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Map F — Easy full guide: what it is, the conditions, Tier-B proof

Plain bilingual guide to Master Map F: lock-and-tooth picture, closed forms 3/13 and 9/40, explicit package P (the conditions), Tier-B EXACT theorems, L2_STRICT fail, spectral reading of n_w, referee-safe claim, and SymPy reproduce kit. Not a new Law — a reading + honesty page.

Created 07/29/2026, 12:37 GMT+7Updated 07/29/2026, 12:37 GMT+7
Start here if you want the whole Map F story in plain language. This page answers: (1) what Map F is, (2) exactly which conditions make 13 and 40 forced, (3) what Tier-B EXACT means, (4) what we do not claim. It matches the Track B audit (spt_map_f_tier_b_proof.py).

1. The real question (not “pretty numbers”)

SPT writes several measured quantities as Bagua fractions that look beautiful:

text
sin²θ_W (tree)  ≈  3/13
sin²θ_12         ≈  4/13
n_T              ≈  3/13
Cabibbo λ        ≈  9/40
Hubble proxy h   ≈  27/40

The scientific question is not “do they match PDG roughly?” but:

Is this a forced law under clear rules — or a lucky coincidence of integers?

Map F is the name of the single rulebook that tries to answer that with one map, not five independent fits.

2. What is Map F? (lock and tooth)

Write every constant as a fraction:

text
quan sát  =  TỬ SỐ  /  MẪU SỐ
            =  “răng”  /  “cỡ ổ khóa”

F is one function:

text
F(lĩnh vực, vai trò đo)  →  phân số Bagua
(không nhét số PDG vào vế phải; PDG chỉ để kiểm SAU)
What we measureF saysLock (denom)Tooth (num)
Weinberg angle (tree)3/13133 (weak weight)
Solar sin²θ₁₂4/13134 (N2 lock)
GW tilt n_T3/13133 (same as weak)
Cabibbo λ9/40409 = 3²
Hubble proxy h27/404027 = 3·9
Same lock 13 for three doors; same lock 40 for two — that is the cross-sector idea.

3. The conditions — package P (this is the important part)

Key honesty. Map F is unique and Tier-B EXACT only under package P below. Bagua integers alone do not force 13. If you drop a critical piece of P, either 13/40 disappears or thousands of other maps survive.

Think of P as the rulebook of the game. The theorems say: if you accept the whole rulebook, then the fractions lock.

P0 — Bagua integers only (no PDG as input)

Allowed building blocks: (Q_n = 2^n) (8, 16, 32, 64, 128…), binomial counts, and pure math like √7. Forbidden as inputs: CODATA α, PDG masses, hand-tuned knobs to match data.

P1 — Split 7 yao as 3 + 1 + 3

PartCountRole (assignment)
Space33 spatial directions
Time1one arrow of time
Internal3internal axes (for counting)

This split is a structural choice (STRUCT), not forced by “only powers of two.” Without it, there is no internal sector to count weak weight from.

P2 — R_axis: n_w = number of internal axes (= 3)

text
n_w  :=  i  =  3

Spectral reading (Tier-B under P1): on the internal subcube (Q_i), the Laplacian spectral gap has multiplicity (i). So (n_w) = “number of weight-1 flip directions inside” = 3. This avoids typing the letters S-U-(2), but it is still a counting rule, not a free miracle.

P3 — Residual budget n_Y

text
n_Y  :=  Q_3 − n_w  =  8 − 3  =  5

Inside the 8-cell trigram budget, remove the weak weight 3; 5 channels remain (hypercharge-style residual).

P4 — EW shell W (critical rule)

text
W  :=  Q_3 + n_Y  =  8 + 5  =  13

// NOT  W = n_w + n_Y = 3 + 5 = 8
// Shell = trigram cell + residual Y
// Weak weight sits in the NUMERATOR only

Tree Weinberg angle:

text
sin²θ_W^tree  =  n_w / W  =  3/13
Drop-test algebra (Tier-B): under the residual rule, (W = 16 - n_w). So (W=13) if and only if (n_w=3). Choosing (n_w) is choosing shell 13.

P5 — Flavour/cosmo shell S (minimal Q₃+Q_k)

Honest fact: the pair ((9/d,\,27/d)) with (h/\lambda=3) works for every (d>27). That alone does not pick 40. We need the shell rule:

text
S = Q_3 + Q_k   (k ≥ 3)
    with  0 < 9/S < 1  and  0 < 27/S < 1
    and S minimal

→ only k=5 survives as minimal:  S = 8+32 = 40

P6 — Numerators on shell W

NumeratorValueRole
n_w3weak weight
n_sol4N2 lock (four routes = 4)
n_tilt3same as n_w on shared shell
text
sin²θ_12 = 4/13
n_T      = 3/13
I1: n_T ≡ sin²θ_W
I2: sin²θ_12 − sin²θ_W = 1/13

P7 — Numerators on shell S

text
λ  =  3² / S           =  9/40
h  =  3·(Q_3+1) / S    =  27/40
h/λ = 3  EXACT

P8 — Finite class R of Bagua denominators

Only denominators built from (Q_a), (Q_a+Q_b), (Q_a+k) in a fixed range. Then impose:

  • U_NUM — fix numerators {3,4,3} on one denom and {9,27} on another
  • U_SHELL — force denoms to be exactly W=13 and S=40
Constraint packHow many maps left?
U_WEAK (very loose)~ millions
U_NUM only~ thousands
U_NUM ∩ U_SHELLexactly 1
Uniqueness is a property of (numerators + shell rules), not of bare Bagua integers.

4. Conditions in one line

text
BẮT BUỘC (package P)
  Q_n = 2^n
  7 hào = 3 + 1 + 3
  n_w = 3  (trục nội / gap mult)
  n_Y = 5
  W = 8+5 = 13     ← shell EW
  S = 8+32 = 40    ← shell flavour/cosmo (min Q3+Qk)
  tử số 3,4,3 trên W  và  9,27 trên S
  class R hữu hạn + U_NUM ∩ U_SHELL

⇒  Map F duy nhất
    3/13, 4/13, 3/13, 9/40, 27/40   (Tier-B EXACT)

KHÔNG NẰM TRONG ĐIỀU KIỆN
  PDG · continuum Action · “chỉ số đẹp không luật chơi”

5. What “Tier-B EXACT proof” means (and does not mean)

TermPlain meaning
Tier-B EXACTAlgebraic identity under explicit package P; no PDG as input; Δ ≡ 0
STRUCTA structural choice we state (e.g. 3+1+3) — reasonable, not pure number theory
OPENNot proved (continuum Action → P; why Nature is Q₇)

Proved Tier-B under P (scripts): shells (13,40); closed forms; identities I1–I2; N2 lock; unique F in class R; L2_STRICT fails (capacity alone does not pick (n_w)); L2_STRUCT passes (P1+P2 pick (n_w=3)).

  • Does mean: if you accept P, the fractions are forced and unique in R — machine-checkable.
  • Does not mean: Nature must be Q₇; continuum path-integral derived P; ToE finished; PDG proves uniqueness (PDG is OUTPUT only).

6. Picture: from chaos to one map

text
  Số Bagua thô          →  nhiều map (hỗn loạn)
       +
  Luật chơi P (STRUCT)  →  đúng 1 map F
       +
  Chứng đại số Tier-B   →  3/13, 4/13, 9/40… Δ=0
       +
  PDG                   →  chỉ soi gương (OUTPUT)

Before the audit: “Map F looks pretty.” After: “Map F is a conditional theorem — and we know exactly what the conditions are.”

7. PDG comparison (OUTPUT only — not part of the proof)

QuantityF (exact)≈ floatNote
sin²θ_W tree3/130.23077near IR value; RG to M_Z still OPEN
sin²θ₁₂4/130.30769compare NuFIT after, not as input
λ Cabibbo9/400.22500exact match at quoted PDG central
h proxy27/400.675close to h≈0.674 band

8. Referee-safe claim (use this wording)

Under explicit package P (partition 3+1+3, (n_w:=i), residual Y, shells (W=Q_3+n_Y) and (S=Q_3+Q_5) with minimality, N2 numerator 4, generation form 9 & (3(Q_3+1))), Map F is the unique Bagua-rational map in class (R) under (U_{\mathrm{NUM}}\cap U_{\mathrm{SHELL}}), with closed forms (3/13), (4/13), (3/13), (9/40), (27/40) — all Tier-B EXACT. We do not claim continuum derivation of P, ontology “Nature is Q₇”, or uniqueness from bare powers of two alone.

9. What is still open (real breakthrough targets)

  1. Derive P1–P2 (why 3+1+3 and (n_w=i)) from Action dynamics — not from wanting sin²θ_W ≈ 0.23.
  2. RG: run tree (3/13) to IR (\sin^2\theta_W(M_Z)) without hand-inserting textbook numbers.
  3. Keep blind predictions frozen (n_T, δ_CP, …) — do not retune after data.

10. Reproduce offline (SymPy)

SymPy verify — download for offline testSYMPY ✓

Tier-B Map F kit — run these first

Each script should print OVERALL: PASS in under ~2 s after `pip install sympy`. No PDG inputs in the proof stages.

scripts/spt_map_f_tier_b_proof.py
Tier-B proof T1–T8 (package P) Shells 13/40, closed forms, uniqueness, L2 ladder
420 LOCDownload
scripts/spt_map_f_spectral_shell.py
Spectral bridge → n_w and W Gap multiplicity on Q_i forces n_w=3; mode-space W=13
220 LOCDownload
scripts/spt_map_f_uniqueness_minimal.py
Smuggling audit (minimal axioms) L1 yes · L2_STRICT no · L2_STRUCT yes
280 LOCDownload
scripts/spt_map_f_uniqueness_enum.py
Enumerate class R |F| under U_WEAK / U_NUM / U_SHELL
160 LOCDownload
scripts/spt_master_map_f_from_action.py
F from Action axioms A0–A5 Direction-1 shells + uniqueness in R
260 LOCDownload
Reproduce in 30 seconds
pip install sympy numpy && python3 scripts/spt_map_f_tier_b_proof.py && python3 scripts/spt_map_f_spectral_shell.py && python3 scripts/spt_map_f_uniqueness_minimal.py && python3 scripts/spt_map_f_uniqueness_enum.py && python3 scripts/spt_master_map_f_from_action.py
Or quick-verify with AI (Grok / Claude / ChatGPT)

Don't want to install Python? Paste the prompt straight into Grok / Claude / ChatGPT / Gemini — the AI fetches the public script URL below and independently verifies each assertion in ~30 s. Open grok.com or claude.ai , paste, send.

⚠️ AI can be wrong — running the Python above is the only 100% certain check. Full AI guide →

Inputs: Bagua integers + π/√ only — no CODATA, no PDG, no calibration (Tier B). SymPy-verified as exact fractions (not floating-point). See full context at /theory/sympy-breakthrough-2026.

Research notes (repo): docs/research/map-f/claim-sheet.md, smuggling-matrix.md, tier-b-proof.md.

11. Bottom line

Map F is…
One rulebook: physics role → Bagua fraction (shared locks 13 & 40).
Forced under…
Full package P (3+1+3, n_w=i, residual Y, shell rules, numerators, class R).
Not forced by…
Bare powers of two / capacity alone (L2_STRICT fails — and that fail is itself Tier-B exact).
Next real step…
Justify why P (especially P1–P2) from dynamics — not more pretty fractions.
Join r/SupremePolarityTheory CommunityIndependent verification · Share ideas · Discuss the theory with the community

CommentsMap F — Easy full guide: what it is, the conditions, Tier-B proof