Equations

• Integrated first order

  A) Ln [A]

  B) -kt

  C) +

  D) Ln[A]0

  
• half life equation

  A) ln 2

  B) k

  
• integrated second order

  A) 1

  B) [A]

  C) kt

  D) +

  E) 1

  F) [A]0

  
• Maxwell-Boltzmann distribution: The probability of finding an electron in a given energy level.

  A) number of molecules with energy >Ea

  B) total number of molecules

  C) activation energy

  D) RT

  
• Arrhenius equation

  A) k

  B) A

  C) e

  D) -Ea

  E) /RT

  
• How to work activation energy at different temperatures

  A) ln

  B) k1

  C) k2

  D) Ea

  E) R

  F) 1

  G) T2

  H) -

  I) 1

  J) T1

  
• Average relative speed:

  kb = R/Na (boltzmann constant)

  A) 8

  B) Kb

  C) T

  D) pi

  E) reduced mass

  
• Collision theory

  A) Number of collision between A and B

  B) collision area

  C) x

  D) average relative speed

  E) x

  F) Na

  G) 2

  H) x

  I) [A][B]

  
• Mode of vibration:

  A) boltzmann constant

  B) T

  C) planck constant

  
• rate constant:

  • derivative of Gibbs (K = e^-deltaG/RT) and (deltaG = G(trans) - G (reactants))

  A) frequence of mode of vibration

  B) -Change in transition enthalpy

  C) RT

  D) Change in transition entropy

  E) R

  
• Eyring equations

  A) ln

  B) k

  C) T

  D) -

  E) delta H (trans)

  F) RT

  G) +

  H) ln

  I) Kb

  J) h

  K) +

  L) delta S

  M) R

  
• michaelis-menten equation

  A) rate of conversion from ES to P

  B) [E]0

  C) [S]

  D) Km

  E) +

  F) [S]

  
• michaelis-menten using Vmax

  A) Vmax

  B) 1

  C) +

  D) Km

  E) [S]

  
• Lineweaver -Burk plot (y=mx+c)

  A) V

  B) Vmax

  C) +

  D) Km

  E) Vmax

  F) 1

  G) [S]0