Beginner's Guide Blueprint

Status: 20-chapter guide drafted | Phase: P3 (Review) | Started: 2026-05-26 | Updated: 2026-05-26

Project Identity

A revolutionary beginner's guide to quantum computing — one that starts with "why don't we have quantum computers yet?" rather than "here's what a qubit is." The guide teaches the standard quantum computing curriculum honestly, explains why the standard approach (active QEC on Euclidean lattices) faces a thermodynamic wall, and introduces the ultrametric alternative — passive geometric fault tolerance on Bruhat-Tits trees — with DOI-registered evidence and falsifiable predictions.

Project Deliverables

The Guide (6 files, 20 chapters, ~22,000 words)

File	Part	Chapters	Words
0.5.md	I: The Honest Landscape	1-3	4,100
0.6.md	II: The Standard Curriculum	4-7	3,400
0.7.md	III: The Reality Check	8-10	2,600
0.8.md	IV: The Geometric Alternative	11-14	4,300
0.9.md	V: The Falsifiable Science	15-17	3,200
0.10.md	VI: Synthesis and Next Steps	18-20	3,300

Supporting Documentation (5 files)

File	Title	Purpose	Words
0.0.md	Table of Contents & Reading Guide	Navigation and reading pathways	—
0.1.md	The Real Quantum Blueprint v1	Honest industry landscape analysis	4,300
0.2.md	The Real Quantum Blueprint v2	Full QWAV cross-reference integration	3,500
0.3.md	Curriculum Blueprint & Annotated Bibliography	48-source annotated bibliography, 5-tier difficulty	5,600
0.4.md	Complete Intellectual Genealogy	5-layer stratification of ~200 prior projects, 5 DOIs	3,400

Total corpus: ~40,000 words across 11 files

Source Materials (48 items)

• 36 PDFs: Springer 2025 textbook (22 chapters), arXiv papers, Bruhat-Tits geometry papers
• 12 QWAV legacy papers: Downloaded from QNFO/.github releases/papers/

Key Features of This Guide

1. Starts with the bottleneck, not the qubit. Chapter 1 asks why we don't have quantum computers yet.
2. Confidence tags on every claim: [EST], [PROP], [GAP], [SPEC], [OPEN]
3. The standard curriculum taught honestly: Qubits, entanglement, algorithms, error correction — with resource reality checks
4. The thermodynamic wall explained quantitatively: 20,000× cooling gap, Carnot limit, 240kW at scale
5. The ultrametric alternative presented with evidence: BTQP thresholds (75× depolarizing), computational validation, DOI-registered publications
6. Falsifiable predictions: Three experiments (E1-E3) with specific costs, timelines, and falsification criteria
7. All claims traceable to sources: Every DOI, paper, and archived project cross-referenced in 0.3.md and 0.4.md

Key Findings

• No single qubit platform will "win." Access multiple platforms via cloud; neutral atoms are the scaling leader but trapped ions have better fidelity
• Error correction, not qubit count, is the bottleneck. Surface codes work below threshold — but at ~1,000:1 overhead with a 20,000× cooling gap
• The ultrametric alternative achieves 75× better depolarizing thresholds using passive geometric confinement instead of active syndrome measurement
• Fault tolerance at useful scale: 2030-2035 realistically, not 2027-2029
• PQC migration is the URGENT priority — not quantum computers breaking codes
• Quantum sensing delivers advantage NOW without error correction
• 5 registered DOIs spanning the research program (Dec 2025 – May 2026)

References

QWAV Research Program

• Quni-Gudzinas, R. B. (2026). Bruhat-Tits Quantum Processor. DOI: 10.5281/zenodo.20109835
• Quni-Gudzinas, R. B. (2026). Ultrametric Quantum Computation — MVP Program. DOI: 10.5281/zenodo.20014913
• Quni-Gudzinas, R. B. (2026). Validation of Ultrametric Error Confinement. DOI: 10.5281/zenodo.20134944
• Quni-Gudzinas, R. B. (2025). Thermodynamic Constraints. DOI: 10.5281/zenodo.17938113
• Quni-Gudzinas, R. B. (2026). Convergence, Consilience, and Hierarchical Architecture. DOI: 10.5281/zenodo.20302276

Primary Source — Textbook

• Jang-Jaccard, J. et al. (Eds.). (2025). Quantum Technologies: Trends and Implications for Cyber Defense. Springer. ISBN 978-3-031-90727-2.