The correct option is
+6.377 kJ
Question 2 (1 point) Gas in a piston-cylinder apparatus is heated with 6.276 kJ while simultaneously...
Gas in a piston-cylinder apparatus is heated with 150.0 J while simultaneously decreasing its volume from 1.500 L to 0.500 L at a constant pressure of 1.000 bar. Calculate the total energy change in Joules for this process. Question 6 options: 0 (the work and heat contributions cancel out) +50.0 J -150.0 J -50.0 J +250.0 J
Gas in a piston-cylinder apparatus is heated with 150.0 J while simultaneously decreasing its volume from 1.500 L to 0.500 L at a constant pressure of 1.000 bar. Calculate the total energy change in Joules for this process. Options: A 0 (the work and heat contributions cancel out) B -150.0 J C -50.0 J D +50.0 J E +250.0 J
Problem 2. As shown in the figure, a gas contained within a piston-cylinder assembly, initially at a volume of 0.1 m3, undergoes a constant-pressure expansion at 2 bar to a final volume of 0.12 m3, while being slowly heated through the base. The change in internal energy of the gas is 0.25 kJ. The piston and cylinder walls are fabricated fronm heat-resistant material, and the piston moves smoothly in the cylinder. The local atmospheric pressure is 1 bar. (a) For...
As shown in the figure below, a gas contained within a piston-cylinder assembly, initially at a volume of 0.1 m3, undergoes a constant-pressure expansion at p 2 bar to a final volume of V2 0.2 m3, while being slowly heated through the base. The change in internal energy of the gas is 0.25 kJ. The piston and cylinder walls are fabricated from heat-resistant material, and the piston moves smoothly in the cylinder. The local atmospheric pressure is 1 bar. Piston-...
As shown in Fig. P2.56, a gas contained within a piston–cylinder assembly, initially at a volume of 0.1 m3, undergoesa constant-pressure expansion at 2 bar to a final volume of0.12 m3, while being slowly heated through the base. Thechange in internal energy of the gas is 0.25 kJ. The pistonand cylinder walls are fabricated from heat-resistant material,and the piston moves smoothly in the cylinder. The localatmospheric pressure is 1 bar.(a) For the gas as the system, evaluate work and heat...
for part a) got W = 4kJ, dQ = 4.25 kJfor part b) got w = 2kJ...How do you find ΔPE without mass? Do you use the conservation of energy equation?As shown in Fig. P2.56, a gas contained within a piston–cylinder assembly, initially at a volume of 0.1 m3, undergoesa constant-pressure expansion at 2 bar to a final volume of0.12 m3, while being slowly heated through the base. Thechange in internal energy of the gas is 0.25 kJ. The pistonand...
Air contained in a piston-cylinder assembly, initially at 2 bar, 200 K, and a volume of 1 L, undergoes a process to a final state where the pressure is 8 bar and the volume is 2 L During the process, the pressure-volume relationship is linear. Assuming the ideal gas model for the air, determine the work and heat transfer, each in kJ. 4. Air contained in a piston-cylinder assembly, initially at 2 bar, 200 K, and a volume of 1...
An 80.0-L volume of an ideal gas in a cylinder with a piston is at a pressure of 3.0atm. While the system is held at constant temperature, enough weight is placed on the piston to increase the external pressure to 10.0atm. For the resulting process, determine q(heat) and w(work) in units of kJ, and with proper signs. (Note: 1 L atm = 101.3 J)
He gas is confined to a piston and cylinder with a mechanical stop that prevents the cylinder from expanding. The temperature of the gas is 298 K, the volume of gas in the cylinder is 1.20 L and its pressure is 2.15 bar. The ideal gas EOS is very accurate for He under these conditions. Starting from the final state of the He gas in part (b), the gas (and apparatus) was cooled from 298 K to 263 K. The...
Work and Heat Transfer in KJ please Problem 3.076 SI Air contained in a piston-cylinder assembly, initially at 2 bar, 200 K, and a volume of 1 L, undergoes a process to a final state where the pressure is 7.5 bar and the volume Is 2 L. During the process, the pressure-volume relatlonshlp Is lInean Assuming the ideal gas model for the alr, determine the work and heat transfer, each In k)