From Tenson Particles to Tenson Fields: Emergence of a Collective Energy–Information Structure

In a preceding work, the Tenson particle was introduced as a minimal physical unit defined by the resonant coupling of energy and information, carrying an intrinsic temporal degree of freedom. The present paper investigates the collective behavior of such minimal units and demonstrates that a field description emerges necessarily in the many-particle limit. Rather than postulating a fundamental field a priori, we show that the introduction of a con- tinuous energy–information field is required once collections of Tenson particles are considered. This emergence is driven by structural constraints associated with locality, internal temporal variability, and extended conservation principles. The resulting Tenson field is characterized by a composite energy–information structure and admits a natural conservation form without assuming specific dynamical equations. The analysis is deliberately restricted to structural considerations. Quantization, detailed dynamics, and thermodynamic interpretations are not addressed here and are left for subsequent work.

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PhilPapers (PhilPapers Foundation)
Published
2026-01-08
Primary Topic
Micro and Nano Robotics
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article
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article

From Tenson Particles to Tenson Fields: Emergence of a Collective Energy–Information Structure

Ryusho Nemoto
PhilPapers (PhilPapers Foundation)
Micro and Nano Robotics
article

From Tenson Particles to Tenson Fields: Emergence of a Collective Energy–Information Structure

Ryusho Nemoto
article en

Abstract

In a preceding work, the Tenson particle was introduced as a minimal physical unit defined by the resonant coupling of energy and information, carrying an intrinsic temporal degree of freedom. The present paper investigates the collective behavior of such minimal units and demonstrates that a field description emerges necessarily in the many-particle limit. Rather than postulating a fundamental field a priori, we show that the introduction of a con- tinuous energy–information field is required once collections of Tenson particles are considered. This emergence is driven by structural constraints associated with locality, internal temporal variability, and extended conservation principles. The resulting Tenson field is characterized by a composite energy–information structure and admits a natural conservation form without assuming specific dynamical equations. The analysis is deliberately restricted to structural considerations. Quantization, detailed dynamics, and thermodynamic interpretations are not addressed here and are left for subsequent work.

PhilPapers (PhilPapers Foundation)
Openalex Percentile: Top 88%
Micro and Nano Robotics
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