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authorYurenHao0426 <Blackhao0426@gmail.com>2026-07-23 07:11:51 -0500
committerYurenHao0426 <Blackhao0426@gmail.com>2026-07-23 07:11:51 -0500
commite292d8f58f5ab02cc3e0fe93fe5caf73a8abfc4a (patch)
tree61bb8a50b05831ef06efbba525cf10d11211c79c
parent81f32238ae1faf420c96bf48bc0507fe0c1f8fd9 (diff)
docs: synchronize novelty boundary with D4 and R2
-rw-r--r--NOVELTY.md30
1 files changed, 23 insertions, 7 deletions
diff --git a/NOVELTY.md b/NOVELTY.md
index 844c6c4..6106b07 100644
--- a/NOVELTY.md
+++ b/NOVELTY.md
@@ -148,10 +148,14 @@ gain control. `THEORY.md` states the assumptions and the executable finite-sampl
bottleneck; it is not a novelty claim and the direct estimator's 68.4x work precludes presenting
it as the scalable algorithm.
- On the inherited reciprocal-KP substrate, dynamic paired-neutral innovation
- passes a frozen 20-epoch ResNet-20 validation gate at 83.58%, versus 82.66%
- for clean KP and 10% for the failed raw/norm-matched mixed-traffic controls.
- This supports a short standard-scale load-bearing result, not yet a full or
- independently confirmed scaling claim.
+ first passes a frozen 20-epoch ResNet-20 validation gate at 83.58%, versus
+ 82.66% for clean KP and 10% for the failed raw/norm-matched mixed-traffic
+ controls. The subsequent 200-epoch D3 validation reaches 91.18%, and the
+ independently frozen paired D4 test panel reaches 91.584% across seeds
+ 10--14 versus clean KP's 91.388%, with a 0.131-point one-sided upper bound on
+ the clean-minus-dynamic deficit. This supports load-bearing innovation and
+ robustness on ResNet-20. It does not establish positive utility from adding
+ standard-network depth.
## Claims currently forbidden
@@ -161,6 +165,13 @@ gain control. `THEORY.md` states the assumptions and the executable finite-sampl
- SDIL is the first dendritic method to scale to deep vision tasks.
- Dynamic neutral projection is a single-phase rule or has zero observation
cost merely because it adds no convolutional MAC.
+- A single ResNet-20 architecture establishes scaling with added standard
+ depth, or licenses the sealed ResNet-32/56 panel after its oral-B
+ prerequisite failed.
+- SDIL reproduces the complete Harnett population outcome-vectorization,
+ longitudinal, desired-velocity, or online-control signature. The untouched
+ oral-B R2 panel fails its joint gate despite successful task learning and
+ sign inversion.
- Reproducing the already-published Harnett/BurstCCN qualitative signatures is an oral-level
biological contribution.
@@ -178,6 +189,11 @@ gain control. `THEORY.md` states the assumptions and the executable finite-sampl
source data and states that full data/code are available on request.
5. For a scaling contribution, target standard architectures and a simplicity/cost regime not
already occupied by BurstCCN, rather than treating ImageNet alone as novelty.
-6. Complete the predeclared D3 full ResNet endpoint and an independent
- multi-seed confirmation before promoting the dynamic short result into a
- standard-scale claim.
+6. D3 and D4 now establish the narrow ResNet-20 result. A stronger scaling
+ contribution requires an independently frozen, genuinely depth-necessary
+ standard-network panel; the existing ResNet-20/32/56 panel remains sealed
+ because oral-B R2 failed.
+7. A biological contribution beyond Harnett/BurstCCN requires a new mechanism
+ and prediction frozen independently of the failed R2 metrics. Successful
+ task learning, lesion sensitivity, and sign inversion alone cannot be
+ relabelled as the failed joint population-signature claim.