The Future is Atomic

Advancing nuclear energy research through thorium, uranium, and Small Modular Reactor technologies

2030

Target Year for Commercial SMR

300x

More Energy Dense than Coal

0

Carbon Emissions

Thorium Fuel Potential

Research Focus Areas

Thorium Technology

Molten Salt Reactors (MSRs) and Liquid Fluoride Thorium Reactors (LFTRs) represent the future of clean, safe nuclear energy with abundant fuel supply.

  • Inherently safe design
  • Minimal nuclear waste
  • Abundant fuel source
  • Walk-away safe operation

Advanced Uranium Cycles

Next-generation uranium fuel cycles with improved efficiency, safety margins, and waste reduction through advanced reactor designs.

  • High-assay low-enriched uranium (HALEU)
  • Advanced fuel fabrication
  • Closed fuel cycles
  • Accident-tolerant fuels

Small Modular Reactors

Compact, scalable reactor designs that can be manufactured in factories and deployed rapidly to meet growing energy demands.

  • Factory-built standardization
  • Enhanced safety systems
  • Reduced capital costs
  • Grid flexibility

Latest Nuclear Energy News

China's Thorium MSR Program Advances

Shanghai Institute reports successful operation of experimental thorium molten salt reactor, bringing commercial deployment closer to reality.

January 12, 2025

NuScale SMR Receives Final Design Approval

First small modular reactor design certified by NRC, paving the way for commercial deployment by 2029.

January 10, 2025

Fusion-Fission Hybrid Reactors Show Promise

New research demonstrates potential for hybrid systems that combine fusion neutrons with thorium breeding cycles.

January 8, 2025

Technology Comparison

Technology
Safety
Efficiency
Waste
Deployment
Thorium MSR
Excellent
95%+
Minimal
2030+
SMR (Uranium)
Excellent
85%+
Reduced
2027+
Gen IV Reactors
Excellent
90%+
Low
2035+
Current PWR
Very Good
33%
Moderate
Available

About This Project

Atomic Future Fund is an independent research hub tracking developments in next-generation nuclear technologies. Run by a physicist and engineer with a background in medical physics, computational modelling, and industrial control systems. The aim is to curate reliable information on thorium reactors, SMRs, and advanced fuel cycles — and to explore how modelling and simulation expertise can contribute to the field.

Research Curation

Tracking global developments in thorium, SMR, and Gen IV reactor programmes

Modelling & Simulation

Applying physics and computational methods to nuclear energy problems

Investment Insight

Understanding the nuclear energy landscape for informed decision-making