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Journal of Modern Chemistry & Chemical Technology Original Research

Microvita as a Fermi-Boson Hybrid Quantum Excitation: A Statistical Pathway Toward Unified Physics, Chemistry, and Biological Organization

  1. Ranveer Kumar Department of Physics, Patliputra University, Patna
  2. Gayatri Kumari Department of Physics, Patliputra University, Patna
  3. Smita Kumari Department of Chemistry, College of Commerce, Arts and Science, Patna
  4. Rashmi Kumari Department of Zoology, College of Commerce, Arts and Science, Patna
  5. A.K. Bhaskar Department of Physics, College of Commerce, Arts and Science, Patna

Abstract

This article reformulates Microvita as a hybrid quantum excitation that interpolates continuously between fermionic and bosonic statistical behavior. A generalized operator algebra, a dynamical statistical order parameter, and a Lorentz-covariant field equation are used to frame Microvita as an effective unification scheme rather than a mere philosophical construct. The formalism predicts renormalization-group flow between infrared fermionic and ultraviolet bosonic limits, while numerical profiles suggest vacuum-energy smoothing and topological-defect suppression in the intermediate regime. To widen the scientific reach of the article, chemistry and zoology are linked to the model through coherent molecular organization, electron-pair transitions, enzyme-assisted reaction pathways, and biological coherence in structured living systems. Six MATLAB-ready figures are embedded directly into the paper to support journal presentation. The theory remains falsifiable through deviations from standard statistics in dense matter, early-universe physics, and high-coherence quantum media, and is presented here as a mathematically motivated step toward total unification.

Keywords

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