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i i V (1.16) P= ε χo eE (1.17) D= εE (1.18

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(1)

Chapter 1

N . .

s = σ ρ

(1.1.a)

Φ σ . n .

s =

(1.1.b)

p h

= cν

p mv= (1.2) E h= ν E mv

k = 2

2 (1.3)

( )

[

1 2 1

]

2 2 1

1 E ε E hν ν hν

ε + = + − << (1.3)

ε1+E1=E*2 (1.4) hν1+E1*=2hν1+E2 (1.5)

ε1+E1*2+E221) (1.6a) ε1+E12+E2*21) (1.6b) ε1a1b+E1=2ε1b+E2*1a1b) (1.7)

E1*=E2+ ε2 (1.8)

ε1a+E12b+E*2 (1.9) h I m v

I E E

a e e

ν1 2 2 1

= + 2 = * − (1.10) U Qi

i i

=4πε1

R r(1.11) p=

Qi ir

i

(1.12) F=Q E (1.13) p p= oE+1βE +

2

2 ... (1.14)

T p E= × (1.15)

P

p

=

i

i

V (1.16)

P= ε χo eE (1.17)

D= εE (1.18)

(

e

)

o

o + =ε 1+χ

ε

= E P

D (1.19)

ε ε

ε χ

ro = +1 e (1.20)

P M

Mr − + ε

ε ρ

1

2 (1.21)

(2)



 

α+

= ε ρ + ε

≡ ε

kT 3 3

M N 2 P 1

2

o A r

r M

p (1.22) F=Qv B× (1.23)

T m B= × (1.24)

e

mes= −ms (1.24)

s

Bs mˆ

ˆ=−2h

µ (1.25)

e

B 2m

eh

=

µ (1.26)

m l 2 m

e

e

= (1.27)

m

l ˆ

ˆ=−h

µB (1.28)

M Lˆ ˆ

B =−h (1.29)

I N

N ˆ ˆ

g µ I=hM (1.30)

p

N 2m

eh

=

µ (1.31)

∆m e r m B

e

= 2 2

4 (1.32) ω µ

γ

=g B Bh = eB (1.33)

ω=gNµB B=γNB

h (1.34)

M=

ψ*imψjdτ (1.35)

=

i i

V

M m (1.36)

M= µ χo mH (1.37)

B= µH (1.38)

µ

r

= + 1 χ

m (1.39) χm A

T B

= + (1.40) ω

≡ ν

=

∆E Ei Ej h h (1.41)

(3)

( ) ( )

ij 2 t

0 2 ij j

i 1 K t i t dt

a

p

ω

=

exp

h (1.42)

τ ψ ψ

=

K d

Kij *i ˆ j (1.43)

pE

=

V (1.44)

τ ψ

∆ ψ

=

d

Kij E *i p j (1.45) τ

ψ

∆ ψ

=

d

P *i p j (1.46)



 

− ν

=

 

 −

= kT

h kT

E E N

N i j

j

i exp exp (1.47) 1

t a

r+ + = (1.48) δ δE. t≥ hπ

2 (1.49)

δν≥ 1πτ

2 (1.50)

c ν v ν ν

∆ν= − 0 = o (1.51) T I

Io

≡ (1.52)

( )

T I lg

lg I

A o =−

 

≡  (1.53)

( )

r I lg

lg I R

r o=−

 

≡  (1.54)

c

~≡ν

ν (1.55)

Chapter 2

ψ

=

ψ E

Hˆ (2.1)

(

ϕ θ

)

=

( ) ( )

ϕ θ

ψ r, , R r Y , (2.2) V

T

Hˆ =ˆ +ˆ (2.3)

V e

o r

= − 1 4

2

πε (2.3)

(4)

( )

p p 2 r

e 2

m T T 2

m T

Tˆ 2 ˆ ˆ ˆ

, h

h + −

= ϕθ (2.4)

( )

( )

( ) [ ( )

ϕθ

]

=

( ) ( )

ϕ θ

 

− +

θ

ϕ, ˆ ˆ R r Tˆϕ,θ Y , ER r Y , m

r 2 R V m T

Y 2

e 2 r

e

2 h

h (2.5)

( ) ( ) ( )

T

[

Y

( ) ]

E

Y 1 m r 2 R V m T

2 r R

1

e 2 r

e

2 ϕ θ −

θ

= ϕ



 

− + ˆϕθ ,

, ˆ

ˆ h ,

h (2.6)

En e me hc

o

= −32πε4 h2 2n = − RH2

n (2.7)

( )



( )

ϕ θ

 

= 

ψ , , lm ,

o l n m l,

n, Y

a n

r R 2 r N 1 m l

n (2.8)

ao m eo pm

e

=4πε2h2 =52 9. (2.9) 1

dτ= ψ

ψ* (2.10)

( )

2 lm

m l

2 1

ˆl Y =l l+ h Y (2.11)

( )

l 1h *h

l l

l = + = (2.12)

m l m

l m

ˆY Y

lz = h (2.13) mh

z =

l (2.14)

l*

m=−µB (2.15)

Bm

mz =−µ (2.16)

( ) (

σ = +

) ( )

ϕσ ϕ ss 1h ˆ2

s (2.17)

(

s 1

)

h s*h s + =

=

s (2.18)

( )

σ m

( )

σ

zϕ = shϕ (2.19) h

ms z =

s (2.20)

s*

2 B

ms =− µ (2.21)

s B z

ms, =−2µ m (2.22)

j l s= + (2.23)

( )

j 1h j*h j + =

=

j ( j=l+s) (2.24) h

j

jz =m

(

jmj +j

)

(2.25)

( )

ψ

=

ψ 2

2 I I+1

ˆ h

I (2.26)

(

I 1

)

h I*h I + =

=

I for hydrogen 2

I=1 (2.27) h

I

Iz =M

(

-I≤MI ≤+I

)

(2.28) I*

N p

I g

M = µ (2.29)

(5)

I N p z

I g

M , = µ M (2.30) ν

=

=

E Ei Ej h (2.31) 0

jd

i∆ ψ τ≠

ψ

=

p

P * (2.32)

p= −e∆r (2.33)

∆px = −e r∆ sin cosθ ϕ (2.34)

∆py = −e r∆ sin sinθ ϕ (2.35) θ

=

∆pz e rcos (2.36) dr

d d r

dτ= 2sinθ ϕ θ (2.37)

(

r

) (

r

)

r r d d dr e

P j 2 2

0 0 2

0 i

x =−

∫ ∫ ∫

∞ π πψ* ,ϕ,θψ ,ϕ,θ ∆ sin θcosϕ ϕ θ (2.38)

(

r

) (

r

)

r r d d dr e

P j 2 2

0 0 2

0 i

y =−

∫ ∫ ∫

∞ π πψ* ,ϕ,θψ ,ϕ,θ ∆ sin θsinϕ ϕ θ (2.39)

(

r

) (

r

)

r r d d dr e

P j 2

0 0 2

0 i

x =−

∫ ∫ ∫

∞ π πψ* ,ϕ,θψ ,ϕ,θ ∆ sinθcosθ ϕ θ (2.40)

j 2 i

i 2 j

H n n

n 1 n R 1 hc

E  >



 −

∆ =

=

ν~ (2.41)

lim 2

n

~ R

j H j

it =T =

ν (2.42)

E z hc

H hc z

n R

n

R

= − 2 2 = − n2 (2.43)

( ) ( )





− −

= −

ν 2

i i 2 j j

z n a

1 a

n R 1

~ (2.44)

∑ ∑ ∑∑

>

+

=

i i i j i ij

2

i 2 2

e 2

r e r

ze m

Hˆ 2h (2.45)

5 ...

4 3 4 3 3 2 2

1s E s E p E s E p E s E d E p E s

E < < < < < < < < (2.46)

(6)

=

i

li

L (2.47)

(

L 1

)

h L*h

L + =

=

L (2.48)

=

i

si

S 2.49)

(

S 1

)

h S*h S + =

=

S (2.50)

S L

Jˆ = ˆ + ˆ (2.51)

(

J 1

)

J J=L+S,L+S-1,...,L-S J + h= *h

=

J (2.52)

S L J J

J

Jz =M h −J≤M ≤+J M =M +M (2.53)

( )

(

L S,veryrarely

)

1 L 2

usually S,

L 1

S 2

<

+

= ι

≥ +

=

ι (2.54)

2 1 2

1 2

1 j ,j j 1,..., j j j

J ˆ :

ˆ =

for two electrons = + + − −

i

ji

J (2.55)

( )

J g M B

2A E 1

E= o + * 2 + µB J (2.56)

( ) ( ) ( ) ( )

* 2

* 2

* 2

* 2

J 2

L S

1 J

g = + + − (2.57)

(

M 2M

)

B g

M M A E

E= o + L S + L + S (2.58)

E Eo gN N IB= − µ M (2.59)

( )

 

 

 

 −

+ +

= o 2 2J J 2

3 M 1 b 2 a 2E E 1

E * (2.60)

A e− =A+ (2.61) A e A

A e A

+ =

+ =

2 (2.62)

( )

O A

( )

O

I =− (2.63)

A e+ =A+ +2e (2.64) M e+ =M++2e (2.65)

ABC e+ =AB +C (2.66)

(7)

A h+ ν=A++e (2.67)

A*+ = +B A B++e (2.68)

A*+BC AC= ++ +B e (2.69)

A*+ =B A++ +B e (2.70) A*+ =B A++B (2.71) A*+ =B AB++e (2.72)

X++M X M= + + (2.73)

X++M XM= + (2.74)

XH++M X MH= + + (2.75)

F=Q (2.76) E

F=Qv B× (2.77)

Chapter 3 X

E X X

E× = × = (3.1) E

Y

X× = (3.2) Y X= 1 and X Y= 1 (3.3)

(

A×B

)

×C=A×

(

B×C

)

(3.4)

1

1 .ie. X Z Y Z

Z X Z

Y= × × = × × (3.5)

(3.6)

(8)

(3.7) 1

n 2 1 n p

2 p 2

j 1  = −

 

 π +

±

=

χ cos , ,..., (3.8)

∑∑

∑∑

∑∑

α= β>α αβ β α

= α= α

α

= >

=

+

− +

= N

1

N 2

n

1 i

N

1 i

n 2

1 i

n

i

j ij

n 2

1 i

2 e

2

r e Z Z r

e Z r

e m

Hˆ 2h (3.9)

τ ψ ψ

=

d

S12 1* 2 (3.10)

(

I A

)

2

X=1 + (3.11)

species molecular orbital Σg+

( ) (

A B

)

g 1s 1s

S 1 2

1 +

= +

σ (3.12)

Σu+

( ) (

A B

)

u 1s 1s

S 1 2

1 −

= −

σ* (3.13)

( ) ( ) ( ) ( )

[

x y z

]

1 2s 2p 2p 2p

2

1 χ +χ +χ +χ

=

ψ (3.14)

( ) ( ) ( ) ( )

[

2s 2px 2py 2pz

]

2

2=1 χ +χ −χ −χ

ψ (3.15)

( ) ( ) ( ) ( )

[

2s 2px 2py 2pz

]

2

3=1 χ −χ +χ −χ

ψ (3.16)

( ) ( ) ( ) ( )

[

x y z

]

4 2s 2p 2p 2p

2

1 χ −χ −χ +χ

=

ψ (3.17)

Sij=0 i≠ j (3.18) Sij=1 i= j (3.19)

τ ψ ψ

=

H d

Hij i* ˆ j (3.20) Hij= α if i and j belongs to the same atom (Coulomb integral) (3.21)

(9)

Hij= β if i and j belong to neighbour atoms (resonance integral) (3.22)

Hij=0 in all other cases (3.23)

H−ES =0 (3.24) α− E β

β α− E = 0

(3.25)

αX = +α hXβ (3.26) βXY =kXYβ (3.27) T I L

r I

=E = 1 = 2 1

2 2 2

ω (3.28)

(

J 1

)

J J 0,1,2,3,...

J + = * =

= h h

L (3.29)

J M J

MJ − ≤ J

= h

Lz (3.30)

(

J 1

)

B J

(

J 1

)

I J E 2

2

r =h + = ' + (3.31) B I

2

' =h2 (3.32) I m ri

i N

= i

= 1

2 (3.33)

I= µro2 (3.34) µ = +

m m

m m

1 2

1 2

(3.35)

∆J = ±1 and MJ = ±1 (3.36)

( )( ) ( )

[

J 1 J 2 J J 1

]

2B

(

J 1

)

hc B E - Eri r,j

+

= +

− + +

=

=

ν ,

~ (3.37)

cI h hc

B B 2

=8π

= ′ (3.38)

( ) ( ) ( )



 +

− +

=

 

− +

= kT

J J J B

kT N N

N r ' 1)

exp 1 E 2

exp 1 J

2 ,J 0

0

J (3.39)

(10)

∆J = ±2 for identical atoms (3.41)

∆J = ± ±1 2, for different atoms (3.42)

( ) ( )

[

2

]

r hcBJ J 1 A B K

E = + + − (3.43)

( ) ( )

[

2

]

r hcBJ J 1 C BK

E = + + − (3.44)

( ) ( )

[

J J 1 K2

]

Er =hcB + + AB (3.43)

( ) ( )

[

J J 1 K2

]

Er =hcB + + CB (3.44)

∆J = ±1 ∆K=0 (IR) (3.45)

∆J = ± ±1 2, ∆K=0 (RA) (3.46)

∆J = ±1 (IR) (3.47)

∆J = ±2 (RA) (3.48)

2 2

2 2

2kq 1 dq

d H 2 +

− µ

= h

ˆ (3.49)

,...

2 , 1 , 2 v

v 1 h

Ev  =

 

 + ν

= (3.50)

∆v= ±1 (+: absorption, -: emission) (3.51)





 

 

 +

−

 

 + ν

=

2

v 2

v 1 2 x

v 1 h

E (3.52)

=

=

= ν

π

= 3N 6

1 i

2 i 6

N 3

1 i

2 i 2 i 2

2c Q 2T Q

4 V

2 ~ & (3.53)

q g q fq

q 2T & 1&

V

2 = ' = ' (3.54)

S G S FS

S 2T & 1&

V

2 = ' = ' (3.55)

GF−λE =0 (3.56)

6 3

,..., 2 ,

~ 1

4 π

2 2

ν

2

= −

=

λ

i

c i N

(3.57)

Q L S= −1 (3.58)

(11)

j 0 i

2

ij S S

F E 



= ∂ or

j 0 i

2

ij q q

f E 



= ∂ (3.59)

ρ=

Ι

Ι (3.60)

1 n ,..., 2 , 1 n p

2 p cos 2

j 1  = −

 

 π +

±

=

χ (3.61)

( )

ij i

j j

j

i n R r

h

m =1

χ χ − (3.62)

2 nc m 2

h hc

kT hc

E

= λ

=

=

ν~ (3.63)

c

A=αl (3.63)

α

( )

ν ν

=

band

d

A (3.64)

( )

19 3 1 1 1

2 A

o

e 10 144 10 A dm cm s mol

e N

c m A4

f ε ≈ × ×

= ln . (3.65)

f m ee

=4 3 2

π ν

h P2 (3.66)

( )

<−

( )

<− <

<

<

−CH3 C2H5 CHCH3 2 C CH3 3 S O (3.67)

− > −F NO2> −OH> −Cl> −NH2Br> − > − =I C O> −COOH> −CN> −SH> −R N3 + (3.68)

− < −F Cl< −Br< −OH< −OCH3< −NH2< −O (3.69)

−NO2 > −CHO> −COCH3> −COOH COO> ≈ −CN> −SO NH2 2 (3.70) I

v 2m

hν= 1 e 2 + (3.71) hν = 1m ve + +I Ev+ Er

2 2 ∆ ∆ (3.72)

v

n= c (3.73)

νλ

=

v (3.74)

r r

n= εrµ ≈ ε (3.75)

 

 − πν

= nz

t 2 i E

E exp (3.76)

(12)



 

 

 

 −

 πν

 

− π

= c

t nz 2 c i

z 2 n E

E o exp k exp (3.77)

in

k

n −

=

n

(3.78)

ν α

= lnπ~ 4

10

nk c (3.79)

2 2 o o

p a

ν

∆ (3.80)

R n

n

M ≡ − M +

2 2 1

2 ρ (3.81)

n n

N Ci i

o i i 2

2 2 2

1 2 3

− + =

− ρ

ν Aν

,

(3.82)

λ π −

= ϑ

∆ nL nR

2 l (3.83)

[ ]

lc ϑ

= ∆

α (3.84)

[ ]

M =103M

[ ]

α (3.85)

L

R −α

α

= α

∆ (3.86)

zvB mv

= r2 (3.87)

zU= mv2

2 (3.88)

m z B r / = 2 2U

2 (3.89)

m z/ = 5 7. V

4π ν2 2 (3.90)

m z U

s t / = 2

2 2 (3.91)

m m

*≈ m22

1 (3.92)

(

µ B

)

2µ B B

µ

∆E=+ B − − B = B (3.93)

hν=2µBB (3.94)

∆ms= ±1 (3.95)

(13)

B h

= 2µ νB (3.96)

µ ν

=

B

I 2

aM h

B (3.97)

( )

B

B'= 1−σ (3.98)

I 1 I 1 I - -I, M M

g

M

I,z

=

a

µ

N

= + ,...,,

(3.99)

B g

E = − M

I

B = −

a

µ

N

M

(3.100)

B g

E =

a

µ

N

∆ m

(3.101)

2 B

a

0

π

= γ

ν

(3.102)

( )

a

( )

r

a B 1

1 2

2 B = −σν

π σ γ

− π =

= γ

ν l (3.103)

( )

a

( )

o

a B 1

1 2

2 B = −σν

π σ γ

− π =

= γ

ν l (3.104)

δ

=

τ 10

(3.105)

( )

σ

∑∑

µ

=

i i i i j ij i j

B a

o J M M

2 M h 1

B g E

E (3.106)

n ,..., 2 , 1 i M

1

M

A

= ± ∆

Bi

= ± =

(3.107)

1 M

i

i

(3.108)

( )

+ ν

= σ +

= µ ν

i j

j ij i

j

0 i j ij i

N a

i J M J M

h 1 B

g (3.109)

2

2 J

q qJ 1 2

I= ± + (3.110)

(

)

=

 

γ γ + + + −

= I1

P 2 P P

P 1 P

I I

C H o 41 32

41 32

NOE (3.111)

(

)

= +

=2P n n n N N dt

dn

e (3.112)

( )

t  = 1

=

(14)

π

= γ

ϑ 2

t Bi r

(3.114)

(

B Bl

)

2 T

1 T

1 a

2 2

π − + γ

* = (3.115)

1 2

*

* 2 2 2

/

1

T T T

T

1 ≤ ≤

= π ν

(3.116)

o

o hk

I = (3.120)

k

I=h (3.121)

=λ ν

=~ 1

k (3.122)

sin 2 2

s= ko ϑ (3.123)

( ) ( )

j

oR sr

k f s expi R

) i

Aexp( j

j =

ψ (3.124)

=

ψ

=

Ψ N

1 j

j (3.125)

( ) ( ) ( ) ( )

jk jk k

N

1 j

N

1 k

j sf s f

K s

I sr

sr

∑∑

sin

= =

= (3.126)

( ) ( ) ( ) ( )

k j s

f s f K

s I

jk jk k

N

1 j

N

1 k

j

m =

∑∑

= = sr

sr

sin (3.127)

( )

s

( ) (

' exp isr'

)

dr'

fjϕ =

ρj r (3.128)

( ) [

Z f

( )

s

]

s s C

fje = 2 jjϕ (3.129)

( ) ( ) ( )

s I

s s I

M

g

= m (3.130)

( )

dr

r r rp r

0

g =

(3.131)

( ) ( )

dr

r r p

r dr r rp r

0 0 a

= (3.132)

(15)

Chapter 4

=

=

N

1 i

ia

E E

E

i (4.1)

∑ ∑ ∑ ∑ ∑

= =+ = =+ = +

+ + +

=

N

i N

i j

N i

N i j

N j k

1 1 ij 1 1 1 ijk i,j,k,...,N

ia

E E ... E

E

(4.2)

∑ ∑

= =+

=

N

i N

i j

1 1

ij

ia

E

E

(4.3)

Vˆ Hˆ Vˆ Hˆ Hˆ

ij

=

i

+

j

+ =

0

+

(4.4)

τ ϕ ϕ ϕ ϕ

=

d

Eij *j *i i j (4.5)

2 ij 1 ij

ij E E

E = + (4.6)

( ) ( ) ( )

 

 ϑ ϕ − ρ ϑ ϕ

+

= π ∑

α α

=

α α α i i j j j j j j

N

1 i

i

Z r Y , r r Y , dr

1 2

Q

lm

4

j l ml ml

l

(4.7)

10 10 8 8 6 6 4 2 4

R C R C R C R E C

ij ij ij ij

ij =− − − − (4.8) dx Eψ

ψ d 2m 2

2 e

2 =

− h

(4.9)

( )

x exp

( )

ikx

ψk = (4.10)

e 2 2

k

2m

h

E = k

(4.11)

= λ

= κ

= h

d h hk N

I (4.12)



 

 +  −

=

kT E 1 E

N 2 N

F F

exp

(4.13)

2dsinα=nλ n= ± ±0 1 2, , ,... (4.14)

( )

s F E

E= o (4.15)

(16)

( ) ( )

 

 

 

 + +

=

=

∑ ∑

=

= j

3 j 2 j 1 N

1 j

j j

N

1 j

j z

d y l d x k d i h exp f isr

exp f s

F (4.16)

ϑ

=

∆x dsin (4.17) λ ϑ

= π λ π∆

= ϕ

∆ 2 sin

2 x d

(4.18) ,...

3 , 2 , 1 2

4 sin

4 ϑ= π = λ

= π λ π∆

= ϕ

x d n n

(4.19)

( )

N j

i d n

di ij

ij 4 sin 2 1,2,3 1,2,...,

=

= π

= λ ϑ

±

= π ϕ

∆ (4.20)

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