a) You have two phases of liquid and vapor (i.e., wet steam) at 250°C in a high-temperaturehigh-pressure vessel, which contains 0.8 grams of vapor and 5 grams of liquid. What is thespecific volume of the vapor (ml/g)?b) What is the total volume (mL) of the vessel?c) The vessel temperature was increased from 250°C to 280°C wile keeping the volume from part bthe same. What is the mass (grams) of liquid then?978 Appendix A.III: The Thermodynamic Properties of Water and SteamSaturated Steam: Temperature Table (Continued)Specific VolumeSat.LiquidVL175180185190195Temp(°C)T200205210215220225230235240245250255260265270275280285290295300305310315320330340350360370Press.(MPa)P0.89200.001 1211.0021 0.001 1270.001 1341.12271.2544 0.001 1411.3978 0.001 1491.55380.001 1571.72300.001 1641.9062 0.001 1732.1040.001 1812.3180.001 1902.5480.001 1992.795 0.001 2093.0600.001 2193.3440.001 2293.648 0.001 2403.973 0.001 2514.319 0.001 2634.6885.0815.4995.9426.4126.9097.4367.9938.5819.2029.85610.54711.27412.84514.58616.51318.65121.03374.14 22.09V [=] m³/kg:Sat.VaporVV0.21680.194 050.174 090.156 540.141 050.127 360.115 210.104 410.094 790.086 190.078 490.071 580.065 370.059 760.054 710.050 130.045 980.042 210.038 770.035 640.032 790.030 170.027 770.025 570.023 540.021 670.019 9480.018 3500.016 8670.015 4880.012 9960.010 7970.008 8130.006 9450.004 9250.003 155Internal EnergyEvap.AU0.001 7400.001 8930.002 2130.003 155Ú, H =] J/g=kJ/kg;Sat.LiquidÜL740.171840.0762.09 1821.6784.101802.9806.191783.8828.37 1764.4850.65 1744.7873.04 1724.5895.53 1703.9918.14 1682.9940.87 1661.5963.73 1639.6986.74 1617.21009.89 1594.21332.01359.31387.11415.51444.61505.31570.32601.10600 A2602.420062603.3066.78966.78 1836.5 2803.3 2.5639 3.6863 6.2503200:106000.02603.920002604.11033.21 1570.8 2604.01056.71 1546.7 2603.41080.39 1522.0 2602.41104.28 1496.7 2600.91128.39 1470.6 2599.01152.74 1443.9 2596.60.001 3021177.36 1416.3 2593.71202.250.001 3171387.9 2590.2990.12 1813.8 2804.0 2.6099 3.6047 6.21460001013.62 1790.5 2804.2 2.6558 3.5233 6.17911037.32 1766.5 2803.8 2.7015 3.4422 6.14371061.23 1741.7 2803.0 2.7472 3.3612 6.10831085.36 1716.2 2801.5 2.7927 3.2802 6.07301109.73 1689.8 2799.5 2.8383 3.1992 6.03751134.37 1662.5 2796.9 2.8838 3.1181 6.00191159.28 1634.4 2793.6 2.9294 3.0368 5.96621184.51 1605.2 2789.7 2.97512789.7 2.9751 2.9551 5.93011210.07 1574.9 2785.0 3.0208 2.8730 5.89380.001 2760.001 2890.001 3321227.46 1358.72586.11235.991262.310.001 3481253.00 1328.42581.40.001 3661278.92 1297.12576.01305.2 1264.7 2569.91543.6 2779.6 3.0668 2.7903 5.85711511.0 2773.3 3.1130 2.7070 5.81991289.07 1477.1 2766.2 3.1594 2.6227 5.78211316.3 1441.8 2758.1 3.2062 2.5375 5.74371344.0 1404.9 2749.0 3.2534 2.4511 5.70451366.4 2738.7 3.3010 2.3633 5.66430.001 3840.001 4041231.0 2563.00.001 4252555.21372.40.001 4472546.41401.31326.0 2727.3 3.3493 2.2737 5.62300.001 4722536.61431.00.001 4992525.50.001 5610.001 6381461.52498.9 1525.32464.6 1594.22418.4 1670.62351.5 1760.52228.5 1890.52029.6 2099.31283.5 2714.5 3.3982 2.1821 5.58041238.6 2700.1 3.4480 2.0882 5.53621140.6 2665.9 3.5507 1.8909 5.44171027.9 2622.0 3.6594 1.6763 5.3357893.4 2563.9 3.7777 1.4335 5.2112720.5 2481.0 3.9147 1.1379 5.0526441.6 2332.1 4.1106 .6865 4.79714.42982099.3 4.4298 001641.91725.21844.02029.61195.91159.41121.11080.9993.7894.3776.6626.3384.50Sat.VaporŮVS [=] kJ/kg K2580.22583.72587.02590.02592.82595.32597.52500 52599.5EnthalpySat.Liquid Evap.ĤL ΔΗ HVSat. Sat.Vapor LiquidSLEntropyEvap.ASSat.VaporŠv741.17 2032.4 2773.6 2.0909 4.5347 6.6256763.22 2015.0 2778.2 2.1396 4.4461 6.5857785.37 1997.1 2782.4 2.1879 4.3586 6.5465807.62 1978.8 2786.4 2.2359 4.2720 6.5079829.98 1960.0 2790.0 2.2835 4.1863 6.4698852.45 1940.7 2793.2 2.3309 4.1014 6.4323875.046.39521921.0 2796.0 2.3780 4.01721900.7 2798.5 2.4248 3.9337 6.3585907.76897.76920.62 1879.9 2800.5 2.4714 3.8507 6.32211959 E 2802 12802.1943.62 1858.52802.1 2.5178 3.7683 6.2861

Giventwo phases liquid and vapor ie. wet steam at T=250oCmass of vapor mV=0.8 gmass of liquid ml=5 g

You have two phases of liquid and vapor (i.e., wet steam) at 250°C in a high-temperature high-pressure vessel, which contains 0.8 grams of vapor and 5 grams of liquid. What is the specific volume of the vapor (ml/g)? What is the total volume (mL) of the vessel? The vessel temperature was increased from 250°C to 280°C wile keeping the volume from part the same. What is the mass (grams) of liquid then? 978 Appendix A.III: The Thermodynamic Properties of Water and Steam faturated Steam: Temperature Table (Continued)

You have two phases of liquid and vapor (i.e., wet steam) at 250°C in a high-temperature high-pressure vessel, which contains 0.8 grams of vapor and 5 grams of liquid. What is the specific volume of the vapor (ml/g)? What is the total volume (mL) of the vessel? The vessel temperature was increased from 250°C to 280°C wile keeping the volume from part the same. What is the mass (grams) of liquid then? 978 Appendix A.III: The Thermodynamic Properties of Water and Steam faturated Steam: Temperature Table (Continued)

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

See similar textbooks

Similar questions

Q2. Consider a piston-cylinder device that contains liquid water at 1 MPa and 150 °C. The weights on top of the piston are removed one by one so that the pressure inside the cylinder decreases gradually (Fig. 3–18). Draw a property diagram that shows all the water states including phase change processes, which will go from compressed liquid to super-heated vapor while keeping the temperature constant in the system. P = 1 MPa T = 150°C Heat
Marks) QIA) A cylinder has a thick piston initially held in position by a pin. The cylinder contains carbon dioxide at 200 kPa 50 mm and temperature of 20 °C. The metal piston has a density of 8000 kg/m³. The pin is now removed allowing the piston 100 mm Pin اد فیا Pin to move at a constant temperature. Show that the piston will move upward when the pin is removed. At what pressure the piston will rest against the stops? I. 100 mm CO2 II. Final k-100 mm-
With complete interpolation
An inflated car tyre is considered to have a constant volume, regardless of any changes in temperature or pressure.Use the kinetic molecular theory of gases to answer the following (a) How does air in the tyre exert a pressure on the walls of tyre? (b) Why is the pressure the same at all points on the inside wall of the tyre?
10 mol of a simple liquid is heated from 100°C to 500 °C and at the same time are compressed from 1 atm to 100 atm of pressure. What is the change in the volume? 1. Assume: a. the molar volume at 100 °C and 1 atm is 10 cc/mol b. the thermal expansion coefficient is 2.00x 10-5 /K c. the compressibility is 0.50x 10-11 /Pa
explain each step please.
A 2-kg steam water mixture at 1.0 MPaa is contained in an inflexible tank. Heat is added until the pressure rises to 3.5 MPaa and the temperature to 400 oC. Determine: a) Heat transferred (kJ), b) ΔH(kJ), c)ΔS (kJ/k) INCLUDE P-S AND AND T-S DIAGRAMS PLS CAN YOU PLS REFER THE STEAM TABLE ATTACH FOR THE VALUES DONT GIVE THE SAME SOLUTION AND ANSWER
Letters G and H
For an isothermal quasi-equilibrium process involving an ideal gas. The work is given by the expression
At the pressure of P=0.1MPa, the saturation temperature of water is Tsat=100 ºC, the specific volume of the saturated liquid water is vf=0.001043 m3/kg, and the specific volume of the saturated vapor water is vg=1.6720 m3/kg. (3) Please match regions shown in the diagram with correct names.
1.00×104 cm³ of 200 °C steam at a pressure of 10.0 atm is cooled until the volume of the liquid water? condenses. What is Part A Give your answer in cm³. Express your answer with the appropriate units.
Volume 19. A tank contains 0.50 m^3/kg of steam. Heat is transferred at constant volume until the pressure reaches 100 kpa. Determine the final steam quality. of water havying ML valuo of tomne ture