Question

In: Other

i need the solution with comsol Consider a large plane wall of thickness L 5 0.4...

i need the solution with comsol

Consider a large plane wall of thickness L 5 0.4 m, ther- mal conductivity k 5 2.3 W/m·K, and surface area A 5 20 m 2 . The left side of the wall is maintained at a constant temperature of 95°C, while the right side loses heat by convection to the surrounding air at T ` 5 15°C with a heat transfer coefficient of h 5 18 W/m 2 ·K. Assuming steady one-dimensional heat transfer and taking the nodal spacing to be 10 cm, ( a ) obtain the finite difference formulation for all nodes, ( b ) determine the nodal temperatures by solving those equations, and ( c ) evaluate the rate of heat transfer through the wall

Solutions

Expert Solution

Solution:

Wish you all the best buddy please upvote it ?


Related Solutions

A plane wall has thickness of 5 cm, thermal conductivity of 2 W/mK and generates heat....
A plane wall has thickness of 5 cm, thermal conductivity of 2 W/mK and generates heat. The left face of the wall (x=0) has a surface temp. of 80C and has air at 20C flowing past it with a heat transfer coefficient of 50 W/m^2K. If the right face is insulated then the temperature distribution through the wall has a general format T(x)=A+B*x+C*x^2 (a) Draw a properly labeled diagram (including a representative temperature distribution), state all assumptions and calculate the...
A loudspeaker sits in a large room (of length L) against a wall and faces towards...
A loudspeaker sits in a large room (of length L) against a wall and faces towards the opposite wall. The speaker emits a resonant frequency of the room, thus setting up a standing wave. Assume that the wavelength is much smaller than the size of the room, so that the mode number n is high. Use vsnd for the speed of sound. a.) Your friend starts at the speaker and runs toward the opposite wall at constant speed v. As...
A loudspeaker sits in a large room (of length L) against a wall and faces towards...
A loudspeaker sits in a large room (of length L) against a wall and faces towards the opposite wall. The speaker emits a resonant frequency of the room, thus setting up a standing wave. Assume that the wavelength is much smaller than the size of the room, so that the mode number n is high. Use vsnd for the speed of sound. a.) Your friend starts at the speaker and runs toward the opposite wall at constant speed v. As...
Please I need answer for This question and it is very important and I need solution...
Please I need answer for This question and it is very important and I need solution for this issue with all the details just nu , and help me with all the details, so that I can read and understand your answer clearly.thanks in advance/Ha 2. Answer whether the following examples of Foreign Direct Investment (FDI) describe horizontal or vertical FDI. Explain your answers. a) Volvo builds a car factory in Austin, Texas, which is similar to Volvo’s factory in...
Please I need answer for This question and it is very important and I need solution...
Please I need answer for This question and it is very important and I need solution for this issue with all the details just nu , and help me with all the details, so that I can read and understand your answer clearly.I need step by step solution to the following this question asap .I have limited time so please do it quickly with detailed explanation.thanks in advance/Ha Q. In a competitive equilibrium, the equilibrium wage clears the market and...
Consider a plane wall with uniform thermal energy generation per unit volume of qdot. Starting with...
Consider a plane wall with uniform thermal energy generation per unit volume of qdot. Starting with the steady-state heat equation, obtain a general expression for the temperature distribution (Since no boundary conditions are provided, there will be unknown constants in the resulting equation).
Consider a simple plane pendulum of mass m and length l (the mass swings in a...
Consider a simple plane pendulum of mass m and length l (the mass swings in a vertical plane). After the pendulum is set into motion, the length of the string is decreased at a constant rate, ??/?? = −? = ?????. The suspension point remains fixed. (a) Compute the Lagrangian and Hamiltonian for the system. [4] (b) Compare the Hamiltonian and the total energy- is the energy conserved? Why/Why not? [2]
I need the correct solution with all steps: Consider the following strategy on May 14 involving...
I need the correct solution with all steps: Consider the following strategy on May 14 involving June 18 options: Buy the 125 call at $13.50, Buy the 130 put at $14.50, Sell the 130 call at $11.35, and Sell the 125 put at $ 11.50. If the risk-free rate is 4.56% per year and the time remaining to expiration is 0.0959 years, should the investor execute the position? What is the net present value of the trade?
Consider a double wedge airfoil with a maximum thickness of 5% chord at angle of attack...
Consider a double wedge airfoil with a maximum thickness of 5% chord at angle of attack = 0 degrees. a. Determine the approximate chord wise location (x/c) of the maximum thickness that producesthe minimum drag coefficient (cd) at Mach numbers of 2, 4 and 6. [Hint: you do not need to investigate locations ahead of 0.4c]. Include a composite plot of drag coefficient vs location of (t/c) max for each Mach number in your report. b. Repeat this analysis for...
Consider a large plate of thickness 50 mm and thermal conductivity of k= 69 W/m.C in...
Consider a large plate of thickness 50 mm and thermal conductivity of k= 69 W/m.C in which heat is generated uniformly at a constant rate of 600 kW/m3. One side of the plate is insulated while the other side is subjected to convection to the environment at 30oC with a heat transfer coefficient of h= 94 W/m^2.C. considering six equal spaced nodes with a nodal spacing of 10 mm: (a) obtain the Finite Difference formulation of this problem, (b) determine...
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT