Sensitivity of LVDT Solution

STEP 0: Pre-Calculation Summary
Formula Used
LVDT Sensitivity = Transducer Output Signal/Input Displacement Signal
Slvdt = Vo/D
This formula uses 3 Variables
Variables Used
LVDT Sensitivity - (Measured in Volt per Meter) - LVDT Sensitivity is the measure of how much the output voltage changes in response to a small movement of the core, indicating the precision of displacement measurement.
Transducer Output Signal - (Measured in Volt) - Transducer Output Signal is an amplified replica of the input signal which is accepted by a linear amplifier.
Input Displacement Signal - (Measured in Meter) - Input Displacement Signal in a transducer refers to the physical movement or position change applied to the transducer, which is then converted into an electrical signal for measurement or control.
STEP 1: Convert Input(s) to Base Unit
Transducer Output Signal: 18.85 Volt --> 18.85 Volt No Conversion Required
Input Displacement Signal: 10.89 Meter --> 10.89 Meter No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
Slvdt = Vo/D --> 18.85/10.89
Evaluating ... ...
Slvdt = 1.73094582185491
STEP 3: Convert Result to Output's Unit
1.73094582185491 Volt per Meter --> No Conversion Required
FINAL ANSWER
1.73094582185491 1.730946 Volt per Meter <-- LVDT Sensitivity
(Calculation completed in 00.004 seconds)

Credits

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Created by Shobhit Dimri
Bipin Tripathi Kumaon Institute of Technology (BTKIT), Dwarahat
Shobhit Dimri has created this Calculator and 900+ more calculators!
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Verified by Urvi Rathod
Vishwakarma Government Engineering College (VGEC), Ahmedabad
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24 Transducers Calculators

Capacitance of Transducer
​ Go Transducer Capacitance = Current Generator Capacitance-(Amplifier Capacitance+Cable Capacitance)
Capacitance of Cable
​ Go Cable Capacitance = Current Generator Capacitance-(Transducer Capacitance+Amplifier Capacitance)
Current Generator Capacitance
​ Go Current Generator Capacitance = Transducer Capacitance+Amplifier Capacitance+Cable Capacitance
Noise Equivalent of Bandwidth
​ Go Noise Equivalent Bandwidth = Normalized Detectivity^2/(Transducer Detectivity^2*Detector Area)
Capacitance of Amplifier
​ Go Amplifier Capacitance = Current Generator Capacitance-Transducer Capacitance-Cable Capacitance
Normalized Detectivity
​ Go Normalized Detectivity = (Detector Area*Noise Equivalent Bandwidth)^0.5*Transducer Detectivity
Area of Detector
​ Go Detector Area = Normalized Detectivity^2/(Transducer Detectivity^2*Noise Equivalent Bandwidth)
RMS Incident Power of Detector
​ Go Root Mean Square Incident Power of Detector = Root Mean Square Voltage Output/Detector Responsivity
RMS output Voltage Detector
​ Go Root Mean Square Voltage Output = Detector Responsivity*Root Mean Square Incident Power of Detector
Responsivity of Detector
​ Go Detector Responsivity = Root Mean Square Voltage Output/Root Mean Square Incident Power of Detector
Detectivity of Transducer
​ Go Transducer Detectivity = Signal to Noise Ratio of Output Signal/Input Displacement Signal
RMS Noise Voltage of Cell
​ Go Root Mean Square Noise Voltage of Cell = Detector Responsivity/Transducer Detectivity
Detectivity
​ Go Transducer Detectivity = Detector Responsivity/Root Mean Square Noise Voltage of Cell
Size of Output Signal
​ Go Output Signal Size = Signal to Noise Ratio of Output Signal/Transducer Detectivity
Sensitivity of Photoresistive Transducer
​ Go Photoresistive Transducer Sensitivity = Resistance Change/Irradiation Change
Output Signal of Transducer
​ Go Transducer Output Signal = Input Displacement Signal*Transducer Responsivity
Responsivity of Transducer
​ Go Transducer Responsivity = Transducer Output Signal/Input Displacement Signal
Input Signal of Transducer
​ Go Input Displacement Signal = Transducer Output Signal/Transducer Responsivity
Change in Irradiation
​ Go Irradiation Change = Resistance Change/Photoresistive Transducer Sensitivity
Change in Resistance
​ Go Resistance Change = Irradiation Change*Photoresistive Transducer Sensitivity
Sensitivity of LVDT
​ Go LVDT Sensitivity = Transducer Output Signal/Input Displacement Signal
Efficiency of transducer
​ Go Transducer Efficiency = Temperature Difference/Temperature Rise
Temperature Difference
​ Go Temperature Difference = Temperature Rise*Transducer Efficiency
Rise in Temperature
​ Go Temperature Rise = Temperature Difference/Transducer Efficiency

Sensitivity of LVDT Formula

LVDT Sensitivity = Transducer Output Signal/Input Displacement Signal
Slvdt = Vo/D

What is output of LVDT?

The LVDT's electrical output signal is the differential AC voltage between the two secondary windings, which varies with the axial position of the core within the LVDT coil. Usually, this AC output voltage is converted by suitable electronic circuitry to high-level DC voltage or current that is more convenient to use.

How to Calculate Sensitivity of LVDT?

Sensitivity of LVDT calculator uses LVDT Sensitivity = Transducer Output Signal/Input Displacement Signal to calculate the LVDT Sensitivity, The Sensitivity of LVDT formula is defined as High Input and High Sensitivity – The output of LVDT is so high that it doesn't need any amplification. The transducer possesses a high sensitivity which is typically about 40V/mm. Low Power Consumption – The power is about 1W which is very as compared to others. LVDT Sensitivity is denoted by Slvdt symbol.

How to calculate Sensitivity of LVDT using this online calculator? To use this online calculator for Sensitivity of LVDT, enter Transducer Output Signal (Vo) & Input Displacement Signal (D) and hit the calculate button. Here is how the Sensitivity of LVDT calculation can be explained with given input values -> 1.730946 = 18.85/10.89.

FAQ

What is Sensitivity of LVDT?
The Sensitivity of LVDT formula is defined as High Input and High Sensitivity – The output of LVDT is so high that it doesn't need any amplification. The transducer possesses a high sensitivity which is typically about 40V/mm. Low Power Consumption – The power is about 1W which is very as compared to others and is represented as Slvdt = Vo/D or LVDT Sensitivity = Transducer Output Signal/Input Displacement Signal. Transducer Output Signal is an amplified replica of the input signal which is accepted by a linear amplifier & Input Displacement Signal in a transducer refers to the physical movement or position change applied to the transducer, which is then converted into an electrical signal for measurement or control.
How to calculate Sensitivity of LVDT?
The Sensitivity of LVDT formula is defined as High Input and High Sensitivity – The output of LVDT is so high that it doesn't need any amplification. The transducer possesses a high sensitivity which is typically about 40V/mm. Low Power Consumption – The power is about 1W which is very as compared to others is calculated using LVDT Sensitivity = Transducer Output Signal/Input Displacement Signal. To calculate Sensitivity of LVDT, you need Transducer Output Signal (Vo) & Input Displacement Signal (D). With our tool, you need to enter the respective value for Transducer Output Signal & Input Displacement Signal and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.
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