An apparatus (10) for pumping first and second selected sterilizing or cleaning fluids (F1, F) by a user comprising: a first fluid container (12), a second fluid container (12k), a first pump assembly (18), a second pump assembly (18k), the first and second pump assemblies (18, 18k) being interconnected in an arrangement adapted to simultaneously pump the first fluid (F1) through upstream end fluid delivery apertures (22a) and the second fluid (F) through a laterally extending spout (24k) on manual driving of the external device in the downstream direction (D), the first fluid (F1) being delivered to the complementary surface (17s) of an external device (15) separately from the second fluid (F).

An all plastic compression spring assembly includes a slotted tubular spring element formed from a tensile polymer material and first and second loading cones received at opposing first and second ends of the slotted tubular spring element. The loading cones are axially compressible toward each other within the slotted tubular spring element whereby the slotted tubular spring element radially expands in tension to create an opposing radial contraction force, and in turn, an axial extension spring force. When released, the spring element elastically returns to its normal at rest shape, returning the cones to their normal at rest positions.

A foam dispensing container (100) has a container body (40) that reserves a liquid agent (L); a head part (30) that has an outlet (20), and dispenses the liquid agent (L) delivered from the container body (40) through the outlet (20) into foam; and a pump head part (32) that allows dispensing of a predetermined amount of the foamy liquid agent (foam) through the outlet (20) each time it accepts a user's operation. The outlet (20) is formed with a contiguous geometry narrowed from an intended shape. A foam, dispensed through the outlet (20) as a result of a single or multiple operations of the pump head part (32), is built up into the intended shape in a plan view seen in the dispensing direction.

A dispenser has a housing with a stem extending through the housing. The stem is attached to a head which rotates therewith. When the stem/head combination are rotated axially into, are in some positions, blocking flanges block portals into the stem. In other axially rotated positions, portals into the stem are unblocked by the portals. The portals are at a side of the stem adjacent to the bottom in embodiments of the disclosed technology. Further, a bottom region of the internal space can be conical to direct the material towards the portals, the bottom side of the stem being surrounded by the adjacent conical space such that it fits snugly there-with in embodiments of the disclosed technology.

A piston pump with a piston chamber-forming body and a piston-forming element relatively coaxially reciprocally movable to dispense liquid and air from a discharge outlet, which the discharge outlet is fixed relative to the piston chamber-forming body.

A pivot-to dispense soap pump includes an actuator that dispenses soap when actuated. The actuator is configured to move downward when actuated by user input. The downward movement may be in either one of a linear movement, maintaining the actuator is a horizontal orientation, or a pivoting movement about a pivot point. The pivot point is located on a distal end of the actuator, which is opposite the nozzle. The pivoting motion allows a user to depress the actuator proximate to the nozzle, thereby allowing the user to dispense soap into the same hand used to actuate the actuator. As a result, efficient, one-handed soap pumping and dispensing is enabled.

An all plastic compression spring assembly includes a slotted tubular spring element formed from a tensile polymer material and upper and lower loading cones received at opposing upper and lower ends of the slotted tubular spring element. The upper loading cone may be axially compressible towards the lower loading cone within the slotted tubular spring element whereby the slotted tubular spring element radially expands in tension to create an opposing radial contraction force, and in turn, an axial extension spring force. When released, the spring element elastically returns to its normal at rest shape, returning the cones to their normal at rest positions. In some dispenser configurations, the lower loading cone may be stationary or fixed within the dispensing head and the upper loading cone may be downwardly compressible toward the lower loading cone by movement of a nozzle head.

A fluid dispenser having a housing with a cover coupled to the housing for movement between a closed position and an open position and a lifting member coupled to the housing between the housing and the cover whereby movement of the lifting member as guided by the housing moves the cover between the open position and the closed position.

A discrete product refill container and a rigid outer shell container. The refill container includes a product chamber and a fitment secured thereto. The fitment includes a ledge which is suitable for resting on a ledge of the rigid outer shell container while permitting the product chamber to pass into the shell interiorly to the ledge. It may also include a rim for grasping by transfer equipment. The fitment includes a destructive cover, i.e., one which cannot readily be re-closed, so that the consumer can easily make the product within the refill available for pumping, as desired. The rigid outer shell container can be snap fit closed. The refill bottle may be a pouch or a thin walled bottle, with a fitment. The fitment may serve to support the bottle in an inverted position for display or storage. The refill bottle may also include an integral ledge for support in the rigid outer shell container, instead of a discrete fitment. A modular fitment may be used which accommodates different types of closures, if desired.

A fluid dispenser including a contaminant sensor and methods of use of such a fluid dispenser to monitor contaminants either alone or in an array of similar dispensers within a facility.