Conventional high-flux sources occupy entire facilities and need large operating teams.
DAOLYTICA · ADVANCED NUCLEAR SYSTEMS
Engineering the Future of
Nuclear Technology
Advanced radiation systems, high-energy beam platforms, and next-generation modular reactors.
DAO — De l'Amorce à l'Observation
THE PROBLEM
Neutrons are powerful — and hard to get.
The machines that make them are big, scarce, and costly — gatekeeping medicine, industry, and security.
BNCT-grade and high-flux neutron access is limited to a few centres globally.
Capital and footprint keep advanced neutron sources from the institutions that need them.
THREE FLAGSHIP PLATFORMS
One ecosystem, from ion to grid.
A continuous technology stack — precision low-energy beams, recirculating high-energy drivers, and modular reactors — engineered, simulated end-to-end, and validated against published physics.
01 — LOW-ENERGY BEAM
LEB
Precision ion sources and beam delivery.
A dual-ECR deuterium source with triode Pierce extraction, low-emittance focusing optics and an RFQ front end. Engineered for stable, high-purity beam delivery into compact neutron and BNCT systems — full control from plasma to bunched beam.
- 2.45 GHz dual-ECR source~100–200 keV column
- Extraction transmission>90% · εₙ < 0.3 mm·mrad
- RFQ accelerationtens of keV/u → ~MeV/u
- Beam current~10 mA D⁺ · ~10¹¹ n/s class
- Validated ion opticsIBSimu · FEMM · Geant4
02 — HIGH-ENERGY BEAM
HEB
A recirculating, energy-recovering deuteron driver.
Driver mode — a deuteron beam on a rotating beryllium target gives forward-peaked fast neutrons for materials, imaging and detection.
Medical mode — a ⁷Li(p,n) front end shifts the beam to an epithermal spectrum tuned for boron neutron capture therapy.
CR-ERD — a tens-of-MeV deuteron driver on a compact sub-10 m recirculating ring that recovers the beam energy and fires a rotating beryllium target for forward-peaked fast neutrons. >6× more compact and roughly 2× lower dissipated power than a conventional single-pass linac, wrapped in a machine-learning digital twin.
- Deuteron drivertens of MeV · tens of kW
- Recirculating ring< 10 m · >6× compact
- Energy recovery~2× lower dissipated power
- Rotating Be targetforward-peaked · ⟨E⟩ several MeV
- BNCT mode — ⁷Li(p,n)~10¹²–10¹³ n/s @ ~10 mA
- Digital twinXsuite · RF-Track · R² > 0.99
03 — SMALL MODULAR REACTOR CONCEPT · IN DEVELOPMENT
SMR
Next-generation modular clean power.
A forward-looking modular reactor concept pairing an inherently safe core with a digital-twin control layer — designed for scalable, factory-built, load-following clean energy. Built on the same simulation and digital-twin engineering that drives our beam platforms.
- ArchitectureFactory-built · transportable modules
- SafetyPassive / inherent safety design
- ControlLive digital-twin monitoring
- DeploymentScalable 1 → N modules
- OutputLow-carbon baseload + load-following
06 — TRACTION
Validated, not vapor.
Every claim is backed by a simulated, cross-checked engineering pipeline — not slideware. Hover any tile for the detail.
ECR extraction (IBSimu) → RFQ → MEBT (RF-Track 3D) → recirculating ring (Xsuite) → HEBT octupole uniformizer → rotating Be target (Geant4 neutronics + thermal).
Across four suites — d(Be,n) physics, accelerator, near-threshold, and CAD.
RF-Track 3D transport reproduces analytic matrix optics to within <1% envelope difference.
A machine-learning twin predicts machine performance against the physics models at R² > 0.99.
A sub-10 m recirculating ring vs a much longer single-pass reference machine — same energy class.
By recovering the beam energy, the recirculating ring cuts dissipated power roughly 2× at the same neutron rate — a smaller, cooler, simpler machine.
HOW WE COMPARE
Same physics. A fraction of the machine.
Drag the handle to compare a conventional single-pass linac with the CR-ERD recirculating driver.
07 — APPLICATIONS
One platform, many markets.
The same beam-delivery and digital-twin core serves fundamentally different industries. Hover or tap a card to flip it.
Fast-Neutron Driver
Materials & imaging
Flip →Fast-Neutron Driver
- Materials testing & irradiation
- Fast-neutron radiography
- Defence / PGNAA detection
- ⟨E⟩ several MeV · >60% forward-peaked
BNCT / Medical
Cancer therapy
Flip →BNCT / Medical
- Boron Neutron Capture Therapy
- ⁷Li(p,n) near-threshold beam
- ~10¹²–10¹³ n/s
- Beam-shaping assembly tuned to IAEA
Industrial & Security
Inspection & NDT
Flip →Industrial & Security
- Cargo & container scanning
- Non-destructive testing
- Explosives / SNM detection
- Compact, transportable footprint
SMR Clean Power
Modular energy
Flip →SMR Clean Power
- Factory-built, transportable modules
- Passive / inherent safety
- Baseload + load-following
- Digital-twin monitored
08 — ROADMAP
From ion to grid.
A staged path — each platform de-risks the next.
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PHASE 01
LEB — Proven front-end
ValidatedCompact ECR source, extraction and RFQ — ion optics validated in IBSimu, FEMM and Geant4.
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PHASE 02
HEB — CR-ERD driver
SimulatedTens-of-MeV recirculating, energy-recovering ring → rotating Be target. Full pipeline simulated, 100+ tests, digital twin.
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PHASE 03
SMR — Modular power
ConceptInherently-safe, factory-built modular reactor built on the same simulation & digital-twin engineering.
THE OPPORTUNITY
One platform, three large markets.
A common beam-delivery and digital-twin core, serving high-value applications.
DAOLYTICA
Building world-class
nuclear technologies.
From precision ion beams to modular reactors — engineered, simulated, and validated end-to-end. Let's talk about what we're building next.