93 results about "Transfer system" patented technology

Systems and methods for determining and executing complex multi-route transfers of digital assets are described. A multi-route transfer of a source asset for a destination asset may be determined by analyzing a graph representing a plurality of assets and exchanges to determine a plurality of unique transfer paths. A transfer path may reflect a direct transfer in which the source asset is swapped for the destination asset, or it may reflect a series of intermediate transfers in which the source asset is swapped for intermediate asset(s) that are swapped for the destination asset. Dynamic programming can be used to select the transfer paths to include in the multi-route transfer, how to distribute swaps across those transfer paths, and how to distribute swaps for each transfer of a transfer path-thereby optimizing for the total amount of the destination asset received while accounting for transaction fees.

A call center data transfer system includes one or more processors that are configured to receive call data related to information provided by a caller during a first portion of a call with a first customer service representative. The one or more processors are also configured to assign an identifier to the call in response to receipt of an indication that the call should be transferred from the first customer service representative, associate the identifier with the call data in one or more databases, receive the identifier as an input during a second portion of the call with a second customer service representative, and use the identifier to retrieve the call data from the one or more databases. The one or more processors are further configured to display the call data via a display for visualization by the second customer service representative.

The invention discloses a customer complaint work order automatic circulation system and method based on composite intention disassembly. The system receives and preprocesses the multi-mode customer complaint data and initializes a service circulation context; business intention identification and business key slot position extraction are carried out; disassembling the composite business intention, and constructing an ordered work order execution queue of a directed acyclic graph structure through cyclic dependence verification; evaluating the work order circulation action with the maximum expected cumulative income by using a reinforcement learning model; when business knowledge query is involved, compliance evidence fragments are retrieved, sorted and output; and generating a candidate reply and a business operation instruction by the fine-tuned large language model, outputting the candidate reply after business compliance verification, and calling an API (Application Program Interface) of an underlying business system to execute entity business handling operation in a cross-system manner. The problems of data interaction and state synchronization among multi-source heterogeneous systems are solved, the automatic execution efficiency of the composite work order at the bottom layer node is improved, and the system unauthorized and dirty data risks caused by an uncertain instruction are effectively avoided.

Systems and a method for regulating a multi-part 3D printing order transfer between at least one requesting unit and a plurality of supplying units. Access to a nesting module is received. A quote module is defined for providing a price quote for a printing order based on material cost and on production cost. At least a portion of the production cost is calculated based on required build portion and on selected printing job type. For each supplying unit, it is received data on supplier auto-quote profile. Aata on a multi-part order of N parts requested by the requesting unit. For each relevant supplying unit and by using said two modules customized in via the auto-quote profiles, it is calculated a supplier quote to the nestable part subset, by applying the customized quote module—with the identified build portion size and with the type of the identified jobs as module input parameters. Supplying units are identified and the 3D printing order transfer is regulated by matching a selected set of supplying units to the requesting unit.

An inventory management system for managing inventory ownership in a shared inventory space is described. The system includes receivers configured to receive data from sources external to the inventory management system. Transmitters are configured to transmit data to sources external to the inventory management system. A bundle generation is configured to receive transfer data from a first user via the one or more receivers indicating a group of items to be made available for a transfer of ownership. The transfer of ownership of the group of items is to be made as a single transaction. The system processes the received transfer data and generates a bundle data record of data parameters based on the transfer data. A transaction management processor provides information identifying available groups of items available for transfer of ownership and a transaction fulfilment processor provide the item data to the transaction management processor.

A secure transfer system where a wallet is generated utilising a public and private key pair; whereby the private key of the key pair is encrypted; whereby the public key of the key pair and the encryption key for the private key are given to a party to a transaction; and the other party receives the encrypted private key and the public key of the transfer wallet; where a copy of the encrypted private key, the public key and the encryption key used to encrypt the private key are placed in storage. Also described is a multi sig implementation.

This transfer assistance device is provided with a loadable region setting unit (103), a loading position calculation unit (104), and a presentation unit (105) or a control unit (107). The loadable region setting unit (103) divides a cargo room into a plurality of loading regions on the basis of information relating to a worker or a work apparatus (106) for loading a cargo, and sets a loadable region for the cargo to be loaded from among the plurality of loading regions on the basis of information on the cargo to be loaded and information on the state in the cargo room. The loading position calculation unit (104) sets, to the loadable region, a recommended loading position which is a recommended position for loading of a newly measured cargo. The presentation unit (105) presents the recommended position to the worker. The control unit (107) controls the work apparatus (106) on the basis of the recommended position.

Systems and methods for determining and executing complex multi-route transfers of digital assets are described. A multi-route transfer of a source asset for a destination asset may be determined by analyzing a graph representing a plurality of assets and exchanges to determine a plurality of unique transfer paths. A transfer path may reflect a direct transfer in which the source asset is swapped for the destination asset, or it may reflect a series of intermediate transfers in which the source asset is swapped for intermediate asset(s) that are swapped for the destination asset. Dynamic programming can be used to select the transfer paths to include in the multi-route transfer, how to distribute swaps across those transfer paths, and how to distribute swaps for each transfer of a transfer path—thereby optimizing for the total amount of the destination asset received while accounting for transaction fees.

The invention discloses a cross-platform accounting automatic carry-over system which comprises a front-end application module, a data synchronization engine module, an intelligent carry-over module and a data analysis and safety guarantee module. The front-end application module is in real-time two-way communication with the rear end through WebSocket, monitors account operation of a user, and packages the account operation into a JSON data packet containing an operation type, a timestamp and a data fingerprint; the data synchronization engine module receives the operation data, stores the operation data into a database after standardization conversion and integrity verification, and pushes the operation data to a target platform in real time; a neural network model based on historical data and artificial sample training is built in the intelligent carry-over module, data needing to be carried over are automatically screened, and compliance subject conversion is executed; the data analysis and security assurance module generates a multi-dimensional financial statement, and data security is ensured by adopting encryption, redundant storage and abnormal monitoring; through the automatic processing flow, the efficiency of account transfer is improved, and manual intervention and errors are avoided.

Systems and methods for determining and executing complex multi-route transfers of digital assets are described. A multi-route transfer of a source asset for a destination asset may be determined by analyzing a graph representing a plurality of assets and exchanges to determine a plurality of unique transfer paths. A transfer path may reflect a direct transfer in which the source asset is swapped for the destination asset, or it may reflect a series of intermediate transfers in which the source asset is swapped for intermediate asset(s) that are swapped for the destination asset. Dynamic programming can be used to select the transfer paths to include in the multi-route transfer, how to distribute swaps across those transfer paths, and how to distribute swaps for each transfer of a transfer path-thereby optimizing for the total amount of the destination asset received while accounting for transaction fees.

A secure transfer system for digital aircraft data includes a data producer system configured to generate a data capsule at each data production and a data consumer system. The consumer system is configured to retrieve each capsule to extract an identifier, a refresh indicator, a functional data packet, and an integrity control result. It is configured to check the integrity of the data in the capsule by establishing a new integrity check result from the identifier, the refresh indicator, and the functional data packet retrieved from the capsule and comparing the new integrity check result to the integrity check result of the capsule. The data capsule is in an integrity state when the new integrity check result matches the integrity check result retrieved from the capsule.

The embodiment of the invention provides a tracking information transmission system and method, a storage medium and an integrated circuit product, the system comprises at least one device and a plurality of routing nodes, the device is used for generating or processing a transaction message, and setting a flag bit in a target transaction message meeting a preset condition to be valid, and the routing node is used for routing the transaction message and generating tracking information of the target transaction message under the condition of identifying that the flag bit is the effective target transaction message. According to the method and the device, the transaction message can be dynamically marked, and the tracking information is automatically generated in the node, so that the problem that the complete routing path of the transaction message is difficult to track in real time when adaptive routing is adopted in the related technology is solved, the routing path of the transaction message is restored, a transaction transmission fault point is efficiently positioned, and the service transmission efficiency is improved. And the maintainability and the performance debugging efficiency of the system are improved.

The invention discloses a protection method and device for sensitive information of a payment switching system, equipment and a medium, and belongs to the field of data protection. The method comprises the steps that a first payment message sent by an acquirer system is received, the first payment message comprises sensitive information, and the sensitive information comprises a payment card number and non-card-number information; generating a confusion factor by using a coding algorithm according to at least part of characters in the card number of the payment card; respectively processing the card number information and the non-card-number information of the payment card by using a confusion factor and a hash algorithm to obtain a first character string corresponding to the card number of the payment card and a second character string corresponding to the non-card-number information; and sending a second payment message comprising the first character string and the second character string to the payment switching system. According to the embodiment of the invention, the security of the sensitive information in the payment process can be improved.

The cargo transfer system comprises a first transport device and a second transport device, the first transport device and the second transport device are installed in the first storage room and the second storage room which are adjacent respectively, and the first storage room and the second storage room are provided with separation walls. A transportation channel is arranged on the separation wall, and the first storage room and the second storage room are communicated through the transportation channel; the temporary isolation plate can enable the transportation channel to be in a closed or opened state; the first transportation device and the second transportation device are provided with a transfer device, the transfer device is located in the first storage room, and when the transportation channel is in an open state, the transfer device can transfer goods on the first transportation device to the second transportation device; by means of the structure, goods can be rapidly transferred between the two storage rooms, the isolation plate can be closed in time when an accident occurs in a certain storage room, the accident is prevented from spreading between different storage rooms, and losses caused by the accident are reduced.

A transport system is provided with: transport bodies (20, 21) that move on transport paths (10, 11, 12, 13); a sensor unit (70) that acquires data relating to the transmission body; and a recognition unit (81) that recognizes, from the data acquired by the sensor unit, stop-time data generated by the stop of the transport body.

Examples of the present disclosure describe systems and methods for a bi-directional application programming interface (API) capable of implementing operational action functionality in a one-way transfer (OWT) system. In an example, a data request is received at a first computing environment of an OWT system, where the data request is associated with a first one-way data stream having a transaction identifier. A first set of policies associated with the first computing environment is applied to the data request, and the data request is communicated to a second computing environment of the OWT system. The second computing environment retrieves response data for the data request, wherein the response data is associated with a second one-way data stream having a transaction identifier. A second set of policies associated with the second computing environment is applied to the response data, and the response data is communicated to the first computing environment to complete the data request.

A stocker including a main frame, and a plurality of storage units disposed in a vertical direction and a horizontal direction in the main frame. Each of the plurality of storage units includes a sliding shelf that is withdrawable in both forward and backward directions in a depth direction of the main frame. The sliding shelf directly loads an article from an overhead hoist transport (OHT) vehicle or directly unloads the article from the sliding shelf to the OHT vehicle.

The invention provides a logistics intelligent sensing storage transfer system and method, and the system comprises an environment sensing layer which is disposed in a storage space, and is used for collecting the dynamic sensing data of a storage environment in real time; the intelligent decision-making layer is in communication connection with the environment perception layer and is used for receiving the dynamic perception data and generating a dynamic allocation instruction and a transfer task sequence based on a preset storage digital twin model and a real-time optimization algorithm; and the autonomous transfer layer is in communication connection with the intelligent decision-making layer, comprises at least one piece of transfer equipment with autonomous navigation and operation capabilities, and is used for receiving the transfer task sequence and finishing transferring and carrying of the goods according to the dynamic distribution instruction. According to the system, through deep fusion of digital twinning and real-time optimization, storage is converted from static management to dynamic intelligence, the resource utilization rate is optimized, expandability is enhanced, and the system can adapt to complex and changeable logistics requirements.

A transfer system includes a plurality of transferring bodies, a transfer path on which the transferring bodies moves, and a controller that assigns identification information to each of the transferring bodies to manage the transferring bodies and controls each of the transferring bodies. On the transfer path, a reference point is set as a reference of position in a forward direction. The controller assigns, to a first transferring body that is one of the transferring bodies and is closest to the reference point in the forward direction, and assigns, to each of second transferring bodies that are the transferring bodies other than the first transferring body, second identification information as the identification information in sequence from the first identification information in an order of arrangement of the second transferring bodies in the forward direction or a backward direction.

Examples of the present disclosure describe systems and methods for implementing a software-based security abstraction engine in a one-way transfer (OWT) system. In examples, data is received at a first device in the OWT system. A first set of policies is identified based on a dataflow identifier associated with the transfer of the data. A policy engine associated with the first set of policies applies the first set of policies to the data to create digital signatures. The digital signatures are evaluated by the security abstraction engine to determine whether the set of digital signatures is valid. If the digital signatures are determined to be valid, a second set of policies is applied to the data. The data is then transmitted to a second device or destination in the OWT system based on the dataflow identifier.

This invention provides a transfer system capable of efficiently transferring, by use of a bidirectional conveyor, a transfer target between different points. The transfer system include a control device that: executes, in an alternate manner, a first mode in which a transfer target on a conveyor mechanism of a bidirectional conveyor device is transferred in a first direction and a second mode in which a transfer target is transferred in a second direction reverse to the first direction; and continues the first mode according to a predetermined first period defining a duration of the first mode.

This application discloses a method for transmitting payment information using a mobile terminal. The method includes transmitting the mobile payment card number (used for offline mobile payment) and the seller terminal ID from the user terminal to a payment information transmission server. The payment information transmission server then transmits a payment information transmission message, including the mobile payment card number, to the seller terminal. This allows for payment processing through a single user interface, even with various payment service providers offering different payment methods. This application also provides a corresponding payment information transmission system using a mobile terminal.

The invention provides a hotline-oriented work order full-process intelligent circulation system, and belongs to the crossing field of artificial intelligence and digital government affair technologies. According to the method, the whole process of a hotline work order is disassembled into sub-tasks which are cooperatively completed by six special intelligent agents, namely work order acceptance and semantic understanding, classification and routing, dispatching and scheduling, disposal execution, result checking and feedback, and citizen evaluation and data analysis. The intelligent agents communicate and cooperate based on an MCP protocol, a tool is called in a unified mode through an MCP server, a knowledge base is inquired, context is managed, and accurate understanding, efficient dispatching, closed-loop disposal and intelligent analysis of citizen appeals are achieved. The system effectively solves the problems of dependence on manpower, low efficiency, unsmooth circulation, difficulty in tracing and the like in traditional hotline work order processing, and realizes automation, intellectualization and collaboration of the whole process of work order processing.

The invention discloses a payment method and device, equipment, a storage medium and a program product. The method comprises the steps of obtaining card information and recharging account information in response to a card swiping payment operation of a user; when the graphic code is scanned by a code scanning device, a recharging transaction request generated based on a first transaction message and sent by a first switching system is received, and the first transaction message is generated by an acquiring system based on card information, recharging account information and payment amount sent by the code scanning device; and in response to the recharging transaction request, generating a recharging transaction message based on the card information, the recharging account information and the payment amount and sending the recharging transaction message to a second switching system, so that the second switching system recharges the recharging account from the first type of payment card based on the recharging transaction message, obtains a recharging result and sends the recharging result to the first switching system, and enabling the first transfer system to transfer accounts from the recharge account to the merchant based on the recharge result. According to the embodiment of the invention, normal domestic payment of the overseas payment card can be realized when the payment mode is not matched with the collection mode.

To highly efficiently hand over commodities.SOLUTION: A commodity handover system comprises housing means, storage means, and notification means. The housing means is disposed in a store to house commodities for each order. The storage means stores information on the order of the commodities in association with the position information of the housing means that houses the commodities. The notification means issues a notification that the commodities housed in the housing means indicated by the position information can be handed over.SELECTED DRAWING: Figure 2

This invention discloses an intelligent AGV transfer system, method, electronic device, and storage medium for metal metallurgy, relating to the field of intelligent control technology. The server auctions off tasks to be assigned and publishes them to each AGV. The target AGV calculates the estimated first transportation cost for completing its local tasks based on the layout diagram and local task list, and calculates the estimated second transportation cost for both the local tasks and the tasks to be assigned based on the layout diagram, local task list, and tasks to be assigned. It then calculates the bid value based on the first and second transportation costs. The server assigns tasks to be assigned according to the auction rules and the bid value. By combining the target AGV's own first transportation cost with the second transportation cost considering the entire transfer system, and the server assigns tasks to be assigned based on the auction rules and the bid values ​​of each AGV, multi-objective optimization is achieved, avoiding uneven task load and improving the overall efficiency of the transfer system.

This invention discloses a transfer system and calibration method for achieving precise and repeatable positioning of multi-station equipment, relating to the field of transfer and calibration technology. It addresses the problem that existing devices cannot freely switch between working and storage positions, and that the working position of the equipment cannot be precisely and repeatedly positioned. The transfer system features paired rigid pre-embedded supports installed on a test foundation, with fixed support frames horizontally mounted on the corresponding rigid pre-embedded supports. A lifting railcar operates on a straight track at the working position, placing both sides of a rigid bracket onto the corresponding fixed support frame twice. A calibration device performs two calibrations on the rigid bracket and fixed support frame within a constructed spatial coordinate system. The positioning device locks after the calibration device completes the first calibration. When the calibration readings from both calibrations are less than a preset value, the lifting railcar, carrying the rigid bracket, moves it to the straight track at the storage position. This system and method achieve precise and repeatable positioning and transfer of multi-station equipment, demonstrating strong practicality.

The invention relates to a high-end glass bottle deep processing production line logistics system which comprises a non-clean area feeding and discharging transfer system, a thousand-level clean area feeding and discharging transfer system, a hundred-level clean area feeding and discharging transfer system and delivery windows. The non-clean area feeding and discharging transfer system, the thousand-level clean area feeding and discharging transfer system and the hundred-level clean area feeding and discharging transfer system are arranged in a non-clean area, a thousand-level clean area and a hundred-level clean area correspondingly, and the first delivery window is arranged between the non-clean area feeding and discharging transfer system and the thousand-level clean area feeding and discharging transfer system. The second delivery window is arranged between the thousand-level clean area feeding and discharging transfer system and the hundred-level clean area feeding and discharging transfer system. By adopting the logistics system for the high-end glass bottle deep processing production line, starting and ending points of carrying can be changed at any time, process equipment can be increased and decreased at any time, a process route is convenient to adjust, whole-process automation is achieved, manual participation is not needed, efficiency and glass bottle quality are improved, and labor cost is reduced.