• Shuffle
    Toggle On
    Toggle Off
  • Alphabetize
    Toggle On
    Toggle Off
  • Front First
    Toggle On
    Toggle Off
  • Both Sides
    Toggle On
    Toggle Off
  • Read
    Toggle On
    Toggle Off
Reading...
Front

Card Range To Study

through

image

Play button

image

Play button

image

Progress

1/73

Click to flip

Use LEFT and RIGHT arrow keys to navigate between flashcards;

Use UP and DOWN arrow keys to flip the card;

H to show hint;

A reads text to speech;

73 Cards in this Set

  • Front
  • Back
  • 3rd side (hint)

Phase changes

H+

Lithium

LI+

Sodium

Na+

Potassium

K+

Rubidium

Rb+

Cesium

Cs+

Silver

Ag+

Magnesium

Mg2+

Calcium

Ca2+

Strontium

Sr2+

Barium

Ba2+

Zinc

Zn2+

Iron (II)

Fe2+

Iron (!!!)

Fe3+

Aluminum

Al3+

Ammonium

NH4+

Fluoride

F-

Chloride

Cl-

Bromide

Br-

Iodide

I-

Oxide

O2-

Sulfide

S2-

Nitride

N3-

Phosphide

P3-

Hydroxide

OH-

Cyanide

CN-

Nitrate

NO3-

Acetate

C2H3O2-

Sulfate

SO4 2-

Hydrogen sulfate (bisulfate)

HSO4-

Carbonate

CO3 2-

Hydrogen Carbonate

HCO3-

Phosphate

PO4 3-

Chlorate

ClO3-

Perchlorate

ClO4-

1 atm

=760 mmHg


=760 torr

Boyle's Law

Volume, of fixed quantity of gas at constant Temp, is inverse proportional to Pressure. (CONSTANT n + T)




V=K*1/P


PV=K


P1V1=P2V2



Charles Law

Volume, of fixed amount of gas at constant pressure, directly proportional to absolute Temp.


(CONSTANT n + P)


V=K*T


V/T=K


V1/T1=V2/T2

Avogardro's Law

Volume, of gas at constant T and constant P is direct proportional to # moles of gas


(CONSTANT T + P)




V=K*n


V/n=K


V1/n1=V2/n2

Ideal Gas Law

PV=nRT

Ideal Gas defined

hypothetical gas that obeys Kinetic Molecular Theory and Ideal Gas Law

STP

I atm


0*C

Combined Gas Law

# moles constant. Doesnt apply with chemical reactions




P1V1/T1 = P2V2/T2

Combined Gas Law


#n & V constant

P1/T1=P2/T2

Combined Gas Law


Constant T

P1V1=P2V2

Combined Gas Law


Constant Pressure

V1/T1=V2/T2

Ideal Gas determine Density / Molar Mass of Gas

D = P * molar / mass


----------------------


R * Temp



If molar mass and Pressure is constant

T increase D decrease

Daltons Law of Partial Pressure

total pressure of mix of gases equal sum of pressure that each exert alone




Ptotal = P1 + P2 + P3 + .....

Gramham's Law of Effusion

rate of effusion of gas inverse to square root of its molar mass




r1 = 1 / square root (fancy M)

lower molar mass

balloons go down

higher molar mass

balloon go up

Diffusion

spread 1 substance through out another

mole fraction (x)

ration of number of moles of one component to total number moles in mix




Xa = mol a / total mol

Partial Pressure

Pa = Xa Ptotal

DeltaH

Q phase change = DeltaH phase change * # moles

Heat of fusion

Change required to change sold at its melting point to a liquid at the same temp

Heat of fusion

Change required to change sold at its melting point to a liquid at the same temp

Heat of vaporization

Change required to change a liquid at its boiling point to a gas at the same temp

Heat of sublimation

Change required to transform a solid directly into the gas phase

Phase change

Converting from one physical state to another requires the molecules to gain enough kinetic energy to overcome the intermolecular forces

Calculate amount of heat needed when the temperature changes

Q= C x mass c DeltaTemp

Calc amount of heat needed during phase change

Q = DeltaH x moles

Phase change chart

Back (Definition)

Phase diagram

Back (Definition)

Ideal gas equation

Combined gas law

Kinetic molecular theory

Real gases

Exotermic reaction

reaction

Endothermic reaction

Phase changes

Back (Definition)

J

J

H