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