Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
Sample project(s) available on GitHub
Syntax
public class NineDofImuWing : PollingSensorBase<(Acceleration3D? Acceleration3D, AngularVelocity3D? AngularVelocity3D, MagneticField3D? MagneticField3D)>, IObservable<IChangeResult<(Acceleration3D? Acceleration3D, AngularVelocity3D? AngularVelocity3D, MagneticField3D? MagneticField3D)>>, ISamplingSensor<(Acceleration3D? Acceleration3D, AngularVelocity3D? AngularVelocity3D, MagneticField3D? MagneticField3D)>, ISensor<(Acceleration3D? Acceleration3D, AngularVelocity3D? AngularVelocity3D, MagneticField3D? MagneticField3D)>, IAccelerometer, ISamplingSensor<Acceleration3D>, ISensor<Acceleration3D>, IGyroscope, ISamplingSensor<AngularVelocity3D>, ISensor<AngularVelocity3D>, IMagnetometer, ISamplingSensor<MagneticField3D>, ISensor<MagneticField3D>
Constructors
NineDofImuWing(II2cBus, bool, bool)
Represents Adafruit's 9-DOF IMU FeatherWing with an Lsm6dsox Accelerometer/Gyroscope and an Lis3mdl Magnetometer.
Declaration
public NineDofImuWing(II2cBus i2cBus, bool alternateAccelAddress = false, bool alternateMagAddress = false)
Parameters
Type | Name | Description |
---|---|---|
II2cBus | i2cBus | The I2C bus connected to the device |
bool | alternateAccelAddress | true if the solder jumper for A/G Address is closed on the back of the featherwing, or it's SDO pin is pulled high. |
bool | alternateMagAddress | true if the solder jumper for Mag Address is closed on the back of the featherwing, or it's SDO pin is pulled high. |
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
Exceptions
Type | Condition |
---|---|
ArgumentNullException | if |
Properties
Acceleration3D
Last value read from the sensor.
Declaration
public Acceleration3D? Acceleration3D { get; }
Property Value
Type | Description |
---|---|
Acceleration3D? |
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
AngularVelocity3D
Last value read from the sensor.
Declaration
public AngularVelocity3D? AngularVelocity3D { get; }
Property Value
Type | Description |
---|---|
AngularVelocity3D? |
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
IsSampling
Gets a value indicating whether the sensor is currently sampling
Declaration
public bool IsSampling { get; }
Property Value
Type | Description |
---|---|
bool | true if sampling, otherwise, false |
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
Lis3mdl
Represents Adafruit's 9-DOF IMU FeatherWing
Declaration
public Lis3mdl Lis3mdl { get; }
Property Value
Type | Description |
---|---|
Lis3mdl |
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
Lsm6dsox
Represents Adafruit's 9-DOF IMU FeatherWing
Declaration
public Lsm6dsox Lsm6dsox { get; }
Property Value
Type | Description |
---|---|
Lsm6dsox |
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
MagneticField3D
Last value read from the sensor
Declaration
public MagneticField3D? MagneticField3D { get; }
Property Value
Type | Description |
---|---|
MagneticField3D? |
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
UpdateInterval
A TimeSpan
that specifies how long to
wait between readings. This value influences how often *Updated
events are raised and IObservable
consumers are notified.
Declaration
public override TimeSpan UpdateInterval { get; }
Property Value
Type | Description |
---|---|
TimeSpan |
Overrides
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
Methods
ReadSensor()
Read value from sensor
Declaration
protected override Task<(Acceleration3D? Acceleration3D, AngularVelocity3D? AngularVelocity3D, MagneticField3D? MagneticField3D)> ReadSensor()
Returns
Type | Description |
---|---|
Task<(Acceleration3D? Acceleration3D, AngularVelocity3D? AngularVelocity3D, MagneticField3D? MagneticField3D)> | unitized value |
Overrides
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
StartUpdating(TimeSpan?)
Starts updating the sensor on the updateInterval frequency specified.
This method also starts raising Updated
events and notifying
IObservable subscribers. Use the updateInterval
parameter
to specify how often events and notifications are raised/sent.
Declaration
public override void StartUpdating(TimeSpan? updateInterval = null)
Parameters
Type | Name | Description |
---|---|---|
TimeSpan? | updateInterval | A |
Overrides
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
StopUpdating()
Stops sampling the sensor
Declaration
public override void StopUpdating()
Overrides
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
Events
Acceleration3DUpdated
Raised when a new reading has been made. Events will only be raised
while the driver is updating. To start, call the StartUpdating()
method.
Declaration
public event EventHandler<IChangeResult<Acceleration3D>> Acceleration3DUpdated
Event Type
Type | Description |
---|---|
EventHandler<IChangeResult<Acceleration3D>> |
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
AngularVelocity3DUpdated
Raised when a new reading has been made. Events will only be raised
while the driver is updating. To start, call the StartUpdating()
method.
Declaration
public event EventHandler<IChangeResult<AngularVelocity3D>> AngularVelocity3DUpdated
Event Type
Type | Description |
---|---|
EventHandler<IChangeResult<AngularVelocity3D>> |
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}
MagneticField3DUpdated
Raised when a new reading has been made. Events will only be raised
while the driver is updating. To start, call the StartUpdating()
method.
Declaration
public event EventHandler<IChangeResult<MagneticField3D>> MagneticField3DUpdated
Event Type
Type | Description |
---|---|
EventHandler<IChangeResult<MagneticField3D>> |
Remarks
NineDofImuWing | |
---|---|
Status | |
Source code | GitHub |
NuGet package |
Code Example
NineDofImuWing nineDofImuWing;
public override Task Initialize()
{
Resolver.Log.Info("Initializing ...");
var i2cBus = Device.CreateI2cBus(I2cBusSpeed.FastPlus);
nineDofImuWing = new NineDofImuWing(i2cBus);
// Example that uses an IObservable subscription to only be notified when the filter is satisfied
var consumer = NineDofImuWing.CreateObserver(handler: result => HandleResult(this, result),
filter: result => FilterResult(result));
nineDofImuWing.Subscribe(consumer);
// classical .NET events can also be used for all sensors
nineDofImuWing.Updated += HandleResult;
// or for individual sensors
nineDofImuWing.Acceleration3DUpdated += HandleResult;
nineDofImuWing.AngularVelocity3DUpdated += HandleResult;
nineDofImuWing.MagneticField3DUpdated += HandleResult;
nineDofImuWing.StartUpdating(TimeSpan.FromSeconds(1));
return Task.CompletedTask;
}
bool FilterResult(IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
return result.New.Acceleration3D.Value.Z > new Acceleration(0.1, Acceleration.UnitType.Gravity);
}
// Example Event Handler for all sensor results
void HandleResult(object sender, IChangeResult<(
Acceleration3D? Acceleration3D,
AngularVelocity3D? AngularVelocity3D,
MagneticField3D? MagneticField3D
)> result)
{
var accel = result.New.Acceleration3D.Value;
var gyro = result.New.AngularVelocity3D.Value;
var mag = result.New.MagneticField3D.Value;
Resolver.Log.Info(
$"Accelerometer (g): X = {accel.X.Gravity:0.##}, Y = {accel.Y.Gravity:0.##}, Z = {accel.Z.Gravity:0.##}; " +
$"Gyroscope (°/s): X = {gyro.X.DegreesPerSecond:0.##}, Y = {gyro.Y.DegreesPerSecond:0.##}, Z = {gyro.Z.DegreesPerSecond:0.##}; " +
$"Magnetometer (gauss) X = {mag.X.Gauss:0.##}, Y = {mag.Y.Gauss:0.##}, Z = {mag.Z.Gauss:0.##}"
);
}
// Example Event Handler for any individual sensors' result
void HandleResult<UNIT>(object sender, IChangeResult<UNIT> result)
where UNIT : struct
{
if (result is IChangeResult<Acceleration3D> accel)
{
Resolver.Log.Info($"Accelerometer (g): X = {accel.New.X.Gravity:0.##}, Y = {accel.New.Y.Gravity:0.##}, Z = {accel.New.Z.Gravity:0.##}");
}
else if (result is IChangeResult<AngularVelocity3D> gyro)
{
Resolver.Log.Info($"Gyroscope (°/s): X = {gyro.New.X.DegreesPerSecond:0.##}, Y = {gyro.New.Y.DegreesPerSecond:0.##}, Z = {gyro.New.Z.DegreesPerSecond:0.##};");
}
else if (result is IChangeResult<MagneticField3D> mag)
{
Resolver.Log.Info($"Magnetometer (gauss) X = {mag.New.X.Gauss:0.##}, Y = {mag.New.Y.Gauss:0.##}, Z = {mag.New.Z.Gauss:0.##}");
}
}