electro-magnetic field equation and wave function, …vixra.org/pdf/1506.0141vh.pdfelectro-magnetic...

24
Electro-Magnetic Field Equation and Wave Function, Equation in Rindler spacetime Sangwha-Yi Department of Math , Taejon University 300-716 ABSTRACT In the general relativity theory, we find the electro-magnetic field transformation and the electro-magnetic field equation (Maxwell equation) in Rindler spacetime. We find the electro-magnetic wave equation and the electro-magnetic wave function in Rindler space-time. Specially, this article say the uniqueness of the accelerated frame because the accelerated frame can treat electro-magnetic field equation. PACS Number:04,04.90.+e,03.30, 41.20 Key words:General relativity theory, Rindler spacetime, Electro-magnetic field transformation, Electro-magnetic field equation Wave function Wave equation e-mail address:sangwha1@nate.com Tel:051-624-3953

Upload: docong

Post on 09-Mar-2018

224 views

Category:

Documents


3 download

TRANSCRIPT

Electro-Magnetic Field Equation and Wave Function, Equation in

Rindler spacetime

Sangwha-Yi

Department of Math , Taejon University 300-716

ABSTRACT

In the general relativity theory, we find the electro-magnetic field transformation and the

electro-magnetic field equation (Maxwell equation) in Rindler spacetime. We find the

electro-magnetic wave equation and the electro-magnetic wave function in Rindler

space-time. Specially, this article say the uniqueness of the accelerated frame because

the accelerated frame can treat electro-magnetic field equation.

PACS Number:04,04.90.+e,03.30, 41.20

Key words:General relativity theory,

Rindler spacetime,

Electro-magnetic field transformation,

Electro-magnetic field equation

Wave function

Wave equation

e-mail address:[email protected]

Tel:051-624-3953

1. Introduction

In the general relativity theory, our article’s aim is that we find the electro-magnetic field equation in

Rindler space-time.

The Rindler coordinate is

)sinh()(0

01

0

2

c

a

a

cct

0

2001

0

2

)cosh()(a

c

c

a

a

cx

,

32, zy (1)

In this time, the tetrad ae is

][1 222

2

22 dzdydxc

dtd

dd

xx

c

ba

ab

2

1

ddgc

ddeec

baab 22

11 ,

aa xe (2)

)0,0),sinh()1(),cosh()1(()(0

01

2

00

01

2

0

0

00

c

a

c

a

c

a

c

a

c

xe

(3)

About y -axis’s and z -axis’s orientation

)0,1,0,0()(2

02

xe , )1,0,0,0()(

3

03

xe (4)

The other unit vector )( 01 e is

)0,0),cosh(),(sinh()(0

00

0

1

01

c

a

c

axe

(5)

Therefore,

10

01

2

000

0 )sinh()1()cosh(

dc

a

c

ad

c

accdt

10

000

0 ˆ)sinh(ˆ)cosh(

dc

ad

c

ac

10

01

2

000

0 )cosh()1()sinh(

dc

a

c

ad

c

acdx

10

000

0 ˆ)cosh(ˆ)sinh(

dc

ad

c

ac ,

22 ̂ dddy , 33 ̂ dddz (6)

The vector transformation is

V

x

xV

'

' ,

Ux

xU

''

(7)

Therefore, the transformation of the electro-magnetic 4-vector potential AA ),(

is

AeA

xA

x

xA

''

,

x

e

ded

xdx

x

xdx

''

,

x

e (8)

Hence, the transformation of the electro-magnetic 4-vector potential ),( A

in inertial frame and the

eletro-magnetic 4-vector potential ),( A

in uniformly accelerated frame is

4)1( 2

2

2

2

tc

jc

Atc

4)

1( 2

2

2

2

4-vector

d

dxjc 0),(

1)sinh()1)(cosh(0

01

2

00

0

A

c

a

c

a

c

a

1ˆ)sinh(ˆ)cosh(

00

00

A

c

a

c

a

1)cosh()1)(sinh(0

01

2

00

0

A

c

a

c

a

c

aAx

1ˆ)cosh(ˆ)sinh(

00

00

A

c

a

c

a

3322ˆ,ˆAAAAAA zy (9)

1000

0100

0010

000)1( 2

2

10

c

a

g

,

1000

0100

0010

0001

ba

ba ee

,

aa ee

gee abba gAAT

abba gee

1111 )()( AAAAgAA TTT

baba ege gAAAAA TTT 1111 )()( (10)

dz

dy

dx

cdt

1000

0100

00)cosh()1)(sinh(

00)sinh()1)(cosh(

00

2

10

00

00

2

10

00

c

a

c

a

c

ac

a

c

a

c

a

3

2

1

0

d

d

d

cd

3

2

1

0

d

d

d

cd

A

1000

0100

00)cosh()sinh(

00)sinh()cosh(

00

00

00

00

c

a

c

ac

a

c

a

3

2

1

0

ˆ

ˆ

ˆ

ˆ

d

d

d

cd

(11)

zyxtc

zyxtc

zyxtc

z

c

y

c

x

c

tc

c

Ax

e

3333

2222

1111

0000

1

1000

0100

00)cosh()sinh(

00

)1(

)sinh(

)1(

)cosh(

00

00

2

10

00

2

10

00

c

a

c

ac

ac

a

c

ac

a

(12)

z

y

x

tc

1

3

2

1

0

1

1

)(

c

A T

3

2

1

0

1

1

)(

c

AT

1000

0100

00)cosh(

)1(

)sinh(

00)sinh(

)1(

)cosh(

00

2

10

00

00

2

10

00

c

a

c

ac

a

c

a

c

ac

a

3

2

1

0

1

c

1000

0100

00)co s h ()s inh (

00)s inh ()co s h (

00

00

00

00

c

a

c

ac

a

c

a

3

2

1

0

ˆ

ˆ

ˆ

ˆ1

c

(13)

1

1

0

0 11

tcctc

c

tc

1

00

0

2

10

00

)sinh(

)1(

)cosh(

c

a

c

c

ac

a

1

00

0

00

ˆ)s inh (

ˆ)co s h (

c

a

cc

a

1

1

0

0 1

xcx

c

x

1

00

0

2

10

00

)cosh(

)1(

)sinh(

c

a

c

c

ac

a

1

00

0

00

ˆ)cosh(

ˆ)sinh(

c

a

cc

a

3322 ˆ

zy

2

ˆ2

02

22

021

2

02

2

2

2

2)

ˆ(1

)(

)1(

11

c

c

ac

tc

),,(zyx

, ),,(

321

, )

ˆ,

ˆ,

ˆ(

321ˆ

(14)

2. Electro-magnetic Field in the Rindler space-time

The electro-magnetic field ),( BE

is in the inertial frame,

tc

AE

, AB

(15)

tc

A

xE xx

])sinh()1)([cosh(])cosh(

)1(

)sinh([ 1

00

2

10

00

1

00

0

2

10

00

Ac

a

c

a

c

a

c

a

c

c

ac

a

])co s h ()1)([sinh(])sinh(

)1(

)cosh([ 1

00

2

10

00

1

00

0

2

10

00

Ac

a

c

a

c

a

c

a

c

c

ac

a

2

0

12

10

01

2

0

2)1(

)1(

1 1

c

a

c

a

c

A

c

a

0

2

10

21

2

0

1

2

10

1

)1(

1])1[(

)1(

1

c

A

c

ac

a

c

a

0

1

2

0

1

2

10

ˆ

ˆ]ˆ)1[(

ˆ)1(

1 1

c

A

c

a

c

a (16)

2

tc

A

yE yy ])sinh()1)([cosh( 1

001

2

00

0

A

c

a

c

a

c

a

2])sinh(

)1(

)cosh([

1

00

0

2

10

00

Ac

a

c

c

ac

a

0

00

2

10

2

00

2

10

2

)cosh(

)1(

1)cosh()1(

c

A

c

a

c

ac

a

c

a

])[sinh(21

0012

AA

c

a

]

)1(

1])1([

)1(

1)[cosh(

0

2

10

2

2

10

21

2

0

002

c

A

c

ac

a

c

ac

a

])[sinh(21

0012

AA

c

a

ˆ)]1(ˆ[

ˆ)1(

1)[cosh(

02

10

21

2

0

002

c

A

c

a

c

ac

a

ˆ

ˆ

ˆ)[sinh(

21

0012

AA

c

a (17)

3

tc

A

zE zz ])sinh()1)([cosh( 1

001

2

00

0

A

c

a

c

a

c

a

3])sinh(

)1(

)cosh([

1

00

0

2

10

00

Ac

a

c

c

ac

a

0

00

2

10

3

00

2

10

3

)cosh(

)1(

1)cosh()1(

c

A

c

a

c

ac

a

c

a

])[sinh(31

0013

AA

c

a

]

)1(

1])1([

)1(

1)[cosh(

0

2

10

2

2

10

31

2

0

003

c

A

c

ac

a

c

ac

a

])[sinh(31

0013

AA

c

a

ˆ)]1(ˆ[

ˆ)1(

1)[cosh(

02

10

31

2

0

003

c

A

c

a

c

ac

a

ˆ

ˆ

ˆ)[sinh(

31

0013

AA

c

a (18)

32

23

AA

z

A

y

AB yzx 32 ˆ

ˆ

ˆ

ˆ23

AA (19)

x

AA

x

A

z

AB xzxy

3

3

3

])co s h ()1)([sinh( 1

001

2

00

0

A

c

a

c

a

c

a

3])cosh(

)1(

)sinh([

1

00

0

2

10

00

Ac

a

c

c

ac

a

])[cosh(13

0031

AA

c

a

]

)1(

1])1([

)1(

1)[sinh(

0

2

10

2

2

10

31

2

0

003

c

A

c

ac

a

c

ac

a

ˆ

ˆ

ˆ)[cosh(

13

0031

AA

c

a

ˆ)]1(ˆ[

ˆ)1(

1)[sinh(

02

10

31

2

0

003

c

A

c

a

c

ac

a (20)

2

2

xxy

z

A

x

A

y

A

x

AB

3])cosh(

)1(

)sinh([

1

00

0

2

10

00

Ac

a

c

c

ac

a

2

])cosh()1)([sinh( 1

001

2

00

0

A

c

a

c

a

c

a

])[cosh(21

0012

AA

c

a

]

)1(

1])1([

)1(

1)[sinh(

0

2

10

2

2

10

21

2

0

002

c

A

c

ac

a

c

ac

a

ˆ

ˆ

ˆ)[cosh(

21

0012

AA

c

a

ˆ)]1(ˆ[

ˆ)1(

1)[sinh(

02

10

21

2

0

002

c

A

c

a

c

ac

a (21)

Hence, we can define the electro-magnetic field ),( BE

in Rindler spacetime.

0

2

10

2

2

10

2

10 )1(

1})1({

)1(

1

c

A

c

ac

a

c

aE

02

10

ˆ

2

10

ˆ

ˆ)}1(ˆ{

)1(

1

c

A

c

a

c

a

AABˆ

ˆ

In this time, ),,(321

, ),,( 321 AAAA

(321ˆ

, )ˆ,ˆ,ˆ(ˆ

321 AAAA

(22)

We obtain the transformation of the electro-magnetic field.

0

2

10

2

2

10

1

2

10

1

)1(

1})1({

)1(

1

c

A

c

ac

a

c

aE x

1

1

02

10

1

2

10

ˆ

ˆ)}1(ˆ{

ˆ)1(

1

E

c

A

c

a

c

a

,

)sinh()cosh(0

00

032

c

aB

c

aEE y

,

)sinh()cosh(0

00

023

c

aB

c

aEE z

1BBx ,

)sinh()cosh(0

00

032

c

aE

c

aBBy

)sinh()cosh(0

00

023

c

aE

c

aBBz

(23)

Hence,

1EE x , 1

BBx ,

3

3

2

2

B

E

B

E

H

B

E

B

E

z

z

y

y

)cosh(00)sinh(

0)cosh()sinh(0

0)sinh()cosh(0

)sinh(00)cosh(

00

00

00

00

00

00

00

00

c

a

c

ac

a

c

ac

a

c

ac

a

c

a

H

(24)

The inverse-transformation of the electro-magnetic field is

xEE 1 , xBB 1

z

z

y

y

B

E

B

E

H

B

E

B

E

1

3

3

2

2

)cosh(00)sinh(

0)cosh()sinh(0

0)sinh()cosh(0

)sinh(00)cosh(

00

00

00

00

00

00

00

00

1

c

a

c

ac

a

c

ac

a

c

ac

a

c

a

H

(25)

xEE 1 , xBB 1

)sinh()cosh(0

00

02

c

aB

c

aEE zy

,

)sinh()cosh(0

00

02

c

aE

c

aBB zy

)sinh()cosh(0

00

03

c

aB

c

aEE yz

)sinh()cosh(0

00

03

c

aE

c

aBB yz

(26)

3. Electro-magnetic Field Equation(Maxwell Equation) in the Rindler space-time

Maxwell equation is

4 E

(27-i)

jctc

EB

4

(27-ii)

0 B

(27-iii)

tc

BE

(27-iv)

1. 4 E

1EE x ,

)sinh()cosh(0

00

032

c

aB

c

aEE y

,

)sinh()cosh(0

00

023

c

aB

c

aEE z

z

E

y

E

x

E zyx

4

1])cosh(

)1(

)sinh([

1

00

0

2

10

00

Ec

a

c

c

ac

a

)]sinh()cosh([0

00

0

2 32

c

aB

c

aE

)]sinh()cosh([0

00

0

3 23

c

aB

c

aE

]

)1(

1)[sinh())(cosh(

0

2

10

32

0000123

c

E

c

a

BB

c

aE

c

a

]ˆˆˆ

)[sinh())(cosh(032

00ˆ

00123

c

EBB

c

aE

c

a (28)

2. jctc

EB

4

1BBx

)sinh()cosh(0

00

032

c

aE

c

aBBy

)sinh()cosh(0

00

023

c

aE

c

aBBz

X-component)z

B

y

B yz

2

)]sinh()cosh([

00

00

23

c

aE

c

aB

3

)]sinh()cosh([

00

00

32

c

aE

c

aB

])[sinh(])[cosh(32

00

32

003223

EE

c

aBB

c

a

xx jctc

E 4

xjcE

c

a

c

c

ac

a

4])sinh(

)1(

)cosh([ 11

00

0

2

10

00

Hence,

xjc

4

]

)1(

1)[cosh())(sinh(

0

2

10

32

00

00

123

c

E

c

a

BB

c

aE

c

a

]ˆˆˆ

)[cosh())(sinh(032

00

ˆ

00

123

c

EBB

c

aE

c

a (29)

Y-component)x

B

z

B zx

3

1

B

])cosh(

)1(

)sinh([

1

00

0

2

10

00

c

a

c

c

ac

a

)]sinh()cosh([0

00

023

c

aE

c

aB

yy jctc

E 4

])sinh(

)1(

)cosh([

1

00

0

2

10

00

c

a

c

c

ac

a

)]sinh()cosh([0

00

032

c

aB

c

aE

yjc

4

01

2

02

0

1

2

013

2

3

31

)1(

1

)1(

14

c

E

c

aB

c

a

c

a

BBj

c y

01

2

02

10

11

2

0

1

2

0

31

2

0

2

31

)1(

1)}1({

)1(

1)}1({

)1(

1

c

E

c

ac

aB

c

ac

aB

c

a

02

10

11

2

0

1

2

0

31

2

)}1({ˆ

)1(

1)}1({

ˆ)1(

1 2

31

c

E

c

aB

c

ac

aB

c

a

(30)

Z-component)y

B

x

Bxy

])cosh(

)1(

)sinh([

1

00

0

2

10

00

c

a

c

c

ac

a

)]sinh()cosh([0

00

032

c

aE

c

aB

2

1

B

zz jctc

E 4

])sinh(

)1(

)cosh([

1

00

0

2

10

00

c

a

c

c

ac

a

)]sinh()cosh([0

00

023

c

aB

c

aE

zjc

4

01

2

02

0

1

2

021

3

2

12

)1(

1

)1(

14

c

E

c

aB

c

a

c

a

BBj

c z

01

2

02

10

21

2

0

1

2

0

11

2

0

3

12

)1(

1)}1({

)1(

1)}1({

)1(

1

c

E

c

ac

aB

c

ac

aB

c

a

02

10

21

2

0

1

2

0

11

2

)}1({ˆ

)1(

1)}1({

ˆ)1(

1 3

12

c

E

c

aB

c

ac

aB

c

a

(31)

3. 0 B

z

B

y

B

x

BB zyx

1])cosh(

)1(

)sinh([

1

00

0

2

10

00

Bc

a

c

c

ac

a

)]sinh()cosh([0

00

0

2 32

c

aE

c

aB

)]sinh()cosh([0

00

0

3 23

c

aE

c

aB

0]

)1(

1)()[sinh())(cosh(

01

2

023

00

00

132

c

B

c

a

EE

c

aB

c

a

0]ˆ

)ˆˆ

()[sinh())(cosh(023

00

ˆ

00

132

c

BEE

c

aB

c

a

(32)

4.tc

BE

1EE x ,

)sinh()cosh(0

00

032

c

aB

c

aEE y

,

)sinh()cosh(0

00

023

c

aB

c

aEE z

X-component)z

E

y

E yz

2

)]sinh()cosh([

00

00

23

c

aB

c

aE

3

)]sinh()cosh([

00

00

32

c

aB

c

aE

])[sinh(])[cosh(32

00

32

003223

BB

c

aEE

c

a

tc

Bx

1])sinh(

)1(

)cosh([

1

00

0

2

10

00

Bc

a

c

c

ac

a

Hence, ))(sinh(0

0

B

c

a ]

)1(

1)) [ (c o s h (

0

2

10

32

00

123

c

B

c

a

EE

c

a

))(sinh( ˆ

00

B

c

a 0]

ˆ)

ˆˆ)[(cosh(

032

00

123

c

BEE

c

a (33)

Y-component)x

E

z

E zx

3

1

E

])cosh(

)1(

)sinh([

1

00

0

2

10

00

c

a

c

c

ac

a

)]sinh()cosh([0

00

023

c

aB

c

aE

tc

B y

])sinh(

)1(

)cosh([

1

00

0

2

10

00

c

a

c

c

ac

a

)]sinh()cosh([0

00

032

c

aE

c

aB

01

2

02

0

1

2

013

2

3

31

)1(

1

)1(

1

c

B

c

aE

c

a

c

a

EE

01

2

02

10

11

2

0

1

2

0

31

2

0

2

31

)1(

1)}1({

)1(

1)}1({

)1(

1

c

B

c

ac

aE

c

ac

aE

c

a

02

10

11

2

0

1

2

0

31

2

)}1({ˆ

)1(

1)}1({

ˆ)1(

1 2

31

c

B

c

aE

c

ac

aE

c

a0

(34)

Z-component)y

E

x

Exy

])cosh(

)1(

)sinh([

1

00

0

2

10

00

c

a

c

c

ac

a

)]sinh()cosh([0

00

032

c

aB

c

aE

2

1

E

tc

Bz

])sinh(

)1(

)cosh([

1

00

0

2

10

00

c

a

c

c

ac

a

)]sinh()cosh([0

00

023

c

aE

c

aB

01

2

02

0

1

2

021

3

2

12

)1(

1

)1(

1

c

B

c

aE

c

a

c

a

EE

01

2

02

10

21

2

0

1

2

0

11

2

0

3

12

)1(

1)}1({

)1(

1)}1({

)1(

1

c

B

c

ac

aE

c

ac

aE

c

a

02

10

21

2

0

1

2

0

11

2

)}1({ˆ

)1(

1)}1({

ˆ)1(

1 3

12

c

B

c

aE

c

ac

aE

c

a0

(35)

Therefore, we obtain the electro-magnetic field equation by Eq (28)-Eq(35) in Rindler spacetime .

)1(42

10

ˆc

aEE

(36-i)

j

cc

E

c

ac

aB

c

a

4

)1(

1)}1({

)1(

10

2

10

2

10

2

10

j

cc

E

c

aB

c

a

)}1({

)1(

102

10

ˆ

2

10

(36-ii)

0ˆ BB

(36-iii)

0

2

10

2

10

2

10 )1(

1)}1({

)1(

1

c

B

c

ac

aE

c

a

02

10

ˆ

2

10

ˆ)}1({

)1(

1

c

B

c

aE

c

a

(36-iv)

),,( 321 EEEE

, ),,( 321 BBBB

,

),,(321

, )

ˆ,

ˆ,

ˆ(

321ˆ

Hence, the transformation of 4-vector

d

dxjc 0),(

is

)sinh()cosh()1(0

00

0

2

10

1

c

a

c

j

c

a

c

a

)sinh()1()cosh(0

01

2

00

01

c

a

c

ac

c

ajj x

, 32 , jjjj zy

In this time, 4-vector

d

djc 0),(

(37)

4. Electro-magnetic wave equation in Rindler space-time

The electro-magnetic wave function is

sin0xx EE , sin0yy EE , sin0zz EE

sin0xx BB , sin0yy BB , sin0zz BB

xEE 1 , xBB 1

'sin01 XEE

, 'sin01 XBB

)sinh()cosh(0

00

02

c

aB

c

aEE zy

,

)sinh()'sin()cosh()'sin(0

00

00

0 c

aB

c

aE zy

)sinh()cosh(0

00

02

c

aE

c

aBB zy

)sinh()'sin()cosh()'sin(0

00

00

0 c

aE

c

aB zy

)sinh()cosh(0

00

03

c

aB

c

aEE yz

)sinh()'sin()cosh()'sin(0

00

00

0 c

aB

c

aE yz

)sinh()cosh(0

00

03

c

aE

c

aBB yz

)sinh()'sin()cosh()'sin(0

00

00

0 c

aE

c

aB yz

(38)

)(c

zn

c

ym

c

xlt ,

)ˆ'

ˆ'

ˆ'ˆ(''

3210

cn

cm

cl

In this time,

)s inh ()(0

01

0

2

c

a

a

cct

,

0

2001

0

2

)cosh()(a

c

c

a

a

cx

32, zy

)(tanh

0

2

1

0

0

a

cx

ct

a

c

,

0

2222

0

21 )(

a

ctc

a

cx

tc

t

c

taca

c

ctaca

cxa

ctac

aaaa

20

002

01

002

0

01

0

0

0

)(1

1lim/)(tanhlim/)(tanhlimlim0000

02

2

02

002

22

02

2

02

0

1

0/)1)1((l im/)1)1((l iml im

000

axc

aca

c

tax

c

ac

aaa

xaxc

ac

a

02

02

0/)(lim

0

Hence,

tddc

ad

aaaaa

0

0

0

0

01

2

0

0

0

0

0

0 00000

limlim)1(limˆlimˆlim

xaa

1

0

1

0 00

l imˆl im , 3322 ˆ,ˆ zy

Therefore, electro-magnetic wave function is

)'''(')ˆ'

ˆ'

ˆ'ˆ('lim'lim

3210

00 00 c

zn

c

ym

c

xlt

cn

cm

cl

aa

)(c

zn

c

ym

c

xlt

nnmmll ',',','

1222 nml , 1''' 222 nml (39)

Hence,

1])(

)1(

11[

22

021

2

02

E

c

ac

0])ˆ

(1[ 1

2

ˆ2

02

Ec

1])(

)1(

11[

22

021

2

02

B

c

ac

0])ˆ

(1[ 1

2

ˆ2

02

Bc

yE

c

ac])(

)1(

11[

22

021

2

02

0])ˆ

(1[

2

ˆ2

02

yEc

yB

c

ac])(

)1(

11[

22

021

2

02

0])ˆ

(1[

2

ˆ2

02

yBc

zE

c

ac])(

)1(

11[

22

021

2

02

0])ˆ

(1[

2

ˆ2

02

zEc

zB

c

ac])(

)1(

11[

22

021

2

02

0])ˆ

(1[

2

ˆ2

02

zBc

(40)

The electro-magnetic wave equation is in vacuum

)}1({)1( 1

2

01

2

0 c

aE

c

a

)}1({)1( 1

2

01

2

0 c

aE

c

a

)}1({)1( 1

2

01

2

0 c

aE

c

a

Ec

a

c

a )1()1( 1

2

01

2

0

Ec

a

c

a )1()1( 1

2

01

2

0

Ec

a

c

a )1()1( 1

2

01

2

0

Ec

a 21

2

0 )1(

Ec

a

c

a )1()1( 1

2

01

2

0 E

c

a 21

2

0 )1(

Ec

a

c

a

c

aE

c

a )]1()1([)1(])1([ 1

2

01

2

01

2

01

2

0

])([)1(221

2

0 EE

c

a

)}]1({[1

2

10

0 c

aB

c

E

c

2

02)(

1

,

In this time, )0,0,()1(2

01

2

0

c

a

c

a

(41)

Hence,

Ecc

aE

c

a 2

02

1

2

01

2

0 )(1

)}1({)1(

Ec

a

c

a

c

aE

c

a )]1()1([)1(])1([ 1

2

01

2

01

2

01

2

0

Ec

EEc

a 2

02

221

2

0 )(1

])([)1(

),,()0,0,( 3211 4

2

0

4

2

0

EEE

c

aE

c

a

E

c

acc

a ])(

)1(

11[)1(

22

021

2

02

21

2

0

),,0( 324

2

0

EE

c

a

E

c

acc

a ])(

)1(

11[)1(

22

021

20

2

21

20

),,0( 324

2

0

EE

c

a

Ecc

a ])

ˆ(1[)1(

2

ˆ2

02

21

2

0

0

(42)

Hence, the magnetic wave equation is in vacuum

Bcc

aB

c

a 2

02

1

2

01

2

0 )(1

)}1({)1(

Bc

a

c

a

c

aB

c

a )]1()1([)1(])1([ 1

2

01

2

01

2

01

2

0

Bc

BBc

a 2

02

221

2

0 )(1

])([)1(

),,0( 324

2

0

BB

c

a

B

c

acc

a ])(

)1(

11[)1(

22

021

2

02

21

2

0

),,0( 324

2

0

BB

c

a

Bcc

a ])

ˆ(1[)1(

2

ˆ2

02

21

2

0

0

(43)

The electromagnetic wave function, Eq(38),Eq(39) satisfy the electromagnetic wave equation,

Eq(42),Eq(43).

5. Conclusion

We find the electro-magnetic field transformation and the electro-magnetic equation in uniformly

accelerated frame.

Generally, the coordinate transformation of accelerated frame is

(I) )sinh()(0

01

0

2

c

a

a

cct

0

2001

0

2

)cosh()(a

c

c

a

a

cx

,

32, zy (44)

(II) )sinh()exp(0

01

2

0

0

2

c

a

c

a

a

cct

0

2001

2

0

0

2

)cosh()exp(a

c

c

a

c

a

a

cx

,

32, zy (45)

Hence, this article say the accelerated frame is Rindler coordinate (I) that can treat electro-magnetic field

equation.

Reference

[1]S.Weinberg,Gravitation and Cosmology(John wiley & Sons,Inc,1972)

[2]W.Rindler, Am.J.Phys.34.1174(1966)

[3]P.Bergman,Introduction to the Theory of Relativity(Dover Pub. Co.,Inc., New York,1976),Chapter V

[4]C.Misner, K,Thorne and J. Wheeler, Gravitation(W.H.Freedman & Co.,1973)

[5]S.Hawking and G. Ellis,The Large Scale Structure of Space-Time(Cam-bridge University Press,1973)

[6]R.Adler,M.Bazin and M.Schiffer,Introduction to General Relativity(McGraw-Hill,Inc.,1965)

[7]A.Miller, Albert Einstein’s Special Theory of Relativity(Addison-Wesley Publishing Co., Inc., 1981)

[8]W.Rindler, Special Relativity(2nd ed., Oliver and Boyd, Edinburg,1966)

[9]Massimo Pauri, Michele Vallisner, "Marzke-Wheeler coordinates for accelerated observers in special

relativity":Arxiv:gr-qc/0006095(2000)

[10]A. Einstein, “ Zur Elektrodynamik bewegter K¨orper”, Annalen der Physik. 17:891(1905)