The volume of 6 kg of methane in a piston-cylinder device is initially 11 m. Now methane is compressed to 5.5 m while its pressure is maintained constant at 200 kPa.Considering methane as an ideal gas, determine i) the initial temperature (T1), final temperature (T2) of methane and the work required (Wb.in) to compress the gas, in kJ (See Table A-1 for value of R of methane) T1 = 1029.2 K, T2 = 514.60 K, Wb.in = 800 kJ .a O T1 = 868.39 K, T2 = 434.20 K, Wb.in = 900 kJ .b O T1 = 771.90 K, T2 = 385.95 K, Wb.in = 1000 kJ .c T1 = 707.58 K, T2 = 353.79 K, Wb.in = 1100 kJ

The volume of 6 kg of methane in a piston-cylinder device is initially 11 m. Now methane is compressed to 5.5 m while its pressure is maintained constant at 200 kPa.Considering methane as an ideal gas, determine i) the initial temperature (T1), final temperature (T2) of methane and the work required (Wb.in) to compress the gas, in kJ (See Table A-1 for value of R of methane) T1 = 1029.2 K, T2 = 514.60 K, Wb.in = 800 kJ .a O T1 = 868.39 K, T2 = 434.20 K, Wb.in = 900 kJ .b O T1 = 771.90 K, T2 = 385.95 K, Wb.in = 1000 kJ .c T1 = 707.58 K, T2 = 353.79 K, Wb.in = 1100 kJ

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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