A movable support device for mounting a measuring instrument via an attachment and a method of assembling a support device for a measuring instrument are provided. The device includes a body having an internal clearance and a plurality of mounting ports for receiving the attachment. At least one wheel is connectable to the body, wherein when the at least one wheel is connected to the body, the body is supported by the at least one wheel. A handle assembly is connectable to the body. Wherein the device is transformable between an operational position and a stowed position, and in the stowed position, a portion of at least one of the handle assembly and the at least one wheel is arranged within the internal clearance.

A cart has a rectangular forward and rear frame structures both pivoted on a common axle carrying two wheels, lengthwise pieces joining side pieces of the frame structures on both sides, implementing triangular sides for the cart and forming an upper plane, other lengthwise pieces joining a cross pieces of the frame structures to form a support plane parallel to and lesser in width than the upper plane, a central two-inch square metal tubing joined below the forward frame structure from the axle structure to beyond an upper extent of the forward frame structure, a yoke assembly with a single front wheel; and a handle structure joined to the rear frame structure at an upper cross piece. The first and second lengthwise pieces serve as sides to restrain cargo loaded in the cart on the support plane formed by the third and fourth lengthwise pieces.

A system that can include a cart and multiple mounting assemblies, with each one of the multiple mounting assemblies configured to be interchangeably attached to the cart, and with each one of the multiple mounting assemblies configured to receive one of multiple portable tools and secure the one of the multiple portable tools to the cart. The one of the multiple portable tools is different than a second one of the multiple portable tools.

The present invention relates to a removable electric propulsion system (1) for a rolling object, propulsion system (1) comprising a chassis (2) provided with at least one wheel (3) driven by an electric machine, at least one non-driven wheel (4) and at least one means for coupling electric propulsion system (1) to the rolling object. The coupling means comprises at least one means providing combined and simultaneous gripping and lifting of at least one wheel of the rolling object, and the combined and simultaneous gripping and lifting means comprises a frame (23), at least one arm (24) extendable in a longitudinal direction (x) and connected to frame (23), at least one tilt element (22) and at least one push device (20), one among tilt element (22) and push device (20) being connected to said extendable arm (24) and the other to chassis (2), said push device (20) being capable of driving at least one wheel of the rolling object along said longitudinal direction (x) into said at least one tilt element (22), said tilt element (22) being capable of tilting about an axis of substantially transverse direction (21).

The invention also relates to a coupling method and to a device for coupling a propulsion system to the rolling object.

A cart assembly adapted for manual, bicycle and/or motorized vehicle towing. Multiple frame sections are coupled to pivot between completely collapsed, partially open and completely open positions to facilitate, travel, storage and sleeping. A pair of axle plates support primary wheels to the framework and a drive axle between adjacent cross-brace arms. A handle frame section, saddle arms, truss arms, resilient spreader arms, auxiliary caster wheel, battery powered electric drive motor(s), fabric cover and/or hard cover mount to the framework. A resilient, reciprocating shock absorbing tow bar or tongue arm assembly provides flexibly resilient pieces to absorb travel shock between the cart and tow vehicle.

A cart assembly adapted for manual, bicycle and/or motorized vehicle towing. Multiple frame sections are coupled to pivot between completely collapsed, partially open and completely open positions to facilitate, travel, storage and sleeping. A pair of axle plates support primary wheels to the framework and a drive axle between adjacent cross-brace arms. A handle frame section, saddle arms, truss arms, resilient spreader arms, auxiliary caster wheel, battery powered electric drive motor(s), fabric cover and/or hard cover mount to the framework. A resilient, reciprocating shock absorbing tow bar or tongue arm assembly provides flexibly resilient pieces to absorb travel shock between the cart and tow vehicle.

A stabilization device for stabilizing an attachment component relative to movements of a basic component which occur outside a permitted plane of movement. The attachment component and the basic component are connected via a stabilization arrangement that includes: a first compensation arrangement for compensating rotational movements of the basic component with respect to an intermediate component, about rotational axes lying in the plane of movement, including a first compensation device which can be actuated actively, a second compensation arrangement for compensating residual linear movements of the intermediate component in a compensation direction, perpendicular to the plane of movement, in relation to the attachment component, having a second compensation device which can be actuated actively, a plurality of inertial sensors assigned to the first and/or second compensation arrangement, and a control device for actuating the compensation devices for movement compensation as a function of sensor data of the inertial sensors.

A stabilization device for stabilizing an attachment component relative to movements of a basic component which occur outside a permitted plane of movement. The attachment component and the basic component are connected via a stabilization arrangement that includes: a first compensation arrangement for compensating rotational movements of the basic component with respect to an intermediate component, about rotational axes lying in the plane of movement, including a first compensation device which can be actuated actively, a second compensation arrangement for compensating residual linear movements of the intermediate component in a compensation direction, perpendicular to the plane of movement, in relation to the attachment component, having a second compensation device which can be actuated actively, a plurality of inertial sensors assigned to the first and/or second compensation arrangement, and a control device for actuating the compensation devices for movement compensation as a function of sensor data of the inertial sensors.

A golf club carrier (100) comprising an elongate body (102) and a trundler mechanism (120) is disclosed. The trundler mechanism (120) is configured to be attached to the elongate body (102). The trundler mechanism (120) comprises a track (119a, 119b), at least one slidable collar (118) mounted to the track (119a, 119b), and at least two struts (122, 124) that are mounted to the collar (118). The trundler mechanism (120) is reconfigurable between a stowed or collapsed condition and a deployed condition without requiring any assembly or disassembly of the trundler mechanism (120). In the deployed condition, one of the ends of each strut (122, 124) extend away from the elongate body (102) and the wheels (132, 134) can be secured to the struts (122, 124) to allow the carrier (100) to be transported in a rolling manner over ground.

A golf club carrier (100) comprising an elongate body (102) and a trundler mechanism (120) is disclosed. The trundler mechanism (120) is configured to be attached to the elongate body (102). The trundler mechanism (120) comprises a track (119a, 119b), at least one slidable collar (118) mounted to the track (119a, 119b), and at least two struts (122, 124) that are mounted to the collar (118). The trundler mechanism (120) is reconfigurable between a stowed or collapsed condition and a deployed condition without requiring any assembly or disassembly of the trundler mechanism (120). In the deployed condition, one of the ends of each strut (122, 124) extend away from the elongate body (102) and the wheels (132, 134) can be secured to the struts (122, 124) to allow the carrier (100) to be transported in a rolling manner over ground.