Type: | Package |
Title: | Temperature Measurement with Thermocouples, RTD and IC Sensors |
Version: | 1.0.2 |
Encoding: | UTF-8 |
Description: | Temperature measurement data, equations and methods for thermocouples, wire RTD, thermistors, IC thermometers, bimetallic strips and the ITS-90. |
License: | GPL (≥ 3) |
LazyData: | yes |
LazyLoad: | yes |
Depends: | R (≥ 2.7.0) |
Author: | Jose Gama [aut, cre] |
Maintainer: | Jose Gama <rxprtgama@gmail.com> |
Repository: | CRAN |
Repository/R-Forge/Project: | thermocouple |
Repository/R-Forge/Revision: | 4 |
Repository/R-Forge/DateTimeStamp: | 2015-07-18 23:20:17 |
Date/Publication: | 2015-07-19 19:44:31 |
NeedsCompilation: | no |
Packaged: | 2015-07-18 23:25:11 UTC; rforge |
Convert American wire gauge (SWG) to mm
Description
AWGTOmm
converts American wire gauge (SWG) to mm
Usage
AWGTOmm(n)
Arguments
n |
AWG gauge |
Value
g |
gauge in mm |
Author(s)
Jose Gama
Source
rapidtables.com, 2014 convert American wire gauge (SWG) to mm http://www.rapidtables.com/calc/wire/awg-to-mm.htm
References
rapidtables.com, 2014 convert American wire gauge (SWG) to mm http://www.rapidtables.com/calc/wire/awg-to-mm.htm
Calculate 8-bit CRC for DS1820
Description
DS1820CalcCRCbit
Calculates 8-bit CRC for DS1820
Usage
DS1820CalcCRCbit(shiftReg, dataBit)
Arguments
shiftReg |
shift register |
dataBit |
data bit |
Value
b |
beta coefficient |
Author(s)
Jose Gama
Source
Peter H. Anderson, 1998 DS1820 Digital Thermometer - Calculating an 8-bit CRC Value http://www.phanderson.com/PIC/16C84/crc.html
References
Peter H. Anderson, 1998 DS1820 Digital Thermometer - Calculating an 8-bit CRC Value http://www.phanderson.com/PIC/16C84/crc.html
American Wire Gauge (AWG) diameter from AWG number
Description
DiameterAWG
Calculates American Wire Gauge (AWG) diameter from AWG number
Usage
DiameterAWG(AWG)
Arguments
AWG |
AWG number |
Value
d |
American Wire Gauge (AWG) diameter |
Author(s)
Jose Gama
Source
Lund Instrument Engineering, Inc., 2014 Wire Gauge and Current Limits Including Skin Depth and Strength http://www.powerstream.com/Wire_Size.htm
References
Lund Instrument Engineering, Inc., 2014 Wire Gauge and Current Limits Including Skin Depth and Strength http://www.powerstream.com/Wire_Size.htm
RTD alpha coefficient
Description
RTDalpha
calculates RTD alpha coefficient
Usage
RTDalpha(R0, R100)
Arguments
R0 |
resistance at 0C |
R100 |
resistance at 100C |
Value
alpha |
RTD alpha coefficient |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
RTD beta coefficient
Description
RTDbeta
calculates RTD beta coefficient
Usage
RTDbeta(R0, Rtl, Tl, alpha, delta)
Arguments
R0 |
resistance at 0C |
Rtl |
resistance of the sensor at the lowest temperature |
Tl |
lowest temperature in the calibration range |
alpha |
RTD alpha coefficient |
delta |
RTD delta coefficient |
Value
beta |
RTD beta coefficient |
Author(s)
Jose Gama
Source
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
References
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
RTD A coefficient
Description
RTDcoefficientA
calculates RTD A coefficient
RTDcoefficientB
calculates RTD B coefficient
RTDcoefficientC
calculates RTD C coefficient
Usage
RTDcoefficientA(alpha, delta)
Arguments
alpha |
RTD alpha coefficient |
delta |
RTD delta coefficient |
Value
A |
RTD A coefficient |
Author(s)
Jose Gama
Source
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
References
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
RTD delta coefficient
Description
RTDdelta
calculates RTD delta coefficient
Usage
RTDdelta(R0, Rth, Th,alpha)
Arguments
R0 |
resistance at 0C |
Rth |
resistance of the sensor at the highest temperature |
Th |
highest temperature in the calibration range |
alpha |
RTD alpha coefficient |
Value
delta |
RTD delta coefficient |
Author(s)
Jose Gama
Source
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
References
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
RTD equation with 3 constants
Description
RTDequation
calculates the RTD equation
Usage
RTDequation(R0, T, A, B, C=NA)
Arguments
R0 |
resistance at 0C |
T |
temperature in C |
A |
RTD constant |
B |
RTD constant |
C |
RTD constant |
Value
R |
resistance |
Author(s)
Jose Gama
Source
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
References
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
RTD Temperature from Resistance
Description
RTDtemperatureFromResistance
calculates RTD Temperature from Resistance
Usage
RTDtemperatureFromResistance(R, R0)
Arguments
R |
resistance measured |
R0 |
resistance at 0C |
Value
T |
Temperature |
Author(s)
Jose Gama
Source
Madur In., 2014 Resistive temperature detectors PTxx www.madur.com
References
Madur In., 2014 Resistive temperature detectors PTxx www.madur.com
self-heating error
Description
SelfHeatingError
calculates the self-heating error
Usage
SelfHeatingError(I, R, Ek)
Arguments
I |
intensity (A) |
R |
resistance (ohm) |
Ek |
self-heating coefficient(mW/C) |
Value
E |
self-heating error |
Author(s)
Jose Gama
Source
Gerd Scheller, 2003 Error Analysis of a Temperature Measurement System with worked examples JUMO, FAS 625, Edition 06.03
References
Gerd Scheller, 2003 Error Analysis of a Temperature Measurement System with worked examples JUMO, FAS 625, Edition 06.03
Sensitivity of the sensor
Description
SensorSensitivity
calculates the Sensitivity of the sensor
Usage
SensorSensitivity(T1, E1, T2, E2)
Arguments
T1 |
measured temperature |
E1 |
resistance (platinum sensor) or the thermoelectric emf (thermocouple) for T1 |
T2 |
measured temperature |
E2 |
resistance (platinum sensor) or the thermoelectric emf (thermocouple) for T2 |
Value
Cs |
Sensor Sensitivity |
Author(s)
Jose Gama
Source
Gerd Scheller, 2003 Error Analysis of a Temperature Measurement System with worked examples JUMO, FAS 625, Edition 06.03
References
Gerd Scheller, 2003 Error Analysis of a Temperature Measurement System with worked examples JUMO, FAS 625, Edition 06.03
Spline algorithm used in The Observed Properties of Liquid Helium at the Saturated Vapor Pressure
Description
SplineEval
Spline algorithm used in The Observed Properties
of Liquid Helium at the Saturated Vapor Pressure
Usage
SplineEval(x, knotsK, coeffsC)
Arguments
x |
Temperature vector |
knotsK |
knots, internal and external, vector |
coeffsC |
coefficients vector |
Value
S |
Spline result |
Author(s)
Jose Gama
Source
Donnelly, Donnelly and Hills [J. Low Temp. Phys. 44, 471 (1981)]
References
Donnelly, Donnelly and Hills [J. Low Temp. Phys. 44, 471 (1981)]
Approximation of Drift Resistance of NTC Thermistors
Description
ThermistorApproxDriftResistance
Estimates the Drift Resistance of
NTC Thermistors
Usage
ThermistorApproxDriftResistance(Ri, T, a, b)
Arguments
Ri |
initial resistance |
T |
aging time |
a |
intercept at T=1 |
b |
slope (%deltaR per decade of time T) |
Value
Rt |
resistance at time T |
Author(s)
Jose Gama
Source
Quality Thermistor, Inc. 2108 http://www.cornerstonesensors.com/About.asp?PageCode=Stability&Print=Page
References
Quality Thermistor, Inc. 2108 http://www.cornerstonesensors.com/About.asp?PageCode=Stability&Print=Page
Approximation of Drift Time of NTC Thermistors
Description
ThermistorApproxDriftTime
Estimates the Drift Time of
NTC Thermistors
Usage
ThermistorApproxDriftTime(Ri, Rt, a, b)
Arguments
Ri |
initial resistance |
Rt |
resistance at time T |
a |
intercept at T=1 |
b |
slope (%deltaR per decade of time T) |
Value
T |
aging time |
Author(s)
Jose Gama
Source
Quality Thermistor, Inc. 2108 http://www.cornerstonesensors.com/About.asp?PageCode=Stability&Print=Page
References
Quality Thermistor, Inc. 2108 http://www.cornerstonesensors.com/About.asp?PageCode=Stability&Print=Page
Estimate thermistor beta coefficient from two known resistance/temperature values
Description
ThermistorCalculateBeta
Estimates thermistor beta coefficient from two known resistance/temperature values
Usage
ThermistorCalculateBeta(R0, T0, R1, T1)
Arguments
R0 |
resistance measurement 1 |
T0 |
temperature measurement 1 |
R1 |
resistance measurement 2 |
T1 |
temperature measurement 2 |
Value
b |
beta coefficient |
Author(s)
Jose Gama
Source
RepRap wiki, 2014 Measuring Thermistor Beta http://reprap.org/wiki/MeasuringThermistorBeta
References
RepRap wiki, 2014 Measuring Thermistor Beta http://reprap.org/wiki/MeasuringThermistorBeta
Thermistor calibration equation
Description
ThermistorCalibrationEquation
Thermistor calibration equation
Usage
ThermistorCalibrationEquation(R, R0, thCoeffs)
Arguments
R |
resistance measurement for temperature T |
R0 |
resistance measurement for temperature T0 |
thCoeffs |
Thermistor coefficient |
Value
T |
temperature |
Author(s)
Jose Gama
Source
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
References
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
Resistance–temperature calibration equation Hoge 1
Description
ThermistorCalibrationEquationHoge1
Resistance–temperature
calibration equation Hoge 1
Usage
ThermistorCalibrationEquationHoge1(Rt, A0, A1, A2)
Arguments
Rt |
resistance measurement for temperature T |
A0 |
equation coefficient A0 |
A1 |
equation coefficient A1 |
A2 |
equation coefficient A2 |
Value
T |
temperature |
Author(s)
Jose Gama
Source
Chiachung Chen, 2009 Evaluation of resistance–temperature calibration equations for NTC thermistors Measurement 42, Elsevier
References
Chiachung Chen, 2009 Evaluation of resistance–temperature calibration equations for NTC thermistors Measurement 42, Elsevier
Resistance–temperature calibration equation Hoge 1
Description
ThermistorCalibrationEquationHoge2
Resistance–temperature
calibration equation Hoge 2
Usage
ThermistorCalibrationEquationHoge2(Rt, A0, A1, A2, A3)
Arguments
Rt |
resistance measurement for temperature T |
A0 |
equation coefficient A0 |
A1 |
equation coefficient A1 |
A2 |
equation coefficient A2 |
A3 |
equation coefficient A3 |
Value
T |
temperature |
Author(s)
Jose Gama
Source
Chiachung Chen, 2009 Evaluation of resistance–temperature calibration equations for NTC thermistors Measurement 42, Elsevier
References
Chiachung Chen, 2009 Evaluation of resistance–temperature calibration equations for NTC thermistors Measurement 42, Elsevier
Resistance–temperature calibration equation Hoge 1
Description
ThermistorCalibrationEquationHoge3
Resistance–temperature
calibration equation Hoge 3
Usage
ThermistorCalibrationEquationHoge3(Rt, A0, A1, A2, A3, A4)
Arguments
Rt |
resistance measurement for temperature T |
A0 |
equation coefficient A0 |
A1 |
equation coefficient A1 |
A2 |
equation coefficient A2 |
A3 |
equation coefficient A3 |
A4 |
equation coefficient A4 |
Value
T |
temperature |
Author(s)
Jose Gama
Source
Chiachung Chen, 2009 Evaluation of resistance–temperature calibration equations for NTC thermistors Measurement 42, Elsevier
References
Chiachung Chen, 2009 Evaluation of resistance–temperature calibration equations for NTC thermistors Measurement 42, Elsevier
Resistance–temperature calibration equation Hoge 1
Description
ThermistorCalibrationEquationHoge4
Resistance–temperature
calibration equation Hoge 4
Usage
ThermistorCalibrationEquationHoge4(Rt, A0, A1, A2, A5)
Arguments
Rt |
resistance measurement for temperature T |
A0 |
equation coefficient A0 |
A1 |
equation coefficient A1 |
A2 |
equation coefficient A2 |
A5 |
equation coefficient A5 |
Value
T |
temperature |
Author(s)
Jose Gama
Source
Chiachung Chen, 2009 Evaluation of resistance–temperature calibration equations for NTC thermistors Measurement 42, Elsevier
References
Chiachung Chen, 2009 Evaluation of resistance–temperature calibration equations for NTC thermistors Measurement 42, Elsevier
Resistance–temperature calibration equation Hoge 1
Description
ThermistorCalibrationEquationHoge5
Resistance–temperature
calibration equation Hoge 5
Usage
ThermistorCalibrationEquationHoge5(Rt, C1, C2, C3)
Arguments
Rt |
resistance measurement for temperature T |
C1 |
equation coefficient C1 |
C2 |
equation coefficient C2 |
C3 |
equation coefficient C3 |
Value
T |
temperature |
Author(s)
Jose Gama
Source
Chiachung Chen, 2009 Evaluation of resistance–temperature calibration equations for NTC thermistors Measurement 42, Elsevier
References
Chiachung Chen, 2009 Evaluation of resistance–temperature calibration equations for NTC thermistors Measurement 42, Elsevier
Convert ADC reading into a temperature in Celcius by using two resistors
Description
ThermistorConvertADCreadingToTemperatureC
Converts ADC reading into a
temperature in Celcius by using two resistors values
Usage
ThermistorConvertADCreadingToTemperatureC(adc, R0, T0, betaTH,
R1, R2, vadc = 5.0, vcc = 5.0, ADCbits=10)
Arguments
adc |
ADC reading |
R0 |
resistance measurement 1 |
T0 |
resistance temperature 1 |
betaTH |
beta coefficient |
R1 |
resistor value 1 |
R2 |
resistor value 2 |
vadc |
ADC reference |
vcc |
supply voltage to potential divider |
ADCbits |
ADC bit resolution |
Value
C |
Temperature in Celsius |
Author(s)
Jose Gama
Source
Chris Palmer, 2007 Measuring temperature the easy way http://hydraraptor.blogspot.co.uk/2007/10/measuring-temperature-easy-way.html
References
Chris Palmer, 2007 Measuring temperature the easy way http://hydraraptor.blogspot.co.uk/2007/10/measuring-temperature-easy-way.html
Convert temperature in Celcius into ADC reading, with two resistors
Description
ThermistorConvertTemperatureCtoADCreading
Converts temperature
in Celcius into ADC reading, with two resistors
Usage
ThermistorConvertTemperatureCtoADCreading(T, R0, T0, R1, R2,
betaTH, vadc = 5.0, vcc = 5.0, ADCbits=10)
Arguments
T |
Temperature in Celsius |
R0 |
resistance measurement 1 |
T0 |
resistance temperature 1 |
R1 |
resistor value 1 |
R2 |
resistor value 2 |
betaTH |
beta coefficient |
vadc |
ADC reference |
vcc |
supply voltage to potential divider |
ADCbits |
ADC bit resolution |
Value
adc |
ADC value |
Author(s)
Jose Gama
Source
Chris Palmer, 2007 Measuring temperature the easy way http://hydraraptor.blogspot.co.uk/2007/10/measuring-temperature-easy-way.html
References
Chris Palmer, 2007 Measuring temperature the easy way http://hydraraptor.blogspot.co.uk/2007/10/measuring-temperature-easy-way.html
Calculate Hoge1 coefficients from measurements
Description
ThermistorHoge1CoeffFromMeasurements
Calculate Hoge1 coefficients
from measurements
Usage
ThermistorHoge1CoeffFromMeasurements(resAndTemp)
Arguments
resAndTemp |
matrix with temperatures (C) in column 1 and resistance (ohm) in column 2 |
Value
b |
beta coefficient |
Author(s)
Jose Gama
Estimate thermistor resistance from temperature
Description
ThermistorResistance
Estimates thermistor resistance from temperature
Usage
ThermistorResistance(Tx, R0, betaTH, T0)
Arguments
Tx |
measured temperature |
R0 |
R0 resistance at temperature To (25C, expressed in Kelvin) |
betaTH |
Beta parameter of the thermistor (calculated or from the data sheet) |
T0 |
resistance temperature |
Value
R |
resistance in ohms |
Author(s)
Jose Gama
Source
Chris Palmer, 2007 Measuring temperature the easy way http://hydraraptor.blogspot.co.uk/2007/10/measuring-temperature-easy-way.html
References
Chris Palmer, 2007 Measuring temperature the easy way http://hydraraptor.blogspot.co.uk/2007/10/measuring-temperature-easy-way.html
Steinhart-Hart Equation for Thermistor Resistance
Description
ThermistorResistanceSteinhartHart
Estimates the thermistor resistance
using the Steinhart-Hart equation
Usage
ThermistorResistanceSteinhartHart(T, A, B, C)
Arguments
T |
measured temperature for resistance R |
A |
Steinhart-Hart Coefficient A (K^0) |
B |
Steinhart-Hart Coefficient B (K^1) |
C |
Steinhart-Hart Coefficient C (K^2) |
Value
R |
resistance |
Author(s)
Jose Gama
Source
Daycounter, Inc. Engineering Services, 2014 Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
References
Daycounter, Inc. Engineering Services, 2014 Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
Steinhart-Hart equation for thermistor resistance, calculated with Maxima
Description
ThermistorResistanceSteinhartHart2
Steinhart-Hart equation for
thermistor resistance, calculated with Maxima
Usage
ThermistorResistanceSteinhartHart2(T, A, B, C)
Arguments
T |
measured temperature for resistance R |
A |
Steinhart-Hart Coefficient A (K^0) |
B |
Steinhart-Hart Coefficient B (K^1) |
C |
Steinhart-Hart Coefficient C (K^2) |
Value
R |
resistance |
Author(s)
Jose Gama
Steinhart-Hart equation for thermistor resistance using 3 temperature points
Description
ThermistorResistanceSteinhartHartUsing3T
Steinhart-Hart equation for
thermistor resistance using 3 temperature points
Usage
ThermistorResistanceSteinhartHartUsing3T(T, T2, T3, R0, A1, B1, C1=0, D1)
Arguments
T |
measured temperature for resistance R |
T2 |
2nd measured temperature for resistance R |
T3 |
3rd measured temperature for resistance R |
R0 |
measured resistance |
A1 |
Steinhart-Hart Coefficient A (K^0) |
B1 |
Steinhart-Hart Coefficient B (K^1) |
C1 |
Steinhart-Hart Coefficient C (K^2) |
D1 |
Steinhart-Hart Coefficient D (K^3) |
Value
R |
resistance |
Author(s)
Jose Gama
Source
Daycounter, Inc. Engineering Services Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
Thermistor Sensitivity
Description
ThermistorSensitivity
Thermistor Sensitivity
(relative change in resistance for a change in temperature)
Usage
ThermistorSensitivity(T, beta)
Arguments
T |
measured temperature for resistance R |
beta |
beta Coefficient |
Value
S |
Sensitivity |
Author(s)
Jose Gama
Source
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
References
John G. Webster and Halit Eren, 2014 Measurement, Instrumentation, and Sensors Handbook, Second Edition Spatial, Mechanical, Thermal, and Radiation Measurement CRC Press
Thermistor Slope (Resistance Ratio)
Description
ThermistorSlope
Thermistor Slope (Resistance Ratio)
Usage
ThermistorSlope(R0, R70)
Arguments
R0 |
resistance at temperature To (0C, expressed in Kelvin) |
R70 |
resistance at temperature To (70C, expressed in Kelvin) |
Value
R |
resistance in ohms |
Author(s)
Jose Gama
Source
NTC Thermistor theory BetaTHERM sensors www.betatherm.com
References
NTC Thermistor theory BetaTHERM sensors www.betatherm.com
Steinhart-Hart coefficients A, B, C from measurements
Description
ThermistorSteinhartHartCoeffFromMeasurements
Steinhart-Hart
coefficients A, B, C from measurements
Usage
ThermistorSteinhartHartCoeffFromMeasurements(resAndTemp)
Arguments
resAndTemp |
matrix with temperatures (C) in column 1 and resistance (ohm) in column 2 |
Value
A |
coefficient A |
B |
coefficient B |
C |
coefficient C |
Author(s)
Jose Gama
Source
NTC Thermistor theory BetaTHERM sensors www.betatherm.com
References
NTC Thermistor theory BetaTHERM sensors www.betatherm.com
Steinhart-Hart Equation for Thermistor Temperature
Description
ThermistorTemperatureSteinhartHart
Estimates the thermistor temperature
using the Steinhart-Hart equation
Usage
ThermistorTemperatureSteinhartHart(R, R0, A, B, C=0, D)
Arguments
R |
measured resistance for temperature T |
R0 |
resistance at temperature To (25°C, expressed in ohms) |
A |
Steinhart-Hart Coefficient A1 (K^0) |
B |
Steinhart-Hart Coefficient B1 (K^-1) |
C |
Steinhart-Hart Coefficient C1 (K^-2) |
D |
Steinhart-Hart Coefficient D1 (K^-3) |
Value
R |
resistance |
Note
Equation ThermistorCalibrationEquation
should be used instead of the
Steinhart and Hart equation because the performance of this equation
is affected by:
1. the thermistor's R(25 C) value
2. the unit of measurement
3. R0
5. the thermistors being connected in series or parallel
Source: John G. Webster and Halit Eren, 2014, Measurement, Instrumentation, and Sensors Handbook, Second Edition, CRC Press
Bennett, A. S., 1971, The calibration of thermistors over the range 0-30 C Deep Sea Research, 19, 157-163.
Author(s)
Jose Gama
Source
Daycounter, Inc. Engineering Services, 2014 Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
References
Daycounter, Inc. Engineering Services, 2014 Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
Thermistor Volume Resistivity at 25C
Description
ThermistorVolumeResistivityFromR25
Estimates thermistor Volume Resistivity at 25C
Usage
ThermistorVolumeResistivityFromR25(R25, Thck, L, W)
Arguments
R25 |
measured resistance 25C (ohms) |
Thck |
thickness of the conductor (chip) (cm) |
L |
length of the conductor (chip) (cm) |
W |
width of the conductor (chip) (cm) |
Value
r |
Resistivity |
Author(s)
Jose Gama
Source
BetaTHERM sensors, 2014 NTC Thermistor theory www.betatherm.com
References
BetaTHERM sensors, 2014 NTC Thermistor theory www.betatherm.com
Thermistor Volume Resistivity at 25C
Description
ThermistorVolumeResistivityFromRho
Estimates thermistor Volume Resistivity at 25C
Usage
ThermistorVolumeResistivityFromRho(Rho, Thck, L, W)
Arguments
Rho |
material resistivity in ohm/cm |
Thck |
thickness of the conductor (chip) (cm) |
L |
length of the conductor (chip) (cm) |
W |
width of the conductor (chip) (cm) |
Value
r |
Resistivity |
Author(s)
Jose Gama
Source
BetaTHERM sensors, 2014 NTC Thermistor theory www.betatherm.com
References
BetaTHERM sensors, 2014 NTC Thermistor theory www.betatherm.com
Calculate the external resistance to an instrument
Description
ThermocoupleLeadWireExternalResistanceUS
Calculates the external resistance to an instrument
Usage
ThermocoupleLeadWireExternalResistanceUS(thermocoupleType, thermocoupleLength,
thermocoupleGauge, leadWireType, leadWireLength, leadWireGauge)
Arguments
thermocoupleType |
Type of thermocouple wire |
thermocoupleLength |
Length of thermocouple wire (feet) |
thermocoupleGauge |
Gauge of thermocouple wire (AWG) |
leadWireType |
Type of lead wire |
leadWireLength |
Length of lead wire (feet) |
leadWireGauge |
Gauge of lead wire (AWG) |
Value
R |
resistance (ohms) |
Author(s)
Jose Gama
Source
Conax(TM) Buffalo, 2014 thermocouple wire size and resistance table www.conaxbuffalo.com
References
Conax(TM) Buffalo, 2014 thermocouple wire size and resistance table www.conaxbuffalo.com
Examples
# What is external resistance to my instrument if I use a 20 gauge Chromel/Alumel
# thermocouple 3 feet long and 14 gauge Chromel/Alumel lead wire 20 feet in length?
# Answer: 4.7002 ohms
ThermocoupleLeadWireExternalResistanceUS('k',3,20,'k',20,14)
Convert the thermocouple table for easier use
Description
ThermocoupleTable10colsTo2
converts the thermocouple table from n X 12 to m X 2
Usage
ThermocoupleTable10colsTo2(thermocoupleTable)
Arguments
thermocoupleTable |
thermocouple table to be resized n X 12 |
Value
table |
thermocouple table m X 2 |
Author(s)
Jose Gama
T - T90 computed by a polynomial
Description
TminusT90CCT2008
Thermodynamic Temperature minus the ITS-90,
computed by a polynomial (CCT WG4 2008)
Usage
TminusT90CCT2008(T90K)
Arguments
T90K |
ITS-90 |
Value
T - T90 |
Thermodynamic Temperature minus ITS-90 |
Author(s)
Jose Gama
Source
Franco Pavese and Gianfranco Molinar Min Beciet, 2013 Modern Gas-Based Temperature and Pressure Measurements Springer Science + Business Media pp. 42
References
Franco Pavese and Gianfranco Molinar Min Beciet, 2013 Modern Gas-Based Temperature and Pressure Measurements Springer Science + Business Media pp. 42
T - T90 computed by 4 cubic polynomials
Description
TminusT90Pavese4CubicPolynomials
Thermodynamic Temperature minus
the ITS-90, computed by 4 cubic polynomials (CCT WG4 2008)
Usage
TminusT90Pavese4CubicPolynomials(T90K)
Arguments
T90K |
ITS-90 |
Value
T - T90 |
Thermodynamic Temperature minus ITS-90 |
Author(s)
Jose Gama
Source
Franco Pavese and Gianfranco Molinar Min Beciet, 2013 Modern Gas-Based Temperature and Pressure Measurements Springer Science + Business Media pp. 42
References
Franco Pavese and Gianfranco Molinar Min Beciet, 2013 Modern Gas-Based Temperature and Pressure Measurements Springer Science + Business Media pp. 42
T - T90 computed by 6 cubic polynomials
Description
TminusT90Pavese6CubicPolynomials
Thermodynamic Temperature minus
the ITS-90, computed by 6 cubic polynomials (CCT WG4 2008)
Usage
TminusT90Pavese6CubicPolynomials(T90K)
Arguments
T90K |
ITS-90 |
Value
T - T90 |
Thermodynamic Temperature minus ITS-90 |
Author(s)
Jose Gama
Source
Franco Pavese and Gianfranco Molinar Min Beciet, 2013 Modern Gas-Based Temperature and Pressure Measurements Springer Science + Business Media pp. 42
References
Franco Pavese and Gianfranco Molinar Min Beciet, 2013 Modern Gas-Based Temperature and Pressure Measurements Springer Science + Business Media pp. 42
Thermocouple Cables
Description
thermocoupleCables
is a table with Thermocouple Cables
Usage
thermocoupleCables
Author(s)
Jose Gama
Source
Labfacility Limited, 2014 Thermocouple Cables https://www.labfacility.com/thermocouple-cables/
References
Labfacility Limited, 2014 Thermocouple Cables https://www.labfacility.com/thermocouple-cables/
Thermocouple Cold Junction Voltage Coefficients
Description
thermocoupleColdJunctionVoltageCoeff
is a table with Thermocouple Cold Junction Voltage Coefficients
Usage
thermocoupleColdJunctionVoltageCoeff
Author(s)
Jose Gama
Source
Capgo Pty Ltd, 2013 Computing cold junction voltages http://www.capgo.com/Resources/Temperature/Thermocouple/Thermocouple.html
References
Capgo Pty Ltd, 2013 Computing cold junction voltages http://www.capgo.com/Resources/Temperature/Thermocouple/Thermocouple.html
Thermocouple Extension Cables
Description
thermocoupleExtensionCables
is a table with Thermocouple Extension Cables
Usage
thermocoupleExtensionCables
Author(s)
Jose Gama
Source
Mike Nager, 2014 Designing with Thermocouples: Get the Most from Your Measurements www.phoenixcontact.com
References
Mike Nager, 2014 Designing with Thermocouples: Get the Most from Your Measurements www.phoenixcontact.com
Mineral Insulated Thermocouples
Description
thermocoupleMineralInsulated
is a table with Mineral Insulated Thermocouples
Usage
thermocoupleMineralInsulated
Author(s)
Jose Gama
Source
Watlow(R), 2014 Mineral Insulated Sensors by Diameter and Sheath https://www.watlow.com/downloads/en/catalogs/thermocouples.pdf
References
Watlow(R), 2014 Mineral Insulated Sensors by Diameter and Sheath https://www.watlow.com/downloads/en/catalogs/thermocouples.pdf
Thermocouple Mounting
Description
thermocoupleMounting
is a table with Thermocouple Mounting data
Usage
thermocoupleMounting
Author(s)
Jose Gama
Source
Capgo Pty Ltd, 2013 Thermocouple mounting http://www.capgo.com/Resources/Temperature/Thermocouple/Thermocouple.html Watlow(R), 2014 Junction Types https://www.watlow.com/downloads/en/catalogs/thermocouples.pdf
References
Capgo Pty Ltd, 2013 Thermocouple mounting http://www.capgo.com/Resources/Temperature/Thermocouple/Thermocouple.html Watlow(R), 2014 Junction Types https://www.watlow.com/downloads/en/catalogs/thermocouples.pdf
Thermocouple Response Times
Description
thermocoupleResponseTime
is a table with Thermocouple Response Times
Usage
thermocoupleResponseTime
Author(s)
Jose Gama
Source
Industrial Temperature Sensors Ltd., 2014 Typical Thermocouple Response Times in seconds http://www.itsirl.com/tcresp.php
References
Industrial Temperature Sensors Ltd., 2014 Typical Thermocouple Response Times in seconds http://www.itsirl.com/tcresp.php
curvature radius of a bimetallic strip uniformly heated from T0 to T
Description
BimaterialStripCurvatureRadiusFromTemperature
curvature radius
of a bimetallic strip uniformly heated from T0 to T in the absence of external forces
Usage
BimaterialStripCurvatureRadiusFromTemperature(T0, R0, T, m, n, alpha1, alpha2, thickn)
Arguments
T0 |
Initial temperature |
R0 |
1/R0 = Initial curvature of the strip at temperature T0 |
T |
Measured temperature |
m |
t1/t2, with t1 and t2 their respective thicknesses |
n |
E1/E2, with E1 and E2 their respective Young’s moduli |
alpha1 |
Coefficient of expansion of element 1 |
alpha2 |
Coefficient of expansion of element 2 |
thickn |
t1 + t2 thickness of the strip |
Value
R |
voltage (V) |
Author(s)
Jose Gama
Source
John G. Webster, 1999 The Measurement, Instrumentation and Sensors Handbook CRC Press LLC
References
John G. Webster, 1999 The Measurement, Instrumentation and Sensors Handbook CRC Press LLC
Metal RTD resistance
Description
RTDmetalResistance
calculates Metal RTD resistance
Usage
RTDmetalResistance(R0, T, A, B, C, metal=NA)
Arguments
R0 |
resistance at 0C |
T |
temperature in C |
A |
specific constant A |
B |
specific constant B |
C |
specific constant C |
metal |
optional, if chosen then A, B and C are the ones for this metal |
Value
R |
RTD resistance |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Simplified Equation for Meta RTD Resistance
Description
RTDmetalResistanceFromAlpha
calculates simplified equation for Meta RTD resistance
Usage
RTDmetalResistanceFromAlpha(R0, T, alpha=NA, metal='nickel')
Arguments
R0 |
resistance at 0C |
T |
temperature in C |
alpha |
optional resistance's temperature coefficient |
metal |
optional metal to get alpha |
Value
R |
RTD resistance |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Simplified Equation for Molybdenum RTD Resistance
Description
RTDmolybdenumResistanceFromAlpha
calculates simplified equation for Molybdenum RTD resistance
Usage
RTDmolybdenumResistanceFromAlpha(R0, T, alpha=NA)
Arguments
R0 |
resistance at 0C |
T |
temperature in C |
alpha |
optional resistance's temperature coefficient |
Value
R |
RTD resistance |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Simplified Equation for Molybdenum RTD temperature
Description
RTDmolybdenumTemperatureFromAlpha
calculates simplified equation for Molybdenum RTD temperature
Usage
RTDmolybdenumTemperatureFromAlpha(R0, Rt, alpha=NA)
Arguments
R0 |
resistance at 0C |
Rt |
resistance at temperature T |
alpha |
optional resistance's temperature coefficient |
Value
T |
RTD temperature |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Simplified Equation for Nickel-Iron RTD Resistance
Description
RTDnickelIronResistanceFromAlpha
calculates simplified equation for Nickel-Iron RTD resistance
Usage
RTDnickelIronResistanceFromAlpha(R0, T, alpha=NA)
Arguments
R0 |
resistance at 0C |
T |
temperature in C |
alpha |
optional resistance's temperature coefficient |
Value
R |
RTD resistance |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Simplified Equation for Nickel-Iron RTD temperature
Description
RTDnickelIronTemperatureFromAlpha
calculates simplified equation for Nickel-Iron RTD temperature
Usage
RTDnickelIronTemperatureFromAlpha(R0, Rt, alpha=NA)
Arguments
R0 |
resistance at 0C |
Rt |
resistance at temperature T |
alpha |
optional resistance's temperature coefficient |
Value
T |
RTD temperature |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Simplified Equation for Nickel-Iron RTD Resistance
Description
RTDnickelResistance
calculates simplified equation for Nickel-Iron RTD resistance
Usage
RTDnickelResistance(R0, T, A=NA, B=NA, D=NA, F=NA)
Arguments
R0 |
resistance at 0C |
T |
temperature in C |
A |
specific constant A (optional) |
B |
specific constant B (optional) |
D |
specific constant D (optional) |
F |
specific constant F (optional) |
Value
R |
RTD resistance |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Simplified Equation for Nickel RTD Resistance
Description
RTDnickelResistanceFromAlpha
calculates simplified equation for Nickel RTD resistance
Usage
RTDnickelResistanceFromAlpha(R0, T, alpha=NA)
Arguments
R0 |
resistance at 0C |
T |
temperature in C |
alpha |
optional resistance's temperature coefficient |
Value
R |
RTD resistance |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Simplified Equation for Nickel RTD temperature
Description
RTDnickelTemperatureFromAlpha
calculates simplified equation for Nickel RTD temperature
Usage
RTDnickelTemperatureFromAlpha(R0, Rt, alpha=NA)
Arguments
R0 |
resistance at 0C |
Rt |
resistance at temperature T |
alpha |
optional resistance's temperature coefficient |
Value
T |
RTD temperature |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Metal RTD resistance
Description
RTDplatinumResistance
calculates Metal RTD resistance
Usage
RTDplatinumResistance(R0, T, A=NA, B=NA, C=NA, stdRTD='DIN43760')
Arguments
R0 |
resistance at 0C |
T |
temperature in C |
A |
specific constant A |
B |
specific constant B |
C |
specific constant C |
stdRTD |
standard, optional alternative to get A, B and C |
Value
R |
RTD resistance |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Simplified Equation for Platinum RTD Resistance
Description
RTDplatinumResistanceFromAlpha
calculates simplified equation for Platinum RTD resistance
Usage
RTDplatinumResistanceFromAlpha(R0, T, alpha=NA, stdRTD='DIN43760')
Arguments
R0 |
resistance at 0C |
T |
temperature in C |
alpha |
optional resistance's temperature coefficient |
stdRTD |
standard, optional alternative way to get alpha |
Value
R |
RTD resistance |
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Callendar-Van Dusen equation for platinum RTD temperature from resistance
Description
RTDplatinumTemperature
calculates the Callendar-Van Dusen
equation for platinum RTD temperature from resistance
Usage
RTDplatinumTemperature(R0, R, alpha, beta, delta)
Arguments
R0 |
resistance at 0C |
R |
Measured resistance |
alpha |
specific constant A |
beta |
specific constant B |
delta |
specific constant C |
Value
T |
RTD temperature |
Author(s)
Jose Gama
Source
John G. Webster, 1999 The Measurement, Instrumentation and Sensors Handbook CRC Press LLC
References
John G. Webster, 1999 The Measurement, Instrumentation and Sensors Handbook CRC Press LLC
RTD temperature Fit
Description
RTDtemperatureFit
RTD temperature Fit
Usage
RTDtemperatureFit(R, R0, fitRTD='linear', alpha=0.00385)
Arguments
R |
resistance at temperature T |
R0 |
resistance at 0C |
fitRTD |
type of fitting method (linear, quadratic, cubic, polynomial) |
alpha |
(optional) resistance's temperature coefficient |
Value
T |
temperature (C) |
Author(s)
Jose Gama
Source
Mosaic Industries, Inc., 2014 Relating resistance to temperature http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/platinum-rtd-sensors/resistance-calibration-table
References
Mosaic Industries, Inc., 2014 Relating resistance to temperature http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/platinum-rtd-sensors/resistance-calibration-table
Examples
data(RTDtemperatureFit)
str(RTDtemperatureFit)
Thermistor Alpha Approximated From Beta
Description
ThermistorAlphaApproximatedFromBeta
Thermistor alpha approximated
from beta
Usage
ThermistorAlphaApproximatedFromBeta(T, betaTH)
Arguments
T |
temperature |
betaTH |
Beta parameter of the thermistor (calculated or from the data sheet) |
Value
a |
parameter of the thermistor |
Author(s)
Jose Gama
Source
Daycounter, Inc. Engineering Services, 2014 Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
References
Daycounter, Inc. Engineering Services, 2014 Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
Examples
data(ThermistorAlphaApproximatedFromBeta)
str(ThermistorAlphaApproximatedFromBeta)
Thermistor Resistance Deviation
Description
ThermistorResistanceDeviation
Thermistor Resistance Deviation
Usage
ThermistorResistanceDeviation(deltaBetaTH, deltaR25)
Arguments
deltaBetaTH |
delta(beta) |
deltaR25 |
delta(R25) |
Value
R |
Resistance (ohm) |
Author(s)
Jose Gama
Source
Daycounter, Inc. Engineering Services, 2014 Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
References
Daycounter, Inc. Engineering Services, 2014 Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
Examples
data(ThermistorResistanceDeviation)
str(ThermistorResistanceDeviation)
Thermistor relationship resistance tolerance
Description
ThermistorResistanceTolerance
Thermistor relationship resistance
tolerance
Usage
ThermistorResistanceTolerance(TempAccy, alpha)
Arguments
TempAccy |
Temperature Accuracy |
alpha |
Thermistor alpha constant |
Value
t |
Tolerance |
Author(s)
Jose Gama
Source
Spectrum Sensors & Controls Inc., 2014 NTC Thermistors Engineering Notes http://www.SpecSensors.com
References
Spectrum Sensors & Controls Inc., 2014 NTC Thermistors Engineering Notes http://www.SpecSensors.com
RTD temperature Fit
Description
ThermistorTemperature
RTD temperature Fit
Usage
ThermistorTemperature(R, R0, betaTH, T0)
Arguments
R0 |
resistance at 0C |
R |
resistance measured |
betaTH |
beta parameter of the thermistor (calculated or from the data sheet) |
T0 |
temperature at resistance R0 |
Value
T |
temperature (C) |
Author(s)
Jose Gama
Source
Mosaic Industries, Inc., 2014 ntc-thermistors http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/ntc-thermistors/resistance-equation
References
Mosaic Industries, Inc., 2014 ntc-thermistors http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/ntc-thermistors/resistance-equation
Examples
data(ThermistorTemperature)
str(ThermistorTemperature)
Thermistor relationship temperature accuracy
Description
ThermistorTemperatureAccuracy
Thermistor relationship
temperature accuracy
Usage
ThermistorTemperatureAccuracy(ResTol, alpha)
Arguments
ResTol |
Thermistor resistance tolerance |
alpha |
Thermistor alpha constant |
Value
a |
Accuracy |
Author(s)
Jose Gama
Source
Spectrum Sensors & Controls Inc., 2014 NTC Thermistors Engineering Notes http://www.SpecSensors.com
References
Spectrum Sensors & Controls Inc., 2014 NTC Thermistors Engineering Notes http://www.SpecSensors.com
Thermistor temperature Deviation
Description
ThermistorTemperatureDeviation
Thermistor temperature Deviation
Usage
ThermistorTemperatureDeviation(deltaBetaTH, deltaR25, alpha)
Arguments
deltaBetaTH |
delta(beta) |
deltaR25 |
delta(R25) |
alpha |
Thermistor alpha coefficient |
Value
T |
temperature (C) |
Author(s)
Jose Gama
Source
Daycounter, Inc. Engineering Services, 2014 Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
References
Daycounter, Inc. Engineering Services, 2014 Steinhart-Hart Thermistor Calculator http://www.daycounter.com/Calculators/Steinhart-Hart-Thermistor-Calculator.phtml
Examples
data(ThermistorTemperatureDeviation)
str(ThermistorTemperatureDeviation)
RTD temperature Fit Polynomial
Description
ThermistorTemperatureFitPolynomial
RTD temperature Fit Polynomial
Usage
ThermistorTemperatureFitPolynomial(R, R0, A, B, C, D)
Arguments
R |
resistance measured |
R0 |
resistance at 0C |
A |
Coefficient A |
B |
Coefficient B |
C |
Coefficient C |
D |
Coefficient D |
Value
T |
temperature (C) |
Author(s)
Jose Gama
Source
Mosaic Industries, Inc., 2014 ntc-thermistors http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/ntc-thermistors/resistance-equation
References
Mosaic Industries, Inc., 2014 ntc-thermistors http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/ntc-thermistors/resistance-equation
Examples
data(ThermistorTemperatureFitPolynomial)
str(ThermistorTemperatureFitPolynomial)
Thermocouple cold junction voltages
Description
ThermocoupleEquationTemperatureToVoltage
Thermocouple cold junction voltages
Usage
ThermocoupleEquationTemperatureToVoltage(vT, thermocoupleType='k')
Arguments
vT |
vector with temperatures |
thermocoupleType |
Thermocouple type |
Value
V |
voltage (V) |
Author(s)
Jose Gama
Source
Mosaic Industries, Inc., 2014 Computing cold junction voltages http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/thermocouple/calibration-table#computing-cold-junction-voltages
References
Mosaic Industries, Inc., 2014 Computing cold junction voltages http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/thermocouple/calibration-table#computing-cold-junction-voltages
Examples
data(ThermocoupleEquationTemperatureToVoltage)
str(ThermocoupleEquationTemperatureToVoltage)
Equation for Calculating Voltage from Temperature for Thermocouples Type B
Description
ThermocoupleEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type B
ThermocoupleEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type E
ThermocoupleEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type J
ThermocoupleEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type K
ThermocoupleEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type N
ThermocoupleEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type R
ThermocoupleEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type S
ThermocoupleEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type T
Usage
ThermocoupleEquationTypeB(vT)
Arguments
vT |
Vector with temperatures (C) |
Value
V |
Voltage (mV) |
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Thermocouple polynomial function approximation
Description
ThermocoupleEquationTypeKrationalPolynomial
Thermocouple polynomial function approximation
Usage
ThermocoupleEquationTypeKrationalPolynomial(vV, thermocoupleType='k')
Arguments
vV |
vector with voltages |
thermocoupleType |
Thermocouple type |
Value
T |
temperature (C) |
Author(s)
Jose Gama
Source
Mosaic Industries, Inc., 2014 Rational polynomial function approximation for Type K thermocouples http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/thermocouple/calibration-table#computing-cold-junction-voltages
References
Mosaic Industries, Inc., 2014 Rational polynomial function approximation for Type K thermocouples http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/thermocouple/calibration-table#computing-cold-junction-voltages
Examples
data(ThermocoupleEquationTypeKrationalPolynomial)
str(ThermocoupleEquationTypeKrationalPolynomial)
Thermocouple Fundamental Relation
Description
ThermocoupleFundamentalRelation
Thermocouple Fundamental Relation
Usage
ThermocoupleFundamentalRelation(S, T0, T1)
Arguments
S |
Seebeck coefficient (uV/C) or Sab Seebeck coefficient between material a and b |
T0 |
temperatures at T0 end |
T1 |
temperatures at T1 end |
Value
V |
voltage (V) |
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(ThermocoupleFundamentalRelation)
str(ThermocoupleFundamentalRelation)
Thermocouple Fundamental Relation
Description
ThermocoupleFundamentalRelation2
Thermocouple Fundamental Relation
Usage
ThermocoupleFundamentalRelation2(Sa, Sb, T0, T1)
Arguments
Sa |
Seebeck coefficient for material a |
Sb |
Seebeck coefficient for material b |
T0 |
temperatures at T0 end |
T1 |
temperatures at T1 end |
Value
V |
voltage (V) |
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(ThermocoupleFundamentalRelation2)
str(ThermocoupleFundamentalRelation2)
Equation for Calculating Temperature from Voltage for Thermocouples Type B
Description
ThermocoupleInverseEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type B
ThermocoupleInverseEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type E
ThermocoupleInverseEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type J
ThermocoupleInverseEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type K
ThermocoupleInverseEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type N
ThermocoupleInverseEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type R
ThermocoupleInverseEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type S
ThermocoupleInverseEquationTypeB
Calculates Voltage from Temperature for Thermocouples Type T
Usage
ThermocoupleInverseEquationTypeB(vV)
Arguments
vV |
Vector with voltages (C) |
Value
T |
Temperature (C) |
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Stem Loss Error Estimate for Thermocouple
Description
ThermocoupleStemLossErrorEstimate
Stem Loss Error Estimate for Thermocouple
Usage
ThermocoupleStemLossErrorEstimate(L, h, k, r0, ri)
Arguments
L |
sensor insertion depth (cm) |
h |
surface heat transfer coefficient (watts.cm2 C) |
k |
thermal conductivity of sheath material (watts.cm C) |
r0 |
sheath outer radius |
ri |
sheath inner radius |
Value
E |
error (percent of difference between tip temperature and back-end temperature) |
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(ThermocoupleStemLossErrorEstimate)
str(ThermocoupleStemLossErrorEstimate)
Voltage Contribution of Two Homogeneous Wires
Description
ThermocoupleVoltageContributionTwoHomogeneousWires
Voltage Contribution
of Two Homogeneous Wires
Usage
ThermocoupleVoltageContributionTwoHomogeneousWires(Sab, T0, T1, T2)
Arguments
Sab |
Seebeck coefficient between material a and b |
T0 |
temperatures at T0 end |
T1 |
temperatures at T1 end |
T2 |
temperatures at T2 end |
Value
V |
voltage (V) |
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(ThermocoupleVoltageContributionTwoHomogeneousWires)
str(ThermocoupleVoltageContributionTwoHomogeneousWires)
Thermocouple with Reference
Description
ThermocoupleWithReference
Thermocouple with Reference
Usage
ThermocoupleWithReference(Sa, Sb, T0, T1, T2)
Arguments
Sa |
Seebeck coefficient for material a |
Sb |
Seebeck coefficient for material b |
T0 |
temperatures at T0 end |
T1 |
temperatures at T1 end |
T2 |
temperatures at T3 end |
Value
V |
voltage (V) |
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(ThermocoupleWithReference)
str(ThermocoupleWithReference)
Thermocouple with Reference
Description
ThermocoupleWithReference2
Thermocouple with Reference
Usage
ThermocoupleWithReference2(Sab, T1, T2)
Arguments
Sab |
Seebeck coefficient between material a and b |
T1 |
temperatures at T1 end |
T2 |
temperatures at T2 end |
Value
V |
voltage (V) |
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(ThermocoupleWithReference2)
str(ThermocoupleWithReference2)
Adopted database for latent heat of vaporization of liquid 4He
Description
adoptedLatentHeatOfVaporizationOfLiquidHe4
is a table with the
Adopted database for latent heat of vaporization of liquid He4
Usage
adoptedLatentHeatOfVaporizationOfLiquidHe4
Author(s)
Jose Gama
Source
Donnelly R J The Observed Properties of Liquid Helium at the Saturated Vapor Pressure http://pages.uoregon.edu/rjd/vapor17.htm
References
Donnelly R J The Observed Properties of Liquid Helium at the Saturated Vapor Pressure http://pages.uoregon.edu/rjd/vapor17.htm
Examples
data(adoptedLatentHeatOfVaporizationOfLiquidHe4)
str(adoptedLatentHeatOfVaporizationOfLiquidHe4)
Recommended values of the dielectric constant, density and thermal expansion coefficient of liquid 4He at saturated vapor pressure
Description
dielectricC.Density.ThermExpLiquid4HeSatVapPress
is a table with the
Recommended values of the dielectric constant, density and thermal expansion
coefficient of liquid 4He at saturated vapor pressure
Usage
dielectricC.Density.ThermExpLiquid4HeSatVapPress
Author(s)
Jose Gama
Source
Donnelly R J The Observed Properties of Liquid Helium at the Saturated Vapor Pressure http://pages.uoregon.edu/rjd/vapor2.htm
References
Donnelly R J The Observed Properties of Liquid Helium at the Saturated Vapor Pressure http://pages.uoregon.edu/rjd/vapor2.htm
Examples
data(dielectricC.Density.ThermExpLiquid4HeSatVapPress)
str(dielectricC.Density.ThermExpLiquid4HeSatVapPress)
Temperature/Data Relationship DS18B20
Description
ds18B20TemperatureData
is a table with the Temperature/Data Relationship for the DS18B20
Usage
ds18B20TemperatureData
Author(s)
Jose Gama
Source
Maxim Integrated Products, Inc., 2014 DS18B20 datasheet REV: 042208 DS18B20 Programmable Resolution 1-Wire Digital Thermometer
References
Maxim Integrated Products, Inc., 2014 DS18B20 datasheet REV: 042208 DS18B20 Programmable Resolution 1-Wire Digital Thermometer
Examples
data(ds18B20TemperatureData)
str(ds18B20TemperatureData)
Recommended values of the latent heat of vaporization of liquid 4He as a function of temperature at the saturated vapor pressure
Description
recommendedLatentHeatOfVaporizationOfLiquidHe4
is a table with the
Recommended values of the latent heat of vaporization of liquid 4He as a function
of temperature at the saturated vapor pressure
Usage
recommendedLatentHeatOfVaporizationOfLiquidHe4
Author(s)
Jose Gama
Source
Donnelly R J The Observed Properties of Liquid Helium at the Saturated Vapor Pressure http://pages.uoregon.edu/rjd/vapor17.htm
References
Donnelly R J The Observed Properties of Liquid Helium at the Saturated Vapor Pressure http://pages.uoregon.edu/rjd/vapor17.htm
Examples
data(recommendedLatentHeatOfVaporizationOfLiquidHe4)
str(recommendedLatentHeatOfVaporizationOfLiquidHe4)
Standard Accuracy for Thermocouples
Description
rtdAndThermistorStandardAccuracy
is a table with standard accuracy for thermocouples
Usage
rtdAndThermistorStandardAccuracy
Author(s)
Jose Gama
Source
Veris Industries, 2009 Resources, Build-A-Sensor, Temperature Sensors http://www.veris.com/
References
Veris Industries, 2009 Resources, Build-A-Sensor, Temperature Sensors http://www.veris.com/
Examples
data(rtdAndThermistorStandardAccuracy)
str(rtdAndThermistorStandardAccuracy)
Standard Values for Thermocouples
Description
rtdAndThermistorStandardValues
is a table with standard values for thermocouples
Usage
rtdAndThermistorStandardValues
Author(s)
Jose Gama
Source
Veris Industries, 2009 Resources, Build-A-Sensor, Temperature Sensors http://www.veris.com/
References
Veris Industries, 2009 Resources, Build-A-Sensor, Temperature Sensors http://www.veris.com/
Examples
data(rtdAndThermistorStandardValues)
str(rtdAndThermistorStandardValues)
rtdPT100 Resistance vs Temperature
Description
rtdPT100
is a table with PT100 resistance vs temperature
rtdPT1000
is a table with PT1000 resistance vs temperature
Usage
rtdPT100
Author(s)
Jose Gama
Source
Pavitronic, 2014 pt100 resistance / temperature. http://pavitronic.dk/eng/pt100val.html
References
Pavitronic, 2014 pt100 resistance / temperature. http://pavitronic.dk/eng/pt100val.html
Examples
data(rtdPT100)
str(rtdPT100)
Platinum RTD Tolerance Values
Description
rtdPlatinumToleranceValues
is a table with Platinum RTD Tolerance Values
Usage
rtdPlatinumToleranceValues
Author(s)
Jose Gama
Source
Watlow Electric Manufacturing Company, 2014 Platinum RTD Tolerance Values https://www.watlow.com/reference/refdata/0315.cfm
References
Watlow Electric Manufacturing Company, 2014 Platinum RTD Tolerance Values https://www.watlow.com/reference/refdata/0315.cfm
Examples
data(rtdPlatinumToleranceValues)
str(rtdPlatinumToleranceValues)
RTD Resistance Wire Comparison
Description
rtdResistanceWireComparison
is a table with RTD Resistance Wire Comparison
Usage
rtdResistanceWireComparison
Author(s)
Jose Gama
Source
Watlow Electric Manufacturing Company, 2014 RTD Resistance Wire Comparison https://www.watlow.com/reference/refdata/0315.cfm
References
Watlow Electric Manufacturing Company, 2014 RTD Resistance Wire Comparison https://www.watlow.com/reference/refdata/0315.cfm
Examples
data(rtdResistanceWireComparison)
str(rtdResistanceWireComparison)
Resistivity and Alpha Coefficients for RTDs
Description
rtdResistivityAlpha
is a table with Resistivity and Alpha Coefficients for RTDs
Usage
rtdResistivityAlpha
Author(s)
Jose Gama
Source
Madur Inc., 2014 Resistive temperature detectors PTxx www.madur.com
References
Madur Inc., 2014 Resistive temperature detectors PTxx www.madur.com
Examples
data(rtdResistivityAlpha)
str(rtdResistivityAlpha)
Types of RTDs
Description
rtdTypes
is a table with Types of RTDs
Usage
rtdTypes
Author(s)
Jose Gama
Source
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
References
Capgo Inc., 2014 Introduction to RTDs http://www.capgo.com/Resources/Temperature/RTDs/RTD.html
Examples
data(rtdTypes)
str(rtdTypes)
AWG Wire Sizes with Resistance and More
Description
tableAWGCuWire
is a table with AWG Wire sizes with resistance and more
Usage
tableAWGCuWire
Author(s)
Jose Gama
Source
Lund Instrument Engineering, Inc., 2014 Wire Gauge and Current Limits Including Skin Depth and Strength http://www.powerstream.com/Wire_Size.htm
References
Lund Instrument Engineering, Inc., 2014 Wire Gauge and Current Limits Including Skin Depth and Strength http://www.powerstream.com/Wire_Size.htm
Examples
data(tableAWGCuWire)
str(tableAWGCuWire)
temperature Measurement Difficulty
Description
temperatureMeasurementDifficulty
is a table with the current
state of difficulties with temperature measurements
Usage
temperatureMeasurementDifficulty
Author(s)
Jose Gama
Source
CapGo, 2013 Is temperature measurement difficult? http://www.capgo.com/Resources/Temperature/Thermocouple/Thermocouple.html
References
CapGo, 2013 Is temperature measurement difficult? http://www.capgo.com/Resources/Temperature/Thermocouple/Thermocouple.html
Examples
data(temperatureMeasurementDifficulty)
str(temperatureMeasurementDifficulty)
Temperature Sensor Types
Description
temperatureSensorTypes
is a table with Temperature Sensor Types
Usage
temperatureSensorTypes
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(temperatureSensorTypes)
str(temperatureSensorTypes)
NTC thermistor Nominal Resistance and Maximum measuring voltage
Description
thermistorMaximumMeasuringVoltage
is a table with NTC thermistor
Nominal Resistance (Rn) and Maximum measuring voltage (V)
Usage
thermistorMaximumMeasuringVoltage
Author(s)
Jose Gama
Source
AVX Corporation, 2014 AVX NTC Thermistors v11.4 http://www.avx.com
References
AVX Corporation, 2014 AVX NTC Thermistors v11.4 http://www.avx.com
Examples
data(thermistorMaximumMeasuringVoltage)
str(thermistorMaximumMeasuringVoltage)
Polynomial Equation Coefficients for Voltage to Temperature for Thermocouple Type B
Description
thermocoupleCoefficientsTypeB
Coefficients for Voltage to Temperature for Thermocouple Type B
Usage
thermocoupleCoefficientsTypeB
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(thermocoupleCoefficientsTypeB)
str(thermocoupleCoefficientsTypeB)
Polynomial Equation Coefficients for Voltage to Temperature for Thermocouple Type B
Description
thermocoupleCoefficientsTypeBrationalPolynomial
Polynomial Equation Coefficients
for Voltage to Temperature for Thermocouple Type B
Usage
thermocoupleCoefficientsTypeBrationalPolynomial
Author(s)
Jose Gama
Source
Mosaic Industries, Inc., 2014 rational polynomial function approximation for Type K thermocouples http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/thermocouple/calibration-table#computing-cold-junction-voltages
References
Mosaic Industries, Inc., 2014 rational polynomial function approximation for Type K thermocouples http://www.mosaic-industries.com/embedded-systems/microcontroller-projects/temperature-measurement/thermocouple/calibration-table#computing-cold-junction-voltages
Examples
data(thermocoupleCoefficientsTypeBrationalPolynomial)
str(thermocoupleCoefficientsTypeBrationalPolynomial)
Thermocouple Types Definitions
Description
thermocoupleDefinitionTypes
is a table with Thermocouple Types Definitions
Usage
thermocoupleDefinitionTypes
Author(s)
Jose Gama
Source
CapGo, 2013 Types of thermocouples http://www.capgo.com/Resources/Temperature/Thermocouple/Thermocouple.html
References
CapGo, 2013 Types of thermocouples http://www.capgo.com/Resources/Temperature/Thermocouple/Thermocouple.html
Examples
data(thermocoupleDefinitionTypes)
str(thermocoupleDefinitionTypes)
Limits of Error for Thermocouples
Description
thermocoupleErrorLimits
is a table with Limits of Error for Thermocouples
Usage
thermocoupleErrorLimits
Author(s)
Jose Gama
Source
Jim Strothman, 2006 ISA Handbook of Measurement Equations and Tables, 2nd Edition The International Society of Automation
References
Jim Strothman, 2006 ISA Handbook of Measurement Equations and Tables, 2nd Edition The International Society of Automation
Examples
data(thermocoupleErrorLimits)
str(thermocoupleErrorLimits)
fixed Points ITS90
Description
thermocoupleFixedPointsITS90
is a table with the fixed Points of ITS90
Usage
thermocoupleFixedPointsITS90
Author(s)
Jose Gama
Source
National Institute of Standards and Technology (NIST), 2014 Table I Thermocouple Types Definitions http://srdata.nist.gov/its90/tables/table_iii.html
References
National Institute of Standards and Technology (NIST), 2014 Table I Thermocouple Types Definitions http://srdata.nist.gov/its90/tables/table_iii.html
Examples
data(thermocoupleFixedPointsITS90)
str(thermocoupleFixedPointsITS90)
Insulating Materials for Ceramic Packed Thermocouple Stock
Description
thermocoupleInsulatingMaterialsCeramicPackedStock
is a table with
Insulating Materials for Ceramic Packed Thermocouple Stock
Usage
thermocoupleInsulatingMaterialsCeramicPackedStock
Author(s)
Jose Gama
Source
American Society for Testing and Materials, 1981 Manual on the Use of Thermocouples in Temperature Measurement Committee E20 on Temperature Measurement and Subcommittee E20.04 on Thermocouples
References
American Society for Testing and Materials, 1981 Manual on the Use of Thermocouples in Temperature Measurement Committee E20 on Temperature Measurement and Subcommittee E20.04 on Thermocouples
Examples
data(thermocoupleInsulatingMaterialsCeramicPackedStock)
str(thermocoupleInsulatingMaterialsCeramicPackedStock)
Polynomial Equation Coefficients for Voltage to Temperature for Thermocouple Type B
Description
thermocoupleInverseCoefficientsTypeB
Coefficients for Voltage to Temperature for Thermocouple Type B
Usage
thermocoupleInverseCoefficientsTypeB
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(thermocoupleInverseCoefficientsTypeB)
str(thermocoupleInverseCoefficientsTypeB)
Error range for Polynomial inverse functions for Thermocouples
Description
thermocoupleInverseFunctionsRange
Error range for Polynomial inverse functions for Thermocouples
Usage
thermocoupleInverseFunctionsRange
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(thermocoupleInverseFunctionsRange)
str(thermocoupleInverseFunctionsRange)
Nominal Seebeck Coefficients
Description
thermocoupleNominalSeebeckCoefficients
is a table with Nominal Seebeck Coefficients
Usage
thermocoupleNominalSeebeckCoefficients
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(thermocoupleNominalSeebeckCoefficients)
str(thermocoupleNominalSeebeckCoefficients)
Recommended Upper Temperature Limits for Protected Thermocouples
Description
thermocoupleRecommendedUpperTempLimitsProtected
is a table with
Recommended Upper Temperature Limits for Protected Thermocouples
Usage
thermocoupleRecommendedUpperTempLimitsProtected
Author(s)
Jose Gama
Source
CapGo, 2013 Recommended upper temperature limits http://www.capgo.com/Resources/Temperature/Thermocouple/Thermocouple.html
References
CapGo, 2013 Recommended upper temperature limits http://www.capgo.com/Resources/Temperature/Thermocouple/Thermocouple.html
Examples
data(thermocoupleRecommendedUpperTempLimitsProtected)
str(thermocoupleRecommendedUpperTempLimitsProtected)
Letter designations, compositions, and trade names of single-leg thermoelements
Description
thermocoupleSingleLegThermoelements
is a table with the Letter designations,
compositions, and trade names of single-leg thermoelements
Usage
thermocoupleSingleLegThermoelements
Author(s)
Jose Gama
Source
National Institute of Standards and Technology (NIST), 2014 Table I Thermocouple Types Definitions http://srdata.nist.gov/its90/tables/table_ii.html
References
National Institute of Standards and Technology (NIST), 2014 Table I Thermocouple Types Definitions http://srdata.nist.gov/its90/tables/table_ii.html
Examples
data(thermocoupleSingleLegThermoelements)
str(thermocoupleSingleLegThermoelements)
Thermoelectric Voltage for Thermocouple Type B
Description
thermocoupleTypeBthermoelectricVoltage
Thermoelectric Voltage for Thermocouple Type B
thermocoupleTypeEthermoelectricVoltage
Thermoelectric Voltage for Thermocouple Type E
thermocoupleTypeJthermoelectricVoltage
Thermoelectric Voltage for Thermocouple Type J
thermocoupleTypeKthermoelectricVoltage
Thermoelectric Voltage for Thermocouple Type K
thermocoupleTypeNthermoelectricVoltage
Thermoelectric Voltage for Thermocouple Type N
thermocoupleTypeSthermoelectricVoltage
Thermoelectric Voltage for Thermocouple Type R
thermocoupleTypeBthermoelectricVoltage
Thermoelectric Voltage for Thermocouple Type S
thermocoupleTypeTthermoelectricVoltage
Thermoelectric Voltage for Thermocouple Type T
Usage
thermocoupleTypeBthermoelectricVoltage
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(thermocoupleTypeBthermoelectricVoltage)
str(thermocoupleTypeBthermoelectricVoltage)
Thermocouple Wire Constituents
Description
thermocoupleTypesASTM
is a table with Thermocouple Wire Constituents according to the ASTM
Usage
thermocoupleTypesASTM
Author(s)
Jose Gama
Source
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
References
Kerlin, T.W., 1999 Practical Thermocouple Thermometry International Society of Automation (ISA)
Examples
data(thermocoupleTypesASTM)
str(thermocoupleTypesASTM)
Wire Color for Thermocouples and Lead Wires
Description
thermocoupleWireColorUnitedStatesCanadaMexico
Wire Color for
Thermocouples and Lead Wires for the United States, Canada and Mexico
thermocoupleCompensatingExtensionWireColorUnitedStatesCanadaMexico
Wire Color for
Compensating Extension Wire for the United States, Canada and Mexico
thermocoupleExtensionWireColorUnitedStatesCanadaMexico
Wire Color for
Extension Wire for the United States, Canada and Mexico
thermocoupleAndExtensionWiresInternationalColorCodes
Wire Color for
Thermocouples and Extension Wires with international codes
Usage
thermocoupleWireColorUnitedStatesCanadaMexico
Author(s)
Jose Gama
Source
TEMPCO Electric Heater Corporation, 2014 Temperature Sensing www.tempco.com
American Society for Testing and Materials, 1993 Manual on the Use of Thermocouples in Temperature Measurement Committee E20 on Temperature Measurement and Subcommittee E20.04 on Thermocouples
References
TEMPCO Electric Heater Corporation, 2014 Temperature Sensing www.tempco.com
American Society for Testing and Materials, 1993 Manual on the Use of Thermocouples in Temperature Measurement Committee E20 on Temperature Measurement and Subcommittee E20.04 on Thermocouples
Examples
data(thermocoupleWireColorUnitedStatesCanadaMexico)
str(thermocoupleWireColorUnitedStatesCanadaMexico)
thermocouple wire size and resistance table
Description
thermocoupleWireSizeResistanceImperial
is a table with thermocouple wire size and resistance
Usage
thermocoupleWireSizeResistanceImperial
Author(s)
Jose Gama
Source
Conax(TM) Buffalo, 2014 thermocouple wire size and resistance table www.conaxbuffalo.com
References
Conax(TM) Buffalo, 2014 thermocouple wire size and resistance table www.conaxbuffalo.com
Examples
data(thermocoupleWireSizeResistanceImperial)
str(thermocoupleWireSizeResistanceImperial)