Use the steam tables provided and use 4 decimal places for solving.In an idealRankine cycle, steam first enters the turbine at 10 MPa and 400C. It expands to a pressure of 10 kPa. a.) Draw the proper T-S diagram of the cycle with proper label for the points. b.) Findthe quality of the steam,Qa, Qr, Wt, Wp, Wnet, efficiency, and steam rate PressMPa10061130007000500090010001100120013001400150016TempCtSpecific VolumeLAW10¹01 1.0002 206 1361.89 1.0001 181 2553.77 1.0001 159 6755.45 1.0001 142 7896.98 1.0002 129 2088.37 1.0002 118 0429.66 1.0003 108 69610.86 1.0004 100 75511.98 1.0005 93 92213.031.0007 87 98014.02 1.0008 82 7630017 14.95 1.0009 78 1460018 15.84 1.0010 74 0300019 16.69 1.0012 70 3370050 32.88 1.0053 28.1920055 34.58 1.0058 25.7690060 36.16 1.0064 23 739.0065 37.63 10069 22 014007039.00 1.0074 20 5300075 40.29 1.0079 19 2380080 41.51 1.0084 18 1030085 42.67 1.0089 17.0990090009543.76 1.0094 16 20344,81 1.0098 15:399010 45.81 1.9102 14 674011 47.69 1.0111 13415012 49.42 10119 12 361013 51.04 1.0126 11:465014 52.55 1.0134 10 693u4.0 (250.40)h10³ v49.78 2602.3 2801.4Internal EnergyNalLiquidu₂00 2.75.3 2375.37.90 2370.0 2377.915.81 2364.7 2380.622.88 2360.0 2382.929.30 2355.7 2385.035.17 2351.8 2386.940.58 2348.1 2388.745.60 2344,7 2390.3.50.31 2341.6 2391.954.71 2338.6 2393.358.87 2335.8 2394.762.80 2333.2 2396.066.53 2330.7 2397.270,09 2328,3 2398 4EvapUp137.81 22827 2420 5144.94 2277.9 2422.8151.53 2273:4 2425.0157.66 2269.3 2426.9163.39 2265.4 2428.8Sat.speru.168.78 2261.7 2430,5173.87 2258.3 2432.2178.69 2255.0 2433.7183.27 2251.9 2435.2187.64 2248.9 2436.66.0701191.82 2246.1 2437.9199 66 2240.8 2440.4206.91 2235.8 2442.7213.66 2231.2 2444.9219.98 2226 9 2446.948.60 2585.9 2780.36.029749.69 26011 2799.9 6.067230.74 2615.5 2818.5 6.102651.74 2629.4 2836.3 6.136252.71 2642.7 2853.5 6.168353.65 2655.5 2870.1 6.199054.57 2667.9 2886.2 6.228555.46 2680.0 2901.8 6.256856.33 2691.7 2917.0 6.284257.18 2703.2 2931.9 6.310858.02 2714.4 2946.4 6.336558.84 2725.3 2960.7 6.361560.44 2746.7 2988.5 6.409561.99 2767.4 3015.4 6.455363.51 2787.6 3041.6 6.499164.99 2807.3 3067.3 6.541366.45 2826.7 3092.5 6.582167.88 2845.7 3117.2 6.621569.29 2864.6 3141.7 6.659870.68 2883.2 3165.9 6.69716.733572.05 2901.6 3189.8Sat,Liquidh,EnthalpyEvap.hThatVaporh,01 2501.3 2501.47.91 2496.9 2504 815.81 2492.5 2508.322.89 2488.5 2511.429.30 2484.9 2514.235.17 2481.6 2516840.58 2478.6 2519.145.60 2475.7 2521 350.31 2473.1 2523.454.71 2470.6 2525 358.87 2468.3 2527.162.80 2466.0 2528.866.54 2463.9 2530.570.10 2461.9 2532,0137 82 2423 7 2561.5144.95 2419.6 2564.5151.53 2415.9 25674157.67 2412.4 2570.0163.40 2409 1 2572.5168.79 2406.0 2574.8173.88 2403.1 2577.0178.70 2400.3 2579.0183.29 2397.7 2581.0187.65 2395.2 2582.9191.83 2392.8 2584 7199 67 2388 3 2588,0206.92 2384 1 2591.1213.67 2380 2 2593.9219.99 2376.6 2596.64.1 (251.87)uh10³ v48.53 2601.9 2800.9Set,LiquidSyEntropyEvap0000 9.1562 9.15620288 9.0775 9.10640575 8.9999 9.05730829 8.9312 9.01421059 8.8697 8,97561268 8.8140 8.94081460 8.7631 8.90911637 8.7162 8.87991802 8.6727 8.85291957 8.6322 8.82792102 8.5943 8.80442238 8.5586 8.78252368 8.5250 8.76182491 8.4931 8.7422Sal.VapurB₂4764 7.9187 8.39514997 7.8616 8.36135210 7.8094 8.33045408 7.7613 8.30205592 7.7167 8.27585764 7:6750 8.25155926 7.6361 8.22876079 75994 8.20736224 75648 8.18726362 75321 8.1682S6493 7.5009 8.15026738 7.4430 8.11686963 7.3900 8.08637172 7.3412 8.05847366 7.2959 8.0325p (t Sat.)47.04 2580.7 2773.6 6.007448.13 2596.3 2793.6 6.045949.17 2611.1 2812.7 6.08226.0597 Sat.24024550.17 2625.2 2830.9 6.116551.14 2638.8 2848.5 6.149352.07 2651.9 2865.4 6.1805t57.20 2722.7 2957.2 6.345358.77 2744.3 2985.3 6.393960.30 2765.2 3012.5 6.440161.79 2785.6 3038.9 6.484363.25 2805.4 3064.8 6.526825025526026527052.98 2664.5 2881.7 6.2105 27553.86 2676.7 2897.6 6.2393 28028554.72 2688.7 2913.0 6.267155.56 2700.3 2928.1 6.2940 29029556.39 2711.6 2942.8 6.320030031032033034035036064.68 2824.9 3090.1 6.567866.08 2844.1 3115.0 6.607537067.47 2863.0 3139.6 6.646068.83 2881.7 3163.9 6.6834 38070.18 2900.2 3188.03906.7200 10.0 (311.06)h10³ v18.026 2544.4 2724.7 5.614117.864 2538.5 2717.1 5.601118.593 2565.1 2751.0 5.658919.253 2588.8 2781.3 5.7103u19.861 2610.4 2809.1 5.756820.429 2630.4 2834.7 5.799620.964 2649.1 2858.7 5.839221.472 2666.6 2881.4 5.876321.957 2683.3 2902.9 5.911222.42 2699.2 2923.4 5.944323.31 2729.1 2962.1 6.006024.14 2756.9 2998.3 6.062624.93 2783.2 3032.5 6.115425.68 2808.3 3065.1 6.165026.41 2832.4 3096.5 6.212027.11 2855.7 3126.8 6.256727.80 2878.4 3156.3 6.299528.46 2900.4 3185.1 6.340729.11 2922.1 3213.2 6.380532.79 3045.8 3373.7 6.596633.37 3065.8 3399.5 6.629733.94 3085.6 3425.1 6.662234.51 3105.3 3450.5 6.694135.08 3125.0 3475.8 6.7254IRDIe 3.p(t Sat.)R45046047048049029.75 2943.4 3240.9 6.419030.38 2964.3 3268.1 6.456430.99 2985.0 3294.9 6.492731.60 3005.4 3321.4 6.528232.20 3025.7 3347.7 6.562810' -Sat. 11.485 2476.8 2637.633534034550051052053054314.0 (336.75)Sa350 13.221 2567.5 2752.6 5.5585360 14.218 26174 2816.55.6602370 15.078 2659.5 2870.6 5.7450380 15.849 2696.5 2918.4 5.8188390 16.557 2730.0 2961.8 5.88475.371711.183 2460 5 26171 5338111.993 2503.3 2671.1 5.426612.644 2537.9 2714.9 5.4978400 17.216 2760.9 3001.9 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42027.82 2897.8 3181.5 6.3276 43028.46 2919.6 3209.9 6.3677 440145 (339.53)10) ▼b10.895 2466.4 2624.4 5.341029.09 2941.0 3237.7 6.406429.71 2962.0 3265.1 6.444030.32 2982.8 3292.0 6.480630.91 3003.4 3318.7 6.5162 48031.50 3023.7 3345.1 6.5510 490450460470110.973 2470.8 2629.9 5.350011.712 2511.6 2681.5 5.4337p (t Sat.)12.334 2545.2 2724.0 5.502313.377 2599.9 2793.9 5.613614.258 2644.9 2851.7 5.704215.039 2683.9 2902.0 5.781815.749 2718.9 2947.3 5.85065.6017 Sat.30531031532016.408 2751.0 2988.9 5.912917.026 2780.8 3027.7 5.970117.612 2808.9 3064.3 6.023418.172 2835.7 3099.2 6.073418.711 2861.5 3132.8 6.1207t19.231 2886.3 3165.1 6.165819.735 2910.4 3196.6 6.209020.225 2933.9 3227.2 6.250520.704 2956.9 3257.1 6.290521.171 2979.5 3286.5 6.329221.63 3001.7 3315.3 6.366722.08 3023.6 3343.7 6.403322.52 3045.2 3371.7 6.438822.95 3066.6 3399.4 6.473523.38 3087.8 3426.9 6.50746.5850 5006.6182 5105206.65086.6828 5306.7142 54015.0 (342.24)10b10¹ Y10.337 2455.5 2610.5 5.30989.917 24306 23794 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The quality of steam, the heat addition, the heat rejected, the turbine work, the pump work, the…

Use the steam tables provided and use 4 decimal places for solving. In an idealRankine cycle, steam first enters the turbine at 10 MPa and 400C. It expands to a pressure of 10 kPa. a.) Draw the proper T-S diagram of the cycle with proper label for the points. b.) Findthe quality of the steam,Qa, Qr, Wt, Wp, Wnet, efficiency, and steam rate

Use the steam tables provided and use 4 decimal places for solving. In an idealRankine cycle, steam first enters the turbine at 10 MPa and 400C. It expands to a pressure of 10 kPa. a.) Draw the proper T-S diagram of the cycle with proper label for the points. b.) Findthe quality of the steam,Qa, Qr, Wt, Wp, Wnet, efficiency, and steam rate

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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