mirror of
https://github.com/wpilibsuite/allwpilib
synced 2026-06-25 01:41:43 +00:00
Use stricter C++ type conversions (#4357)
Now, implicit narrowing conversions are only used with wpi::Now(). This
also fixes clang-tidy warnings about C-style casts. For example:
```
== clang-tidy /__w/allwpilib/allwpilib/wpilibNewCommands/src/main/native/include/frc2/command/SwerveControllerCommand.inc ==
/__w/allwpilib/allwpilib/wpilibNewCommands/src/main/native/include/frc2/command/SwerveControllerCommand.inc:95:18: warning: C-style casts are discouraged; use static_cast/const_cast/reinterpret_cast [google-readability-casting]
auto curTime = units::second_t(m_timer.Get());
^
```
In that case at least, the cast was removed entirely since Get() already
returns a units::second_t.
This commit is contained in:
@@ -9,7 +9,7 @@ static constexpr double kEpsilon = 1E-9;
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TEST(ChassisSpeedsTest, FieldRelativeConstruction) {
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const auto chassisSpeeds = frc::ChassisSpeeds::FromFieldRelativeSpeeds(
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1.0_mps, 0.0_mps, 0.5_rad_per_s, frc::Rotation2d(-90.0_deg));
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1.0_mps, 0.0_mps, 0.5_rad_per_s, -90.0_deg);
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EXPECT_NEAR(0.0, chassisSpeeds.vx.value(), kEpsilon);
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EXPECT_NEAR(1.0, chassisSpeeds.vy.value(), kEpsilon);
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@@ -66,8 +66,8 @@ TEST(DifferentialDriveKinematicsTest, InverseKinematicsForRotateInPlace) {
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TEST(DifferentialDriveKinematicsTest, ForwardKinematicsForRotateInPlace) {
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const DifferentialDriveKinematics kinematics{0.381_m * 2};
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const DifferentialDriveWheelSpeeds wheelSpeeds{
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units::meters_per_second_t(+0.381 * wpi::numbers::pi),
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units::meters_per_second_t(-0.381 * wpi::numbers::pi)};
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units::meters_per_second_t{+0.381 * wpi::numbers::pi},
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units::meters_per_second_t{-0.381 * wpi::numbers::pi}};
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const auto chassisSpeeds = kinematics.ToChassisSpeeds(wheelSpeeds);
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EXPECT_NEAR(chassisSpeeds.vx.value(), 0, kEpsilon);
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@@ -13,10 +13,10 @@ static constexpr double kEpsilon = 1E-9;
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using namespace frc;
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TEST(DifferentialDriveOdometryTest, EncoderDistances) {
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DifferentialDriveOdometry odometry{Rotation2d(45_deg)};
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DifferentialDriveOdometry odometry{45_deg};
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const auto& pose = odometry.Update(Rotation2d(135_deg), 0_m,
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units::meter_t(5 * wpi::numbers::pi));
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const auto& pose =
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odometry.Update(135_deg, 0_m, units::meter_t{5 * wpi::numbers::pi});
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EXPECT_NEAR(pose.X().value(), 5.0, kEpsilon);
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EXPECT_NEAR(pose.Y().value(), 5.0, kEpsilon);
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@@ -61,7 +61,7 @@ TEST_F(MecanumDriveKinematicsTest, StrafeForwardKinematics) {
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TEST_F(MecanumDriveKinematicsTest, RotationInverseKinematics) {
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ChassisSpeeds speeds{0_mps, 0_mps,
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units::radians_per_second_t(2 * wpi::numbers::pi)};
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units::radians_per_second_t{2 * wpi::numbers::pi}};
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auto moduleStates = kinematics.ToWheelSpeeds(speeds);
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EXPECT_NEAR(-150.79644737, moduleStates.frontLeft.value(), 0.1);
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@@ -19,12 +19,12 @@ class MecanumDriveOdometryTest : public ::testing::Test {
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};
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TEST_F(MecanumDriveOdometryTest, MultipleConsecutiveUpdates) {
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odometry.ResetPosition(Pose2d(), 0_rad);
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odometry.ResetPosition(Pose2d{}, 0_rad);
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MecanumDriveWheelSpeeds wheelSpeeds{3.536_mps, 3.536_mps, 3.536_mps,
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3.536_mps};
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odometry.UpdateWithTime(0_s, Rotation2d(), wheelSpeeds);
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auto secondPose = odometry.UpdateWithTime(0.0_s, Rotation2d(), wheelSpeeds);
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odometry.UpdateWithTime(0_s, 0_deg, wheelSpeeds);
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auto secondPose = odometry.UpdateWithTime(0.0_s, 0_deg, wheelSpeeds);
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EXPECT_NEAR(secondPose.X().value(), 0.0, 0.01);
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EXPECT_NEAR(secondPose.Y().value(), 0.0, 0.01);
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@@ -32,11 +32,11 @@ TEST_F(MecanumDriveOdometryTest, MultipleConsecutiveUpdates) {
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}
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TEST_F(MecanumDriveOdometryTest, TwoIterations) {
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odometry.ResetPosition(Pose2d(), 0_rad);
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odometry.ResetPosition(Pose2d{}, 0_rad);
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MecanumDriveWheelSpeeds speeds{3.536_mps, 3.536_mps, 3.536_mps, 3.536_mps};
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odometry.UpdateWithTime(0_s, Rotation2d(), MecanumDriveWheelSpeeds{});
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auto pose = odometry.UpdateWithTime(0.10_s, Rotation2d(), speeds);
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odometry.UpdateWithTime(0_s, 0_deg, MecanumDriveWheelSpeeds{});
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auto pose = odometry.UpdateWithTime(0.10_s, 0_deg, speeds);
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EXPECT_NEAR(pose.X().value(), 0.3536, 0.01);
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EXPECT_NEAR(pose.Y().value(), 0.0, 0.01);
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@@ -44,11 +44,11 @@ TEST_F(MecanumDriveOdometryTest, TwoIterations) {
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}
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TEST_F(MecanumDriveOdometryTest, 90DegreeTurn) {
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odometry.ResetPosition(Pose2d(), 0_rad);
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odometry.ResetPosition(Pose2d{}, 0_rad);
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MecanumDriveWheelSpeeds speeds{-13.328_mps, 39.986_mps, -13.329_mps,
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39.986_mps};
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odometry.UpdateWithTime(0_s, Rotation2d(), MecanumDriveWheelSpeeds{});
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auto pose = odometry.UpdateWithTime(1_s, Rotation2d(90_deg), speeds);
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odometry.UpdateWithTime(0_s, 0_deg, MecanumDriveWheelSpeeds{});
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auto pose = odometry.UpdateWithTime(1_s, 90_deg, speeds);
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EXPECT_NEAR(pose.X().value(), 8.4855, 0.01);
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EXPECT_NEAR(pose.Y().value(), 8.4855, 0.01);
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@@ -56,12 +56,12 @@ TEST_F(MecanumDriveOdometryTest, 90DegreeTurn) {
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}
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TEST_F(MecanumDriveOdometryTest, GyroAngleReset) {
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odometry.ResetPosition(Pose2d(), Rotation2d(90_deg));
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odometry.ResetPosition(Pose2d{}, 90_deg);
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MecanumDriveWheelSpeeds speeds{3.536_mps, 3.536_mps, 3.536_mps, 3.536_mps};
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odometry.UpdateWithTime(0_s, Rotation2d(90_deg), MecanumDriveWheelSpeeds{});
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auto pose = odometry.UpdateWithTime(0.10_s, Rotation2d(90_deg), speeds);
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odometry.UpdateWithTime(0_s, 90_deg, MecanumDriveWheelSpeeds{});
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auto pose = odometry.UpdateWithTime(0.10_s, 90_deg, speeds);
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EXPECT_NEAR(pose.X().value(), 0.3536, 0.01);
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EXPECT_NEAR(pose.Y().value(), 0.0, 0.01);
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@@ -40,7 +40,7 @@ TEST_F(SwerveDriveKinematicsTest, StraightLineInverseKinematics) {
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}
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TEST_F(SwerveDriveKinematicsTest, StraightLineForwardKinematics) {
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SwerveModuleState state{5.0_mps, Rotation2d()};
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SwerveModuleState state{5.0_mps, 0_deg};
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auto chassisSpeeds = m_kinematics.ToChassisSpeeds(state, state, state, state);
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@@ -65,7 +65,7 @@ TEST_F(SwerveDriveKinematicsTest, StraightStrafeInverseKinematics) {
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}
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TEST_F(SwerveDriveKinematicsTest, StraightStrafeForwardKinematics) {
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SwerveModuleState state{5_mps, Rotation2d(90_deg)};
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SwerveModuleState state{5_mps, 90_deg};
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auto chassisSpeeds = m_kinematics.ToChassisSpeeds(state, state, state, state);
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EXPECT_NEAR(chassisSpeeds.vx.value(), 0.0, kEpsilon);
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@@ -75,7 +75,7 @@ TEST_F(SwerveDriveKinematicsTest, StraightStrafeForwardKinematics) {
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TEST_F(SwerveDriveKinematicsTest, TurnInPlaceInverseKinematics) {
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ChassisSpeeds speeds{0_mps, 0_mps,
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units::radians_per_second_t(2 * wpi::numbers::pi)};
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units::radians_per_second_t{2 * wpi::numbers::pi}};
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auto [fl, fr, bl, br] = m_kinematics.ToSwerveModuleStates(speeds);
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EXPECT_NEAR(fl.speed.value(), 106.63, kEpsilon);
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@@ -91,7 +91,7 @@ TEST_F(SwerveDriveKinematicsTest, TurnInPlaceInverseKinematics) {
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TEST_F(SwerveDriveKinematicsTest, ConserveWheelAngle) {
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ChassisSpeeds speeds{0_mps, 0_mps,
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units::radians_per_second_t(2 * wpi::numbers::pi)};
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units::radians_per_second_t{2 * wpi::numbers::pi}};
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m_kinematics.ToSwerveModuleStates(speeds);
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auto [fl, fr, bl, br] = m_kinematics.ToSwerveModuleStates(ChassisSpeeds{});
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@@ -107,10 +107,10 @@ TEST_F(SwerveDriveKinematicsTest, ConserveWheelAngle) {
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}
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TEST_F(SwerveDriveKinematicsTest, TurnInPlaceForwardKinematics) {
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SwerveModuleState fl{106.629_mps, Rotation2d(135_deg)};
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SwerveModuleState fr{106.629_mps, Rotation2d(45_deg)};
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SwerveModuleState bl{106.629_mps, Rotation2d(-135_deg)};
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SwerveModuleState br{106.629_mps, Rotation2d(-45_deg)};
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SwerveModuleState fl{106.629_mps, 135_deg};
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SwerveModuleState fr{106.629_mps, 45_deg};
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SwerveModuleState bl{106.629_mps, -135_deg};
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SwerveModuleState br{106.629_mps, -45_deg};
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auto chassisSpeeds = m_kinematics.ToChassisSpeeds(fl, fr, bl, br);
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@@ -121,7 +121,7 @@ TEST_F(SwerveDriveKinematicsTest, TurnInPlaceForwardKinematics) {
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TEST_F(SwerveDriveKinematicsTest, OffCenterCORRotationInverseKinematics) {
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ChassisSpeeds speeds{0_mps, 0_mps,
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units::radians_per_second_t(2 * wpi::numbers::pi)};
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units::radians_per_second_t{2 * wpi::numbers::pi}};
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auto [fl, fr, bl, br] = m_kinematics.ToSwerveModuleStates(speeds, m_fl);
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EXPECT_NEAR(fl.speed.value(), 0.0, kEpsilon);
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@@ -136,10 +136,10 @@ TEST_F(SwerveDriveKinematicsTest, OffCenterCORRotationInverseKinematics) {
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}
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TEST_F(SwerveDriveKinematicsTest, OffCenterCORRotationForwardKinematics) {
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SwerveModuleState fl{0.0_mps, Rotation2d(0_deg)};
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SwerveModuleState fr{150.796_mps, Rotation2d(0_deg)};
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SwerveModuleState bl{150.796_mps, Rotation2d(-90_deg)};
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SwerveModuleState br{213.258_mps, Rotation2d(-45_deg)};
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SwerveModuleState fl{0.0_mps, 0_deg};
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SwerveModuleState fr{150.796_mps, 0_deg};
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SwerveModuleState bl{150.796_mps, -90_deg};
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SwerveModuleState br{213.258_mps, -45_deg};
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auto chassisSpeeds = m_kinematics.ToChassisSpeeds(fl, fr, bl, br);
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@@ -152,7 +152,7 @@ TEST_F(SwerveDriveKinematicsTest,
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OffCenterCORRotationAndTranslationInverseKinematics) {
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ChassisSpeeds speeds{0_mps, 3.0_mps, 1.5_rad_per_s};
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auto [fl, fr, bl, br] =
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m_kinematics.ToSwerveModuleStates(speeds, Translation2d(24_m, 0_m));
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m_kinematics.ToSwerveModuleStates(speeds, Translation2d{24_m, 0_m});
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EXPECT_NEAR(fl.speed.value(), 23.43, kEpsilon);
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EXPECT_NEAR(fr.speed.value(), 23.43, kEpsilon);
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@@ -167,10 +167,10 @@ TEST_F(SwerveDriveKinematicsTest,
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TEST_F(SwerveDriveKinematicsTest,
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OffCenterCORRotationAndTranslationForwardKinematics) {
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SwerveModuleState fl{23.43_mps, Rotation2d(-140.19_deg)};
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SwerveModuleState fr{23.43_mps, Rotation2d(-39.81_deg)};
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SwerveModuleState bl{54.08_mps, Rotation2d(-109.44_deg)};
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SwerveModuleState br{54.08_mps, Rotation2d(-70.56_deg)};
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SwerveModuleState fl{23.43_mps, -140.19_deg};
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SwerveModuleState fr{23.43_mps, -39.81_deg};
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SwerveModuleState bl{54.08_mps, -109.44_deg};
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SwerveModuleState br{54.08_mps, -70.56_deg};
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auto chassisSpeeds = m_kinematics.ToChassisSpeeds(fl, fr, bl, br);
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@@ -180,10 +180,10 @@ TEST_F(SwerveDriveKinematicsTest,
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}
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TEST_F(SwerveDriveKinematicsTest, Desaturate) {
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SwerveModuleState state1{5.0_mps, Rotation2d()};
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SwerveModuleState state2{6.0_mps, Rotation2d()};
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SwerveModuleState state3{4.0_mps, Rotation2d()};
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SwerveModuleState state4{7.0_mps, Rotation2d()};
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SwerveModuleState state1{5.0_mps, 0_deg};
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SwerveModuleState state2{6.0_mps, 0_deg};
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SwerveModuleState state3{4.0_mps, 0_deg};
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SwerveModuleState state4{7.0_mps, 0_deg};
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wpi::array<SwerveModuleState, 4> arr{state1, state2, state3, state4};
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SwerveDriveKinematics<4>::DesaturateWheelSpeeds(&arr, 5.5_mps);
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@@ -22,14 +22,14 @@ class SwerveDriveOdometryTest : public ::testing::Test {
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};
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TEST_F(SwerveDriveOdometryTest, TwoIterations) {
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SwerveModuleState state{5_mps, Rotation2d()};
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SwerveModuleState state{5_mps, 0_deg};
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m_odometry.ResetPosition(Pose2d(), 0_rad);
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m_odometry.UpdateWithTime(0_s, Rotation2d(), SwerveModuleState(),
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SwerveModuleState(), SwerveModuleState(),
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SwerveModuleState());
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auto pose = m_odometry.UpdateWithTime(0.1_s, Rotation2d(), state, state,
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state, state);
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m_odometry.ResetPosition(Pose2d{}, 0_rad);
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m_odometry.UpdateWithTime(0_s, 0_deg, SwerveModuleState{},
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SwerveModuleState{}, SwerveModuleState{},
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SwerveModuleState{});
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auto pose =
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m_odometry.UpdateWithTime(0.1_s, 0_deg, state, state, state, state);
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EXPECT_NEAR(0.5, pose.X().value(), kEpsilon);
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EXPECT_NEAR(0.0, pose.Y().value(), kEpsilon);
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@@ -37,17 +37,16 @@ TEST_F(SwerveDriveOdometryTest, TwoIterations) {
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}
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TEST_F(SwerveDriveOdometryTest, 90DegreeTurn) {
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SwerveModuleState fl{18.85_mps, Rotation2d(90_deg)};
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SwerveModuleState fr{42.15_mps, Rotation2d(26.565_deg)};
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SwerveModuleState bl{18.85_mps, Rotation2d(-90_deg)};
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SwerveModuleState br{42.15_mps, Rotation2d(-26.565_deg)};
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SwerveModuleState fl{18.85_mps, 90_deg};
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SwerveModuleState fr{42.15_mps, 26.565_deg};
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SwerveModuleState bl{18.85_mps, -90_deg};
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SwerveModuleState br{42.15_mps, -26.565_deg};
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SwerveModuleState zero{0_mps, Rotation2d()};
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SwerveModuleState zero{0_mps, 0_deg};
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m_odometry.ResetPosition(Pose2d(), 0_rad);
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m_odometry.UpdateWithTime(0_s, Rotation2d(), zero, zero, zero, zero);
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auto pose =
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m_odometry.UpdateWithTime(1_s, Rotation2d(90_deg), fl, fr, bl, br);
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m_odometry.ResetPosition(Pose2d{}, 0_rad);
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m_odometry.UpdateWithTime(0_s, 0_deg, zero, zero, zero, zero);
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auto pose = m_odometry.UpdateWithTime(1_s, 90_deg, fl, fr, bl, br);
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EXPECT_NEAR(12.0, pose.X().value(), kEpsilon);
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EXPECT_NEAR(12.0, pose.Y().value(), kEpsilon);
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@@ -55,15 +54,15 @@ TEST_F(SwerveDriveOdometryTest, 90DegreeTurn) {
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}
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TEST_F(SwerveDriveOdometryTest, GyroAngleReset) {
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m_odometry.ResetPosition(Pose2d(), Rotation2d(90_deg));
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m_odometry.ResetPosition(Pose2d{}, 90_deg);
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SwerveModuleState state{5_mps, Rotation2d()};
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SwerveModuleState state{5_mps, 0_deg};
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m_odometry.UpdateWithTime(0_s, Rotation2d(90_deg), SwerveModuleState(),
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SwerveModuleState(), SwerveModuleState(),
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SwerveModuleState());
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auto pose = m_odometry.UpdateWithTime(0.1_s, Rotation2d(90_deg), state, state,
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state, state);
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m_odometry.UpdateWithTime(0_s, 90_deg, SwerveModuleState{},
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SwerveModuleState{}, SwerveModuleState{},
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SwerveModuleState{});
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auto pose =
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m_odometry.UpdateWithTime(0.1_s, 90_deg, state, state, state, state);
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EXPECT_NEAR(0.5, pose.X().value(), kEpsilon);
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EXPECT_NEAR(0.0, pose.Y().value(), kEpsilon);
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