Upload
olive
View
35
Download
0
Embed Size (px)
DESCRIPTION
Area scaling in Minkowski space. Rindler space thermodynamics. Area scaling in Minkowski space. Bulk - boundary correspondence. t. Acceleration = a/ z. z =const. Proper time = . = const. t= z /a sinh(a h ). x. x= z /a cosh(a ). ds 2 = -a 2 z 2 d h 2 +d z 2 + S dx i 2. - PowerPoint PPT Presentation
Citation preview
Area scaling in Minkowski space
•Rindler space thermodynamics.
•Area scaling in Minkowski space.
•Bulk - boundary correspondence.
Rindler space(Rindler 1966)
ds2 = -dt2+dx2+dxi2
ds2 = -a22d2+d2+dxi2
t=/a sinh(a)x=/a cosh(a)
Acceleration = a/Proper time =
x
t
= const
=const
Unruh Radiation(Unruh, 1976)
x
tds2 = -a22d2+d2+dxi
2
= 0
a≈ a+i2
Avoid a conical singularity
Periodicity of Greens functions
Radiation at temperature 0 = 2/a
Thermodynamics in curved space
ggL dtxdS d L
’,’’= ’| e-H|’’ e- SE +… D
(x,0)=’(x)
(x,)=’’(x)
LH
L
S=Tr( ln ) A
-F=ln(Tr()) A
A different method to obtain Kabat and Strassler, 1994)
''00')'','(
DLdtExp ][00
(x,0)=(x)
DLdtExp ][)'','(
(x,0+)=’(x)
(x,0-)=’’(x)
x
t
’(x)’’(x)
00
A different method to obtain
’’’ Exp[-SE] D
(x,0+)=’(x)
(x,0-)=’’(x)
Trout (’’’ Exp[-SE] DDout
(x,0+) = ’in(x)out(x)(x,0-) = ’’in(x)out(x)in’in’’in Exp[-SE] D
(x,0+) = ’in(x)(x,0-) = ’’in(x)
in(’in,’’in) =
in out
A different method to obtain
x
t
’in(x)
’’in(x)
in’in’’in Exp[-SE] D
(x,0+) = ’in(x)(x,0-) = ’’in(x)
’| e-HR|’’
Intermediate summary I
0’,’’= ’| e-HR|’’
x
t
0’,’’= ’| e-HR|’’
More relations in Minkowski space
0O0 V
OV= V O ddxV
VTr(inOV)
outina aA 0
Schematic picture
Q.M. in V of Minkowski space
V V
Statistical Mechanicsin Minkowski space with d.o.f restricted to V
Statistical mechanics In Rindler space(if V is half of space)
Tr(e-HR(HR-HR)2])Tr(in(HR-HR)2) =(HR-HR)2 =
Heat capacity in Rindler space: C A
(N-N)2Isothermal compressibility:
Area scaling of fluctuations(R. Brustein and A.Y. , 2003)
0(OV)20
V
0OiV Oj
V 0 S(V)
S(V)
0)( xO
Assumptions:
U.V. cutoff
0)()( yx OO
Area scaling of correlation functions
OiV Oj
V = V V Oi(x)Oj(y) ddx ddy
= V V Fij(|x-y|) ddx ddy
= D() Fij() d
D()= V V (xy) ddx ddy
= GVVd-1 – GSS(V)d+O(d+1) Since F() = eiqcos F (q) ddqand F (q) ~ q
F(x)=2f(x)
OiV Oj
V = - ∂ (D()/d-1)d-1 ∂f() d
Introduce U.V. cutoff short~ 1/distances
∂ (D()/d-1)S
Intermediate summary II
V
Area scaling of Fluctuations due to entanglement
V
Statistical ensembledue to restriction of d.o.f
Unruh radiation andArea dependent thermodynamics
Evidence for bulk-boundary correspondence
V1
OV1OV2 S(B(V1)B(V2))
OV
1 OV
2
V2
OV
1 OV
2
V1 V2 OV1OV2- OV1OV2
Pos. of V2
Pos. of V2
A working example0
1
])([])([
dV
d
dV
d xdxJExpxdxJExp
V V
dd
dyxddyx 110
1)()(
V V
dd
dyxddyx )()(
V V
ddd yxddyx
11
V V
ddd yxddyx
31
V V
ddd yxddyx
113
1 V
mdd
d
nn
V
xdxdTrTr m ......... 11
V
mdd
d
nn
V
xdxdTrTr m 11
10
1......... 1
Large N limit )()...(()( 1 xxdiagx N
Summary
V
Area scaling of Fluctuations due to entanglement
Unruh radiation andArea dependent thermodynamics
V
Boundary theory for fluctuations
Statistical ensembledue to restriction of d.o.f
V
Proof that 0|OV |0=Tr(inOV)
outina aA 0
baba
baba
outin
AbaA
AbaA
Tr
,,
,,,,
00
00
Start with the vacuum state:
Find in:
cb
Vcb
c ba
Vba
Vin
cObAA
cOAbaAcOTr
,,
,,
)(
Hence:
On the other hand:
aObAA
aObAA
aAOAbO
Vab
Vab
aV
bV
00
Proof that Sin=Sout
AA
AbaA
AbaA
Tr
baba
baba
outin
†
,,
,,,,
00
00
outina aA 0
T
,,
,,,,
00
00
AA
AA
cAbaAc
cc
Tr
bbb
baba
c
inout
)()( kout
kin TrTr