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https://github.com/espressif/openthread.git
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ffbe65c6dd
* Add otInstance type declaration and update ot APIs to take it as input.
418 lines
16 KiB
C++
418 lines
16 KiB
C++
/*
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* Copyright (c) 2016, Nest Labs, Inc.
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* All rights reserved.
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*
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* Redistribution and use in source and binary forms, with or without
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* modification, are permitted provided that the following conditions are met:
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* 1. Redistributions of source code must retain the above copyright
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* notice, this list of conditions and the following disclaimer.
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* 2. Redistributions in binary form must reproduce the above copyright
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* notice, this list of conditions and the following disclaimer in the
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* documentation and/or other materials provided with the distribution.
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* 3. Neither the name of the copyright holder nor the
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* names of its contributors may be used to endorse or promote products
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* derived from this software without specific prior written permission.
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*
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* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS"
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* AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
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* IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
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* ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT HOLDER OR CONTRIBUTORS BE
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* LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR
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* CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF
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* SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
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* INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN
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* CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE)
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* ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE
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* POSSIBILITY OF SUCH DAMAGE.
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*/
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#include "test_util.h"
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#include <openthread.h>
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#include <common/debug.hpp>
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#include <common/timer.hpp>
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#include <platform/alarm.h>
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#include <string.h>
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enum
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{
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kCallCountIndexAlarmStop = 0,
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kCallCountIndexAlarmStart,
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kCallCountIndexTimerHandler,
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kCallCountIndexMax
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};
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static Thread::TimerScheduler sTimerScheduler;
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static uint32_t sNow;
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static uint32_t sPlatT0;
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static uint32_t sPlatDt;
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static bool sTimerOn;
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static uint32_t sCallCount[kCallCountIndexMax];
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extern "C" {
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void otPlatAlarmStop(otInstance *)
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{
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sTimerOn = false;
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sCallCount[kCallCountIndexAlarmStop]++;
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}
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void otPlatAlarmStartAt(otInstance *, uint32_t aT0, uint32_t aDt)
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{
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sTimerOn = true;
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sCallCount[kCallCountIndexAlarmStart]++;
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sPlatT0 = aT0;
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sPlatDt = aDt;
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}
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uint32_t otPlatAlarmGetNow(void)
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{
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return sNow;
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}
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} // extern "C"
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void InitCounters(void)
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{
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memset(sCallCount, 0, sizeof(sCallCount));
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}
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void TestTimerHandler(void *aContext)
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{
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sCallCount[kCallCountIndexTimerHandler]++;
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if (aContext)
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{
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(*static_cast<uint32_t *>(aContext))++;
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}
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}
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/**
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* Test the TimerScheduler's behavior of one timer started and fired.
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*/
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int TestOneTimer(void)
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{
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const uint32_t kTimeT0 = 1000;
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const uint32_t kTimerInterval = 10;
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Thread::Timer timer(sTimerScheduler, TestTimerHandler, NULL);
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// Test one Timer basic operation.
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InitCounters();
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sNow = kTimeT0;
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timer.Start(kTimerInterval);
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == 1, "TestOneTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == 0, "TestOneTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == 0, "TestOneTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(sPlatT0 == 1000 && sPlatDt == 10, "TestOneTimer: Start params Failed.\n");
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VerifyOrQuit(timer.IsRunning(), "TestOneTimer: Timer running Failed.\n");
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VerifyOrQuit(sTimerOn, "TestOneTimer: Platform Timer State Failed.\n");
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sNow += kTimerInterval;
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otPlatAlarmFired(NULL);
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == 1, "TestOneTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == 1, "TestOneTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == 1, "TestOneTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(timer.IsRunning() == false, "TestOneTimer: Timer running Failed.\n");
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VerifyOrQuit(sTimerOn == false, "TestOneTimer: Platform Timer State Failed.\n");
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// Test one Timer that spans the 32-bit wrap.
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InitCounters();
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sNow = 0 - (kTimerInterval - 2);
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timer.Start(kTimerInterval);
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == 1, "TestOneTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == 0, "TestOneTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == 0, "TestOneTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(sPlatT0 == 0 - (kTimerInterval - 2) && sPlatDt == 10, "TestOneTimer: Start params Failed.\n");
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VerifyOrQuit(timer.IsRunning(), "TestOneTimer: Timer running Failed.\n");
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VerifyOrQuit(sTimerOn, "TestOneTimer: Platform Timer State Failed.\n");
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sNow += kTimerInterval;
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otPlatAlarmFired(NULL);
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == 1, "TestOneTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == 1, "TestOneTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == 1, "TestOneTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(timer.IsRunning() == false, "TestOneTimer: Timer running Failed.\n");
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VerifyOrQuit(sTimerOn == false, "TestOneTimer: Platform Timer State Failed.\n");
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// Test one Timer that is late by several msec
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InitCounters();
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sNow = kTimeT0;
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timer.Start(kTimerInterval);
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == 1, "TestOneTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == 0, "TestOneTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == 0, "TestOneTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(sPlatT0 == 1000 && sPlatDt == 10, "TestOneTimer: Start params Failed.\n");
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VerifyOrQuit(timer.IsRunning(), "TestOneTimer: Timer running Failed.\n");
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VerifyOrQuit(sTimerOn, "TestOneTimer: Platform Timer State Failed.\n");
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sNow += kTimerInterval + 5;
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otPlatAlarmFired(NULL);
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == 1, "TestOneTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == 1, "TestOneTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == 1, "TestOneTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(timer.IsRunning() == false, "TestOneTimer: Timer running Failed.\n");
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VerifyOrQuit(sTimerOn == false, "TestOneTimer: Platform Timer State Failed.\n");
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// Test one Timer that is early by several msec
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InitCounters();
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sNow = kTimeT0;
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timer.Start(kTimerInterval);
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == 1, "TestOneTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == 0, "TestOneTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == 0, "TestOneTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(sPlatT0 == 1000 && sPlatDt == 10, "TestOneTimer: Start params Failed.\n");
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VerifyOrQuit(timer.IsRunning(), "TestOneTimer: Timer running Failed.\n");
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VerifyOrQuit(sTimerOn, "TestOneTimer: Platform Timer State Failed.\n");
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sNow += kTimerInterval - 2;
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otPlatAlarmFired(NULL);
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == 2, "TestOneTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == 0, "TestOneTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == 0, "TestOneTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(timer.IsRunning() == true, "TestOneTimer: Timer running Failed.\n");
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VerifyOrQuit(sTimerOn == true, "TestOneTimer: Platform Timer State Failed.\n");
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sNow += kTimerInterval;
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otPlatAlarmFired(NULL);
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == 2, "TestOneTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == 1, "TestOneTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == 1, "TestOneTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(timer.IsRunning() == false, "TestOneTimer: Timer running Failed.\n");
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VerifyOrQuit(sTimerOn == false, "TestOneTimer: Platform Timer State Failed.\n");
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return 0;
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}
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/**
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* Test the TimerScheduler's behavior of ten timers started and fired.
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*/
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int TestTenTimers(void)
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{
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const uint32_t kNumTimers = 10;
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const uint32_t kNumTriggers = 7;
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const uint32_t kTimeT0[kNumTimers] =
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{
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1000,
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1000,
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1001,
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1002,
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1003,
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1004,
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1005,
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1006,
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1007,
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1008
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};
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const uint32_t kTimerInterval[kNumTimers] =
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{
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20,
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100,
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(0 - kTimeT0[2]),
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100000,
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1000000,
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10,
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(1000 - kTimeT0[6]),
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200,
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200,
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200
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};
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// Expected timer fire order
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// timer # Trigger time
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// 5 1014
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// 0 1020
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// 1 1100
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// 7 1206
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// 8 1207
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// 9 1208
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// 3 101002
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// 4 1001003
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// 2 0 <timer wrapped>
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// 6 1000 <timer wrapped>
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const uint32_t kTriggerTimes[kNumTriggers] =
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{
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1014,
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1020,
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1100,
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1207,
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101004,
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/* timer wrap here */
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2,
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1000
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};
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// Expected timers fired by each kTriggerTimes[] value
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// Trigger # Timers Fired
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// 0 5
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// 1 0
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// 2 1
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// 3 7, 8
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// 4 9, 3
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// 5 4, 2
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// 6 6
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const bool kTimerStateAfterTrigger [kNumTriggers][kNumTimers] =
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{
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{ true, true, true, true, true, false, true, true, true, true}, // 5
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{ false, true, true, true, true, false, true, true, true, true}, // 0
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{ false, false, true, true, true, false, true, true, true, true}, // 1
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{ false, false, true, true, true, false, true, false, false, true}, // 7, 8
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{ false, false, true, false, true, false, true, false, false, false}, // 9, 3
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{ false, false, false, false, false, false, true, false, false, false}, // 4, 2
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{ false, false, false, false, false, false, false, false, false, false} // 6
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};
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const bool kSchedulerStateAfterTrigger[kNumTriggers] =
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{
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true,
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true,
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true,
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true,
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true,
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true,
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false
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};
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const uint32_t kTimerHandlerCountAfterTrigger[kNumTriggers] =
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{
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1,
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2,
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3,
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5,
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7,
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9,
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10
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};
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const uint32_t kTimerStopCountAfterTrigger[kNumTriggers] =
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{
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0,
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0,
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0,
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0,
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0,
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0,
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1
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};
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const uint32_t kTimerStartCountAfterTrigger[kNumTriggers] =
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{
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3,
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4,
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5,
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7,
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9,
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11,
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11
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};
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uint32_t timerContextHandleCounter[kNumTimers] = {0};
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Thread::Timer timer0(sTimerScheduler, TestTimerHandler, &timerContextHandleCounter[0]);
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Thread::Timer timer1(sTimerScheduler, TestTimerHandler, &timerContextHandleCounter[1]);
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Thread::Timer timer2(sTimerScheduler, TestTimerHandler, &timerContextHandleCounter[2]);
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Thread::Timer timer3(sTimerScheduler, TestTimerHandler, &timerContextHandleCounter[3]);
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Thread::Timer timer4(sTimerScheduler, TestTimerHandler, &timerContextHandleCounter[4]);
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Thread::Timer timer5(sTimerScheduler, TestTimerHandler, &timerContextHandleCounter[5]);
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Thread::Timer timer6(sTimerScheduler, TestTimerHandler, &timerContextHandleCounter[6]);
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Thread::Timer timer7(sTimerScheduler, TestTimerHandler, &timerContextHandleCounter[7]);
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Thread::Timer timer8(sTimerScheduler, TestTimerHandler, &timerContextHandleCounter[8]);
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Thread::Timer timer9(sTimerScheduler, TestTimerHandler, &timerContextHandleCounter[9]);
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Thread::Timer *timers[kNumTimers] = {&timer0, &timer1, &timer2, &timer3, &timer4, &timer5, &timer6, &timer7, &timer8, &timer9};
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size_t i;
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// Start the Ten timers.
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InitCounters();
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for (i = 0; i < kNumTimers ; i++)
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{
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sNow = kTimeT0[i];
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timers[i]->Start(kTimerInterval[i]);
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}
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// given the order in which timers are started, the TimerScheduler should call otPlatAlarmStartAt 2 times.
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// one for timer[0] and one for timer[5] which will supercede timer[0].
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == 2, "TestTenTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == 0, "TestTenTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == 0, "TestTenTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(sPlatT0 == kTimeT0[5] && sPlatDt == kTimerInterval[5], "TestTenTimer: Start params Failed.\n");
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VerifyOrQuit(sTimerOn, "TestTenTimer: Platform Timer State Failed.\n");
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for (i = 0 ; i < kNumTimers ; i++)
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{
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VerifyOrQuit(timers[i]->IsRunning(), "TestTenTimer: Timer running Failed.\n");
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}
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// Issue the triggers and test the State after each trigger.
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for (size_t trigger = 0 ; trigger < kNumTriggers ; trigger++)
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{
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sNow = kTriggerTimes[trigger];
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do
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{
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// By design, each call to otPlatAlarmFired() can result in 0 or 1 calls to a timer handler.
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// For some combinations of sNow and Timers queued, it is necessary to call otPlatAlarmFired()
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// multiple times in order to handle all the expired timers. It can be determined that another
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// timer is ready to be triggered by examining the aDt arg passed into otPlatAlarmStartAt(). If
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// that value is 0, then otPlatAlarmFired should be fired immediately. This loop calls otPlatAlarmFired()
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// the requisite number of times based on the aDt argument.
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otPlatAlarmFired(NULL);
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}
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while (sPlatDt == 0);
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStart] == kTimerStartCountAfterTrigger[trigger],
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"TestTenTimer: Start CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexAlarmStop] == kTimerStopCountAfterTrigger[trigger],
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"TestTenTimer: Stop CallCount Failed.\n");
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VerifyOrQuit(sCallCount[kCallCountIndexTimerHandler] == kTimerHandlerCountAfterTrigger[trigger],
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"TestTenTimer: Handler CallCount Failed.\n");
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VerifyOrQuit(sTimerOn == kSchedulerStateAfterTrigger[trigger],
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"TestTenTimer: Platform Timer State Failed.\n");
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for (i = 0 ; i < kNumTimers ; i++)
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{
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VerifyOrQuit(timers[i]->IsRunning() == kTimerStateAfterTrigger[trigger][i], "TestTenTimer: Timer running Failed.\n");
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}
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}
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for (i = 0 ; i < kNumTimers ; i++)
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{
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VerifyOrQuit(timerContextHandleCounter[i] == 1, "TestTenTimer: Timer context counter Failed.\n");
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}
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return 0;
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}
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void RunTimerTests(void)
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{
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TestOneTimer();
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TestTenTimers();
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}
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int main(void)
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{
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RunTimerTests();
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printf("All tests passed\n");
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return 0;
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}
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