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