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