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