21 results about "Object store" patented technology

The disclosed embodiments relate to reduction of computational resources of an electronic trading system required for management of electronic tradeable instruments via instantiation of data objects in a memory including both data inherited from and data linked to a master data object stored in an external data structure or database. The combination of both inherited and referenced attributes may uniquely define each instance to enable the electronic trading system to manage and process transactions for a large number of tradeable instrument variations with minimal computational resources. Thereby, the disclosed embodiments enable the listing en mass and scheduling of a large number of financial instruments for trading to cover, for example, various currency patterns, pricing sources and fixing times.

The present disclosure provides a page layout method, device and equipment and storage medium, the method comprises the following steps: first receiving at least one object storage unit corresponding to a page to be laid out and determining a target object storage unit, then determining whether the number of display objects stored in the target object storage unit is greater than a preset number threshold, if it is determined that the number of display objects is not greater than the preset number threshold, the display objects in the target object storage unit are stored in the object storage unit corresponding to the adjacent previous text line, or, based on the display order, the preset first number of display objects in the object storage unit corresponding to the adjacent previous text line are stored in the target object storage unit. It can be seen that the present embodiment can optimize the page layout in the case that the number of display objects stored in the target object storage unit is not greater than the preset number threshold, improve the effect of page display, and thus improve the viewing experience of the user.

A method and system for generating an Application Programming Interface (API) path utilizing code detection is presented. The method includes detecting a resource, wherein the resource is deployed in a cloud computing environment; detecting at least a code object of a plurality of code objects stored in a code repository, from which the resource is deployed; inspecting only the at least a code object from which the resource is deployed for a hint of an API path; generating a potential API path based on the hint of the API path; executing a network access instruction in the cloud computing environment based on the generated API path; and determining that the potential API path is a validated API path based on a response of executing the network access instruction.

Methods and systems, including computer-readable media, are described for speeding up data transfer between an object repository and a hardware accelerator operating in different availability zones. The methods include receiving a request from a hardware accelerator unit in a first availability zone to write a data object to an object repository in a second availability zone. The methods include transmitting the data object to a temporary storage location of the first availability zone, and updating a location record associated with the data object. After a time period, the methods include initiating a data transfer of the data object from the temporary storage location to the object repository in the second availability zone and further updating the location record associated with the data object.

In one implementation, a method of changing a state of an object is performed at a device including an image sensor, one or more processors, and non-transitory memory. The method includes receiving a vocal command. The method includes obtaining, using the image sensor, an image of a physical environment. The method includes detecting, in the image of the physical environment, an object based on a visual model of the object stored in the non-transitory memory in association with an object identifier of the object. The method includes generating, based on the vocal command and detection of the object, an instruction including the object identifier of the object. The method includes effectuating the instruction to change a state of the object.

A computer-implemented method of packaging one or more module source files for an infrastructure as code, IaC, module, wherein the IaC module is not able to store binary files, the method comprising: parsing one or more module source files to identify at least one relative path to a binary file; for each relative path identified, adjusting the one or more module source files by replacing the relative path with an absolute path to an object stored in a cloud-based object storage, the object containing content from the binary file; and packaging the one or more adjusted module source files into the IaC module.

An inventory control system comprises an object storage device, a display device, and one or more processors. The storage device includes several compartments, each with multiple locations for storing objects. The display device shows information about the storage device. The processors create a descriptive database of the objects stored in the system. The processors retrieve keywords that identify the objects stored in the locations of one of the compartments and generate a text block based on those keywords. On the display device, the processors show a representation of the storage device's compartments, with the text block applied to the selected compartment.

This application provides a method and related apparatus for processing the attributes of a game object. The method includes: for a game object storing a first item to the game's shared warehouse through the second partition item page of the game's second partition; the game object performing a trigger operation on the item collection control in the first partition game page to display the first partition item page, and performing a trigger operation on the first item in the first partition item page to display the shared warehouse page; performing an equip operation on the first item in the shared warehouse page, and prompting the game object with attribute enhancement information for equipping the first item; this method, by triggering the first item to the shared warehouse page and equipping the first item, enables the game object to quickly equip the first item obtained in the first partition of the game directly in the second partition of the game, thereby quickly improving the attributes of the game object after switching from the first partition to the second partition of the game.

To provide multi-table and multi-query transactions in a data lakehouse. [Solution] A transaction targeting an object store employing the Open Table Format (OTF) can be detected by the database execution engine. The database execution engine then performs a decision step to determine which OTF extension level to apply to the detected transaction. Based on the decision step, the database execution engine then applies one or more OTF extension levels to the transaction. The database execution engine then ensures that the transaction is processed with the applied one or more OTF extension levels. The database execution engine then returns the result of the transaction processing to the computing device.

A method and system for dynamic storage scaling based on automatically parallelizing access of names and data across multiple nodes or micro object stores (MOSs) is provided. A dynamic storage scaling device cluster is provisioned for a particular level of parallelism (e.g., N MOSs) when the cluster is created. The N MOSs may initially reside in a few physical servers (e.g., one server). When the data distribution causes peak resource usage of the physical servers, new server(s) can be added. Some micro object stores (MOSs) are moved to the new physical server(s) through a meiosis process. The storage devices associated with the moved MOSs are unmounted from the original servers and mounted to the new server(s). The meiosis continues until the cluster grows to full capacity. The scaling is dynamic and efficient since no data copy is involved in the meiosis and the initial resource cost is optimized.

Techniques are described for storing and processing network data for responding to queries for such network data. Operational network data is separated from configuration network data so that they can be processed and stored separately. A sliding window cache is used to continually, temporarily store network data objects having time stamps falling within the time range of the sliding window cache. Network data objects stored within the sliding window cache are then moved to computer memory for storage and later retrieval. In response to a query for network data, network data objects can be retrieved from the sliding window cache and also from the computer memory based on time stamps of the network data objects and on the time range of the query.

Embodiments of the present application provide a data compression method and a data reading method, a device, a storage medium and a program product. In the embodiments of the present application, for each index entry in an address mapping table, common address attribute information between data objects stored by each index entry is identified, compression strategy information for the address mapping table is determined based on the identified common address attribute information, for a plurality of address fields included in the index entry in the address mapping table, a compression manner in the compression strategy information is used to perform data compression on a corresponding address field included in the index entry, thereby reducing the storage space occupancy of the index entry, and thus reducing the storage space occupancy of the entire address mapping table and saving storage space. Further, by compressing the address mapping table through the common address attribute information, a target compression manner can be accurately determined for compressing a target address field in the index entry, thereby reasonably reducing the memory occupancy of the index entry.

A method includes obtaining, using a human-machine interface (HMI), a first input corresponding to a selection of an image of a workpiece stored in a relational database and one or more workpiece parameters, where the one or more workpiece parameters include sequence information, workpiece option information, operator instruction information, or a combination thereof. The method includes obtaining, using the HMI, a second input corresponding to a selection of one or more fixture indicators and one or more fixture indicator parameters. The method includes superimposing, using the HMI, the one or more fixture indicators on the image of the workpiece based on the second input to generate a workpiece instruction image and generating an object from among a plurality of objects stored in the relational database based on a predefined class associated with the plurality of workpieces, the first input, and the workpiece instruction image.

A technique synchronizes garbage collection (e.g., lifecycle management) of point-in-time images or snapshots among multiple multi-cloud snapshot technology (MST) services of an archival storage system. Instances of the MST services are configured to provide storage and retrieval of large numbers (amounts) of snapshots (e.g., of recovery points) of application workloads stored on one or more shared buckets of an object store. The technique described herein allows performance of garbage collection operations on the snapshots in parallel among the multiple MST instances without communication or interference among the instances and in a manner that ensures correctness of the operations.

The application discloses a virtual function calling method and device, a computing device, a storage medium and a program product, and relates to the technical field of computers. The virtual function calling flow in a shared memory scenario is improved, the data structure of an object is completely reserved in the shared memory, and various features of the virtual function are unlimitedly used. The method comprises the following steps: a computing device responds to a first process to initiate a calling request for a target virtual function through an object stored in a shared memory, determines a target data type, the target data type is a data type to which the object belongs when the object is initialized, the computing device acquires a first virtual function table pointer corresponding to the target data type according to a first correspondence relationship, the first correspondence relationship is a correspondence relationship between the first virtual function table pointer and the data types corresponding to each first virtual function table pointer, which is determined according to an address space range corresponding to the first process; and the computing device calls the target virtual function through a virtual function table pointed to by the first virtual function table pointer.

This application relates to the field of smart home appliance technology, specifically to a method, device, computer equipment, and storage medium for identifying objects stored inside a refrigerator. The method is applied to a refrigerator control system equipped with an image acquisition device, where the drawers inside the refrigerator are located within the field of view of the image acquisition device. The method includes: acquiring field-of-view images within a preset period sent by the image acquisition device; calling a pre-trained target image recognition model to identify the position parameters of each drawer in the field-of-view images; determining the height change value of a tracking bounding box based on the position parameters in multiple consecutive frames of field-of-view images; calculating the height change rate of the tracking bounding box based on the acquisition period and height change value of the multiple consecutive frames of field-of-view images; and determining the drawer's open / closed state based on the relative magnitude of the height change rate and a preset speed threshold. This provides a drawer state recognition method that is simple in structure, more convenient for recognition, lower in cost, more stable and reliable, and easy to install.

Systems and methods for cloud object storage and versioning are provided. In an example, a cloud object storage and versioning system (COSVS) coordinates insertion of metadata into a database and data into an object store in a compute infrastructure, the compute infrastructure including the database, the object store, a data source, and a client application interacting with the data source. The COSVS has an architecture comprising a client API layer confined to provide an interface to the client application to facilitate storing or restoring of items originally obtained from the data source, and query different versions of item content originally obtained from the data source; a deduplication layer to deduplicate item content and store items originally obtained from the data source devoid of external item metadata or semantic relations among items; and a packing layer confined to store and retrieve bytes of item or object content.

According to one embodiment, an electronic device (201) may comprise: a display (210); a first memory (221) having a first characteristic; a second memory (223) having a second characteristic different from the first characteristic; an application processor (231) for determining, from among the first memory (221) and the second memory (223), a memory area in which image data corresponding to an application is to be stored; and an offloading processor (233). The offloading processor (233) can be configured to: identify an event for displaying a plurality of objects including a first object and a second object; on the basis of a memory address corresponding to the first object, display, on the display (210), the first object stored on the first memory (221); and, on the basis of a memory address corresponding to the second object, display, on the display (210), the second object stored on the second memory (223).

Example implementations relate to operations in a storage system. An example includes loading a container index into memory to match against new data units to be stored in a storage system. The example also includes, in response to loading the container index into the memory to match against the one or more new data units: reading metadata in the container index to identify a container entity group (CEG) object stored in the storage system; identifying a subset of unreferenced data units; in response to a determination that a size of the subset of unreferenced data units is greater than a threshold, storing a subset of referenced data units in a pending CEG object loaded in the memory; and after storing the subset of referenced data units in the pending CEG object, deleting the identified CEG object from the storage system.

Various embodiments of the present disclosure provide a network linking technique that improves the functionality of a computer in various aspects. The techniques comprise responsive to an exchange request, receiving, originating from a member platform within the member computing ecosystem, a linking code request comprising a member-specific identifier corresponding to the member platform; providing, to an internal service, the linking code request to generate an ephemeral transport object storing a linking code and a link reference corresponding to the member-specific identifier and the linking code; providing the linking code to the member platform; receiving, originating from the another member platform within the member computing ecosystem, a linking request comprising the linking code; and authorizing, using the second member platform, the exchange request based on the linking code.

A data management platform (DMP) operates as an abstraction layer for observability of telemetry data in a cellular network. The DMP collects telemetry data from different data sources in different network domains and stores the telemetry data in an object store. A crawler generates a data catalog from the telemetry data by automatically discovering, indexing, and cataloging the telemetry data. The data catalog provides observability to a plurality of subscriber services without requiring direct connections between the subscriber services and the data sources. The DMP receives requests from a first subscriber service and a second subscriber service to access the telemetry data for developing respective services on top of the abstraction layer. The DMP provides the telemetry data to the subscriber services via the data catalog while isolating connections to the data sources, enabling the subscriber services to develop respective services without duplicating data collection efforts.