Corpus (80 / 10 / 10 Split)

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Drop .txt corpus here

Architecture & Baselines

Training

Generation

Import

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Training Progress L12:arch=learns;dim=128

0
of 4000 steps — awaiting corpus

Loss — Total (accent) · Thermodynamic (dim)

Ternary Weight Balance — zeros should grow

−1
33%
0
34%
+1
33%

Diagnostics

Loss
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FP Iter avg
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FP Residual
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FP Agree
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R_A Entropy
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R_B Entropy
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F Entropy
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A sym iter
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A act
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B act
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Skew Cos(A,B)
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LN Spikes
0
R_A bias ↑+
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R_B bias ↓−
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Divergence
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Eff ctx
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Val loss (nats)
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Val bits/byte
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Val ppl
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Unigram base
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Live Sample — updated periodically

Awaiting first training steps...

Switchboard — Every Component a Switch Defaults reproduce v0.0011 bit-for-bit

1. Relational Embedding It's All Relative

Token meaning is embedding plus Q(W_rel)·R_combined_prev. Off = embedding alone.

2. Temporal Turing Core The Electromagnetic Node

Component A inner fixed-point pattern recognizer over recent suffix_sig.
Component B reads current helix h and R_combined_prev.
Maximum inner fixed-point iterations for Component A (2–8).

3. Dyadic Fixed Point K-H Fixed Point Theorem

Jacobi iterations for K_A and K_B (0 = single feed-forward pass).
DEQ-style input injection K_A = F_A(K_B, a_t), K_B = F_B(K_A, b_t).
Jacobi normalization: rescale/none (contractive, σ(W_F)≤0.9) vs layernorm (v0.0011 legacy).

4. Record / Frontier Split It's Time To Toss The Dice

Forward record R_A accumulating K_A and cross-coupling from R_B.
Partner record R_B and auxiliary reverse-LM scout training.
How R_B is updated or seeded (causal carry, rolling backward lookback, prevrev, or legacy).
Look-back window N for rbMode=lookback (runs R_B backwards over x_t..x_{t-N+1}).
Reverse-chunk auxiliary gradient weight (0 = default; 0.5 = reverse-LM scout active).
Readout head used by reverse scout when scoutScale > 0 (shared vs separate head).
Frontier reads working state via Q(W_present) in addition to Q(W_frontier)·R.
Include helical recurrence σ(ρ)⊙G(θ)h in frontier readout vs instantaneous P_t only.

5. Helical State The Drill of Entropy

Master switch for helical recurrence σ(ρ)⊙G(θ)h_prev across tokens.
Learned Givens rotation angles θ per layer vs identity rotation.
Per-dimension retention σ(ρ) vs fixed σ(2.2)≈0.9 vs un-decayed (v0.0009).
Shared d-dim helical state vs independent per-layer spirals hs[l] (L×d state floats).

6. Thermodynamic Loss The Past Is Still The Future

Penalize record entropy drop over chunk (hinge: λ·max(0,−ΔS); linear: −λ·ΔS).
Thermodynamic penalty coefficient λ.

7. Numerics & Gradient Clipping BitNet b1.58 STE & Spike Isolation

Ternary (−1, 0, +1 × mean|W| with exact STE) vs full-precision float32.
Global L2 norm clip vs per-parameter-group clip (isolates LayerNorm-beta spikes).
Post-norm gate elementwise clamp (±φ / ±1/φ). Inert after norm clip ≤ 1.
Evaluate exponential moving average (β=0.99) of float shadow weights quantized at eval time.
Record entropy during generation
// Generation output will appear here
STEPLOSSTHERMOFP_ITER RA_ENTRB_ENTF_ENTA_ACTB_ACTFP_AGRA_SYMFLAG RA_BIASRB_BIASDIVERGEFF_CTX
Training not started