Ideal gas equation, PV = nRT
At 1, T = 100 C = 373 K
At 2, PV = nRT2
1 atm * 100 cm3 = nR (373)
1 atm * 300 cm3 = nR (T2)
T2 = 1119 K
Q12 = 0.0098*2.5*8.314*(1119-373) = 152 J
Q23 = 0.0098*1.5*8.314*(1119-373) = 91 J
ideal gas follows the process 1->2->3 shown in the PV diagram below An p (atm)v 2...
The PV - diagram in the figure below shows a cycle of a heat engine that uses 0.250 mol of an ideal gas with γ=1.40. The process a b is adiabatic. (1 atm=105 Pa)(i) Calculate the pressure of the gas at point a.(ii) Calculate how much heat enters this gas per cycle. Indicate the process(es) where this happens.(iii) Calculate how much heat leaves this gas in a cycle. Indicate the process(es) where this occurs.(iv) Calculate how much work the engine...
Make a PV diagram showing the following sequential processes: 2.00 moles of an ideal gas at 400K, 1.00 atm. 1. expand isothermally from 65.6 L to 131.3 L at 400 K. 2. cooled isobarically from 65.6 L, 200 K 3. heated isochorically from 200 K back to 400 K
Figure below shows PV-diagram of an ideal gas process. The final temperature is 25 degree C. Direction of the process is indicated on the figure. What type of process is this? What is the initial temperature? Report your answer in both Kelvin and Celsius. How many atoms and how many moles are there in the gas (assuming it is monatomic)?
Please solve no.6, 8 & no.1, 4 in chapter2. For an ideal gas PV MRZ where n is the number of moles. Show that the heat transferred in an infinitesimal quasistatic process of an ideal gas can be written as n R 8.) An explosive liquid at temperature 300 K contains a spherical bubble of radius 5 mm, full of its vapour. When a mechanical shock to the liquid causes adiabatic compression of the bubble, what radius of the bubble...
Make one PV diagram showing the following sequential processes: 2.00 moles of an ideal gas at 400K, 1.00 atm. 1. expand isothermally from 65.6 L to 131.3 L at 400 K. 2. cooled isobarically from 65.6 L, 200 K 3. heated isochorically from 200 K back to 400 K.
A heat engine takes for 0.40 mol of ideal H2 gas around the cycle shown in the pV- diagram.Ta=400KTb=800KTc=592K Process a→b is at constant volume, process b→c is adiabatic, and process c-> a is at constant pressure of 2 atm. The value of y for this gas is 1.40. (a) Find the pressure and volume at points a, b and c (b) Calculate Q, W, and AU for each of the processes. (c) Find the net work done by the gas in the cycle (d)...
1.08 mol of a monatomic ideal gas undergoes a cyclic process in a reversible engine, as shown in the PV diagram. The gas is initially at STP at point a. The curved path is an isotherm at T = 411 K, and the straight paths represent processes at constant pressure or constant volume. Determine the heat added in process c-a.
Problem 1: Ideal Gas Law Problem 1. The ideal gas law states PV nRT where P, V, and T are the pressure, volume and absolute temperature; n is the number of moles of gas; and R is the the ideal gas constant. Consider a 1-gallon canister of gas at a pressure of 1 atm. Answer the following questions: 1. How much energy would be needed to increase the pressure of the closed canister to 50 psi without changing its volume?...
A heat engine takes 0.262 mol of a diatomic deal gas around the cycle shown in the pV-diagram below. Process 1 → 2 is at constant volume, process 2-) 3 is adiabatic, and process 3-1 is at a constant pressure of P = 2.00 atm. The value of r for this gas is 1.4 2,7-600K T,-300 K T, 492 K 0 (a) Find the pressure and volume at points 1, 2, and 3. pressure (Pa) volume (m3) point 1 point...