Patent classifications
G06F11/3656
DEVICE AND METHOD FOR HIGH PERFORMANCE MEMORY DEBUG RECORD GENERATION AND MANAGEMENT
Example implementations include a method of receiving a host command identifier associated with a host command, determining a device command associated with the host command and a memory controller device, receiving a device command timestamp corresponding to a time of the determining the device command, and determining a debug record contemporaneously with the determining the device command, the debug record including the host command identifier, a device command identifier associated with the device command, and the device command timestamp. Example implementations also include a device operably coupled to a memory array, and with a memory controller device configured to receive a host command identifier associated with a host command, and configured to determine a device command associated with the host command and a memory controller device, and a debug record generator device operatively coupled to the memory controller device and configured to receive a device command timestamp corresponding to a time of the determined device command, and configured to determine a debug record contemporaneously with the determining the device command, the debug record including the host command identifier, a device command identifier associated with the device command, and the device command timestamp.
CONCURRENT KERNEL AND USER SPACE DEBUGGING OF GUEST SOFTWARE ON A VIRTUAL MACHINE IN THE PRESENCE OF PAGE TABLE ISOLATION
A method for use in a computing device, the method comprising: transmitting, to a context manager, a context request associated with a process that is executed in a virtual machine; receiving, from the context manager, a context identifier in response to the context request; transmitting, to an introspection Application Programming Interface (API), a memory access request that is based, at least in part, on the context identifier.
Commanded JTAG test access port operations
The disclosure describes a novel method and apparatus for improving the operation of a TAP architecture in a device through the use of Command signal inputs to the TAP architecture. In response to a Command signal input, the TAP architecture can perform streamlined and uninterrupted Update, Capture and Shift operation cycles to a target circuit in the device or streamlined and uninterrupted capture and shift operation cycles to a target circuit in the device. The Command signals can be input to the TAP architecture via the devices dedicated TMS or TDI inputs or via a separate CMD input to the device.
WAVEFORM BASED RECONSTRUCTION FOR EMULATION
A process is disclosed to identify the minimal set of sequential and combinational signals needed to fully reconstruct the combinational layout after emulation is complete. A minimal subset of sequential and combinational elements is output from the emulator to maximize the emulator speed and limit the utilization of emulator resources, e.g., FPGA resources. An efficient reconstruction of combinational waveforms or SAIF data is performed using a parallel computing grid.
METHOD AND APPARATUS FOR DEBUGGING DEVICE
Disclosed are a method and apparatus for debugging a device. A particular embodiment of the method comprises: acquiring target running state information of a target device; constructing a running configuration template and a log collection template according to the target running state information; sending the running configuration template and the log collection template to an edge computing device, and receiving target log information sent by the edge computing device, so as to determine actual running state information; when the actual running state information is different from the target running state information, computing state difference information; and finally, modifying the running configuration template by means of the state difference information value information in order to obtain an updated running configuration template, and sending the updated running configuration template to the edge computing device.
TECHNIQUES TO ENABLE INTEGRATED CIRCUIT DEBUG ACROSS LOW POWER STATES
An Automated Dynamic low voltage monitoring (LVM) based Low-Power (ADLLP) debug capability for a system-on-chip (SoC) as well as the open/closed-chassis platform for faster TTM (Time to Market) of the final platform or system. ADLLP Debug is achieved by detection of the probe connection between a target system (e.g., SoC) and debug host system. A user can dynamically override the power, clocks and LVM for intellectual property (IP) blocks not part of the debug trace by instructing a Power Management Controller (PMC) via the Inter Processor Communication (IPC) mailbox (or any other suitable mailbox driver) to set the registers in a Target Firmware (TFW) based on the probe and debug use-case.
METHOD FOR DEBUGGING NOISE ELIMINATION ALGORITHM, APPARATUS AND ELECTRONIC DEVICE
The application discloses a debugging method for a noise elimination algorithm, an apparatus and an electronic device, which relate to the technical fields of voice, automatic driving and intelligent transportation. An implementation scheme is: when the noise elimination algorithm is debugged, acquiring multiple voice control signals from a vehicle to be debugged, modifying a weight of a configuration parameter of the noise elimination algorithm in a digital signal processing to obtain an updated noise elimination algorithm; then adopting the updated noise elimination algorithm to perform noise elimination processing on the multiple voice control signals; if control results of noise-eliminated voice control signals on the vehicle to be debugged do not meet a preset condition, continuing to modify the weight of the configuration parameter until the preset condition is met, and then sending a noise elimination algorithm that meets the preset condition to the vehicle to be debugged.
Apparatus and method for executing debug instructions
An apparatus and method are provided for executing debug instructions. The apparatus has processing circuitry for executing instructions fetched from memory, and a debug interface. The processing circuitry is responsive to a halt event to enter a halted mode where the processing circuitry stops executing the instructions fetched from memory, and instead is arranged to execute debug instructions received from a debugger via the debug interface. The processing circuitry is responsive to detection of a trigger condition when executing a given debug instruction to exit the halted mode transparently to the debugger, and to take an exception in order to execute exception handler code comprising a sequence of instructions fetched from memory. On return from the exception, the processing circuitry then re-enters the halted mode and performs any additional processing required to complete execution of the given debug instruction. This provides a mechanism for allowing an apparatus to perform operations required by debug instructions in situations where the processing circuitry hardware is not able to natively perform those operations in response to the specified debug instruction.
Method for managing a return of a product for analysis and corresponding product
A method for managing a product includes: placing an integrated circuit in a bootstrap mode with debugging prohibition in response to each reset or power-up of the integrated circuit and in an absence of a reception, on a test access port of the product, of a first command; and placing the integrated circuit in an analysis mode with debugging authorization in response to reception, on the test access port, of the first command following the reset or the power-up of the integrated circuit. Placing the integrated circuit in the analysis mode is maintained at least as long as a second command has not been received on the test access port. Placing the integrated circuit in the bootstrap mode and placing the integrated circuit in the analysis mode are performed in response to a determination that the integrated circuit has never before been placed in the analysis mode with debugging authorization.
Non-intrusive semihosting solution for debug using direct memory access implementation-based library
A software only debug approach is provided that does not require special hardware in a target embedded system undergoing debug. Instead, already present DMA capabilities of the target system are utilized to transfer I/O operation parameters into a memory area accessible to both the target processor and a debugger executing on a host system. The debugger can thereby access and execute the I/O operations without program execution stopping on the target. A semihosting library is provided as a replacement for the standard C I/O library on the target. The semihosting library provides a range of equivalent functions to the standard C I/O API that program a DMA transfer to copy the I/O function parameters to an external memory area that is not otherwise being used by the target core processor. The external memory area is then accessed by a debug tool on the host computer.