Draft:SynchronoGeometry

SynchronoGeometry

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SynchronoGeometry is a proposed theoretical framework in differential geometry and the philosophy of time, introduced by independent researcher Saadat Samadi in 2025. The concept integrates localized temporal rhythms into the spatial configuration of manifolds, treating time as an intrinsic and dynamic property of each point in space rather than as an external parameter.

Background

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In classical geometries such as Euclidean, Riemannian, and pseudo-Riemannian models, time is typically considered a linear and external dimension. General relativity partially incorporates time into spacetime curvature, but assumes globally synchronized time scales. SynchronoGeometry advances this notion by proposing that each point on a manifold possesses its own temporal rhythm, which directly influences its local geometric structure.

Core Definitions

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Let M be a smooth manifold. Define a local time function t(x) for each point x ∈ M. The metric tensor is expressed as a function of both spatial coordinates and localized time:

 

Geodesic paths in this framework are modulated by temporal variations across the manifold, rather than spatial curvature alone.

Structural Characteristics

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  • Geometric entities such as angles, distances, and curvature exhibit rhythm-based modulations.
  • Surface area and volume become time-dependent functions.
  • Geodesics may bifurcate or oscillate due to asynchronous time gradients.

Conceptual Examples

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  • A triangle whose vertices experience different time rhythms morphs cyclically.
  • A hypersurface pulses periodically due to embedded rhythm fields.
  • A manifold’s topology shifts in response to propagating wave-like time pulses.

Applications

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SynchronoGeometry may offer modeling frameworks for:

  • Dynamic perception theories and cognitive simulation
  • Temporal narrative structures in interactive environments
  • Quantum models with localized time variation

Future Research

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Further work is needed to:

  • Formalize curvature equations and topological constraints
  • Explore connections to geometric flows and field theories
  • Develop visual simulations of temporally fluctuating geometries

References

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