In the generic reaction 2X + Y --> Z, 0.035 moles of X is allowed to react with excess Y at constant pressure. This results in the evolution of 594 J of heat. Calculate the reaction enthalpy for the reaction as written.
In the generic reaction 2X + Y --> Z, 0.035 moles of X is allowed to...
4. Consider a hypothetical reaction involving two reactants, X + Y Z a) Write a "generic rate law for this reaction using variables for the orders of each reactant. b) We want to use the method of integrated rates to determine the order of the reaction with respect to reactant X. What should be true about the concentration of Y in our experiment in order to isolate the behavior of X? c) Write an expression for the pseudo rate constant...
A generic solid, X, has a molar mass of 61.6 g/mol. In a constant-pressure calorimeter, 18.3 g of X is dissolved in 383 g of water at 23.00 °C.X(s) ͢ X(aq)The temperature of the resulting solution rises to 29.10 °C. Assume the solution has the same specific heat as water, 4.184 J/(g·°C), and that there's negligible heat loss to the surroundings. How much heat was absorbed by the solution?What is the enthalpy of the reaction?
A generic solid, X, has a molar mass of 72.6 g/mol. In a constant-pressure calorimeter, 16.6 g of X is dissolved in 365 g of water at 23.00 °C. X($) — X(aq) The temperature of the resulting solution rises to 27.80 °C. Assume the solution has the same specific heat as water, 4.184 J/(g°C), and that there is negligible heat loss to the surroundings. How much heat was absorbed by the solution? 9 kJ What is the enthalpy of the...
A generic solid, X, has a molar mass of 74.3 g/mol. In a constant-pressure calorimeter, 11.5 g of X is dissolved in 213 g of water at 23.00 °C. X(s) X(aq) The temperature of the resulting solution rises to 25.20 °C. Assume the solution has the same specific heat as water, 4.184 J/(g:°C), and that there is negligible heat loss to the surroundings. How much heat was absorbed by the solution? = What is the enthalpy of the reaction? AH...
A generic gas, X, is placed in a sealed glass jar and decomposes to form gaseous Y and solid Z. 2X(g) Y(g)+Z(s) How are these equilibrium quantities affected by the initial amount of X(g) placed in the container? Assume constant temperature. [Y]/[X] at equilibrium mass of Z at equilibrium [X]^2/[Y] at equilibrium [Y]at equilibrium [X] at equilibrium total pressure at equilibrium
For a hypothetical chemical reaction that has the stoichiometry 2X + Y -----Z the following initial data were obtained X (Mol/L Y(Mol/L) rate of formation of Z (Mol/L s .4 .2 1.4 x 10^-3 .4 .4 2.8 x 10^-3 .2 .1 7.0 x 10^-4 .6 .6 4.2 x 10^-3 Give rate Law for this reaction Callculate rate constant and specify units How long must reaction proceed to produce concentration of Z =to .2 molar if initial concentrations of x=.8M and...
A generic solid, X, has a molar mass of 61.0 g/mol. In a constant-pressure calorimeter, 25.5 g of X is dissolved in 387 g of water at 23.00 °C. X(s) X(aq) The temperature of the resulting solution rises to 29.00 °C. Assume the solution has the same specific heat as water, 4.184 1/(8°C), and that there is negligible heat loss to the surroundings. How much heat was absorbed by the solution? = KJ What is the enthalpy of the reaction?...
Suppose X, Y and Z are random variables with joint pdf f(x,y,z) = cxy2z if 0 < x ≤ 2, 0 ≤ y < 1, 0 < z < 1 0 otherwise a.) Find the constant c b.) Calculate P(1 < X ≤ 2, 0.5 ≤ Y < 1) c.) Calculate E(2X+2020) d.) Calculate Var(2X+2020) e.) Calculate E(XZ+2020) I think I understand how to do parts a and c, but I'm less certain of how to proceed on the rest...
Suppose Cor(X,Y)=1/3 and oy = 403. Let Z=2X +3Y. If Var(Z) = 240, calculate Var(X).
b) Verify the Stokes' theorem where F = (2x - y)i + (x +z)j + (3x – 2y)k and S is the part of z = 5 – x2 - y2 above the plane z = 1. Assume that S is oriented upwards.