com.zepben.protobuf.cim.iec61970.base.domain.UnitSymbol Maven / Gradle / Ivy
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// Generated by the protocol buffer compiler. DO NOT EDIT!
// source: zepben/protobuf/cim/iec61970/base/domain/UnitSymbol.proto
package com.zepben.protobuf.cim.iec61970.base.domain;
/**
*
**
* Types of measurements.
* Note this is typically a string in the CIM,
* however for ease-of-use we’ve converted our supported measurement types to an enum.
*
*
* Protobuf enum {@code zepben.protobuf.cim.iec61970.base.domain.UnitSymbol}
*/
public enum UnitSymbol
implements com.google.protobuf.ProtocolMessageEnum {
/**
*
**
* Dimension less quantity, e.g. count, per unit, etc.
*
*
* NONE = 0;
*/
NONE(0),
/**
*
**
* Length in metres.
*
*
* METRES = 1;
*/
METRES(1),
/**
*
**
* Mass in kilograms. Note: multiplier “k” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* KG = 2;
*/
KG(2),
/**
*
**
* Time in seconds.
*
*
* SECONDS = 3;
*/
SECONDS(3),
/**
*
**
* Current in amperes.
*
*
* A = 4;
*/
A(4),
/**
*
**
* Temperature in kelvins.
*
*
* K = 5;
*/
K(5),
/**
*
**
* Amount of substance in moles.
*
*
* MOL = 6;
*/
MOL(6),
/**
*
**
* Luminous intensity in candelas.
*
*
* CD = 7;
*/
CD(7),
/**
*
**
* Plane angle in degrees.
*
*
* DEG = 8;
*/
DEG(8),
/**
*
**
* Plane angle in radians (m/m).
*
*
* RAD = 9;
*/
RAD(9),
/**
*
**
* Solid angle in steradians (m2/m2).
*
*
* SR = 10;
*/
SR(10),
/**
*
**
* Absorbed dose in grays (J/kg).
*
*
* GY = 11;
*/
GY(11),
/**
*
**
* Radioactivity in becquerels (1/s).
*
*
* BQ = 12;
*/
BQ(12),
/**
*
**
* Relative temperature in degrees Celsius.
* In the SI unit system the symbol is °C. Electric charge is measured in coulomb that has the unit symbol C.
* To distinguish degree Celsius from coulomb the symbol used in the UML is degC. The reason for not using °C is
* that the special character ° is difficult to manage in software.
*
*
* DEGC = 13;
*/
DEGC(13),
/**
*
**
* Dose equivalent in sieverts (J/kg).
*
*
* SV = 14;
*/
SV(14),
/**
*
**
* Electric capacitance in farads (C/V).
*
*
* F = 15;
*/
F(15),
/**
*
**
* Electric charge in coulombs (A·s).
*
*
* C = 16;
*/
C(16),
/**
*
**
* Conductance in siemens.
*
*
* SIEMENS = 17;
*/
SIEMENS(17),
/**
*
**
* Electric inductance in henrys (Wb/A).
*
*
* HENRYS = 18;
*/
HENRYS(18),
/**
*
**
* Electric potential in volts (W/A).
*
*
* V = 19;
*/
V(19),
/**
*
**
* Electric resistance in ohms (V/A).
*
*
* OHM = 20;
*/
OHM(20),
/**
*
**
* Energy in joules (N·m = C·V = W·s).
*
*
* J = 21;
*/
J(21),
/**
*
**
* Force in newtons (kg·m/s²).
*
*
* N = 22;
*/
N(22),
/**
*
**
* Frequency in hertz (1/s).
*
*
* HZ = 23;
*/
HZ(23),
/**
*
**
* Illuminance in lux (lm/m²).
*
*
* LX = 24;
*/
LX(24),
/**
*
**
* Luminous flux in lumens (cd·sr).
*
*
* LM = 25;
*/
LM(25),
/**
*
**
* Magnetic flux in webers (V·s).
*
*
* WB = 26;
*/
WB(26),
/**
*
**
* Magnetic flux density in teslas (Wb/m2).
*
*
* T = 27;
*/
T(27),
/**
*
**
* Real power in watts (J/s). Electrical power may have real and reactive components.
* The real portion of electrical power (I²R or VIcos(phi)), is expressed in Watts.
* See also apparent power and reactive power.
*
*
* W = 28;
*/
W(28),
/**
*
**
* Pressure in pascals (N/m²).
* Note: the absolute or relative measurement of pressure is implied with this entry.
* See below for more explicit forms.
*
*
* PA = 29;
*/
PA(29),
/**
*
**
* Area in square metres (m²).
*
*
* M2 = 30;
*/
M2(30),
/**
*
**
* Volume in cubic metres (m³).
*
*
* M3 = 31;
*/
M3(31),
/**
*
**
* Velocity in metres per second (m/s).
*
*
* MPERS = 32;
*/
MPERS(32),
/**
*
**
* Acceleration in metres per second squared (m/s²).
*
*
* MPERS2 = 33;
*/
MPERS2(33),
/**
*
**
* Volumetric flow rate in cubic metres per second (m³/s).
*
*
* M3PERS = 34;
*/
M3PERS(34),
/**
*
**
* Fuel efficiency in metres per cubic metres (m/m³).
*
*
* MPERM3 = 35;
*/
MPERM3(35),
/**
*
**
* Moment of mass in kilogram metres (kg·m) (first moment of mass).
* Note: multiplier “k” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* KGM = 36;
*/
KGM(36),
/**
*
**
* Density in kilogram/cubic metres (kg/m³).
* Note: multiplier “k” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* KGPERM3 = 37;
*/
KGPERM3(37),
/**
*
**
* Viscosity in square metres / second (m²/s).
*
*
* M2PERS = 38;
*/
M2PERS(38),
/**
*
**
* Thermal conductivity in watt/metres kelvin.
*
*
* WPERMK = 39;
*/
WPERMK(39),
/**
*
**
* Heat capacity in joules/kelvin.
*
*
* JPERK = 40;
*/
JPERK(40),
/**
*
**
* Concentration in parts per million.
*
*
* PPM = 41;
*/
PPM(41),
/**
*
**
* Rotations per second (1/s). See also Hz (1/s).
*
*
* ROTPERS = 42;
*/
ROTPERS(42),
/**
*
**
* Angular velocity in radians per second (rad/s).
*
*
* RADPERS = 43;
*/
RADPERS(43),
/**
*
**
* Heat flux density, irradiance, watts per square metre.
*
*
* WPERM2 = 44;
*/
WPERM2(44),
/**
*
**
* Insulation energy density, joules per square metre or watt second per square metre.
*
*
* JPERM2 = 45;
*/
JPERM2(45),
/**
*
**
* Conductance per length (F/m).
*
*
* SPERM = 46;
*/
SPERM(46),
/**
*
**
* Temperature change rate in kelvins per second.
*
*
* KPERS = 47;
*/
KPERS(47),
/**
*
**
* Pressure change rate in pascals per second.
*
*
* PAPERS = 48;
*/
PAPERS(48),
/**
*
**
* Specific heat capacity, specific entropy, joules per kilogram Kelvin.
*
*
* JPERKGK = 49;
*/
JPERKGK(49),
/**
*
**
* Apparent power in volt amperes. See also real power and reactive power.
*
*
* VA = 50;
*/
VA(50),
/**
*
**
* Reactive power in volt amperes reactive. The “reactive” or “imaginary” component of electrical power
* (VIsin(phi)). (See also real power and apparent power).
* Note: Different meter designs use different methods to arrive at their results.
* Some meters may compute reactive power as an arithmetic value, while others compute the value vectorially.
* The data consumer should determine the method in use and the suitability of the measurement for the
* intended purpose.
*
*
* VAR = 51;
*/
VAR(51),
/**
*
**
* Power factor, dimensionless.
* Note 1: This definition of power factor only holds for balanced systems.
* See the alternative definition under code 153.
* Note 2 : Beware of differing sign conventions in use between the IEC and EEI.
* It is assumed that the data consumer understands the type of meter in use and the sign
* convention in use by the utility.
*
*
* COSPHI = 52;
*/
COSPHI(52),
/**
*
**
* Volt seconds (Ws/A).
*
*
* VS = 53;
*/
VS(53),
/**
*
**
* Volt squared (W²/A²).
*
*
* V2 = 54;
*/
V2(54),
/**
*
**
* Ampere seconds (A·s).
*
*
* AS = 55;
*/
AS(55),
/**
*
**
* Amperes squared (A²).
*
*
* A2 = 56;
*/
A2(56),
/**
*
**
* Ampere squared time in square amperes (A²s).
*
*
* A2S = 57;
*/
A2S(57),
/**
*
**
* Apparent energy in volt ampere hours.
*
*
* VAH = 58;
*/
VAH(58),
/**
*
**
* Real energy in watt hours.
*
*
* WH = 59;
*/
WH(59),
/**
*
**
* Reactive energy in volt ampere reactive hours.
*
*
* VARH = 60;
*/
VARH(60),
/**
*
**
* Magnetic flux in volt per hertz.
*
*
* VPERHZ = 61;
*/
VPERHZ(61),
/**
*
**
* Rate of change of frequency in hertz per second.
*
*
* HZPERS = 62;
*/
HZPERS(62),
/**
*
**
* Number of characters.
*
*
* CHARACTER = 63;
*/
CHARACTER(63),
/**
*
**
* Data rate (baud) in characters per second.
*
*
* CHARPERS = 64;
*/
CHARPERS(64),
/**
*
**
* Moment of mass in kilogram square metres (kg·m²) (Second moment of mass, commonly called the moment of inertia).
* Note: multiplier “k” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* KGM2 = 65;
*/
KGM2(65),
/**
*
**
* Sound pressure level in decibels. Note: multiplier “d” is included in this unit symbol for
* compatibility with IEC 61850-7-3.
*
*
* DB = 66;
*/
DB(66),
/**
*
**
* Ramp rate in watts per second.
*
*
* WPERS = 67;
*/
WPERS(67),
/**
*
**
* Volumetric flow rate in litres per second.
*
*
* LPERS = 68;
*/
LPERS(68),
/**
*
**
* Power level (logarithmic ratio of signal strength , Bel-mW), normalized to 1mW.
* Note: multiplier “d” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* DBM = 69;
*/
DBM(69),
/**
*
**
* Time in hours, hour = 60 min = 3600 s.
*
*
* HOURS = 70;
*/
HOURS(70),
/**
*
**
* Time in minutes, minute = 60 s.
*
*
* MIN = 71;
*/
MIN(71),
/**
*
**
* Quantity power, Q.
*
*
* Q = 72;
*/
Q(72),
/**
*
**
* Quantity energy, Qh.
*
*
* QH = 73;
*/
QH(73),
/**
*
**
* Resistivity, ohm metres, (rho).
*
*
* OHMM = 74;
*/
OHMM(74),
/**
*
**
* A/m, magnetic field strength, amperes per metre.
*
*
* APERM = 75;
*/
APERM(75),
/**
*
**
* Volt-squared hour, volt-squared-hours.
*
*
* V2H = 76;
*/
V2H(76),
/**
*
**
* Ampere-squared hour, ampere-squared hour.
*
*
* A2H = 77;
*/
A2H(77),
/**
*
**
* Ampere-hours, ampere-hours.
*
*
* AH = 78;
*/
AH(78),
/**
*
**
* Amount of substance, Counter value.
*
*
* COUNT = 79;
*/
COUNT(79),
/**
*
**
* Volume, cubic feet.
*
*
* FT3 = 80;
*/
FT3(80),
/**
*
**
* Volumetric flow rate, cubic metres per hour.
*
*
* M3PERH = 81;
*/
M3PERH(81),
/**
*
**
* Volume in gallons, US gallon (1 gal = 231 in3 = 128 fl ounce).
*
*
* GAL = 82;
*/
GAL(82),
/**
*
**
* Energy, British Thermal Units.
*
*
* BTU = 83;
*/
BTU(83),
/**
*
**
* Volume in litres, litre = dm3 = m3/1000.
*
*
* L = 84;
*/
L(84),
/**
*
**
* Volumetric flow rate, litres per hour.
*
*
* LPERH = 85;
*/
LPERH(85),
/**
*
**
* Concentration, The ratio of the volume of a solute divided by the volume of the solution.
* Note: Users may need use a prefix such a ‘µ’ to express a quantity such as ‘µL/L’.
*
*
* LPERL = 86;
*/
LPERL(86),
/**
*
**
* Concentration, The ratio of the mass of a solute divided by the mass of the solution.
* Note: Users may need use a prefix such a ‘µ’ to express a quantity such as ‘µg/g’.
*
*
* GPERG = 87;
*/
GPERG(87),
/**
*
**
* Concentration, The amount of substance concentration, (c),
* the amount of solvent in moles divided by the volume of solution in m³.
*
*
* MOLPERM3 = 88;
*/
MOLPERM3(88),
/**
*
**
* Concentration, Molar fraction,
* the ratio of the molar amount of a solute divided by the molar amount of the solution.
*
*
* MOLPERMOL = 89;
*/
MOLPERMOL(89),
/**
*
**
* Concentration, Molality, the amount of solute in moles and the amount of solvent in kilograms.
*
*
* MOLPERKG = 90;
*/
MOLPERKG(90),
/**
*
**
* Time, Ratio of time. Note: Users may need to supply a prefix such as ‘µ’ to show rates such as ‘µs/s’.
*
*
* SPERS = 91;
*/
SPERS(91),
/**
*
**
* Frequency, rate of frequency change.
* Note: Users may need to supply a prefix such as ‘m’ to show rates such as ‘mHz/Hz’.
*
*
* HZPERHZ = 92;
*/
HZPERHZ(92),
/**
*
**
* Voltage, ratio of voltages. Note: Users may need to supply a prefix such as ‘m’ to show rates such as ‘mV/V’.
*
*
* VPERV = 93;
*/
VPERV(93),
/**
*
**
* Current, ratio of amperages. Note: Users may need to supply a prefix such as ‘m’ to show rates such as ‘mA/A’.
*
*
* APERA = 94;
*/
APERA(94),
/**
*
**
* Power factor, PF, the ratio of the active power to the apparent power.
* Note: The sign convention used for power factor will differ between IEC meters and EEI (ANSI) meters.
* It is assumed that the data consumers understand the type of meter being used and agree on the
* sign convention in use at any given utility.
*
*
* VPERVA = 95;
*/
VPERVA(95),
/**
*
**
* Amount of rotation, revolutions.
*
*
* REV = 96;
*/
REV(96),
/**
*
**
* Catalytic activity, katal = mol / s.
*
*
* KAT = 97;
*/
KAT(97),
/**
*
**
* Specific energy, Joules / kg.
*
*
* JPERKG = 98;
*/
JPERKG(98),
/**
*
**
* Volume, cubic metres, with the value uncompensated for weather effects.
*
*
* M3UNCOMPENSATED = 99;
*/
M3UNCOMPENSATED(99),
/**
*
**
* Volume, cubic metres, with the value compensated for weather effects.
*
*
* M3COMPENSATED = 100;
*/
M3COMPENSATED(100),
/**
*
**
* Signal Strength, ratio of power.
* Note: Users may need to supply a prefix such as ‘m’ to show rates such as ‘mW/W’.
*
*
* WPERW = 101;
*/
WPERW(101),
/**
*
**
* Energy, therms.
*
*
* THERM = 102;
*/
THERM(102),
/**
*
**
* Wavenumber, reciprocal metres, (1/m).
*
*
* ONEPERM = 103;
*/
ONEPERM(103),
/**
*
**
* Specific volume, cubic metres per kilogram, v.
*
*
* M3PERKG = 104;
*/
M3PERKG(104),
/**
*
**
* Dynamic viscosity, pascal seconds.
*
*
* PAS = 105;
*/
PAS(105),
/**
*
**
* Moment of force, newton metres.
*
*
* NM = 106;
*/
NM(106),
/**
*
**
* Surface tension, newton per metre.
*
*
* NPERM = 107;
*/
NPERM(107),
/**
*
**
* Angular acceleration, radians per second squared.
*
*
* RADPERS2 = 108;
*/
RADPERS2(108),
/**
*
**
* Energy density, joules per cubic metre.
*
*
* JPERM3 = 109;
*/
JPERM3(109),
/**
*
**
* Electric field strength, volts per metre.
*
*
* VPERM = 110;
*/
VPERM(110),
/**
*
**
* Electric charge density, coulombs per cubic metre.
*
*
* CPERM3 = 111;
*/
CPERM3(111),
/**
*
**
* Surface charge density, coulombs per square metre.
*
*
* CPERM2 = 112;
*/
CPERM2(112),
/**
*
**
* Permittivity, farads per metre.
*
*
* FPERM = 113;
*/
FPERM(113),
/**
*
**
* Permeability, henrys per metre.
*
*
* HPERM = 114;
*/
HPERM(114),
/**
*
**
* Molar energy, joules per mole.
*
*
* JPERMOL = 115;
*/
JPERMOL(115),
/**
*
**
* Molar entropy, molar heat capacity, joules per mole kelvin.
*
*
* JPERMOLK = 116;
*/
JPERMOLK(116),
/**
*
**
* Exposure (x rays), coulombs per kilogram.
*
*
* CPERKG = 117;
*/
CPERKG(117),
/**
*
**
* Absorbed dose rate, grays per second.
*
*
* GYPERS = 118;
*/
GYPERS(118),
/**
*
**
* Radiant intensity, watts per steradian.
*
*
* WPERSR = 119;
*/
WPERSR(119),
/**
*
**
* Radiance, watts per square metre steradian.
*
*
* WPERM2SR = 120;
*/
WPERM2SR(120),
/**
*
**
* Catalytic activity concentration, katals per cubic metre.
*
*
* KATPERM3 = 121;
*/
KATPERM3(121),
/**
*
**
* Time in days, day = 24 h = 86400 s.
*
*
* D = 122;
*/
D(122),
/**
*
**
* Plane angle, minutes.
*
*
* ANGLEMIN = 123;
*/
ANGLEMIN(123),
/**
*
**
* Plane angle, seconds.
*
*
* ANGLESEC = 124;
*/
ANGLESEC(124),
/**
*
**
* Area, hectares.
*
*
* HA = 125;
*/
HA(125),
/**
*
**
* Mass in tons, “tonne” or “metric ton” (1000 kg = 1 Mg).
*
*
* TONNE = 126;
*/
TONNE(126),
/**
*
**
* Pressure in bars, (1 bar = 100 kPa).
*
*
* BAR = 127;
*/
BAR(127),
/**
*
**
* Pressure, millimetres of mercury (1 mmHg is approximately 133.3 Pa).
*
*
* MMHG = 128;
*/
MMHG(128),
/**
*
**
* Length, nautical miles (1 M = 1852 m).
*
*
* MILES_NAUTICAL = 129;
*/
MILES_NAUTICAL(129),
/**
*
**
* Speed, knots (1 kn = 1852/3600) m/s.
*
*
* KN = 130;
*/
KN(130),
/**
*
**
* Magnetic flux, maxwells (1 Mx = 10-8 Wb).
*
*
* MX = 131;
*/
MX(131),
/**
*
**
* Magnetic flux density, gausses (1 G = 10-4 T).
*
*
* G = 132;
*/
G(132),
/**
*
**
* Magnetic field in oersteds, (1 Oe = (103/4p) A/m).
*
*
* OE = 133;
*/
OE(133),
/**
*
**
* Volt-hour, Volt hours.
*
*
* VH = 134;
*/
VH(134),
/**
*
**
* Active power per current flow, watts per Ampere.
*
*
* WPERA = 135;
*/
WPERA(135),
/**
*
**
* Reciprocal of frequency (1/Hz).
*
*
* ONEPERHZ = 136;
*/
ONEPERHZ(136),
/**
*
**
* Power factor, PF, the ratio of the active power to the apparent power.
* Note: The sign convention used for power factor will differ between IEC meters and EEI (ANSI) meters.
* It is assumed that the data consumers understand the type of meter being used and agree on the sign
* convention in use at any given utility.
*
*
* VPERVAR = 137;
*/
VPERVAR(137),
/**
*
**
* Electric resistance per length in ohms per metre ((V/A)/m).
*
*
* OHMPERM = 138;
*/
OHMPERM(138),
/**
*
**
* Weight per energy in kilograms per joule (kg/J).
* Note: multiplier “k” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* KGPERJ = 139;
*/
KGPERJ(139),
/**
*
**
* Energy rate in joules per second (J/s).
*
*
* JPERS = 140;
*/
JPERS(140),
UNRECOGNIZED(-1),
;
/**
*
**
* Dimension less quantity, e.g. count, per unit, etc.
*
*
* NONE = 0;
*/
public static final int NONE_VALUE = 0;
/**
*
**
* Length in metres.
*
*
* METRES = 1;
*/
public static final int METRES_VALUE = 1;
/**
*
**
* Mass in kilograms. Note: multiplier “k” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* KG = 2;
*/
public static final int KG_VALUE = 2;
/**
*
**
* Time in seconds.
*
*
* SECONDS = 3;
*/
public static final int SECONDS_VALUE = 3;
/**
*
**
* Current in amperes.
*
*
* A = 4;
*/
public static final int A_VALUE = 4;
/**
*
**
* Temperature in kelvins.
*
*
* K = 5;
*/
public static final int K_VALUE = 5;
/**
*
**
* Amount of substance in moles.
*
*
* MOL = 6;
*/
public static final int MOL_VALUE = 6;
/**
*
**
* Luminous intensity in candelas.
*
*
* CD = 7;
*/
public static final int CD_VALUE = 7;
/**
*
**
* Plane angle in degrees.
*
*
* DEG = 8;
*/
public static final int DEG_VALUE = 8;
/**
*
**
* Plane angle in radians (m/m).
*
*
* RAD = 9;
*/
public static final int RAD_VALUE = 9;
/**
*
**
* Solid angle in steradians (m2/m2).
*
*
* SR = 10;
*/
public static final int SR_VALUE = 10;
/**
*
**
* Absorbed dose in grays (J/kg).
*
*
* GY = 11;
*/
public static final int GY_VALUE = 11;
/**
*
**
* Radioactivity in becquerels (1/s).
*
*
* BQ = 12;
*/
public static final int BQ_VALUE = 12;
/**
*
**
* Relative temperature in degrees Celsius.
* In the SI unit system the symbol is °C. Electric charge is measured in coulomb that has the unit symbol C.
* To distinguish degree Celsius from coulomb the symbol used in the UML is degC. The reason for not using °C is
* that the special character ° is difficult to manage in software.
*
*
* DEGC = 13;
*/
public static final int DEGC_VALUE = 13;
/**
*
**
* Dose equivalent in sieverts (J/kg).
*
*
* SV = 14;
*/
public static final int SV_VALUE = 14;
/**
*
**
* Electric capacitance in farads (C/V).
*
*
* F = 15;
*/
public static final int F_VALUE = 15;
/**
*
**
* Electric charge in coulombs (A·s).
*
*
* C = 16;
*/
public static final int C_VALUE = 16;
/**
*
**
* Conductance in siemens.
*
*
* SIEMENS = 17;
*/
public static final int SIEMENS_VALUE = 17;
/**
*
**
* Electric inductance in henrys (Wb/A).
*
*
* HENRYS = 18;
*/
public static final int HENRYS_VALUE = 18;
/**
*
**
* Electric potential in volts (W/A).
*
*
* V = 19;
*/
public static final int V_VALUE = 19;
/**
*
**
* Electric resistance in ohms (V/A).
*
*
* OHM = 20;
*/
public static final int OHM_VALUE = 20;
/**
*
**
* Energy in joules (N·m = C·V = W·s).
*
*
* J = 21;
*/
public static final int J_VALUE = 21;
/**
*
**
* Force in newtons (kg·m/s²).
*
*
* N = 22;
*/
public static final int N_VALUE = 22;
/**
*
**
* Frequency in hertz (1/s).
*
*
* HZ = 23;
*/
public static final int HZ_VALUE = 23;
/**
*
**
* Illuminance in lux (lm/m²).
*
*
* LX = 24;
*/
public static final int LX_VALUE = 24;
/**
*
**
* Luminous flux in lumens (cd·sr).
*
*
* LM = 25;
*/
public static final int LM_VALUE = 25;
/**
*
**
* Magnetic flux in webers (V·s).
*
*
* WB = 26;
*/
public static final int WB_VALUE = 26;
/**
*
**
* Magnetic flux density in teslas (Wb/m2).
*
*
* T = 27;
*/
public static final int T_VALUE = 27;
/**
*
**
* Real power in watts (J/s). Electrical power may have real and reactive components.
* The real portion of electrical power (I²R or VIcos(phi)), is expressed in Watts.
* See also apparent power and reactive power.
*
*
* W = 28;
*/
public static final int W_VALUE = 28;
/**
*
**
* Pressure in pascals (N/m²).
* Note: the absolute or relative measurement of pressure is implied with this entry.
* See below for more explicit forms.
*
*
* PA = 29;
*/
public static final int PA_VALUE = 29;
/**
*
**
* Area in square metres (m²).
*
*
* M2 = 30;
*/
public static final int M2_VALUE = 30;
/**
*
**
* Volume in cubic metres (m³).
*
*
* M3 = 31;
*/
public static final int M3_VALUE = 31;
/**
*
**
* Velocity in metres per second (m/s).
*
*
* MPERS = 32;
*/
public static final int MPERS_VALUE = 32;
/**
*
**
* Acceleration in metres per second squared (m/s²).
*
*
* MPERS2 = 33;
*/
public static final int MPERS2_VALUE = 33;
/**
*
**
* Volumetric flow rate in cubic metres per second (m³/s).
*
*
* M3PERS = 34;
*/
public static final int M3PERS_VALUE = 34;
/**
*
**
* Fuel efficiency in metres per cubic metres (m/m³).
*
*
* MPERM3 = 35;
*/
public static final int MPERM3_VALUE = 35;
/**
*
**
* Moment of mass in kilogram metres (kg·m) (first moment of mass).
* Note: multiplier “k” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* KGM = 36;
*/
public static final int KGM_VALUE = 36;
/**
*
**
* Density in kilogram/cubic metres (kg/m³).
* Note: multiplier “k” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* KGPERM3 = 37;
*/
public static final int KGPERM3_VALUE = 37;
/**
*
**
* Viscosity in square metres / second (m²/s).
*
*
* M2PERS = 38;
*/
public static final int M2PERS_VALUE = 38;
/**
*
**
* Thermal conductivity in watt/metres kelvin.
*
*
* WPERMK = 39;
*/
public static final int WPERMK_VALUE = 39;
/**
*
**
* Heat capacity in joules/kelvin.
*
*
* JPERK = 40;
*/
public static final int JPERK_VALUE = 40;
/**
*
**
* Concentration in parts per million.
*
*
* PPM = 41;
*/
public static final int PPM_VALUE = 41;
/**
*
**
* Rotations per second (1/s). See also Hz (1/s).
*
*
* ROTPERS = 42;
*/
public static final int ROTPERS_VALUE = 42;
/**
*
**
* Angular velocity in radians per second (rad/s).
*
*
* RADPERS = 43;
*/
public static final int RADPERS_VALUE = 43;
/**
*
**
* Heat flux density, irradiance, watts per square metre.
*
*
* WPERM2 = 44;
*/
public static final int WPERM2_VALUE = 44;
/**
*
**
* Insulation energy density, joules per square metre or watt second per square metre.
*
*
* JPERM2 = 45;
*/
public static final int JPERM2_VALUE = 45;
/**
*
**
* Conductance per length (F/m).
*
*
* SPERM = 46;
*/
public static final int SPERM_VALUE = 46;
/**
*
**
* Temperature change rate in kelvins per second.
*
*
* KPERS = 47;
*/
public static final int KPERS_VALUE = 47;
/**
*
**
* Pressure change rate in pascals per second.
*
*
* PAPERS = 48;
*/
public static final int PAPERS_VALUE = 48;
/**
*
**
* Specific heat capacity, specific entropy, joules per kilogram Kelvin.
*
*
* JPERKGK = 49;
*/
public static final int JPERKGK_VALUE = 49;
/**
*
**
* Apparent power in volt amperes. See also real power and reactive power.
*
*
* VA = 50;
*/
public static final int VA_VALUE = 50;
/**
*
**
* Reactive power in volt amperes reactive. The “reactive” or “imaginary” component of electrical power
* (VIsin(phi)). (See also real power and apparent power).
* Note: Different meter designs use different methods to arrive at their results.
* Some meters may compute reactive power as an arithmetic value, while others compute the value vectorially.
* The data consumer should determine the method in use and the suitability of the measurement for the
* intended purpose.
*
*
* VAR = 51;
*/
public static final int VAR_VALUE = 51;
/**
*
**
* Power factor, dimensionless.
* Note 1: This definition of power factor only holds for balanced systems.
* See the alternative definition under code 153.
* Note 2 : Beware of differing sign conventions in use between the IEC and EEI.
* It is assumed that the data consumer understands the type of meter in use and the sign
* convention in use by the utility.
*
*
* COSPHI = 52;
*/
public static final int COSPHI_VALUE = 52;
/**
*
**
* Volt seconds (Ws/A).
*
*
* VS = 53;
*/
public static final int VS_VALUE = 53;
/**
*
**
* Volt squared (W²/A²).
*
*
* V2 = 54;
*/
public static final int V2_VALUE = 54;
/**
*
**
* Ampere seconds (A·s).
*
*
* AS = 55;
*/
public static final int AS_VALUE = 55;
/**
*
**
* Amperes squared (A²).
*
*
* A2 = 56;
*/
public static final int A2_VALUE = 56;
/**
*
**
* Ampere squared time in square amperes (A²s).
*
*
* A2S = 57;
*/
public static final int A2S_VALUE = 57;
/**
*
**
* Apparent energy in volt ampere hours.
*
*
* VAH = 58;
*/
public static final int VAH_VALUE = 58;
/**
*
**
* Real energy in watt hours.
*
*
* WH = 59;
*/
public static final int WH_VALUE = 59;
/**
*
**
* Reactive energy in volt ampere reactive hours.
*
*
* VARH = 60;
*/
public static final int VARH_VALUE = 60;
/**
*
**
* Magnetic flux in volt per hertz.
*
*
* VPERHZ = 61;
*/
public static final int VPERHZ_VALUE = 61;
/**
*
**
* Rate of change of frequency in hertz per second.
*
*
* HZPERS = 62;
*/
public static final int HZPERS_VALUE = 62;
/**
*
**
* Number of characters.
*
*
* CHARACTER = 63;
*/
public static final int CHARACTER_VALUE = 63;
/**
*
**
* Data rate (baud) in characters per second.
*
*
* CHARPERS = 64;
*/
public static final int CHARPERS_VALUE = 64;
/**
*
**
* Moment of mass in kilogram square metres (kg·m²) (Second moment of mass, commonly called the moment of inertia).
* Note: multiplier “k” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* KGM2 = 65;
*/
public static final int KGM2_VALUE = 65;
/**
*
**
* Sound pressure level in decibels. Note: multiplier “d” is included in this unit symbol for
* compatibility with IEC 61850-7-3.
*
*
* DB = 66;
*/
public static final int DB_VALUE = 66;
/**
*
**
* Ramp rate in watts per second.
*
*
* WPERS = 67;
*/
public static final int WPERS_VALUE = 67;
/**
*
**
* Volumetric flow rate in litres per second.
*
*
* LPERS = 68;
*/
public static final int LPERS_VALUE = 68;
/**
*
**
* Power level (logarithmic ratio of signal strength , Bel-mW), normalized to 1mW.
* Note: multiplier “d” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* DBM = 69;
*/
public static final int DBM_VALUE = 69;
/**
*
**
* Time in hours, hour = 60 min = 3600 s.
*
*
* HOURS = 70;
*/
public static final int HOURS_VALUE = 70;
/**
*
**
* Time in minutes, minute = 60 s.
*
*
* MIN = 71;
*/
public static final int MIN_VALUE = 71;
/**
*
**
* Quantity power, Q.
*
*
* Q = 72;
*/
public static final int Q_VALUE = 72;
/**
*
**
* Quantity energy, Qh.
*
*
* QH = 73;
*/
public static final int QH_VALUE = 73;
/**
*
**
* Resistivity, ohm metres, (rho).
*
*
* OHMM = 74;
*/
public static final int OHMM_VALUE = 74;
/**
*
**
* A/m, magnetic field strength, amperes per metre.
*
*
* APERM = 75;
*/
public static final int APERM_VALUE = 75;
/**
*
**
* Volt-squared hour, volt-squared-hours.
*
*
* V2H = 76;
*/
public static final int V2H_VALUE = 76;
/**
*
**
* Ampere-squared hour, ampere-squared hour.
*
*
* A2H = 77;
*/
public static final int A2H_VALUE = 77;
/**
*
**
* Ampere-hours, ampere-hours.
*
*
* AH = 78;
*/
public static final int AH_VALUE = 78;
/**
*
**
* Amount of substance, Counter value.
*
*
* COUNT = 79;
*/
public static final int COUNT_VALUE = 79;
/**
*
**
* Volume, cubic feet.
*
*
* FT3 = 80;
*/
public static final int FT3_VALUE = 80;
/**
*
**
* Volumetric flow rate, cubic metres per hour.
*
*
* M3PERH = 81;
*/
public static final int M3PERH_VALUE = 81;
/**
*
**
* Volume in gallons, US gallon (1 gal = 231 in3 = 128 fl ounce).
*
*
* GAL = 82;
*/
public static final int GAL_VALUE = 82;
/**
*
**
* Energy, British Thermal Units.
*
*
* BTU = 83;
*/
public static final int BTU_VALUE = 83;
/**
*
**
* Volume in litres, litre = dm3 = m3/1000.
*
*
* L = 84;
*/
public static final int L_VALUE = 84;
/**
*
**
* Volumetric flow rate, litres per hour.
*
*
* LPERH = 85;
*/
public static final int LPERH_VALUE = 85;
/**
*
**
* Concentration, The ratio of the volume of a solute divided by the volume of the solution.
* Note: Users may need use a prefix such a ‘µ’ to express a quantity such as ‘µL/L’.
*
*
* LPERL = 86;
*/
public static final int LPERL_VALUE = 86;
/**
*
**
* Concentration, The ratio of the mass of a solute divided by the mass of the solution.
* Note: Users may need use a prefix such a ‘µ’ to express a quantity such as ‘µg/g’.
*
*
* GPERG = 87;
*/
public static final int GPERG_VALUE = 87;
/**
*
**
* Concentration, The amount of substance concentration, (c),
* the amount of solvent in moles divided by the volume of solution in m³.
*
*
* MOLPERM3 = 88;
*/
public static final int MOLPERM3_VALUE = 88;
/**
*
**
* Concentration, Molar fraction,
* the ratio of the molar amount of a solute divided by the molar amount of the solution.
*
*
* MOLPERMOL = 89;
*/
public static final int MOLPERMOL_VALUE = 89;
/**
*
**
* Concentration, Molality, the amount of solute in moles and the amount of solvent in kilograms.
*
*
* MOLPERKG = 90;
*/
public static final int MOLPERKG_VALUE = 90;
/**
*
**
* Time, Ratio of time. Note: Users may need to supply a prefix such as ‘µ’ to show rates such as ‘µs/s’.
*
*
* SPERS = 91;
*/
public static final int SPERS_VALUE = 91;
/**
*
**
* Frequency, rate of frequency change.
* Note: Users may need to supply a prefix such as ‘m’ to show rates such as ‘mHz/Hz’.
*
*
* HZPERHZ = 92;
*/
public static final int HZPERHZ_VALUE = 92;
/**
*
**
* Voltage, ratio of voltages. Note: Users may need to supply a prefix such as ‘m’ to show rates such as ‘mV/V’.
*
*
* VPERV = 93;
*/
public static final int VPERV_VALUE = 93;
/**
*
**
* Current, ratio of amperages. Note: Users may need to supply a prefix such as ‘m’ to show rates such as ‘mA/A’.
*
*
* APERA = 94;
*/
public static final int APERA_VALUE = 94;
/**
*
**
* Power factor, PF, the ratio of the active power to the apparent power.
* Note: The sign convention used for power factor will differ between IEC meters and EEI (ANSI) meters.
* It is assumed that the data consumers understand the type of meter being used and agree on the
* sign convention in use at any given utility.
*
*
* VPERVA = 95;
*/
public static final int VPERVA_VALUE = 95;
/**
*
**
* Amount of rotation, revolutions.
*
*
* REV = 96;
*/
public static final int REV_VALUE = 96;
/**
*
**
* Catalytic activity, katal = mol / s.
*
*
* KAT = 97;
*/
public static final int KAT_VALUE = 97;
/**
*
**
* Specific energy, Joules / kg.
*
*
* JPERKG = 98;
*/
public static final int JPERKG_VALUE = 98;
/**
*
**
* Volume, cubic metres, with the value uncompensated for weather effects.
*
*
* M3UNCOMPENSATED = 99;
*/
public static final int M3UNCOMPENSATED_VALUE = 99;
/**
*
**
* Volume, cubic metres, with the value compensated for weather effects.
*
*
* M3COMPENSATED = 100;
*/
public static final int M3COMPENSATED_VALUE = 100;
/**
*
**
* Signal Strength, ratio of power.
* Note: Users may need to supply a prefix such as ‘m’ to show rates such as ‘mW/W’.
*
*
* WPERW = 101;
*/
public static final int WPERW_VALUE = 101;
/**
*
**
* Energy, therms.
*
*
* THERM = 102;
*/
public static final int THERM_VALUE = 102;
/**
*
**
* Wavenumber, reciprocal metres, (1/m).
*
*
* ONEPERM = 103;
*/
public static final int ONEPERM_VALUE = 103;
/**
*
**
* Specific volume, cubic metres per kilogram, v.
*
*
* M3PERKG = 104;
*/
public static final int M3PERKG_VALUE = 104;
/**
*
**
* Dynamic viscosity, pascal seconds.
*
*
* PAS = 105;
*/
public static final int PAS_VALUE = 105;
/**
*
**
* Moment of force, newton metres.
*
*
* NM = 106;
*/
public static final int NM_VALUE = 106;
/**
*
**
* Surface tension, newton per metre.
*
*
* NPERM = 107;
*/
public static final int NPERM_VALUE = 107;
/**
*
**
* Angular acceleration, radians per second squared.
*
*
* RADPERS2 = 108;
*/
public static final int RADPERS2_VALUE = 108;
/**
*
**
* Energy density, joules per cubic metre.
*
*
* JPERM3 = 109;
*/
public static final int JPERM3_VALUE = 109;
/**
*
**
* Electric field strength, volts per metre.
*
*
* VPERM = 110;
*/
public static final int VPERM_VALUE = 110;
/**
*
**
* Electric charge density, coulombs per cubic metre.
*
*
* CPERM3 = 111;
*/
public static final int CPERM3_VALUE = 111;
/**
*
**
* Surface charge density, coulombs per square metre.
*
*
* CPERM2 = 112;
*/
public static final int CPERM2_VALUE = 112;
/**
*
**
* Permittivity, farads per metre.
*
*
* FPERM = 113;
*/
public static final int FPERM_VALUE = 113;
/**
*
**
* Permeability, henrys per metre.
*
*
* HPERM = 114;
*/
public static final int HPERM_VALUE = 114;
/**
*
**
* Molar energy, joules per mole.
*
*
* JPERMOL = 115;
*/
public static final int JPERMOL_VALUE = 115;
/**
*
**
* Molar entropy, molar heat capacity, joules per mole kelvin.
*
*
* JPERMOLK = 116;
*/
public static final int JPERMOLK_VALUE = 116;
/**
*
**
* Exposure (x rays), coulombs per kilogram.
*
*
* CPERKG = 117;
*/
public static final int CPERKG_VALUE = 117;
/**
*
**
* Absorbed dose rate, grays per second.
*
*
* GYPERS = 118;
*/
public static final int GYPERS_VALUE = 118;
/**
*
**
* Radiant intensity, watts per steradian.
*
*
* WPERSR = 119;
*/
public static final int WPERSR_VALUE = 119;
/**
*
**
* Radiance, watts per square metre steradian.
*
*
* WPERM2SR = 120;
*/
public static final int WPERM2SR_VALUE = 120;
/**
*
**
* Catalytic activity concentration, katals per cubic metre.
*
*
* KATPERM3 = 121;
*/
public static final int KATPERM3_VALUE = 121;
/**
*
**
* Time in days, day = 24 h = 86400 s.
*
*
* D = 122;
*/
public static final int D_VALUE = 122;
/**
*
**
* Plane angle, minutes.
*
*
* ANGLEMIN = 123;
*/
public static final int ANGLEMIN_VALUE = 123;
/**
*
**
* Plane angle, seconds.
*
*
* ANGLESEC = 124;
*/
public static final int ANGLESEC_VALUE = 124;
/**
*
**
* Area, hectares.
*
*
* HA = 125;
*/
public static final int HA_VALUE = 125;
/**
*
**
* Mass in tons, “tonne” or “metric ton” (1000 kg = 1 Mg).
*
*
* TONNE = 126;
*/
public static final int TONNE_VALUE = 126;
/**
*
**
* Pressure in bars, (1 bar = 100 kPa).
*
*
* BAR = 127;
*/
public static final int BAR_VALUE = 127;
/**
*
**
* Pressure, millimetres of mercury (1 mmHg is approximately 133.3 Pa).
*
*
* MMHG = 128;
*/
public static final int MMHG_VALUE = 128;
/**
*
**
* Length, nautical miles (1 M = 1852 m).
*
*
* MILES_NAUTICAL = 129;
*/
public static final int MILES_NAUTICAL_VALUE = 129;
/**
*
**
* Speed, knots (1 kn = 1852/3600) m/s.
*
*
* KN = 130;
*/
public static final int KN_VALUE = 130;
/**
*
**
* Magnetic flux, maxwells (1 Mx = 10-8 Wb).
*
*
* MX = 131;
*/
public static final int MX_VALUE = 131;
/**
*
**
* Magnetic flux density, gausses (1 G = 10-4 T).
*
*
* G = 132;
*/
public static final int G_VALUE = 132;
/**
*
**
* Magnetic field in oersteds, (1 Oe = (103/4p) A/m).
*
*
* OE = 133;
*/
public static final int OE_VALUE = 133;
/**
*
**
* Volt-hour, Volt hours.
*
*
* VH = 134;
*/
public static final int VH_VALUE = 134;
/**
*
**
* Active power per current flow, watts per Ampere.
*
*
* WPERA = 135;
*/
public static final int WPERA_VALUE = 135;
/**
*
**
* Reciprocal of frequency (1/Hz).
*
*
* ONEPERHZ = 136;
*/
public static final int ONEPERHZ_VALUE = 136;
/**
*
**
* Power factor, PF, the ratio of the active power to the apparent power.
* Note: The sign convention used for power factor will differ between IEC meters and EEI (ANSI) meters.
* It is assumed that the data consumers understand the type of meter being used and agree on the sign
* convention in use at any given utility.
*
*
* VPERVAR = 137;
*/
public static final int VPERVAR_VALUE = 137;
/**
*
**
* Electric resistance per length in ohms per metre ((V/A)/m).
*
*
* OHMPERM = 138;
*/
public static final int OHMPERM_VALUE = 138;
/**
*
**
* Weight per energy in kilograms per joule (kg/J).
* Note: multiplier “k” is included in this unit symbol for compatibility with IEC 61850-7-3.
*
*
* KGPERJ = 139;
*/
public static final int KGPERJ_VALUE = 139;
/**
*
**
* Energy rate in joules per second (J/s).
*
*
* JPERS = 140;
*/
public static final int JPERS_VALUE = 140;
public final int getNumber() {
if (this == UNRECOGNIZED) {
throw new java.lang.IllegalArgumentException(
"Can't get the number of an unknown enum value.");
}
return value;
}
/**
* @param value The numeric wire value of the corresponding enum entry.
* @return The enum associated with the given numeric wire value.
* @deprecated Use {@link #forNumber(int)} instead.
*/
@java.lang.Deprecated
public static UnitSymbol valueOf(int value) {
return forNumber(value);
}
/**
* @param value The numeric wire value of the corresponding enum entry.
* @return The enum associated with the given numeric wire value.
*/
public static UnitSymbol forNumber(int value) {
switch (value) {
case 0: return NONE;
case 1: return METRES;
case 2: return KG;
case 3: return SECONDS;
case 4: return A;
case 5: return K;
case 6: return MOL;
case 7: return CD;
case 8: return DEG;
case 9: return RAD;
case 10: return SR;
case 11: return GY;
case 12: return BQ;
case 13: return DEGC;
case 14: return SV;
case 15: return F;
case 16: return C;
case 17: return SIEMENS;
case 18: return HENRYS;
case 19: return V;
case 20: return OHM;
case 21: return J;
case 22: return N;
case 23: return HZ;
case 24: return LX;
case 25: return LM;
case 26: return WB;
case 27: return T;
case 28: return W;
case 29: return PA;
case 30: return M2;
case 31: return M3;
case 32: return MPERS;
case 33: return MPERS2;
case 34: return M3PERS;
case 35: return MPERM3;
case 36: return KGM;
case 37: return KGPERM3;
case 38: return M2PERS;
case 39: return WPERMK;
case 40: return JPERK;
case 41: return PPM;
case 42: return ROTPERS;
case 43: return RADPERS;
case 44: return WPERM2;
case 45: return JPERM2;
case 46: return SPERM;
case 47: return KPERS;
case 48: return PAPERS;
case 49: return JPERKGK;
case 50: return VA;
case 51: return VAR;
case 52: return COSPHI;
case 53: return VS;
case 54: return V2;
case 55: return AS;
case 56: return A2;
case 57: return A2S;
case 58: return VAH;
case 59: return WH;
case 60: return VARH;
case 61: return VPERHZ;
case 62: return HZPERS;
case 63: return CHARACTER;
case 64: return CHARPERS;
case 65: return KGM2;
case 66: return DB;
case 67: return WPERS;
case 68: return LPERS;
case 69: return DBM;
case 70: return HOURS;
case 71: return MIN;
case 72: return Q;
case 73: return QH;
case 74: return OHMM;
case 75: return APERM;
case 76: return V2H;
case 77: return A2H;
case 78: return AH;
case 79: return COUNT;
case 80: return FT3;
case 81: return M3PERH;
case 82: return GAL;
case 83: return BTU;
case 84: return L;
case 85: return LPERH;
case 86: return LPERL;
case 87: return GPERG;
case 88: return MOLPERM3;
case 89: return MOLPERMOL;
case 90: return MOLPERKG;
case 91: return SPERS;
case 92: return HZPERHZ;
case 93: return VPERV;
case 94: return APERA;
case 95: return VPERVA;
case 96: return REV;
case 97: return KAT;
case 98: return JPERKG;
case 99: return M3UNCOMPENSATED;
case 100: return M3COMPENSATED;
case 101: return WPERW;
case 102: return THERM;
case 103: return ONEPERM;
case 104: return M3PERKG;
case 105: return PAS;
case 106: return NM;
case 107: return NPERM;
case 108: return RADPERS2;
case 109: return JPERM3;
case 110: return VPERM;
case 111: return CPERM3;
case 112: return CPERM2;
case 113: return FPERM;
case 114: return HPERM;
case 115: return JPERMOL;
case 116: return JPERMOLK;
case 117: return CPERKG;
case 118: return GYPERS;
case 119: return WPERSR;
case 120: return WPERM2SR;
case 121: return KATPERM3;
case 122: return D;
case 123: return ANGLEMIN;
case 124: return ANGLESEC;
case 125: return HA;
case 126: return TONNE;
case 127: return BAR;
case 128: return MMHG;
case 129: return MILES_NAUTICAL;
case 130: return KN;
case 131: return MX;
case 132: return G;
case 133: return OE;
case 134: return VH;
case 135: return WPERA;
case 136: return ONEPERHZ;
case 137: return VPERVAR;
case 138: return OHMPERM;
case 139: return KGPERJ;
case 140: return JPERS;
default: return null;
}
}
public static com.google.protobuf.Internal.EnumLiteMap
internalGetValueMap() {
return internalValueMap;
}
private static final com.google.protobuf.Internal.EnumLiteMap<
UnitSymbol> internalValueMap =
new com.google.protobuf.Internal.EnumLiteMap() {
public UnitSymbol findValueByNumber(int number) {
return UnitSymbol.forNumber(number);
}
};
public final com.google.protobuf.Descriptors.EnumValueDescriptor
getValueDescriptor() {
if (this == UNRECOGNIZED) {
throw new java.lang.IllegalStateException(
"Can't get the descriptor of an unrecognized enum value.");
}
return getDescriptor().getValues().get(ordinal());
}
public final com.google.protobuf.Descriptors.EnumDescriptor
getDescriptorForType() {
return getDescriptor();
}
public static final com.google.protobuf.Descriptors.EnumDescriptor
getDescriptor() {
return com.zepben.protobuf.cim.iec61970.base.domain.UnitSymbolOuterClass.getDescriptor().getEnumTypes().get(0);
}
private static final UnitSymbol[] VALUES = values();
public static UnitSymbol valueOf(
com.google.protobuf.Descriptors.EnumValueDescriptor desc) {
if (desc.getType() != getDescriptor()) {
throw new java.lang.IllegalArgumentException(
"EnumValueDescriptor is not for this type.");
}
if (desc.getIndex() == -1) {
return UNRECOGNIZED;
}
return VALUES[desc.getIndex()];
}
private final int value;
private UnitSymbol(int value) {
this.value = value;
}
// @@protoc_insertion_point(enum_scope:zepben.protobuf.cim.iec61970.base.domain.UnitSymbol)
}