QNFO Papers
PapersAsk the corpusIdeasArchiveAboutWork with me

Open research library

Papers you can read, cite and question

710 papers from the QNFO program, filed on nine shelves by the reader each one is written for: energy per answer, error correction, physics, numbers and p-adics, logic and formalism, AI and knowledge, autonomous systems, assessments, and cross-cutting essays. Every page renders its mathematics and can be questioned in place. How a living paper works.

Looking for an answer rather than a paper? Ask the whole corpus: answers cite the papers they come from.

Ultrametric 114Quantum foundations 105Error correction 92p-adic 82Valuation theory 79Bruhat–Tits trees 61Numbers & arithmetic 59Knowledge integrity 57Spacetime & cosmology 57Thermodynamic budgets 57Standard model 53Laws of Form 50Adelic 45Information theory 44Research operations 44Energy of computing 43Spectral analysis 43Anyons & topology 42Funding & strategy 40Stabilizer formalism 40AI agents 39Metrology 39Category theory 38Quantum biology 34Replication 34Teaching 34Tree geometry 32Choosing a platform 30Numeral systems 30Computation theory 29Foresight 28Energy benchmarking 26Formal verification 26Qubits 25Superconducting 25LLM systems 23Policy & oversight 21Statistical audits 20Hardware platforms 18Benchmarking 14Proof assistants 12All 41 tags →

Error correction papers 3 papers

Error-correction researchers and quantum hardware teams. Codes, decoders and the cost of keeping a logical qubit alive: stabilizer, surface, LDPC, concatenated and ultrametric constructions, fault-tolerance thresholds, leakage, syndromes and circuit mapping onto real hardware.

Thermodynamic budgets. Thermodynamic and energy accounting Tagged papers: 57.

  1. Error correction

    Fault‑Tolerant Quantum Memory as a Thermodynamic Phase in a 4‑D Topological Photonic Lattice

    Passive protection of quantum information can be achieved when a material phase possesses a bulk energy gap that exceeds the ambient thermal energy. Existing self‑correcting memory proposals rely on many‑body Hamiltonians that are difficult to engineer. We propose a concrete photonic implementation…

    ReadQuick readAsk about it
    Error correctionThermodynamic budgets
  2. Error correction

    Passive Fault Tolerance via Bruhat–Tits Tree Codes: Exact Ball-Code Error Rates, Energy Barriers, and the Cooling Wall of Active Quantum Error Correction

    Large-scale quantum computation is gated by active error correction: stabilizer codes such as the surface code require physical-to-logical overheads of $10^{2}$–$10^{4}$, continuous syndrome measurement, and millikelvin refrigeration whose thermodynamic cost grows as the operating temperature falls.…

    ReadQuick readAsk about it
    Bruhat–Tits treesError correction
  3. Error correction

    Passive Quantum Error Correction via Ultrametric Geometry on Bruhat–Tits Trees

    Scalable quantum computing is limited by the thermodynamic overhead of active error‑correction cycles, which require repeated syndrome extraction, low‑latency decoding, and large ancilla resources. A quantitative gap exists: no fully derived account shows how non‑Archimedean (ultrametric) geometry…

    ReadQuick readAsk about it
    UltrametricBruhat–Tits trees

New papers by email

One short weekly digest: titles and links. No tracking; unsubscribe any time.