Abstract: A vertical support for a transport robot includes a column assembly and a driving assembly. The vertical support includes a fixed column frame and a movable column frame movably arranged on the fixed column frame. The driving assembly includes a traction assembly and a retractable assembly connected to the traction assembly. The traction assembly is connected to the carrying device and configured to drive a carrying device of the transport robot to move relative to the movable column frame. The traction assembly includes two sets of traction assemblies located at two opposed sides of the carrying device respectively, the retractable assembly is configured to drive the two sets of the traction assemblies to synchronously drive the carrying device to ascend or descend.

Abstract: The present invention relates to a sorting robot and a sorting method. The sorting method is applicable to the foregoing sorting robot, where the sorting robot is configured to deliver specific goods to be sorted to a specific sorting position, and a sorting mechanism carrying the specific goods to be sorted corresponds to the specific sorting position. The sorting method includes: S130: the sorting mechanism receiving goods to be sorted; S140: the sorting mechanism being raised or lowered to a height corresponding to the sorting position under drive of a lifting mechanism; and S160: the sorting mechanism performing an action to deliver the goods to be sorted that is placed on the sorting mechanism to the corresponding sorting position.

Abstract: A handling robot includes a chassis, a vertical bracket arranged on the chassis, a handling assembly slidably connected to the vertical bracket, a holder connected to the vertical bracket and a transfer component connected to the vertical bracket. The handling assembly is configured to retrieve or place a first container from or to a warehouse shelf. The holder is configured to hold a second container. The transfer component is configured to transfer an item between the first container on the handling assembly and the second container held by the holder. the vertical bracket is arranged between the handling assembly and the holder.

Abstract: A handling robot, a material fetching method, a material replenishing or returning method, and an intelligent warehousing system, the handling robot comprises a vertical bracket (19); a pallet (22) for storing a material box; and a handling system installed to the vertical bracket (19), where the pallet (22) is installed to the handling system, and the handling system is used for fetching a material box from one of a warehouse shelf (24) and the pallet (22), storing it onto the other, and/or fetching out a material from a material box stored on the pallet (22). With the configuration of the handling system, a material can be fetched out from a material box stored on the pallet, and after the material is fetched out, the material box is placed back onto the warehouse shelf, such manner of material fetching is flexible, and has high efficiency.

Abstract: A handling robot used in a field of warehouse logistics comprises a mobile chassis, and a storage shelf. The storage shelf is mounted to the mobile chassis and comprises a plurality of layered plate components distributed at different heights. The handling robot further comprises a handling device configured to transport a material to a layered plate of the plurality of layered plate components, and a lift component configured to drive the handling device to lift relative to the storage shelf.

Abstract: A handling robot (100), which relates to the field of warehouse logistics, comprises: a mobile chassis (10); a storage shelf (20) mounted to the mobile chassis (10), the storage shelf (20) comprising a plurality of layered plate components (21) distributed at different heights, each layered plate component (21) comprising a layered plate (210) for placing materials; a handling device (40), comprising a handling assembly (42), the handling assembly (42) being configured to handle a material to a layered plate (210) at the same height as the handling assembly (42), or to handle a material out of a layered plate (210) at the same height as the handling assembly (42); and a lift component (30), configured to drive the handling device (40) to lift relative to the storage shelf (20) so that the handling assembly (42) is at the same height as one layered plate (210).

Abstract: Provided are a handling robot (600) and a handling assembly (100) thereof, and the handling assembly (100) includes a base component (10), a handling arm component (20), a hook (31) and a driving component (40). The handling arm component (20) is slidably mounted to the base component (10), and may perform a reciprocating linear movement on the base component (10). The driving component (40) is connected with the handling arm component (20), for driving the handling arm component (20) and the hook (31) to perform a reciprocating linear movement. Through the above structure, the handling assembly (100) pulling and pushing the material box (500) is realized without extending into two sides of the material box (500), thereby saving working space of the handling assembly (100), enabling the material boxes (500) of the warehousing to be placed next to each other, and improving the storage density of the warehouse.

Abstract: The present disclosure discloses a design method of a polymeric seawater desalination membrane based on a graph neural network, including the following steps: S1: constructing a knowledge graph of element-molecular group-molecular structure based on chemical knowledge, and constructing a molecular structure information data set; S2: obtaining related data of design and manufacture of a polymeric desalination membrane, establishing a seawater desalination membrane database, and performing characterization processing suitable for a graph neural network model with reference to analysis of the structure information data set to generate an adjacency matrix; S3: building the graph neural network; S4: outputting a design model of the polymeric seawater desalination membrane by training the graph neural network; and S5: predicting a chemical structure meeting seawater desalination membrane performance requirements for seawater desalination by using the design model of the polymeric seawater desalination membrane.

Abstract: A handling robot used in a field of warehouse logistics comprises a mobile chassis, and a storage shelf. The storage shelf is mounted to the mobile chassis and comprises a plurality of layered plate components distributed at different heights. The handling robot further comprises a handling device configured to transport a material to a layered plate of the plurality of layered plate components, and a lift component configured to drive the handling device to lift relative to the storage shelf.

Abstract: The present disclosure relates to the field of intelligent warehousing technologies, and provides a shelf and a warehousing system, to resolve a technical problem that it is difficult to control a spacing between adjacent goods on a shelf. The shelf includes a support frame and a first conveyor and a second conveyor arranged on the support frame. The first conveyor and the second conveyor form a goods conveying layer for conveying goods. The first conveyor is hinged with the support frame. The first conveyor is rotatably switched to a first limit position or a second limit position. When the first conveyor is at the first limit position, a second end of the first conveyor protrudes from an upper surface of the second conveyor, so that an end surface of the second end of the first conveyor is configured to block goods on the second conveyor.

Abstract: A transportation apparatus (30), includes a bracket (31), a telescopic apparatus (32) and a manipulator (33), where the bracket is mounted to a storage shelf (20), the telescopic apparatus is mounted to the bracket, the manipulator is mounted to the telescopic apparatus, and the telescopic apparatus is used for driving the manipulator to move along a horizontal first reference line (S5) or a horizontal second reference line (S6). The manipulator is driven to move on the first reference line and second reference line that are disposed orthogonally, and thereby the manipulator is able to load or unload goods at any position on the first reference line or second reference line, so as to avoid time being wasted on adjusting an angle of a transportation robot (100). The transportation apparatus has a high transportation efficiency.

Abstract: A goods loading or unloading control method is applicable to a goods loading or unloading device. The goods loading or unloading device includes a storage unit. The storage unit is provided with a goods outlet and a roller conveyor. The roller conveyor has an outer contour surface configured for rolling contact with goods in the storage unit. The roller conveyor is configured to rotate about a rotation axis thereof. The method includes: receiving a goods loading or unloading instruction; and controlling a rotation state of the roller conveyor according to the goods loading or unloading instruction, so as to convey goods outside the storage unit to outside of the goods outlet through the storage unit.