Thermally insulated shipping system for use in transporting a pallet-sized payload. In one embodiment, the system includes a plurality of thermally insulating walls arranged to define an interior volume suitable for receiving a pallet-sized payload. The thermally insulating walls include a top wall, a bottom wall, a front wall, a rear wall, a left wall, and a right wall, of which all but the bottom wall include at least two slots facing towards the interior volume. One of the slots is an inner slot that is more proximal to the interior volume, and one of the slots is an outer slot that is more distal to the interior volume. The system also includes a plurality of inner cassettes disposed in at least some of the inner slots and a plurality of outer cassettes disposed in at least some of the outer slots. The inner and outer cassettes include phase-change materials.

An object carrying assembly and a transfer robot. The object carrying assembly (100) comprises: an object carrying component, which comprises two opposite boundary portions; and clamping and bearing members (120), wherein the clamping and bearing members (120) are arranged at the two boundary portions and are rotationally connected to the object carrying component, and the clamping and bearing members (120) are provided with bearing members (121) and clamping claws (122) on two sides of a rotating shaft (130), respectively. When the object carrying component is empty, the bearing members (121) are at least partially higher than a bearing surface of the object carrying component, and when the object carrying component is loaded, the bearing members (121) are not higher than the bearing surface, and the clamping claws (122) are higher than the bearing surface. The object carrying assembly and the transfer robot can prevent cargo from falling off of same due to factors such as uneven ground or an excessively high carrying speed, such that the carrying efficiency can be improved.

In the present invention related to an electric vehicle battery transportation container having a shield sleeve, a ratchet tightens a belt to fix an electric vehicle battery to a seat base in a state in which a battery fixing hook connected to a leading end portion of the ratchet accommodated in a ratchet accommodation recess part formed in the seat base is inserted into an assembly hole formed in a lower bracket of the electric vehicle battery loaded on the seat base, one or more foldable anti-slip parts installed on the seat base stand upright to prevent left-right slip and front-rear slip of the electric vehicle battery at the same time, and a corner support shaft formed with an inclined structure having a decreasing inner diameter is unevenly coupled to a support shaft insertion groove to load seat bases on a transportation vehicle in multiple stages. When the seat base is manufactured as a grid frame, and front, rear, left, and right surfaces of the seat base are shielded using a shield sleeve according to the present invention, a weight of the seat base may be minimized to reduce a transportation cost when the seat base is loaded on and transported by a transportation vehicle or vessel, and contamination of the electric vehicle battery due to dust or foreign matters may be prevented while the electric vehicle battery loaded on the seat base is transported for a long time.

A cart and rack assembly for transporting a planar material includes a rack and a cart. The rack includes a frame coupled to a base. The frame has an upper portion and a lower portion. The upper portion has a first width, and the lower portion has a second width. The cart is configured to reversibly receive the base. The cart includes a guide member configured to guide either of the base or the cart into a predetermined position when the base is received by the cart. The assembly further includes a bracket having a first end and a second end which is configured to selectively secure the planar material to the assembly. The base has a series of apertures configured to accept the first end of the bracket. The second end of the bracket is configured to be selectively coupled with the upper portion of the frame.

The present invention provides a thinner, movable load bearing structure having indentations, grooves, valleys, channels or other similar depressions on its underside. These depressions are mated with corresponding features for improved loading bearing capabilities. The load bearing structures also includes roughened side edges for improving the strength of the edges. The load bearing structure may be a dunnage platform or a container for storing and/or shipping cargo.

A method for installing building panels, the method including forming a composite building panel from a plurality of panels, transporting the composite building panel to the site of installation and lifting the composite building panel by a lifting facility into position within a building.

Disclosed are a support unit and a floor plate. The support unit includes a first plate and a second plate which are spaced apart from each other, one end of the first plate is provided with a plurality of first ring walls at intervals, one end of second plate facing the first plate is provided with a plurality of second ring walls at intervals, the plurality of second ring walls are arranged corresponding to the plurality of first ring walls, each of the second ring walls is sleeved outside and matched with a respective one of the first ring walls to form a support structure that supports the first plate and the second plate.

A shock absorbing member which absorbs a shock acting between a top plate with an upper surface on which a fixation target is loaded and the fixation target includes a fixation part that fixes the fixation target and a shock absorbing part that is supported by the top plate, supports the fixation part, and absorbs a shock acting on the fixation part.

The pallet assembly comprises a top plate, a load-force plate, a runner, and a plurality of load blocks disposed between the load force plate and the runner. The load-force plate is disposed between the top plate and the runner and increases the load bearing capacity of the top plate while adding strength to the pallet assembly. The pallet assembly includes a biocidal coating material that protects shipment of foodstuffs and other products requiring sanitary conditions, preventing the growth of mold, fungi, bacteria, and viruses. The pallet assembly includes a pallet integrated module positioned between the top plate and the runner, that collects journey data on location, temperature, humidity and shock along with store forward capability during not connected times of each journey of the pallet assembly. The load-force plate has either an X-form configuration or a cross-form configuration. In one preferred embodiment, an antenna is embedded in the cross-form configuration.

An apparatus may include a breadboard. The breadboard may include a substantially flat board, which may include a top surface and a bottom surface. The top surface may be disposed opposite the bottom surface. The board may include one or more openings disposed in the board. The apparatus may include a pallet. The pallet may include a top surface and a bottom portion disposed opposite the top surface. The pallet may include a plurality of risers, which may be disposed on the bottom portion and extend in a direction opposite the top surface. The bottom surface of the breadboard may be mountable to the top surface of the pallet. One or more circuit breakers may be disposable on the top surface of the board of the breadboard. The breadboard and pallet may be reusable in transporting circuit breakers.