45 results about "Programming process" patented technology

The invention relates to the technical field of intelligent control network application programming, and discloses an application programming method based on an ArtNet module, which is applied to an intelligent control network. The method comprises the steps that an ArtNet module storage medium is partitioned, firmware is received and verification information is stored, the validity of the firmware is judged, the firmware is transmitted to a main controller according to a preset upgrading protocol, the main controller distributes updates, and the ArtNet module clears temporarily stored data. According to the application, the intelligent control network master controller is an internal communication bus master device, the function nodes maintain the original access logic, only an ArtNet module is newly added as a slave device to access the internal bus, an independent communication link is established through a universal interface and the master controller, the Ethernet and the external control bus are externally connected, original hardware and an IAP protocol do not need to be changed, and the communication efficiency is improved. Equipment transformation and code rewriting cost caused by module expansion are avoided; based on the programming process, original IAP logic is not interfered, repeated burning caused by data residue is avoided, and the method is suitable for firmware upgrading of intelligent control networks such as moving head lamps, stage lighting and intelligent lighting.

Provided are systems, methods, and apparatuses for systems and methods of programming processes in processing in memory (PIM) systems. In one or more examples, the systems, devices, and methods include enabling, via a processor, a PIM manager for processing of PIM instructions, the PIM manager being located on a base die of a stacked memory module; enabling, via the PIM manager, a plurality of processing units of one or more memory dies of the stacked memory module for processing; compiling source code comprising the PIM instructions into machine code; loading, via PIM manager, the machine code into an allocation of memory of the stacked memory module; and executing, via the plurality of processing units, the PIM instructions based on loading the machine code into the memory of the stacked memory module.

This invention relates to the field of motherboard programming, and in particular to a motherboard programming control method, device, and system. The method includes, during the programming process, controlling the level changes of the cache state machine and the block addressing state machine to determine whether the two state machines will simultaneously be in a metastable state during state updates. If so, a micropulse is generated and inserted into the oscillation half-cycle, so that the time when the two state machines are simultaneously in a metastable state is staggered from the clock edge before data is written. This avoids data rejection due to the continuous metastable state of the two state machines, effectively ensuring the integrity of data writing and thus guaranteeing the quality of motherboard programming.

The invention relates to the technical field of online programming education, in particular to a programming teaching method and system based on the real-time two-way communication technology, and the method comprises the following steps: receiving a websocket connection request initiated by a client, which comprises a teacher end and a student end, and establishing a secure connection; based on the established connection, receiving a teaching instruction packet initiated by the teacher terminal, and sending the teaching instruction packet to the target student terminal; receiving a feedback instruction packet initiated by the student terminal, and sending the feedback instruction packet to the target teacher terminal; receiving a disconnection request, and deleting a corresponding record in the strong association; the disconnection request is initiated by a client or detected by a server; the method has the advantages of ultra-low delay bidirectional interaction of programming driving, real-time closed loop of instructed programming content and execution feedback, fine-grained programming process perception and teaching decision support.

The present disclosure provides mechanisms for reducing and suppressing random telegraph noise (RTN) in crossbar circuits. The processing device may perform a programming process to program a resistive random access memory (RRAM) device in the crossbar circuit to a target conductance value. The processing device may then determine whether a telegraph noise (RTN) value associated with the RRAM device is within a predetermined range of acceptable RTN values. If the RTN value associated with the RRAM device is not within a predetermined range of acceptable RTN values, one or more noise reduction voltages may be applied to the RRAM device until the RTN value associated with the RRAM device is within the predetermined range of acceptable RTN values.

The present application relates to a high-efficiency flash memory management method, device and equipment based on a lookup table algorithm, which maps write cache programming commands issued by a chip bus through three configured lookup tables in stages, indexes corresponding programming groups in a lookup table manner during execution of programming, uses programming group indexes to return corresponding programming addresses and programming data, reduces programming time of the same cache size to 2 / 3 of that of a traditional scheme, thereby speeding up the entire write cache programming process of the flash memory, realizing more efficient write management operation on a large-capacity flash memory, saving chip resources and write time, and improving the overall performance of the flash memory.

A non-volatile memory is capable of suspending a programming process before completion to perform a read (or other) process. When resuming the suspended programming process, a magnitude of a next program voltage pulse is set to be a voltage magnitude of a previous program voltage pulse plus a nominal increment adjusted by a voltage offset in response to the programming process being suspended for greater than a first time period. The magnitude of the next program voltage pulse is set to be the voltage magnitude of the previous program voltage pulse plus the nominal increment in response to the programming process being suspended for less than the first time period. The voltage offset and the first time period are set based on usage of the non-volatile memory (e.g., based on number of program-erase cycles performed).

The invention discloses a code repairing method and device, electronic equipment and a computer storage medium. The method comprises the steps of obtaining target problem information from target detection information corresponding to a target code; the target detection information is obtained by detecting the target code by an editor; then, obtaining a target related code corresponding to the target problem information; and finally, inputting the target problem information and the target related code into the target large model to obtain target repair information corresponding to the target problem information. According to the method, a more specific and feasible error modification suggestion (target repair information) is provided for target problem information in a mode of combining a large model with editor detection, and a developer does not need to query a webpage to find a problem solution any more, so that the developer can be directly assisted in code problem repair in a programming process; and the code writing efficiency and the code writing quality of developers are improved.

The application discloses a firmware programming method and an electronic device, and is applied to the technical field of storage, and comprises the following steps: generating general firmware data to be completed for parameter injection, and generating a programming parameter file corresponding to the model of a storage device for different models of the storage device; acquiring the model of a storage device to be programmed and obtaining the corresponding programming parameter file based on the model; obtaining the compiled target firmware by analyzing the programming parameter file and performing parameter injection on the general firmware data; and performing firmware programming on the storage device to be programmed by using the target firmware, and dynamically updating the actual programming voltage based on the reference programming voltage and the temperature offset during the programming process. By using the scheme of the application, the firmware compiling cost can be effectively reduced. The influence of temperature change on the programming process is reduced, and the reliability of programming is ensured.

The invention provides an exception analysis method applied to programming and a related device, and the exception analysis method applied to programming comprises the steps: analyzing a currently written code, and determining whether the code is abnormal or not; and in response to the exception, analyzing the exception code, and explaining an exception reason of the exception code by utilizing a target language. According to the abnormality analysis method applied to programming, the encoding abnormality can be analyzed in real time in the programming process, and the timeliness is high; exception codes are explained and analyzed through the target language, high-precision answers aiming at the exceptions are generated, and understanding is easy.

1. The name of the design product: hemispherical automatic cleaning programming software graphical user interface for electronic equipment. 2. The use of the design product: for displaying hemispherical automatic cleaning programming process on electronic equipment. 3. The design points of the design product: the graphical user interface on electronic equipment. 4. The picture or photo that best shows the design points: front view. 5. The electronic equipment is a conventional design, and the rear view, left view, right view, top view, and bottom view are omitted. 6. The use of the graphical user interface: when the software is opened, the main view is entered, which is the main interface of the hemispherical automatic cleaning system, including two options of home page and control programming. Clicking the control programming option in the main view enters the control programming interface, as shown in interface change state diagram 1. Clicking the new file button in interface change state diagram 1 pops up a new file pop-up box, which enters interface change state diagram 2. After entering the new file name and selecting the save path, click the save button, and the system will highlight the new file name, as shown in interface change state diagram 3. In interface change state diagram 3, clicking the icon on the left and / or writing program code in the right writing box can perform hemispherical automatic cleaning control programming, as shown in interface change state diagram 4. After programming is completed, click the save file button, as shown in interface change state diagram 5. The system will save the completed cleaning control program. After saving is completed, the save file button returns to its original state, as shown in interface change state diagram 6. In interface change state diagram 6, clicking the continuous running button can perform continuous running test on the newly edited cleaning control program. During the continuous running test, the running time box will display the running time, as shown in interface change state diagram 7. After the continuous running test is completed, a pop-up window will be prompted, which enters interface change state diagram 8, and the pop-up window prompts that the cleaning is completed.

The utility model discloses a burning device for on-line detection, which comprises a burning substrate, a three-axis driving assembly, a burning unit and a pickup unit, the three-axis driving assembly and the burning unit are respectively arranged on the upper surface of the burning substrate, the pickup unit is arranged on the three-axis driving assembly, the unit is used for carrying a chip into the burning unit, a substrate is arranged on the outer side of the burning substrate, and the three-axis driving assembly is arranged on the upper surface of the burning substrate. A test unit and a three-axis driving unit are installed on the substrate, at least two vacuum suction nozzles arranged at intervals are installed on a Z-axis movable block of the three-axis driving unit, a horizontal carrying module is further installed on the upper surface of the substrate, and the pickup unit is further used for carrying chips in the burning unit to a material carrying platform. And the vacuum suction nozzle is used for carrying the to-be-tested chip on the material carrying platform into the test unit. According to the burning device for online detection, the production efficiency can be improved, the yield in the whole burning process can be guaranteed, and damage to the test seat and the chip in the test seat is avoided.

Methods, systems, and apparatuses include receiving a write command including user data. The write command is directed to a portion of memory including a first and second block and a first and second user data portion are directed to the first and second block. Temporary parity data is generated using the first and second user data portions. The temporary parity data and the first and second user data portions are stored in a buffer. Portions of the first and second block are programmed with two programming passes. The first and second user data portions in the buffer are invalidated in response to a completion of the second programming pass of the portions of the first and second blocks. The temporary parity data is maintained in the buffer until a second programming pass of the first and second block.

The utility model discloses high-yield chip burning equipment, which comprises a burning mechanism with a burning substrate, a three-axis driving component, a burning unit and a pickup unit, the three-axis driving component and the burning unit are respectively mounted on the upper surface of the burning substrate, and the pickup unit is mounted on the three-axis driving component and used for carrying chips into the burning unit. A substrate is arranged on the outer side of the burning substrate, a testing unit and a three-axis driving unit are installed on the substrate, at least two vacuum suction nozzles arranged at intervals are installed on a Z-axis movable block of the three-axis driving unit, and a horizontal carrying module is further installed on the upper surface of the substrate. One end of the horizontal carrying module is connected with the upper surface of the substrate, the other end of the horizontal carrying module extends to the position above the burning substrate and is connected with the burning substrate, and a material conveying carrying table is installed on a movable part of the horizontal carrying module. According to the high-yield chip burning equipment, the production efficiency can be improved, the yield in the whole burning process can be ensured, and the effectiveness of sampling inspection can be improved.

The application discloses an air interface programming method and related device, and relates to the field of wireless communication, comprising the following steps: broadcasting common parameter information to all to-be-modified devices, so that all to-be-modified devices modify their own device parameters based on the common parameter information; and issuing differentiated parameter information corresponding to the to-be-modified devices containing differentiated parameters (which can be referred to as second type to-be-modified devices) one by one, so that the devices modify their own device parameters according to the differentiated parameter information. It can be seen that, for the modification parameters common to all devices, the common parameter information needs to be sent only once in the air interface, thereby reducing the air interface resource occupation, and meanwhile, the operation complexity and time of modifying the to-be-modified parameters common to the batch devices are reduced; for the to-be-modified parameters not specific to some or a small part of devices, the differentiated parameters corresponding to the devices are sent to the devices one by one, so that the whole air interface programming process is completed.

The invention relates to an undercutting and reverse combined numerical control machining method for an inner arc cavity of a small-bend-diameter-ratio pipeline, and belongs to the technical field of numerical control milling machining. The problems that in the prior art, in the machining process of small-bend-diameter-ratio pipelines (R / D is smaller than or equal to 1.5), deformation is uneven, the wall thickness is difficult to control, a tool is prone to interference, loss is serious, cavity precision is reduced due to machining vibration, and production efficiency is low due to parameter adjustment depending on manual experience are solved. The mode of combining bottom cutting and reverse cutting is innovatively provided, the reverse path from the interior of the arc section to the end face of the three-face cutting edge is made to conduct cutting by optimizing the inverted cavity area cutter path, and in the cutting process, only the side cutting edge and the rear cutting edge conduct cutting, and the front cutting edge does not conduct cutting. In the programming process, the whole numerical control programming process becomes simple and convenient by editing the forward tool path, and the high-precision, short-period and intelligent machining target is successfully achieved.

The invention discloses an automatic programming system and tool based on artificial intelligence in the field of computer numerical control machining, and the system comprises a machining demand analysis module, a process planning AI module, an intelligent G code generation module, a machining process simulation module, a self-adaptive optimization module and a knowledge base management module. And the processing demand analysis module receives the part 3D model and the processing demand description, and extracts geometric features, precision requirements and material characteristics. Through deep fusion of an artificial intelligence technology and CNC programming, a full-automatic and intelligent programming process from a part model to a G code is realized. The system has remarkable advantages in the aspects of process planning, path optimization, parameter adjustment and the like, the programming efficiency and the processing quality are greatly improved, and the dependence on artificial experience is reduced. Practical cases prove that the programming efficiency can be improved by 85% or above, the machining efficiency can be improved by about 20%, the machining quality and stability are remarkably improved, and the method has wide application prospects and market value.

The invention relates to the technical field of chip burning, in particular to a remote automatic burning method, device and equipment and a medium. The remote automatic burning method is applied to an upper computer, a circuit board identifier of a burning circuit board is obtained through the upper computer, an identification request is sent to a production and manufacturing integrated system according to the circuit board identifier, and a feedback result returned by the production and manufacturing integrated system is received; analyzing the feedback result to obtain a target software material number of the to-be-burned software, receiving a burning file sent by the software version management system and a configuration file corresponding to the burning file according to the target software material number, and generating a burning command script according to the burning file and the configuration file; and determining a burning simulator, and controlling the burning simulator to execute the burning command script for burning. The burning process is controlled through the upper computer, management and control of production engineers are not needed, the production engineers do not make direct contact with burning files, the risk of poor burning caused by manual operation is reduced, and the reliability of chip burning is improved.

The invention discloses a NorFlash and array structure oriented to AI reasoning and a compiling method and application of the NorFlash and array structure, and relates to the technical field of integrated circuit memories, and the NorFlash is a 2T structure formed by connecting a selection transistor ST and a floating gate type memory transistor MT in series. A storage array architecture is also formed through the NorFlash, and the NorFlash is particularly suitable for computing equipment such as an AI server and the like which have strict requirements on programming power consumption and speed. Source and drain currents in the programming process are thoroughly eliminated or remarkably reduced, so that ultralow-power-consumption programming is achieved, the number of units capable of being programmed in parallel within the same time is increased based on the ultralow-power-consumption programming, and finally the total programming time of the NorFlash chip is greatly shortened.

The invention discloses a distributed MCU (Microprogrammed Control Unit) software burning control machine and a control method. The control machine comprises a main MCU, a bus transceiver, a burning and communication interface and a plurality of MCU software burning subsystems. The control method comprises the following steps: firstly, performing power-on initialization; then, the upper computer sends an MCU burning selection message of the upper computer, the main MCU controls a power supply control circuit of the MCU software burning subsystem information to be switched on, a digital signal isolation circuit of the MCU software burning subsystem information is started, and a configuration response message is sent through an RS485 bus; after receiving the configuration effective response, the upper computer controls the simulator to execute software burning operation; and finally, the burning and communication interface receives the data of the simulator and sends the data to the corresponding MCU burning interface to burn the MCU. According to the invention, a one-to-many burning link is realized, the software management efficiency is improved, the anti-interference capability in the burning process is enhanced, and the stability of distributed MCU software burning is improved.

This invention provides a method and system for integrated production, reliability testing, and final programming based on eMMC, belonging to the field of storage device technology. The system includes a test board and a reliability testing equipment group, with the test board and equipment group being compatible. The test board is equipped with sockets, each socket connected to an eMMC host, and each eMMC host connected to an SPI NAND flash memory. This invention, through preliminary programming, reliability testing, final programming, and production testing, enables reliability detection of eMMC during the programming process, ensuring the reliability of eMMC batch product quality.

This application discloses an eFuse programming control method, programming controller, and system, relating to the field of data processing technology. The method includes: when a programming command is received, acquiring attribute data from the eFuse's current operating environment; determining whether the attribute data is within a corresponding preset safety attribute range; and when the attribute data is determined to be within the preset safety attribute range, executing the programming operation according to the programming command. Environmental attribute data is introduced as a pre-judgment condition. This acts as a security checkpoint for the programming process, allowing execution only when the environment meets the standards, effectively preventing unreliable operations on the eFuse under unknown or unstable conditions that could potentially cause abnormal impacts on critical data. By pre-setting safety attribute ranges, hardware failures caused by external factors such as power fluctuations and electrostatic interference can be avoided, extending the lifespan of the eFuse and surrounding circuits. This significantly reduces the risk of miswriting, missed writing, or data bit flipping.

The utility model discloses a self-checking chip burning machine and a burning system, the self-checking chip burning machine comprises a burning substrate, a three-axis driving assembly, a burning unit and a pick-up unit, the three-axis driving assembly and the burning unit are respectively arranged on the upper surface of the burning substrate, the pick-up unit is arranged on the three-axis driving assembly, a substrate is arranged on the outer side of the burning substrate, and the three-axis driving assembly and the burning unit are arranged on the outer side of the burning substrate. A testing unit and a three-axis driving unit are installed on the base plate, a horizontal carrying module is further installed on the upper surface of the base plate, and a material carrying platform deck is installed on a movable part of the horizontal carrying module. The burning system using the equipment comprises burning equipment, a material conveying mechanism is arranged on the side, away from a substrate, of a burning substrate of the burning equipment, and the material conveying mechanism is used for conveying chips loaded on a material belt to the position below a pickup unit. According to the self-checking chip burning machine and the burning system, the production efficiency can be improved, and the yield in the whole burning process can be ensured.

The invention discloses a cotton tape winding NC code automatic generation method based on three-dimensional CAD secondary development, which comprises the following steps: S1, environment preparation and model import: using a programming language to write a special software program, and importing or opening a three-dimensional digital model of a to-be-wound component and a mold; the method comprises the steps of S1, setting process parameters, selecting a winding starting point and a winding ending point on the surface of a three-dimensional digital model through mouse interaction by a user, automatically identifying a curved surface area to be wound by a program, S3, determining a winding area, S4, automatically planning a winding path, automatically planning a continuous space path meeting the cloth tape winding process requirement, and S5, carrying out kinematics conversion and post-processing. According to the method, the current situation that the traditional method depends on special winding software and manual programming is tedious is thoroughly changed, high automation and intelligence of the programming process are achieved, the method is particularly suitable for processing complex components such as a composite rotary body with a bus being a curve or containing positive and negative curvatures, and the application range, flexibility and efficiency of cloth tape winding numerical control programming are remarkably expanded.

This invention provides a programming method and system suitable for instruction source switching, including step S1: constructing an instruction source switching program block; the instruction source switching program block includes instruction source data and control instruction data blocks; step S2: completing the switching of different instruction sources based on the instruction source switching program block; the instruction sources include local instruction sources and remote instruction sources. This invention can greatly reduce the workload of programmers and reduce the amount of program processing by the CPU; because it can switch program instructions in batches, it greatly simplifies the programming process, improves the programming efficiency of programmers, and reduces the error rate; the more device components that need to switch instruction sources, the more obvious the advantages of this invention become; it is not limited to industry, but can also be extended to various industries for use in control systems.

The present disclosure provides mechanisms for reducing and suppressing random telegraph noise (RTN) for a crossbar circuit. A processing device may perform a programming process to program the conductance of a resistive random-access memory (RRAM) device in the crossbar circuit to a target conductance value. The processing device may then determine whether a random telegraph noise (RTN) value associated with the RRAM device is within a predetermined range of acceptable RTN values. If the RTN value associated with the RRAM device is not within a predetermined range of acceptable RTN values, one or more noise-reduction voltages may be applied to the RRAM device until the RTN value associated with the RRAM device is within the predetermined range of acceptable RTN values.

A programming-aided method for object-oriented programming of programmable logic controllers (PLCs) includes: providing a drawing interface for users to insert patterns, where each pattern is associated with an object; and generating an inclusion relationship between several associated objects based on the inclusion relationships between several patterns inserted by the user in the drawing interface. This method improves the visualization of modeling during the programming process of PLCs. A programming-aided system and a computer-readable storage medium are also provided.

A method of performing a program process on a three-dimensional (3D) NAND memory device is disclosed. The method causes residual electrons trapped in a storage region of a dummy cell in the middle of an unselected string of the 3D NAND memory device during a pre-charge phase to be removed, thereby reducing program disturbance to a selected string adjacent to the unselected string.

A non-volatile memory is capable of suspending a programming process before completion to perform a read (or other) process. When resuming the suspended programming process, a magnitude of a next program voltage pulse is set to be a voltage magnitude of a previous program voltage pulse plus a nominal increment adjusted by a voltage offset in response to the programming process being suspended for greater than a first time period. The magnitude of the next program voltage pulse is set to be the voltage magnitude of the previous program voltage pulse plus the nominal increment in response to the programming process being suspended for less than the first time period. The voltage offset and the first time period are set based on usage of the non-volatile memory (e.g., based on number of program-erase cycles performed).

The present disclosure relates to non-volatile memory with 1.5-pass programming. To increase programming speed, a non-volatile memory system programs some word lines using a two-pass programming process and programs other word lines using a one-pass programming process.