(Solved) : Example Problem 17 Conservation Energy Steam 1600 Psi 1000 F Velocity 2 Ft S Enters Turbin Q32603606 . . .
![Example Problem # 17 Conservation Of Energy Steam at 1600-psi, 1000°F, and a velocity of 2-ft/s enters a turbine operating at steady state. As shown in Figure 4.51, 22% of the entering mass flow is extracted at 160-psi, 450°F, with a velocity of 10-ft/s. The rest of the steam exits as a two-phase liquid-vapor mixture at 1-psi, with a quality of 85% and a velocity of 150-ft/s. The turbine develops a power output of 9x108 Btu/hr. Neglecting potential energy effects and heat transfer between the turbine and its surroundings, determine [a] the mass flow rate of the steam entering the turbine, in Ib/hr. [b] the diameter of the extraction duct, in ft Find: [a] 1.91 106 Ib/hr [b] D2- 6.93 ft Given: Assume: COM COE CV-SSSF hi-hı (Pi, Ti) T.A.4.E v2-v2 (P2, T2) T.A.4.E in- out h2-h2 (P2, T2) T.A.4.E mAVy Sketch: Turbine T, F 3 2ft m,a, 22](https://media.cheggcdn.com/media%2Fcb0%2Fcb003b72-b3af-486a-8467-a22d3f5e937d%2FphpfYiiPc.png)
Example Problem # 17 Conservation Of Energy Steam at 1600-psi, 1000°F, and a velocity of 2-ft/s enters a turbine operating at steady state. As shown in Figure 4.51, 22% of the entering mass flow is extracted at 160-psi, 450°F, with a velocity of 10-ft/s. The rest of the steam exits as a two-phase liquid-vapor mixture at 1-psi, with a quality of 85% and a velocity of 150-ft/s. The turbine develops a power output of 9×108 Btu/hr. Neglecting potential energy effects and heat transfer between the turbine and its surroundings, determine [a] the mass flow rate of the steam entering the turbine, in Ib/hr. [b] the diameter of the extraction duct, in ft Find: [a] 1.91 106 Ib/hr [b] D2- 6.93 ft Given: Assume: COM COE CV-SSSF hi-hı (Pi, Ti) T.A.4.E v2-v2 (P2, T2) T.A.4.E in- out h2-h2 (P2, T2) T.A.4.E mAVy Sketch: Turbine T, F 3 2ft m,a, 22 Show transcribed image text
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Answer to Example Problem 17 Conservation Energy Steam 1600 Psi 1000 F Velocity 2 Ft S Enters Turbin Q32603606 . . .
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