Files
hardware_interfaces/gnss/common/utils/vts/Utils.cpp
Yu-Han Yang 4e5ffc2231 Stop location to avoid timing issue (VTS 2.0)
Before setting constellation blacklist, the location report should
be stopped first. Otherwise, the sv status which contains blacklist
constellation is still reporting and may be counted in checking
SvList. According to the comments of this case, location should be
turned off as 2a step.

Also adding another test that a blacklist request that comes in
while tracking is started, takes effect after a stop/start cycle.

Bug: 144675840
Test: on device
Change-Id: I0a5030cbeeb4bbc45000157414582117d8abbae9
2020-06-08 10:58:46 -07:00

201 lines
8.4 KiB
C++

/*
* Copyright (C) 2019 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 <Utils.h>
#include "gtest/gtest.h"
namespace android {
namespace hardware {
namespace gnss {
namespace common {
using GnssConstellationType_V1_0 = V1_0::GnssConstellationType;
using GnssConstellationType_V2_0 = V2_0::GnssConstellationType;
using V1_0::GnssLocationFlags;
void Utils::checkLocation(const GnssLocation& location, bool check_speed,
bool check_more_accuracies) {
EXPECT_TRUE(location.gnssLocationFlags & GnssLocationFlags::HAS_LAT_LONG);
EXPECT_TRUE(location.gnssLocationFlags & GnssLocationFlags::HAS_ALTITUDE);
if (check_speed) {
EXPECT_TRUE(location.gnssLocationFlags & GnssLocationFlags::HAS_SPEED);
}
EXPECT_TRUE(location.gnssLocationFlags & GnssLocationFlags::HAS_HORIZONTAL_ACCURACY);
// New uncertainties available in O must be provided,
// at least when paired with modern hardware (2017+)
if (check_more_accuracies) {
EXPECT_TRUE(location.gnssLocationFlags & GnssLocationFlags::HAS_VERTICAL_ACCURACY);
if (check_speed) {
EXPECT_TRUE(location.gnssLocationFlags & GnssLocationFlags::HAS_SPEED_ACCURACY);
if (location.gnssLocationFlags & GnssLocationFlags::HAS_BEARING) {
EXPECT_TRUE(location.gnssLocationFlags & GnssLocationFlags::HAS_BEARING_ACCURACY);
}
}
}
EXPECT_GE(location.latitudeDegrees, -90.0);
EXPECT_LE(location.latitudeDegrees, 90.0);
EXPECT_GE(location.longitudeDegrees, -180.0);
EXPECT_LE(location.longitudeDegrees, 180.0);
EXPECT_GE(location.altitudeMeters, -1000.0);
EXPECT_LE(location.altitudeMeters, 30000.0);
if (check_speed) {
EXPECT_GE(location.speedMetersPerSec, 0.0);
EXPECT_LE(location.speedMetersPerSec, 5.0); // VTS tests are stationary.
// Non-zero speeds must be reported with an associated bearing
if (location.speedMetersPerSec > 0.0) {
EXPECT_TRUE(location.gnssLocationFlags & GnssLocationFlags::HAS_BEARING);
}
}
/*
* Tolerating some especially high values for accuracy estimate, in case of
* first fix with especially poor geometry (happens occasionally)
*/
EXPECT_GT(location.horizontalAccuracyMeters, 0.0);
EXPECT_LE(location.horizontalAccuracyMeters, 250.0);
/*
* Some devices may define bearing as -180 to +180, others as 0 to 360.
* Both are okay & understandable.
*/
if (location.gnssLocationFlags & GnssLocationFlags::HAS_BEARING) {
EXPECT_GE(location.bearingDegrees, -180.0);
EXPECT_LE(location.bearingDegrees, 360.0);
}
if (location.gnssLocationFlags & GnssLocationFlags::HAS_VERTICAL_ACCURACY) {
EXPECT_GT(location.verticalAccuracyMeters, 0.0);
EXPECT_LE(location.verticalAccuracyMeters, 500.0);
}
if (location.gnssLocationFlags & GnssLocationFlags::HAS_SPEED_ACCURACY) {
EXPECT_GT(location.speedAccuracyMetersPerSecond, 0.0);
EXPECT_LE(location.speedAccuracyMetersPerSecond, 50.0);
}
if (location.gnssLocationFlags & GnssLocationFlags::HAS_BEARING_ACCURACY) {
EXPECT_GT(location.bearingAccuracyDegrees, 0.0);
EXPECT_LE(location.bearingAccuracyDegrees, 360.0);
}
// Check timestamp > 1.48e12 (47 years in msec - 1970->2017+)
EXPECT_GT(location.timestamp, 1.48e12);
}
const MeasurementCorrections_1_0 Utils::getMockMeasurementCorrections() {
ReflectingPlane reflectingPlane = {
.latitudeDegrees = 37.4220039,
.longitudeDegrees = -122.0840991,
.altitudeMeters = 250.35,
.azimuthDegrees = 203.0,
};
SingleSatCorrection_V1_0 singleSatCorrection1 = {
.singleSatCorrectionFlags = GnssSingleSatCorrectionFlags::HAS_SAT_IS_LOS_PROBABILITY |
GnssSingleSatCorrectionFlags::HAS_EXCESS_PATH_LENGTH |
GnssSingleSatCorrectionFlags::HAS_EXCESS_PATH_LENGTH_UNC |
GnssSingleSatCorrectionFlags::HAS_REFLECTING_PLANE,
.constellation = GnssConstellationType_V1_0::GPS,
.svid = 12,
.carrierFrequencyHz = 1.59975e+09,
.probSatIsLos = 0.50001,
.excessPathLengthMeters = 137.4802,
.excessPathLengthUncertaintyMeters = 25.5,
.reflectingPlane = reflectingPlane,
};
SingleSatCorrection_V1_0 singleSatCorrection2 = {
.singleSatCorrectionFlags = GnssSingleSatCorrectionFlags::HAS_SAT_IS_LOS_PROBABILITY |
GnssSingleSatCorrectionFlags::HAS_EXCESS_PATH_LENGTH |
GnssSingleSatCorrectionFlags::HAS_EXCESS_PATH_LENGTH_UNC,
.constellation = GnssConstellationType_V1_0::GPS,
.svid = 9,
.carrierFrequencyHz = 1.59975e+09,
.probSatIsLos = 0.873,
.excessPathLengthMeters = 26.294,
.excessPathLengthUncertaintyMeters = 10.0,
};
hidl_vec<SingleSatCorrection_V1_0> singleSatCorrections = {singleSatCorrection1,
singleSatCorrection2};
MeasurementCorrections_1_0 mockCorrections = {
.latitudeDegrees = 37.4219999,
.longitudeDegrees = -122.0840575,
.altitudeMeters = 30.60062531,
.horizontalPositionUncertaintyMeters = 9.23542,
.verticalPositionUncertaintyMeters = 15.02341,
.toaGpsNanosecondsOfWeek = 2935633453L,
.satCorrections = singleSatCorrections,
};
return mockCorrections;
}
const MeasurementCorrections_1_1 Utils::getMockMeasurementCorrections_1_1() {
MeasurementCorrections_1_0 mockCorrections_1_0 = getMockMeasurementCorrections();
SingleSatCorrection_V1_1 singleSatCorrection1 = {
.v1_0 = mockCorrections_1_0.satCorrections[0],
.constellation = GnssConstellationType_V2_0::IRNSS,
};
SingleSatCorrection_V1_1 singleSatCorrection2 = {
.v1_0 = mockCorrections_1_0.satCorrections[1],
.constellation = GnssConstellationType_V2_0::IRNSS,
};
mockCorrections_1_0.satCorrections[0].constellation = GnssConstellationType_V1_0::UNKNOWN;
mockCorrections_1_0.satCorrections[1].constellation = GnssConstellationType_V1_0::UNKNOWN;
hidl_vec<SingleSatCorrection_V1_1> singleSatCorrections = {singleSatCorrection1,
singleSatCorrection2};
MeasurementCorrections_1_1 mockCorrections_1_1 = {
.v1_0 = mockCorrections_1_0,
.hasEnvironmentBearing = true,
.environmentBearingDegrees = 45.0,
.environmentBearingUncertaintyDegrees = 4.0,
.satCorrections = singleSatCorrections,
};
return mockCorrections_1_1;
}
/*
* MapConstellationType:
* Given a GnssConstellationType_2_0 type constellation, maps to its equivalent
* GnssConstellationType_1_0 type constellation. For constellations that do not have
* an equivalent value, maps to GnssConstellationType_1_0::UNKNOWN
*/
GnssConstellationType_1_0 Utils::mapConstellationType(GnssConstellationType_2_0 constellation) {
switch (constellation) {
case GnssConstellationType_2_0::GPS:
return GnssConstellationType_1_0::GPS;
case GnssConstellationType_2_0::SBAS:
return GnssConstellationType_1_0::SBAS;
case GnssConstellationType_2_0::GLONASS:
return GnssConstellationType_1_0::GLONASS;
case GnssConstellationType_2_0::QZSS:
return GnssConstellationType_1_0::QZSS;
case GnssConstellationType_2_0::BEIDOU:
return GnssConstellationType_1_0::BEIDOU;
case GnssConstellationType_2_0::GALILEO:
return GnssConstellationType_1_0::GALILEO;
default:
return GnssConstellationType_1_0::UNKNOWN;
}
}
} // namespace common
} // namespace gnss
} // namespace hardware
} // namespace android