Published March 21, 2026 | Version v1
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Mathematical Terms in Extended Classical Mechanics

  • 1. Tagore's Electronic Lab, India

Description

This document provides a unified and structured guidance for the usage, equivalence, and physical interpretation of key mathematical terms in Extended Classical Mechanics (ECM), including ΔΦ, Δf/Δfₓ, x°, θ, and angular frequency ω. Within the ECM framework, phase (ΔΦ) is treated as the primary dynamical variable, from which observable quantities such as frequency deviation (Δfₓ) and time variation (Δt) emerge as projections along the Phase Kernel.

The document establishes the fundamental transformation structure ΔE → f₀ → ΔΦ → Δfₓ, while maintaining that observable dynamics are governed in the manifested domain through fₓ, not the pre-manifest eigenfrequency f₀. It rigorously defines the relation Δfₓ = (ΔΦ / 360°) × fₓ, ensuring consistency between phase accumulation and measurable frequency deviation.

Special emphasis is placed on ECM conventions, including the adoption of degrees (x°) over radians for phase representation, the modular nature of phase (0°–360°), and the unbounded nature of frequency deviation. The integration of instantaneous angular frequency (ω) is shown to produce cumulative phase through ΔΦ = ∫ ωₖₑᵣₙ dt, which subsequently manifests as Δfₓ.

In addition, the document incorporates ECM’s mass–energy–phase framework, linking −ΔPEᴇᴄᴍ, ΔKEᴇᴄᴍ, and ΔMᴍ through the manifestation principle, and situating frequency and phase evolution within this broader physical structure. Clarifications are also provided for equivalences among fꜱᴏᴜʀᴄᴇ(x°), ΔΦ, Δfₓ, x°, θ, and ω.

The overall objective is to establish a coherent, internally consistent mathematical language for ECM, where phase governs dynamics, frequency encodes observability, and mass–energy redistribution drives physical phenomena from microscopic oscillations to cosmological evolution.

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Mathematical Terms Guidance in Extended Classical Mechanics (ECM)_v1.pdf

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Additional details

Related works

Describes
Preprint: 10.20944/preprints202603.1520.v1 (DOI)

References