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VISHWA VIGYAN

Universal Science. Fundamental Questions.

An emerging independent science and technology initiative connecting original research, experimental engineering, rigorous communication and collaboration.

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About Vishwa Vigyan

Vishwa Vigyan is a flexible umbrella for serious science-led work. Its first public branch is Vishwa Vigyan Labs, which hosts focused theoretical, computational and experimental programs.

The current prototype is research-led. Advisory, education, technology and venture work may be added only when each activity has a real team, a defined purpose and an honest public record.

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Our public standard: primary sources first; published work, preprints, working manuscripts and speculative research questions are labeled separately.

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Vishwa Vigyan Labs

Theoretical and computational research

Mesoscopic transport and time, quantum measurement, non-Hermitian topology, localization, quantum thermodynamics and materials modelling.

Experimental research and engineering

Superconducting quantum hardware, cryogenic microwave measurement, hybrid Josephson devices, deep-sky instrumentation and characterization.

Vishwa Vigyan Labs

Featured research

Mesoscopic Time Group

Led by Prof. P. Singha Deo, the group studies local and partial density-of-states quantities, Fano resonances, scattering phases, Landauer transport, Larmor/traversal time and the authors' proposed connections between mesoscopic measurement and time.

Published paper: Negative Local Partial Density of States — Kanchan Meena, Souvik Ghosh and P. S. Deo, 2025. Journal · DOI

Current preprint: Reinterpreting Landauer conductance, solving the quantum measurement problem, grand unification — Kanchan Meena, Souvik Ghosh and P. Singha Deo. arXiv:2512.09709

The authors advance unconventional interpretations of negative LPDOS and local time. Vishwa Vigyan presents these as published calculations and author arguments that invite independent scrutiny—not as experimentally settled proof of macroscopic time travel.

Non-Hermitian quantum systems

Experimental quantum computing