Section 1

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s

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Last updated

6 years ago

Date created

Mar 1, 2020

Cards (126)

Section 1

(50 cards)

s

Front

l=0

Back

fusion

Front

melting

Back

heat capacity

Front

amount of heat needed to change a system by 1˚C

Back

solid CO2

Front

chemical composition of dry ice

Back

London dispersion forces

Front

larger molecules which have higher mass and therefore electron density have stronger...

Back

N=N.(0.5)^time/time half-life

Front

half-life equation

Back

T-shape

Front

AX3E2

Back

equilibrium

Front

happens at lines in phase change charts

Back

octahedral

Front

AX6

Back

Dipole-dipole forces

Front

IMF that exists in polar molecules

Back

p

Front

l=1

Back

never

Front

∆H | ∆S is spontaneous... + | -

Back

n (first quantum number)

Front

variable for energy of e-, goes from 1,2,3 on up

Back

deposition

Front

phase change from gas to solid

Back

+ ∆S

Front

gas > liquid > solid and (aq)>(s) cause...

Back

violet

Front

when n=6 ->2, color=

Back

blue-green

Front

when n=4 ->2, color=

Back

methods of increasing rate

Front

raising heat, adding catalyst, heighten concentration, bigger surface area

Back

∆Hvap

Front

energy needed to vaporize a mole of a liquid

Back

trigonal bipyramidal

Front

AX5

Back

at low temperatures

Front

∆H | ∆S is spontaneous... - | -

Back

l (second quantum number)

Front

variable for type of orbital

Back

vapor pressure

Front

stronger IMF= lower... weaker IMF= higher...

Back

see-saw

Front

AX4E

Back

triple point

Front

temperature-pressure combination at which solid, liquid, and gas states appear

Back

+ ∆S

Front

diatomic molecules forming mixed molecules, e.g. H2 + I2 -> 2HI, means...

Back

sublimation

Front

phase change from solid to gas

Back

4.184

Front

specific heat of water

Back

blue-violet

Front

when n=5 ->2, color=

Back

Balmer Series

Front

spectrum of light when an electron drops to energy level n=2

Back

square planar

Front

AX4E2

Back

effects of IMF

Front

boiling point, melting point, viscosity, vapor pressure, surface tension

Back

adiabatic

Front

change without heat transfer between the system and its surroundings

Back

specific heat

Front

heat needed to change 1 g of substance to 1˚C

Back

ionic

Front

... compounds are most conductive

Back

at high temperatures

Front

∆H | ∆S is spontaneous... + | +

Back

square pyramidal

Front

AX5E

Back

+ ∆S

Front

greater # of moles of gas formed and greater volume formed cause...

Back

always

Front

∆H | ∆S is spontaneous... - | +

Back

-ous acid

Front

if anion ends in -ite, acid name ends in...

Back

hydro-ic acid

Front

if anion ends in -ide, acid name ends in

Back

London dispersion forces

Front

universal IMF for nonpolar molecules

Back

-ic acid

Front

if anion ends in -ate, acid name ends in...

Back

isothermal

Front

change that occurs at constant temperature

Back

boiling point

Front

point at which vapor pressure=air pressure above

Back

Hydrogen bonding

Front

IMF that occurs with FON

Back

critical point

Front

temperature-pressure point after which gas can no longer form liquid

Back

viscosity

Front

thickness

Back

bond energy

Front

energy needed to break a bond

Back

red

Front

when n=3 ->2, color=

Back

Section 2

(50 cards)

not spontaneous

Front

If K<1, then Gº>0 and reaction will be...at chemical equilibrium

Back

condensation

Front

organic reaction in which two functional groups come together, resulting in the release of water

Back

increasing

Front

entropy in the universe is always...

Back

entropy (S)

Front

degree of disorder in a system

Back

Effusion

Front

passage of gas through tiny orifice

Back

eth-

Front

(organics) two carbons

Back

alkene

Front

(organics) double-bonded compound

Back

-anol

Front

ending for alcohols

Back

alkane

Front

(organics) single-bonded compound

Back

rate law

Front

this MUST be determined experimentally

Back

moles solute/kg solvent

Front

molality =

Back

d orbitals

Front

these orbitals are diagonal

Back

hex-

Front

(organics) six carbons

Back

p orbitals

Front

these orbitals are perpendicular

Back

prop-

Front

(organics) three carbons

Back

second

Front

1/[A] vs. time is a ...-order reaction

Back

hydrocarbons

Front

carbon & hydrogen compounds

Back

Diffusion

Front

mixing of gases

Back

geometric isomers

Front

two molecules with identical connectivity but different geometries

Back

m (third quantum number)

Front

variable for orientation of orbital (-1 through +1)

Back

f

Front

l=3

Back

ether

Front

organic w/ -O-

Back

pent-

Front

(organics) five carbons

Back

g solute/g solvent x 100

Front

mass percent

Back

hydrolysis

Front

organic reaction in which water breaks apart a molecule (splitting into two hydroxides)

Back

non-

Front

(organics) nine carbons

Back

third

Front

AP doesn't deal with ...-order reaction, don't pick it!

Back

meth-

Front

(organics) one carbon

Back

alkyne

Front

(organics) triple-bonded compound

Back

hept-

Front

(organics) seven carbons

Back

like

Front

like dissolves...

Back

spontaneous

Front

If K>1, then Gº<0 and reaction will be...at chemical equilibrium

Back

first

Front

ln[A] vs. time is a ...-order reaction

Back

oct-

Front

(organics) eight carbons

Back

s orbitals

Front

these orbitals are spherical

Back

zero

Front

[A] vs. time is a ...-order reaction

Back

amine

Front

organic w/ -NH2

Back

d

Front

l=2

Back

electron affinity

Front

energy involved in gaining an electron to become a negative ion

Back

alcohol

Front

organic w/ -OH group

Back

dec-

Front

(organics) ten carbons

Back

k=Ae^(-Ea/RT)

Front

Arrhenius equation

Back

Arrhenius equation

Front

to find activation energy use the...

Back

C + 273

Front

calculation from K to C

Back

Boltzmann distribution

Front

states molecules at a given temp. vary in kinetic energy along a bell-curve of molecular velocities

Back

activated complex (transition state)

Front

peak of energy diagram

Back

carbohydrates

Front

carbon, hydrogen, oxygen compounds

Back

but-

Front

(organics) four carbons

Back

ln (k1/k2) = (Ea/R)(1/T2-1/T1)

Front

equation to find Ea from reaction rate constants at two different temperatures

Back

s (fourth quantum number)

Front

variable for spin of electron (+.5 or -.5)

Back

Section 3

(26 cards)

-anoate

Front

ester suffix

Back

purple

Front

color of K (flame test)

Back

Ag+, Pb2+, Hg2+, Sr2+, Ca2+, Ba2+

Front

all cations are soluble with sulfate EXCEPT

Back

blue

Front

color of Cs (flame test)

Back

complex ions

Front

transition metals with ammonia, hydroxide, cyanide or thiocyanate form...

Back

Ag+, Pb2+, Hg2+

Front

all cations are soluble with bromide, chloride and iodide EXCEPT

Back

phosphate, sulfide, carbonate, sulfate

Front

generally insoluble anions (names)

Back

-anoic acid

Front

carboxylic acid ending

Back

base

Front

metal oxide + H20 ->

Back

0

Front

∆Hº of pure elements=

Back

diamagnetic

Front

elements which have all electrons paired and relatively unaffected by magnetic fields

Back

acid

Front

nonmetal oxide + H2O ->

Back

-anal

Front

aldehyde suffix

Back

green/yellow

Front

color of Ba (flame test)

Back

paramagnetic

Front

elements which have unpaired electrons and highly affected by magnetic fields

Back

yellow

Front

color of Na (flame test)

Back

red/orange

Front

color of Ca (flame test)

Back

red

Front

color of Li (flame test)

Back

oxide gas and water

Front

oxoacid solution (such as HSO4-) forms...

Back

insoluble

Front

hydroxides are soluble or insoluble?

Back

methoxy-

Front

ether prefix

Back

allotrope

Front

different form of same element

Back

Amino-

Front

amine prefix

Back

red

Front

color of Sr (flame test)

Back

base and hydrogen gas

Front

pure metal or metal hydride + H20 ->

Back

-anone

Front

ketone suffix

Back