100 GWe
Nuclear capacity target
The Nuclear Energy Mission sets a long-term goal for installed nuclear electricity capacity.
Government of India · 2026 ↗Software for nuclear engineeringFrom physics.
From physics.
To a better
energy future.
Our aim is to connect the physics, engineering and design of nuclear energy in one simulation platform. From the first concept to a virtual plant.
Exploring the possibilities of nuclear energy
Fusion / Fission / A connected future
The global nuclear outlookA cleaner energy future.
A cleaner energy future.
An engineering imperative.
Countries are planning a larger role for nuclear power. Our aim is to help engineers turn that ambition into better-informed designs for dependable, low-carbon energy.
20%
Electricity mix outlook
The Seventh Strategic Energy Plan envisages nuclear supplying around one-fifth of electricity.
METI energy outlook · 2025 ↗Up to24 GW
Published roadmap ambition
The 2024 Civil Nuclear Roadmap sets out an ambition to expand nuclear generating capacity.
UK civil nuclear roadmap · 2024 ↗400 GW
Nuclear capacity goal
The Department of Energy describes a national goal to expand nuclear energy capacity by mid-century.
US Department of Energy · 2026 ↗Selected national targets and outlooks, reviewed 7 October 2026. These are policy ambitions, not guaranteed forecasts. Capacity (GW / GWe) and electricity share (%) measure different things; these figures concern fission power.
Milestones on the horizon
- 2033
India · Small modular reactors
Target: at least five indigenous SMRs operational.
- 2040
Japan · Energy mix
Outlook: around 20% nuclear electricity in FY2040.
- 2047
India · Capacity expansion
Target: 100 GWe of nuclear power.
- 2050
UK & US · Long-term ambitions
UK: up to 24 GW. US: 400 GW.
The engineering challengeComplex physics.
Complex physics.
A connected approach.
Achieving clean-energy goals means resolving complex design questions earlier. Connected simulation can help teams explore alternatives, understand interactions and assess safety-relevant behaviour before committing to hardware.
Shorten the learning cycle
Our aim is to make it easier to compare concepts, automate repeat calculations and identify design constraints earlier, reducing avoidable rework.
See the system together
Connect thermal response, reactor behaviour and engineering limits to explore how a change in one subsystem affects the whole design.
Explore demanding conditions
Our goal is to help engineers examine cooling performance, abnormal operating scenarios and uncertainty, so safety considerations inform design from the outset.
Safety remains an engineering responsibility.
Simulation supports assessment alongside experiments, qualified engineering review and regulatory oversight. Safety-analysis methods and computer codes require verification and validation. IAEA guidance ↗
The KSLP platformEngineering insight,
Engineering insight,
across disciplines.
We are building a shared workbench for modelling, comparing and investigating nuclear energy concepts.
Our goal is a seamless journey from modelling individual components to exploring the performance of an entire energy system.
A connected modelling workflow
- 01
Define the system
Bring a concept and its components into focus.
- 02
Connect the physics
Subsystem interactions and energy flows.
- 03
Explore the possibilities
Design alternatives, performance and system trade-offs.
Our vision for connected engineering