Friday, 26 July 2013

Theorem / Eliashberg​, Tomita, Borchers

Symplectic Language Theory 
TANAKA Akio 
     
​
Note 1 
Symplectic Topological Existence Theorem​
​
​
[Theorem]​
(Eliashberg)​
Symplectic homeomorphism   is C0 convergent to differential 
homeomorphism .​
Under the upper condition, φ is symplectic homeomorphism.​
​
​
[Note]​
1​
For language's understandability, differential homeomorphic C0 convergence is related with 
the finiteness and infinity of language. ​
2​
For the finiteness and infinity of language, next theorem is eficient to solve the problem.​
​
(Tomita's fundamental theorem)​
H       Hilbert space        ​
B(H)  Banach space B(H, H)​
N       B(H)'s *subalgebra that contains identity operator and closes for τuw topology​
J        Conjugate linear equidistance operator​
Δ       Unbounded positive self-adjoint operator​
Δit     τs-continuous 1 parameter unitary group​
(1) ​
(2) ​
​
(Borchers' theorem 1992)​
The theorem is deeply connected with Tomita's theorem.​
​
​
[Impression]​
Symplectic geometric structure is seemed to be solvable for language's understandability that 
simultaneously connotes finiteness and infinity within. ​
​
​
[References]​
<Topological approach>​
#1 Topological Approach​
<Language's understandability>​
#2 Deep Fissure between Word and Sentence​
#3 Finiteness in Infinity on Language​
<Related theorems>​
#4 Tomita's Fundamental Theorem​
#5 Borchers' Theorem​
<Related twitter site>​
#6 sekinanlu​
​
​
​
To be continued​
Tokyo February 27, 2009​
Sekinan Research Field of language​

Source:

Borchers’ Theorem


Note 2
Borchers’ Theorem  



[Theorem]
von Neumann algebra     N
Cyclic and separate vector of N     Ω
Continuous 1 coefficient group of unitary operator     U (λ)   
U (λ) has next condition.
U (λ)Ω = Ω 
U (λ)N U (λ)* ⊂N   
Generation operator of U (λ)       H
Modular operator on (N, Ω)     Δ
Modular conjugation on (N, Ω)     J
Next 2 conditions are equivalent.
(i) H ≧ 0
(ii) Δit U (λ) Δ-it = U (e-2πtλ)     J U (λ) J = U (-λ)  

[Preparation]
<1 Cyclic vector>
Representation of C*algebra A     {H, π}
x∈H
{π(A)x} - = H
x is called cyclic vector.
<2 separate vector>
Norm space     V
Subset of V     D
sup{||x|| ; x∈D} < ∞
D is called bounded.
Linear operator from norm space V to norm space V1      T
D ( T ) = V
||Tx||≦γ (x∈V )  γ > 0
T is called bounded linear operator.
||T || := inf {γ : ||Tx||≦γ||x|| (x∈V)} = sup{||Tx|| ; x∈V, ||x||≦1} = sup{; x∈V,  x≠0}
||T || is called norm of T.
Hilbert space     H , K
Bounded linear operator from H  to K     B (H, K )
B ( H ) : = B ( H, H )
B⊂B (H)
x∈H
Q⊂B
Qx = 0 → Q = 0
x is called separate vector.
<3 Continuous 1 coefficient group of unitary operator >
Self-adjoint operator     A
Spectrum measure     {Eλ}
A = ∫∞-∞ λdEλ
Unitary operator over H       U = ∫∞-∞ eiλEλ
Ut = eitA = ∫∞-∞ eitλ Eλ
Continuous 1 coefficient group of unitary operator     {Ut ; t ∈R}
U0 = I
Us+t = Us + Ut   ∀s,t ∈R
Ut* = U-i


To be continued
Tokyo May 2, 2008

Meaning minimum / On Roman Jakobson, Sergej Karcevskij and CHINO Eiichi

Simplicial Space Language -Composition of Word

Simplicial Space Language


Home Site: ifbetrue
Autor: TANAKA Akio
Theme: Language Universals
Method: Homotopy Theory
-----------------------------------------

Simplicial Space Language
-Composition of Word

20 January 2013
ifbetrue

1. 
 is topological space.
 is simplicial space.
 is represented by geometric realization of   as the next.
2.
 is topological space.
 is singular simplex.
 is free Abelian group generated by set .
 .
 is singular chain complex of  and has strongly convergence spectral sequence called Atiyah-Hirzebruch spectral sequence.
3.
Interpretation.
Word  is given by geometric realization of simplicial space  .
Meaning unit in word is given by free Abel group .
(Paper end)

Lang Model

Lang Model


1. Lang conjecture (S.Lang 1974)
Algebraic field F ( finite dimensional overfield over Q ) is defined over projective algebraic variety V.
For a certain embedding F -> C, V is seen that V is seen as complex projective algebraic variety.
If V is Kobayashi hyperbolic, V ( F ) is finite set.
2. Shafarevich conjecture ( I.Shafarevich 1963)
F is algebraic field.
OF is integer ring of F
.
Finite subset  and integer  are fixed.
When the upper conditions are satisfied, g dimensional Abelian variety over F and genius g's algebraic curves that degenerate in only S at most only exist finite number.
3. Interpretation
3.1 Finiteness of words by Shafarevich conjecture
Language := FSentence := OFWord := SWord's dimension := gWord's meaning := genius g's algebraic curves 3.2 Grammar (Connection of words) by Lang conjecture
Language := FGrammar (Words' connection rule) := Kobayashi hyperbolicity
4. References
4.1 On dimension and meaning
Quantum Theory for Language 2004
4.2 On Kobayashi hyperbolicity
Ditance Theory 2004
From Distance to Pseudo-Kobayashi-Distance 2012

This paper's description is unfinished.
Tokyo
17 June 2012

Arithemetic Geometry 1 Dimension of Word

Arithemetic Geometry 1

Dimension of Word

TANAKA Akio
24 December 2012

1. 
Theorem by C. Soulé, Lectures on Arakelov Geometry, 1992. 
 is morphism between regular arithmetic varieties.
 is pullback.
When  are morphism between regular arithmetic varieties, the next is concluded.
 .

2.
Interpretation of the upper theorem.
Word : .
Decomposition of word : , named pullback.
Decomposed meaning unit in word :  and .
3.
Pullback is defined by the next from Efton Park, Complex Topologicak K-Theory, 2008.

Let  and be topological spaces, let  be avector bundle over , and suppose  is a continuous map,
Define

4.
Interpretation of theupper theorem 2.
Word can be deposed to meaning units by pullback.
Meaning unit also become pullback.

5.
Pullback contains order function ord.
ord contains length.
Here length is longitude of composition series.
Here composition series is defined by the next.

A is commutative ring.
M is A module.
If A be field,  is M's dimension over A.

6.
From 5. leads the next supposition.
When word is decomposed to meaning unit, each unit has demension that determines word's dimension.
(Here ends the paper.)