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College of Engineering and Computer Science Mechanical Engineering Department Mechanical Engineering 370 Thermodynamics Fall 2010 Course Number: 14319 Instructor: Larry Caretto � Unit Eleven Homework Solutions, November 30, 2010 1. Consider a 210 MW steam power plant that operates on a simple ideal Rankine cycle. Steam enters the turbine at 10 MPa and 500oC and is cooled in the condenser to a pressure of 10 kPa. Show the cycle on a T-s diagram with respect to the saturation lines and determine (a) the quality of steam at the turbine exit, (b) the thermal efficiency of the cycle, and (c) the mass flow rate of the steam. The cycle diagram shows the individual steps in the cycle. The increase in temperature in the pump is typically about 1oC so the isentropic pump step does not really show on the diagram. The constant pressure heating in the steam generator shows the path of an isobar on a T-s diagram. In the mixed region, where temperature and pressure are constant, the isobar is a horizontal line. The condenser, which is completely in the mixed region, has a constant temperature line to represent the constant pressure process in the condenser. To compute the quality at the turbine exit, we recognize that this exit state is defined by the condenser pressure of 10 kPa and an isentropic process such that sout = sin = s(10 MPa, 500oC) = 6.5995 kJ/kg∙K. The outlet quality is thus found from the following equation. xout = 0.793. In order to compute the efficiency, we need the enthalpy values at all the state points. Following a conventional Rankine cycle calculation, we find the properties at state one as those of a saturated liquid at the condenser pressure: h1 = hf(10 kPa) = 191.81 kJ/kg and v1 = 0.001010 m3/kg. The isentropic pump work, |wp| = v1(P2 – P1) where P2 is the same as the inlet pressure to the turbine, 10 MPa = 10,000 kPa. Thus, We then find h2 = h1 + |wP1| = 191.81 kJ/kg + 10.09 kJ/kg = 201.90 kJ/kg. h3 = h(10 MPa, 500oC) = 3375.1 kJ/kg. s3 = s(10 MPa, 500oC) = 6.5995 kJ/kg∙K. As noted above, state 4 is in the mixed region with P4 = 10 kPa and x4 = 0.793. We thus find the enthalpy from the quality as h4 = hf(P4 = 10 kPa) + x4 hfg(P4 = 10 kPa) = 191.81 + (0.793)(2392.1 kJ/kg) or h4 = 2089.7 kJ/kg. The heat input to the steam generator, qh = h3 – h2 = 3375.1 kJ/kg – 201.90 kJ/kg = 3173.2 kJ/kg The condenser heat rejection, ql = |h1 – h4| = |191.81 kJ/kg – 2089.7 kJ/kg| = 1897.9 kJ/kg. The net work, w = qh - |qL| = 3173.2 kJ/kg| - 1897.9 kJ/kg = 1275.3 kJ/kg. The efficiency = w / qH = (1275.3 kJ/k ) / (3173.2 kJ/kg) or = 40.2%. The mass flow, 2. Consider a solar-pond power plant that operates on a simple ideal Rankine cycle with refrigerant-134a as the working fluid. The refrigerant enters the turbine as a saturated vapor at 1.6 MPa and leaves at 0.7 MPa. The mass flow rate of the refrigerant is 6 kg/s. Show the cycle on a T-s diagram with respect to the saturation lines and determine (a) the thermal efficiency and (b) the power output of the plant. The cycle diagram is shown on the next page. As usual, when the T-s diagram is drawn to scale, the pump does not appear on the diagram and the constant-pressure heating of the liquid in the steam generator is very close to the saturation line. This diagram is unusual because there is no superheating. In addition, the particular inlet and outlet pressures chosen for the turbine are in an area of the T-s diagram where the slope is nearly vertical. Thus, the isentropic turbine process, starting at the saturated vapor line lies very close to the saturated vapor line for the entire process. This is verified by the calculation of the exit quality from the turbine, x4. To compute this quality we note that the ideal cycle has an isentropic turbine so that s4 = s3 = sg(1.6 MPa) = 0.90784 kJ/kg∙K. At the condenser pressure of 0.7 MPa and an entropy of 0.90784 kJ/kg∙K, we find the quality as follows. xout = 0.979. The value of 98.3% for quality confirms the turbine path in the diagram that is close to the saturated line for the entire process. Next, we do the usual set of calculations for the Rankine cycle. In order to compute the efficiency, we need the enthalpy values at all the state points. Following a conventional Rankine cycle calculation, we find the properties at state one as those of a saturated liquid at the condenser pressure: h1 = hf(0.7 MPa) = 88.82 kJ/kg and v1 = 0.0008331 m3/kg. The isentropic pump work, |wp| = v1(P2 – P1) where P2 is the same as the inlet pressure to the turbine, 1.6 MPa = 1600 kPa. Thus, We then find h2 = h1 + |wP1| = 86.78 kJ/kg + 0.75 kJ/kg = 89.57 kJ/kg. h3 = hg(1.6 MPa) = 277.863 kJ/kg. s3 = sg(1.6 MPa) = 0.90784 kJ/kg∙K. As noted above, state 4 is in the mixed region with P4 = 700 kPa and x4 = 0.979. We thus find the enthalpy from the quality as h4 = hf(P4 = 700 kPa) + x4 hfg(P4 = 700 kPa) = 88.82 kJ/kg + (0.979)(176.212 kJ/kg) or h4 = 261.41 kJ/kg. The heat intput to the steam generator, qh = h3 – h2 = 277.86 kJ/kg – 89.54 kJ/kg = 188.3 kJ/kg The condenser heat rejection, ql = |h1 – h4| = |88.62 kJ/kg – 261.41 kJ/kg| = 172.6 kJ/kg. The net work, w = qh - |qL| =188.3 kJ/kg| - 172.6 kJ/kg = 15.70 kJ/kg. The efficiency = w / qH = (15.70 kJ/k ) / (188.3 kJ/kg) or = 8.3%. The power output = 3. Consider a steam power plant that operates on a simple ideal Rankine cycle and has a net power output of 45 MW. Steam enters the turbine at 7 MPa and 500oC and is cooled in the condenser to a pressure of 10 kPa by running cooling water from a lake through the condenser at a rate of 2000 kg/s. Show the cycle on a T-s diagram with respect to the saturation lines, and determine (a) the thermal efficiency of the cycle, (b) the mass flow rate of the steam, and (c) the temperature rise of the cooling water. The diagram for this cycle is similar to the diagram for the cycle in problem 9-16 and is not shown here. In order to compute the efficiency, we need the enthalpy values at all the state points. Following a conventional Rankine cycle calculation, we find the properties at state one as those of a saturated liquid at the condenser pressure: h1 = hf(10 kPa) = 191.83 kJ/kg and v1 = 0.001010 m3/kg. The isentropic pump work, |wp| = v1(P2 – P1) where P2 is the same as the inlet pressure to the turbine, 7 MPa = 7,000 kPa. Thus, We then find h2 = h1 + |wP1| = 191.81 kJ/kg + 7.06 kJ/kg = 198.87 kJ/kg. h3 = h(7 MPa, 500oC) =3411.4 kJ/kg. s3 = s(7 MPa, 500oC) = 6.8000 kJ/kg∙K. h4 = h(P = Pcond = 10 kPa, s4 = s3). We see that this state is in the mixed region so we have to compute the quality to determine the enthalpy. xout = 0.8202. With P4 = 10 kPa and x4 = 0.82027, we find the value of h4 = hf(P4 = 10 kPa) + x4 hfg(P4 = 10 kPa) = 191.81 + (0.8202)(2392.` kJ/kg) or h4 = 2153.7 kJ/kg. The heat input to the steam generator, qh = h3 – h2 = 3411.4 kJ/kg – 198.87 kJ/kg = 3212.5 kJ/kg The condenser heat rejection, ql = |h1 – h4| = |191.81 kJ/kg – 2153.7 kJ/kg| = 1961.8 kJ/kg. The net work, w = qh - |qL| = 3212.5 kJ/kg| - 1961.8 kJ/kg = 1250.6 kJ/kg. The efficiency = w / qH = (1250.6 kJ/kg) / (3212.5 kJ/kg) or = 38.9%. The mass flow, The heat rejection rate from the steam to the cooling water is the product of the mass flow rate and the value of |qL|: This heat is added to the cooling water. The cooling water flow is modeled as a steady flow with negligible kinetic and potential energies. There is no useful work. We model the enthalpy change of the cooling water by the equation h = cpT since we assume that the effect of pressure changes on the enthalpy of the relatively incompressible liquid water will be negligible. Applying the first law to the cooling water then gives the following relationship between the condenser heat rejection and the cooling water temperature rise, Tcw: We can solve this equation for Tcw, andsubstitute in the given values including the heat capacity of liquid water to give cp,cw = 4.18 kJ/kg∙K (Table A-3(a) on page 914 of the text for liquid water at 25oC) to obtain the final answer for the temperature rise. Tcw = 8.44oC. 4. A steam power plant operates on an ideal regenerative Rankine cycle. Steam enters the turbine at 6 MPa and 450oC and is condensed in the condenser at 20 kPa. Steam is extracted from the turbine at 0.4 MPa to heat the feedwater in an open feedwater heater. Water leaves the feedwater heater as a saturated liquid. Show the cycle on a T-s diagram and determine (a) the net work per kilogram of steam flowing through the boiler and (b) the thermal efficiency of the cycle. � The diagram of the components in the cycle is shown on the left. In terms of the numbered points on this diagram, the input data for the problem give P5 = 6 MPa, T5 = 450oC, Pcond = 20 kPa, and PFWH = 0.4 MPa. For the ideal cycle in which there are no line losses in pressure or temperature and no pressure drops in heat transfer devices, we have P4 = P5,= 6 MPa, P2 = P3 = P6 = P7 = PFWH = 0.4 MPa, and P1 = P8 = Pcond = 20 kPa. The ideal cycle has isentropic work devices so s8 = s7 = s6 = s5; s2 = s1 and s4 = s3. Finally points 1 and 3 are saturated liquid. As usual, we assume that the individual components are steady-flow devices with negligible kinetic and potential energies. There is no useful work in the steam generator, feedwater heater, or condenser. The turbine and pumps are reversible and adiabatic meaning that there is no heat transfer or entropy change. Thus the first law for each device only one inlet and one outlet is q = w + hout – hin. We begin by determining the enthalpy at each point in the cycle. The properties at state one as those of a saturated liquid at the condenser pressure: h1 = hf(20 kPa) = 251.42 kJ/kg and v1 = 0.001017 m3/kg. The pumps are isentropic and we calculate the work of the first pump as follows: |wp1| = v1(P2 – P1). Thus, We then find h2 = h1 + |wP1| = 251.42 kJ/kg + 0.39 kJ/kg = 251.80 kJ/kg. The properties at state three are also those of a saturated liquid. Here the pressure is the feedwater heater pressure so that h3 = hf(400 kPa) = 604.66 kJ/kg and v3 = 0.001084 m3/kg. We use the vP calculation for isentropic pump work for the second pump. We then find h4 = h3 + |wP2| = 604.66 kJ/kg + 6.07 kJ/kg = 610.73 kJ/kg. h5 = h(6 MPa, 450oC) = 3302.9 kJ/kg. s5 = s(6 MPa, 450oC) =6.7219 kJ/kg∙K. h6 = h(P = PFWH = 400 kPa, s6 = s5). We see that this state is in the mixed region so we have to compute the quality to determine the enthalpy. h6 = hf(P6 = 400 kPa) + x6 hfg(P6 = 400 kPa) = 604.66 kJ/kg + (0.9661)(2133.4 kJ/kg) or h6 = 2665.7 kJ/kg. State 7 is the same as state 6 so we have h7 = 2665.7 kJ/kg. h8 = h(P = Pcond = 20 kPa, s8 = s5). We see that this state is in the mixed region so we have to compute the quality to determine the enthalpy. h8 = hf(P8 = 20 kPa) + x8 hfg(P8 = 20 kPa) = 251.42 kJ/kg + (0.8325)(2357.5 kJ/kg) or h8 = 2213.97 kJ/kg. In this cycle there are three distinct mass flow rates at different points in the cycle. These are shown in the equations below. (Here, represents the mass flow into the feedwater heater.) Taking a mass and energy balance around the feedwater heater gives the following relation for the mass flow ratio. We can substitute the enthalpy values found above to compute this ratio. We can compute the heat input rate for the steam generator, using as the mass flow rate in the steam generator. The power output from the two turbine stages is given by the following equation, which accounts for the differences in mass flow rate in the two stages. Finally, the total power input to the pumps is computed by accounting for the differences in mass flow rates. We now have the necessary information to compute the cycle efficiency. We can divide by the mass flow rate, to get the following equation for the efficiency in terms of the mass flow rate ratio that we found from our analysis of the feedwater heater. In this form, the numerator of the efficiency equation is the net work per unit mass flowing through the steam generator. Substituting the values found for the enthalpies in the cycle and the mass flow rate ratio gives the net work per unit mass flowing through the steam generator as follows: From the equations for the efficiency and the net work, we see that we can use the computed value of work to simplify the efficiency calculation. = 37.8% 5. Repeat problem 4 with the open feedwater heater replaced by a closed feedwater heater. Assume that the feedwater leaves the heater at the condensation temperature of the extracted steam and that the extracted steam leaves the heater as a saturated liquid and is pumped to the line carrying the feedwater. The diagram of the components in the cycle is shown on the left. In the closed feedwater heater, the feed water flows from point w to point 4, without mixing with the extracted steam. (The steam enters at point 8, transfers heat to the feed water without mixing, and leaves at point 3. In terms of the numbered points on this diagram, the input data for the problem give P7 = 6 MPa, T7 = 450oC, Pcond = 20 kPa, and P8 = 0.4 MPa. We are also told that point 3 is a saturated liquid and T4 has the same temperature as this saturated liquid For the ideal cycle in which there are no line losses in pressure or temperature and no pressure drops in heat transfer devices, we have P2 = P4 = P5 = P6 = P7 = 6 MPa, P3 = P8 = 0.4 MPa, and P1 = P10 = Pcond = 20 kPa. The ideal cycle has isentropic work devices so s10 = s9 = s8 = s7; s2 = s1 and s5 = s3. Finally points 1 and 3 are saturated liquid. In this cycle there are three distinct mass flow rates at different points in the cycle. These are shown in the equations below. (Here, represents the mass flow into the feedwater heater.) Taking a mass balance around the mixing chamber gives the following relation among the three mass flow rates. As usual, we assume that the individual components are steady-flow devices with negligible kinetic and potential energies. There is no useful work in the steam generator, feedwater heater, or condenser. The turbine and pumps are reversible and adiabatic meaning that there is no heat transfer or entropy change. Thus the first law for each device with only one inlet and one outlet is q = w + hout – hin. We begin by determining the enthalpy at each point in the cycle. The properties at state one as those of a saturated liquid at the condenser pressure: h1 = hf(20 kPa) = 251.42 kJ/kg and v1 = 0.001017 m3/kg. The pumps are isentropic and we calculate the work of the first pump as follows: |wp1| = v1(P2 – P1). Thus, We then find h2 = h1 + |wP1| = 251.42 kJ/kg + 6.08 kJ/kg = 257.50 kJ/kg. The properties at state three are also those of a saturated liquid. Here the pressure is the feedwater heater pressure so that h3 = hf(400 kPa) = 604.66 kJ/kg and v3 = 0.001084 m3/kg. We use the vP calculation for isentropic pump work for the second pump. We then find h5 = h3 + |wP2| = 604.66 kJ/kg + 6.07 kJ/kg = 610.73 kJ/kg. According to the problem information T4 has the same temperature as the saturated liquid at point three. From the saturation tables we find this temperature as 143.61oC. This is a compressed liquid and we can use the following data in the compressed liquid. We can use a double interpolation in the compressed liquid tables to find the enthalpy at this point. First we use two interpolations to find the enthalpy at the desired temperature of 143/61oC at the two pressures bounding the given pressure of 6 MPa in the tables. We can now use these two values to find the desired enthalpy at 6 MPa. The mixing chamber has no heat or work, but is has three different mass flowrates. Thus the first law and mass conservation equations for this device can be written as shown below and manipulated to get an equation for h6 in terms of mass flow rate ratios. Thus, we can compute h6 if we know the mass flow rate ratio in the above equation. We can find this mass flow rate ratio from an analysis of the closed feedwater heater. Application of the first law for no heat and work (and recognizing that the two streams in this device do not mix) gives the following result. We have already seen how to compute h1, h3, and h4, and we will determine h8 below. Thus we will be able to compute the mass flow rate ratio shown above from enthalpy values. To compute the ratio required to compute h6, we have to make the following computations. We continue to find enthalpy values, using the conventional methods for the isentropic turbine work. h7 = h(6 MPa, 450oC) = 3302.9 kJ/kg. s7 = s(6 MPa, 450oC) =6.7219 kJ/kg∙K. h8 = h(P = P8 = 400 kPa, s8 = s7). We see that this state is in the mixed region so we have to compute the quality to determine the enthalpy. h8 = hf(P8 = 400 kPa) + x8 hfg(P8 = 400 kPa) = 604.66 kJ/kg + (0.9661)(2133.4 kJ/kg) or h8 = 2665.67 kJ/kg. State 9 is the same as state 9 so we have h9 = 2665.67 kJ/kg. h10 = h(P = Pcond = 20 kPa, s10 = s7). We see that this state is in the mixed region so we have to compute the quality to determine the enthalpy. h10 = hf(P10 = 20 kPa) + x10 hfg(P10 = 20 kPa) = 251.42 kJ/kg + (0.8325)(2357.5 kJ/kg) or h10 = 2213.97 kJ/kg. We now have all the enthalpy values required to compute the mass flow rate ratios With the value just found for , we can compute h6: We can compute the heat input rate for the steam generator, using as the mass flow rate in the steam generator. The power output from the two turbine stages is given by the following equation, which accounts for the differences in mass flow rate in the two stages. Finally, the total power input to the pumps is computed by accounting for the differences in mass flow rates. We now have the necessary information to compute the cycle efficiency. We can divide by the mass flow rate, to get the following equation for the efficiency in terms of the mass flow rate ratio that we found from our analysis of the feedwater heater. In this form, the numerator of the efficiency equation is the net work per unit mass flowing through the steam generator. Substituting the values found for the enthalpies in the cycle and the mass flow rate ratio gives the net work per unit mass flowing through the steam generator as follows: From the equations for the efficiency and the net work, we see that we can use the computed value of work to simplify the efficiency calculation. = 37.7% 6 A steam power plant operates on an ideal reheat-regenerative Rankine cycle and has a net power output of 80 MW. Steam enters the high-pressure turbine at 10 MPa and 550oC and leaves at 0.8 MPa. Some of the steam is extracted at this pressure to heat the feedwater in an open feedwater heater. The rest of the steam is reheated to 500oC and is expanded in the low pressure turbine to the condenser pressure of 10 kPa. Show the cycle on a T-s diagram and determine (a) the mass flow rate of steam flowing through the boiler and (b) the thermal efficiency of the cycle. EMBED Word.Picture.8 �� The diagram of the components in the cycle is shown on the left. In terms of the numbered points on this diagram, the input data for the problem give P5 = 10 MPa, T5 = 550oC, Pcond = 10 kPa, and PFWH = 0.8 MPa, and T7 = 500oC. For the ideal cycle in which there are no line losses in pressure or temperature and no pressure drops in heat transfer devices, we have P4 = P5,= 10 MPa, P2 = P3 = P6 = P7 = PFWH = 0.8 MPa, and P1 = P8 = Pcond = 20 kPa. The ideal cycle has isentropic work devices so s8 = s7, s6 = s5; s2 = s1 and s4 = s3. Finally points 1 and 3 are saturated liquid. As usual, we assume that the individual components are steady-flow devices with negligible kinetic and potential energies. There is no useful work in the steam generator, feedwater heater, or condenser. The turbine and pumps are reversible and adiabatic meaning that there is no heat transfer or entropy change. Thus the first law for each device only one inlet and one outlet is q = w + hout – hin. We begin by determining the enthalpy at each point in the cycle. The properties at state one as those of a saturated liquid at the condenser pressure: h1 = hf(10 kPa) = 191.81 kJ/kg and v1 = 0.001010 m3/kg. The pumps are isentropic and we calculate the work of the first pump as follows: |wp1| = v1(P2 – P1). Thus, We then find h2 = h1 + |wP1| = 191.81 kJ/kg + 0.80 kJ/kg = 192.61 kJ/kg. The properties at state three are also those of a saturated liquid. Here the pressure is the feedwater heater pressure so that h3 = hf(800 kPa) = 720.87 kJ/kg and v3 = 0.001115 m3/kg. We use the vP calculation for isentropic pump work for the second pump. We then find h4 = h3 + |wP2| = 720.87 kJ/kg + 10.26 kJ/kg = 731.13 kJ/kg. h5 = h(10 MPa, 550oC) = 3502.0 kJ/kg. s5 = s(1 MPa, 550oC) =6.7585 kJ/kg∙K. h6 = h(P = PFWH = 800 kPa, s6 = s5). This state is in the gas region so we have to find h6 by interpolation between the first two rows at 800 kPa. This gives h6 = 2812,8 kJ/kg. h7 = h(0.8 MPa, 500oC) = 3481.3 kJ/kg. s7 = s(0.8 MPa, 500oC) =7.8692 kJ/kg∙K. h8 = h(P = Pcond = 10 kPa, s8 = s7). We see that this state is in the mixed region so we have to compute the quality to determine the enthalpy. h8 = hf(P8 = 10 kPa) + x8 hfg(P8 = 10 kPa) = 191.81 kJ/kg + (0.9627)(2392.1 kJ/kg) or h8 = 2494.7 kJ/kg. In this cycle there are three distinct mass flow rates at different points in the cycle. These are shown in the equations below. (Here, represents the mass flow into the feedwater heater.) Taking a mass and energy balance around the feedwater heater gives the following relation for the mass flow ratio. We can substitute the enthalpy values found above to compute this ratio. We can compute the heat input rate for the steam generator, using as the mass flow rate for the initial the steam generator flow and mb for the reheat flow. The power output from the two turbine stages is given by the following equation, which accounts for the differences in mass flow rate in the two stages. Finally, the total power input to the pumps is computed by accounting for the differences in mass flow rates. We now have the necessary information to compute the cycle efficiency. We can divide by the mass flow rate, to get the following equation for the efficiency in terms of the mass flow rate ratio that we found from our analysis of the feedwater heater. In this form, the numerator of the efficiency equation is the net work per unit mass flowing through the steam generator. Substituting the values found for the enthalpies in the cycle and the mass flow rate ratio gives the net work per unit mass flowing through the steam generator as follows: From this specific work, we can find the mass flow rate required for a power output of 80 MW. From the equations for the efficiency and the net work, we see that we can use the computed value of work to simplify the efficiency calculation. = 44.4% An alternative approach for finding the efficiency is to determine the heat loss in the condenser. . Since this is the rejected heat, we can use the following approach for computing the efficiency. Applying the results previously found to this equation gives... Jacaranda (Engineering) 3519 Mail Code Phone: 818.677.6448 E-mail: � HYPERLINK mailto:lcaretto@csun.edu ��lcaretto@csun.edu� 8348 Fax: 818.677.7062 _1113986164.unknown _1239791763.unknown _1239793584.unknown _1239803961.unknown _1352632192.doc 46 Mixing Chamber 1 7 8 10 High Pressure Turbine (T1) Low Pressure Turbine (T2) Condenser Pump (P1) Steam Generator Feedwater Heater Pump (P2) 2 3 5 9 _1352632460.unknown _1352632609.unknown _1352633159.unknown _1352633177.unknown _1352633053.unknown _1352632512.unknown _1352632404.unknown _1239804692.unknown _1351664691.unknown _1351665062.unknown _1351665178.unknown _1351664782.unknown _1239804711.unknown _1239804038.unknown _1239802274.unknown _1239803778.unknown _1239803860.unknown _1239802367.unknown _1239801855.unknown _1239802021.unknown _1239801799.unknown _1239793684.unknown _1239792884.unknown _1239792957.unknown _1239792970.unknown _1239792936.unknown _1239792250.unknown _1239792465.unknown _1239792072.unknown _1239790121.unknown 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318.9599975586 291.4254821777 347.4516052246 306.0278381348 368.8721984863 318.9599975586 391.4805969238 333.2144836426 415.2580322266 354.4805358887 440.1489624023 372.7752441406 466.0597595215 393.3832458496 492.8244384766 425.0064147949 520.1244567871 453.0573486328 547.3703674316 485.5660766602 573.5540222168 537.1405090332 584.211920166 584.211920166 584.211920166 615.3873352051 584.211920166 638.9596618652 584.211920166 647.2824157715 584.211920166 632.8575500488 584.211920166 617.0636657715 584.211920166 577.9946350098 584.211920166 523.2960876465 584.211920166 485.3729003906 584.211920166 451.7770141602 584.211920166 413.8124450684 597.4862731934 389.3320068359 632.2977355957 367.8860534668 681.8373474121 343.3577636719 745.4446472168 327.1732543945 773.15 323.15 312.670324707 295.6454833984 284.127355957 273.598638916 1 2 3 4 1 - 2 Pump 2 - 3 Steam generator 3 - 4 Turbine 4 - 1 Condenser Saturation Condenser Pump Steam Generator Turbine Entropy (kJ/kg-K) Temperature (K) Rankine Cycle Diagram Names Names for Units Error code look-up table SI_C 1 0 No error SI_K 2 1 Invalid input variable specification Engl_F 3 2 Invalid input variable specification Engl_R 4 3 Unknown error Names for Inputs 4 Input (1 or both) > maximum P 1 5 Input (1 or both) < minimum v 2 6 No convergence T 3 7 Input T & P are saturation values u 4 8 No convergence (liquid) s 5 9 Cannot do compressed liquid h 6 10 No convergence x 7 Names for Substances Ammonia 2 Refrigerant12 26 Water 37 P-v chart 1000 100000000 100000000 100000000 100000000 100000000 100000000 28420080 2000 75000000 75000000 75000000 10000000 10000000 10000000 12349.3310546875 2100 56927520 42984896 50000000 8580862 1553795.625 101347.734375 12349.3310546875 5000 28813848 27076868 24181000 8580862 1553795.625 101347.734375 12349.3310546875 10000 10000000 15515990 22079540 8580862 1553795.625 101347.734375 12349.3310546875 20000 11651130 10000000 22079540 8580862 1553795.625 101347.734375 12349.3310546875 50000 5849789.5 6753890.5 21759468 8580862 1553795.625 101347.734375 12349.3310546875 100000 2931267.75 3472211 17892072 8580862 1553795.625 101347.734375 12349.3310546875 200000 1174078.25 1760085.125 11665344 4603129 1553795.625 101347.734375 12349.3310546875 500000 587304.375 709794.5625 10000000 2474430.75 1553795.625 101347.734375 12349.3310546875 1000000 293718.875 355857.0625 5436423 1280137.125 1027871.0625 101347.734375 12349.3310546875 2000000 117503.5859375 178168.40625 2852382 522268.8125 426722.125 101347.734375 12349.3310546875 5000000 58754.46875 71324.9296875 1459898.75 262827.15625 215882.171875 101347.734375 12349.3310546875 10000000 29377.904296875 35672.0546875 592044.0625 131835.765625 108563.9375 84993.75 12349.3310546875 15000000 11751.322265625 17838.42578125 297367.8125 52835.4921875 43574.08984375 34265.6328125 12349.3310546875 20000000 5875.6611328125 7135.9458007812 149020.125 26434.599609375 21811.716796875 17177.126953125 7440.3129882812 22088050 2937.8305664062 3568.0688476562 59688.7109375 13221.51171875 18131.580078125 14282.4296875 2980.0952148438 18584896 1784.0584716797 29857.796875 5289.6157226562 10912.0185546875 8599.60546875 1490.7087402344 15316675 14932.2587890625 2644.9763183594 4366.2846679688 3442.4875488281 745.5195922852 9181853 5973.7094726562 1322.5302734375 2183.3884277344 1721.6843261719 3982750 2986.9892578125 1091.7557373047 860.9522705078 1992371.25 1493.5281982422 970882.9375 368110.4375 175678.734375 83734.2578125 31469.1171875 15035.4345703125 12349.3310546875 7196.8666992188 2725.5100097656 1310.3555908203 631.09375 101347.734375 Saturation T = 1000 C iostherm T = 500 C isotherm Critical Isotherm T = 300 C isotherm T = 200 C isotherm T = 100 C isotherm T = 50 C isotherm Specific volume (m3/kg) Pressure (Pascals) P-v diagram for Water Critical P-v 1000 100000000 100000000 100000000 100000000 100000000 2000 75000000 75000000 75000000 10000000 10000000 2100 56927520 42984896 50000000 8580862 1553795.625 5000 28813848 27076868 24181000 8580862 1553795.625 10000 10000000 15515990 22079540 8580862 1553795.625 20000 11651130 10000000 22079540 8580862 1553795.625 50000 5849789.5 6753890.5 21759468 8580862 1553795.625 100000 2931267.75 3472211 17892072 8580862 1553795.625 200000 1174078.25 1760085.125 11665344 4603129 1553795.625 500000 587304.375 709794.5625 10000000 2474430.75 1553795.625 1000000 293718.875 355857.0625 5436423 1280137.125 1027871.0625 2000000 117503.5859375 178168.40625 2852382 522268.8125 426722.125 5000000 58754.46875 71324.9296875 1459898.75 262827.15625 215882.171875 10000000 29377.904296875 35672.0546875 592044.0625 131835.765625 108563.9375 15000000 11751.322265625 17838.42578125 297367.8125 52835.4921875 43574.08984375 20000000 5875.6611328125 7135.9458007812 149020.12526434.599609375 21811.716796875 22088050 2937.8305664062 3568.0688476562 59688.7109375 13221.51171875 18131.580078125 18584896 1784.0584716797 29857.796875 5289.6157226562 10912.0185546875 15316675 14932.2587890625 2644.9763183594 4366.2846679688 9181853 5973.7094726562 1322.5302734375 2183.3884277344 3982750 2986.9892578125 1091.7557373047 1992371.25 1493.5281982422 970882.9375 368110.4375 175678.734375 83734.2578125 31469.1171875 15035.4345703125 12349.3310546875 7196.8666992188 2725.5100097656 1310.3555908203 631.09375 101347.734375 Saturation T = 1000 C isotherm T = 500 C isotherm Critical Isotherm T = 300 C isotherm T = 200 C isotherm Specific volume (m3/kg) Pressure (Pascals) P-v diagram for Water around Critical Region Superheat P-v 1000 100000000 100000000 100000000 100000000 100000000 100000000 28420080 2000 75000000 75000000 75000000 10000000 10000000 10000000 12349.3310546875 2100 56927520 42984896 50000000 8580862 1553795.625 101347.734375 12349.3310546875 5000 28813848 27076868 24181000 8580862 1553795.625 101347.734375 12349.3310546875 10000 10000000 15515990 22079540 8580862 1553795.625 101347.734375 12349.3310546875 20000 11651130 10000000 22079540 8580862 1553795.625 101347.734375 12349.3310546875 50000 5849789.5 6753890.5 21759468 8580862 1553795.625 101347.734375 12349.3310546875 100000 2931267.75 3472211 17892072 8580862 1553795.625 101347.734375 12349.3310546875 200000 1174078.25 1760085.125 11665344 4603129 1553795.625 101347.734375 12349.3310546875 500000 587304.375 709794.5625 10000000 2474430.75 1553795.625 101347.734375 12349.3310546875 1000000 293718.875 355857.0625 5436423 1280137.125 1027871.0625 101347.734375 12349.3310546875 2000000 117503.5859375 178168.40625 2852382 522268.8125 426722.125 101347.734375 12349.3310546875 5000000 58754.46875 71324.9296875 1459898.75 262827.15625 215882.171875 101347.734375 12349.3310546875 10000000 29377.904296875 35672.0546875 592044.0625 131835.765625 108563.9375 84993.75 12349.3310546875 15000000 11751.322265625 17838.42578125 297367.8125 52835.4921875 43574.08984375 34265.6328125 12349.3310546875 20000000 5875.6611328125 7135.9458007812 149020.125 26434.599609375 21811.716796875 17177.126953125 7440.3129882812 22088050 2937.8305664062 3568.0688476562 59688.7109375 13221.51171875 18131.580078125 14282.4296875 2980.0952148438 18584896 1784.0584716797 29857.796875 5289.6157226562 10912.0185546875 8599.60546875 1490.7087402344 15316675 14932.2587890625 2644.9763183594 4366.2846679688 3442.4875488281 745.5195922852 9181853 5973.7094726562 1322.5302734375 2183.3884277344 1721.6843261719 3982750 2986.9892578125 1091.7557373047 860.9522705078 1992371.25 1493.5281982422 970882.9375 368110.4375 175678.734375 83734.2578125 31469.1171875 15035.4345703125 12349.3310546875 7196.8666992188 2725.5100097656 1310.3555908203 631.09375 101347.734375 Saturation T = 1000 C iostherm T = 500 C isotherm Critical Isotherm T = 300 C isotherm T = 200 C isotherm T = 100 C isotherm T = 50 C isotherm Specific volume (m3/kg) Pressure (Pascals) P-v diagram for Water in Superheat Region h-s 4284.5302734375 2312.3317871094 1664.5982666016 28.576499939 903.237121582 293.3174743652 4377.76171875 2424.6103515625 1678.0816650391 72.4002532959 855.6442871094 251.4717712402 4436.9624023438 2847.28515625 1710.7135009766 75.6462478638 852.4208984375 233.1692352295 4482.609375 3128.8054199219 1851.4371337891 137.15675354 865.3916625977 209.471496582 4557.4750976562 3301.0502929688 2045.6938476562 191.7832489014 911.5153198242 209.6671600342 4610.5756835938 3373.1716308594 2126.9338378906 251.8970031738 988.3880004883 210.2611541748 4605.7944335938 3412.7602539062 2360.9418945312 341.2192382812 1142.1334228516 211.2511444092 4622.7202148438 3450.7180175781 2725.8115234375 417.9165039062 1603.3696289062 213.2311401367 4631.3676757812 3469.7192382812 2965.1706542969 504.651763916 2372.0964355469 219.1711273193 4636.6201171875 3481.1083984375 3012.0307617188 639.7344970703 2792.7209472656 229.0710906982 4638.3813476562 3484.9013671875 3121.2189941406 762.4935302734 2825.7622070312 248.8710174561 4639.2641601562 3486.7963867188 3173.8195800781 908.9182739258 2858.6884765625 308.2708129883 4639.7944335938 3487.9338378906 3200.0070800781 1154.5045166016 2869.2219238281 407.2704772949 4639.9711914062 3488.3125 3215.6479492188 1407.8640136719 2874.4025878906 605.2698364258 4640.0600585938 3488.501953125 3220.8464355469 1609.5314941406 2877.4829101562 1199.2677001953 4640.1127929688 3488.6157226562 3223.4428710938 1826.5794677734 2878.5053710938 2189.2644042969 3488.6538085938 3224.9992675781 2069.646484375 2878.6774902344 2591.5949707031 3488.6726074219 3225.5180664062 2483.5900878906 2879.0151367188 2592.6472167969 3225.7775878906 2600.9157714844 2879.3212890625 2593.6005859375 3225.9331054688 2738.6010742188 2879.4230957031 2593.91796875 3225.9848632812 2801.0151367188 2879.4741210938 2594.0769042969 3226.0107421875 2798.9753417969 2776.4731445312 2734.2629394531 2700.2490234375 2667.2453613281 2626.6965332031 2598.6828613281 2591.5949707031 2572.9384765625 2542.1479492188 2521.0725097656 2501.6936035156 T = 1000 C T = 500 C Critical T Saturation T = 200 C T = 50 C Entropy (kJ/kg-K) Enthalpy (kJ/kg) h-s Diagram for Water PowerPoint It appears that a Power Point chart will allow individual lines to be popped onto the chart with a single mouse click. However, those charts need to have a common set of values along the x axis Can we define a set of volumes which have a data point for each isotherm and the saturation line? Saturation Curve T = 50 C isotherm T = 100 C isotherm T = 200 C isotherm T = 300 C isotherm Critical isotherm T = 500 C isotherm T = 1000 C isotherm V P V P V P V P V P V P V P V P m^3/kg Pascals m^3/kg Pascals m^3/kg Pascals m^3/kg Pascals m^3/kg Pascals m^3/kg Pascals m^3/kg Pascals m^3/kg Pascals 0.0010000879 1000 0.001 2.84E+07 0.001 100000000 0.001 0.0010000879 0.0010000879 0.001 0.001 0.0010015428 2000 0.0010015428 2.47E+07 0.0010015428 9.60E+07 0.0010015428 0.0010015428 0.0010015428 0.0010015428 0.0010015428 0.0010054707 5000 0.0010054707 1.53E+07 0.0010054707 8.58E+07 0.0010054707 0.0010054707 0.0010054707 0.0010054707 0.0010054707 0.001010 10000 0.001010 4.17E+06 0.001010 7.37E+07 0.0010102882 0.0010102882 0.0010102882 0.0010102882 0.0010102882 0.0010118484 12349.3310546875 0.0010118484 12349.3310546875 0.0010118484 6.98E+07 0.0010118484 0.0010118484 0.0010118484 0.0010118484 0.0010118484 0.0010170657 20000 0.0010170657 12349.3310546875 0.0010170657 5.72E+07 0.0010170657 0.0010170657 0.0010170657 0.0010170657 0.0010170657 0.0010298092 50000 0.0010298092 12349.3310546875 0.0010298092 2.82E+07 0.0010298092 0.0010298092 0.0010298092 0.0010298092 0.0010298092 0.0010431278 100000 0.0010431278 12349.3310546875 0.0010434389 101347.734375 0.0010434389 0.0010431278 0.0010431278 0.0010431278 0.00104343890.001060641 200000 0.001060641 12349.3310546875 0.001060641 101347.734375 0.001060641 142959872 0.001060641 0.001060641 0.001060641 0.001060641 0.0010928017 500000 0.0010928017 12349.3310546875 0.0010928017 101347.734375 0.0010928017 82797688 0.0010928017 0.0010928017 0.0010928017 0.0010928017 0.0011273494 1000000 0.0011273494 12349.3310546875 0.0011273494 101347.734375 0.0011273494 33440160 0.0011273494 0.0011273494 0.0011273494 0.0011273494 0.001156345 1553499.25 0.001156345 12349.3310546875 0.001156345 101347.734375 0.001156345 1687808 0.001156345 0.001156345 0.001156345 0.001156345 0.001176456 2000000 0.001176456 12349.3310546875 0.001176456 101347.734375 0.001176456 1553795.625 0.001176456 136884864 0.001176456 0.001176456 0.001176456 0.0012857464 5000000 0.0012857464 12349.3310546875 0.0012857464 101347.734375 0.0012857464 1553795.625 0.0012857464 50109520 0.0012857464 143219392 0.0012857464 0.0012857464 0.0014040433 8580854 0.0014040433 12349.3310546875 0.0014040433 101347.734375 0.0014040433 1553795.625 0.0014040433 8580862 0.0014040433 85571272 0.0014040433 0.0014040433 0.0014529194 10000000 0.0014529194 12349.3310546875 0.0014529194 101347.734375 0.0014529194 1553795.625 0.0014529194 8580862 0.0014529194 70797728 0.0014529194 0.0014529194 0.0016574394 15000000 0.0016574394 12349.3310546875 0.0016574394 101347.734375 0.0016574394 1553795.625 0.0016574394 8580862 0.0016574394 37786512 0.0016574394 131899080 0.0016574394 0.0020408698 20000000 0.0020408698 12349.3310546875 0.0020408698 101347.734375 0.0020408698 1553795.625 0.0020408698 8580862 0.0020408698 23733296 0.0020408698 88112000 0.0020408698 0.003 22088050 0.003 12349.3310546875 0.003 101347.734375 0.003 1553795.625 0.003 8580862 0.003 22090496 0.003 59345884 0.003 201284080 0.0070000002 18584896 0.0070000002 12349.3310546875 0.0070000002 101347.734375 0.0070000002 1553795.625 0.0070000002 8580862 0.0070000002 20455956 0.0070000002 34759672 0.0070000002 81059264 0.0099999998 15316675 0.0099999998 12349.3310546875 0.0099999998 101347.734375 0.0099999998 1553795.625 0.0099999998 8580862 0.0099999998 17895004 0.0099999998 27076868 0.0099999998 56927520 0.0199999996 9181853 0.0199999996 12349.3310546875 0.0199999996 101347.734375 0.0199999996 1553795.625 0.0199999996 8580862 0.0199999996 11666531 0.0199999996 15515990 0.0199999996 28813848 0.0216745604 8580854 0.0216745604 12349.3310546875 0.0216745604 101347.734375 0.0216745604 1553795.625 0.0216745604 8580862 0.0216745604 10984456 0.0216745604 14473696 0.0216745604 26621214 0.0500000007 3982750 0.0500000007 12349.3310546875 0.0500000007 101347.734375 0.0500000007 1553795.625 0.05 4603129 0.0500000007 5436813 0.0500000007 6753890.5 0.0500000007 11651130 0.1000000015 1992371.25 0.1000000015 12349.3310546875 0.1000000015 101347.734375 0.1000000015 1553795.625 0.1 2474430.75 0.1000000015 2852562.5 0.1000000015 3472211 0.1000000015 5849789.5 0.1273585111 1553795.625 0.1273585111 12349.3310546875 0.1273585111 101347.734375 0.1273585111 1553795.625 0.1273585111 1.97E+06 0.1273585111 2262524.5 0.1273585111 2742495.25 0.1273585111 4597424 0.200000003 970882.9375 0.200000003 12349.3310546875 0.200000003 101347.734375 0.2 1027871.0625 0.2 1280137.125 0.200000003 1459985.375 0.200000003 1760085.125 0.200000003 2931267.75 0.5 368110.4375 0.5 12349.3310546875 0.5 101347.734375 0.5 426722.125 0.5 522268.8125 0.5 592077.875 0.5 709794.5625 0.5 1174078.25 1 175678.734375 1 12349.3310546875 1 101347.734375 1 215882.171875 1 262827.15625 1 297384.5625 1 355857.0625 1 587304.375 1.6729232073 101347.734375 1.6729232073 12349.3310546875 1.6729232073 101347.734375 1.6729232073 1.30E+05 1.6729232073 1.58E+05 1.6729232073 178086.78125 1.6729232073 212946.4375 1.6729232073 351128.84375 2 83734.2578125 2 12349.3310546875 2 84993.75 2 108563.9375 2 131835.765625 2 149028.46875 2 178168.40625 2 293718.875 5 31469.1171875 5 12349.3310546875 5 34265.6328125 5 43574.08984375 5 52835.4921875 5 59692.0390625 5 71324.9296875 5 117503.5859375 10 15035.4345703125 10 12349.3310546875 10 17177.126953125 10 21811.716796875 10 26434.599609375 10 29859.458984375 10 35672.0546875 10 58754.46875 12.0319795609 12349.3310546875 12.0319795609 12349.3310546875 12.0319795609 14282.4296875 12.0319795609 1.81E+04 12.0319795609 2.20E+04 12.0319795609 24818.6328125 12.0319795609 29649.05078125 12.0319795609 48832.296875 20 7196.8666992188 20 7440.3129882812 20 8599.60546875 20 10912.0185546875 20 13221.51171875 20 14933.0888671875 20 17838.42578125 20 29377.904296875 50 2725.5100097656 50 2980.0952148438 50 3442.4875488281 50 4366.2846679688 50 5289.6157226562 50 5974.0419921875 50 7135.9458007812 50 11751.322265625 100 1310.3555908203 100 1490.7087402344 100 1721.6843261719 100 2183.3884277344 100 2644.9763183594 100 2987.1555175781 100 3568.0688476562 100 5875.6879882812 200 631.09375 200 745.5195922852 200 860.9522705078 200 1091.7557373047 200 1322.5302734375 200 1493.611328125 200 1784.0584716797 200 2937.8508300781 V m^3/kg P-v Diagram 0.0010000879 0.0010015428 0.0010054707 0.0010102882 0.0010118484 0.0010170657 0.0010298092 0.0010431278 0.001060641 0.0010928017 0.0011273494 0.001156345 0.001176456 0.0012857464 0.0014040433 0.0014529194 0.0016574394 0.0020408698 0.003 0.0070000002 0.0099999998 0.0199999996 0.0216745604 0.0500000007 0.1000000015 0.1273585111 0.200000003 0.5 1 1.6729232073 2 5 10 12.0319795609 20 50 100 200 P Pascals Saturation Curve 1000 2000 5000 10000 12349.3310546875 20000 50000 100000 200000 500000 1000000 1553499.25 2000000 5000000 8580854 10000000 15000000 20000000 22088050 18584896 15316675 9181853 8580854 3982750 1992371.25 1553795.625 970882.9375 368110.4375 175678.734375 101347.734375 83734.2578125 31469.1171875 15035.4345703125 12349.3310546875 7196.8666992188 2725.5100097656 1310.3555908203 631.09375 P Pascals T = 50 C isotherm 28420080 24663056 15287168 4171264 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 12349.3310546875 7440.3129882812 2980.0952148438 1490.7087402344 745.5195922852 P Pascals T = 100 C isotherm 100000000 96038824 85838760 73668768 69807704 57181504 28214736 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 101347.734375 84993.75 34265.6328125 17177.126953125 14282.4296875 8599.60546875 3442.4875488281 1721.6843261719 860.9522705078 P Pascals T = 200 C isotherm 142959872 82797688 33440160 1687808 1553795.625 1553795.625 1553795.625 1553795.625 1553795.625 1553795.625 1553795.625 1553795.625 1553795.625 1553795.625 1553795.625 1553795.625 1553795.625 1553795.625 1027871.0625426722.125 215882.171875 129644.40625 108563.9375 43574.08984375 21811.716796875 18131.580078125 10912.0185546875 4366.2846679688 2183.3884277344 1091.7557373047 P Pascals T = 300 C isotherm 136884864 50109520 8580862 8580862 8580862 8580862 8580862 8580862 8580862 8580862 8580862 4603129 2474430.75 1971914.375 1280137.125 522268.8125 262827.15625 157512.640625 131835.765625 52835.4921875 26434.599609375 21972.6484375 13221.51171875 5289.6157226562 2644.9763183594 1322.5302734375 P Pascals Critical isotherm 143219392 85571272 70797728 37786512 23733296 22090496 20455956 17895004 11666531 10984456 5436813 2852562.5 2262524.5 1459985.375 592077.875 297384.5625 178086.78125 149028.46875 59692.0390625 29859.458984375 24818.6328125 14933.0888671875 5974.0419921875 2987.1555175781 1493.611328125 P Pascals T = 500 C isotherm 131899080 88112000 59345884 34759672 27076868 15515990 14473696 6753890.5 3472211 2742495.25 1760085.125 709794.5625 355857.0625 212946.4375 178168.40625 71324.9296875 35672.0546875 29649.05078125 17838.42578125 7135.9458007812 3568.0688476562 1784.0584716797 P Pascals T = 1000 C isotherm 201284080 81059264 56927520 28813848 26621214 11651130 5849789.5 4597424 2931267.75 1174078.25 587304.375 351128.84375 293718.875 117503.5859375 58754.46875 48832.296875 29377.904296875 11751.322265625 5875.6879882812 2937.8508300781 T-s 280.1273254395 318.9599975586 318.9599975586 319.324407959 773.15 290.6508239746 318.9599975586 319.324407959 327.2010559082 318.9599975586 291.4254821777 347.4516052246 306.0278381348 368.8721984863 318.9599975586 391.4805969238 333.2144836426 415.2580322266 354.4805358887 440.1489624023 372.7752441406 466.0597595215 393.3832458496 492.8244384766 425.0064147949 520.1244567871 453.0573486328 547.3703674316 485.5660766602 573.5540222168 537.1405090332 584.211920166 584.211920166 584.211920166 615.3873352051 584.211920166 638.9596618652 584.211920166 647.2824157715 584.211920166 632.8575500488 584.211920166 617.0636657715 584.211920166 577.9946350098 584.211920166 523.2960876465 584.211920166 485.3729003906 584.211920166 451.7770141602 584.211920166 413.8124450684 597.4862731934 389.3320068359 632.2977355957 367.8860534668 681.8373474121 343.3577636719 745.4446472168 327.1732543945 773.15 323.15 312.670324707 295.6454833984 284.127355957 273.598638916 Saturation Condenser Pump Steam Generator Turbine Entropy (kJ/kg-K) Temperature (K) Temperature-Entropy Rankine Cycle Diagram P-v Data Saturation Properties T = 50 C isotherm P = 10 MPa isobar P V T u s h x Error Code P V T u s h x Error Code P V T u s h x Error Code Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg 280.1273254395 1000 1000 0.0010070801 6.9773254395 28.5752506256 0.1032763645 28.576499939 0 0 0 1.00E+08 100000000 0.0009730784 50 196.0089569092 0.6573936939 293.3174743652 0 0 0 2.50E-01 10,000,000 0.000996615 16.9412231445 70.1728591919 0.25 80.1395111084 0 0 290.0912231445 290.6508239746 2000 2000 0.0009994507 17.5008239746 72.3982467651 0.2568418086 72.4002532959 0 0 0 5.00E+07 50000000 0.0009914358 50 201.8995056152 0.6798597574 251.4717712402 0 0 0 0.5 10,000,000 0.0010015413 34.9356994629 144.8605957031 0.5 154.8761138916 0 0 308.0856994629 291.4254821777 2100 2100 0.0010032654 18.2754821777 75.6439971924 0.2679961026 75.6462478638 0 0 0 0.001 28420080 0.001 50 204.7491607666 0.6897144914 233.1692352295 0 0 0 10,000,000 0.001006 46.174 191.474 0.649 201.534 0 0 319 306.0278381348 5000 5000 0.0010051727 32.8778381348 137.1510009766 0.473926276 137.15675354 0 0 0 0.0010118484 12349.3310546875 0.0010118484 50 209.4589996338 0.7038320303 209.471496582 0 0 0 0.75 10,000,000 0.0010096759 54.0510559082 224.1673736572 0.75 234.2629699707 0 0 327.2010559082 318.9599975586 10000 10000 0.0010099411 45.8099975586 191.7732543945 0.6487446427 191.7832489014 0 0 0 0.002 12349.3310546875 0.0020000001 50 209.6424560547 0.7044374943 209.6671600342 0.000082134 0 0 1 10,000,000 0.0010208768 74.3016052246 308.3638305664 1 318.5721435547 0 0 347.4516052246 333.2144836426 20000 20000 0.0010170937 60.0644836426 251.8767547607 0.8330942392 251.8970031738 0 0 0 0.005 12349.3310546875 0.0049999999 50 210.1994018555 0.7062756419 210.2611541748 0.0003314905 0 0 1.25 10,000,000 0.0010353095 95.7221984863 397.735168457 1.25 408.0879821777 0 0 368.8721984863 354.4805358887 50000 50000 0.0010297298 81.3305358887 341.167755127 1.092867136 341.2192382812 0 0 0 0.01 12349.3310546875 0.0099999998 50 211.1276550293 0.7093392611 211.2511444092 0.0007470847 0 0 1.5 10,000,000 0.0010534121 118.3305969238 492.5739135742 1.5 503.1069335938 0 0 391.4805969238 372.7752441406 100000 100000 0.0010430813 99.6252441406 417.8122558594 1.3036909103 417.9165039062 0 0 0 0.02 12349.3310546875 0.0199999996 50 212.984161377 0.7154663801 213.2311401367 0.001578273 0 0 1.75 10,000,000 0.0010758436 142.1080322266 593.1676635742 1.75 603.9260864258 0 0 415.2580322266 393.3832458496 200000 200000 0.0010606647 120.2332458496 504.4395141602 1.5298799276 504.651763916 0 0 0 0.05 12349.3310546875 0.0500000007 50 218.5536499023 0.7338479161 219.1711273193 0.0040718382 0 0 2 10,000,000 0.0011034898 166.9989624023 699.7941894531 2 710.8295898438 0 0 440.1489624023 425.0064147949 500000 500000 0.0010927916 151.8564147949 639.1873779297 1.8593251705 639.7344970703 0 0 0 0.1 12349.3310546875 0.1000000015 50 227.836151123 0.7644836903 229.0710906982 0.0082277795 0 0 2.25 10,000,000 0.001137581 192.9097595215 812.7094726562 2.25 824.0852050781 0 0 466.0597595215 453.0573486328 1000000 1000000 0.0011273474 179.9073486328 761.366027832 2.1377363205 762.4935302734 0 0 0 0.2 12349.3310546875 0.200000003 50 246.4011383057 0.8257553577 248.8710174561 0.0165396631 0 0 2.5 10,000,000 0.0011799716 219.6744384766 932.1307373047 2.5 943.9296875 0 0 492.8244384766 485.5660766602 2000000 2000000 0.0011764541 212.4160766602 906.565246582 2.4473495483 908.9182739258 0 0 0 0.5 12349.3310546875 0.5 50 302.0961608887 1.009570241 308.2708129883 0.0414753146 0 0 2.75 10,000,000 0.0012336485 246.9744567871 1058.2062988281 2.75 1070.5427246094 0 0 520.1244567871 537.1405090332 5000000 5000000 0.0012857467 263.9905090332 1148.0754394531 2.9204797745 1154.5045166016 0 0 0 1 12349.3310546875 1 50 394.9211120605 1.3159284592 407.2704772949 0.0830347314 0 0 3 10,000,000 0.0013036457 274.2203674316 1190.9523925781 3 1203.9880371094 0 0 547.3703674316 584.211920166 10000000 10000000 0.0014529191 311.061920166 1393.3342285156 3.3599638939 1407.8640136719 0 0 0 2 12349.3310546875 2 50 580.571105957 1.9286448956 605.2698364258 0.166153565 0 0 3.25 10,000,000 0.0013989889 300.4040222168 1330.1518554688 3.25 1344.1418457031 0 0 573.5540222168 615.3873352051 15000000 15000000 0.0016574394 342.2373352051 1584.6700439453 3.68305754661609.5314941406 0 0 0 5 12349.3310546875 5 50 1137.5211181641 3.7667942047 1199.2677001953 0.4155100584 0 0 10,000,000 0.0014529191 311.061920166 1393.3342285156 3.3599638939 1407.8640136719 0 0 584.211920166 638.9596618652 20000000 20000000 0.0020408698 365.8096618652 1785.7620849609 4.0141925812 1826.5794677734 0 0 0 10 12349.3310546875 10 50 2065.7709960938 6.8303766251 2189.2644042969 0.831104219 0 0 3.5 10,000,000 0.0024829351 311.061920166 1464.8448486328 3.5 1489.6748046875 0.0621499643 0 584.211920166 647.2824157715 0.003 22088050 0.003 374.1324157715 2003.7415771484 4.3838248253 2069.646484375 0 0 0 12.0319795609 12349.3310546875 12.0319795609 50 2443.0080566406 8.0754041672 2591.5949707031 1 0 0 3.75 10,000,000 0.0043217749 311.061920166 1592.5095214844 3.75 1635.7277832031 0.173103407 0 584.211920166 632.8575500488 0.007 18584896 0.0070000002 359.7075500488 2353.4938964844 5.0571789742 2483.5900878906 1 0 0 20 7440.3129882812 20 50 2443.8410644531 8.3118257523 2592.6472167969 0 0 0 4 10,000,000 0.0061606145 311.061920166 1720.1739501953 4 1781.7807617188 0.2840568423 0 584.211920166 617.0636657715 0.01 15316675 0.0099999998 343.9136657715 2447.7495117188 5.2888450623 2600.9157714844 1 0 0 50 2980.0952148438 50 50 2444.595703125 8.7364244461 2593.6005859375 0 0 0 4.25 10,000,000 0.0079994546 311.061920166 1847.8386230469 4.25 1927.8337402344 0.3950102925 0 584.211920166 577.9946350098 0.02 9181853 0.0199999996 304.8446350098 2554.9638671875 5.6646595001 2738.6010742188 1 0 0 100 1490.7087402344 100 50 2444.8471679688 9.0568933487 2593.91796875 0 0 0 4.5 10,000,000 0.0098382942 311.061920166 1975.5032958984 4.5 2073.88671875 0.5059637427 0 584.211920166 523.2960876465 0.05 3982750 0.0500000007 250.1460876465 2601.8774414062 6.0710382462 2801.0151367188 1 0 0 200 745.5195922852 200 50 2444.9729003906 9.3770751953 2594.0769042969 0 0 0 4.75 10,000,000 0.0116771339 311.061920166 2103.1677246094 4.75 2219.9396972656 0.6169171929 0 584.211920166 485.3729003906 0.1 1992371.25 0.1000000015 212.2229003906 2599.7380371094 6.3413991928 2798.9753417969 1 0 0 5 10,000,000 0.0135159744 311.061920166 2230.8325195312 5 2365.9926757812 0.7278706431 0 584.211920166 451.7770141602 0.2 970882.9375 0.200000003 178.6270141602 2582.2966308594 6.5957322121 2776.4731445312 1 0 0 T = 100 C isotherm 5.25 10,000,000 0.015354814 311.061920166 2358.4970703125 5.25 2512.0456542969 0.8388240933 0 584.211920166 413.8124450684 0.5 368110.4375 0.5 140.6624450684 2550.2075195312 6.9227585793 2734.2629394531 1 0 0 P V T u s h x Error Code 0 5.5 10,000,000 0.0171936527 311.061920166 2486.1616210938 5.5 2658.0986328125 0.9497775435 0 584.211920166 389.3320068359 1 175678.734375 1 116.1820068359 2524.5703125 7.1695685387 2700.2490234375 1 0 0 Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg 0 10,000,000 0.0180259943 311.061920166 2543.9482421875 5.613161087 2724.2087402344 1 0 584.211920166 367.8860534668 2 83734.2578125 2 94.7360534668 2499.7768554688 7.418302536 2667.2453613281 1 0 0 0.001 100000000 0.0010000423 100 394.6253356934 1.2365700006 494.6303405762 0 0 0 5.75 10,000,000 0.0197829455 324.3362731934 2607.1867675781 5.75 2805.0163574219 0 0 597.4862731934 343.3577636719 5 31469.1171875 5 70.2077636719 2469.3510742188 7.7513313293 2626.6965332031 1 0 0 0.0010384951 10000000 0.0010384951 100 415.7702331543 1.2986160517 426.1547546387 0 0 0 6 10,000,000 0.0232329369 359.1477355957 2726.1086425781 6 2958.4377441406 0 0 632.2977355957 327.1732543945 10 15035.4345703125 10 54.0232543945 2448.3286132812 8.0067329407 2598.6828613281 1 0 0 0.0010434389 101347.734375 0.0010434389 100 419.3838806152 1.3079042435 419.4895019531 0 0 0 6.25 10,000,000 0.0270207487 408.6873474121 2852.1923828125 6.25 3122.4001464844 0 0 681.8373474121 323.15 12.0319795609 12349.3310546875 12.0319795609 50 2443.0080566406 8.0754041672 2591.5949707031 1 0 0 0.002 101347.734375 0.0020000001 100 420.5777587891 1.3113635778 420.7803039551 0.0005721471 0 0 6.5 10,000,000 0.0311331674 472.2946472168 2989.2016601562 6.5 3300.533203125 0 0 745.4446472168 312.670324707 20 7196.8666992188 20 39.520324707 2429.0002441406 8.2651395798 2572.9384765625 1 0 0 0.005 101347.734375 0.0049999999 100 424.3219909668 1.3222125769 424.8286132812 0.0023665344 0 0 500 10,000,000 0.0327864923 500 3045.3068847656 6.5956840515 3373.1716308594 0 0 773.15 295.6454833984 50 2725.5100097656 50 22.4954833984 2405.8723144531 8.6111927032 2542.1479492188 1 0 0 0.01 101347.734375 0.0099999998 100 430.5624389648 1.3402942419 431.5758056641 0.0053571798 0 0 6.75 10,000,000 0.0355423354 548.2873535156 3140.7282714844 6.75 3496.1516113281 0 0 821.4373535156 284.127355957 100 1310.3555908203 100 10.977355957 2390.037109375 8.8761510849 2521.0725097656 1 0 0 0.02 101347.734375 0.0199999996 100 443.0433044434 1.376457572 445.0701599121 0.0113384714 0 0 7 10,000,000 0.0402458273 635.4683837891 3309.7236328125 7 3712.1818847656 0 0 908.6183837891 273.598638916 200 631.09375 200 0.448638916 2375.4748535156 9.1436481476 2501.6936035156 1 0 0.05 101347.734375 0.0500000007 100 480.4859313965 1.4849476814 485.5532226562 0.0292823464 0 0 7.25 10,000,000 0.0452664569 733.2961425781 3498.6831054688 7.25 3951.3474121094 0 0 1006.4461425781 373.15 1.6729232073 101347.734375 1.6729232073 100 2506.0358886719 7.3539810181 2675.5830078125 1 0 0.1 101347.734375 0.1000000015 100 542.8903198242 1.6657643318 553.0250244141 0.0591888018 0 0 7.5 10,000,000 0.0506356359 841.4736328125 3709.9086914062 7.5 4216.2646484375 0 0 1114.6236328125 473.1408752441 0.001156345 1553499.25 0.001156345 199.9908752441 850.5833740234 2.3304858208 852.3796386719 0 0 0.2 101347.734375 0.200000003 100 667.6990356445 2.027397871 687.9685058594 0.1190017164 0 0 7.75 10,000,000 0.0563831553 959.7253417969 3945.65625 7.75 4509.4858398438 0 0 1232.8753417969 573.1499694824 0.0014040433 8580854 0.0014040433 299.9999694824 1332.3638916016 3.2538225651 1344.4116210938 0 0 0.5 101347.734375 0.5 100 1042.1253662109 3.1122980118 1092.7990722656 0.2984404564 0 0 8 10,000,000 0.0625349581 1087.8165283203 4208.1323242188 8 4833.4775390625 0 0 1360.9665283203 573.1499694824 0.0216745604 8580854 0.0216745604 299.9999694824 2562.5004882812 5.7035746574 2748.4870605469 1 0 1 101347.734375 1 100 1666.1689453125 4.9204654694 1767.5167236328 0.597505033 0 0 8.25 10,000,000 0.0691199005 1225.7839355469 4499.611328125 8.25 5190.8100585938 0 0 1498.9339355469 473.15 0.1273585111 1553795.625 0.1273585111 200 2594.83203125 6.4313855171 2792.7209472656 1 0 1.6729232073 101347.734375 1.6729232073 100 2506.0358886719 7.3539810181 2675.5830078125 1 0 0 8.5 10,000,000 0.076124765 1299.8499755859 4660.6987304688 8.5 5387.1455078125 0 0 1572.9999755859 2 84993.75 2 100 2507.6774902344 7.4396276474 2677.6650390625 0 0 0 8.75 10,000,000 0.0832633525 1299.8499755859 4662.5708007812 8.75 5388.9750976562 0 0 1572.9999755859 5 34265.6328125 5 100 2512.6850585938 7.8723583221 2684.0131835938 0 0 0 9 10,000,000 0.0904747173 1299.8499755859 4664.1689453125 9 5390.5361328125 0 0 1572.9999755859 10 17177.126953125 10 1002514.3439941406 8.195514679 2686.115234375 0 0 0 12.0319795609 14282.4296875 12.0319795609 100 2514.6237792969 8.2814369202 2686.4697265625 0 0 0 20 8599.60546875 20 100 2515.1716308594 8.517036438 2687.1638183594 0 0 0 50 3442.4875488281 50 100 2515.6677246094 8.9408884048 2687.7922363281 0 0 0 P = 10 kPa isotherm 100 1721.6843261719 100 100 2515.8327636719 9.2611074448 2688.0012207031 0 0 0 P V T u s h x Error Code 200 860.9522705078 200 100 2515.9155273438 9.58116436 2688.1059570312 0 0 Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg 2.50E-01 10,000 0.001001192 16.8183288574 70.1391983032 0.25 70.1492996216 0 0 289.9683288574 T = 200 C isotherm 0 0.5 10,000 0.0010058597 34.6771850586 144.8419036865 0.5 144.8521728516 0 0 307.8271850586 P V T u s h x Error Code 0 10,000 0.0010099411 45.8099975586 191.7732543945 0.6487446427 191.7832489014 0 0 318.9599975586 Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg 0 0.75 10,000 0.1990846395 45.8099975586 222.0889282227 0.75 224.0796508789 0.0134996772 0 318.9599975586 0.001 100000000 0.0010827142 200 794.9663696289 2.2061827183 903.237121582 0 0 0 1 10,000 0.688131988 45.8099975586 296.9384460449 1 303.8196411133 0.0468304455 0 318.9599975586 0.001147975 10000000 0.001147975 200 844.164855957 2.3170874119 855.6442871094 0 0 0 1.25 10,000 1.1771793365 45.8099975586 371.7879638672 1.25 383.5596618652 0.0801612139 0 318.9599975586 0.001156345 1553795.625 0.001156345 200 850.6242675781 2.3305718899 852.4208984375 0 0 0 1.5 10,000 1.6662267447 45.8099975586 446.637512207 1.5 463.2996520996 0.1134919822 0 318.9599975586 0.002 1553795.625 0.0020000001 200 862.2841796875 2.3579854965 865.3916625977 0.0066849492 0 0 1.75 10,000 2.1552741528 45.8099975586 521.4869995117 1.75 543.0396118164 0.1468227506 0 318.9599975586 0.005 1553795.625 0.0049999999 200 903.7464599609 2.4554674625 911.5153198242 0.0304563306 0 0 2 10,000 2.6443214417 45.8099975586 596.3365478516 2 622.7796020508 0.1801535189 0 318.9599975586 0.01 1553795.625 0.0099999998 200 972.8500976562 2.6179375648 988.3880004883 0.0700753033 0 0 2.25 10,000 3.133368969 45.8099975586 671.1860351562 2.25 702.5196533203 0.2134842873 0 318.9599975586 0.02 1553795.625 0.0199999996 200 1111.0576171875 2.9428777695 1142.1334228516 0.1493132412 0 0 2.5 10,000 3.6224162579 45.8099975586 746.0355834961 2.5 782.2596435547 0.2468150556 0 318.9599975586 0.05 1553795.625 0.0500000007 200 1525.6799316406 3.9176976681 1603.3696289062 0.3870270848 0 0 2.75 10,000 4.1114635468 45.8099975586 820.8851318359 2.75 861.9996337891 0.280145824 0 318.9599975586 0.1 1553795.625 0.1000000015 200 2216.7170410156 5.5423979759 2372.0964355469 0.7832167745 0 0 3 10,000 4.6005110741 45.8099975586 895.7346191406 3 941.7396240234 0.3134765923 0 318.9599975586 0.1273585111 1553795.625 0.1273585111 200 2594.83203125 6.4313855171 2792.7209472656 1 0 0 3.25 10,000 5.0895586014 45.8099975586 970.5841064453 3.25 1021.4796142578 0.3468073606 0 318.9599975586 0.2 1027871.0625 0.200000003 200 2620.1879882812 6.6776914597 2825.7622070312 0 0 0 3.5 10,000 5.5786056519 45.8099975586 1045.4337158203 3.5 1101.2196044922 0.380138129 0 318.9599975586 0.5 426722.125 0.5 200 2645.3273925781 7.1376600266 2858.6884765625 0 0 0 3.75 10,000 6.0676531792 45.8099975586 1120.283203125 3.75 1180.9595947266 0.4134688973 0 318.9599975586 1 215882.171875 1 200 2653.33984375 7.4692230225 2869.2219238281 0 0 0 4 10,000 6.5567007065 45.8099975586 1195.1326904297 4 1260.6995849609 0.4467996657 0 318.9599975586 2 108563.9375 2 200 2657.2746582031 7.7948174477 2874.4025878906 0 0 0 4.25 10,000 7.045747757 45.8099975586 1269.9822998047 4.25 1340.4395751953 0.480130434 0 318.9599975586 5 43574.08984375 5 200 2659.6125488281 8.2210712433 2877.4829101562 0 0 0 4.5 10,000 7.5347952843 45.8099975586 1344.8317871094 4.5 1420.1795654297 0.5134612322 0 318.9599975586 10 21811.716796875 10 200 2660.3879394531 8.5420827866 2878.5053710938 0 0 0 4.75 10,000 8.0238428116 45.8099975586 1419.6812744141 4.75 1499.9196777344 0.5467919707 0 318.9599975586 12.0319795609 18131.580078125 12.0319795609 200 2660.5187988281 8.6276435852 2878.6774902344 0 0 0 5 10,000 8.5128898621 45.8099975586 1494.5308837891 5 1579.6596679688 0.5801227689 0 318.9599975586 20 10912.0185546875 20 200 2660.7749023438 8.8625354767 2879.0151367188 0 0 0 5.25 10,000 9.0019369125 45.8099975586 1569.3803710938 5.25 1659.3996582031 0.6134535074 0 318.9599975586 50 4366.2846679688 50 200 2661.0070800781 9.2857475281 2879.3212890625 0 0 0 5.5 10,000 9.4909849167 45.8099975586 1644.2298583984 5.5 1739.1396484375 0.6467843056 0 318.9599975586 100 2183.3884277344 100 200 2661.0842285156 9.6057529449 2879.4230957031 0 0 5.75 10,000 9.9800319672 45.8099975586 1719.0793457031 5.75 1818.8796386719 0.6801150441 0 318.9599975586 200 1091.7557373047 200 200 2661.1228027344 9.925702095 2879.4741210938 0 0 6 10,000 10.4690790176 45.8099975586 1793.9288330078 6 1898.6196289062 0.7134458423 0 318.9599975586 0 6.25 10,000 10.9581270218 45.8099975586 1868.7783203125 6.25 1978.3596191406 0.7467765808 0 318.9599975586 T = 300 C isotherm 0 6.5 10,000 11.4471740723 45.8099975586 1943.6280517578 6.5 2058.099609375 0.780107379 0 318.9599975586 P V T u s h x Error Code 0 6.75 10,000 11.9362211227 45.8099975586 2018.4775390625 6.75 2137.8395996094 0.8134381175 0 318.9599975586 Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg 0 7 10,000 12.4252691269 45.8099975586 2093.3269042969 7 2217.5795898438 0.8467689157 0 318.9599975586 0.0012130128 100000000 0.0012130128 300 1207.0416259766 3.0206084251 1328.3431396484 0 0 0 7.25 10,000 12.9143161774 45.8099975586 2168.1765136719 7.25 2297.3195800781 0.8800996542 0 318.9599975586 0.0013975828 10000000 0.0013975828 300 1328.5965576172 3.2471649647 1342.5731201172 0 0 0 7.5 10,000 13.4033641815 45.8099975586 2243.0258789062 7.5 2377.0595703125 0.9134304523 0 318.9599975586 0.0014040433 8580862 0.0014040433 300 1332.3656005859 3.2538256645 1344.4138183594 0 0 0 7.75 10,000 13.892411232 45.8099975586 2317.8754882812 7.75 2456.7995605469 0.9467611909 0 318.9599975586 0.002 8580862 0.0020000001 300 1368.5317382812 3.3258485794 1385.6938476562 0.0294001773 0 0 8 10,000 14.3814582825 45.8099975586 2392.7250976562 8 2536.5395507812 0.980091989 0 318.9599975586 0.005 85808620.0049999999 300 1550.5894775391 3.6884069443 1593.494140625 0.1773983687 0 0 10,000 14.6735601425 45.8099975586 2437.431640625 8.1493215561 2584.1672363281 1 0 318.9599975586 0.01 8580862 0.0099999998 300 1854.0190429688 4.2926707268 1939.8280029297 0.4240620136 0 0 8.25 10,000 15.4857397079 63.221496582 2462.2907714844 8.25 2617.1481933594 0 0 336.371496582 0.02 8580862 0.0199999996 300 2460.8779296875 5.5011982918 2632.4956054688 0.9173893332 0 0 8.5 10,000 17.6837177277 110.5215454102 2530.1928710938 8.5 2707.0300292969 0 0 383.6715454102 0.0216745604 8580862 0.0216745604 300 2562.5002441406 5.7035737038 2748.4870605469 1 0 0 8.75 10,000 20.1618289948 164.0323486328 2607.8837890625 8.75 2809.501953125 0 0 437.1823486328 0.05 4603129 0.0500000007 300 2708.7028808594 6.2662382126 2938.8596191406 0 0 0 9 10,000 22.9424095154 224.1755981445 2696.748046875 9 2926.1721191406 0 0 497.3255981445 0.1 2474430.75 0.1000000015 300 2761.6677246094 6.6486468315 3009.1108398438 0 0 0 0.2 1280137.125 0.200000003 300 2787.1359863281 6.9981245995 3043.1635742188 0 0 0 Pump 0.5 522268.8125 0.5 300 2802.0283203125 7.4381194115 3063.1628417969 0 0 0 P V T u s h x Error Code 1 262827.15625 1 300 2806.9221191406 7.7636060715 3069.7492675781 0 0 0 Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg 2 131835.765625 2 300 2809.3552246094 8.086274147 3073.0268554688 0 0 0 Inlet 10,000 0.0010099411 45.8099975586 191.7732543945 0.6487446427 191.7832489014 0 0 318.9599975586 5 52835.4921875 5 300 2810.810546875 8.5108089447 3074.9880371094 0 0 0 Outlet 10,000,000 0.0010060103 46.174407959 191.4741363525 0.6487446427 201.5341491699 0 0 319.324407959 10 26434.599609375 10 300 2811.294921875 8.8312540054 3075.6411132812 0 0 0 20 13221.51171875 20 300 2811.537109375 9.1514234543 3075.9672851562 0 0 0 Turbine 50 5289.6157226562 50 300 2811.6821289062 9.5744667053 3076.1630859375 0 0 0 P V T u s h x Error Code 100 2644.9763183594 100 300 2811.73046875 9.8944158554 3076.2282714844 0 0 Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg 200 1322.5302734375 200 300 2811.7546386719 10.2143383026 3076.2607421875 0 0 Inlet 10,000,000 0.0327864923 500 3045.3068847656 6.5956840515 3373.1716308594 0 0 773.15 Outlet 10,000 11.6343507767 45.8099975586 1972.2756347656 6.5956840515 2088.6188964844 0.7928642631 0 318.9599975586 T = 374.1 isotherm P V T u s h x Error Code 0 Condenser Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg 0 P V T u s h x Error Code 0.0013661224 100000000 0.0013661224 374.1000061035 1527.9857177734 3.5718967915 1664.5982666016 0 0 0 Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg 0.0014375476 75000000 0.0014375476 374.1000061035 1570.2646484375 3.6467859745 1678.0816650391 0 0 0 Inlet 10,000.000 11.634 45.810 1,972.276 6.596 2,088.619 0.793 0 318.9599975586 0.0015543412 50000000 0.0015543412 374.1000061035 1632.9963378906 3.754750967 1710.7135009766 0 0 0 Outlet 10,000 0 46 192 1 192 0 0 318.9599975586 0.002 24181000 0.0020000001 374.1000061035 1803.0750732422 4.0397267342 1851.4371337891 0 0 0 0.002843854 22079540 0.002843854 374.1000061035 1982.9028320312 4.3468565941 2045.6938476562 0 0 0 0.0033218244 22079540 0.0033218244 374.1000061035 2053.5893554688 4.4723720551 2126.9338378906 1 0 0 0.005 21759468 0.0049999999 374.1000061035 2252.1447753906 4.8361368179 2360.9418945312 0 0 0 0.01 17892072 0.0099999998 374.1000061035 2546.8908691406 5.4458150864 2725.8115234375 0 0 0 0.02 11665344 0.0199999996 374.1000061035 2731.8640136719 5.9544596672 2965.1706542969 0 0 0 0.0244644266 10000000 0.0244644266 374.1000061035 2767.3862304688 6.0837836266 3012.0307617188 0 0 0 0.05 5436423 0.0500000007 374.1000061035 2849.3977050781 6.4973158836 3121.2189941406 0 0 0 0.1 2852382 0.1000000015 374.1000061035 2888.5812988281 6.8569455147 3173.8195800781 0 0 0 0.2 1459898.75 0.200000003 374.1000061035 2908.02734375 7.19647789 3200.0070800781 0 0 0 0.5 592044.0625 0.5 374.1000061035 2919.6259765625 7.6310372353 3215.6479492188 0 0 0 1 297367.8125 1 374.1000061035 2923.4787597656 7.9548063278 3220.8464355469 0 0 0 2 149020.125 2 374.1000061035 2925.4025878906 8.2766342163 3223.4428710938 0 0 0 5 59688.7109375 5 374.1000061035 2926.5556640625 8.7006702423 3224.9992675781 0 0 0 10 29857.796875 10 374.1000061035 2926.9399414062 9.0209503174 3225.5180664062 0 0 0 20 14932.2587890625 20 374.1000061035 2927.1323242188 9.3410377502 3225.7775878906 0 0 0 50 5973.7094726562 50 374.1000061035 2927.2475585938 9.7640314102 3225.9331054688 0 0 0 100 2986.9892578125 100 374.1000061035 2927.2856445312 10.0839633942 3225.9848632812 0 0 200 1493.5281982422 200 374.1000061035 2927.3049316406 10.403878212 3226.0107421875 0 0 T = 500 C isotherm P V T u s h x Error Code 0 Pascals m^3/kg deg C kJ/kg kJ/kg-K kJ/kg 0 0.0018902613 100000000 0.0018902613 500 2123.3056640625 4.4842619896 2312.3317871094 0 0 0 0.0023095764 75000000 0.0023095764 500 2251.3928222656 4.6963043213 2424.6103515625 0 0 0 0.005 42984896 0.0049999999 500 2632.3608398438 5.3767843246 2847.28515625 0 0 0 0.01 27076868 0.0099999998 500 2858.0368652344 5.8871569633 3128.8054199219 0 0 0 0.02 15515990 0.0199999996 500 2990.73046875 6.3206896782 3301.0502929688 0 0 0 0.0327864923 10000000 0.0327864923 500 3045.3068847656 6.5956840515 3373.1716308594 0 0 0 0.05 6753890.5 0.0500000007 500 3075.0656738281 6.8159928322 3412.7602539062 0 0 0 0.1 3472211 0.1000000015 500 3103.4970703125 7.1602678299 3450.7180175781 0 0 0 0.2 1760085.125 0.200000003 500 3117.7021484375 7.4923286438 3469.7192382812 0 0 0 0.5 709794.5625 0.5 500 3126.2111816406 7.9224872589 3481.1083984375 0 0 0 1 355857.0625 1 500 3129.0441894531 8.2448043823 3484.9013671875 0 0 0 2 178168.40625 2 500 3130.4597167969 8.5659103394 3486.7963867188 0 0 0 5 71324.9296875 5 500 3131.3090820312 8.9895133972 3487.9338378906 0 0 0 10 35672.0546875 10 500
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