RTSG Book Series — Publication Plan¶
Jean-Paul Niko · Sole Author
Book 1: The General Reader (EXISTS — papers/monograph/three_spaces.md)¶
Title: Three Spaces: A New Geometry of Reality
Status: ~29 pages, updated Session 5. IAG→RTSG rename complete. Session 5 mathematical chapter added.
Audience: Educated general readers. No equations required for core argument. Equations available in boxed sections for those who want them.
Structure: - What the three spaces are (QS, PS, CS) - Why they're needed (what Einstein left unfinished) - Consciousness as geometry, not mystery - The instantiation operator and the dark sector - Time, will, and the complexifying universe - The mathematical infrastructure (new Session 5 chapter) - Where we stand on the big problems
Tone: Accessible, philosophical, inspired by Penrose's Road to Reality but more personal. First person where appropriate. The reader should feel they're being let in on something.
Next steps: Final polish, convert to PDF/ebook format, host on smarthub.my.
Book 2: The Children's Book (TO BE WRITTEN)¶
Title: The Three Rooms (working title)
Audience: Ages 8-14. Smart, curious kids who ask "why is the sky blue" type questions.
Concept: Three friends discover three magical rooms: - The Dream Room (QS) — everything that COULD happen exists here, all at once. Like having every possible dream simultaneously. - The Real Room (PS) — the world you can touch, see, measure. Only some dreams make it here. - The Door (CS) — the passage between Dream and Real. Not a room itself — a way through.
Key ideas to convey (without jargon): - Not everything possible becomes real (the dark sector = dreams that never wake up) - The passage from possible to real LOSES something (the cost of becoming real) - Different creatures see reality differently (the filter pipeline as animal perspectives) - Working together, different minds see more than any single mind (assembly K-matrix) - The universe is getting more complex over time (complexification)
Format: Illustrated, ~32 pages, large format. Each spread: one idea, one illustration, one "wonder question."
Illustrations needed: The three rooms, the door between them, dreams becoming real (SVD as a funnel), animals seeing different colors (filters), a team of friends solving a puzzle (assembly).
Book 3: The Mathematician's Book (TO BE WRITTEN)¶
Title: Relational Three-Space Geometry: Operator Theory, Arithmetic, and the Millennium Problems
Audience: Graduate students and researchers in mathematical physics, number theory, operator theory. Assumes functional analysis, algebraic geometry, basic QFT.
Structure:
Part I: Foundations (Chapters 1-4) 1. Axioms and the source space \(\Omega = (S^2)^\infty\) (ZFA, terminal coalgebra, Tychonoff) 2. The instantiation operator \(C\) (bounded, SVD, exact sequence, cost functional) 3. The GL action and the Will Field (U(1) symmetry, four regimes) 4. BRST cohomology and graded instantiation (\(s = s_0 + s_1 + s_2\))
Part II: Arithmetic (Chapters 5-8) 5. The adelic source space \(\Omega_\mathbb{A} = \mathbb{P}^1(\mathbb{A})\) (Tate's thesis as BRST) 6. The Fock space Euler product (BRST mode + Fockization → \(\zeta(s)\)) 7. The functional equation from the Weyl element (Poincaré duality + Fourier) 8. Local-global compatibility and the Langlands program
Part III: The Riemann Hypothesis (Chapters 9-13) 9. The geometric identity \(A^* + A = 1\) (hyperbolic measure) 10. The Lax-Phillips scattering framework (Pavlov-Faddeev, Uetake) 11. The bounded bridge no-go theorem (with proof) 12. The de Branges space \(\mathcal{H}(\xi(1-2iz))\) (explicit construction, positivity map) 13. The canonical chain and the Weil/Suzuki bridge (Kapustin 2022, Suzuki 2012/2025)
Part IV: Yang-Mills and Beyond (Chapters 14-16) 14. The bounded transform \(C_t = e^{-tH/2}\) and the mass gap 15. The \(S^2\) spectral gap and the Fradkin-Shenker theorem 16. Open problems: NS regularity, Hodge, P vs NP, the third positivity
Appendices: A. The intelligence vector and cognitive K-matrix B. The filter formalism (five species) C. Plato's cave as exact sequence D. Complete notation index
Estimated length: 200-250 pages.
Key references to engage with: Lax-Phillips 1976, de Branges 1968, Tate 1950, Deligne 1974, Balaban 1982-89, Fradkin-Shenker 1979, Suzuki 2012/2025, Kapustin 2022, Conrey-Li 2000, Griffin-Ono-Rolen-Zagier 2019.
Tone: Rigorous. Theorem-proof where possible. "Conjecture" and "Open Problem" clearly labeled. Honest about what's proved and what isn't. Should be submittable to a Springer or Cambridge series.
Publication Timeline¶
| Book | Status | Target |
|---|---|---|
| Book 1 (General) | Draft complete, updated | Q2 2026 (smarthub.my + ebook) |
| Book 2 (Children) | Planning | Q3 2026 (needs illustrator) |
| Book 3 (Mathematicians) | Outline ready | Q4 2026 (arXiv chapters first, then book) |
| arXiv papers (2) | Compiled PDFs ready | March 19, 2026 |
| Universal kernel note | Compiled PDF ready | March 2026 |
| GRF essay | v5 submission-ready | March 31, 2026 |
Jean-Paul Niko · RTSG BuildNet · smarthub.my · March 2026