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A geometric quantum mechanics framework for quantum systems and measurement
Developed by Zayn Blore (https://orcid.org/0009-0009-8447-7247), Independent Researcher
Constraint-Surface Dynamics is a research programme developing a geometric formulation of quantum mechanics in which dynamics, measurement, and probability arise from constrained structure rather than axioms or interpretive postulates.
CSD builds on the tradition of geometric quantum mechanics, extending it to address long-standing questions about measurement, outcome structure, and operational probability in a unified and technically grounded way.
What CSD is
CSD treats quantum systems as evolving on constrained geometric surfaces, with measurement corresponding to measurement-induced structure on that surface, rather than an external collapse rule.
In this framework:
Quantum evolution is deterministic at the level of the underlying geometric state.
Measurement corresponds to a structured partition induced by physical interaction.
Probabilities arise from geometric typicality over constrained regions.
Decoherence reflects loss of effective isolation to additional degrees of freedom.
What CSD has achieved so far
The CSD programme has already delivered concrete results at the conceptual and mathematical level.
A consistent geometric account of quantum measurement
Outcomes are defined operationally as regions induced by measurement interaction, without invoking collapse or branching metaphysics.Derives the Born rule from SU(n) invariance
Probability weights are shown to be compatible with geometric volume measures under well-defined conditions, rather than assumed as axioms.Clear separation of ontology and operational description
The framework distinguishes the underlying geometric state from the observed structure without introducing hidden variables or signalling pathologies.Formal consistency with standard quantum mechanics
All results are constructed to remain empirically equivalent to standard QM in their domain of applicability.
The programme is documented in four peer-reviewed preprints published on Zenodo (2025), & Qeios with approximately 2,850 views and 1,500 downloads across platforms. Full papers with DOIs and download links are available on the Papers page.
Research status and review
The work has been publicly disseminated and reviewed through:
Published papers and preprints
Independent technical feedback from researchers in quantum foundations and quantum mechanics
Open critical discussion and revision based on reviewer comments
The programme is intentionally transparent about assumptions, scope, and open questions.
This site complements the papers by focusing on clarity, synthesis, and accessibility, rather than formal derivations alone.
What CSD is working toward
The current goals of the programme are:
To develop a clean geometric language for measurement and probability
To connect geometric structure to operational questions in sensing, control, and quantum technologies
To make the framework usable for education and interdisciplinary dialogue
To identify where the approach succeeds, and where it may fail
Later work will address extensions to multi-particle systems, field-theoretic limits, and relativistic structure, where appropriate.
What CSD does not do
Clarity about boundaries is essential.
CSD does not:
Propose new experimental predictions beyond standard quantum mechanics (at present)
Replace quantum mechanics or its formalism
Commit to a specific interpretation (Copenhagen, Many-Worlds, etc.)
Claim to solve all foundational problems
Offer engineering guarantees or performance claims
Where results are partial or conditional, this is stated explicitly.
Who this is for
CSD is intended for:
Researchers in quantum foundations and geometric quantum mechanics
Physicists interested in measurement, probability, and structure
Educators seeking coherent conceptual frameworks
Practitioners interested in geometric and operational perspectives
It is not a product pitch and not a finished theory.
Get started
If you are interested in a geometric approach to quantum systems and measurement, you can begin with a short primer introducing the framework, its motivations, and its limits.
Understand it’s positioning: Position - Get Started: Read the Primer (5 pages) - Go Straight to Papers (with reading paths).