Question
ANSWER PLEASE

PROBLEM #2 (68 pts.) Steam at 200 psia, 600°F (State 1) enters an adiabatic turbine cperating at steady state with a mass flo
0 0
Add a comment Improve this question Transcribed image text
Answer #1

Enthalby and entropy at state 1 hi= 1322.31 Btu/ebm 2 At 600°F and zoopsia, S, = 1.68 B741ebmºR) S forom steam table Enthalby(6) Rate of Xdestroyed exergy destruction = Woer,out - Wout = 3411.21 - 2613.765 troyed → Xdestayed = 797.445. Btu/min d) The

Add a comment
Know the answer?
Add Answer to:
ANSWER PLEASE PROBLEM #2 (68 pts.) Steam at 200 psia, 600°F (State 1) enters an adiabatic...
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
  • 1) Steam at 200 psia and 600 F is supplied to a turbine and exhausted at...

    1) Steam at 200 psia and 600 F is supplied to a turbine and exhausted at 14.7 psia. The flow is adiabatic, the power output of the turbine is 10000 kW and it's isentropic efficiency is 65 %. Determine the steam rate in lbm/h.

  • Air initially at 120 psia and 500*F is expanded by an adiabatic turbine to 15 psia...

    Air initially at 120 psia and 500*F is expanded by an adiabatic turbine to 15 psia and 200* F. Assuming air can be treated as an ideal gas and has variable specific heat. a) Determine the specific work output of the actual turbine (Btu/lbm). b) Determine the amount of specific entropy generation during the irreversible process (Btu/lbm R). c) Determine the isentropic efficiency of this turbine (%). d) Suppose the turbine now operates as an ideal compressor (reversible and adiabatic)...

  • 14. Steam enters an adiabatic turbine at 1,000 psia and 900°F and leaves at 3 psia....

    14. Steam enters an adiabatic turbine at 1,000 psia and 900°F and leaves at 3 psia. The turbine efficiency is 80%. The steady-state specific work (Btumn) developed by the turbine is most nearly (a) 290 (b) 325 (e)390 (d)409 (e) 490

  • How do i solve C??? Please details Steam enters a two stage steady state turbine at 8 MPa and 500 C. It expands in the first stage to a state of 2 MPa and 350°C. Steam is then reheated at constant...

    How do i solve C??? Please details Steam enters a two stage steady state turbine at 8 MPa and 500 C. It expands in the first stage to a state of 2 MPa and 350°C. Steam is then reheated at constant pressure to a temperature of 500°C before it enters the second stage, where it exits at 30 kPa and a quality of 98%. The net power output of the turbine is 3 MW Assume the surroundings to be at...

  • (30 pts.) 3) Steam enters an adiabatic turbine at 1400 psia and 1000 F at a...

    (30 pts.) 3) Steam enters an adiabatic turbine at 1400 psia and 1000 F at a flow rate of 31.5 cfm. It exits at a quality of 90% and a pressure of 1 psia. Neglect kinetic and potential energy effects. a) Determine the power produced [hp] b) Draw P-v and T-v state diagrams showing the states and process.

  • Steam with the mass flow rate of 0.75 kg/s enters an adiabatic turbine steadily at 19 MPa, 600°C and 150 m/s

    Steam with the mass flow rate of 0.75 kg/s enters an adiabatic turbine steadily at 19 MPa, 600°C and 150 m/s, and leaves at 150 kPa and 350 m/s. The isentropic efficiency of the turbine is 85%. Neglect potential energy. (I) Determine the exit temperature of the steam, and its quality (if saturated mixture)  (ii) Calculate the actual power output of the turbine, in kW (iii)  Illustrate a T-s diagram with respect to saturation lines for the isentropic process by clearly indicating all pressure, temperature,...

  • 10. (25 Points) Steam enters an insulated nozzle at 140 psia, 600 F with a velocity...

    10. (25 Points) Steam enters an insulated nozzle at 140 psia, 600 F with a velocity of 100 ft/s. It leaves the nozzle at 20 psia, 360°F. The mass flow rate is 10 lbm/s. Find: Ans a) b) Ans. The actual kinetic energy of the steam at the exit, in Btu The exit velocity in ft/s for part a) The exit cross sectional area of the nozzle, in in The nozzle isentropic efficiency (%) Show the actual and the ideal...

  • PARTS A, B, C, D HAVE ALREADY BEEN SOLVED AND THE ANSWERS ARE GIVEN BELOW EACH...

    PARTS A, B, C, D HAVE ALREADY BEEN SOLVED AND THE ANSWERS ARE GIVEN BELOW EACH OF THOSE, PLEASE SOLVE SECTIONS E, F, G In a steam plant, saturated steam enters the turbine at 585 psig. The isentropic pump work is 1.8 BTU/lbm. Condensate exits the condenser at 144 ºF. The pump is 80% efficient and the turbine is 90% efficient. The fuel flow rate is 2.5 lbm/min and the fuel HHV is 19,500 BTU/lbm. Engine Mechanical efficiency is 72%....

  • 761 Steam enters a turbine operating at steady state at 4 MPa, 500 C with a...

    761 Steam enters a turbine operating at steady state at 4 MPa, 500 C with a mass flow rate of 50 kg/s Saturated vapor exits at 10 kPa and the corresponding power developed is 42 MW The effects of motion and gravity negligible. are (a) For a control volume enclosing the turbine, determine the rale of heat Iransfer, in MW, from the turbine to its surrmundings Asuming 50°C. determine the rate of exergy destruction, in MW (b) If the turbine...

  • Problem 4 A steam turbine is used to generate power. The turbine expansion process is "adiabatic,"...

    Problem 4 A steam turbine is used to generate power. The turbine expansion process is "adiabatic," this means that there is no heat transfer during this process. The inlet and exit conditions are listed below T1 = 600-degF P2 10-psia T2 1932-degF x2 0.9 P1 500-psia BTU lb Adiabatio Steam Turbine h1:= 1299.1·ww s1 1.5652. BTU b-R Qloss 0 BTU lb At 10 psia, BTU h,-1143.3- BTU BTU lb s,-1.788-en lb-R hr:= 161.2- S(30-2836. A. Determine the work of the...

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