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Evidence

Results that others have checked

Are you coming from a leaderboard or a list of solvers (Packomania, ESA, FlyWire Codex, IBM Ponder This, Erich Friedman)? I am an independent researcher. I am developing a deterministic, learning and evolvable computing substrate for building embedded, verifiable and auditable AI, whose every decision can be replayed and verified. I test building blocks of my project, with language models, on these public challenges: I obtained these results on accessible hardware (described in the research programme), and it is the leaderboard managers who accept and publish them, after their own checks. They show that an approach combining probabilistic models, structured search, memory and deterministic verification can produce controllable solutions; they do not prove general intelligence.

These challenges are a test bench for my project. The results below are not assessed by me: they are published by the leaderboard referees, who check every solution against their own rules. Before each submission, I check every solution myself. A leaderboard position is a dated state, not a permanent title: the date of each reading is given next to each figure.

The results at a glance

Circle packings: the Packomania “csqv” table

The problem: place N circles of free radii in a unit square, without overlap, so that the sum of the radii is as large as possible. The Packomania table, kept by Eckard Specht for many years, lists the best known values for each N.

Position367 of the 583 entries of the table carry my reference
Sourcepackomania.com/csqv/csqv.html, “Last update: 30-Sep-2026”, read on 4 October 2026 and recounted from the page text on 7 October 2026
Limits: these are best known values, not proven optima; some of these entries filled cells that were empty in the table; other contributors can improve them at each update.

Circle packings: Erich Friedman’s Packing Center

Erich Friedman’s Packing Center publishes circle packings whose sum of radii is maximal, in a circle or in a rectangle. Each entry carries the name of the person who found it and the month.

Circles in a circleFor n = 50, the page gives “Σ r = 6.53881+”, found in October 2026
Circles in a rectangle of perimeter 4For n from 31 to 50, 16 of the 20 entries are credited in October 2026 (n = 32 to 40, 43 to 45 and 47 to 50); the other four (n = 31, 41, 42 and 46) are credited to Aaden Abraham
Limits: these are best known values published on the page, not proven optima; others can improve them; the displayed values are truncated to five decimals; for the rectangle, the page stopped at n = 30 until early October 2026: these entries are the first values published for these n, not improvements; for the circle, cells n = 33 to 50 have only been on the page since September 2026.

European Space Agency: SpOC 4

As read on 14 October 2026, my public Optimize profile shows four rank-1 positions on post-competition leaderboards: three Luna Tomato Logistics problems and the “large” instance of the Keplerian Tomato Traveling Salesperson. The sum of these ranks is the best possible (1 + 1 + 1 + 1). This is a summary of those four leaderboards, distinct from SpOC 4’s official overall result fixed at the 30 June 2026 deadline.

Four problems, two ways of framing the task

Luna Tomato Logistics concerns matching and transfer decisions between sets of orbits and destinations. Keplerian Tomato Traveling Salesperson asks for an order in which to visit targets while accounting for orbital mechanics. The pages below describe each instance and result separately; any animated diagrams are explanatory and do not replace the ESA evaluator.

Each page gives the score and reading date, with a direct link to the ESA leaderboard. These post-competition positions can change; they are neither an official winner title nor proof of a mathematical optimum.

Fruit-fly connectome: four FlyWire Codex challenges

FlyWire Codex offers computing challenges on the fruit-fly connectome. They extend my research on the propagation of activity in neural networks and on mapping the connectome. FlyWire accepts solutions onto the leaderboard and states that it verifies submissions; the “Winner” title of each challenge is awarded at its official deadline.

Max Quasi-CliquesFirst on the leaderboard after the challenge closed, with 950.3271484375 (31 August 2026)
Minimum Feedback Arc SetFirst on the leaderboard after the challenge closed, with 35,474,664 (5 October 2026)
Visual ColumnsFirst on the leaderboard after the challenge closed, with 1,396,295 synapses in the columns and 23,247 mapped cells (24 September 2026)
VNC MatchingFirst on the leaderboard after the challenge closed, with 5,853,929 (24 September 2026)
Sourcemax_clique_challenge, mfas_challenge, visual_columns_challenge, vnc_matching_challenge on codex.flywire.ai, read on 7 October 2026
Limits: these solutions were sent after the official deadline of the challenges; they are accepted onto the leaderboard, without the “Winner” title, and can be overtaken at any time. No FlyWire data are redistributed here.

IBM Ponder This, September 2026

Every month, IBM Research publishes a mathematical puzzle and the list of the people who solved it. In September 2026, the task was to find an arithmetic progression of 35 Loesch numbers whose last term is as small as possible; a “*” bonus rewarded a progression of at least 42 terms.

SeptemberIn the official list of solvers, with the “*” bonus (progression of at least 42 terms)
Limits: a list of solvers is not a ranking. September: 34 of the 91 listed solvers obtained at least the “*” bonus; my longest progression (45 terms, according to IBM’s list) is shorter than the best one found (58 terms), and the “**” bonus goes to another participant.

What these results show, and what they do not

They show that an approach combining probabilistic models, structured search, memory and deterministic verification can produce, on accessible hardware (research programme), solutions accepted by independent referees, in varied fields. They show neither the optimality of the solutions, nor any general capability, nor any superiority over other methods (several results start from solutions published by others); they are not peer-reviewed. The inner workings are not entirely published; the solutions are public and verifiable.