Problem 1: In an Otto cycle, the air at the beginning of the isentropic compression compression is 8. If the heat added during the constant volume process is temperature in the cycle is 1819°C, the specific heat ratio is k=1.4 ar J/kg.K for air, a. Determine The specific heat at constant volume Cv in kJ/kgk b. Determine The temperature at the end of the isentropic compres Determine The temperature at the beginning of the isentropic co C.

Elements Of Electromagnetics
7th Edition
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Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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O-ICE-S X
JA5//all
Extra Problems chapter 2
Problem 1:
In an Otto cycle, the air at the beginning of the isentropic compression is at 1 bar and the ratio of
compression is 8. If the heat added during the constant volume process is 1010 kl/kg, the maximum
temperature in the cycle is 1819°C, the specific heat ratio is k-1.4 and the gas constant is 287
J/kg.K for air,
a. Determine The specific heat at constant volume Cv in kJ/kg.k
b. Determine The temperature at the end of the isentropic compression in the cycle
c. Determine The temperature at the beginning of the isentropic compression in the cyele
d. Determine The air standard efficiency
e. Determine The work done per kg of air
f Determine The heat rejected per kg of air
Transcribed Image Text:O-ICE-S X JA5//all Extra Problems chapter 2 Problem 1: In an Otto cycle, the air at the beginning of the isentropic compression is at 1 bar and the ratio of compression is 8. If the heat added during the constant volume process is 1010 kl/kg, the maximum temperature in the cycle is 1819°C, the specific heat ratio is k-1.4 and the gas constant is 287 J/kg.K for air, a. Determine The specific heat at constant volume Cv in kJ/kg.k b. Determine The temperature at the end of the isentropic compression in the cycle c. Determine The temperature at the beginning of the isentropic compression in the cyele d. Determine The air standard efficiency e. Determine The work done per kg of air f Determine The heat rejected per kg of air
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