Applications

From ITER to the hospital bedside

TopMC is used by more than 1000 nuclear-related institutions across 90+ countries — spanning international mega-projects, national laboratories, universities, industry and hospitals.

30+Years of development
1000+Nuclear-related institutions
90+Countries and regions
ITERSelected as reference code

Nuclear Energy

World map with lines from China to user countries across Europe, Asia, Africa, the Americas and Oceania

Hundredsof renowned industrial institutions

Widely used in nuclear energy — fission, fusion and hybrid systems — and in extended nuclear technology fields such as well logging, non-destructive testing and radiotherapy.

40+mega-projects

Including ITER, JET, the Facility for Rare Isotope Beams, CLEAR and TMSR.

90+countries

Global applications across Europe, Asia, Africa, the Americas and Oceania.

Nuclear Fusion Energy

Applied in International Thermonuclear Experimental Reactor (ITER) design for over 10 years, supported to establish ITER reference neutronics basic models.

Nuclear Fission Energy

Selected as the reference software for nuclear design and safety evaluation of China Lead-based Reactor (CLEAR), supported the compact design of CLEAR; applied in the radiation shielding assessments of HPR1000 and passed the Generic Design Assessment (GDA).

Case study · ITER

Neutronics analysis for ITER

Benchmark software for ITER — the world’s largest science and technology cooperation project, jointly undertaken by China, the EU, the USA, Japan, Russia and others, 35 countries in all.

  • Nuclear analysis of the ITER building and of the tokamak machine
  • Established the basic neutron model; discovered and corrected nuclear safety design defects of ITER
16nuclear analysis tasks undertaken with TopMC
20+ITER neutronics tasks supported for other institutions
Colour-mapped radiation field across a cut-away model of the ITER tokamak building
Nuclear analysis of the ITER building
Colour-mapped neutron flux across a cross-section of the ITER tokamak
Nuclear analysis of the tokamak machine

Case study · European DEMO

Assessment for European DEMO

Nuclear performance assessments of the European DEMO with a Helium Cooled Pebble Bed (HCPB) blanket, developed by KIT within the EUROfusion Consortium — in collaboration with KIT.

Configuration
E-DEMO with Helium Cooled Pebble Bed (HCPB)
Fusion power
2119 MW (assumed in this simulation)
Monte Carlo codes
MCNP & TopMC
Nuclear data library
JEFF-3.2
Scope
Assessments of nuclear performance
Partner
KIT
Poloidal cross-section model of the European DEMO sector with blanket, vacuum vessel and plasma region labelled
HCPB DEMO sector model

Nuclear Technology

Nuclear Detector

Support the quantitative analysis of the impact of detector structure, the optimization of detection efficiency, etc.

Particle Accelerator

Support the system design, the optimization of beam quality, radiation protection, etc.

Neutron radiography

Support the optimized design and plan formulation.

Radiation Therapy

Support the accurate dose evaluation of photon/electron/neutron radiation in human body.

Nuclear Logging

Support the design of the detector, shielding, interpretation system, etc.

Irradiation Processing

Support the dose simulation to optimize/evaluate the irradiation plans.

In practice

TopMC at work