A transport apparatus includes a body; a fork having one portion supported by the body and another portion protruded from the body; a lifting unit; a control unit; a primary rotatable member mounted at a front end portion of the fork; an auxiliary rotatable member mounted at a rotatable-member-attaching position of the fork closer to a front end portion or a rear end portion of the fork compared to the primary rotatable member; and a step detection unit, disposed at a detection-unit-attaching position of the fork closer to the front end portion or closer to the rear end portion of the fork compared to the auxiliary rotatable member, and the step detection unit configured to detect a step member of a carriage base. The control unit lowers the fork using the lifting unit in response to a detection of the step member by the step detection unit.

A tote mover includes a base and a plurality of wheels supporting the base. A backrest is moveable relative to the base. A hook assembly is moveable relative to the backrest between a first rotational position and a second rotational position.

A pallet sled includes a base and a pair of tines extending from the base. A load wheel supports outer ends of each of the tines. A wheel supports the base. At least one motor is configured to drive the base wheel or at least one of the load wheels for driving the pallet sled. The motor may be a hub motor inside the base wheel or the load wheel.

A modular fork assembly for a pallet truck includes a discrete elongate body, a discrete load wheel module, and a discrete fork tip that may be detachably connected by the same or different types of interlocking mechanisms that are adapted to inhibit sheer forces. The load wheel module includes a frame and a load wheel assembly that includes a load wheel that is operatively connected to the frame.

A pallet lift includes a base and a deck extending forward of the base. Load wheels support the deck. A platform above the deck is pivotable relative to the base. The platform has an upper support surface for supporting objects thereon. The platform may be pivoted as the pallet lift travels on an inclined surface, such as a truck ramp, in order to keep the platform relatively level relative to gravity to increase stability.

A cargo container lift truck includes a body having a bottom, the body including drive wheels and at least one turning whee l at the bottom, a lift nose capable of going up and down along the body, the lift nose including a lift body that goes up and down along the body, and fork levers disposed at two sides of the front of the lift body, the bottom of the fork levers having support rods to hold up a cargo container. A movement drive device drives the drive wheels, and a lift drive device drives the lift nose up and down. The body further includes a pivotable handle, the handle including buttons that control movement of the body forward and backward, and control raising and lowering of the lift nose.

A pallet jack motor assembly includes a motor unit that is attachable to a planar surface of a pallet jack. A drive unit is coupled to and angles downwardly from the motor unit and the drive unit is in mechanical communication with the motor unit. The drive unit includes a friction wheel which frictionally engages a wheel on the pallet jack. The friction wheel rotates the wheel on the pallet jack when the motor is turned on thereby facilitating the pallet jack to be powered. In this way the pallet jack can transport a pallet without requiring a user to manually push the pallet jack. A control is removably attachable to a handle of the pallet jack for controlling the drive unit.

A pallet jack includes a base and a pair of tines extending from the base. The pair of tines including a first tine and a second tine. A load wheel supports an outer end of each of the pair of tines. Each load wheel is configured to move toward and away from the respective tine to raise the tine off a floor on which the load wheel is supported. The first tine including a support surface configured to selectively be a lowermost surface of the tine to facilitate lateral displacement of the first tine.

A lift-truck having a height adjustable load engagement means and a lifting/lowering unit and a support wheel and a climbing wheel and comprising a detection sensor arranged to detect a pallet located in front of the load engagement means and in a control unit to control the lifting/lowering unit, in response to a signal indicative of a detected pallet, to move the load engagement means to place the climbing wheel at a first predetermined height over the ground surface and, control the lifting/lowering unit to lower the load engagement means to place the climbing wheel at a second predetermined height over the ground surface when an operational parameter, indicative of movement of the lift-truck, equals a predetermined value.

A cart with lifting assistance is provided. The cart includes a forward frame having a top end and a bottom end. The forward frame makes up a front end of the cart. The cart further includes a rearward frame having a top end and a bottom end. The rearward frame makes up a rear end of the cart. Wheels are secured to the bottom ends of the forward frame and the rearward frame. A handle frame extends from at least one of the top ends of the forward frame and the rearward frame, and disposed towards the rear end around a waist height of a user. A pivoting frame is pivotally connected to the front end of the cart and pivots from the front end to beyond the front end. A latch is secured to the pivoting frame and is operable to releasably connect to a bin or container.