Abstract: A container taking and conveying assembly includes: a base; a bearing assembly configured to bear a container and defining an accommodating space for accommodating the container; a taking and placing assembly configured to take out the container from a first target position and load the container onto the bearing assembly, or unload the container from the bearing assembly and place the container at a second target position; and a moving assembly configured to drive the taking and placing assembly to move in a first movement trajectory where the moving assembly is configured to drive the taking and placing assembly to move in the accommodating space to load or unload the container, and a second movement trajectory where the moving assembly is configured to drive the taking and placing assembly to leave the accommodating space to allow the container to enter the accommodating space and be borne on the bearing assembly.

Abstract: The present disclosure provides a method for embedding watermarks into protein generative models, comprising pretraining an SE(3)-equivariant watermark encoder and decoder, wherein the encoder receives a watermark code and generates a watermark-conditioned structure, and the decoder receives the watermark-conditioned structure and predicts an embedded watermark, and using a watermark-conditioned adaptation to encode a desired watermark code and generate an updated protein generative model by merging the desired watermark code into model weights from an original protein generative model, wherein the protein generative model is fine-tuned with a message retrieval loss and a consistency loss. The watermark-conditioned adaptation includes a gating vector derived from the watermark code. The method enables copyright authentication and tracking of generated protein structures while preserving structural integrity and biological functionality.

Abstract: A method for picking goods includes controlling a workstation to place the goods to be allocated corresponding to a plurality of orders to be processed on a buffer vehicle according to a category of goods to be allocated, controlling the buffer vehicle to move and pass through a plurality of target allocation points of an allocation station, and controlling, according to a category and quantity of target goods corresponding to an associated order, among the plurality of orders to be processed, associated with an order container at each target allocation point, an allocation object to allocate the target goods on the buffer vehicle into the order container, when the buffer vehicle passes through each target allocation point.

Abstract: Provided are a container storage system, a warehousing system, a robot control method, and a robot; the container storage system comprises an inventory area, a control server, a robot, and a plurality of workstations; the control server communicates with the robot wirelessly; an inventory rack is placed in the inventory area; the inventory rack comprises at least one layer of layered panels; the at least one layer of layered panels divides the inventory rack into at least two layers; at least two storage containers are placed on the inventory rack in the direction of the depth of the layered panels, and the direction of width of the storage container on the inventory rack is consistent with the direction of the depth of the layered panels. The system increases the storage density of storage containers in the inventory area, and reduces the energy consumption of the robot picking the storage containers.

Abstract: A warehousing system is provided. The warehousing system includes: a workstation area; at least one of at least one mixed workstation, at least one first workstation or at least one second workstation, configured to receive an order, in which the order hits first type of goods and second type of goods; a storage area, configured to store at least one first-type carrier and at least one second-type carrier; at least one first-type transporter, configured to transport the first-type carrier carrying the first type of goods to the mixed workstation or the second workstation based on a transporting instruction; at least one second-type transporter, configured to take out and transport a container from the second-type carrier to the mixed workstation or the first workstation based on the transporting instruction; and a controller, configured to send transporting instructions to the first-type transporter and the second-type transporter.

Abstract: Various methods and processes, apparatuses or systems, and media for data processing are disclosed. A processor implements an AI powered bot system; receives, via a user interface within the bot, user input as text data wherein the text data indicates a RFQ for a derivative instrument; transmits the text data to an AIML NLP service; extracts, by a parsing module, parameters associated with the RFQ by utilizing an entity extraction model provided by the AIML NLP service; normalizes the extracted parameters and transmits the normalized parameters to an automated pricing module; receives pricing details data by a response generation component embedded within the parsing module from the automated pricing module; and transmits the pricing details data to the bot for receiving user input via the user interface to conduct a transaction with respect to the derivative instrument.

Abstract: A platform for automated design of gene-editing experiments includes one or more processing units and a non-transitory computer-readable storage device. The storage device contains instructions that, when executed, configure the processing units to perform a method. The method includes receiving a meta request with information about a requested gene-editing experiment, configuring an ordered list of tasks via a reasoning framework, and implementing tasks via a Task Executor module utilizing state machines. The Task Executor connects to external APIs, provides instructions to a User-Proxy Agent module, and receives user input. The User-Proxy Agent forms prompts based on current state instructions, user requests, interaction history, and API results to determine appropriate actions. The platform outputs recommendations responsive to the meta request.

Abstract: A merging processing system, method and device. Said method comprises: determining turnover boxes to establish a correlation between the turnover boxes and the collection; box supply lines conveying the turnover boxes from sorting positions to a pickup position; the handling device moving the turnover boxes to a temporary storage region, and uploading to a control center; the control center determining a correlation between the turnover boxes and the temporary storage positions, when it is determined that all the turnover boxes of the collection to be merged are moved to the temporary storage region, controlling the handling device to move the turnover boxes of the collection to be merged to a merging processing station; and the handling device successively moving the turnover boxes corresponding to the same collection to be merged to the merging processing station, and performing merging on the collection to be merged.

Abstract: A storage system for automatic replenishment includes: a control server and a first robot. The control server is configured to, in a case where it is determined that an item in a picking zone needs to be replenished, generate a replenishment task for the item that needs to be replenished and send a first transporting instruction to the first robot according to the replenishment task; and the first robot is configured to, in response to the first transporting instruction, carry an item associated with the replenishment task from a stocking zone to the picking zone as indicated by the first transporting instruction to allow the item to be replenished into an item container in the picking zone.

Abstract: An inventory region integrating goods preparation and picking, and inventory management system and method. The inventory region comprises: a plurality of high-level shelves and a plurality of picking shelves, wherein any high-level shelf of the plurality of high-level shelves comprises a shelf board, and the shelf board partitions the high-level shelf into at least two levels; and a picking shelf is placed at a bottom level of at least one high-level shelf of the plurality of high-level shelves, and at least one storage container is placed on each of the other floors except for the bottom level where the picking shelf is placed. Inventory articles, which can be picked, are accommodated on each of the picking shelves, and inventory articles for replenishing the picking shelves are accommodated in the storage container.

Abstract: A carrying device includes a bottom plate and a support layer configured to bear an object. The support layer comprises a plurality of protrusions arranged on a first side of the bottom plate and protruding from the first side of the bottom plate along a height direction. The plurality of protrusions are arranged at intervals along a first direction, so that shelf teeth of a warehousing device are configured to enter the support layer, and the first direction is perpendicular to the height direction.

Abstract: Discloses are a method for preparing fluff pulp from bamboos, and the fluff pulp prepared thereby. The method comprises the following steps: treating the bamboos with high-concentration alkali at a relatively mild temperature, after a certain period of treatment, replacing a treatment liquid for separating hemicellulose with a weak black liquor; Kraft cooking the treated bamboos to obtain unbleached bamboo pulp, removing rejects in the unbleached bamboo pulp by using a slotted screen; then removing miscellaneous cells by using a microporous sieve; carrying out two stages of oxygen delignification on the screened pulp; carrying out ECF bleaching treatment of a D0EpD1P process; and finally obtaining the bamboo fluff pulp which has high whiteness, low DCM extract content, low ash content and long fiber length, contains 4.2-4.6 million fibers per gram, and has relatively high bulkiness.

Abstract: A warehousing system (100) is provided. The system is provided with a storage region (100a) and includes a plurality of first shelving units (111) arranged in the storage region (100a), a plurality of travel aisles (120) formed between the first shelving units (111) facing each other, and a first transport passage (131) in communication with the travel aisles (120). The warehousing system (100) further includes second shelving units (112) arranged in an upper-layer space of the first transport passage (131) and located on two sides of extension lines of the travel aisles (120). A height (HL2) of a lowest goods location of each second shelving unit (112) is greater than a height (HL1) of a lowest goods location of each first shelving unit (111).

Abstract: The present application provides a shelf management method and system, a sorting zone, and a stock sorting system. A shelf management system may include: a mobile robot, configured to transport a shelf; the shelf, configured to be provided with locations for placing commodities and be transportable by the mobile robot; a shelf zone, configured to store the shelf; a station and a station queuing zone, wherein the station is a worker operation position; and the station queuing zone is an area set near the worker operation position, where the mobile robot transporting the shelf queues and waits for a worker's operation; and a server, communicatively connected with the mobile robot and configured to execute a corresponding shelf management method.

Abstract: A shelf management method includes predicting whether there is space in the station queue area of a station; if yes, selecting a shelf from among the shelves allocated to the station and have not yet been transported, and controlling a moving robot to transport the selected shelf; after the moving robot is engaged with the selected shelf, re-predicting whether there is space in the station queue areas of all the stations that need the selected shelf; if yes, controlling the moving robot to transport the selected shelf to the station queue area that has been predicted to have space, and when the moving robot has transported the selected shelf to the pre-set area around the station queue area that has been predicted to have space, determining whether there is newly available space in the station queue area; if yes, controlling the moving robot to enter the station queue area.

Abstract: Discloses are a method for preparing fluff pulp from bamboos, and the fluff pulp prepared thereby. The method comprises the following steps: treating the bamboos with high-concentration alkali at a relatively mild temperature, after a certain period of treatment, replacing a treatment liquid for separating hemicellulose with a weak black liquor; Kraft cooking the treated bamboos to obtain unbleached bamboo pulp, removing rejects in the unbleached bamboo pulp by using a slotted screen; then removing miscellaneous cells by using a microporous sieve; carrying out two stages of oxygen delignification on the screened pulp; carrying out ECF bleaching treatment of a D0EpD1P process; and finally obtaining the bamboo fluff pulp which has high whiteness, low DCM extract content, low ash content and long fiber length, contains 4.2-4.6 million fibers per gram, and has relatively high bulkiness.

Abstract: A container taking and conveying assembly includes: a base; a bearing assembly configured to bear a container and defining an accommodating space for accommodating the container; a taking and placing assembly configured to take out the container from a first target position and load the container onto the bearing assembly, or unload the container from the bearing assembly and place the container at a second target position; and a moving assembly configured to drive the taking and placing assembly to move in a first movement trajectory where the moving assembly is configured to drive the taking and placing assembly to move in the accommodating space to load or unload the container, and a second movement trajectory where the moving assembly is configured to drive the taking and placing assembly to leave the accommodating space to allow the container to enter the accommodating space and be borne on the bearing assembly.

Abstract: A warehousing system, includes: a workstation area including at least one sorting station; a goods shelf parking area configured to park a goods shelf; a multifunctional area comprising at least one storage position, and the at least one storage position being configured to store a container transferred from the sorting station or the goods shelf; and a container loading and unloading device configured to transfer the container among the workstation area, the goods shelf parking area, and the multifunctional area.