Independent R&D Argentina
Independent Research in Mathematical Physics and Emerging Technologies
QAF is a founder-led research programme investigating foundational mathematical structures and their potential technological consequences.
01 About QAF
The Quaternion Autocontained Framework explores the hypothesis that physical reality admits an autocontained mathematical foundation.
QAF follows a monistic research approach: mathematical structure and physical phenomena are investigated as aspects of a single reality. The programme studies geometric formulations, their consequences under explicit assumptions, and their connection to observable phenomena.
Its ambition is to connect foundational inquiry with testable physical hypotheses and carefully defined opportunities for technology development.
Foundational hypotheses, mathematical results, conditional derivations and falsifiable predictions are distinguished from experimental evidence and validated technologies.
02 Research areas
Three areas connect theoretical structure, physical response and potential applications.
Quaternionic geometry, foundational consistency and candidate mathematical descriptions linking theoretical structure to physical observables.
Chiral charge transport, spin-dependent effects and electrically active interfaces, with an emphasis on hypotheses that can be distinguished through experimental assessment.
Prospective applications in energy storage, materials and advanced computation, developed through application-specific research and critical assessment.
03 Energy technologies
QAF contains falsifiable, ansatz-based predictions that may be selected for application-specific experimental assessment. These energy directions are theoretical research proposals at TRL 2; they do not represent completed devices or experimentally validated prototypes.
Research into spin-dependent charge transport and electrically active interfaces, exploring how chirality may inform the design of advanced conductive systems.
Assess charge and spin responses under defined conditions, using controls to distinguish competing mechanisms and test reproducibility.
Proposed advanced capacitive architectures exploring chirality as a design variable for charge storage and electrically active interfaces.
Evaluate application-specific capacitive behaviour, leakage, stability and energy balance through independently defined measurement protocols.
Research into proposed chiral conduction regimes, including room-temperature transport as a theoretical target for experimental assessment.
Characterise electrical and thermal response under specified material and operating conditions, with controls for alternative transport explanations.
A defined route from theoretical prediction to application-specific evidence.
04 Scientific publications
Selected public QAF materials, accessible through their original Zenodo records.
These materials present theoretical research within their stated assumptions and scope. Public research records are distinguished from independent experimental assessment of QAF's proposed technologies.
05 Industrial collaboration
QAF welcomes exploratory discussions concerning funded proof-of-concept research, independent experimental testing and application-specific technology development.
06 Founder & contact
Founder, Developer & Scientific Lead — QAF
Independent R&D Argentina
QAF is a founder-led independent research programme connecting mathematical-physical inquiry with the assessment of emerging technological possibilities.
For research enquiries, independent experimental assessment and exploratory industrial collaboration.
