Abstract: A sliding arm mechanism for attaching to an arm of a wheelchair is provided herein. One concept of the present disclosure is directed to a sliding arm mechanism that includes a main portion having a top area, a bottom area, first and second opposing end areas, first and second opposing side areas and an inner cavity. The sliding arm mechanism also includes a slide rail, comprising a top side, a bottom side and an elongated aperture located between the top side and the bottom side, which is adapted to be housed within the inner cavity of the main portion. The bottom side of the slide rail is removably coupled to a top part of the arm of the wheelchair. The slide rail and the main portion are slidably coupled to allow the main portion to move laterally over the slide rail in a direction parallel to the top part of the arm of the wheelchair, thus allowing the main portion to move between a first position and a second position.

Abstract: A sliding arm mechanism for attaching to an arm of a wheelchair is provided herein. One concept of the present disclosure is directed to a sliding arm mechanism that includes a main portion having a top area, a bottom area, first and second opposing end areas, first and second opposing side areas and an inner cavity. The sliding arm mechanism also includes a slide rail, comprising a top side, a bottom side and an elongated aperture located between the top side and the bottom side, which is adapted to be housed within the inner cavity of the main portion. The bottom side of the slide rail is removably coupled to a top part of the arm of the wheelchair. The slide rail and the main portion are slidably coupled to allow the main portion to move laterally over the slide rail in a direction parallel to the top part of the arm of the wheelchair, thus allowing the main portion to move between a first position and a second position.

Abstract: A sliding arm mechanism for attaching to an arm of a wheelchair is provided herein. One concept of the present disclosure is directed to a sliding arm mechanism that includes a main portion having a top area, a bottom area, first and second opposing end areas, first and second opposing side areas and an inner cavity. The sliding arm mechanism also includes a slide rail, comprising a top side, a bottom side and an elongated aperture located between the top side and the bottom side, which is adapted to be housed within the inner cavity of the main portion. The bottom side of the slide rail is removably coupled to a top part of the arm of the wheelchair. The slide rail and the main portion are slidably coupled to allow the main portion to move laterally over the slide rail in a direction parallel to the top part of the arm of the wheelchair, thus allowing the main portion to move between a first position and a second position.

Abstract: A wheeled personal conveyance has a rear portion and a front portion, the front portion being configured to receive into the wheeled personal conveyance the rear portion of a like wheeled personal conveyance such that the like wheeled personal conveyance is at least partially nested within the wheeled personal conveyance. By one approach, a body frame as comprises the wheeled personal conveyance has a front portion that is laterally wider than a part of the body frame that comprises a part of the aforementioned rear portion of the wheeled personal conveyance. So configured, the wheeled personal conveyance can have a passenger area that is wider towards the front than towards the back. By one approach, arm rests are provided that connect to a seat of the wheeled personal conveyance and that move in conjunction with the seat as the seat pivots.

Abstract: A wheeled personal conveyance has a rear portion and a front portion, the front portion being configured to receive into the wheeled personal conveyance the rear portion of a like wheeled personal conveyance such that the like wheeled personal conveyance is at least partially nested within the wheeled personal conveyance. By one approach, a body frame as comprises the wheeled personal conveyance has a front portion that is laterally wider than a part of the body frame that comprises a part of the aforementioned rear portion of the wheeled personal conveyance. So configured, the wheeled personal conveyance can have a passenger area that is wider towards the front than towards the back. By one approach, arm rests are provided that connect to a seat of the wheeled personal conveyance and that move in conjunction with the seat as the seat pivots.

Abstract: A sliding arm mechanism for attaching to an arm of a wheelchair is provided herein. One concept of the present disclosure is directed to a sliding arm mechanism that includes a main portion having a top area, a bottom area, first and second opposing end areas, first and second opposing side areas and an inner cavity. The sliding arm mechanism also includes a slide rail, comprising a top side, a bottom side and an elongated aperture located between the top side and the bottom side, which is adapted to be housed within the inner cavity of the main portion. The bottom side of the slide rail is removably coupled to a top part of the arm of the wheelchair. The slide rail and the main portion are slidably coupled to allow the main portion to move laterally over the slide rail in a direction parallel to the top part of the arm of the wheelchair, thus allowing the main portion to move between a first position and a second position.

Abstract: A sliding arm mechanism for attaching to an arm of a wheelchair is provided herein. One concept is directed to a sliding arm mechanism that includes a main portion and an inner cavity. The sliding arm mechanism also includes a slide rail, which is adapted to be housed within the inner cavity of the main portion. The slide rail and the main portion are slidably coupled to allow the main portion to move laterally over the slide rail in a direction parallel to the top part of the arm of the wheelchair, thus allowing the main portion to move between a first position and a second position. In some embodiments, the first position corresponds to a full-length position and the second position corresponds to a desk-length position, such that a user can adjust the sliding arm mechanism to access a desk or table.

Abstract: A sliding arm mechanism for attaching to an arm of a wheelchair is provided herein. One concept is directed to a sliding arm mechanism that includes a main portion and an inner cavity. The sliding arm mechanism also includes a slide rail, which is adapted to be housed within the inner cavity of the main portion. The slide rail and the main portion are slidably coupled to allow the main portion to move laterally over the slide rail in a direction parallel to the top part of the arm of the wheelchair, thus allowing the main portion to move between a first position and a second position. In some embodiments, the first position corresponds to a full-length position and the second position corresponds to a desk-length position, such that a user can adjust the sliding arm mechanism to access a desk or table.

Abstract: A method is provided for retrofitting an existing dead-bolt assembly with an electrically operated actuator (12, 112, 212, 312, 800). The electrically operated actuator automatically operates the dead-bolt assembly while preserving manual operation of the lock. The actuator assembly has rotating means for rotation of the drive bar (18), which in turn extends or retracts the bolt (14) of the lock. The rotating means may be a lever (28, 128, 238, 328, 438, 818) attached to the drive bar (18) that is pivotable about the axis of rotation of the drive bar (18). The actuator assembly has driving means that forces the rotating means to rotate. The driving means is responsive to an electrical signal, which, for example, may be initiated from a remote-controlled transmitter (502, 602). The driving means may include a motor (20, 120, 220) for rotating a rod (22, 122, 222, 322) that in turn operates an assembly that rotates or drives the rotating means.

Abstract: A method is provided for retrofitting an existing dead-bolt assembly with an electrically operated actuator (12, 112, 212, 312, 800). The electrically operated actuator automatically operates the dead-bolt assembly while preserving manual operation of the lock. The actuator assembly has rotating means for rotation of the drive bar (18), which in turn extends or retracts the bolt (14) of the lock. The rotating means may be a lever (28,128, 238, 328, 438, 818) attached to the drive bar (18) that is pivotable about the axis of rotation of the drive bar (18). The actuator assembly has driving means that forces the rotating means to rotate. The driving means is responsive to an electrical signal, which, for example, may be initiated from a remote-controlled transmitter (502, 602). The driving means may include a motor (20, 120, 220) for rotating a rod (22, 122, 222, 322) that in turn operates an assembly that rotates or drives the rotating means.