The present disclosure discloses a multi-stage load adjustment type moving cart. The multi-stage load adjustment type moving cart according to the present disclosure includes: a base frame; a vertical frame vertically installed on one side of the base frame; an inclination angle adjustment unit installed on one side of the vertical frame and configured to selectively elongate a rod; a variable inclination rail having an upper one end supported to be rotatable around a hinge point hinge-coupled to the vertical frame and having one lower end connected to the inclination angle adjustment unit; and a raising and lowering unit including a raising and lowering body provided with a first roller and a second roller coming into rolling.

A handcart may include a drive wheel; a prime mover configured to rotate the drive wheel; a grip portion configured to be gripped by a user; and a visibly noticeable portion that is clearly noticeable from behind the user when the user stands behind the handcart, gripping the grip portion.

A lift dolly assembly includes a lift dolly having a base plate, a handle, and a frame. The dolly includes one or more wheels to permit the frame and the base plate to carry an object or load by tilting the dolly backwards. The assembly also includes a track, a lift mechanism, and a lift plate. These components are configured to work in communication with the dolly to support and allow the elevating and orienting of an object or load. In general operation, an object is located on a base plate 105 and is secured to a lift plate. The object may then be selectively lifted and oriented to a non-vertical orientation to allow the base of the object to extend fully outward beyond the base plate.

Disclosed herein is a deadweight loading apparatus, system, and method for calibrating a testing device. The deadweight loading apparatus comprises a cart, comprising a horizontal support surface, a cart handle, a plurality of weights stackable on the horizontal support surface, and a basket supportable on the horizontal support surface. The basket comprising a first side plate and a second side plate. The apparatus also comprises a selector bar comprising two extension arms that are selectively, adjustably, engageable with the first side plate and the second side plate at each one of multiple vertical locations along the first side plate and the second side plate. When the selector bar is selectively, adjustably, engaged with the first side plate and the second side plate, each one of the two extension arms is fitted within a corresponding one of the two grooves on a corresponding weight.

The present invention relates to a hydraulic lift dolly. The lift dolly is configured and designed to lift or lower a tray or load platform using a built-in hydraulic mechanism. The lift dolly includes a pair of support arms, a pair of actuation triggers, a tray, a pair of wheels or casters and a handle attached to the support arms. Each support arm has a hydraulic cylinder that is connected to a hydraulic source. The pair of hydraulic cylinders lift the tray when the pair of actuation triggers are pressed by an operator to provide hydraulic power to the hydraulic cylinders for lifting the connected tray. The actuation triggers are released when the tray reaches a desired height along the support arms. The hydraulic lift dolly allow users to perform loading and unloading without bending over and lifting heavy and bulky items from the dolly tray.

A load lifting device is provided that includes a cart, a powered winch, and controls. The cart has a base with a plurality of rollers, an upright frame, and a winch arm. The base has a forward end and an aft end. The upright frame has a base end and a distal upper end. The base end of the upright frame is attached to the base proximate the aft end. The winch arm extends out from the upright frame proximate the upper end. The powered winch is controllable to selectively play out or draw in a lift line. The powered winch is attached to the winch arm and is in communication with a source of electrical power. The controls are configured for operating the powered winch to play out or draw in the lift line.

A motorized cart assembly for use in gardening and other outdoor chores includes a first motor that is operationally coupled to a rear axle of a rolling chassis. The first motor is configured to selectively rotate the rear axle to locomote the rolling chassis. A lift module that is coupled to the rolling chassis is configured to selectively raise and lower an item that is positioned upon an upper plate of the lift module. A handle, which is coupled to at least one of the rolling chassis and the upper plate, is configured to be grasped in at least one hand of a user to steer the rolling chassis.

A tugger cart includes a tugger frame having a first side member, a second side member, and a locking member disposed in between the first side member and the second side member. A first roller assembly is coupled to an inner surface of the first side member and a second roller assembly coupled to an inner surface of the second side member. Each of the first roller assembly and the second roller assembly include a roller assembly frame and a plurality of wheels rotatably coupled to the roller assembly frame. The roller assembly frame supports the plurality of wheels at a slant that declines from a rear of the tugger frame to a front of the tugger frame. An actuator is configured to raise and lower the first roller assembly and the second roller assembly relative to the first side member and the second side member respectively.

The invention provides a stand using two legs which are selectively elongated. Ideally, each leg has two spaced apart wheels allowing the stand to be readily moved. The legs are connected by a scissor member which allows the assembly to be collapsed for storage and easy movement. A receiver for a paper roll is attachable to the top of both legs. A roller, from which paper from the paper roll extends. The legs are manually extended either by hand or in concert using a winch assembly connected to both legs.

An assistive robot includes a manipulator, a base coupled to the manipulator, the base defining a front end and a rear end positioned opposite the front end, the base including a chassis body, a front conveyor assembly positioned at the front end of the base, the front conveyor assembly including a front conveyor defining a conveyor pathway that extends at least partially within the chassis body and a front toe extending outward from the front conveyor, and a rear conveyor assembly positioned at the rear end of the base, the rear conveyor assembly including a rear conveyor defining a conveyor pathway that extends at least partially within the chassis body and a rear toe extending outward from the rear conveyor.