GUNAMX, QMEIIACS Research Group

About Us

GUNAMX is a global network focused on fundamental and applied research on gunam, emergence of gunam and emergent phenomena. Quantum Matter-Energy-Information-Interfaces and Complex Systems Research Laboratory (QMEIIACS) is a member of GUNAMX laboratory networks.

At QMEIIACS, we use complex system models to address fundamental questions in origin of life, personalized precision medicine, origin of perceivable universe, indigenous cognition and existential knowledge.

Our long-standing expertise is in validation of emergent phenomena in Matter-Quantum Matter-Complex System interfaces using phenomenological and empirical methods. We have expertise in developing evidence based approach for exploring structure-property transformations in Nanomaterials and Quanutm Matter-Complex System Interfaces.

Our research team have expertise in many phenomenological, experimental and computational methodologies. We are working on translating research outcomes to provide solutions to the real world problems for sustainable well being of humanity and the planet earth.

Spotlight

Bound exciton engineering approach for tuning the thermal lensing phenomenon in anatase TiO2: Gd nanosystems

Very little information is currently available regarding the photoexcited generation of bound excitons in anatase TiO2 nanoparticles and the impact of impurity doping on the coupling interactions between photons and phonons. Recently, we provided an experimental and theoretical framework based on real-time time-dependent density functional theory to further elucidate this phenomenon and proved that there is a direct correlation between bound exciton generation and third-order optical nonlinearity in anatase TiO2. Abstract

Discovery

Solution of The Yang-Mills Conjecture From The Quantum Information Transport Equations for Emergence of “Vyaktham” From “Avyaktham” on The Surface of A Topologically Invariant 2D Poincare Sphere

The successful resolution of the Yang-Mills conjecture is expected to deepen our understanding of the nature of particle physics and may provide insights into the unification of fundamental forces. In this regard we hereby provide solutions to solve Yang-Mills conjecture using the method of Self Information Entanglement and Quantum Information Transport Equations to elucidate the origin of Universe from Unperceivable Information called “Avyaktham” through the emergence of perceivable information “Vyaktham”. We computed that the value of mass gap mentioned in Yang-Mills conjecture is around mYM = mbit ≈ 1.06×10−41kg. Abstract

Research

QMEIIACS Lab primarily focuses our research on the problem of what existence is, whether biological or informational, and how it first emerged from unperceivable universe or how we can explore it by existing in perceivable universe using available means.

As a part of GUNAMX, we explore answering questions at the bleeding edge of science - usually called the "philosophical questions or beyond the capacity of science questions." "What is existence?" is certainly a big question, and as such, it touches on many of the other deep existential open areas of research that are active right now, including questions around real-world problems and challenges of modernity.

To understand existence, we recognize it is essential to study the emergent phenomena across many scales, from the quantumscale interactions of the physics within quantum matter-energy-information systems and it's interfaces to the nanoscale and microscale interactions in biological and nonbiological systems."

Thrust Areas

Exploring the origin, nature and emergence of perceivable universe from the unperceivable information.
Method development for understanding the process of quantum information transport between perceivable universe and unperceivable information.
Translating the research outcomes to solve the real-world problems using existential knowledge and technology.
Reinventing the wheel by ontological reversal, correcting axioms and unethical epistemic translations.
Evolving with modernity without epistemicide and not compromising the philosophy using epistemic pluralism and cooperative approach.

Projects

Solving real world problems using nanosystems engineering

Validation of emergent phenomena in Matter-Quantum Matter-Complex System interfaces using phenomenological and empirical methods.
Design, development and understanding of Quantum Matter - Complex System Interfaces.
Developing evidence based approach for Understanding structure-property transformations in QM-CS interfaces using quantum biological models.
Evidence based validation of personalized precision medicine and nanotherapeutics through phenomenological and empirical methods.
Nano-systems engineering, Modeling of Emergence in Complex Systems, Foundations of Cognition, Human Perception and Consciousness through phenomenological and empirical methods using QMEIIACS frameworks and Models.