrical connector 1703p configured to electrically and mechanically connect to an electrical connector 1729 of handheld vacuum cleaner (see FIGS. 17S and 17X). With reference to FIGS. 17Q-17R, 17N-17O, and 17F-17G, wand 1703 can include protrusions 1703m (for example, on main body 1703a) configured to engage within slots 1710d of floor-based vacuum cleaner 1710, and such engagement can be similar or identical to that described above with respect to protrusions 1603m and slots 1610d of wand 1603 and floor-based vacuum cleaner 1610. Wand 1703 can include an engagement feature 1703e and a connected rod (similar or identical to rod 1603d) that is inside wand body 1703a and can be pushed to retract a latch 1703h (see FIG. 17U). Latch 1703h can interact with an opening 1705c on support member 1705 (see FIG. 17L) in a similar or identical manner as that described with respect to latch 1603h and opening 1605c. With reference to FIG. 17K, cleaning apparatus can include a lid/cover 1742 that can be similar or identical to lid/cover 1642 and can close an outlet of support member 1705 that is configured to be in flow communication with floor-based vacuum cleaner 1710 when attached to support member 1705. Floor-based vacuum cleaner 1710 can include a duct 1710a that can be similar to duct 1610a described above, and such duct 1710a can provide flow communication between a dirty air inlet of floor-based vacuum cleaner 1710 and support member 1705. With reference to FIG. 17N, floor-based vacuum cleaner 1710 can include a handle 1710b that can facilitate detachment of floor-based vacuum cleaner 1710 and/or holding floor-based vacuum cleaner 1710 when detached.

[0229] FIGS. 17F-17I illustrate enlarged views of portions of cleaning apparatus 1700 with floor-based vacuum cleaner 1710, handheld vacuum cleaner 1720, support member 1705, wand 1703, and cleaning head 1730 attached to one another. FIGS. 17J-17L illustrate portions of support member 1705, wand 1703, and cleaning head 1730 attached to one another. FIG. 17M illustrates a top perspective view of support member 1705 and cleaning head 1730. FIGS. 17N-17P illustrate various views of floor-based vacuum cleaner 1710 and portions thereof and FIGS. 17Q-17U illustrate various views of wand 1703 and portions thereof.

[0230] With reference to FIGS. 17Q-17U, wand 1703 can include a main body 1703a extending between a first adapter 1703b configured to attach to a portion of handheld vacuum cleaner 1720 (for example, to snout 1726) and a second adapter 1703c configured to attach to (for example, within) support member 1705. Main body 1703a may form a seamless component with adapter 1703b in some implementations. Main body 1703a can be tubular. Wand 1703 can include a wand conduit 1703d arranged at least partially within main body 1703a (see FIG. 17EE and 17FF). Wand conduit 1703d can be tubular. First and second adapters 1703b, 1703c can be arranged at opposite ends of wand 1703 and attached to top and bottom ends of main body 1703a. Wand 1703 can include an airflow passage extending through main body 1703a, wand conduit 1703d, and/or first and second adapters 1703b, 1703c. Adapter 1703c can be configured to secure to a portion of support member 1705, for example, within a socket 1705a of support member 1705 (see FIG. 17M). In some variants, adapter 1703c and support member 1705 are configured such that support member 1705 (for example, an end thereof) is received and secured within a portion of adapter 1703c. With reference to FIG. 17U, adapter 1703c can include a snout 1703f that can be at least partially tubular and an electrical connector 1703g configured to mechanically and electrically connect to an electrical connector 1705b of support member 1705 (see FIG. 17M). Wand 1703 and/or support member 1705 can include one or more latch mechanisms to inhibit detachment of wand 1703 from support member 1705. For example, wand 1703 can include a latch 1703h that can be received by a latch opening 1705c in support member 1705 (see FIG. 17L). Wand 1703 can include one or more mechanisms to move latch 1703h, for example, horizontally so as to move latch 1703h into (through) and out of latch opening 1705c.

[0231] Adapter 1703b can be configured to attach to handheld vacuum cleaner 1720. Adapter 1703b can include one or more latch mechanisms configured to inhibit detachment of adapter 1703b (and thus, wand 1703) from handheld vacuum cleaner 1720. For example, with reference to at least FIGS. 17Q-17T, adapter 1703b can include a latch 1703n having a locking feature 17030 configured to engage within a portion of handheld vacuum cleaner 1720 (for example, groove 1726a in a portion of snout 1726 (see FIG. 17Y). Latch 1703h can be pivotably connected to a portion of adapter 1703b and can be pushed (for example, by a user) between an extended position (see FIG. 17T) and a retracted position. In such extended position, locking feature 17030 is arranged within groove 1726a when adapter 1703b is attached to handheld vacuum cleaner 1720. In some implementations, latch 1703n is biased toward such extended position. With reference to FIG. 17S, adapter 1703b can include an electrical connector 1703p configured to mechanically and electrically connect to an electrical connector 1729 of handheld vacuum cleaner 1720 (see FIGS. 17W and 17X) when adapter 1703b is attached to handheld vacuum cleaner 1720. With reference to FIGS. 17Q-17R, 17N-17O, and 17F-17G, wand 1703 can include protrusions 1703m (for example, on main body 1703a) configured to engage within slots 1710d of floor-based vacuum cleaner 1710, and such engagement can be similar or identical to that described above with respect to protrusions 1603m and slots 1610d of wand 1603 and floor-based vacuum cleaner 1610. Wand 1703 can include an engagement feature 1703e and a connected rod (similar or identical to rod 1603d) that is inside wand body 1703a and can be pushed to retract latch 1703h (see FIG. 17U). Latch 1703h can interact with an opening 1705c on support member 1705 (see FIG. 17L) in a similar or identical manner as that described with respect to latch 1603h and opening 1605c. With reference to FIG. 17K, cleaning apparatus can include a lid/cover 1742 that can be similar or identical to lid/cover 1642 and can close an outlet of support member 1705 that is configured to be in flow communication with floor-based vacuum cleaner 1710 when floor-based vacuum cleaner 1710 is attached to support member 1705.

[0232] FIGS. 17N-17P illustrate various views of floor-based vacuum cleaner 1710. Floor-based vacuum cleaner 1710 can include a duct 1710a configured to fluidly connect to an outlet of support member 1705 which can be similar or identical to outlet 1605e. Duct 1710a can fluidly connect a dirty air inlet of floor-based vacuum cleaner 1710 to the outlet of support member 1705. In some variants, floor-based vacuum cleaner 1710 does not include duct 1710a, and in such variants, a dirty air inlet (for example, formed by a port and/or opening in floor-based vacuum cleaner 1710) is directly connected to the outlet of support member 1705. As shown, floor-based vacuum cleaner 1710 can include a handle 1710b that can facilitate detachment of floor-based vacuum cleaner 1710 and/or holding floor-based vacuum cleaner 1710 when detached. Floor-based vacuum cleaner 1710 can be configured to receive and/or secure to wand 1703. As mentioned previously, floor-based vacuum cleaner 1710 can include slots 1710d configured to receive protrusions 1703m of main body 1703a (see FIGS. 17Q-17R). FIGS. 17F-17G illustrate protrusions 1703m within slots 1710d. Protrusions 1703m can be configured to be inserted within slots 1710d vertically, for example, when floor-based vacuum cleaner 1710 is moved downward when attached to wand 1703. Arrangement of protrusions 1703m within slots 1710d may inhibit detachment of floor-based vacuum cleaner 1710 from wand 1703 (for example, lateral detachment).

[0233] Floor-based vacuum cleaner 1710 and support member 1705 can be configured to electrically connect to one another, which can allow floor-based vacuum cleaner 1710 to receive electrical power from support member 1705 (and, for example, from handheld vacuum cleaner 1720 and cord 1701 via support member 1705). For example, floor-based vacuum cleaner 1710 can include an electrical connector 1710c configured to mechanically and electrically connect to an electrical connector 1705d of support member 1705 (see FIG. 17M). In some implementations, support member 1705 includes a leg which can be similar or identical to leg 1605f on which electrical connector 1705d is arranged. Such leg can be configured to support a portion of floor-based vacuum cleaner 1710 which includes electrical connector 1710c (see FIG. 17P). FIGS. 17H-17I illustrate portions of floor-based vacuum cleaner 1710, wand 1703, support member 1705, and cleaning head 1730 when attached to one another.

[0234] FIGS. 17V-17X illustrate perspective views of handheld vacuum cleaner 1720 or portions thereof. FIG. 17Y illustrates a cross-sectional view taken through handheld vacuum cleaner 1720. Handheld vacuum cleaner 1720 can include a dirty air inlet 1721, a snout 1726, a groove 1726a (described above), a housing 1723, a debris container door 1724 (which may be opened to allow debris to be emptied), a debris container 1741 (which may be formed by debris container door 1724 and one or more portions of housing 1723), a handle 1725, a clean air outlet 1722, one or more controls 1728, and a motor 1740 (which may also be referred to as a suction motor), and electrical connector 1729, among other components. Debris container 1741 may also be referred to as debris containing region or debris chamber and may be defined by one or more portions of an interior of handheld vacuum cleaner 1720, and such interior portion(s) may be at least partially formed by debris container door 1724. Handheld vacuum cleaner 1720 can include a debris separator for separating debris from air suctioned through handheld vacuum cleaner 1720. With reference to FIG. 17Y, handheld vacuum cleaner 1720 can include a mesh filter 1743 (which may also be referred to as a fluff screen), a pre-motor filter 1744 (which may be cylindrical), and/or a post-motor filter 1749 (for example, a HEPA filter). Filter 1743, filter 1744, and/or other components (for example, structural components of handheld vacuum cleaner 1720) may form a debris separator that separates debris from air flowing through handheld vacuum cleaner 1720. As also shown in FIG. 17Y, handheld vacuum cleaner 1720 can include a valve 1790. Valve 1790 can be arranged within an airflow passage of handheld vacuum cleaner 1720 that extends between dirty air inlet 1721 and debris container 1741. Valve 1790 can be configured to be moved between various positions, such as open and closed positions, and can advantageously inhibit debris from falling out of debris container 1741 when in a closed position (for example, a position in which valve 1790 blocks an airflow passage extending between dirty air inlet 1721 and debris container 1741). Valve 1790 can be similar or identical to valve 1490 and/or valve 1690 in some or all respects. For example, valve 1790 can include an inner door 1790a and an outer door 1790b that can be similar or identical to inner door 1490a and outer door 1490b (respectively).

[0235] When cleaning apparatus 1700 is in an empty mode (which also may be referred to as an auto-empty mode), debris from handheld vacuum cleaner 1720 can be transferred (emptied) into floor-based vacuum cleaner 1710 (for example, as described with respect to any of the other cleaning apparatuses disclosed herein). Valve 1790 can be opened in such mode to facilitate flow communication between handheld vacuum cleaner 1720 and floor-based vacuum cleaner 1710. Lid/cover 1742 can be opened when cleaning apparatus 1700 is in the empty mode to allow flow communication through an outlet of support member 1705 (for example, a side outlet of support member 1705). For example, a portion of floor-based vacuum cleaner 1710 can contact and/or move lid/cover 1742 to an open position when attached to the support member 1705 (for example, as described with respect to any of the other cleaning apparatuses disclosed herein). In such mode, a suction motor of floor-based vacuum cleaner 1710 can cause air to flow from handheld vacuum cleaner 1710 to and through floor-based vacuum cleaner 1710, for example, via wand 1703 and at least a portion of support member 1705 (for example, through an outlet of support member 1705). In some implementations, air flows into and through clean air outlet 1722, through handheld vacuum cleaner 1720, dirty air inlet 1721, wand 1703, support member 1705, and to and through floor-based vacuum cleaner 1710. In some implementations, handheld vacuum cleaner 1720 includes a bleed valve which can be similar or identical to bleed valve 1645. In some implementations, air flows into and through an auxiliary air path of such bleed valve and through handheld vacuum cleaner 1720 when cleaning apparatus 1700 is in the auto-empty mode for example, in a similar or identical manner as that described above with respect to handheld vacuum cleaner 1620.

[0236] As mentioned previously, cleaning apparatus 1700 can be configured to operate in a plurality of modes similar or identical to any of the modes described with respect to any of the other cleaning apparatuses disclosed herein (for example, cleaning apparatus 1600). For example, cleaning apparatus 1700 can be operated in and transitioned between upright, stick, and/or empty modes of operation as described and/or illustrated with respect to FIG. 16EE-16KK and cleaning apparatus 1600. FIGS. 17Z-17JJ illustrate various aspects and mechanisms of cleaning apparatus 1700 for controlling operation of valves 1780, 1790, for example, for opening and/or closing valves 1780, 1790 in accordance with certain modes of operation. Such examples are not intended to limit the scope of the disclosure. Various other actuators and/or actuator mechanisms may be utilized within cleaning apparatus 1700 in order to cause movement of valves 1780, 1790 to facilitate operation of cleaning apparatus 1700 in any of the modes described herein. Each of cleaning head 1730, support member 1705, wand 1703, and/or handheld vacuum cleaner 1720 can include one or more (for example, a plurality) of actuators that can interact with one another (and/or floor-based vacuum cleaner 1710 or portions thereof) to cause valve 1780 and/or valve 1790 to open and/or close to facilitate any of the modes of operation described herein.

[0237] FIG. 17Z shows an enlarged view of a portion of floor-based vacuum cleaner 1710, duct 1710a, support member 1705, cleaning head 1730, and lid/cover 1742. FIG. 17AA shows a similar view as shown in FIG. 17Z with certain portions removed. FIG. 17BB illustrates a front view of a portion of that which is shown in FIG. 17AA. FIG. 17CC and 17KK illustrate support member 1705 with various portions removed to show valve 1780 and various other components. With reference to FIG. 17AA-17CC and 17KK, cleaning apparatus 1700 can include actuators 1760, 1761, 1762, and 1763. Actuator 1760 can be coupled with and/or inside a portion of support member 1705. Actuator 1760 or portions thereof can be arranged at least partially within one or more recesses or grooves of support member 1705 that can guide and/or limit movement of actuator 1760. Actuator 1760 can include a first end or portion 1760a, a second end or portion 1760b, and/or a leg 1760c. Leg 1760c can extend laterally and/or at an angle from a body of actuator 1760 (for example, at a location that is between ends 1760a, 1760b). Actuator 1760 can include an opening 1760f that surrounds and/or receives a portion of support member 1705. Actuator 1760 (for example, an engagement feature 1760g (see FIG. 17CC) can be configured to contact a portion of cleaning head 1730, for example, when wand 1703 and/or support member 1705 are oriented generally perpendicular relative to a floor surface or within 20 degrees from perpendicular (for example, to facilitate the auto-empty mode). Contact between actuator 1760 and cleaning head 1730 can cause actuator 1760 to move upward, thereby causing actuator 1760 (for example, portion 1760b) to contact and move (for example, push upward) actuator 1761 (which can have a disc shape). In some implementations, actuator 1760 is biased downward, for example, by one or more springs 1760d, 1760e. The one or more springs 1760d, 1760e can contact and/or engage one or more structures 1770a, 1770b of the support member 1705 to bias the actuator 1760 downward. Springs 1760e, 1760d can be coupled to actuator 1760 via pins of actuator 1760 that extend through portions of springs 1760e, 1760d as shown (see FIG. 17BB). Contact and movement induced by cleaning head 1730 can overcome the bias of one or more springs 1760d, 1760e and cause actuator 1760 to move (for example, upward).

[0238] Movement of actuator 1760 as described above can cause valve 1780 to move, for example, from an open position to the closed position shown in FIG. 17CC. Actuator 1760 can be coupled with valve 1780 via actuator 1765 (which also may be referred to as link). For example, leg 1760c of actuator 1760 can be coupled with actuator 1765. Leg 1760c can be coupled with actuator 1765 via a pin 1760h arranged within a slot 1765a of actuator 1765 (see FIG. 17KK). Movement (for example, upward movement) of actuator 1760 can cause leg 1760c to move upward and cause actuator 1765 to move (for example, rotate and/or pivot) to cause valve 1780 to pivot from an open position (which can be similar in some or many aspects to the open position illustrated in FIG. 16OO) to a closed position as illustrated in FIG. 17CC which blocks flow communication with cleaning head 1730. Valve 1780 can include a pivot member 1780a (for example, a rod) that is coupled with actuator 1765 via actuator 1771 that is coupled to actuator 1765 via a pin 1771a arranged within a slot 1765b of actuator 1765 (see FIG. 17KK). Closing valve 1780 can facilitate flow communication between handheld vacuum cleaner 1720 and floor-based vacuum cleaner 1710, for example, in accordance with the empty mode of operation described herein. In some implementations, air flows into and from handheld vacuum cleaner 1720, through wand 1703 (for example, wand conduit 1703d), support member 1705, duct 1710a, and to and through floor-based vacuum cleaner 1710.

[0239] Actuators 1761, 1762, 1763 can be coupled with and/or inside a portion of support member 1705. Actuators 1761, 1762, 1763 can be arranged at least partially within a recess or groove of support member 1705 that can guide and/or limit movement of 1761, 1762, 1763. Actuator 1761 can be pushed laterally between actuators 1760, 1763 (for example, to the right given the view shown in FIG. 17BB) by actuator 1762 which itself may be pushed by a portion of floor-based vacuum cleaner 1710 when floor-based vacuum cleaner 1710 is attached to support member 1705. This in turn can cause actuator 1763 to be moved (for example, upward). For example, actuator 1761 can be moved upward via contact with actuator 1760 when actuator 1760 moves upward and when actuator 1762 pushes actuator 1762 laterally between actuators 1760, 1763. Actuator 1763 can be moved upward via contact with actuator 1761 when actuator 1761 moves upward (for example, due to contact and movement induced by actuator 1760). In some implementations, actuator 1762 is biased laterally (for example, away from actuator 1761) by a spring 1762a (see FIG. 17BB). Spring 1762a can contact and/or engage structure 1770c of support member 1705 to bias actuator 1762 laterally (for example, away from actuator 1761). Spring 1762a can be arranged within a slot of actuator 1762 and can be coupled to actuator 1762 via a pin of actuator 1762 that extends through a portion of spring 1762a as shown (see FIG. 17BB). Contact and movement induced by a portion of the floor-based vacuum cleaner 1710 when floor-based vacuum cleaner 1710 is attached to support member 1705 can overcome the bias of spring 1762a and cause actuator 1762 to move (for example, laterally toward actuator 1761). In some implementations, actuator 1763 is biased downward by a spring 1763a. Spring 1763a can contact and/or engage structure 1770d of support member 1705 to bias actuator 1763 downward. Spring 1763a can be arranged within a slot of actuator 1763 and can be coupled to actuator 1763 via a pin of actuator 1763 that extends through a portion of spring 1763a as shown (see FIG. 17BB). Contact and movement induced by actuator 1761 can overcome the bias of spring 1763a and cause actuator 1763 to move (for example, upward). With reference to FIG. 17BB, support member 1705 can include channels 1770f, 1770g that can receive and/or guide movement of actuators 1760, 1761, 1762, 1763 or portions thereof.

[0240] FIG. 17DD-17FF illustrate portions of support member 1705 and wand 1703 with portions removed, while also illustrating a bottom portion of handheld vacuum cleaner 1720. Wand 1703 can include an actuator 1764, for example, in main body 1703a. Actuator 1764 can be arranged at least partially within a channel 1703i that can guide and/or limit movement of actuator 1764. Actuator 1763 can include an arm 1763b that can contact actuator 1764 (for example, at a first end or portion 1764a) such that movement (for example, upward movement) of actuator 1763 can cause movement (for example, upward movement) of actuator 1764.

[0241] FIG. 17GG illustrates portions of handheld vacuum cleaner 1720 and wand 1703. FIG. 17HH-17JJ illustrate portions of handheld vacuum cleaner 1720 and wand 1703 with various portions removed to illustrate actuators 1764, 1766, 1767, 1768 of cleaning apparatus 1700. Actuator 1764 can include first end or portion 1764a (described previously), a second end or portion 1764b, and/or a third portion 1764c which may be between portions 1764a, 1764b. First portion 1764a and/or second portion 1764b can be substantially linear. First portion 1764a and/or second portion 1764b can extend at least partially along the length of wand 1703 (for example, in the upward/downward direction). Portion 1764c can extend between and/or connect portions 1764a, 1764b. Portion 1764c can extend between portions 1764a, 1764b at an angle to portions 1764a, 1764b and/or wand 1703. Actuator 1764 (for example, portion 1764b) can at least partially extend beyond wand 1703 and/or at least partially into handheld vacuum cleaner 1720 when actuator 1764 is moved (for example, upward) by actuator 1763. In some implementations, actuator 1764 is biased downward by a spring 1764d which may be coupled around a pin of actuator 1764 as shown in FIG. 17HH. Spring 1764d can contact and/or engage structure 1703j of wand 1703 to bias actuator 1764 downward. Contact and movement induced by actuator 1763 on actuator 1764 can overcome the bias of spring 1764d and cause actuator 1764 to move (for example, upward).

[0242] FIG. 17HH-17JJ also illustrate an actuator 1766 that can be arranged at least partially within a recess or groove of handheld vacuum cleaner 1720 that can guide or limit movement of actuator 1766. Movement of actuator 1764 (for example, upward) can cause actuator 1766 to move (for example, upward). For example, portion 1764b can contact and move actuator 1766 by moving at least partially into handheld vacuum cleaner 1720 (see FIG. 17HH). In some implementations, actuator 1766 is biased downward by a spring 1766a. Spring 1766a can contact and/or engage structure 1777 of handheld vacuum cleaner 1720 to bias actuator 1766 downward (see FIG. 17HH). Spring 1766a can be coupled around a pin of actuator 1766 as shown in FIG. 17HH. Contact and movement induced by actuator 1764 on actuator 1766 can overcome the bias of spring 1766a and cause actuator 1766 to move (for example, upward). With reference to FIG. 17II, actuator 1766 can be coupled with actuator 1767 (which also may be referred to as link), for example, via a slot or hole 1766b formed in actuator 1766 that can receive a portion of actuator 1767 (for example, a pin of actuator 1767). Movement of actuator 1766 can cause actuator 1767 to move or pivot about structure 1767a that extends through a hole 1767c of actuator 1767 (see FIG. 17HH). In some implementations, cleaning apparatus 1700 includes an alignment guide 1769 that can guide and/or guard actuator 1767 (for example, an end thereof), for example, when actuator 1767 is in an upward position (in contrast to the position shown in FIG. 17HH-17JJ). Actuator 1767 can be coupled with actuator 1768 (which also may be referred to as link), for example, via a recess 1767b formed in actuator 1767 that can receive a portion of actuator 1768 (for example, a pin of actuator 1768 as shown) (see FIG. 17JJ). Movement (for example, pivotable movement) of actuator 1767 can cause movement (for example, pivotable movement) of actuator 1768. Actuator 1768 can be pivotably mounted to a portion of handheld vacuum cleaner 1720 proximate valve 1790. Pivotable movement of actuator 1768 can cause valve 1790 (for example, inner and/or outer doors 1790a, 1790b thereof) to open, for example, by pivoting downward as shown in FIG. 17II-17JJ. Valve 1790 can include a pivot or rod member 1790c that is coupled with actuator 1768 and with outer and/or inner doors 1790a, 1790b.

[0243] Accordingly, valve 1790 can be opened (for example, automatically opened) by the above-described interaction between actuators 1760-1768 when floor-based vacuum cleaner 1710 is attached and wand 1703 and support member 1705 are oriented as described above. Such interaction can cause valve 1780 to be closed and valve 1790 to be opened, thereby facilitating the empty mode of operation in which floor-based vacuum cleaner 1710 is in flow communication with handheld vacuum cleaner 1720 and debris from handheld vacuum cleaner 1720 can be transferred to floor-based vacuum cleaner 1710. Valve 1790 can be in an open position when cleaning apparatus is in the empty mode. Inner and outer doors 1790a, 1790b can be automatically opened via interaction between actuators 1760-1768 when floor-based vacuum cleaner 1710 is attached and wand 1703 and support member 1705 are oriented as described above.

[0244] Valve 1790 can be in a closed position (which can be similar or identical to the closed position described with respect to FIG. 16WW) when cleaning apparatus 1700 is in a stick (upright lock) mode and a suction motor of handheld vacuum cleaner 1720 is off and when cleaning apparatus 1700 is in an upright mode in which floor-based vacuum cleaner 1710 is utilized, similar to as described above with respect to cleaning apparatus 1600. Outer door 1790b can be biased toward the closed position in which outer door 1790b supports inner door 1790a when the suction motor of handheld vacuum cleaner 1720 is off, thereby preventing debris from falling out of a debris container of handheld vacuum cleaner 1720. However, since outer door 1790b includes an opening therethrough, when the suction motor of handheld vacuum cleaner 1720 is turned on, inner door 1790a can be pivoted upward (via suction induced by the suction motor) to allow air and debris to travel through the opening in the outer door 1790b to be collected by handheld vacuum cleaner 1720.

[0245] Although valves 1780, 1790 have been described above as being movable (for example, between open and closed positions) via mechanical actuators and mechanisms, in some variants, any or all of valves 1780, 1790 can be additionally or alternatively controlled by electronic means. For example, cleaning apparatus 1700 can be configured to allow for electronic control of valves 1780, 1790 via controls of handheld vacuum cleaner 1720 that may be utilized by a user. For example, a user may open and/or close valves 1780, 1790 by pressing a button or a portion of a user interface on handheld vacuum cleaner 1720. Such electronic controls can be in communication with and configured to cause any of the actuators described herein to move to open and/or close valves 1780, 1790, for example, regardless of the orientation (e.g., inclination) of wand 1703 and/or support member 1705 relative to cleaning head 1730 (or a surface on which cleaning head 1730 rests). Cleaning apparatus 1700 can include one or more motors to facilitate electro-mechanical operation of valves 1780, 1790 in such manner, for example, one or more motors in handheld vacuum cleaner 1720, one or more motors in wand 1703, and/or one or more motors in support member 1705. Such motor(s) can be coupled with any of the mechanical actuators and mechanisms described herein to facilitate such operation.

[0246] Cleaning head 1730, support member 1705, wand 1703, handheld vacuum cleaner 1720, and floor-based vacuum cleaner 1710 can be electrically connectable to one another via one or more electrical connectors to facilitate electrical communication and/or power. For example, in some implementations in which cleaning apparatus 1700 includes a power cord 1701 connected to handheld vacuum cleaner 1720, electrical power can be provided from handheld vacuum cleaner 1720 to floor-based vacuum cleaner 1710 and/or cleaning head 1730 (for example, via wand 1703 and/or support member 1705) to allow control of any electrical components of floor-based vacuum cleaner 1710 and/or cleaning head 1730 (such as a suction motor of floor-based vacuum cleaner 1710). In some variants, cleaning apparatus 1700 does not include a cord 1701, and in such variants, any of handheld vacuum cleaner 1720, floor-based vacuum cleaner 1710, and/or cleaning head 1730 include a battery. Handheld vacuum cleaner 1720 can include a controller and/or input device (similar or identical to controller 327, input device 328) which can allow control of handheld vacuum cleaner 1720 (for example, a suction motor thereof), floor-based vacuum cleaner 1710 (for example, a suction motor thereof), and/or cleaning head 1730 (for example, a motor and/or agitator thereof). Such implementations can allow suction motors of handheld vacuum cleaner 1720 and floor-based vacuum cleaner 1710 to be operated (for example, turned on or off) to facilitate any of the various operational modes described herein. In some implementations, handheld vacuum cleaner 1720 includes a battery and is removably connectable to cord 1701 so as to allow cleaning apparatus 1700 to be operated with cord 1701 connected and/or disconnected. In the disconnected state of such implementation, cleaning apparatus 1700 (or any portion thereof) may derive electrical power from such battery in handheld vacuum cleaner 1720 and/or a battery in floor-based vacuum cleaner 1710. Any of such batteries may be charged via cord 1701. Such implementations can advantageously allow for convenient operation of cleaning apparatus 1700 without cord 1701 attached.

[0247] FIGS. 18A-18B illustrate perspective views of another implementation of a handheld vacuum cleaner 1820 and FIG. 18C illustrates a cross-section through handheld vacuum cleaner 1820. Handheld vacuum cleaner 1820 can include any of the features described with respect to other handheld vacuum cleaners disclosed herein. Handheld vacuum cleaner 1820 can be part of a cleaning apparatus that is similar to any of the cleaning apparatuses disclosed herein. For example, handheld vacuum cleaner 1820 can be part of cleaning apparatus 1800 shown and described with respect to FIG. 18Y. With reference to FIG. 18Y, handheld vacuum cleaner 1820 can be coupled with a wand 1803, a support member 1805, a floor-based vacuum cleaner 1810, and/or a cleaning head 1830, each of which can be similar or identical in any respect to any of the wands, support members, floor-based vacuum cleaners, and cleaning heads disclosed herein (such as wand 1603, 1703, support member 1605, 1705, floor-based vacuum cleaner 1610, 1710, cleaning head 1630, 1730). Handheld vacuum cleaner 1820 can be utilized along with wand 1803, support member 1805, floor-based vacuum cleaner 1810, and/or cleaning head 1830 in any of a variety of operational modes, including the stick mode, auto-empty mode, and/or upright mode shown and described in more detail below with respect to FIG. 18Y.

[0248] With reference to FIGS. 18A-18B, handheld vacuum cleaner 1820 can include a dirty air inlet 1821, a snout 1826, a debris container door 1824, a clean air outlet 1822, a handle 1825, a display 1828a, one or more controls 1828b (such as a button), and a power cord 1801. Control(s) 1828b can be utilized for turning handheld vacuum cleaner 1820 (and/or another portion of cleaning apparatus 1800) on or off and/or utilized for other functions. Display 1828a can be configured to display any of a variety of information relating to handheld vacuum cleaner 1820 and/or cleaning apparatus 1800, for example, whether cleaning apparatus 1800 is on/off, a current operational mode (for example, stick, auto-empty, or upright mode), status message(s) (for example, fill level of debris containers of handheld vacuum cleaner 1820 or floor-based vacuum cleaner 1810, electrical and/or mechanical connection status of handheld vacuum cleaner 1820, floor-based vacuum cleaner 1810, wand 1803, support member 1805, and/or cleaning head 1830), among other things. Handheld vacuum cleaner 1820 can include a controller that can be similar or identical to controller 327 described elsewhere herein. As shown in FIG. 18B, handheld vacuum cleaner 1820 can include an electrical connector 1829 to allow electrical communication with and/or power transmission to wand 1803, and any other component of cleaning apparatus 1800, for example, via wand 1803 (for example, support member 1805, floor-based vacuum cleaner 1810, and/or cleaning head 1830).

[0249] With reference to FIG. 18C, handheld vacuum cleaner 1820 can include a debris container door 1824, a mesh filter 1843 (which may also be referred to as a fluff screen), a pre-motor filter 1844 (for example, a radial filter), a suction motor 1840 (which can be similar or identical to any of the other suction motors disclosed herein), a post-motor filter 1849 (for example, a HEPA filter) proximate clean air outlet 1822, and/or a debris container 1841 (which may also be referred to as debris containing region or debris chamber). Any of such components, along with others, can be arranged in various portions of an interior of handheld vacuum cleaner 1820 as shown. Debris container 1841 may be defined by one or more interior portions of handheld vacuum cleaner 1820 (which may be at least partially formed by debris container door 1824). Filter 1843, filter 1844, and/or other components (for example, filter support 1896, filter cap 1897, structural component 1887, and/or other components) may form a debris separator that separates debris from air flowing through handheld vacuum cleaner 1820. Handheld vacuum cleaner 1820 can include one or a plurality of structural components that help form such interior along with any of the various flow passages described herein (for example, with respect to any of the operational modes shown and/or described herein). For example, handheld vacuum cleaner 1820 can include structural members 1881, 1886, 1887, 1888 that can at least partially form one or more interior regions of handheld vacuum cleaner 1820 and/or can help support, enclose, and/or operably position various components of handheld vacuum cleaner 1820 (see FIGS. 18A-18F). With reference to FIGS. 18C-18D, motor 1840 can be coupled with an air-permeable membrane 1882 (for example, comprising a foam material), and motor 1840 and membrane 1882 can be arranged within an interior region 1889 of handheld vacuum cleaner 1820 (which may be at least partially defined by structural component 1881). Interior region 1889 can be in fluid communication with clean air outlet 1822 (and thus ambient) via one or a plurality of vents 1881a in structural component 1881 (see FIG. 18D). Membrane 1882 can include an interior that surrounds a portion of motor 1840 and can be coupled to a motor casing 1891 (see FIG. 18D-18E) and interior region 1889 can be in fluid communication with such interior since membrane 1882 is air permeable. Structural component 1881 can include an inner wall having one or more openings, for example, a grill 1881b, which can be in fluid communication with an interior region 1884 of handheld vacuum cleaner 1820 (see FIGS. 18D-18E). Grill 1881b can be arranged below an opening 1891a of motor casing 1891 as shown. Motor casing 1891 can include a seal member 1891b that surrounds opening 1891a, grill 1881b, and contacts the inner wall of structural component 1881 which grill 1881b is formed, thereby sealing around the flow passage through/between such components. Interior region 1884 may be at least partially defined by structural component 1886. As shown in FIG. 18D, handheld vacuum cleaner 1820 can include a frame 1883 connected to a portion of structural component 1886 and having a plurality of openings that provide access to interior region 1884. Frame 1883 can include a seal member 1883b that can surround the openings in frame 1883, grille 1881b, and contact the inner wall of structural component 1881 in which grill 1881b resides, thereby sealing around the flow passage through/between such components. With continued reference to FIG. 18D, when valve 1892 is in an open position (described in more detail elsewhere herein), interior region 1884 can be in fluid communication with opening 1896e in filter support 1896 (and filter interior 1844c) via a gap 1885 which allows air to flow around valve 1892. Air flowing through opening 1896e and filter interior 1844c can flow through a wall of filter 1844, in interior region 1898 (which may be defined between filter 1844 and structural component 1887), and through a gap/spacing 1885 between filter 1843 and filter 1844 and/or cap 1897 (see FIG. 18F). Air can flow through filter 1843 and debris container 1841 from either direction, depending on the operational mode (for example, stick mode or auto-empty mode). FIG. 18F also illustrates valve 1890 in an example closed position. Valve 1890 can be opened to allow airflow through dirty air inlet 1821 from either direction, depending on the operational mode as described in more detail below. With reference to FIGS. 18D-18E, filter support 1896 can include a seal member 1896k that can contact and form a seal with portions of structural component 1886 and a seal member 1896L that can contact and form a seal with portions of structural component 1887. Although not shown, handheld vacuum cleaner 1820 may include one or more additional housing cover portions that enclose or surround portions of that which is illustrated in FIGS. 18A-18B, such as any of cover portions 2223a-2223g shown and/or described with respect to FIGS. 22A and 22C. Additionally, handheld vacuum cleaner 1820 may include a grill and/or vent(s) at clean air outlet 1822, similar or identical to those illustrated with reference to handheld vacuum cleaner 1620, 1720.

[0250] FIGS. 18D-18E illustrate perspective, cross-sectional views taken through portions of handheld vacuum cleaner 1820. Structural component 1886 can at least partially define interior region 1884 (for example, along with frame 1883, structural component 1881, and grill 1881b) and can at least partially surround valve 1892 and an electromagnet 1894. Structural component 1886 can be configured to receive, secure, and/or operably position electromagnet 1894. With reference to FIG. 18E, which shows a partial cross-section taken through handheld vacuum cleaner 1820, structural component 1886 can include a socket 1886a that receives, secures, and/or operably positions electromagnet 1894 (see also FIG. 18D). Socket 1886a and/or electromagnet 1894 can have a corresponding shape (for example, cylindrical shape). Structural component 1886 can include an arm 1886b, extending from portion of structural component 1886 (for example, a perimeter portion) and connecting to socket 1886a. Electromagnet 1894 can be couple with one or more wires which can be enclosed and/or operably positioned by portion(s) of structural component 1886 (for example, within arm 1886b as shown in FIG. 18D). Such wiring can be in electrically communication with a controller and/or power cord 1801 of handheld vacuum cleaner 1820 via direct and/or indirect electrical connection. With reference to FIG. 18D, frame 1883 can include a protruding portion 1883a that extends into socket 1886a. FIGS. 18D-18E also illustrate filter support 1896 and filter 1844, each of which are described in more detail below along with valve 1892. FIG. 18F illustrates another cross-sectional view taken through a portion of handheld vacuum cleaner 1820, illustrating, among other things, debris container 1841, valve 1890, snout 1826, dirty air inlet 1821, structural components 1881, 1887, filter 1844, filter support 1896, and gap/spacing 1885 between cap 1897 and filter 1844 and filter 1881. Valve 1890 can be similar to other valves disclosed herein (such as valve 1390). Valve 1890 can comprise a flexible member that is pivotably connected to a portion of handheld vacuum cleaner 1820 and arranged within an interior of handheld vacuum cleaner 1820, for example, proximate dirty air inlet 1821. Valve 1890 can be configured to inhibit debris from falling out of debris container 1841 when handheld vacuum cleaner 1820 is not in use (for example, during an upright mode or when handheld vacuum cleaner 1820 is off). Valve 1890 can extend across a flow passage when handheld vacuum cleaner 1820 is not in use. Although FIG. 18F illustrates valve 1890 connected at pivot connection point 1890a to a top portion/side of handheld vacuum cleaner 1820, valve 1890 can be connected opposite such location (for example, at a location that is diametrically opposed to the location of connection point 1890a with reference to a cross-section taken through snout 1826). For example, valve 1890 can be connected to a bottom portion/side of handheld vacuum cleaner 1820 that is configured to be vertically lower when handheld vacuum cleaner 1820 is in use (for example, held by a user and used alone or with wand 1803 and cleaning head 1830 such as in a stick mode). Valve 1890 can be pivotably connected as shown and/or described with respect to FIGS. 20A-20B. such variants can allow valve 1890 to catch debris from falling out of dirty air inlet 1821 when handheld vacuum cleaner 1820 transitions from a stick mode (such as that described herein) and a mode in which valve 1890 blocks flow through dirty air inlet 1821 (for example, an upright mode or a mode in which cleaning apparatus is off).

[0251] FIGS. 18G-18H illustrate partially exploded perspective views of a portion of handheld vacuum cleaner 1820 with various components removed to better illustrate valve 1892, electromagnetic 1894, filter support 1896, filter 1844, and frame 1883.

[0252] FIGS. 18I-18J illustrates top perspective views of valve 1892, with FIG. 18J illustrating magnet 1892e spaced from other portions of valve 1892. Magnet 1892e advantageously allows valve 1892 to be moved and/or held in place by electromagnet 1894, as described in more detail below. Valve 1892 can include a base 1892a, a wall 1892b extending outward from base 1892a (for example, along all or a portion of a perimeter of base 1892a), magnet 1892e, and a magnet holder arranged on and/or extending from base 1892a. Such magnet holder can be sized and/or shaped to secure magnet 1892e in place. Such magnet holder can be formed from an inner wall 1892c (for example, having a cylindrical shape) having a lip 18921 (for example, at an end and/or top portion thereof) that receives a rim portion 1892n of magnet 1892e which extends outward and/or around an inner portion 1892m of magnet 1892e (see FIGS. 18J-18L). Wall 1892c can define a cavity 1892d for receiving magnet 1892e (see FIG. 18J). In some implementations, magnet 1892e is molded with other portions of valve 1892 (such as base 1892a, wall 1892b, and/or inner wall 1892c) which comprise a different material. Magnet 1892e can comprise any of a variety of magnetic materials. Magnet 1892e can be secured to base 1892a and/or magnet holder 1892c such that magnet 1892e is not movable relative to either of such components. Such implementations advantageously allow valve 1892 to move with magnet 1892e via magnetic attraction to electromagnet 1894, which can facilitate an auto-empty mode of operation as described below. Valve 1892 can include guide protrusions 1892j, 1892k, and/or guide arms 1892i, the function of which is described in more detail below. Valve 1892 can include spring chambers 1892g including cavities 1892h for receiving portions or springs 1893 as described further below. Any or all of guide protrusions 1892j, 1892k, guide arms 1892i, and/or spring chambers 1892g may be arranged along a perimeter of valve 1892, for example, connected to and/or extending from wall 1892b. As shown, guide protrusions 1892k can be arranged on spring chambers 1892g. With reference to FIG. 18K (which shows a bottom perspective view of valve 1892), valve 1892 can include a seal member 1892f for sealing an opening of filter support 1896 (for example, opening 1896e) and/or an opening of filter 1844 (for example, opening 1844a) when valve 1892 is in a closed position (described in more detail below). Seal member 1892f can create a seal around any of such openings, for example, when contacting a surface 1896d of filter support 1896 (see FIGS. 18M-18N). In some implementations, filter support 1896 includes a skirt wall that extends outward from surface 1896d and around opening 1896e, and such skirt wall engages seal member 1892f when valve 1892 is in a closed position. Seal member 1892f can comprise an annular shape in some implementations. Seal member 1892f may be made of a flexible and/or resilient material. Seal member 1892f can be arranged on an opposite side of valve 1892 than magnet 1892e (for example, a bottom side of valve 1892). Although valve 1892 has been described above as including magnet 1892e connected with other portions of valve 1892 (base 1892a, wall 1892b), valve 1892 can be configured in a variety of ways to allow magnetic interaction with electromagnet 1894 (described elsewhere herein). In some implementations, base 1892a, wall 1892b and/or any or all portions of valve 1892 (other than magnet 1892e) can comprise a material that is non-magnetic. Any or all other portions of valve 1892 other than magnet 1892e can comprise, for example, a plastic material.

[0253] FIGS. 18M-18N illustrate filter 1844, filter support 1896, and filter cap 1897 connected to one another while FIGS. 18O-18P illustrate such components disconnected from one another. Filter 1844, filter support 1896, and filter cap 1897 may form a filter assembly when connected to one another (which may be referred to as a pre-motor filter assembly). Filter 1844 (which may be referred to as a pre-motor filter) can comprise a frustoconical shape, among others. Filter 1844 can be a radial filter. Filter 1844 can comprise any of a variety of materials that filter debris (for example, fine debris) from air. Filter 1844 may be a pleated filter. Filter 1844 can be formed from a wall including openings 1844a, 1844b that provide access to an interior 1844c of filter 1844, and openings 1844a, 1844b may be arranged at opposite ends of filter 1844 (see FIGS. 18O-18P). Filter cap 1897 can include a base 1897a and a protrusion 1897b that extends from base 1897a and is sized and/or shaped to fit within and/or through opening 1844 (into a portion of interior 1844c). Cap 1897 can block and/or cover opening 1844b.

[0254] Filter support 1896 can connect to and provide support for filter 1844. With reference to FIGS. 18M-18N, filter support 1896 can include a wall 1896a, a base 1896b, an opening 1896e in base 1896b. Wall 1896a can extend outward from base 1896b and around opening 1896e. Wall 1896a and base 1896a can define an interior 1896c for receiving valve 1892, as shown in at least FIGS. 18Q-18R. In some implementations, wall 1896a is spaced inward from an exterior perimeter of base 1896b (see FIGS. 18M-18N). As shown in FIGS. 18O-18P, filter support 1896 can include a frame 1896j extending from base 1896b and configured to fit within interior 1844c of filter 1844 to secure filter 1844 to filter support 1896.

[0255] Filter support 1896 can include one or more features that allow valve 1892 to be movably coupled to filter support 1896 and to move relative to filter support 1896 and openings 1896e, 1844a, for example, to facilitate the various modes of operation described further below. As shown in FIGS. 18M-18N, filter support 1896 can include one or a plurality of channels 1896g formed by inner walls extending from an inner surface of wall 1896a, and such channel(s) 1896g can be configured to receive guide protrusions 1892j, 1892k of valve 1892 (see FIGS. 18Q-18R). As also shown, filter support 1896 can include one or both of recessed channels 1896h configured to receive guide arms 1892i of valve 1892 (see FIGS. 18M-18N and 18Q-18R). Channels 1896g, 1896h can be configured to allow movement of protrusions 1892j, 1892k, and arms 1892i when valve 1892 moves between a first position in which valve 1892 covers openings 1896e, 1844a (which may be referred to as a closed position) to a second position in which valve 1892 is spaced from openings 1896e, 1844a (which may be referred to as an open position). In some implementations, filter support 1896 includes stops 1896i at an end of channels 1896h which can inhibit arms 1892i from exiting channels 1896h and in turn inhibit valve 1892 from disconnecting from filter support 1896. As also shown in FIGS. 18M-18N, filter support 1896 can include one or a plurality of posts 1896f for coupling and/or supporting springs 1893. Posts 1896f can be cross shaped, as shown. Posts 1896f can extend from a surface 1896d of base 1896b. With reference to FIGS. 18Q-18R, filter support 1896 and valve 1892 can be sized and/or shaped to allow air to flow around valve 1892 and through opening 1896e when valve 1892 is positioned away from opening 1896e, to facilitate an operational mode in which air flows through handheld vacuum cleaner 1820 (for example, stick mode or auto-empty mode). As shown in FIGS. 18Q-18R one or more gaps 1885 can exist between wall 1892b of valve 1892 and inner surfaces of wall 1896a of filter support 1896.