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Research Alliances · Laboratory Testbeds · Epistemic RigorCONCEPTUAL MODEL · NON-EMPIRICAL

Collaboration Modes

Academic Research, Laboratory Testbeds & Institutional Programs

Structured collaboration pathways for university departments, independent research institutes, and experimental laboratories with Ivan Pasev and the GILC initiative.

Canonical collaboration pathways
Academic AlliancesLaboratory Testbeds

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Orientation Root · About Ivan · Structured Collaboration Frameworks

Public Status Boundary. Ivan Pasev collaborates with university departments, independent research institutes, experimental laboratories, and open-source foundations. Collaboration is distinguished strictly from commercial consulting: it focuses on shared epistemic objectives, co-authorship, public peer review, and independent scientific infrastructure.


1. Five Collaboration Frameworks ​

Mode 01Theoretical Physics

Academic & Theoretical Research

Joint theoretical investigations on relational field dynamics, discrete metric-measure Dirichlet forms, and multi-scale quantum field frameworks.

  • Co-authorship on theoretical manuscripts and whitepapers.
  • Joint mathematical derivation and operator formulation.
  • Harmonization with consensus physical comparators.
Mode 02Empirical Metrology

Experimental & Laboratory Testbeds

Independent laboratory evaluation of reproducible empirical predictions and spectroscopic comparators under JCGM uncertainty budgets.

  • Hydrogen 2S–8D Doppler-free precision spectroscopy (0.85 kHz budget).
  • Atomic ionization comparators (NIST ASD baselines).
  • Cryogenic directional vacuum thermophysics metrology.
Mode 03Interactive Proofs

Formal Verification & Lean 4

Machine-checked formalization campaigns translating axiomatic foundations into interactive proof assistant code in Lean 4.

  • Lean 4 formalization of invariant preservation theorems.
  • Automated proof obligation closures and lemma audits.
  • Public CI validation of mathematical repositories.
Mode 04Cybernetic Runtime

Technical & Sovereign Systems

Collaborative development of invariant-governed software, verifiable state witness chains, and controlled AI execution workstations.

  • Digital Fabrica Theory (DFT) reference implementations.
  • CodexStation policy gating and receipt schema testbeds.
  • Decentralized ledger protocols and state verification.
Mode 05Open Science

Institutional Programs & Alliances

Strategic institutional partnerships under the auspices of the Global Institute of Logic & Cybernetics (GILC) or partner research foundations.

  • Participation in active research programs and frontier targets.
  • Research data governance aligned with NIST RDAF and FAIR principles.
  • Open science archiving, permanent DOI registry, and transparent review.

2. Priority Laboratory Outreach: AMO Rydberg Precision Spectroscopy ​

We invite experimental AMO groups operating precision atomic hydrogen or metastable beam facilities to collaborate on an independent remeasurement of the atomic hydrogen 2S1/2→8D5/2 transition (λ=778 nm, two-photon Doppler-free).

Protocol Specifications & Design Target

  • Primary Transition: Atomic Hydrogen 2S1/2→8D5/2 (λ=778 nm, two-photon Doppler-free).
  • Target Uncertainty: Baseline ≤2.0 kHz · Design Goal σtotal≤1.0 kHz (0.85 kHz JCGM budget) · Stretch Forecast ≈0.5 kHz.
  • Core Technology: Cryogenic supersonic atomic beam (5--6 K, v≈350 m/s), active 8-electrode 3D field reversal nulling (<1 mV/cm), and in situ 12D Stark calibration.

Four Mainstream Scientific Motivations ​

  1. Independent Replication of Contested 2S–8D Result:
    In 2022, Brandt et al. (Science 377, 655–660) measured ν(2S--8D)=770649561570.9±2.0 kHz, yielding rp=0.8584±0.0051 fm—standing in 3.1σ combined tension with CODATA 2018 and muonic hydrogen spectroscopy. Precision metrology requires independent verification.

  2. Proton-Radius & Rydberg-Constant Concordance:
    Measuring an angular momentum D-state (l=2) decouples the electron wave function from the nuclear core via the centrifugal barrier, rotating the Yukawa response function by θ=38.4∘ relative to existing S-state ladders and breaking practical rank deficiency.

  3. Bound-State QED in High-n D-States:
    Enables rigorous tests of two-loop Bethe logarithms (B60) and radiative recoil terms free from nuclear charge radius ambiguities.

  4. Model-Independent Fifth-Force Tomography:
    Probes hypothetical scalar/vector mediators across the nanometre regime (1--50 eV mediator mass; 4--200 nm Compton wavelength).

Model-Blind Data Handoff & Outcome Guarantee ​

To eliminate cognitive bias toward either CODATA agreement or new-physics signals:

  • Software Blinding: Laboratory DAQ injects a pseudo-random blinding offset Δblind∈[−15,+15] kHz unknown to experimental operators.
  • Frozen Covariance: All systematic corrections, Stark extrapolations, and covariance matrices are cryptographically signed before unblinding.
  • Neutral 3-Branch Decision Tree:
    • Branch A (Δν>3σ, Anomaly Confirmed): Direct empirical discovery of non-local mediator interactions.
    • Branch B (Δν=0±1σ, CODATA Agreement): Establishes world-leading exclusion boundaries across the 1--50 eV window.
    • Branch C (Δν>3σ, Discrepant): Isolates state-specific high-n quantum interference or stray field phenomena.
Dispatch ResourceTarget / FileDescription
Technical AppendixAMO Rydberg Spectroscopy Appendix →Complete 280-line technical specification, Gauss–Laguerre integrals, and error budgets.
Interactive CockpitKP Spectroscopy Cockpit & Tomography →Interactive parameter space explorer and response kernel visualizer.
Results LedgerNull Exclusion Benchmark AMO-H-EXCL-95 →Formal registration of the 95% CL null exclusion benchmark.

3. Institutional Boundaries & Integrity ​

Epistemic Grounding

Collaboration inquiry, joint discussion, or research dialogue does not imply commercial partnership, legal endorsement, or validation of claims. All research output remains subject to independent peer review and open mathematical verification.

No ungrounded claims of existing corporate or university partnerships are asserted on this site. Active collaborations are bound strictly to registered evidence artifacts and formal agreements.


4. Propose a Collaboration ​

To discuss a research partnership, experimental testbed, or formalization project:


5. Canonical Continuations ​