A piston-cylinder applies a constant pressure of 5.00 bar to spontaneously compress 1.00 moles of an...

 

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A piston-cylinder applies a constant pressure of 5.00 bar to spontaneously compress 1.00 moles of an ideal gas isothermally at 320K from a volume of 0.20m³ to 0.050m³. Calculate a) the work done on the gas to compress it units kJ (2 sig figs) b) the heat for the process. units kJ (2 sig figs) c) change in entropy for the gas units J/K (3 sig figs) A piston-cylinder applies a constant pressure of 5.00 bar to spontaneously compress 1.00 moles of an ideal gas isothermally at 320K from a volume of 0.20m³ to 0.050m³. Calculate a) the work done on the gas to compress it units kJ (2 sig figs) b) the heat for the process. units kJ (2 sig figs) c) change in entropy for the gas units J/K (3 sig figs) A piston-cylinder applies a constant pressure of 5.00 bar to spontaneously compress 1.00 moles of an ideal gas isothermally at 320K from a volume of 0.20m³ to 0.050m³. Calculate a) the work done on the gas to compress it units kJ (2 sig figs) b) the heat for the process. units kJ (2 sig figs) c) change in entropy for the gas units J/K (3 sig figs) A piston-cylinder applies a constant pressure of 5.00 bar to spontaneously compress 1.00 moles of an ideal gas isothermally at 320K from a volume of 0.20m³ to 0.050m³. Calculate a) the work done on the gas to compress it units kJ (2 sig figs) b) the heat for the process. units kJ (2 sig figs) c) change in entropy for the gas units J/K (3 sig figs)