RMS output Voltage Detector Solution

STEP 0: Pre-Calculation Summary
Formula Used
Root Mean Square Voltage Output = Detector Responsivity*Root Mean Square Incident Power of Detector
Vrms = Rd*Prms
This formula uses 3 Variables
Variables Used
Root Mean Square Voltage Output - (Measured in Volt) - Root Mean Square Voltage Output is the measure of transducer average voltage output. It provides a standardized representation of the transducer's signal strength.
Detector Responsivity - (Measured in Ampere per Watt) - Detector Responsivity is defined as measures of the input-output gain of a detector system.
Root Mean Square Incident Power of Detector - (Measured in Watt) - Root Mean Square Incident Power of Detector refers to the power of the incoming signal or radiation incident on the detector surface.
STEP 1: Convert Input(s) to Base Unit
Detector Responsivity: 15.1 Ampere per Watt --> 15.1 Ampere per Watt No Conversion Required
Root Mean Square Incident Power of Detector: 5.4 Watt --> 5.4 Watt No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
Vrms = Rd*Prms --> 15.1*5.4
Evaluating ... ...
Vrms = 81.54
STEP 3: Convert Result to Output's Unit
81.54 Volt --> No Conversion Required
FINAL ANSWER
81.54 Volt <-- Root Mean Square Voltage Output
(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

RMS output Voltage Detector Formula

Root Mean Square Voltage Output = Detector Responsivity*Root Mean Square Incident Power of Detector
Vrms = Rd*Prms

What is detector response time?

In the case of a pulsed source of light, the detector response time is considered as either the rise time or fall time required for the output signal to change from 10% to 90% of its final value or vice versa.

How to Calculate RMS output Voltage Detector?

RMS output Voltage Detector calculator uses Root Mean Square Voltage Output = Detector Responsivity*Root Mean Square Incident Power of Detector to calculate the Root Mean Square Voltage Output, The RMS output Voltage Detector formula is defined as the effective voltage produced by the detector based on its ability to convert incident power into an electrical signal and the actual power incident upon it. Root Mean Square Voltage Output is denoted by Vrms symbol.

How to calculate RMS output Voltage Detector using this online calculator? To use this online calculator for RMS output Voltage Detector, enter Detector Responsivity (Rd) & Root Mean Square Incident Power of Detector (Prms) and hit the calculate button. Here is how the RMS output Voltage Detector calculation can be explained with given input values -> 81.54 = 15.1*5.4.

FAQ

What is RMS output Voltage Detector?
The RMS output Voltage Detector formula is defined as the effective voltage produced by the detector based on its ability to convert incident power into an electrical signal and the actual power incident upon it and is represented as Vrms = Rd*Prms or Root Mean Square Voltage Output = Detector Responsivity*Root Mean Square Incident Power of Detector. Detector Responsivity is defined as measures of the input-output gain of a detector system & Root Mean Square Incident Power of Detector refers to the power of the incoming signal or radiation incident on the detector surface.
How to calculate RMS output Voltage Detector?
The RMS output Voltage Detector formula is defined as the effective voltage produced by the detector based on its ability to convert incident power into an electrical signal and the actual power incident upon it is calculated using Root Mean Square Voltage Output = Detector Responsivity*Root Mean Square Incident Power of Detector. To calculate RMS output Voltage Detector, you need Detector Responsivity (Rd) & Root Mean Square Incident Power of Detector (Prms). With our tool, you need to enter the respective value for Detector Responsivity & Root Mean Square Incident Power of Detector 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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