Upload the study.
Map the state.
Keep the anatomy attached.
PsiPi Quantum Systems analyzes MRI as a structured complex state rather than a stack of magnitude-only pictures. The working system accepts study files, builds anatomical and phase-space ledgers, tracks multiscale directional structure, and produces inspectable objects that can be compared across slices, modalities, scales and visits.
A working front door to the analysis stack.
Orchard Gate is the operational pattern: accept a study, inventory it, process the complex state, bind the result to anatomy, and expose the resulting ledger for review. The dashboard is not a mock-up of a future idea; it is the interface model for analysis outputs already produced by the stack.
What the system has already shown it can do.
The research stack has already produced repeatable object-level outputs across structural MRI, multiscale phase analysis and visit comparison. These are the basis of the site.
Large-scale local state extraction with multi-Q shell measurements and retained anatomical correspondence.
Observed objects can be placed into a chamber inventory while preserving radius, angle and object weight.
Objects carry phase, cycle, flux-drift and Casimir fields instead of being reduced to a scalar score.
A rendered backbone linked pins and ribbons back to the source anatomy and local envelope.
Carrier, anchor and suppressed routes
Corbino–SU(2) decoding separated dominant SU2_13 carrier behavior, minority SU2_12 anchors and zero SU2_23 argmax assignments in the curated harvest while preserving continuous pair allocation separately.
Local transport instead of a static label
Dihedral state, structural rank, shell prediction, angular time, phase velocity, inertia, red/blue shift class and triangle counts are logged at object level.
Visit-to-visit mesh comparison
ORB mesh, shared pair structure and state descriptors have been compared across visits, preserving both geometric and phase-space deltas.
The ledger is the product of the observation.
PsiPi does not begin by deciding what an unknown phase-space object is. It records where the object lives, how it is oriented, how it changes, and which state-space descriptions remain consistent with that observation.
| Ledger | Representative fields | What it answers |
|---|---|---|
| Anatomical | slice, XYZ, modality, visit, pinID, facetID, hingeID, backboneID | Where is the observation attached? |
| Complex state | real, imaginary, magnitude, phase, mixed/null support | What part of the reconstructed complex state is present? |
| Directional | DTCWT scale, orientation, complex coefficient energy, phase shift | Which directions and scales carry the local response? |
| Geometric | edge/facet support, normals, dihedral angle, curl, triangle deformation | How does local geometry evolve? |
| Temporal | TR, microtime, angular time, persistence, phase velocity, inertia | When does the state change and how long does it persist? |
| State-space | shell, Weyl chamber, orbit, pair allocation, Cartan position | How is the observed object organized in the derived state space? |
| Algebraic projection | L1…L8; L1/L4/L6; L2/L5/L7; L3/L8 | Which real, imaginary and diagonal components describe the observed state? |
Preserve the complex signal long enough to map its patterns.
MRI data are inherently complex. The fMRI program extends the same cartographic method into time-resolved acquisition: preserve real and imaginary structure, let the DTCWT supply multiscale directionality, measure local geometric change, and classify only after the state has been observed across time and anatomy.
Real / imaginary / mixed / null
Imaginary values are not treated as automatic biological meaning. They are retained as part of the measured state so spatial, temporal and multiscale patterns can emerge or fail to emerge in the ledger.
Directional local trajectories
DTCWT coefficients, angular time, phase velocity and local deformation provide a way to follow fine state changes rather than collapsing the entire run into one magnitude trajectory.
Separate BOLD, physiology and flow
Cardiac and respiratory traces can be carried alongside the complex ledger. TOF and other vascular acquisitions provide an independent anatomical/flow-sensitive context when cerebral-flow questions are being asked.
From a local “collapse” to a tracked redistribution.
When the L3/L8 diagonal contracts, PsiPi does not stop at the word collapse. The same object can be followed through DTCWT direction, facet/dihedral change, L2/L5/L7 imaginary-pair activity, pair allocation, chamber/orbit position and residual timing. The result is a traceable state transition attached to anatomy.
Upload → dashboard → inspect the original.
The intended review surface follows the Orchard Gate model: a study lands in the system, analysis outputs are summarized in a dashboard, and every summary points back to the original image, object ledger, figure or machine-readable record.
Study dashboard
Series inventory, source study, modality/visit organization, object counts, processing history and top-level quality/state summaries.
Object browser
Anatomical object cards with pins, ribbons, pair relations, shell state, chamber/orbit address and representative phase-space measurements.
Comparison view
Visit-to-visit or modality-to-modality deltas with direct access to source figures, tables and exported ledgers.
Orchard Gate upload is live.
The existing upload route is the natural front door for the next iteration of the public workflow.