29 results about "Operator interface" patented technology

The invention discloses a full-process automatic unit testing method, device and equipment for an AI chip operator, a medium and a product. The method comprises the following steps: generating an engineering directory and a test framework design document through an architect agent according to operator interface information and a DSL operator design document knowledge base; the method comprises the following steps of: generating a test code for unit test by a software engineer agent according to a test framework design document and a domain knowledge base, and storing the test code in an engineering directory; multiple rounds of interaction are carried out through a software engineer agent and a test engineer agent, a test code is gradually corrected into a target test code which can be successfully compiled, a generated test case can be successfully executed and the generated test case meets the code coverage rate requirement, and a target operator code passing a unit test is obtained; and submitting the target operator code and the target test code which pass the normativity check to a code warehouse through a code auditing engineer agent so as to automatically realize the whole-process unit test of the AI chip operator.

The invention relates to the technical field of artificial intelligence chips, and provides an operator performance evaluation method and device, equipment, a storage medium and a program product, and the method comprises the steps: obtaining a configuration file corresponding to a to-be-evaluated operator, enabling the configuration file to comprise a hardware configuration file and an operator configuration file, carrying out the instantiation of a global object based on the configuration file, obtaining a hardware platform instance and an operator instance; the operator instance inherits a base class in a unified manner, and the base class is a standardized interface obtained by abstracting computational logic of performance indexes of operators; the global object is a class object obtained by performing interface abstraction on a hardware platform interface and an operator interface; according to the performance index of the base class calculation operator instance when the base class calculation operator instance runs on the hardware platform instance, the evaluation result of the theoretical performance of the to-be-evaluated operator is obtained, multiplexing of the calculation logic of the operator performance index is achieved, the calculation logic of the operator performance index does not need to be rewritten for different hardware platforms, and the calculation efficiency is improved. And the evaluation efficiency of operators across hardware platforms is improved.

The invention discloses an algorithm operation method and device, equipment, a medium and a product, and the method comprises the steps: responding to operation triggering of a first algorithm model, obtaining model input data, analyzing a model structure, and obtaining a sub-algorithm module and a model type in the first algorithm model; a first operator interface is obtained based on the mapping relation between the calculation mode and the operator interface, and the first operator interface corresponds to the first calculation mode of the sub-algorithm module; obtaining a first operator list through the first operator interface, and determining at least one first operator in the first operator list; the first operator is determined based on the operation environment information of the first algorithm model, and a model input shape and a model type corresponding to the model input data; and obtaining and operating the first operator to operate the first algorithm model. According to the technical scheme, a unified operator interface can be provided, operators matched with the operation environment are automatically distributed, the operator use threshold is lowered, and therefore the algorithm operation efficiency is improved.

A medical instrument system may comprise a control system, a display device, and an operator interface device. The control system may display an interaction panel including a plurality of interaction elements on the display device. The control system may also constrain motion of the operator interface device to translational motion in a haptic plane with a haptic plane constraint while the interaction panel is displayed. The control system may also determine a cursor position that corresponds to a position of a selection portion of the operator interface device and determine an element type for a first interaction element at which the cursor position is located. The control system may also remove the haptic plane constraint on the operator interface device if the element type is a three-dimensional rotation type.

An agricultural harvester incorporates a navigation system that controls its movement to follow a guide line. The harvester is positioned at a desired location to engage with the crop. An operator interface is created using a displacement actuator. An operator input to the displacement actuator is detected, and a line / path displacement processor moves one or more guide lines based on the position and orientation of the harvester and the position of the crop rows.

The invention discloses a polyphonic ringtone automatic replacement method and device, equipment and a medium, and the method comprises the steps: periodically calculating the popularity value of each polyphonic ringtone in a polyphonic ringtone library based on pre-configured user preference information; screening a target polyphonic ringtone according to the popularity value for the user who has started the automatic replacement function at a preset timing trigger moment, and generating a polyphonic ringtone replacement task; and then, writing the polyphonic ringtone replacement task into a message queue, and asynchronously executing the polyphonic ringtone replacement task by a consumer service in butt joint with the message queue so as to call an operator interface to complete polyphonic ringtone setting. According to the method, the batch tasks are written into the message queue, the back-end consumer service carries out asynchronous consumption, and the operator interface is called for execution, so that the request pressure is effectively dispersed, the stability and reliability of the system in a high-concurrency scene are ensured, the whole process does not need user intervention, and automatic, intelligent and smooth replacement of the polyphonic ringtone is realized. The method can be widely applied to the technical field of polyphonic ringtones.

The embodiment of the application provides a kind of operator calling method of deep learning framework, storage medium and electronic equipment, wherein deep learning framework is the framework of artificial intelligence model, deep learning framework includes front end, back end and adaptation layer, back end maintains with the string name of operator as key, with the operator interface function pointer of adaptation layer as value's register table, front end is used to dynamically load the operator library of back end;Method includes: using the string name of the operator to be called of front end to query register table, wherein the operator to be called belongs to the target operator library of target chip;In the case where the operator interface function pointer of the operator to be called is found, the operator interface function of the operator to be called in adaptation layer is called using the operator interface function pointer of the operator to be called, to call the operator function of the operator to be called in target operator library.By the present application, the operator calling method of deep learning framework in the related art is solved Adaptation layer low universality problem.

The invention provides a boron neutron capture therapy target control system based on an EPICS architecture. The boron neutron capture therapy target control system comprises an equipment control level, an input and output controller IOC and an operator interface OPI which are connected in sequence. The equipment control level is used for monitoring and controlling physical equipment of the target system through a programmable logic controller (PLC); the input and output controller IOC is used for running a distributed real-time database and an equipment driving program so as to perform data exchange and communication between the equipment control level and the operator interface OPI; and the operator interface OPI is used for providing a graphical interface so as to display real-time data, state and alarm information of the system, and receiving an operation instruction. The purposes of high integration level and good real-time performance are achieved.

A system and method including a scraper may include an operator training routine using in-cylinder position sensing to notify the operator via an operator interface (e.g., mounted onboard display, smartphone, etc.) when they are doing something potentially damaging to one or more scraper components or otherwise injecting inefficiency into work operations. Audible and / or visual notifications may for example be enabled for operators of / below a specified skill level, for specified movement speeds, etc. In an embodiment, to utilize advanced automation capabilities of in-cylinder position sensing, a calibration sub-process is executed to specify a location of the ground plane. The scraper ground plane calibration is requested through an operator interface and prompts lowering of the blade to the ground. Once the blade is detected on the ground plane, e.g., using measured movement characteristics of the blade to determine that the blade has stopped, the in-cylinder position sensor reading is recorded.

A non-destructive test apparatus can include a scanner assembly configured to encode movement in, for example, one or two directions. The scanner assembly comprising a carriage comprising one or more respective wheels oriented to rotate in a circumferential scan direction, the carriage housing or otherwise guiding a transducer probe assembly. A first encoder can be configured to generate a first signal representative of displacement of the carriage in the first direction, and the scanner assembly can also include at least one wheel can be oriented to rotate in an indexing direction, where a second encoder is configured to generate a second signal representative of displacement of the carriage in the second direction in response to rotation of the at least one wheel oriented to rotate in second direction. An operator interface on-board the scanner assembly can receive user input and contemporaneously present a status indication to guide inspection.

Embodiments of the present disclosure relate to a visualized operator interface for a technical system. A method of controlling a visualized operator interface (200) is proposed, the visualized operator interface (200) comprising a plurality of predefined areas (210), the plurality of predefined areas (210) comprising one or more monitoring areas configured to display a visualized element representing a current state of a technical system (290). According to the method, it is determined (110) that one of the monitoring areas is to be prioritized; and an incomplete visibility reduction (140) is initiated in at least one other area of the visualized operator interface, wherein the prioritized monitoring area is not affected by the visibility reduction.

The invention relates to the technical field of robot control, and discloses a post-disaster rescue robot control method and system, and the method comprises the steps: continuously collecting the pressure distribution data between a robot and a supporting surface and the posture data of a robot body; performing real-time analysis on the pressure distribution data and the attitude data to detect whether an unexpected trend indicating instability of the supporting surface or unbalance of the attitude of the robot exists or not; when the unexpected trend exists, adjusting operation is executed according to the unexpected trend, and the adjusting operation comprises adjusting the driving torque of the robot or adjusting the gravity center position and / or posture of the robot; and reporting the collected pressure distribution data and attitude data, the detected unexpected trend and the adjustment operation to a remote operator interface. According to the method, tiny changes generated by interaction between the robot and the environment can be sensed in real time, adjustment is carried out in time, secondary dangers induced by behaviors of the robot are effectively avoided or relieved, and the rescue efficiency and safety are improved.

A system (1100) for prioritizing vehicle operator (205) and vehicle requirements (1000) over a secure wireless network (80) is disclosed herein. The system (1100) includes a connected vehicle device (135), an operator interface device (110) configured to access data from the CVD (135), and at least one off-vehicle source (70) selected from at least one database, at least one cloud source, or at least one physical structure with a communication device. The system (1100) is configured to prioritize one or more of the instruction sets according to configurable constraints.

The invention relates to a software-supported method for guiding an operator in the graphic industry, which transmits one or more operating steps to the operator by means of at least one computer (6, 8, 9a) via an operator interface (9b), in particular optically and / or acoustically, wherein the at least one computer (6, 8, 9a) receives data from one or more printing jobs, prepares the data of the printing jobs for processing by the at least one printing stock processor (9), and calculates manual operation steps in the process according to attributes of the printing stock processor (9) which processes the printing jobs. The method is characterized in that the operating steps which need to be manually executed together with the execution time are optically and / or acoustically transmitted to an operator of the printing substrate processing machine (9) through an operator interface (9b).

A system and method including a scraper may include an operator training routine using in-cylinder position sensing to notify the operator via an operator interface (e.g., mounted onboard display, smartphone, etc.) when they are doing something potentially damaging to one or more scraper components or otherwise injecting inefficiency into work operations. Audible and / or visual notifications may for example be enabled for operators of / below a specified skill level, for specified movement speeds, etc. In an embodiment, to utilize advanced automation capabilities of in-cylinder position sensing, a calibration sub-process is executed to specify a location of the ground plane. The scraper ground plane calibration is requested through an operator interface and prompts lowering of the blade to the ground. Once the blade is detected on the ground plane, e.g., using measured movement characteristics of the blade to determine that the blade has stopped, the in-cylinder position sensor reading is recorded.

In order to improve the cost efficiency and heating efficiency of a structure, an induction hob device (10a) is proposed, having at least one induction unit (12a, 12e) which has at least two annular winding portions (14a, 16a;14e, 16e, 18e) which are arranged concentrically with respect to one another, at least one operator interface (20a; 20b; 20c; 20d), and a control unit (22a) designed to operate the winding portions (14a, 16a;14e, 16e, 18e) with respective heating power densities, which can be variably adjusted relative to one another, in at least one operating state, wherein the heating power densities can be set on the operator interface (20a; 20b; 20c; 20d) on the basis of at least one operator input.

A machine (100) includes a frame (110), a plurality of traction devices (116) supporting the frame (110), an engine (118) and an operator station (120) mounted to the frame (110), an implement system (130) configured to move a work tool (150) to a desired position, a position sensor (230), a tilt-rotation system (160) to move the work tool (150) to a desired orientation, an orientation sensor (260), an operator interface (220), and a control module (210). The control module (210) is configured to receive a model of the work tool (150), receive a boundary input (250) defining a virtual boundary (300), receive signals from the position sensor (230) and the orientation sensor (260), receive implement control inputs (240) from the operator interface (220), determine a position and an orientation of the work tool (150) based on the signals and the model, determine whether the work tool (150) is approaching the virtual boundary (300) based on the position and the orientation, the boundary input (250), and the implement control inputs (240), and automatically prevent the work tool (150) from crossing the virtual boundary (300).

A software-based method for operator guidance in the graphics industry transmits one or more operating steps to an operator via an operator interface, in particular optically and / or acoustically, by using at least one computer. The at least one computer receives data from one or more printing orders, prepares the data of the printing orders for processing by at least one printing material processing machine and thereby calculates manual operating steps as a function of the properties of the printing material processing machine processing a printing order. The operating steps to be performed manually are optically or / and acoustically transmitted to the operator of the printing material processing machine through the operating interface with a time for performance.

Systems and methods include a physical platform having a camera that generates a live video feed from a point of view of the physical platform in a training location. A computing system of the physical platform detects one or more live assets in the live video feed and injects synthetic data into the live video feed based on the one or more detected live assets. Synthesized data for each live asset is generated by combining an operator interface associated with the physical platform and the live video feed including the one or more detected live assets and the synthetic data. The computing system overlays the operator interface onto the live video feed and controls the synthetic data to move in a specified alignment relative to the one or more detected live assets. The synthesized data is displayed on a graphical interface of a display device.

The invention is suitable for the field of computer programming, and provides a chained-call-based Java language LINQ expression implementation method, which comprises the following steps: providing a LinqQuer interface, defining a chained operator, namely, a where operator and a select, and providing type security through a generic T; a user calls a chain operator of the LinqQuery interface to generate an operator tree, wherein the operator tree is used for recording query logic; analyzing the operator tree, executing query according to levels, and returning a result set; the method has the advantages that compared with traditional circulation and condition branch implementation, the number of code lines is reduced by about 40%, readability is remarkably improved, a developer can easily expand a query function through an open operator interface, query logic type check is completed in a compilation period through generic constraint, errors during operation are reduced, and the method is convenient to operate. Unified query of various scenes such as a memory set, database query and file reading is supported.

1. The name of this design product: Machine tool display screen panel with an operating interface. 2. Purpose of this design product: screen for machine tools. 3. The key design point of this appearance design product lies in the content of the software operation interface on the screen. 4. The picture or photo that best illustrates the key points of the design: Main view of Design 1. 5. Designate Design 1 as the base design. 6. Other situations that require explanation refer to the following diagrams: Design 1 The main view is the main interface of the software operation interface. Users click the corresponding buttons according to their needs to enter each interface and perform operations on each interface. In the main view of Design 1, click the "Machine Tool Status" button on the right to enter the Design 1 change state diagram. The main view of Design 2 is the main interface of the software operation interface. Users click the corresponding buttons according to their needs to enter each interface and perform operations on each interface. In the Design 2 main view, click the "Action Monitoring" button on the right to enter the Design 2 change status diagram. The main view of Design 3 is the main interface of the software operation interface. Users click the corresponding buttons according to their needs to enter each interface and perform operations on each interface. In the main view of Design 3, click the "Weekly Production Report" button on the right to enter the Design 3 change status diagram. Design 4 main view is the main interface of the software operation interface. Users click the corresponding button according to their needs to enter each interface and perform operations on each interface. In the Design 4 main view, click the "Smart Bookshelf" button on the right to enter the Design 4 change state diagram. The main view of Design 5 is the main interface of the software operation interface. Users click the corresponding buttons according to their needs to enter each interface and perform operations on each interface. In the main view of Design 5, click the "Video Monitoring" button on the right to enter the Design 5 change state diagram. The main view of Design 6 is the main interface of the software operation interface. Users click the corresponding buttons according to their needs to enter each interface and perform operations on each interface. In the main view of Design 6, click the "System Settings" button on the right to enter the Design 6 Change State Diagram 1; click the "Local Data" button in the Design 6 Change State Diagram 1 to enter the Design 6 Change State Diagram 2. The main view of Design 7 is the main interface of the software operation interface. Users click the corresponding button according to their needs to enter each interface and perform operations on each interface. In the main view of Design 7, click the "System Settings" button on the right to enter the Design 7 change state diagram 1; click the "Language Settings" button in the Design 7 change state diagram 1 to enter the Design 7 change state diagram 2. The main view of Design 8 is the main interface of the software operation interface. Users click the corresponding buttons according to their needs to enter each interface and perform operations on each interface. In the main view of Design 8, click the "System Settings" button on the right to enter the Design 8 Change State Diagram 1; click the "Display Settings" button of Design 8 Change State Diagram 1 to enter the Design 8 Change State Diagram 2. The main view of Design 9 is the main interface of the software operation interface. Users click the corresponding buttons according to their needs to enter each interface and perform operations on each interface. In the main view of Design 9, click the "System Settings" button on the right to enter the Design 9 change state diagram 1; click the "Network Settings" button in the Design 9 change state diagram 1 to enter the Design 9 change state diagram 2. The main view of Design 10 is the main interface of the software operation interface. Users click the corresponding buttons according to their needs to enter each interface and perform operations on each interface. In the main view of Design 10, click the avatar button in the first row on the left to enter the Design 10 change state diagram 1; click the "User Switching Management" button in the Design 10 change state diagram 1 to enter the Design 10 change state diagram 2.

Disclosed herein are features and improvements for a powered industrial vehicle, such as a forklift. In some embodiments, the forklift may have improved geometry and sensors. In some embodiments, the forklift may include an operator interface system for controlling powered industrial vehicles based on the field of view of an operator. In some embodiments, the forklift may include an integrated control system such that the operator cannot perform a certain operation without first performing a different, prior operation and / or such that the operator cannot perform two or more operations simultaneously which would result in unsafe operation. In some embodiments, a virtual reality simulator for the forklift may be provided.

Systems and methods include a physical platform having a camera that generates a live video feed from a point of view of the physical platform in a training location. A computing system of the physical platform detects one or more live assets in the live video feed and injects synthetic data into the live video feed based on the one or more detected live assets. Synthesized data for each live asset is generated by combining an operator interface associated with the physical platform and the live video feed including the one or more detected live assets and the synthetic data. The computing system overlays the operator interface onto the live video feed and controls the synthetic data to move in a specified alignment relative to the one or more detected live assets. The synthesized data is displayed on a graphical interface of a display device.

An agricultural vehicle includes an operator interface configured to receive inputs, one or more vehicle systems, wherein each of the one or more vehicle systems is configured to control one or more functions of the agricultural vehicle, and an electronic control unit (ECU) communicatively coupled to the operator interface and the one or more vehicle systems. The ECU includes processing circuitry and a memory, accessible by the processing circuitry. The memory stores a large language model (LLM) and instructions that, when executed by the processing circuitry, causes the processing circuitry to receive the inputs from the operator interface, provide the inputs to the LLM, receive, from the LLM, an indication that the inputs meet a set of criteria, and transmit one or more commands to the one or more vehicle systems to implement the inputs.

The application is suitable for the field of computer programming and provides a Java language LINQ expression implementation method based on chain calling, which comprises the following steps: providing a LinqQuery interface, the LinqQuery interface defines a chain operator where operator and select, and type safety is provided through a generic T; a user generates an operator tree through calling the chain operator of the LinqQuery interface, the operator tree is used for recording query logic; the operator tree is parsed, query is executed in layers, and a result set is returned; the application has the beneficial effects that compared with traditional loop and conditional branch implementation, the number of code lines is reduced by about 40%, the readability is significantly improved, through an open operator interface, a developer can easily extend query functions, through generic constraints, type checking of query logic is completed at the compilation stage, runtime errors are reduced, and unified query of various scenes such as memory collection, database query and file reading is supported.

A system can include a pushback tractor and a remote control device. The remote control device can include an operator interface, an indicator, and one or more processing circuits. The one or more processing circuits can establish communication with the pushback tractor, cause the indicator to provide a first indication of establishment of the communication with the pushback tractor, and control operation of (i) a prime mover of the pushback tractor and (ii) a capture system based on inputs received via the operator interface.

The embodiment of the application provides a method, device and related equipment for implementing an operator based on a deep learning framework, which comprises the following steps: receiving a user-defined operator input by a user into the deep learning framework through an operator interface, wherein the user-defined operator comprises one or more function operations; scanning a plurality of native operators in a calculation graph to obtain a target native operator, wherein the target native operator corresponds to the user-defined operator; replacing the target native operator in the calculation graph in the deep learning framework with the user-defined operator; and loading the calculation graph comprising the user-defined operator to perform training. Through the embodiment of the application, the user-defined operator can be implemented through the operator interface, without the need of invasive modification on the native network of the deep learning framework, so that the openness of the user-defined behavior is facilitated.

An automatic off-road route control system automatically controls a prime mover to travel a desired distance. Operator actuation of a manual override actuator is detected. Based on the detected actuation, the automatic off-road route control system controls the prime mover to travel a manual override distance. In one example, a configuration system provides an operator interface through which the value of the manual override distance can be configured.

A power machine (400) can include a frame (120), a power source (120), one or more drive actuators (426) that drive tractive elements (140) of the power machine (400), one or more workgroup actuators (439) the execute work functions of the power machine (400), an operator input device (460) that can include an operator interface (462) and a servo motor that can be arranged to apply motive force to the operator interface (462), and an electronic control system (490) that can be in communication with the operator input device (460) and the actuators (426, 439). The electronic control system (490) can be configured to control one or more of the actuators (426, 439) in response to receiving command signals from the operator input device (460) in response to operator inputs at the operator interface (462) and can control the one or more servo motors to provide haptic feedback to an operator at the operator input device (460).