Question

You are tasked with evaluating the stirring tank in a chemical plant. The temperature of the...

You are tasked with evaluating the stirring tank in a chemical plant. The temperature of the inlet stream of the fluid entering the tank is at 300K, has a specific heat capacity of 10 J/(kg*K) and a flow rate of 1 kg/s. The stirrer adds 10 kW power to the system, while an internal cooling coil in the tank removes heat at a rate of 5000 J/s. The line surrounding the pipe of the outlet stream of the fluid exiting the tank will catch on fire if it reaches a temperature of above 500K. Will the liner catch fire?

0 0
Add a comment Improve this question Transcribed image text
Know the answer?
Add Answer to:
You are tasked with evaluating the stirring tank in a chemical plant. The temperature of the...
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for? Ask your own homework help question. Our experts will answer your question WITHIN MINUTES for Free.
Similar Homework Help Questions
  • Three return steam lines in a chemical processing plant enter a collection tank operating at steady...

    Three return steam lines in a chemical processing plant enter a collection tank operating at steady state at 5 bar. Steam enters inlet 1 with flow rate of 1.4 kg/s and quality of 0.9. Steam enters inlet 2 with flow rate of 2 kg/s at 200°C. Steam enters inlet 3 with flow rate of 1.2 kg/s at 95°C. Steam exits the tank at 5 bar. The rate of heat transfer from the collection tank is 40 kW. Neglecting kinetic and...

  • A pump carries water at a temperature of 30 ° C from one tank (A) to...

    A pump carries water at a temperature of 30 ° C from one tank (A) to another (B). The diameter of the pipe leaving tank A and reaching the pump is 4 inches. The diameter of the pipe leaving the pump and reaching tank B is 3 inches. The pump motor increases the fluid pressure by 3 kgf / cm2 (ΔP), and generates a power per unit of mass of 300 J / kg. Calculate the height difference (ΔZ) between...

  • A two-pipe direct return chilled water system with an expansion tank is used to circulate water...

    A two-pipe direct return chilled water system with an expansion tank is used to circulate water for cooling three identical loads in a commercial building. Each load is connected with a balancing valve, zone valve and thermostat. Given that the cooling capacity of each load is 50 kW, density of water 1000kg/m3, a specific heat of water Cpw 4.185 kJ/kg K and gravitational constant 10 m/s2. (a) Sketch a schematic of the system illustrating all the components. (6%) Legend Expansion...

  • Can you please answer the following question 0. (CLO6 - 4 Marks) A counter-flow double-pipe heat...

    Can you please answer the following question 0. (CLO6 - 4 Marks) A counter-flow double-pipe heat exchanger is to heat water from 20°C to 80°C at mass flow rate of 1.5 kg's. The heating is to be accomplished by hot oil available at 150C at a mass flow rate of 2.5 kg/s. The inner tube is thin-walled and has a diameter of 1.5 cm with the length of 60 m. Fluid property: Fluid Type Mass flow rate, The Specific heat,...

  • 3. Applesauce at a food processing plant exits a tank at an initial temperature of 90°C....

    3. Applesauce at a food processing plant exits a tank at an initial temperature of 90°C. It flows through a 6 m section of 40 mm diameter pipe at speed of 1 cm/sec. The pipe is wrapped in 5 mm of insulation (k 0.3 W/mK), and has an inside heat transfer coefficient of hi = 100 W/m2K and an outside heat transfer coefficient of 8 W/m2K. losing heat to the environment at To10°C. The applesauce next enters a 1 m...

  • Hot stream Aromatic stream 85 40 85.2 Cold stream Cooling water 20 35 Inlet temperature (°C)...

    Hot stream Aromatic stream 85 40 85.2 Cold stream Cooling water 20 35 Inlet temperature (°C) Outlet temperature (C) Mass flowrate x heat capacity (KW°C) The fluid properties are as follows Cold stream Cooling water 4193 Hot streanm Heat capacity (Jlkg K) Density (kg/m2) Viscosity (cP) Thermal conductivity (WIm-K) Fouling factor (m2.°C) 2840 750 0.34 0.19 0.00018 1.016 0.594 0.000176 The cooling water is allocated to the tube-side of the exchanger . It is preferable to employ a fixed-tubesheet heat...

  • 1 CPD4701 Assignment 2/2019 Question 2 shell and-tube heat exchanger was designed for the following service: Cold strea...

    1 CPD4701 Assignment 2/2019 Question 2 shell and-tube heat exchanger was designed for the following service: Cold stream Hot stream Crude Oil Fluid Cooling water Tube side Stream allocation Shell side Mass flow rate (kg/s) 110 30 Inlet temperature (C) 90 Outlet temperature (C) Heat capacity (J/kg K) Density (kg/m2) Viscosity (Pa-s) Thermal conductivity (W/m-K) Fouling factor (m2 CW) 40 50 2177 4187 787 995 0.72-10 1.89-103 0.122 0.59 0.0002 0.0004 The shell and tube heat exchanger has the following...

  • 1 CPD4701 Assignment 2/2019 Question 2 shell and-tube heat exchanger was designed for the following service: Cold strea...

    1 CPD4701 Assignment 2/2019 Question 2 shell and-tube heat exchanger was designed for the following service: Cold stream Hot stream Crude Oil Fluid Cooling water Tube side Stream allocation Shell side Mass flow rate (kg/s) 110 30 Inlet temperature (C) 90 Outlet temperature (C) Heat capacity (J/kg K) Density (kg/m2) Viscosity (Pa-s) Thermal conductivity (W/m-K) Fouling factor (m2 CW) 40 50 2177 4187 787 995 0.72-10 1.89-103 0.122 0.59 0.0002 0.0004 The shell and tube heat exchanger has the following...

  • 1. 1.08x106 grams/h of a superheated fluid flows through a pipe in a power plant. The...

    1. 1.08x106 grams/h of a superheated fluid flows through a pipe in a power plant. The pipe is 1000 cm long, has an inner diameter of 0.05m and a wall thickness of 0.6 cm. The pipe has a thermal conductivity of 0.0017 kW/mK, and the inner pipe surface is at a uniform temperature of 393K. The temperature drop between the inlet and exit of the pipe is 7K, and the constant pressure specific heat of vapor is 2190 J/kgK. If...

  • A steam power plant design consists of an ideal Rankine cycle with regeneration. Steam enters Turbine...

    A steam power plant design consists of an ideal Rankine cycle with regeneration. Steam enters Turbine 1 at P1 and T1 at the rate of m1 and exits at P2. A fraction (y') of the steam exiting Turbine 1 is diverted to a closed feedwater heater while the remainder enters Turbine 2. A portion (y'') of the steam exiting Turbine 2 at P3 is diverted to an open feedwater heater while the remainder enters Turbine 3. The exit of Turbine...

ADVERTISEMENT
Free Homework Help App
Download From Google Play
Scan Your Homework
to Get Instant Free Answers
Need Online Homework Help?
Ask a Question
Get Answers For Free
Most questions answered within 3 hours.
ADVERTISEMENT
ADVERTISEMENT
ADVERTISEMENT