Question

Draw and label a temperature distribution diagram for a liquid‐to‐liquid, counter flow heat exchanger. What advantage(s)...

Draw and label a temperature distribution diagram for a liquid‐to‐liquid, counter flow heat exchanger. What advantage(s) does this type of heat exchanger provide? What disadvantage(s)?

Science   Advanced-Physics   
0 0
Add a commentTranscribed image text
Next >

Homework Answers

Answer #1

0 0
Know the answer?
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Log In

Sign Up

Not the answer you're looking for?
Ask your own homework help question
Similar Questions
Cold water enters a counter flow heat exchanger at 20ºC at a rate of 10 kg/s,...
Cold water enters a counter flow heat exchanger at 20ºC at a rate of 10 kg/s, where it is heated by a hot water stream that enters the heat exchanger at 80ºC at a rate of 2 kg/s. Assuming the specific heat of water to remain constant at Cp=4.18 kJ/(kg.ºC), determine the maximum heat transfer rate and the outlet temperatures of the cold and the hot water streams.
A thin-walled double pipe counter flow heat exchanger is to be used to cool oil (cp...
A thin-walled double pipe counter flow heat exchanger is to be used to cool oil (cp = 2200 j/kg*K) from 150 ℃ to 30 ℃ at a rate of 2.1 kg/s by water (cp= 4180 J/kg*K) that enters at 20 ℃ at a rate of 1.2 kg/s. The diameter of the tube is 2.5 cm, and its length is 10 m. Using Excel (a) Determine the overall heat transfer coefficient of this heat exchanger. (b) Investigate the effects of oil...
Hot water enters a counter-flow double-pipe heat exchanger at 180F with a velocity of 5 ft/s....
Hot water enters a counter-flow double-pipe heat exchanger at 180F with a velocity of 5 ft/s. Cold water at 80F flows at 3 ft/s in the outer section of the exchanger. The diameter of the inner pipe is 1 inch, the pipe wall thickness is 1/8", and the outer pipe diameter is 2 inches. The overall heat transfer coefficient times area per unit length UA/L = 150 Btu/hr-ft-F. If the exchanger is 16 feet long, what is the exit temperature...
Problem #1 Saturated steam at 300°C is used to heat a counter-currently flowing stream of methanol...
Problem #1 Saturated steam at 300°C is used to heat a counter-currently flowing stream of methanol vapor from 65°C to 260°C in an adiabatic heat exchanger. The flow rate of the methanol is 5500 standard liters per minute (at STP), and the steam condenses and leaves the heat exchanger as liquid water at 90°C. a) Draw a diagram of the process. b) Calculate the required flow rate of the entering steam in m3/min. c) Calculate the rate of heat transfer...
If it wasn't possible to change flow direction in a heat exchanger, what would you need...
If it wasn't possible to change flow direction in a heat exchanger, what would you need to do instead to produce a parallel flow that produces a smaller heat transfer than that of the counter flow?
A counter current double pipe heat exchanger is used to boil but not superheat water at...
A counter current double pipe heat exchanger is used to boil but not superheat water at 100 DegreeC at rate of about 0.1 kg/s. This is achieved by flowing hot oil at 400 DegreeC through the inner pipe at a rate of 5 kg/s. Latent heat of water: 2265 kJ/kg Heat capacity of water: 4180 J/kgK Heat capacity of the oil: 1800 J/kgK What is the temperature of he hot oil leaving the heat exchanger? What is the overall heat...
Oil enters a counterflow heat exchanger at 600 K with a mass flow rate of 10...
Oil enters a counterflow heat exchanger at 600 K with a mass flow rate of 10 kg/s and exits at 350 K. A separate stream of liquid water enters at 20°C, 5 bar. Each stream experiences no significant change in pressure. Stray heat transfer with the surroundings of the heat exchanger and kinetic and potential energy effects can be ignored. The specific heat of the oil is constant, c = 2 kJ/kg · K. If the designer wants to ensure...
Oil enters a counterflow heat exchanger at 525 K with a mass flow rate of 10...
Oil enters a counterflow heat exchanger at 525 K with a mass flow rate of 10 kg/s and exits at 275 K. A separate stream of liquid water enters at 20°C, 5 bar. Each stream experiences no significant change in pressure. Stray heat transfer with the surroundings of the heat exchanger and kinetic and potential energy effects can be ignored. The specific heat of the oil is constant, c = 2 kJ/kg · K. If the designer wants to ensure...
Oil enters a counterflow heat exchanger at 525 K with a mass flow rate of 10...
Oil enters a counterflow heat exchanger at 525 K with a mass flow rate of 10 kg/s and exits at 275 K. A separate stream of liquid water enters at 20°C, 5 bar. Each stream experiences no significant change in pressure. Stray heat transfer with the surroundings of the heat exchanger and kinetic and potential energy effects can be ignored. The specific heat of the oil is constant, c = 2 kJ/kg · K. If the designer wants to ensure...
Methane enters a heat e xchanger at a volumetric flow rate of 145.0 m 3 /min,...
Methane enters a heat e xchanger at a volumetric flow rate of 145.0 m 3 /min, at an absolute pressure of 1.013 bar and temperature of 15.0°C. At these conditions, the specific enthalpy of methane is - 23.181 kJ/kg. The methane leaves the heat exchanger at an absolute pressure of 1.0 13 bar and temperature of 60.0°C. The corresponding specific enthalpy at these conditions is 78.656 kJ/kg. The methane is heated by a stream of saturated steam entering the heat...
ADVERTISEMENT
Need Online Homework Help?

Get Answers For Free
Most questions answered within 1 hours.

Ask a Question
ADVERTISEMENT