Answer this ASAP A shell-tube type heat exchanger as shown below. The inner pipe (tube) is made of 2 inch steel with an inner diameter (pipe) of -0.0525 m and an outer diameter of the pipe. 0.0603 m. conductivity of steel = 25 W/m°C. The inside of the pipe contains hot water entering 100 °C and leaving 85°C at a flow of 120 liters per minute ( hot water properties can be searched from the average temperature). On the shell side, cold water enters at a temperature of 30 °C. If the inside convection coefficient is known, hi - 1961 W/m² °C and the side convection coefficient outside the pipe, ho=1441 W/m² °C. a. What is the internal heat transfer surface area of ​​the pipe (Ai). b. What is the total internal heat transfer coefficient Ui (based on surface area heat transfer inside the pipe (Ai)) c. Find the magnitude of q=m₂ CP ATh heat transfer removed by hot water with the formula d. Using the q-U A ATm equation, find the final temperature of the cold water leaving shells. (ATm or also called LMTD (log mean temperature difference)

Elements Of Electromagnetics
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Author:Sadiku, Matthew N. O.
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Answer this ASAP A shell-tube type heat exchanger as shown below. The inner pipe (tube) is made of 2 inch steel with an inner diameter (pipe) of -0.0525 m and an outer diameter of the pipe. 0.0603 m. conductivity of steel = 25 W/m°C. The inside of the pipe contains hot water entering 100 °C and leaving 85°C at a flow of 120 liters per minute ( hot water properties can be searched from the average temperature). On the shell side, cold water enters at a temperature of 30 °C. If the inside convection coefficient is known, hi - 1961 W/m² °C and the side convection coefficient outside the pipe, ho=1441 W/m² °C. a. What is the internal heat transfer surface area of ​​the pipe (Ai). b. What is the total internal heat transfer coefficient Ui (based on surface area heat transfer inside the pipe (Ai)) c. Find the magnitude of q=m₂ CP ATh heat transfer removed by hot water with the formula d. Using the q-U A ATm equation, find the final temperature of the cold water leaving shells. (ATm or also called LMTD (log mean temperature difference)
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