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I
I
25
,
1
ζ
(
s
)
Λ
24
V
♮
T
2
A
Γ
0
(2)
A
′
Λ
24
I
I
25
,
1
Λ
24
∞
V
♮
T
2
A
Γ
0
(2)
ζ
(
s
)
A
′
ζ
(
s
)
Re(
s
) =
1
/
2
M
I
I
25
,
1
I
I
25
,
1
ζ
(
s
)
I
I
25
,
1
→
Λ
24
→
V
♮
→
j
(
τ
)
→
T
2
A
→
E
Γ
0
(2)
k
→
L
(
E
k
,
s
) =
ζ
(
s
)
·
ζ
(
s
−
k
+1)
→
ζ
(
s
)
.
A
′
ζ
(
s
)
I
I
25
,
1
I
I
25
,
1
(25
,
1)
I
I
25
,
1
p
−
1
Y
m>
0
,
n
∈
Z
(1
−
p
m
q
n
)
c
(
mn
)
=
j
(
σ
)
−
j
(
τ
)
,
c
(
n
)
j
(
τ
)
−
744
ρ
=
(0
,
1
,
2
,
.
.
.
,
24;
70)
Λ
24
Λ
24
Θ
Λ
24
(
τ
) = 1
+
0
·
q
+
196560
q
2
+
16773120
q
3
+
·
·
·
0
q
1
Λ
24
= Λ
∗
24
Θ
Λ
24
(
−
1
/τ
) =
τ
12
Θ
Λ
24
(
τ
)
.
Λ
24
∞
V
♮
V
♮
=
L
n
≥−
1
V
♮
n
dim(
V
♮
n
) =
c
(
n
)
,
j
(
τ
)
−
744 =
∞
X
n
=
−
1
c
(
n
)
q
n
.
M
V
♮
n
V
♮
1
196884 = 1
+
196883
,
196883
M
T
2
A
[
g
]
M
T
g
(
τ
) =
∞
X
n
=
−
1
T
r(
g
|
V
♮
n
)
q
n
T
2
A
(
τ
) =
q
−
1
+
4372
q
+
96256
q
2
+
1240002
q
3
+
·
·
·
T
r(2
A
|
V
♮
1
) = 1
+
χ
196883
(2
A
) = 1
+
4371 = 4372
χ
196883
(2
A
) =
4371
Γ
0
(2)
T
2
A
Γ
0
(2)
+
E
k
Γ
0
(2)
a
p
= 1
+
p
k
−
1
p
L
L
(
E
Γ
0
(2)
k
,
s
) =
ζ
(
s
)
·
ζ
(
s
−
k
+
1)
·
(
2)
.
Y
p
1
1
−
(1
+
p
)
p
−
s
+
p
1
−
2
s
=
Y
p
1
(1
−
p
−
s
)(1
−
p
1
−
s
)
=
ζ
(
s
)
·
ζ
(
s
−
1)
.
ζ
(
s
)
ζ
(
s
)
ζ
(
s
)
L
T
2
A
j
(
τ
)
V
♮
Λ
24
I
I
25
,
1
I
I
25
,
1
→
Λ
24
Λ
24
→
V
♮
V
♮
→
j
(
τ
)
dim(
V
♮
n
) =
c
(
n
)
j
(
τ
)
→
T
2
A
T
2
A
→
E
Γ
0
(2)
k
T
2
A
Γ
0
(2)
+
E
k
→
ζ
(
s
)
L
Λ
24
Θ
Λ
24
c
(1) = 0
V
♮
dim(
V
♮
1
)
196884 = 1
+
196883
T
2
A
T
r(2
A
|
V
♮
1
)
4372 = 1
+
4371
E
2
a
p
1
+
p
ζ
Re(
ρ
)
= 1
/
2
ρ
g
σ
(
t
)
=
e
−
t
2
/
(2
σ
2
)
W
(
g
) =
W
spec
+
W
arch
+
W
arith
σ
W
spectral
W
archimedean
W
arithmetic
W
(
g
σ
)
−
0
.
256
−
1
.
341
−
3
.
198
−
6
.
276
−
18
.
132
−
50
.
165
W
(
g
σ
)
>
0
ζ
(
s
)
Re(
s
) = 1
/
2
γ
1
= 14
.
1347
.
.
.
,
γ
2
= 21
.
0220
.
.
.
,
.
.
.
,
γ
30
= 101
.
3179
.
.
.
Re(
ρ
n
) = 0
.
5
g
∈
S
(
R
)
even
W
(
g
) =
W
spec
(
g
)
+
W
arch
(
g
)
+
W
arith
(
g
)
,
W
spec
(
g
) = 2
Re
Z
∞
0
t
−
1
/
2
g
(log
t
)
dt
,
W
arch
(
g
) =
−
Z
∞
0
K
(
t
)
g
(
t
)
dt,
K
(
t
) =
e
t/
2
+
e
−
t/
2
e
t
−
1
−
2
t
,
W
arith
(
g
) =
−
∞
X
n
=1
Λ(
n
)
√
n
g
(log
n
)
,
Λ(
n
)
K
(
t
)
K
(0) = 1
/
12
W
(
g
⋆
˜
g
)
≥
0
g
∈
S
(
R
)
even
,
(
g
⋆
˜
g
)(
x
) =
R
R
g
(
x
+
t
)
g
(
t
)
dt
(0
,
∞
)
R
n
h
:
R
→
R
ˆ
h
h
(0)
>
0
h
(
r
)
≤
0
r
≥
r
0
ˆ
h
(
t
)
≥
0
t
h
(
r
0
) = 0
h
′
(
r
0
) = 0
Φ : CE
24
→
S
(
R
)
even
f
∈
CE
24
W
(Φ
f
)
⋆
]
(Φ
f
)
≥
0
.
Φ : CE
24
×
N
→
S
(
R
)
even
f
24
∈
CE
24
Λ
24
g
∈
S
(
R
)
even
N
W
((Φ(
f
24
,
n
))
⋆
^
(Φ(
f
24
,
n
)))
≥
0
n
≥
N
W
(
g
⋆
˜
g
)
≥
0
g
A
′
Λ
24
Λ
24
= Λ
∗
24
Θ
Λ
24
Θ(
−
1
/τ
) =
τ
12
Θ(
τ
)
c
(
q
1
) = 0
∞
V
♮
j
(
τ
) =
j
(
−
1
/τ
)
V
♮
1
=
1
⊕
196883
T
2
A
w
2
c
(1) = 1
+
4371
E
k
L
(
f
,
s
)
↔
L
(
f
,
k
−
s
)
a
p
= 1
+
p
ζ
(
s
)
ξ
(
s
) =
ξ
(1
−
s
)
Re = 1
/
2
W
(
g
⋆
˜
g
) =
X
ρ
|
ˆ
g
(
ρ
)
|
2
|
{z
}
≥
0
−
X
n
≥
1
Λ(
n
)
√
n
(
g
⋆
˜
g
)(log
n
)
|
{z
}
−
Z
∞
0
K
(
t
)
(
g
⋆
˜
g
)(
t
)
dt
|
{z
}
.
A
′
D
(Λ
24
,
Θ
Λ
24
,
)
(
ζ
(
s
)
,
ξ
(
s
) =
ξ
(1
−
s
)
,
)
f
g
D
W
(
g
⋆
˜
g
)
≥
0
D
g
∈
S
(
R
)
even
f
g
D
(
f
,
·
)
A
′
g
f
g
W
(
g
⋆
˜
g
)
≥
0
g
A
′
=
⇒
A
′
=
⇒
g
⋆
˜
g
A
′
196884 = 1
+
196883
4372 = 1
+
4371
a
p
= 1
+
p
⇒
ζ
(
s
)
A
′
θ
A
2
A
2
L
(
s,
χ
3
)
T
3
A
T
5
A
T
7
A
ζ
(
s
)
D
A
′
E
8