IMU LLC Scientific Papers | Quantum Biology & START Cosmology
IMU LLC Scientific Papers
IMU LLC develops interdisciplinary research exploring the interface between quantum physics, atomic theory, cosmology, quantum biology, information systems and emerging measurement technologies.
This research programme investigates theoretical and experimentally testable frameworks addressing questions including the origin and organisation of matter, quantum-to-classical transitions, isotope timing, hydrogen dynamics, aromatic-ring systems and information–matter interactions.
A central area of research is START Cosmology, an emerging theoretical framework developed to investigate relationships between atomic structure, nuclear decay timing, quantum-scale dynamics and cosmological organisation.
Related areas of investigation include:
- Quantum biology
- START Cosmology
- He-BEC cosmological modelling
- SUSY inversion
- Quark charge calculations
- Isotope-timed cosmology
- Hydrogen kinetic boundary layers
- Quantum-to-classical transitions
- Aromatic-ring quantum systems
- Proton tunnelling
- Atomic and nuclear timing
- Information–matter transduction
- Simulation-based LENR system design
- Quantum measurement and transducer systems
These publications describe theoretical models, hypotheses, simulations and emerging experimental approaches. Where proposed mechanisms extend beyond established physical models, they should be understood as research hypotheses intended to generate measurable predictions and opportunities for experimental testing.
Revision of Quark Charge Calculations
SUSY Inversion, Particle Charge and Atomic Structure
This research examines an alternative approach to the calculation and representation of quark charge.
The proposed framework investigates relationships between quark states, particle–antiparticle symmetry and SUSY inversion, with particular attention to the potential implications for proton, neutron and positron systems.
The model provides part of the theoretical foundation used within START Cosmology to investigate connections between subatomic particle structure, nuclear transformations and larger-scale physical organisation.
Research topics:
Quark charge • SUSY inversion • particle physics • atomic structure • proton • neutron • positron • quantum cosmology
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Revision of Quark Charge Calculations
Isotope-Timed Cosmology
Nuclear Decay, He-BEC and Cosmological Timing
This research examines an alternative approach to the calculation and representation of quark charge.
The proposed framework investigates relationships between quark states, particle–antiparticle symmetry and SUSY inversion, with particular attention to the potential implications for proton, neutron and positron systems.
The model provides part of the theoretical foundation used within START Cosmology to investigate connections between subatomic particle structure, nuclear transformations and larger-scale physical organisation.
Research topics:
Quark charge • SUSY inversion • particle physics • atomic structure • proton • neutron • positron • quantum cosmology
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Isotope-Timed Cosmology
Nuclear Decay, He-BEC and Cosmological Timing
Isotope-Timed Cosmology investigates whether characteristic nuclear decay processes can provide useful temporal reference systems for modelling physical organisation across different scales.
The framework explores nuclear stability, radioactive decay, isotope transformations and helium systems as possible timing structures within START Cosmology.
A particular research direction investigates a helium Bose–Einstein condensate (He-BEC) reference model and its relationship to nuclear processes, symmetry transformations and cosmological evolution.
Research topics:
Isotope cosmology • nuclear decay • He-BEC • helium • alpha decay • cosmological timing • quantum physics • START Cosmology
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Kinetic Boundary Layer in Hydrogen
Hydrogen Dynamics, Km, Vmax and Quantum Biology
This research investigates hydrogen as a dynamic boundary system connecting atomic physics, chemical kinetics and biological processes.
The model explores whether kinetic relationships conventionally represented through parameters such as Km and Vmax can provide additional information about quantized boundary behaviour associated with hydrogen-containing systems.
The work forms part of a broader investigation into proton transfer, proton tunnelling, molecular energy boundaries and the possible role of hydrogen dynamics in quantum biology.
Research topics:
Hydrogen • proton tunnelling • Km • Vmax • kinetic boundary layer • quantum biology • atomic physics • molecular kinetics
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Kinetic Boundary Layer in Hydrogen
Simulation-Based Design of the LENR System
Computational Modelling, AI and Emerging Energy Systems
Simulation-based design provides a method for investigating complex physical systems before full experimental implementation.
This research examines computational and simulation approaches for the design and analysis of a proposed low-energy nuclear reaction (LENR) system, including system architecture, dynamic interactions and potential optimisation strategies.
The work connects simulation engineering with IMU LLC's wider research programme in measurement, atomic systems and information–matter transduction.
Research topics:
LENR • simulation-based design • artificial intelligence • computational modelling • energy systems • system engineering • nuclear processes
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Simulation-based design of the LENR system
Research Themes at IMU LLC
Quantum Biology
IMU LLC investigates how quantum-scale processes may contribute to biological organisation and measurement.
Research areas include proton tunnelling, electron transfer, spin dynamics, coherent molecular systems, light–matter interactions and aromatic molecular structures.
START Cosmology
START Cosmology is an emerging theoretical framework investigating relationships between quantum structure, particle physics, nuclear timing and cosmological organisation.
The programme seeks to transform theoretical relationships into quantitative models that can ultimately be subjected to experimental testing and falsification.
He-BEC Cosmological Modelling
The He-BEC research programme explores helium Bose–Einstein condensate systems as a theoretical reference state for examining symmetry, nuclear processes, atomic organisation and cosmological evolution.
Aromatic Ring and the Quantum-to-Classical Boundary
IMU LLC research also investigates aromatic π-electron systems as experimentally accessible molecular structures for studying quantum-to-classical transitions.
These investigations include electron delocalisation, proton dynamics, photon interactions, molecular timing and potential information-processing behaviour.
Information–Matter Transduction
A further research programme examines whether changes in physical systems can be detected through optical, electromagnetic, electrical, magnetic and thermal measurement channels.
This work contributes to the development of IMU LLC transducer concepts and experimental measurement platforms.
Scientific Research and Experimental Validation
An important objective of the IMU LLC research programme is to move progressively from:
theoretical framework → mathematical model → measurable prediction → experiment → independent validation → falsification or refinement
This approach allows unconventional theoretical models to be evaluated against experimental evidence rather than being accepted solely on conceptual arguments.
IMU LLC welcomes engagement with researchers, physicists, chemists, biologists, engineers, universities and research institutions interested in collaborative investigation and independent scientific testing.
Explore IMU LLC Research
Explore:
Scientific Papers • Quantum Biology • START Cosmology • Quantum-to-Classical Boundary • IU/MU Transducer • Patents • Conference Presentations • QBRI Education
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