PA C' 6 atm+ dont Intol 2 atm- A 8 liters V 3 liters

One mole of an ideal monatomic gas is transferred from state a to state b along one of three paths (a → b, a → c→ b, or a →d → b). For each path find the work done by the gas and the heat absorbed. P b 2Po Po Vo 2Vo V

The figure shows two closed cycles on p-V diagrams for a gas. The three parts of cycle 1 are of the same length and shape as those of cycle 2. V (1) (2) For each cycle, should the cycle be traversed clockwise or counter clockwise if the net work W done by the gas is to be positive? V (1) (2) Cycle 1 Cycle 2 Clockwise Counterclockwise

An monoatomic ideal gas at 27 is in the process of constant volume and constant pressure process as in the While this is changed from 1 liter pressure 2 atm to 2 liter pressure 1 atm. Heat Capacity and Specific heat of an ideal gas. What is the final temperature of gas?

A monoatomic ideal gas is taken through the cycle A → B → C → A shown in the figure. If we know that the internal energy of the monoatomic ideal gas remains constant during the process B → C, what must be the pressure pC at point C in terms of the original pressure p0?  Express the work WBC done by the gas during the process B → C in terms of p0 and V0.   Express the heat QBC flowing into the gas during the process B → C in terms of p0 and V0.

An monoatomic ideal gas at 27 is in the process of constant volume and constant pressure process as in the While this is changed from 1 liter pressure 2 atm to 2 liter pressure 1 atm. Heat Capacity and Specific heat of an ideal gas. What is the final temperature of gas?

Problem 11:  A diatomic ideal gas goes through the cycle a → b → c → d → a as shown in the figure. Processes ab and cd are isothermal and occur at temperatures TH = 390 K and TC = 288K, respectively. There are n = 45 moles of this gas in the system, and the initial volume is Va = 0.079 m3.  Calculate the total work W done in the entire cycle, in joules.

Complete the following statement: The internal energy of an ideal monatomic gas is O independent of the number of moles of the gas. O proportional to the Kelvin temperature of the gas. O a constant that is independent of pressure, volume or temperature. O dependent on both the pressure and the temperature of the gas. O proportional to the pressure and inversely proportional to the volume of the gas.

Consider the four-process cycle shown in the P-V diagram in the figure below. The graph shows a sequence of four processes being carried out on a sealed system of ideal gas. In this case, P is 50.0 kPa and Vis 4.00 liters. Pressure (kPa) 4P- 3P- 2P- P 2 13 14 0 V 2V 3V 4V Volume (liters) (a) Calculate the work done by the gas in the process taking the system from state 1 to state 2. 180 X J (b) Calculate the work done by the gas in the process taking the system from state 2 to state 3. 750 X J (c) Calculate the work done by the gas in the process taking the system from state 3 to state 4. 0 J (d) Calculate the work done by the gas in the process taking the system from state 4 to state 1. -750 X J (e) Calculate the net work done by the gas in one entire cycle. 180 X J (f) Calculate the net change in the internal energy of the gas for one entire cycle. 0 J (g) Calculate the net heat added to the gas for one entire cycle. 500 X J

An ideal monatomic gas is taken through the cycle in the PV diagram.(shown in photo taken)     where V1 = 1.20, V2 = 2.40, P1 = 98.0 kPa and P2 = 230 kPa.           If there are 0.0200 mol of this gas, What is the pressure and temperature at point C?   Universal gas constant is 8.314 J/(mol·K).