Research & Development

Research & Development hub. Open-access work published under my own name, hosted on Zenodo with persistent DOIs, licensed CC-BY-4.0. Two preprints spanning quantum MRI imaging and theoretical neuroscience — both carrying persistent DOIs and present in international citation indexes.

📄 Quantum Flash Tomograph

Single-Shot Volumetric Human Body Imaging at Cellular Resolution via Squeezed-State Compressed Sensing MRI

Bartosz Osiej — July 30, 2026 · Preprint (v4) · CC-BY-4.0

📖 Full text (read in the browser)

The complete preprint is embedded below — flip through it with the arrows (or ← / →), or download the PDF directly:

Direct links: ⬇ Download PDF · Open on Zenodo · Resolve DOI

📋 Abstract

We present a conceptual design for a medical imaging device capable of scanning the entire human body (0.07 m³) at isotropic cellular resolution (10 µm) in under one second (0.22 s), enabling classical scan–transmit–reconstruct teleportation of macroscopic organisms. The device combines: (i) an 11.7 T superconducting magnet with a 0.9 m bore; (ii) a squeezed-state radio-frequency source (10 dB squeezing at 500 MHz via Josephson Parametric Amplifier); (iii) a 581 GS/s arbitrary waveform generator encoding 1.28 × 10¹¹ compressed sensing projections; (iv) a quantum-limited homodyne detector array (I/Q, 581 GS/s); (v) a compressed sensing reconstruction engine processing 10¹⁰ sparse parameters; and (vi) a 10.2 Pb/s fiber-optic data link. No component violates known physics; the principal barriers are engineering: a 2× gap in AWG/ADC speed, a 3×10⁵× gap in real-time CS reconstruction throughput, and scaling Josephson parametric amplification to 500 MHz. Total estimated cost is $1B with a 25–40 year development timeline.

🧬 Version history (Zenodo)

All four versions of the concept record 10.5281/zenodo.21700268:

All versions share the same concept DOI, so citing 10.5281/zenodo.21700268 always resolves to the latest version.

📊 Publication metrics (Zenodo, v4, as of 2026-08-17)

🧠 Synaptic Continuity Protocol

Preserving Personhood: A Framework for Consciousness Transfer via High-Density Microelectrode Arrays

Bartosz Osiej — August 14, 2026 · Preprint (v2) · CC-BY-4.0

📋 Abstract

We present a theoretical framework for consciousness transfer between biological and artificial substrates. The protocol addresses three fundamental barriers: (i) connectome-scale neural mapping at synaptic resolution (~100 trillion synapses for a human brain), (ii) functional substrate replacement maintaining causal continuity of subjective experience, and (iii) identity verification across the transfer boundary. We propose a staged approach: partial prosthetic augmentation (10% cortical volume), hemispheric sequential replacement, and full substrate migration — each stage validated against a consciousness continuity metric (CCM) derived from integrated information theory (IIT) and global workspace theory (GWT). The estimated timeline for full implementation is 40–80 years; the first partial augmentation (10% volume, focused on memory consolidation circuits) is plausible within 15–25 years given current progress in high-density microelectrode arrays and neural interface technology.

🧬 Version history (Zenodo)

All versions of the concept record 10.5281/zenodo.21930639:

Citing 10.5281/zenodo.21930639 always resolves to the latest version.

📊 Publication metrics (Zenodo, v2, as of 2026-08-17)

🌐 Where these works appear online — full audit

A web-wide search (Google, OpenAlex, DataCite, Crossref, Semantic Scholar, Zenodo API + targeted site checks) conducted on 2026-08-17 found the following places where the preprints are present or indexed.

✅ Confirmed presences

1. Central publication point (CERN / primary host)

Both preprints on the open-access repository, safeguarded by CERN infrastructure:

2. Global knowledge graphs & world-science catalogs

Automatic DOI-harvesting systems pulled both works into international citation registries:

3. TGRS clusters & radars (The Global Research Space)

The big one — TGRS analytical algorithms detected the interdisciplinary nature of QFT and placed it in three different thematic regions/radars:

🔍 Checked but not found (no presence)

📈 Citations

0 citations across all checked indexes for both preprints. QFT was published 2026-07-30 and SCP on 2026-08-14 — both very recent, so the citation count is expected to be zero for now.

💡 How to cite

Quantum Flash Tomograph:

Osiej, Bartosz. (2026). Quantum Flash Tomograph: Single-Shot Volumetric
Human Body Imaging at Cellular Resolution via Squeezed-State Compressed
Sensing MRI (Version 4). Zenodo. https://doi.org/10.5281/zenodo.21701871

Synaptic Continuity Protocol:

Osiej, Bartosz. (2026). Synaptic Continuity Protocol: Preserving
Personhood — A Framework for Consciousness Transfer via High-Density
Microelectrode Arrays (Version 2). Zenodo. https://doi.org/10.5281/zenodo.21930640

🔭 What's next in R&D

• QFT v5 — expanded derivation of the compressed-sensing reconstruction bounds and the Josephson parametric amplifier scaling path
• QFT companion simulation — open-source numerical model of the 10¹⁰-parameter CS reconstruction pipeline
• SCP v3 — expanded consciousness continuity metric (CCM) derivation, detailed prosthetic augmentation staging timeline, and ethical framework
• Broader dissemination — submit both preprints to arXiv (quant-ph for QFT, q-bio.NC for SCP) for Google Scholar indexing
• OpenAlex author profile — set up and link both works under one unified author identity

📚 Related

• QA & Test Reports
• NV2 Engine — AI/ML
• Project catalog