--- title: "Manifesto for Honest Computation" author: "QNFO Research Collective" date: 2026-07-08 series: "The Qubit Delusion --- Phase VI (Final Synthesis)" abstract: > Five papers have traced an arc from diagnosis to prescription. The qubit is a scaffold, not an invariant. Alternative paradigms exist. Physical limits are real. A diversified portfolio is rational. Institutions must be reformed. This final paper --- the Manifesto --- synthesizes these findings into principles for honest computation and a call to action for investors, researchers, policymakers, and the public. We propose five principles: (1) the substrate IS the algorithm; (2) correlation over particle; (3) joules per solution as the universal metric; (4) falsifiability as a condition of funding; and (5) institutional independence of verification. We propose a specific resource reallocation --- from the ~60% currently consumed by gate-model quantum computing toward thermodynamic, optical, neuromorphic, and analog quantum simulation --- and a Falsification Pledge by which institutions commit to pre-registering computational claims with time-bound success criteria. Computation is too important to be left to narrative production. The future of computing is honest, or it is nothing. keywords: - manifesto - honest computation - post-classical computing - quantum computing reform - computational principles - research ethics ---
--- title: "Manifesto for Honest Computation" author: "QNFO Research Collective" date: 2026-07-08 series: "The Qubit Delusion --- Phase VI (Final Synthesis)" abstract: > Five papers have traced an arc from diagnosis to prescription. The qubit is a scaffold, not an invariant. Alternative paradigms exist. Physical limits are real. A diversified portfolio is rational. Institutions must be reformed. This final paper --- the Manifesto --- synthesizes these findings into principles for honest computation and a call to action for investors, researchers, policymakers, and the public. We propose five principles: (1) the substrate IS the algorithm; (2) correlation over particle; (3) joules per solution as the universal metric; (4) falsifiability as a condition of funding; and (5) institutional independence of verification. We propose a specific resource reallocation --- from the ~60% currently consumed by gate-model quantum computing toward thermodynamic, optical, neuromorphic, and analog quantum simulation --- and a Falsification Pledge by which institutions commit to pre-registering computational claims with time-bound success criteria. Computation is too important to be left to narrative production. The future of computing is honest, or it is nothing. keywords: - manifesto - honest computation - post-classical computing - quantum computing reform - computational principles - research ethics ---
Companion paper to "The Qubit Delusion" (v1.1, 10.5281/zenodo.21254143). If the qubit-gate-circuit model is an epistemic failure — a projection of particle ontology onto relational, field-theoretic reality — what comes next? We strip quantum mechanics to its minimal ontological commitments, survey alternative paradigms (MBQC, CV-QC, TQC, field-theoretic, analog) for ontological fidelity, assess commercial manufacturability of each physical platform, and ask whether "quantum computing" is even the right frame. The deeper lesson — that computation IS a physical process and the substrate IS the algorithm — points toward thermodynamic, neuromorphic, and optical architectures where physics does the computing directly.
Phase IV of the Qubit Delusion series. Translates the critique into a concrete investment portfolio: matching computational problem classes (optimization, linear algebra, probabilistic inference, quantum simulation, cryptography, general-purpose) to optimal physical substrates (Ising machines, optical processors, neuromorphic, analog quantum simulators, reversible classical, fault-tolerant QC). Proposes a standardized five-question evaluation framework with red flags and green flags. The resulting portfolio allocates ~45% to thermodynamic/analog, 25% to optical, 20% to neuromorphic, and ~10% to quantum — a near-inversion of current R&D allocation where gate-model QC absorbs ~60%. Full text and updates: https://papers.qnfo.org/papers/paper-problem-substrate-mapping/
Phase III of the Qubit Delusion series. Examines fundamental physical limits on computation: Landauer bound, Margolus-Levitin theorem, Bremermann limit, Bekenstein bound. Shows that quantum error-correction overhead (1e2-1e3 physical operations per logical operation) multiplies thermodynamic cost beyond what any polynomial algorithmic speedup can overcome. Proposes a falsifiable criterion: joules per solution on commercially relevant problems. Assesses all major quantum platforms against this criterion. Identifies reversible computing as the only paradigm that can approach the true physical limits. Full text and updates: https://papers.qnfo.org/papers/paper-physics-of-computation/
Phase V of the Qubit Delusion series. Diagnoses the institutional incentive structure that produced the $35B quantum computing bubble with zero viable output. Analyzes the structural mismatch between VC timelines and deep tech development, the prestige cascade in academic publishing, and the regulatory vacuum. Proposes five reforms: an Advanced Computing Projects Agency (ACPA), mandatory independent verification, structural separation of hardware/software, joules-per-solution procurement, and a public registry of computational claims with time-bound falsification criteria.
Quantum computing represents a paradigm shift in computational capabilities, leveraging the principles of quantum mechanics to solve complex problems beyond the reach of classical computing. This chapter explores the fundamental concepts of qubits and quantum gates, providing a detailed analysis of their theoretical foundations and physical realizations. Emphasis was placed on the challenges and advancements in quantum error correction techniques, addressing critical issues such as decoherence and the scalability of quantum systems. The chapter examines the burgeoning field of quantum algorithms and their real-world applications across diverse industries, including finance, healthcare, logistics, and materials science. By synthesizing current research and practical implementations, this work highlights the transformative potential of quantum computing technologies and their implications for future innovations. Key insights into performance metrics, resource requirements, and optimization strategies are also discussed, offering a comprehensive overview of the state-of-the-art in quantum computing research.
Quantum computing is often presented through a small set of recurring claims: continuous-variable systems are naturally advantaged, more modes means more power, quantum advantage has been demonstrated at device level, statistics could in principle be non-standard, complex amplitudes are essential, approximation-based gate synthesis is the only approach, a transmon is a qubit, and fault tolerance is a matter of years. This paper argues that each of these claims is true only within a restricted domain of applicability, and that the boundaries at which they fail are not defects of the claims but the places where the physics relevant to practitioners actually lives. Drawing on the locale framework introduced in a companion record, the paper states eight of the most widely repeated claims, makes the domain of each explicit, and pairs each boundary with work presented at the 23rd International Conference on Quantum Physics and Logic (QPL 2026), including new results on the energy cost of continuous-variable computation, classical simulation of Clifford+T circuits, invariance under quantum permutations, real-valued quantum theory, and the arithmetic structure of gate synthesis. A review of the practitioner-oriented contributions at QPL 2026 follows, and five challenges raised at the conference are answered. The paper closes with the observation that the quantity which survives every boundary examined is energy per solution. Why a reader should care: this paper turns every quantum-computing innovation and practical-application claim into a conditional truth with an explicit locale, then pairs each claim with the exact QPL 2026 paper that documents where it breaks. The seams catalog T1-T8 replaces a year of vendor roadmaps: claims are conditional truths, the seams are public, and the energy exchange rate between paradigms is the currency. Premise-depth: the framework's primitives 'locale' and 'interface' are imported (UMP.011); OSR is a named input; the energy theorems are imported external results; the catalog is retrodictive; no dynamical theory of seams is claimed.