Under standard state conditions, ΔG0=-29.1 kJ for a certain reaction. The value of K, the thermodynamic equilibrium constant, at 25 °C is 1)  7.93 x 10-6 2) 1.26 x 105 3) 1.01 And based on this value we can predict that 4)  The concentration of products is greater than the concentration of reactants at equilibrium. 5)  The concentration of reactants is greater than the concentration of products at equilibrium. 6)  The concentration of products and reactants are roughly the same (equal) at equilibrium

 Based on the graphs below which of the following statements is/are correct The reaction is zero order with respect to A. Increasing the concentration of the reactant by a factor of 3 (3x) will not change the rate of the reaction. The half-life of this reaction stays constant as time goes on.

Plutonium-239 is the primary isotope of plutonium used in nuclear energy. If a nuclear reactor has 5.00 grams of Pu-239, how much would remain after 7 half-lives? 

At a certain temperature the following reaction has an equilibrium constant KC= 3.65  x 102. Determine the equilibrium concentration of HBr if a scientist adds 0.522 M of H2 and Br2 to a vessel. H2(g) + Br2(g) ⇌2HBr(g)

What is the correct equilibrium expression for the following reaction? 2Um(g) + 2Z(l) ⇌ 3J(aq) + 3A(g)

For the following reactions, at 30 oC, a researcher adds 0.453 M X2 and 0.550 M Y2. X2(g) + 3Y2(g) ⇌2XY3(g) The researcher determined there was 0.280 M XY3 at equilibrium. What is the KC for this reaction at 30 oC?

What is the correct equilibrium expression for the following reaction? 2X(g) + 2Y(l) ⇌ 2Q(aq) + 3R(aq)

A flask of Super Kami Water from the world of Dragon Ball has an H₃O⁺ concentration of 4.9 × 10-4 M at 25.0 °C. What is the concentration of OH⁻ in the Super Kami Water?

Which of the following is the non-zero price for which the total revenue is zero?

Which of the following statements is/are correct. At equilibrium the concentration of reactants and products stay constant At equilibrium the rate of the forward reaction is greater than the rate of the reverse reaction At equilibrium forward and reverse reaction stop