unitsnet-js
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A better way to hold unit variables and easily convert to the destination unit
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JavaScript
"use strict";
Object.defineProperty(exports, "__esModule", { value: true });
exports.Power = exports.PowerUnits = void 0;
const base_unit_1 = require("../base-unit");
/** PowerUnits enumeration */
var PowerUnits;
(function (PowerUnits) {
/** */
PowerUnits["Watts"] = "Watt";
/** Assuming the third CGPM (1901, CR 70) definition of standard gravity, gn = 9.80665 m/s2, is used to define the pound-force as well as the kilogram force, and the international avoirdupois pound (1959), one imperial horsepower is: 76.0402249 × 9.80665 kg⋅m2/s3 */
PowerUnits["MechanicalHorsepower"] = "MechanicalHorsepower";
/** DIN 66036 defines one metric horsepower as the power to raise a mass of 75 kilograms against the Earth's gravitational force over a distance of one metre in one second:[18] 75 kg × 9.80665 m/s2 × 1 m / 1 s = 75 kgf⋅m/s = 1 PS. This is equivalent to 735.49875 W, or 98.6% of an imperial horsepower. */
PowerUnits["MetricHorsepower"] = "MetricHorsepower";
/** Nameplates on electrical motors show their power output, not the power input (the power delivered at the shaft, not the power consumed to drive the motor). This power output is ordinarily stated in watts or kilowatts. In the United States, the power output is stated in horsepower, which for this purpose is defined as exactly 746 W. */
PowerUnits["ElectricalHorsepower"] = "ElectricalHorsepower";
/** Boiler horsepower is a boiler's capacity to deliver steam to a steam engine and is not the same unit of power as the 550 ft lb/s definition. One boiler horsepower is equal to the thermal energy rate required to evaporate 34.5 pounds (15.6 kg) of fresh water at 212 °F (100 °C) in one hour. */
PowerUnits["BoilerHorsepower"] = "BoilerHorsepower";
/** Hydraulic horsepower can represent the power available within hydraulic machinery, power through the down-hole nozzle of a drilling rig, or can be used to estimate the mechanical power needed to generate a known hydraulic flow rate. */
PowerUnits["HydraulicHorsepower"] = "HydraulicHorsepower";
/** */
PowerUnits["BritishThermalUnitsPerHour"] = "BritishThermalUnitPerHour";
/** */
PowerUnits["JoulesPerHour"] = "JoulePerHour";
/** */
PowerUnits["TonsOfRefrigeration"] = "TonOfRefrigeration";
/** */
PowerUnits["Femtowatts"] = "Femtowatt";
/** */
PowerUnits["Picowatts"] = "Picowatt";
/** */
PowerUnits["Nanowatts"] = "Nanowatt";
/** */
PowerUnits["Microwatts"] = "Microwatt";
/** */
PowerUnits["Milliwatts"] = "Milliwatt";
/** */
PowerUnits["Deciwatts"] = "Deciwatt";
/** */
PowerUnits["Decawatts"] = "Decawatt";
/** */
PowerUnits["Kilowatts"] = "Kilowatt";
/** */
PowerUnits["Megawatts"] = "Megawatt";
/** */
PowerUnits["Gigawatts"] = "Gigawatt";
/** */
PowerUnits["Terawatts"] = "Terawatt";
/** */
PowerUnits["Petawatts"] = "Petawatt";
/** */
PowerUnits["KilobritishThermalUnitsPerHour"] = "KilobritishThermalUnitPerHour";
/** */
PowerUnits["MegabritishThermalUnitsPerHour"] = "MegabritishThermalUnitPerHour";
/** */
PowerUnits["MillijoulesPerHour"] = "MillijoulePerHour";
/** */
PowerUnits["KilojoulesPerHour"] = "KilojoulePerHour";
/** */
PowerUnits["MegajoulesPerHour"] = "MegajoulePerHour";
/** */
PowerUnits["GigajoulesPerHour"] = "GigajoulePerHour";
})(PowerUnits = exports.PowerUnits || (exports.PowerUnits = {}));
/** In physics, power is the rate of doing work. It is equivalent to an amount of energy consumed per unit time. */
class Power extends base_unit_1.BaseUnit {
/**
* Create a new Power.
* @param value The value.
* @param fromUnit The ‘Power’ unit to create from.
* The default unit is Watts
*/
constructor(value, fromUnit = PowerUnits.Watts) {
super();
this.wattsLazy = null;
this.mechanicalhorsepowerLazy = null;
this.metrichorsepowerLazy = null;
this.electricalhorsepowerLazy = null;
this.boilerhorsepowerLazy = null;
this.hydraulichorsepowerLazy = null;
this.britishthermalunitsperhourLazy = null;
this.joulesperhourLazy = null;
this.tonsofrefrigerationLazy = null;
this.femtowattsLazy = null;
this.picowattsLazy = null;
this.nanowattsLazy = null;
this.microwattsLazy = null;
this.milliwattsLazy = null;
this.deciwattsLazy = null;
this.decawattsLazy = null;
this.kilowattsLazy = null;
this.megawattsLazy = null;
this.gigawattsLazy = null;
this.terawattsLazy = null;
this.petawattsLazy = null;
this.kilobritishthermalunitsperhourLazy = null;
this.megabritishthermalunitsperhourLazy = null;
this.millijoulesperhourLazy = null;
this.kilojoulesperhourLazy = null;
this.megajoulesperhourLazy = null;
this.gigajoulesperhourLazy = null;
if (value === undefined || value === null || Number.isNaN(value)) {
throw new TypeError('invalid unit value ‘' + value + '’');
}
this.value = this.convertToBase(value, fromUnit);
}
/**
* The base value of Power is Watts.
* This accessor used when needs a value for calculations and it's better to use directly the base value
*/
get BaseValue() {
return this.value;
}
/** Gets the default unit used when creating instances of the unit or its DTO */
get baseUnit() {
return PowerUnits.Watts;
}
/** */
get Watts() {
if (this.wattsLazy !== null) {
return this.wattsLazy;
}
return this.wattsLazy = this.convertFromBase(PowerUnits.Watts);
}
/** Assuming the third CGPM (1901, CR 70) definition of standard gravity, gn = 9.80665 m/s2, is used to define the pound-force as well as the kilogram force, and the international avoirdupois pound (1959), one imperial horsepower is: 76.0402249 × 9.80665 kg⋅m2/s3 */
get MechanicalHorsepower() {
if (this.mechanicalhorsepowerLazy !== null) {
return this.mechanicalhorsepowerLazy;
}
return this.mechanicalhorsepowerLazy = this.convertFromBase(PowerUnits.MechanicalHorsepower);
}
/** DIN 66036 defines one metric horsepower as the power to raise a mass of 75 kilograms against the Earth's gravitational force over a distance of one metre in one second:[18] 75 kg × 9.80665 m/s2 × 1 m / 1 s = 75 kgf⋅m/s = 1 PS. This is equivalent to 735.49875 W, or 98.6% of an imperial horsepower. */
get MetricHorsepower() {
if (this.metrichorsepowerLazy !== null) {
return this.metrichorsepowerLazy;
}
return this.metrichorsepowerLazy = this.convertFromBase(PowerUnits.MetricHorsepower);
}
/** Nameplates on electrical motors show their power output, not the power input (the power delivered at the shaft, not the power consumed to drive the motor). This power output is ordinarily stated in watts or kilowatts. In the United States, the power output is stated in horsepower, which for this purpose is defined as exactly 746 W. */
get ElectricalHorsepower() {
if (this.electricalhorsepowerLazy !== null) {
return this.electricalhorsepowerLazy;
}
return this.electricalhorsepowerLazy = this.convertFromBase(PowerUnits.ElectricalHorsepower);
}
/** Boiler horsepower is a boiler's capacity to deliver steam to a steam engine and is not the same unit of power as the 550 ft lb/s definition. One boiler horsepower is equal to the thermal energy rate required to evaporate 34.5 pounds (15.6 kg) of fresh water at 212 °F (100 °C) in one hour. */
get BoilerHorsepower() {
if (this.boilerhorsepowerLazy !== null) {
return this.boilerhorsepowerLazy;
}
return this.boilerhorsepowerLazy = this.convertFromBase(PowerUnits.BoilerHorsepower);
}
/** Hydraulic horsepower can represent the power available within hydraulic machinery, power through the down-hole nozzle of a drilling rig, or can be used to estimate the mechanical power needed to generate a known hydraulic flow rate. */
get HydraulicHorsepower() {
if (this.hydraulichorsepowerLazy !== null) {
return this.hydraulichorsepowerLazy;
}
return this.hydraulichorsepowerLazy = this.convertFromBase(PowerUnits.HydraulicHorsepower);
}
/** */
get BritishThermalUnitsPerHour() {
if (this.britishthermalunitsperhourLazy !== null) {
return this.britishthermalunitsperhourLazy;
}
return this.britishthermalunitsperhourLazy = this.convertFromBase(PowerUnits.BritishThermalUnitsPerHour);
}
/** */
get JoulesPerHour() {
if (this.joulesperhourLazy !== null) {
return this.joulesperhourLazy;
}
return this.joulesperhourLazy = this.convertFromBase(PowerUnits.JoulesPerHour);
}
/** */
get TonsOfRefrigeration() {
if (this.tonsofrefrigerationLazy !== null) {
return this.tonsofrefrigerationLazy;
}
return this.tonsofrefrigerationLazy = this.convertFromBase(PowerUnits.TonsOfRefrigeration);
}
/** */
get Femtowatts() {
if (this.femtowattsLazy !== null) {
return this.femtowattsLazy;
}
return this.femtowattsLazy = this.convertFromBase(PowerUnits.Femtowatts);
}
/** */
get Picowatts() {
if (this.picowattsLazy !== null) {
return this.picowattsLazy;
}
return this.picowattsLazy = this.convertFromBase(PowerUnits.Picowatts);
}
/** */
get Nanowatts() {
if (this.nanowattsLazy !== null) {
return this.nanowattsLazy;
}
return this.nanowattsLazy = this.convertFromBase(PowerUnits.Nanowatts);
}
/** */
get Microwatts() {
if (this.microwattsLazy !== null) {
return this.microwattsLazy;
}
return this.microwattsLazy = this.convertFromBase(PowerUnits.Microwatts);
}
/** */
get Milliwatts() {
if (this.milliwattsLazy !== null) {
return this.milliwattsLazy;
}
return this.milliwattsLazy = this.convertFromBase(PowerUnits.Milliwatts);
}
/** */
get Deciwatts() {
if (this.deciwattsLazy !== null) {
return this.deciwattsLazy;
}
return this.deciwattsLazy = this.convertFromBase(PowerUnits.Deciwatts);
}
/** */
get Decawatts() {
if (this.decawattsLazy !== null) {
return this.decawattsLazy;
}
return this.decawattsLazy = this.convertFromBase(PowerUnits.Decawatts);
}
/** */
get Kilowatts() {
if (this.kilowattsLazy !== null) {
return this.kilowattsLazy;
}
return this.kilowattsLazy = this.convertFromBase(PowerUnits.Kilowatts);
}
/** */
get Megawatts() {
if (this.megawattsLazy !== null) {
return this.megawattsLazy;
}
return this.megawattsLazy = this.convertFromBase(PowerUnits.Megawatts);
}
/** */
get Gigawatts() {
if (this.gigawattsLazy !== null) {
return this.gigawattsLazy;
}
return this.gigawattsLazy = this.convertFromBase(PowerUnits.Gigawatts);
}
/** */
get Terawatts() {
if (this.terawattsLazy !== null) {
return this.terawattsLazy;
}
return this.terawattsLazy = this.convertFromBase(PowerUnits.Terawatts);
}
/** */
get Petawatts() {
if (this.petawattsLazy !== null) {
return this.petawattsLazy;
}
return this.petawattsLazy = this.convertFromBase(PowerUnits.Petawatts);
}
/** */
get KilobritishThermalUnitsPerHour() {
if (this.kilobritishthermalunitsperhourLazy !== null) {
return this.kilobritishthermalunitsperhourLazy;
}
return this.kilobritishthermalunitsperhourLazy = this.convertFromBase(PowerUnits.KilobritishThermalUnitsPerHour);
}
/** */
get MegabritishThermalUnitsPerHour() {
if (this.megabritishthermalunitsperhourLazy !== null) {
return this.megabritishthermalunitsperhourLazy;
}
return this.megabritishthermalunitsperhourLazy = this.convertFromBase(PowerUnits.MegabritishThermalUnitsPerHour);
}
/** */
get MillijoulesPerHour() {
if (this.millijoulesperhourLazy !== null) {
return this.millijoulesperhourLazy;
}
return this.millijoulesperhourLazy = this.convertFromBase(PowerUnits.MillijoulesPerHour);
}
/** */
get KilojoulesPerHour() {
if (this.kilojoulesperhourLazy !== null) {
return this.kilojoulesperhourLazy;
}
return this.kilojoulesperhourLazy = this.convertFromBase(PowerUnits.KilojoulesPerHour);
}
/** */
get MegajoulesPerHour() {
if (this.megajoulesperhourLazy !== null) {
return this.megajoulesperhourLazy;
}
return this.megajoulesperhourLazy = this.convertFromBase(PowerUnits.MegajoulesPerHour);
}
/** */
get GigajoulesPerHour() {
if (this.gigajoulesperhourLazy !== null) {
return this.gigajoulesperhourLazy;
}
return this.gigajoulesperhourLazy = this.convertFromBase(PowerUnits.GigajoulesPerHour);
}
/**
* Create a new Power instance from a Watts
*
* @param value The unit as Watts to create a new Power from.
* @returns The new Power instance.
*/
static FromWatts(value) {
return new Power(value, PowerUnits.Watts);
}
/**
* Create a new Power instance from a MechanicalHorsepower
* Assuming the third CGPM (1901, CR 70) definition of standard gravity, gn = 9.80665 m/s2, is used to define the pound-force as well as the kilogram force, and the international avoirdupois pound (1959), one imperial horsepower is: 76.0402249 × 9.80665 kg⋅m2/s3
* @param value The unit as MechanicalHorsepower to create a new Power from.
* @returns The new Power instance.
*/
static FromMechanicalHorsepower(value) {
return new Power(value, PowerUnits.MechanicalHorsepower);
}
/**
* Create a new Power instance from a MetricHorsepower
* DIN 66036 defines one metric horsepower as the power to raise a mass of 75 kilograms against the Earth's gravitational force over a distance of one metre in one second:[18] 75 kg × 9.80665 m/s2 × 1 m / 1 s = 75 kgf⋅m/s = 1 PS. This is equivalent to 735.49875 W, or 98.6% of an imperial horsepower.
* @param value The unit as MetricHorsepower to create a new Power from.
* @returns The new Power instance.
*/
static FromMetricHorsepower(value) {
return new Power(value, PowerUnits.MetricHorsepower);
}
/**
* Create a new Power instance from a ElectricalHorsepower
* Nameplates on electrical motors show their power output, not the power input (the power delivered at the shaft, not the power consumed to drive the motor). This power output is ordinarily stated in watts or kilowatts. In the United States, the power output is stated in horsepower, which for this purpose is defined as exactly 746 W.
* @param value The unit as ElectricalHorsepower to create a new Power from.
* @returns The new Power instance.
*/
static FromElectricalHorsepower(value) {
return new Power(value, PowerUnits.ElectricalHorsepower);
}
/**
* Create a new Power instance from a BoilerHorsepower
* Boiler horsepower is a boiler's capacity to deliver steam to a steam engine and is not the same unit of power as the 550 ft lb/s definition. One boiler horsepower is equal to the thermal energy rate required to evaporate 34.5 pounds (15.6 kg) of fresh water at 212 °F (100 °C) in one hour.
* @param value The unit as BoilerHorsepower to create a new Power from.
* @returns The new Power instance.
*/
static FromBoilerHorsepower(value) {
return new Power(value, PowerUnits.BoilerHorsepower);
}
/**
* Create a new Power instance from a HydraulicHorsepower
* Hydraulic horsepower can represent the power available within hydraulic machinery, power through the down-hole nozzle of a drilling rig, or can be used to estimate the mechanical power needed to generate a known hydraulic flow rate.
* @param value The unit as HydraulicHorsepower to create a new Power from.
* @returns The new Power instance.
*/
static FromHydraulicHorsepower(value) {
return new Power(value, PowerUnits.HydraulicHorsepower);
}
/**
* Create a new Power instance from a BritishThermalUnitsPerHour
*
* @param value The unit as BritishThermalUnitsPerHour to create a new Power from.
* @returns The new Power instance.
*/
static FromBritishThermalUnitsPerHour(value) {
return new Power(value, PowerUnits.BritishThermalUnitsPerHour);
}
/**
* Create a new Power instance from a JoulesPerHour
*
* @param value The unit as JoulesPerHour to create a new Power from.
* @returns The new Power instance.
*/
static FromJoulesPerHour(value) {
return new Power(value, PowerUnits.JoulesPerHour);
}
/**
* Create a new Power instance from a TonsOfRefrigeration
*
* @param value The unit as TonsOfRefrigeration to create a new Power from.
* @returns The new Power instance.
*/
static FromTonsOfRefrigeration(value) {
return new Power(value, PowerUnits.TonsOfRefrigeration);
}
/**
* Create a new Power instance from a Femtowatts
*
* @param value The unit as Femtowatts to create a new Power from.
* @returns The new Power instance.
*/
static FromFemtowatts(value) {
return new Power(value, PowerUnits.Femtowatts);
}
/**
* Create a new Power instance from a Picowatts
*
* @param value The unit as Picowatts to create a new Power from.
* @returns The new Power instance.
*/
static FromPicowatts(value) {
return new Power(value, PowerUnits.Picowatts);
}
/**
* Create a new Power instance from a Nanowatts
*
* @param value The unit as Nanowatts to create a new Power from.
* @returns The new Power instance.
*/
static FromNanowatts(value) {
return new Power(value, PowerUnits.Nanowatts);
}
/**
* Create a new Power instance from a Microwatts
*
* @param value The unit as Microwatts to create a new Power from.
* @returns The new Power instance.
*/
static FromMicrowatts(value) {
return new Power(value, PowerUnits.Microwatts);
}
/**
* Create a new Power instance from a Milliwatts
*
* @param value The unit as Milliwatts to create a new Power from.
* @returns The new Power instance.
*/
static FromMilliwatts(value) {
return new Power(value, PowerUnits.Milliwatts);
}
/**
* Create a new Power instance from a Deciwatts
*
* @param value The unit as Deciwatts to create a new Power from.
* @returns The new Power instance.
*/
static FromDeciwatts(value) {
return new Power(value, PowerUnits.Deciwatts);
}
/**
* Create a new Power instance from a Decawatts
*
* @param value The unit as Decawatts to create a new Power from.
* @returns The new Power instance.
*/
static FromDecawatts(value) {
return new Power(value, PowerUnits.Decawatts);
}
/**
* Create a new Power instance from a Kilowatts
*
* @param value The unit as Kilowatts to create a new Power from.
* @returns The new Power instance.
*/
static FromKilowatts(value) {
return new Power(value, PowerUnits.Kilowatts);
}
/**
* Create a new Power instance from a Megawatts
*
* @param value The unit as Megawatts to create a new Power from.
* @returns The new Power instance.
*/
static FromMegawatts(value) {
return new Power(value, PowerUnits.Megawatts);
}
/**
* Create a new Power instance from a Gigawatts
*
* @param value The unit as Gigawatts to create a new Power from.
* @returns The new Power instance.
*/
static FromGigawatts(value) {
return new Power(value, PowerUnits.Gigawatts);
}
/**
* Create a new Power instance from a Terawatts
*
* @param value The unit as Terawatts to create a new Power from.
* @returns The new Power instance.
*/
static FromTerawatts(value) {
return new Power(value, PowerUnits.Terawatts);
}
/**
* Create a new Power instance from a Petawatts
*
* @param value The unit as Petawatts to create a new Power from.
* @returns The new Power instance.
*/
static FromPetawatts(value) {
return new Power(value, PowerUnits.Petawatts);
}
/**
* Create a new Power instance from a KilobritishThermalUnitsPerHour
*
* @param value The unit as KilobritishThermalUnitsPerHour to create a new Power from.
* @returns The new Power instance.
*/
static FromKilobritishThermalUnitsPerHour(value) {
return new Power(value, PowerUnits.KilobritishThermalUnitsPerHour);
}
/**
* Create a new Power instance from a MegabritishThermalUnitsPerHour
*
* @param value The unit as MegabritishThermalUnitsPerHour to create a new Power from.
* @returns The new Power instance.
*/
static FromMegabritishThermalUnitsPerHour(value) {
return new Power(value, PowerUnits.MegabritishThermalUnitsPerHour);
}
/**
* Create a new Power instance from a MillijoulesPerHour
*
* @param value The unit as MillijoulesPerHour to create a new Power from.
* @returns The new Power instance.
*/
static FromMillijoulesPerHour(value) {
return new Power(value, PowerUnits.MillijoulesPerHour);
}
/**
* Create a new Power instance from a KilojoulesPerHour
*
* @param value The unit as KilojoulesPerHour to create a new Power from.
* @returns The new Power instance.
*/
static FromKilojoulesPerHour(value) {
return new Power(value, PowerUnits.KilojoulesPerHour);
}
/**
* Create a new Power instance from a MegajoulesPerHour
*
* @param value The unit as MegajoulesPerHour to create a new Power from.
* @returns The new Power instance.
*/
static FromMegajoulesPerHour(value) {
return new Power(value, PowerUnits.MegajoulesPerHour);
}
/**
* Create a new Power instance from a GigajoulesPerHour
*
* @param value The unit as GigajoulesPerHour to create a new Power from.
* @returns The new Power instance.
*/
static FromGigajoulesPerHour(value) {
return new Power(value, PowerUnits.GigajoulesPerHour);
}
/**
* Gets the base unit enumeration associated with Power
* @returns The unit enumeration that can be used to interact with this type
*/
static getUnitEnum() {
return PowerUnits;
}
/**
* Gets the default unit used when creating instances of the unit or its DTO
* @returns The unit enumeration value used as a default parameter in constructor and DTO methods
*/
static getBaseUnit() {
return PowerUnits.Watts;
}
/**
* Create API DTO represent a Power unit.
* @param holdInUnit The specific Power unit to be used in the unit representation at the DTO
*/
toDto(holdInUnit = PowerUnits.Watts) {
return {
value: this.convert(holdInUnit),
unit: holdInUnit
};
}
/**
* Create a Power unit from an API DTO representation.
* @param dtoPower The Power API DTO representation
*/
static FromDto(dtoPower) {
return new Power(dtoPower.value, dtoPower.unit);
}
/**
* Convert Power to a specific unit value.
* @param toUnit The specific unit to convert to
* @returns The value of the specific unit provided.
*/
convert(toUnit) {
switch (toUnit) {
case PowerUnits.Watts: return this.Watts;
case PowerUnits.MechanicalHorsepower: return this.MechanicalHorsepower;
case PowerUnits.MetricHorsepower: return this.MetricHorsepower;
case PowerUnits.ElectricalHorsepower: return this.ElectricalHorsepower;
case PowerUnits.BoilerHorsepower: return this.BoilerHorsepower;
case PowerUnits.HydraulicHorsepower: return this.HydraulicHorsepower;
case PowerUnits.BritishThermalUnitsPerHour: return this.BritishThermalUnitsPerHour;
case PowerUnits.JoulesPerHour: return this.JoulesPerHour;
case PowerUnits.TonsOfRefrigeration: return this.TonsOfRefrigeration;
case PowerUnits.Femtowatts: return this.Femtowatts;
case PowerUnits.Picowatts: return this.Picowatts;
case PowerUnits.Nanowatts: return this.Nanowatts;
case PowerUnits.Microwatts: return this.Microwatts;
case PowerUnits.Milliwatts: return this.Milliwatts;
case PowerUnits.Deciwatts: return this.Deciwatts;
case PowerUnits.Decawatts: return this.Decawatts;
case PowerUnits.Kilowatts: return this.Kilowatts;
case PowerUnits.Megawatts: return this.Megawatts;
case PowerUnits.Gigawatts: return this.Gigawatts;
case PowerUnits.Terawatts: return this.Terawatts;
case PowerUnits.Petawatts: return this.Petawatts;
case PowerUnits.KilobritishThermalUnitsPerHour: return this.KilobritishThermalUnitsPerHour;
case PowerUnits.MegabritishThermalUnitsPerHour: return this.MegabritishThermalUnitsPerHour;
case PowerUnits.MillijoulesPerHour: return this.MillijoulesPerHour;
case PowerUnits.KilojoulesPerHour: return this.KilojoulesPerHour;
case PowerUnits.MegajoulesPerHour: return this.MegajoulesPerHour;
case PowerUnits.GigajoulesPerHour: return this.GigajoulesPerHour;
default:
break;
}
return Number.NaN;
}
convertFromBase(toUnit) {
if (base_unit_1.areAnyOperatorsOverridden())
switch (toUnit) {
case PowerUnits.Watts: return this.value;
case PowerUnits.MechanicalHorsepower: {
const v4 = super.internalMultiply(76.0402249, 9.80665);
return super.internalDivide(this.value, v4);
}
case PowerUnits.MetricHorsepower: {
const v4 = super.internalMultiply(75, 9.80665);
return super.internalDivide(this.value, v4);
}
case PowerUnits.ElectricalHorsepower: return super.internalDivide(this.value, 746);
case PowerUnits.BoilerHorsepower: return super.internalDivide(this.value, 9812.5);
case PowerUnits.HydraulicHorsepower: return super.internalDivide(this.value, 745.69987158227022);
case PowerUnits.BritishThermalUnitsPerHour: {
const v4 = super.internalDivide(3600, 1055.05585262);
return super.internalMultiply(this.value, v4);
}
case PowerUnits.JoulesPerHour: return super.internalMultiply(this.value, 3600);
case PowerUnits.TonsOfRefrigeration: return super.internalDivide(this.value, 3516.853);
case PowerUnits.Femtowatts: return super.internalDivide(this.value, 1e-15);
case PowerUnits.Picowatts: return super.internalDivide(this.value, 1e-12);
case PowerUnits.Nanowatts: return super.internalDivide(this.value, 1e-9);
case PowerUnits.Microwatts: return super.internalDivide(this.value, 0.000001);
case PowerUnits.Milliwatts: return super.internalDivide(this.value, 0.001);
case PowerUnits.Deciwatts: return super.internalDivide(this.value, 0.1);
case PowerUnits.Decawatts: return super.internalDivide(this.value, 10);
case PowerUnits.Kilowatts: return super.internalDivide(this.value, 1000);
case PowerUnits.Megawatts: return super.internalDivide(this.value, 1000000);
case PowerUnits.Gigawatts: return super.internalDivide(this.value, 1000000000);
case PowerUnits.Terawatts: return super.internalDivide(this.value, 1000000000000);
case PowerUnits.Petawatts: return super.internalDivide(this.value, 1000000000000000);
case PowerUnits.KilobritishThermalUnitsPerHour: {
const v4 = super.internalDivide(3600, 1055.05585262);
const v5 = super.internalMultiply(this.value, v4);
return super.internalDivide(v5, 1000);
}
case PowerUnits.MegabritishThermalUnitsPerHour: {
const v4 = super.internalDivide(3600, 1055.05585262);
const v5 = super.internalMultiply(this.value, v4);
return super.internalDivide(v5, 1000000);
}
case PowerUnits.MillijoulesPerHour: {
const v3 = super.internalMultiply(this.value, 3600);
return super.internalDivide(v3, 0.001);
}
case PowerUnits.KilojoulesPerHour: {
const v3 = super.internalMultiply(this.value, 3600);
return super.internalDivide(v3, 1000);
}
case PowerUnits.MegajoulesPerHour: {
const v3 = super.internalMultiply(this.value, 3600);
return super.internalDivide(v3, 1000000);
}
case PowerUnits.GigajoulesPerHour: {
const v3 = super.internalMultiply(this.value, 3600);
return super.internalDivide(v3, 1000000000);
}
default: return Number.NaN;
}
switch (toUnit) {
case PowerUnits.Watts: return this.value;
case PowerUnits.MechanicalHorsepower: return this.value / (76.0402249 * 9.80665);
case PowerUnits.MetricHorsepower: return this.value / (75 * 9.80665);
case PowerUnits.ElectricalHorsepower: return this.value / 746;
case PowerUnits.BoilerHorsepower: return this.value / 9812.5;
case PowerUnits.HydraulicHorsepower: return this.value / 745.69987158227022;
case PowerUnits.BritishThermalUnitsPerHour: return this.value * 3600 / 1055.05585262;
case PowerUnits.JoulesPerHour: return this.value * 3600;
case PowerUnits.TonsOfRefrigeration: return this.value / 3516.853;
case PowerUnits.Femtowatts: return (this.value) / 1e-15;
case PowerUnits.Picowatts: return (this.value) / 1e-12;
case PowerUnits.Nanowatts: return (this.value) / 1e-9;
case PowerUnits.Microwatts: return (this.value) / 0.000001;
case PowerUnits.Milliwatts: return (this.value) / 0.001;
case PowerUnits.Deciwatts: return (this.value) / 0.1;
case PowerUnits.Decawatts: return (this.value) / 10;
case PowerUnits.Kilowatts: return (this.value) / 1000;
case PowerUnits.Megawatts: return (this.value) / 1000000;
case PowerUnits.Gigawatts: return (this.value) / 1000000000;
case PowerUnits.Terawatts: return (this.value) / 1000000000000;
case PowerUnits.Petawatts: return (this.value) / 1000000000000000;
case PowerUnits.KilobritishThermalUnitsPerHour: return (this.value * 3600 / 1055.05585262) / 1000;
case PowerUnits.MegabritishThermalUnitsPerHour: return (this.value * 3600 / 1055.05585262) / 1000000;
case PowerUnits.MillijoulesPerHour: return (this.value * 3600) / 0.001;
case PowerUnits.KilojoulesPerHour: return (this.value * 3600) / 1000;
case PowerUnits.MegajoulesPerHour: return (this.value * 3600) / 1000000;
case PowerUnits.GigajoulesPerHour: return (this.value * 3600) / 1000000000;
default: return Number.NaN;
}
}
convertToBase(value, fromUnit) {
if (base_unit_1.areAnyOperatorsOverridden())
switch (fromUnit) {
case PowerUnits.Watts: return value;
case PowerUnits.MechanicalHorsepower: {
const v3 = super.internalMultiply(value, 76.0402249);
return super.internalMultiply(v3, 9.80665);
}
case PowerUnits.MetricHorsepower: {
const v3 = super.internalMultiply(value, 75);
return super.internalMultiply(v3, 9.80665);
}
case PowerUnits.ElectricalHorsepower: return super.internalMultiply(value, 746);
case PowerUnits.BoilerHorsepower: return super.internalMultiply(value, 9812.5);
case PowerUnits.HydraulicHorsepower: return super.internalMultiply(value, 745.69987158227022);
case PowerUnits.BritishThermalUnitsPerHour: {
const v4 = super.internalDivide(1055.05585262, 3600);
return super.internalMultiply(value, v4);
}
case PowerUnits.JoulesPerHour: return super.internalDivide(value, 3600);
case PowerUnits.TonsOfRefrigeration: return super.internalMultiply(value, 3516.853);
case PowerUnits.Femtowatts: return super.internalMultiply(value, 1e-15);
case PowerUnits.Picowatts: return super.internalMultiply(value, 1e-12);
case PowerUnits.Nanowatts: return super.internalMultiply(value, 1e-9);
case PowerUnits.Microwatts: return super.internalMultiply(value, 0.000001);
case PowerUnits.Milliwatts: return super.internalMultiply(value, 0.001);
case PowerUnits.Deciwatts: return super.internalMultiply(value, 0.1);
case PowerUnits.Decawatts: return super.internalMultiply(value, 10);
case PowerUnits.Kilowatts: return super.internalMultiply(value, 1000);
case PowerUnits.Megawatts: return super.internalMultiply(value, 1000000);
case PowerUnits.Gigawatts: return super.internalMultiply(value, 1000000000);
case PowerUnits.Terawatts: return super.internalMultiply(value, 1000000000000);
case PowerUnits.Petawatts: return super.internalMultiply(value, 1000000000000000);
case PowerUnits.KilobritishThermalUnitsPerHour: {
const v4 = super.internalDivide(1055.05585262, 3600);
const v5 = super.internalMultiply(value, v4);
return super.internalMultiply(v5, 1000);
}
case PowerUnits.MegabritishThermalUnitsPerHour: {
const v4 = super.internalDivide(1055.05585262, 3600);
const v5 = super.internalMultiply(value, v4);
return super.internalMultiply(v5, 1000000);
}
case PowerUnits.MillijoulesPerHour: {
const v3 = super.internalDivide(value, 3600);
return super.internalMultiply(v3, 0.001);
}
case PowerUnits.KilojoulesPerHour: {
const v3 = super.internalDivide(value, 3600);
return super.internalMultiply(v3, 1000);
}
case PowerUnits.MegajoulesPerHour: {
const v3 = super.internalDivide(value, 3600);
return super.internalMultiply(v3, 1000000);
}
case PowerUnits.GigajoulesPerHour: {
const v3 = super.internalDivide(value, 3600);
return super.internalMultiply(v3, 1000000000);
}
default: return Number.NaN;
}
switch (fromUnit) {
case PowerUnits.Watts: return value;
case PowerUnits.MechanicalHorsepower: return value * 76.0402249 * 9.80665;
case PowerUnits.MetricHorsepower: return value * 75 * 9.80665;
case PowerUnits.ElectricalHorsepower: return value * 746;
case PowerUnits.BoilerHorsepower: return value * 9812.5;
case PowerUnits.HydraulicHorsepower: return value * 745.69987158227022;
case PowerUnits.BritishThermalUnitsPerHour: return value * 1055.05585262 / 3600;
case PowerUnits.JoulesPerHour: return value / 3600;
case PowerUnits.TonsOfRefrigeration: return value * 3516.853;
case PowerUnits.Femtowatts: return (value) * 1e-15;
case PowerUnits.Picowatts: return (value) * 1e-12;
case PowerUnits.Nanowatts: return (value) * 1e-9;
case PowerUnits.Microwatts: return (value) * 0.000001;
case PowerUnits.Milliwatts: return (value) * 0.001;
case PowerUnits.Deciwatts: return (value) * 0.1;
case PowerUnits.Decawatts: return (value) * 10;
case PowerUnits.Kilowatts: return (value) * 1000;
case PowerUnits.Megawatts: return (value) * 1000000;
case PowerUnits.Gigawatts: return (value) * 1000000000;
case PowerUnits.Terawatts: return (value) * 1000000000000;
case PowerUnits.Petawatts: return (value) * 1000000000000000;
case PowerUnits.KilobritishThermalUnitsPerHour: return (value * 1055.05585262 / 3600) * 1000;
case PowerUnits.MegabritishThermalUnitsPerHour: return (value * 1055.05585262 / 3600) * 1000000;
case PowerUnits.MillijoulesPerHour: return (value / 3600) * 0.001;
case PowerUnits.KilojoulesPerHour: return (value / 3600) * 1000;
case PowerUnits.MegajoulesPerHour: return (value / 3600) * 1000000;
case PowerUnits.GigajoulesPerHour: return (value / 3600) * 1000000000;
default: return Number.NaN;
}
}
/**
* Format the Power to string.
* Note! the default format for Power is Watts.
* To specify the unit format set the 'unit' parameter.
* @param unit The unit to format the Power.
* @param options The ToString options, it also can be the number of fractional digits to keep that deprecated and moved to the options object. support in number will be dropped in the upcoming versions.
* @returns The string format of the Power.
*/
toString(unit = PowerUnits.Watts, options) {
if (typeof options === 'number') {
console.warn('The number parameter is deprecated and moved to the options object. support in number will be dropped in the upcoming versions.');
options = { fractionalDigits: options };
}
switch (unit) {
case PowerUnits.Watts:
return super.truncateFractionDigits(this.Watts, options) + ` W`;
case PowerUnits.MechanicalHorsepower:
return super.truncateFractionDigits(this.MechanicalHorsepower, options) + ` hp(I)`;
case PowerUnits.MetricHorsepower:
return super.truncateFractionDigits(this.MetricHorsepower, options) + ` hp(M)`;
case PowerUnits.ElectricalHorsepower:
return super.truncateFractionDigits(this.ElectricalHorsepower, options) + ` hp(E)`;
case PowerUnits.BoilerHorsepower:
return super.truncateFractionDigits(this.BoilerHorsepower, options) + ` hp(S)`;
case PowerUnits.HydraulicHorsepower:
return super.truncateFractionDigits(this.HydraulicHorsepower, options) + ` hp(H)`;
case PowerUnits.BritishThermalUnitsPerHour:
return super.truncateFractionDigits(this.BritishThermalUnitsPerHour, options) + ` Btu/h`;
case PowerUnits.JoulesPerHour:
return super.truncateFractionDigits(this.JoulesPerHour, options) + ` J/h`;
case PowerUnits.TonsOfRefrigeration:
return super.truncateFractionDigits(this.TonsOfRefrigeration, options) + ` TR`;
case PowerUnits.Femtowatts:
return super.truncateFractionDigits(this.Femtowatts, options) + ` fW`;
case PowerUnits.Picowatts:
return super.truncateFractionDigits(this.Picowatts, options) + ` pW`;
case PowerUnits.Nanowatts:
return super.truncateFractionDigits(this.Nanowatts, options) + ` nW`;
case PowerUnits.Microwatts:
return super.truncateFractionDigits(this.Microwatts, options) + ` μW`;
case PowerUnits.Milliwatts:
return super.truncateFractionDigits(this.Milliwatts, options) + ` mW`;
case PowerUnits.Deciwatts:
return super.truncateFractionDigits(this.Deciwatts, options) + ` dW`;
case PowerUnits.Decawatts:
return super.truncateFractionDigits(this.Decawatts, options) + ` daW`;
case PowerUnits.Kilowatts:
return super.truncateFractionDigits(this.Kilowatts, options) + ` kW`;
case PowerUnits.Megawatts:
return super.truncateFractionDigits(this.Megawatts, options) + ` MW`;
case PowerUnits.Gigawatts:
return super.truncateFractionDigits(this.Gigawatts, options) + ` GW`;
case PowerUnits.Terawatts:
return super.truncateFractionDigits(this.Terawatts, options) + ` TW`;
case PowerUnits.Petawatts:
return super.truncateFractionDigits(this.Petawatts, options) + ` PW`;
case PowerUnits.KilobritishThermalUnitsPerHour:
return super.truncateFractionDigits(this.KilobritishThermalUnitsPerHour, options) + ` kBtu/h`;
case PowerUnits.MegabritishThermalUnitsPerHour:
return super.truncateFractionDigits(this.MegabritishThermalUnitsPerHour, options) + ` MBtu/h`;
case PowerUnits.MillijoulesPerHour:
return super.truncateFractionDigits(this.MillijoulesPerHour, options) + ` mJ/h`;
case PowerUnits.KilojoulesPerHour:
return super.truncateFractionDigits(this.KilojoulesPerHour, options) + ` kJ/h`;
case PowerUnits.MegajoulesPerHour:
return super.truncateFractionDigits(this.MegajoulesPerHour, options) + ` MJ/h`;
case PowerUnits.GigajoulesPerHour:
return super.truncateFractionDigits(this.GigajoulesPerHour, options) + ` GJ/h`;
default:
break;
}
return this.value.toString();
}
/**
* Get Power unit abbreviation.
* Note! the default abbreviation for Power is Watts.
* To specify the unit abbreviation set the 'unitAbbreviation' parameter.
* @param unitAbbreviation The unit abbreviation of the Power.
* @returns The abbreviation string of Power.
*/
getUnitAbbreviation(unitAbbreviation = PowerUnits.Watts) {
switch (unitAbbreviation) {
case PowerUnits.Watts:
return `W`;
case PowerUnits.MechanicalHorsepower:
return `hp(I)`;
case PowerUnits.MetricHorsepower:
return `hp(M)`;
case PowerUnits.ElectricalHorsepower:
return `hp(E)`;
case PowerUnits.BoilerHorsepower:
return `hp(S)`;
case PowerUnits.HydraulicHorsepower:
return `hp(H)`;
case PowerUnits.BritishThermalUnitsPerHour:
return `Btu/h`;
case PowerUnits.JoulesPerHour:
return `J/h`;
case PowerUnits.TonsOfRefrigeration:
return `TR`;
case PowerUnits.Femtowatts:
return `fW`;
case PowerUnits.Picowatts:
return `pW`;
case PowerUnits.Nanowatts:
return `nW`;
case PowerUnits.Microwatts:
return `μW`;
case PowerUnits.Milliwatts:
return `mW`;
case PowerUnits.Deciwatts:
return `dW`;
case PowerUnits.Decawatts:
return `daW`;
case PowerUnits.Kilowatts:
return `kW`;
case PowerUnits.Megawatts:
return `MW`;
case PowerUnits.Gigawatts:
return `GW`;
case PowerUnits.Terawatts:
return `TW`;
case PowerUnits.Petawatts:
return `PW`;
case PowerUnits.KilobritishThermalUnitsPerHour:
return `kBtu/h`;
case PowerUnits.MegabritishThermalUnitsPerHour:
return `MBtu/h`;
case PowerUnits.MillijoulesPerHour:
return `mJ/h`;
case PowerUnits.KilojoulesPerHour:
return `kJ/h`;
case PowerUnits.MegajoulesPerHour:
return `MJ/h`;
case PowerUnits.GigajoulesPerHour:
return `GJ/h`;
default:
break;
}
return '';
}
/**
* Check if the given Power are equals to the current Power.
* @param power The other Power.
* @returns True if the given Power are equal to the current Power.
*/
equals(power) {
return super.internalEquals(this.value, power.BaseValue);
}
/**
* Compare the given Power against the current Power.
* @param power The other Power.
* @returns 0 if they are equal, -1 if the current Power is less then other, 1 if the current Power is greater then other.
*/
compareTo(power) {
return super.internalCompareTo(this.value, power.BaseValue);
}
/**
* Add the given Power with the current Power.
* @param power The other Power.
* @returns A new Power instance with the results.
*/
add(power) {
return new Power(super.internalAdd(this.value, power.BaseValue));
}
/**
* Subtract the given Power with the current Power.
* @param power The other Power.
* @returns A new Power instance with the results.
*/
subtract(power) {
return new Power(super.internalSubtract(this.value, power.BaseValue));
}
/**
* Multiply the given Power with the current Power.
* @param power The other Power.
* @returns A new Power instance with the results.
*/
multiply(power) {
return new Power(super.internalMultiply(this.value, power.BaseValue));
}
/**
* Divide the given Power with the current Power.
* @param power The other Power.
* @returns A new Power instance with the results.
*/
divide(power) {
return new Power(super.internalDivide(this.value, power.BaseValue));
}
/**
* Modulo the given Power with the current Power.
* @param power The other Power.
* @returns A new Power instance with the results.
*/
modulo(power) {
return new Power(super.internalModulo(this.value, power.BaseValue));
}
/**
* Pow the given Power with the current Power.
* @param power The other Power.
* @returns A new Power instance with the results.
*/
pow(power) {
return new Power(super.internalPow(this.value, power.BaseValue));
}
}
exports.Power = Power;