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Return the next available point tag. As explained in Geometry module, a unique tag must be associated with every geometrical point:newp permits to know the highest tag already attributed (plusone). This is mostly useful when writing user-defined macros(see User-defined macros) or general geometric primitives, when onedoes not know a priori which tags are already attributed, andwhich ones are still available.

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When an error occurs during the execution of a macro, a dialog box will appear showing the content of the error. If you click on the Edit button, you can jump to the location where the error occurred. EmEditor uses JavaScript or VBScript for its macro language, so those who are familiar with HTML or Windows scripting will be able to write macros with little difficulty. For those unfamiliar with scripting languages, EmEditor can record keystrokes that can then be saved in a macro file, which can easily be loaded in different situations. With the use of JavaScript or VBScript, you can also troubleshoot your code easily. You also may like to download EmEditor Professional 17.9.0 x86/x64.

Additional filter options are available as commands that can be assigned to keyboard shortcuts or macros. We also added an independent Undo list exclusively for visibility changes. Filters can also be used to show/hide Channels inside the Console. Best of all, you can save the visibility state at any time using Mix Scenes.

• Snapshot trace using IAR Embedded Workbench for ARM The IAR debugger can be configured to save the trace buffer to a host-side file, either manually or automatically, using a debugger macro. Follow these steps: Create a macro file in the project directory (e.g. "save_trace_buffer.mac") with the following contents: __var start;__var end;save_trace_buffer()start = __smessage "Memory:0x",RecorderDataPtr:%x;end = __smessage "Memory:0x",(RecorderDataPtr + 1):%x;__memorySave(start,end,"intel-extended", "$PROJ_DIR$\\trace.hex");return 0;

• Add the macro file under Options -> Debugger -> Use Macro File(s).

• When in a debug session, open View -> Macros -> Debugger Macros and check that "save_trace_buffer" is included.

• Now, to call the macro and thereby save the trace, you have three options: Manually: In the Debugger Macros view, right-click on you macro and select "Add to Quicklaunch window". Now you can save the trace by double-clicking on the blue "refresh" icon in the Quicklaunch window.

• On a breakpoint: Place a breakpoint on a suitable location in the code. Open it in the breakpoint editor and enter your macro name (e.g., "save_trace_buffer()") in the Action -> Expression field. The trace is now saved every time that breakpoint is hit.

• On every halt: To update the trace on every halt, rename the "save_trace_buffer" function to execUserExecutionStopped(). That is a special hook that is called every time the execution is halted. Note that this can slow down single-stepping if the buffer is large.

A stream port is a set of macros that define how the recorder shall write the trace data to the streaming interface, and how to read commands (Start/Stop) from Tracealyzer. The recorder includes several predefined stream ports, defined by the trcStreamingPort.h files found in the streamports directory. The header file contains preprocessor macros and prototypes, while the I/O functions referred to are typically implemented in trcStreamingPort.c. These predefined ports include support for streaming via Arm ITM, e.g. for IAR Embedded Workbench and Keil µVision, SEGGER J-Link debug probes, as well as examples of USB streaming, TCP/IP streaming and streaming to a device file system.

Some stream ports use an internal RAM buffer in the trace recorder for temporary storage of the data, periodically flushed to the streaming interface by the trace control task (TzCtrl). This is the default setup. For other stream ports, like the Arm ITM port, the WRITE_DATA macro however writes directly to the streaming interface without involving the trace control task. This requires a fast interface where the data transfer doesn't generate any new trace events (e.g., by RTOS calls) as this would cause infinite recursion.

The USB stream port uses the recorder's internal RAM buffer. This may not be necessary, depending on the internal buffers in the USB stack. If you need to reduce RAM usage, you can try writing directly in the WRITE_DATA macro, like in the J-Link stream port.

• Typically, you only need to define the following macros, together with prototypes for the functions they use: TRC_STREAM_PORT_READ_DATA - How to read commands (start/stop) from Tracealyzer via the streaming interface. Should return 0 on success. If streaming e.g. to a device file system (without a PC connection to Tracealyzer) this should be defined as 0.

• TRC_STREAM_PORT_WRITE_DATA - How the recorder should write trace data to the streaming interface. Should return 0 on success.

There are other TRC_STREAM_PORT_ definitions in trcRecorder.h that can be overridden by redefining them in trcStreamingPort.h, but this is rarely required. One exception is perhaps TRC_STREAM_PORT_USE_INTERNAL_BUFFER, which should be defined as 0 if the stream port is writing directly to the streaming interface instead of using the internal RAM buffer.

Runtime errors in the recorder are often captured by the ASSERT macros. They call prvTraceError or prvTraceWarning if an internal error is detected in the recorder code, e.g., due to incorrect parameters or configuration. This attempts to save the error message in the trace and then stops the recorder. The error message is then presented when opening the trace.

What if the trace can be recorded, loaded into Tracealyzer but doesn't contain any task-switches or kernel calls? This typically means that the trace macro definitions are not included into the kernel, so the recorder is not notified of the events. Make sure you have included trcRecorder.h from your FreeRTOSConfig.h, as described in the integration guide.

If events appear to be occurring in the (startup) task, but you know for certain that they actually take place in another task, you have found a known FreeRTOS issue. When the scheduler is started the first task switch never calls upon the proper trace macro. This is fixed as of FreeRTOS v10.1.0. If an upgrade isn't possible for you, you can easily patch the kernel yourself. It is a very minor fix in vTaskStartScheduler() in tasks.c:portCONFIGURE_TIMER_FOR_RUN_TIME_STATS();traceTASK_SWITCHED_IN();/* Setting up the timer tick is hardware specific and thus in theportable interface. */if( xPortStartScheduler() != pdFALSE )

Developing a hardware port is mainly a matter of setting of the timestamping. This relies on a set of macros (TRC_HWTC...) that you define according to your specific hardware in trcHardwarePort.h. The central macro is TRC_HWTC_COUNT, that is expected to provide the current value of a suitable hardware timer/counter. You typically use the same interrupt timer that drives the kernel tick. Please refer to the comments in trcHardwarePort.h for additional instructions.

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