using System; using LibreHardwareMonitor.Hardware; using LibreHardwareMonitor.Windows.WinUI.Utilities; using LibreHardwareMonitor.Windows.WinUI.ViewModels; using Moq; using Xunit; namespace LibreHardwareMonitor.Windows.WinUI.Tests.Utilities; public class SensorFormatterTests { [Fact] public void GetFormatString_ReturnsCorrectFormat_ForAllSensorTypes() { var mockSensor = new Mock(); // Test a few specific types mockSensor.Setup(s => s.SensorType).Returns(SensorType.Voltage); Assert.Equal("{0:F3} V", SensorFormatter.GetFormatString(mockSensor.Object)); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Load); Assert.Equal("{0:F1} %", SensorFormatter.GetFormatString(mockSensor.Object)); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Temperature); Assert.Equal("{0:F1} \u00B0C", SensorFormatter.GetFormatString(mockSensor.Object)); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Fan); Assert.Equal("{0:F0} RPM", SensorFormatter.GetFormatString(mockSensor.Object)); // Test default case mockSensor.Setup(s => s.SensorType).Returns((SensorType)999); Assert.Equal("{0:F1}", SensorFormatter.GetFormatString(mockSensor.Object)); } // Characterization: pins the GetFormatString mapping for every SensorType so the // three parallel SensorType switches can be safely collapsed into one lookup table. [Theory] [InlineData(SensorType.Voltage, "{0:F3} V")] [InlineData(SensorType.Current, "{0:F3} A")] [InlineData(SensorType.Clock, "{0:F1} MHz")] [InlineData(SensorType.Load, "{0:F1} %")] [InlineData(SensorType.Temperature, "{0:F1} °C")] [InlineData(SensorType.Fan, "{0:F0} RPM")] [InlineData(SensorType.Flow, "{0:F1} L/h")] [InlineData(SensorType.Control, "{0:F1} %")] [InlineData(SensorType.Level, "{0:F1} %")] [InlineData(SensorType.Power, "{0:F1} W")] [InlineData(SensorType.Data, "{0:F1} GB")] [InlineData(SensorType.SmallData, "{0:F1} MB")] [InlineData(SensorType.Factor, "{0:F3}")] [InlineData(SensorType.Frequency, "{0:F1} Hz")] [InlineData(SensorType.Throughput, "{0:F1} B/s")] [InlineData(SensorType.TimeSpan, "{0:g}")] [InlineData(SensorType.Timing, "{0:F3} ns")] [InlineData(SensorType.Energy, "{0:F0} mWh")] [InlineData(SensorType.Noise, "{0:F0} dBA")] [InlineData(SensorType.Conductivity, "{0:F1} µS/cm")] [InlineData(SensorType.Humidity, "{0:F0} %")] [InlineData((SensorType)999, "{0:F1}")] public void GetFormatString_AllSensorTypes(SensorType sensorType, string expected) { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(sensorType); Assert.Equal(expected, SensorFormatter.GetFormatString(mockSensor.Object)); } // Characterization: pins the GetPlotUnit mapping for every SensorType (Celsius). [Theory] [InlineData(SensorType.Voltage, "V")] [InlineData(SensorType.Current, "A")] [InlineData(SensorType.Clock, "MHz")] [InlineData(SensorType.Load, "%")] [InlineData(SensorType.Temperature, "°C")] [InlineData(SensorType.Fan, "RPM")] [InlineData(SensorType.Flow, "L/h")] [InlineData(SensorType.Control, "%")] [InlineData(SensorType.Level, "%")] [InlineData(SensorType.Power, "W")] [InlineData(SensorType.Data, "GB")] [InlineData(SensorType.SmallData, "MB")] [InlineData(SensorType.Factor, "1")] [InlineData(SensorType.Frequency, "Hz")] [InlineData(SensorType.Throughput, "B/s")] [InlineData(SensorType.TimeSpan, "s")] [InlineData(SensorType.Timing, "ns")] [InlineData(SensorType.Energy, "mWh")] [InlineData(SensorType.Noise, "dBA")] [InlineData(SensorType.Conductivity, "µS/cm")] [InlineData(SensorType.Humidity, "%")] [InlineData((SensorType)999, "")] public void GetPlotUnit_AllSensorTypes_Celsius(SensorType sensorType, string expected) { Assert.Equal(expected, SensorFormatter.GetPlotUnit(sensorType, TemperatureUnit.Celsius)); } // Characterization: pins FormatValue for the "regular" {0:Fn} unit types (Celsius). // Throughput, TimeSpan, and Temperature-Fahrenheit have their own dedicated tests. [Theory] [InlineData(SensorType.Voltage, 1.234f, "1.234 V")] [InlineData(SensorType.Current, 2.5f, "2.500 A")] [InlineData(SensorType.Clock, 3500f, "3500.0 MHz")] [InlineData(SensorType.Load, 42.5f, "42.5 %")] [InlineData(SensorType.Temperature, 50.5f, "50.5 °C")] [InlineData(SensorType.Fan, 1200f, "1200 RPM")] [InlineData(SensorType.Flow, 10.5f, "10.5 L/h")] [InlineData(SensorType.Control, 75.5f, "75.5 %")] [InlineData(SensorType.Level, 60.5f, "60.5 %")] [InlineData(SensorType.Power, 95.5f, "95.5 W")] [InlineData(SensorType.Data, 8.5f, "8.5 GB")] [InlineData(SensorType.SmallData, 256.5f, "256.5 MB")] [InlineData(SensorType.Factor, 1.234f, "1.234")] [InlineData(SensorType.Frequency, 60.5f, "60.5 Hz")] [InlineData(SensorType.Timing, 1.234f, "1.234 ns")] [InlineData(SensorType.Energy, 1500f, "1500 mWh")] [InlineData(SensorType.Noise, 45f, "45 dBA")] [InlineData(SensorType.Conductivity, 12.5f, "12.5 µS/cm")] [InlineData(SensorType.Humidity, 55f, "55 %")] [InlineData((SensorType)999, 12.34f, "12.3")] public void FormatValue_RegularTypes_Celsius(SensorType sensorType, float value, string expected) { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(sensorType); Assert.Equal(expected, SensorFormatter.FormatValue(mockSensor.Object, value, TemperatureUnit.Celsius)); } [Fact] public void FormatValue_NullValue_ReturnsDash() { var mockSensor = new Mock(); var result = SensorFormatter.FormatValue(mockSensor.Object, null, TemperatureUnit.Celsius); Assert.Equal("-", result); } [Fact] public void FormatValue_Celsius_ReturnsCelsiusString() { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Temperature); var result = SensorFormatter.FormatValue(mockSensor.Object, 25.5f, TemperatureUnit.Celsius); Assert.Equal("25.5 \u00B0C", result); } [Fact] public void FormatValue_Fahrenheit_ReturnsFahrenheitString() { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Temperature); var result = SensorFormatter.FormatValue(mockSensor.Object, 25.5f, TemperatureUnit.Fahrenheit); // 25.5 * 1.8 + 32 = 77.9 Assert.Equal("77.9 \u00B0F", result); } [Fact] public void FormatValue_Throughput_ReturnsCorrectString() { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Throughput); mockSensor.Setup(s => s.Name).Returns("Other"); // Below 1MB var result1 = SensorFormatter.FormatValue(mockSensor.Object, 512f, TemperatureUnit.Celsius); Assert.Equal("0.5 KB/s", result1); // Above 1MB var result2 = SensorFormatter.FormatValue(mockSensor.Object, 2097152f, TemperatureUnit.Celsius); Assert.Equal("2.0 MB/s", result2); } [Fact] public void FormatValue_Throughput_ConnectionSpeed_ReturnsCorrectString() { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Throughput); mockSensor.Setup(s => s.Name).Returns("Connection Speed"); Assert.Equal("100Mbps", SensorFormatter.FormatValue(mockSensor.Object, 100000000f, TemperatureUnit.Celsius)); Assert.Equal("1Gbps", SensorFormatter.FormatValue(mockSensor.Object, 1000000000f, TemperatureUnit.Celsius)); Assert.Equal("500 bps", SensorFormatter.FormatValue(mockSensor.Object, 500f, TemperatureUnit.Celsius)); Assert.Equal("2.0 Kbps", SensorFormatter.FormatValue(mockSensor.Object, 2048f, TemperatureUnit.Celsius)); Assert.Equal("2.0 Mbps", SensorFormatter.FormatValue(mockSensor.Object, 2097152f, TemperatureUnit.Celsius)); Assert.Equal("2.0 Gbps", SensorFormatter.FormatValue(mockSensor.Object, 2147483648f, TemperatureUnit.Celsius)); } [Fact] public void FormatValue_TimeSpan_ReturnsCorrectString() { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(SensorType.TimeSpan); var result = SensorFormatter.FormatValue(mockSensor.Object, 3600f, TemperatureUnit.Celsius); Assert.Equal("1:00:00", result); // g format for 1 hour } [Fact] public void FormatValue_Default_ReturnsFormattedFloat() { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns((SensorType)999); var result = SensorFormatter.FormatValue(mockSensor.Object, 12.34f, TemperatureUnit.Celsius); Assert.Equal("12.3", result); } [Fact] public void GetPlotValue_NullValue_ReturnsNull() { var mockSensor = new Mock(); mockSensor.Setup(s => s.Value).Returns((float?)null); var result = SensorFormatter.GetPlotValue(mockSensor.Object, TemperatureUnit.Celsius); Assert.Null(result); } [Fact] public void GetPlotValue_TemperatureFahrenheit_ReturnsConvertedValue() { var mockSensor = new Mock(); mockSensor.Setup(s => s.Value).Returns(25.5f); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Temperature); var result = SensorFormatter.GetPlotValue(mockSensor.Object, TemperatureUnit.Fahrenheit); Assert.NotNull(result); Assert.Equal(77.9, result.Value, 1); } [Fact] public void GetPlotValue_OtherSensor_ReturnsRawValue() { var mockSensor = new Mock(); mockSensor.Setup(s => s.Value).Returns(25.5f); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Voltage); var result = SensorFormatter.GetPlotValue(mockSensor.Object, TemperatureUnit.Celsius); Assert.Equal(25.5f, result); } [Fact] public void GetPlotValue_HistoricalTemperatureFahrenheit_ReturnsConvertedValue() { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Temperature); var result = SensorFormatter.GetPlotValue(mockSensor.Object, 25.5f, TemperatureUnit.Fahrenheit); Assert.NotNull(result); Assert.Equal(77.9, result.Value, 1); } [Fact] public void GetPlotUnit_TemperatureFahrenheit_ReturnsFahrenheitUnit() { Assert.Equal("\u00B0F", SensorFormatter.GetPlotUnit(SensorType.Temperature, TemperatureUnit.Fahrenheit)); } [Fact] public void GetPlotUnit_Load_ReturnsPercentUnit() { Assert.Equal("%", SensorFormatter.GetPlotUnit(SensorType.Load, TemperatureUnit.Celsius)); } // A mock interface combining ISensor and ICriticalSensorLimits for testing public interface ICriticalSensorMock : ISensor, ICriticalSensorLimits, ISensorLimits { } [Fact] public void GetToolTip_WithLimits_ReturnsFormattedToolTip() { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Temperature); mockSensor.Setup(s => s.CriticalLowLimit).Returns(10f); mockSensor.Setup(s => s.CriticalHighLimit).Returns(90f); mockSensor.Setup(s => s.LowLimit).Returns(20f); mockSensor.Setup(s => s.HighLimit).Returns(80f); var result = SensorFormatter.GetToolTip(mockSensor.Object, TemperatureUnit.Celsius); Assert.Contains("Critical range: 10.0 \u00B0C to 90.0 \u00B0C.", result); Assert.Contains("Normal range: 20.0 \u00B0C to 80.0 \u00B0C.", result); } [Fact] public void GetToolTip_WithOnlyMinLimit_ReturnsFormattedToolTip() { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Voltage); mockSensor.Setup(s => s.CriticalLowLimit).Returns(1.0f); mockSensor.Setup(s => s.CriticalHighLimit).Returns((float?)null); var result = SensorFormatter.GetToolTip(mockSensor.Object, TemperatureUnit.Celsius); Assert.Contains("Minimal critical value: 1.000 V.", result); } [Fact] public void GetToolTip_WithOnlyMaxLimit_ReturnsFormattedToolTip() { var mockSensor = new Mock(); mockSensor.Setup(s => s.SensorType).Returns(SensorType.Voltage); mockSensor.Setup(s => s.CriticalLowLimit).Returns((float?)null); mockSensor.Setup(s => s.CriticalHighLimit).Returns(2.0f); var result = SensorFormatter.GetToolTip(mockSensor.Object, TemperatureUnit.Celsius); Assert.Contains("Maximal critical value: 2.000 V.", result); } }