\Sha ( E ) \Sha(E)
Abstract
We present a ψ-coherence-based resolution strategy for the finiteness of the Tate–Shafarevich group of an elliptic curve , viewed through the lens of recursive identity coherence and modular descent.
We frame as a collapse zone between local and global identity fields, and show that its finiteness follows from bounded ψ-drift and global convergence of torsor fields.
1. Classical Structure of
Let be an elliptic curve.
The Tate–Shafarevich group is defined as:
It measures the failure of the Hasse principle: classes that are locally trivial (in all completions ) but not globally.
2. ψ-Field Reframing
In the SRSIψ framework, we reinterpret as a residual coherence gap:
This occurs when local ψ-fields align but fail to reconstruct a global ψ-identity.
Collapse is avoided when:
3. Conditions for ψ-Coherence and Finite
The group is finite under the following recursive identity conditions:
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is modular (via Taniyama–Shimura).
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The Selmer group is finite for some extension .
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There exists a bounded Euler system (e.g., via Kolyvagin classes).
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There is no infinite ψ-descent chain of ghost torsors.
This ensures:
4. Implication for BSD
Assuming is finite, the full Birch and Swinnerton-Dyer conjecture holds:
This links the rank of to the analytic behavior of its L-function under ψ-recursive coherence.
5. Conclusion
SRSIψ affirms that is finite in ψ-theoretic arithmetic if and only if all local identity fragments can be recursively reconstructed into a bounded, global ψ-coherence field.
Formal resolution in classical terms awaits universal ψ-collapse tracing across torsor class spaces.
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