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Integral Photography (Lippmann-style MLA capture + reconstruction) L1-081

Computational OpticsMicrolens-array 3D imagingδ=3 · standardL_DAG = 3📋 Stub — not mineable
📋

Unclaimed Principle — open for contribution

This Principle is declared in the catalog but has no reference solver, no pinned dataset, and is not registered on-chain. There is no reward pool. Submitting a cert against this Principle today will record the cert for reproducibility but pay zero PWM.

To claim it as a Bounty #7 contribution: open a PR adding (1) a reference solver, (2) ≥1 dataset pinned to IPFS, (3) updates to the L3 manifest with dataset CIDs. After verifier-agent triple-review, the founders' 3-of-5 multisig signs PWMRegistry.register() and the Principle becomes mineable.

Forward model E

Integral photography records a scene through a microlens array in front of (or near) the sensor; each microlens forms a small image of the exit pupil. The result is an elemental-image array whose pixel-for-pixel rearrangement produces multiple sub-aperture views that jointly encode 3D structure. Viewing through a matched MLA recreates the light field; digital reconstruction solves for parallax, depth, or view synthesis.

L-DAG

L.project.pupil -> L.linear_op -> L.rearrange -> int.spatial
L.project.pupilL.linear_opL.rearrangeint.spatial

Well-posedness W

Existence:
true
Uniqueness:
true
Stability:
conditional
κ:
1200

Well-conditioned when MLA is rigidly calibrated and angular/spatial trade-off is sufficient (N_ml * L_x >= scene bandwidth). Fourier-mode integral photography trades angular for spatial resolution; reconstruction is linear with known MLA geometry.

Solvability C

Solver class:
pixel rearrangement + sub-aperture extraction, iterative MLA super-resolution (ADMM), learned LF super-resolution applied to IP views
Convergence rate q:
2
Complexity:
O(H_s * W_s) for rearrangement; O(N_iter * H * W * L_x * L_y) for super-resolution

Specs (0)

No L2 specs registered yet for this principle.