Chemical equilibrium Exothermic reaction Enthalpy Removing products Bronsted- Lowry Model Polyprotic acid pH>7 pH> Indicator 12 Weak acid ΔH>0 Endpoint Heat of vaporization Kinetic Energy Kw Keq<1 Increasing pressure Non-polar molecules Endothermic reaction pOH 3.6 Reaction rate Increasing temperature ΔH<0 Temperature Buffer solution Buff Strong base Bases pH<7 Collision Theory Joule Strong acid Amphoteric Adding heat Weak base Acids Le Chatelier's Principle Arrhenius Model Catalyst Activation energy Lewis Model Adding products Increasing concentration Neutralization pH Universe Reversible reaction Increasing surface area Heat of fusion Chemical equilibrium Exothermic reaction Enthalpy Removing products Bronsted- Lowry Model Polyprotic acid pH>7 pH> Indicator 12 Weak acid ΔH>0 Endpoint Heat of vaporization Kinetic Energy Kw Keq<1 Increasing pressure Non-polar molecules Endothermic reaction pOH 3.6 Reaction rate Increasing temperature ΔH<0 Temperature Buffer solution Buff Strong base Bases pH<7 Collision Theory Joule Strong acid Amphoteric Adding heat Weak base Acids Le Chatelier's Principle Arrhenius Model Catalyst Activation energy Lewis Model Adding products Increasing concentration Neutralization pH Universe Reversible reaction Increasing surface area Heat of fusion
(Print)
Chemical equilibrium
Exothermic reaction
Enthalpy
Removing products
Bronsted-Lowry Model
Polyprotic acid
pH>
Indicator
12
Weak acid
ΔH>0
Endpoint
Heat of vaporization
Kinetic Energy
Kw
Keq<1
Increasing pressure
Non-polar molecules
Endothermic reaction
pOH
3.6
Reaction rate
Increasing temperature
ΔH<0
Temperature
Buff
Strong base
Bases
pH<7
Collision Theory
Joule
Strong acid
Amphoteric
Adding heat
Weak base
Acids
Le Chatelier's Principle
Arrhenius Model
Catalyst
Activation energy
Lewis Model
Adding products
Increasing concentration
Neutralization
pH
Universe
Reversible reaction
Increasing surface area
Heat of fusion
