Thermal Efficiency of Ericsson Cycle Formula

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The Thermal Efficiency of Ericsson Cycle represents the effectiveness of Ericsson engine. It is measured by comparing how much work is done through out the system to the heat supplied to the system. Check FAQs
ηe=TH-TLTH
ηe - Thermal Efficiency of Ericsson Cycle?TH - Higher Temperature?TL - Lower Temperature?

Thermal Efficiency of Ericsson Cycle Example

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With units
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Here is how the Thermal Efficiency of Ericsson Cycle equation looks like with Values.

Here is how the Thermal Efficiency of Ericsson Cycle equation looks like with Units.

Here is how the Thermal Efficiency of Ericsson Cycle equation looks like.

0.52Edit=250Edit-120Edit250Edit
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Thermal Efficiency of Ericsson Cycle Solution

Follow our step by step solution on how to calculate Thermal Efficiency of Ericsson Cycle?

FIRST Step Consider the formula
ηe=TH-TLTH
Next Step Substitute values of Variables
ηe=250K-120K250K
Next Step Prepare to Evaluate
ηe=250-120250
LAST Step Evaluate
ηe=0.52

Thermal Efficiency of Ericsson Cycle Formula Elements

Variables
Thermal Efficiency of Ericsson Cycle
The Thermal Efficiency of Ericsson Cycle represents the effectiveness of Ericsson engine. It is measured by comparing how much work is done through out the system to the heat supplied to the system.
Symbol: ηe
Measurement: NAUnit: Unitless
Note: Value should be less than 1.
Higher Temperature
Higher Temperature is the temperature of hot reservoir. It's the entity from which the engine absorbs thermal energy to perform work. It is measured in absolute temperature (Kelvin-scale).
Symbol: TH
Measurement: TemperatureUnit: K
Note: Value should be greater than 0.
Lower Temperature
Lower Temperature is the temperature of heat sink. It is where the engine rejects waste heat that cannot be converted into work. It is measured in absolute temperature (Kelvin-scale).
Symbol: TL
Measurement: TemperatureUnit: K
Note: Value should be greater than 0.

Other formulas in Air Standard Cycles category

​Go Mean Effective Pressure in Otto Cycle
PO=P1r((rγ-1-1)(rp-1)(r-1)(γ-1))
​Go Mean Effective Pressure in Diesel Cycle
PD=P1γrγ(rc-1)-r(rcγ-1)(γ-1)(r-1)
​Go Mean Effective Pressure in Dual Cycle
Pd=P1rγ((Rp-1)+γRp(rc-1))-r(Rprcγ-1)(γ-1)(r-1)
​Go Work Output for Otto Cycle
Wo=P1V1(rp-1)(rγ-1-1)γ-1

How to Evaluate Thermal Efficiency of Ericsson Cycle?

Thermal Efficiency of Ericsson Cycle evaluator uses Thermal Efficiency of Ericsson Cycle = (Higher Temperature-Lower Temperature)/(Higher Temperature) to evaluate the Thermal Efficiency of Ericsson Cycle, Thermal Efficiency of Ericsson Cycle is identical to the Carnot Cycle efficiency. In other words, it achieves the maximum theoretical effectiveness for a heat engine following Ericsson cycle operating between two given temperature reservoirs. It is important to note that the Ericsson and Carnot cycles consist of only reversible processes (isothermal and isobaric) which means they can be run in reverse without violating the laws of thermodynamics. Thermal Efficiency of Ericsson Cycle is denoted by ηe symbol.

How to evaluate Thermal Efficiency of Ericsson Cycle using this online evaluator? To use this online evaluator for Thermal Efficiency of Ericsson Cycle, enter Higher Temperature (TH) & Lower Temperature (TL) and hit the calculate button.

FAQs on Thermal Efficiency of Ericsson Cycle

What is the formula to find Thermal Efficiency of Ericsson Cycle?
The formula of Thermal Efficiency of Ericsson Cycle is expressed as Thermal Efficiency of Ericsson Cycle = (Higher Temperature-Lower Temperature)/(Higher Temperature). Here is an example- 0.52 = (250-120)/(250).
How to calculate Thermal Efficiency of Ericsson Cycle?
With Higher Temperature (TH) & Lower Temperature (TL) we can find Thermal Efficiency of Ericsson Cycle using the formula - Thermal Efficiency of Ericsson Cycle = (Higher Temperature-Lower Temperature)/(Higher Temperature).
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