Each of the 20 filed claims mapped to its support in the provisional as filed (final_provisional/, 43 pages): claims 1-19 solid or adequate, claim 20 thin. Findings: the K-statistic's definition contradicts the specification's own data and figures; Solid vs Steady State Machine; claims 10-12 depend on a method as 'the system'; drawings need redoing to 37 CFR 1.84; result invariance and the Jacquard detail are not disclosed. Recommendations for the non-provisional. Drafting aid, not legal advice. Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
8.6 KiB
SSM-001 — claim-support map, toward the non-provisional
Prepared 2026-10-28 at Captain Bob's request, from the provisional as filed:
docs/patent/final_provisional/ssm_RAJ_v1_patent_application.pdf (43 pages, built 2025-12-10;
its text is identical to docs/patent/ssm_RAJ_v1_patent_application.pdf). Filing date
2025-12-16, so the non-provisional (or PCT) claiming it is due by 2026-12-16.
Drafting aid, not legal advice. Page numbers are the filed PDF's.
The rule this map applies: a claim in the non-provisional keeps SSM-001's priority date only if SSM-001 describes what it claims. Nothing can be added to the specification after the non-provisional is filed (no new matter). Material may be left out of the non-provisional without harm to priority.
1. The 20 claims, and where SSM-001 supports them
Strength: Solid = described plainly, more than once; Adequate = described, briefly; Thin = only implied, or by a single list item.
| Claim | What it claims | Support in SSM-001 | Strength |
|---|---|---|---|
| 1 (system) | state vector (heat, entropy, stability), feedback loops, ≥2 execution modes, a supervisory selector with bounded, non-oscillatory transitions | §3 p.9; §5.1 p.28; §5.6 p.35; §5.7 pp.35-36; §5.8 pp.36-37; §5.9 p.37 | Solid |
| 2 (method) | compute state vector; update loops; classify stable/temporal/volatile/transitional; select mode; adjust parameters | §5.6, §5.7, §5.10 pp.37-38, §5.9 | Solid |
| 3 (shape invariance) | measure entropy, variance, heat; select modes; regulate transitions so variance stays below a threshold across waveform families | §5.11 p.38; §1 p.4; FIGS. 7-9 pp.17-19 | Adequate (the "threshold" is shown by figures and CV, not a stated value) |
| 4 | state vector adds pipeline pressure, lookup latency, cache hit rate, or decay | §5.6 p.35 | Solid |
| 5 | a loop modifies the heat decay rate from temporal characteristics | §5.7 L3 p.36; §5.8 Mode 1 p.37 | Solid |
| 6 | a loop does statistical inference for predictive indicators used in mode selection | §5.7 L2, L6 p.36 | Solid |
| 7 | hysteresis thresholds against oscillation | §5.9 p.37; §3 p.9 | Solid |
| 8 | modes include baseline, temporal, inference-driven, fully adaptive | §5.8 Modes 0-3 pp.36-37 | Solid |
| 9 | converges when variance of recent timings falls below a threshold | §5.12 p.38 | Adequate |
| 10 | classification evaluates an entropy window over heat | §5.6 "Entropy Window" p.35 | Solid |
| 11 | heat rises on invocation and decays by a selected decay function | §5.6 "Execution Heat", "Decay Rate" p.35 | Solid |
| 12 | mode selection compares the state vector to pre-validated profiles | §5.8 p.37 ("discovered through design-space exploration or factorial experimentation"); §5.5.2 p.31 | Solid |
| 13 | waveform families: sinusoidal, square, triangular, burst, mixed | §5.11 p.38; §1 p.4 | Solid |
| 14 | consistency measured by coefficient of variation | §5.6 "Stability Score" p.35; FIG. 9 p.19 | Solid |
| 15 | loops modify lookup strategies | §5.7 L4 p.36; §1 p.4 | Solid |
| 16 | transitions wait until a confidence value exceeds a threshold | §5.9 p.37 ("confidence scoring", "multiple independent criteria") | Adequate |
| 17 | adjusting caching, prefetching, or dictionary traversal | §5.7 L4 p.36; §5.6 p.35 | Solid |
| 18 | classification uses rolling measurements or sliding windows | §5.6 "Entropy Window" p.35; §5.2 "rolling window of truth" p.29 | Solid |
| 19 | stack-based, threaded-code, JIT, embedded controller, or microkernel | §5.13 p.39; §5.14 p.39; §1 p.4 | Solid |
| 20 | state vector kept per execution thread | §5.13 "a multi-threaded execution engine supporting distributed loads" p.39 | Thin — per-thread state is never stated |
Overall: the 20 claims rest on the architecture sections (§§5.1, 5.5.1-5.5.2, 5.6-5.14), which are consistent and well described. None of the 20 recites the K-statistic, ω₀, or the Boltzmann model, which is fortunate given §2 below.
2. Findings in the specification
- The K-statistic's definition contradicts the specification's own data. §5.2 (p.28, eq. 1) and
§5.5.3 (p.31) define K = W / (DoF + 1), with W in bytes (512-65,536) and DoF the number of
active loops (7). That gives K from 64 to 8,192, not "K = 1.000000 ± 0.000000 ... across window
sizes ranging from 512 to 65,536 bytes" (pp.29, 31). Likewise W* = DoF + 1 = 8 bytes as the
"optimal window". The figures use other forms: FIG. 13 (p.23) plots "K = 256/W" with K from 0
to 0.5; FIGS. 16-17 (pp.24-25) show K ≈ 0.016-0.042 and a log axis 0.003-1.0. The cover letter
(
USPTO_COVER_LETTER.md) writes K = Λ×(DoF+1)/W. An examiner would read any claim to K as indefinite or unsupported (35 U.S.C. 112). Correcting the formula in the non-provisional risks new matter, because SSM-001 never states which formula is meant. - Two names for one invention. The title, abstract and body say Steady State Machine; §4's figure descriptions (pp.11-26) say Solid State Machine nine times.
- Claims 10, 11 and 12 depend on "the system of Claim 2", but Claim 2 is a method: they should read "The method of Claim 2".
- The drawings will not pass as filed. Non-provisional drawings must meet 37 CFR 1.84 (black lines, legible, numbered consistently). Pages 22-26 carry plots whose internal titles number them "Figure 1"-"Figure 7" under captions FIG. 12-18; several are dense multi-series charts; and FIG. 19 "System Architecture" (p.27) has a caption but no description in §4.
- Strong scientific language invites scrutiny without adding claim support: "the first exact conservation law discovered in adaptive computational systems" (p.29), "quantum-analog ... probabilistic tunneling" (p.24), the golden-ratio penalty (p.24), p < 10⁻²⁰⁰ (p.32). Nothing claimed depends on them, and finding 1 undercuts the conservation-law statement.
- Result invariance is not disclosed. SSM-001 says the architecture produces "deterministic, repeatable steady-state behavior" (abstract, p.43) and "0% algorithmic variance validated across 38,400 replicate runs" (§5.4 item 5, p.30), but nowhere states that adaptation leaves what a program computes unchanged, and nothing about a machine-checked proof of it. That property, the centre of the regulated-industry case (2026-10-28), is not available at the 2025-12-16 date. It belongs to the second provisional (outline, central element 3), where it takes that filing's date.
- Jacquard details are not disclosed. L8 is named and described functionally (§5.9), but the 128-state, 7-bit loop-gate structure in the code is absent, so it cannot be claimed at the 2025 date.
3. Recommendations for the non-provisional (for a practitioner to confirm)
- Keep the architecture, claims 1-19, as the backbone, with claim 20 either dropped or supported only to the extent §5.13 allows.
- Fix the formal defects: dependency wording in claims 10-12; one name (Steady State Machine) throughout; drawings redrawn to 37 CFR 1.84, numbered consistently, FIG. 19 described.
- Do not claim the K-statistic, ω₀, or the Boltzmann model. Either leave §§5.2-5.5.5 out of the non-provisional (omission does not affect priority) or carry them only as observed results, without the inconsistent formula. Leaving them out also removes finding 5's exposure.
- Add dependent claims SSM-001 already supports, which narrow toward what is distinctive:
- modes derived from a factorial design-of-experiments over loop configurations (§5.8 p.37, FIGS. 1-5 pp.11-15);
- mode transitions requiring several independent criteria (§5.9 p.37);
- L7 as a baseline stabiliser when the other loops disagree (§5.7 p.36);
- workload families including "mixed" (§1 p.4) as well as the four of claim 2;
- an implementation in hardware or firmware (§5.14 p.39).
- Expect obviousness arguments against claim 1 from adaptive runtimes (tiered JIT compilation, GC ergonomics), autonomic computing (MAPE-K) and control-theoretic computing. The dependent claims in 4, and claim 3's shape invariance with its measured CV evidence, are where the case should be made.
- Result invariance, the formal proofs, the template method and today's other ideas go in the second provisional, not here.
4. Before filing
- One paid hour with a registered practitioner on the claims and on finding 1, if at all possible.
- The USPTO Pro Se Assistance Center for the filing mechanics, fees, and micro-entity status.
- Confirm the dates for this application with them; the 12-month rule (35 U.S.C. 119(e)) is the general one.