Patent classifications
G06F11/3656
Remoting application across a network using draw commands with an isolator application
A client device instantiates an isolator application. A request to instantiate a remote application in a server device is sent by the isolator application instance. The isolator application instance receives, from the remote application instance, draw commands and position information that correspond to the draw commands. The isolator application instance renders one or more portions of output based on the draw commands and the position information.
SYSTEM FOR IMPLEMENTING A CODE DEBUGGER PLATFORM IN A VIRTUAL ENVIRONMENT
Systems, computer program products, and methods are described herein for implementing a code debugger platform in a virtual environment. The system is configured to authenticate a plurality of users via an authentication portal and initialize an instance of a virtual environment for each of the plurality of users. The system is configured to extract a plurality of computer instructions, and display, in the virtual environment, a debugging platform of an integrated development environment, the debugging platform configured to receive the plurality of computer instructions and receive input from at least one of the plurality of users, and initiate a debugging protocol. The debugging protocol may include a breakpoint in at least one of the plurality of computer instructions, wherein the breakpoint is received as an input from the at least one of the plurality of users.
Abnormal timing breakpoints
Embodiments of the present invention provide a system, method, and program product for an abnormal timing breakpoints. A computer determines a code section, wherein the code section is part of computer code edited by a user. The computer determines an expected timeframe and an expected count for the code section, wherein the expected timeframe represents a predicted time to execute the code section, and wherein the expected execution count represent a predicted number of executions of the code section. The computer determines that an execution of the code section is abnormal based on one or more of: determining a current execution time is greater than the expected timeframe, and determining a current execution count is greater than the expected count. The computer halting the execution of the code section based on determining that the execution of the code section is abnormal and displays the abnormal code section.
Soundwire-based embedded debugging in an electronic device
SoundWire-based embedded debugging in an electronic system is provided. In this regard, in one aspect, a SoundWire slave circuit receives a SoundWire data input signal over a SoundWire bus including two physical wires. The SoundWire data input signal includes a plurality of debug configuration bits in assigned SoundWire bitslots. The SoundWire slave circuit generates a plurality debug input bits required for debugging the SoundWire slave circuit based on the debug configuration bits received in the assigned SoundWire bitslots. In another aspect, the SoundWire slave circuit returns a SoundWire data output signal, which includes a debug output bit in an assigned SoundWire bitslot, over the SoundWire bus. By receiving debugging configurations and returning debugging results over the SoundWire bus, it is possible to debug the SoundWire slave circuit with a reduced number of physical pins, thus helping to reduce the overall pin count and footprint of the electronic device.
DEBUGGING SYSTEM AND METHOD
An approach for debugging a circuit implementation of a software specification includes translating a high-level language debugging command into a hardware debugging command that specifies the value(s) of a condition in the circuit implementation, and a storage element(s) at which the value(s) of the condition is stored. The hardware debugging command is transmitted to a debug controller circuit that generates a single clock pulse to the circuit implementation. The debug controller circuit reads a value(s) from the storage element(s) specified by the hardware debugging command and determines whether or not the value(s) satisfies the condition. The debug controller circuit generates another single clock pulse in response to the value(s) read from the storage element(s) not satisfying the condition. Generation of pulses of the clock signal is suspended and data indicative of a breakpoint is output in response to the value(s) read from the storage element(s) satisfying the condition.
ABNORMAL TIMING BREAKPOINTS
Embodiments of the present invention provide a system, method, and program product for an abnormal timing breakpoints. A computer determines a code section, wherein the code section is part of computer code edited by a user. The computer determines an expected timeframe and an expected count for the code section, wherein the expected timeframe represents a predicted time to execute the code section, and wherein the expected execution count represent a predicted number of executions of the code section. The computer determines that an execution of the code section is abnormal based on one or more of: determining a current execution time is greater than the expected timeframe, and determining a current execution count is greater than the expected count. The computer halting the execution of the code section based on determining that the execution of the code section is abnormal and displays the abnormal code section.
ABNORMAL TIMING BREAKPOINTS
Embodiments of the present invention provide a system, method, and program product for an abnormal timing breakpoints. A computer determines a code section, wherein the code section is part of computer code edited by a user. The computer determines an expected timeframe and an expected count for the code section, wherein the expected timeframe represents a predicted time to execute the code section, and wherein the expected execution count represent a predicted number of executions of the code section. The computer determines that an execution of the code section is abnormal based on one or more of: determining a current execution time is greater than the expected timeframe, and determining a current execution count is greater than the expected count. The computer halting the execution of the code section based on determining that the execution of the code section is abnormal and displays the abnormal code section.
Store nullification in the target field
Apparatus and methods are disclosed for nullifying memory store instructions identified in a target field of a nullification instruction. In some examples of the disclosed technology, an apparatus can include memory and one or more block-based processor cores configured to fetch and execute a plurality of instruction blocks. One of the cores can include a control unit configured, based at least in part on receiving a nullification instruction, to obtain an instruction identification for a memory access instruction of a plurality of memory access instructions, based on a target field of the nullification instruction. The memory access instruction associated with the instruction identification is nullified. The memory access instruction is in a first instruction block of the plurality of instruction blocks. Based on the nullified memory access instruction, a subsequent memory access instruction from the first instruction block is executed.
TCK, TMS(C) clock, gating circuitry providing selection and deselection outputs
Control events may be signaled to a target system having a plurality of components coupled to a scan path by using the clock and data signals of the scan path. While the clock signal is held a high logic level, two or more edge transitions are detected on the data signal. The number of edge transitions on the data signal is counted while the clock signal is held at the high logic state. A control event is determined based on the counted number of edge transitions on the data signal after the clock signal transitions to the low logic state.
Inserting snapshot code into an application
A debugging system may display snapshot information that may be collected in response to an event identified while an application executes. The debugging system may allow a user to browse the various data elements in the snapshot, and may allow the user to modify a snapshot configuration by including or excluding various data elements within the snapshot data. The user interface may have a mechanism for including or excluding data elements that may be presented during browsing, as well as options to change the events that may trigger a snapshot. The updated snapshot configuration may be saved for future execution when the event conditions are satisfied.