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What does the gap means between the two lines of the graph (which is represented by the yellow marker)? Please explain briefly.

What happens to the trend of the boiling point of the mixture when the amount of octane increase.
Cite some important discussion analysis based on the graph and data which involves the concept of distillation
What does the concept behind the graph wherein the two points of the line meets at the two end. Please explain briefly
What does the gap means between the two lines of the graph (which is represented by the yellow marker)? Please explain briefly.

What happens to the trend of the boiling point of the mixture when the amount of octane increase.
Cite some important discussion analysis based on the graph and data which involves the concept of distillation
What does the concept behind the graph wherein the two points of the line meets at the two end. Please explain briefly
- The following chart below is a plot of VLE data from the Dortmund data bank for a binary mixture of acetone (1) and isopropanol (2) at a constant temperature of 328.15 K. Values for the plot are also included in the table below. The saturated vapor curve is magenta, and the saturated liquid curve is cyan. Answer the following questions related to VLE. Pressure (kPa) c) 95 85 75 65 55 45 35 25 0 T=328.15 K 0.2 0.4 0.6 Mole fraction x1, y1 0.8 1 -P-x -P-y P (kPa) 30.30 34.393 39.93 44.208 52.026 59.05 60.848 69 X1 0 y₁ 0 0.0237 0.1166 0.0642 0.2777 0.0971 0.3625 0.1591 0.4762 0.2353 0.5722 0.2687 0.6024 0.3879 0.6995 71.177 0.4314 0.7284 75.068 0.5234 0.7655 80.287 0.6084 0.8098 85.038 0.7216 0.8617 85.942 0.7338 0.8729 0.8569 0.924 91.22 94.308 0.9214 0.9629 96.91 1 1 A superheated vapor of acetone and isopropanol with mole fractions y₁=0.36 and y2=0.64 is initially at 35 kPa pressure. What pressure must you increase this gas mixture to before it starts to condense? (Hint: you can…arrow_forwardThe following chart below is a plot of VLE data from the Dortmund data bank for a binary mixture of acetone (1) and isopropanol (2) at a constant temperature of 328.15 K. Values for the plot are also included in the table below. The saturated vapor curve is magenta, and the saturated liquid curve is cyan. Pressure (kPa) c) 95 85 75 65 55 45 35 25 0 T=328.15 K 0.2 0.4 0.6 Mole fraction x1, y1 0.8 1 -P-x -P-y P (kPa) 30.30 34.393 39.93 44.208 52.026 59.05 60.848 69 X1 0 y₁ 0 0.0237 0.1166 0.0642 0.2777 0.0971 0.3625 0.1591 0.4762 0.2353 0.5722 0.2687 0.6024 0.3879 0.6995 71.177 0.4314 0.7284 75.068 0.5234 0.7655 80.287 0.6084 0.8098 85.038 0.7216 0.8617 85.942 0.7338 0.8729 0.8569 0.924 91.22 94.308 0.9214 0.9629 96.91 1 1 A superheated vapor of acetone and isopropanol with mole fractions y₁=0.36 and y2=0.64 is initially at 35 kPa pressure. What pressure must you increase this gas mixture to before it starts to condense? (Hint: you can approximate this simply on the plot). Draw the path…arrow_forwardHow many grams of antifreeze would have to be added to 15 kg of water in the trucks cooling system to keep it from freezing during a cold Ohio winter temperatures of -20° Carrow_forward
- QUESTION 3 Using AfGO given below at 25°C for the reactants and products to calculate the standard Gibbs energy AGO. Please enter your answer (unit: kJ/mol) with one decimal. for example, 100.345 is written as 100.3, and pay attention to the sign. AfGO (kJ/mol) SO2 (g) + 12 O2(g) SO3(g) -300.1 0 -374.2arrow_forwardUse the information about three gases, with the properties below to answer the following questions. Nitrogen (N2) Oxygen (02) Argon (Ar) 93.0 °C 83.0 °C 73.0 °C M (kg/kmol) 28 32 40 Use the van der Waals equation of state and mixing rules to calculate the temperature where 100 kmol of a mixture of argon (10 mol%), nitrogen (45 mol%) and oxygen (45 mol %) would occupy 46.27 m³, at a pressure of 6.28 MPa. It is known that the van der Waals constant for nitrogen are a=1.370 atm(m³/kmol)² and b=0.0387 m³/kmol, and for oxygen are a=1.382 atm(m³/kmol)² and b=0.03186 m³/kmol. 63.0 °C Tc (K) 126.2 154.6 150.8 Pc (atm) 33.5 49.8 48 @ 0.04 0.021 -0.004arrow_forward
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