during primary recovery. This problem explores some aspects of this behavior.
Consider the expansion of methane from 300 bars to 50 bars at a constant temperature of 40 C (313 K).
Methane obeys the following equation of state
where C = 31 cm3/mol, D = -693cm3K/mole, and R = 83.14bar cm3/mole K. Note that the units of
energy are bar-cm3/mole in this problem. Report your answer in bar-cm3/mole
(a) What is the change in enthalpy during the expansion
(b) What is the change in internal energy?
(c) What is the heat removed?
(d) How much work does the system do during the expansion?
countered (unidirectional flow or parallel flow). The planer walls and the fluids are initially at rest. Lower plate moves to left and upper plate to right. Let the fluids be an oil, where kinematic viscosity (ν) = 2.17 x 10-4m2/s and the distance between both plate (h) is 10 mm. U0 = 0.4 m/s I need to find the governing equation, boundary conditions, initial conditions and to derive velocity distribution in steady state.
Also, Use FTCS explicit method to calculate the velocity distribution as a function of time by implementing these governing equation in Matlab
a=x0= 0m x1=1m x3=2m b=x3=3m
The equation for the 1d bar bending is given by :
Data : P=20.Pa, T=10000.N/m a=0., b=5. et
The bar is discretized into n=4 points with a constant spacing .
1) Considering the Taylor expansion of and
2) Replacing the approximation in the bending equation, show that we have the following
Discrete approximate problem
where , ,
3) Solve the linear system using both direct Gauss and Gauss-Jordan methods and plot the curve
4) Using numerical integration, compute the approximate