android13/system/chre/pal/tests/src/gnss_pal_impl_test.cc

325 lines
11 KiB
C++

/*
* Copyright (C) 2020 The Android Open Source Project
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#include "gnss_pal_impl_test.h"
#include "chre/platform/log.h"
#include "chre/platform/shared/pal_system_api.h"
#include "chre/platform/system_time.h"
#include "chre/util/lock_guard.h"
#include <cinttypes>
//! Flag to require GNSS location sessions capability to be enabled for the test
//! to pass. Set to false to allow tests to pass on disabled platforms.
//! Note that it is required to run this test where location can be acquired.
//! The constants kGnssEventTimeoutNs and kEventArraySize may be tuned if
//! applicable.
#ifndef PAL_IMPL_TEST_GNSS_LOCATION_REQUIRED
#define PAL_IMPL_TEST_GNSS_LOCATION_REQUIRED true
#endif
//! Same as above for GNSS measurement sessions.
#ifndef PAL_IMPL_TEST_GNSS_MEASUREMENTS_REQUIRED
#define PAL_IMPL_TEST_GNSS_MEASUREMENTS_REQUIRED true
#endif
namespace gnss_pal_impl_test {
namespace {
using ::chre::Nanoseconds;
using ::chre::Seconds;
using ::chre::SystemTime;
//! A pointer to the current test running
gnss_pal_impl_test::PalGnssTest *gTest = nullptr;
//! Timeout as specified by the CHRE API
const Nanoseconds kGnssAsyncResultTimeoutNs =
Nanoseconds(CHRE_GNSS_ASYNC_RESULT_TIMEOUT_NS);
//! Timeout to wait for kEventArraySize events.
const Nanoseconds kGnssEventTimeoutNs = Seconds(60);
void chrePalRequestStateResync() {
if (gTest != nullptr) {
gTest->requestStateResync();
}
}
void chrePalLocationStatusChangeCallback(bool enabled, uint8_t errorCode) {
if (gTest != nullptr) {
gTest->locationStatusChangeCallback(enabled, errorCode);
}
}
void chrePalLocationEventCallback(struct chreGnssLocationEvent *event) {
if (gTest != nullptr) {
gTest->locationEventCallback(event);
}
}
void chrePalMeasurementStatusChangeCallback(bool enabled, uint8_t errorCode) {
if (gTest != nullptr) {
gTest->measurementStatusChangeCallback(enabled, errorCode);
}
}
void chrePalMeasurementEventCallback(struct chreGnssDataEvent *event) {
if (gTest != nullptr) {
gTest->measurementEventCallback(event);
}
}
void logLocationEvent(const struct chreGnssLocationEvent &event) {
LOGI("Received location: %" PRId32 ", %" PRId32, event.latitude_deg_e7,
event.longitude_deg_e7);
LOGI(" timestamp (ms): %" PRIu64, event.timestamp);
LOGI(" altitude (m): %f", event.altitude);
LOGI(" speed (m/s): %f", event.speed);
LOGI(" bearing (deg): %f", event.bearing);
LOGI(" accuracy: %f", event.accuracy);
LOGI(" flags: 0x%" PRIx16, event.flags);
LOGI(" altitude_accuracy: %f", event.altitude_accuracy);
LOGI(" speed_accuracy: %f", event.speed_accuracy);
LOGI(" bearing_accuracy: %f", event.bearing_accuracy);
}
void validateLocationEvent(const struct chreGnssLocationEvent &event) {
static uint64_t sLastTimestampNs = 0;
EXPECT_GE(event.timestamp, sLastTimestampNs);
sLastTimestampNs = event.timestamp;
if (event.flags & CHRE_GPS_LOCATION_HAS_LAT_LONG) {
EXPECT_GE(event.latitude_deg_e7, -90 * 1e7);
EXPECT_LE(event.latitude_deg_e7, 90 * 1e7);
EXPECT_GE(event.longitude_deg_e7, -180 * 1e7);
EXPECT_LE(event.longitude_deg_e7, 180 * 1e7);
}
if (event.flags & CHRE_GPS_LOCATION_HAS_BEARING) {
EXPECT_GE(event.bearing, 0);
EXPECT_LT(event.bearing, 360); // [0, 360) per API
}
}
void logMeasurementEvent(const struct chreGnssDataEvent &event) {
LOGI("Received data: %" PRIu8 " measurements", event.measurement_count);
for (uint8_t i = 0; i < event.measurement_count; i++) {
LOGI("%" PRIu8 ": const %" PRIu8 ", cn0 %.2f, freq %.3f MHz", i,
event.measurements[i].constellation, event.measurements[i].c_n0_dbhz,
event.measurements[i].carrier_frequency_hz / 1e6);
}
}
void validateMeasurementEvent(const struct chreGnssDataEvent &event) {
EXPECT_GE(event.measurement_count, 0);
EXPECT_LE(event.measurement_count, CHRE_GNSS_MAX_MEASUREMENT);
if (event.measurement_count > 0) {
EXPECT_NE(event.measurements, nullptr);
}
static int64_t sLastClockTimeNs = INT64_MIN;
EXPECT_GE(event.clock.time_ns, sLastClockTimeNs);
sLastClockTimeNs = event.clock.time_ns;
for (uint8_t i = 0; i < event.measurement_count; i++) {
EXPECT_GE(event.measurements[i].c_n0_dbhz, 0);
EXPECT_LE(event.measurements[i].c_n0_dbhz, 63);
}
}
} // anonymous namespace
void PalGnssTest::SetUp() {
api_ = chrePalGnssGetApi(CHRE_PAL_GNSS_API_CURRENT_VERSION);
ASSERT_NE(api_, nullptr);
EXPECT_EQ(api_->moduleVersion, CHRE_PAL_GNSS_API_CURRENT_VERSION);
// Open the PAL API
static const struct chrePalGnssCallbacks kCallbacks = {
.requestStateResync = chrePalRequestStateResync,
.locationStatusChangeCallback = chrePalLocationStatusChangeCallback,
.locationEventCallback = chrePalLocationEventCallback,
.measurementStatusChangeCallback = chrePalMeasurementStatusChangeCallback,
.measurementEventCallback = chrePalMeasurementEventCallback,
};
ASSERT_TRUE(api_->open(&chre::gChrePalSystemApi, &kCallbacks));
gTest = this;
errorCode_ = CHRE_ERROR_LAST;
locationSessionEnabled_ = false;
locationEventVector_.resize(0);
measurementSessionEnabled_ = false;
measurementEventVector_.resize(0);
}
void PalGnssTest::TearDown() {
gTest = nullptr;
if (api_ != nullptr) {
api_->close();
}
}
void PalGnssTest::requestStateResync() {
// TODO:
}
void PalGnssTest::locationStatusChangeCallback(bool enabled,
uint8_t errorCode) {
LOGI("Received location status change with enabled %d error %" PRIu8, enabled,
errorCode);
if (errorCode == CHRE_ERROR_LAST) {
LOGE("Received CHRE_ERROR_LAST");
errorCode = CHRE_ERROR;
}
chre::LockGuard<chre::Mutex> lock(mutex_);
errorCode_ = errorCode;
locationSessionEnabled_ = enabled;
condVar_.notify_one();
}
void PalGnssTest::locationEventCallback(struct chreGnssLocationEvent *event) {
LOGI("Received location event");
chre::LockGuard<chre::Mutex> lock(mutex_);
if (!locationEventVector_.full()) {
locationEventVector_.push_back(event);
if (locationEventVector_.full()) {
condVar_.notify_one();
}
}
}
void PalGnssTest::measurementStatusChangeCallback(bool enabled,
uint8_t errorCode) {
LOGI("Received measurement status change with enabled %d error %" PRIu8,
enabled, errorCode);
if (errorCode == CHRE_ERROR_LAST) {
LOGE("Received CHRE_ERROR_LAST");
errorCode = CHRE_ERROR;
}
chre::LockGuard<chre::Mutex> lock(mutex_);
errorCode_ = errorCode;
measurementSessionEnabled_ = enabled;
condVar_.notify_one();
}
void PalGnssTest::measurementEventCallback(struct chreGnssDataEvent *event) {
LOGI("Received measurement event");
chre::LockGuard<chre::Mutex> lock(mutex_);
if (!measurementEventVector_.full()) {
measurementEventVector_.push_back(event);
if (measurementEventVector_.full()) {
condVar_.notify_one();
}
}
}
void PalGnssTest::waitForAsyncResponseAssertSuccess(
chre::Nanoseconds timeoutNs) {
bool waitSuccess = true;
while (errorCode_ == CHRE_ERROR_LAST && waitSuccess) {
waitSuccess = condVar_.wait_for(mutex_, timeoutNs);
}
ASSERT_TRUE(waitSuccess);
ASSERT_EQ(errorCode_, CHRE_ERROR_NONE);
}
TEST_P(PalGnssTest, LocationSessionTest) {
bool hasLocationCapability =
((api_->getCapabilities() & CHRE_GNSS_CAPABILITIES_LOCATION) ==
CHRE_GNSS_CAPABILITIES_LOCATION);
#if PAL_IMPL_TEST_GNSS_LOCATION_REQUIRED
ASSERT_TRUE(hasLocationCapability);
#else
if (!hasLocationCapability) {
GTEST_SKIP();
}
#endif
chre::LockGuard<chre::Mutex> lock(mutex_);
prepareForAsyncResponse();
ASSERT_TRUE(api_->controlLocationSession(true /* enable */,
GetParam() /* minIntervalMs */,
0 /* minTimeToNextFixMs */));
waitForAsyncResponseAssertSuccess(kGnssAsyncResultTimeoutNs);
ASSERT_TRUE(locationSessionEnabled_);
bool waitSuccess = true;
while (!locationEventVector_.full() && waitSuccess) {
waitSuccess = condVar_.wait_for(mutex_, kGnssEventTimeoutNs);
}
for (size_t i = 0; i < locationEventVector_.size(); i++) {
logLocationEvent(*locationEventVector_[i]);
validateLocationEvent(*locationEventVector_[i]);
api_->releaseLocationEvent(locationEventVector_[i]);
}
EXPECT_TRUE(locationEventVector_.full());
prepareForAsyncResponse();
ASSERT_TRUE(api_->controlLocationSession(
false /* enable */, 0 /* minIntervalMs */, 0 /* minTimeToNextFixMs */));
waitForAsyncResponseAssertSuccess(kGnssAsyncResultTimeoutNs);
ASSERT_FALSE(locationSessionEnabled_);
}
TEST_P(PalGnssTest, MeasurementSessionTest) {
bool hasMeasurementCapability =
((api_->getCapabilities() & CHRE_GNSS_CAPABILITIES_MEASUREMENTS) ==
CHRE_GNSS_CAPABILITIES_MEASUREMENTS);
#if PAL_IMPL_TEST_GNSS_MEAUSUREMENT_REQUIRED
ASSERT_TRUE(hasMeasurementCapability);
#else
if (!hasMeasurementCapability) {
GTEST_SKIP();
}
#endif
chre::LockGuard<chre::Mutex> lock(mutex_);
prepareForAsyncResponse();
ASSERT_TRUE(api_->controlMeasurementSession(true /* enable */,
GetParam() /* minIntervalMs */));
waitForAsyncResponseAssertSuccess(kGnssAsyncResultTimeoutNs);
ASSERT_TRUE(measurementSessionEnabled_);
bool waitSuccess = true;
while (!measurementEventVector_.full() && waitSuccess) {
waitSuccess = condVar_.wait_for(mutex_, kGnssEventTimeoutNs);
}
EXPECT_TRUE(measurementEventVector_.full());
for (size_t i = 0; i < measurementEventVector_.size(); i++) {
logMeasurementEvent(*measurementEventVector_[i]);
validateMeasurementEvent(*measurementEventVector_[i]);
api_->releaseMeasurementDataEvent(measurementEventVector_[i]);
}
prepareForAsyncResponse();
ASSERT_TRUE(api_->controlMeasurementSession(false /* enable */,
0 /* minIntervalMs */));
waitForAsyncResponseAssertSuccess(kGnssAsyncResultTimeoutNs);
ASSERT_FALSE(measurementSessionEnabled_);
}
INSTANTIATE_TEST_SUITE_P(PalGnssTestRange, PalGnssTest,
// Parameter: minIntervalMs argument
testing::Values(1000, 8000));
} // namespace gnss_pal_impl_test