Advance the Energy Transition with
Simulation-Led Engineering
The energy sector is evolving rapidly, driven by the need for cleaner generation, stronger reliability, better asset performance, and faster innovation across both conventional and emerging technologies. Simulation helps engineering teams model real-world behavior more accurately across wind, hydrogen, storage, electrification, and broader energy infrastructure.
By supporting both operating assets and next-generation energy systems, simulation creates a stronger path from design validation to operational improvement. This helps teams make better decisions earlier across power generation, storage, hydrogen, electrification, and long-term asset performance.
From Asset Reliability to
New Energy Innovation
Energy simulation spans a broad and increasingly interconnected technology landscape. It supports conventional generation, wind, nuclear, hydrogen, energy storage, and electrified systems through structural, thermal, fluid, and electromagnetic analysis.
That breadth makes simulation especially valuable in this industry. It helps improve safety and performance in existing assets while accelerating the development of lower-carbon technologies and connected operational workflows such as digital twins and predictive maintenance.
Core
Focus
Renewable Generation Performance
Analyze aerodynamics, heat transfer, structural response, and system behavior to improve efficiency, reliability, and performance across wind and other renewable energy systems.
Hydrogen and Energy Storage
Support hydrogen production, storage, transport, and safety workflows, along with advanced energy storage and battery-integrated systems.
Electrification and Integrated Energy Systems
Model electric machines, power electronics, charging, and broader electrification challenges that support evolving energy infrastructure and system efficiency.
Digital Operations and Lifecycle Optimization
Extend simulation into operation through digital twins, prognostics, and connected engineering workflows for stronger asset performance and long-term reliability.
Relevant
Applications
Emissions Reduction
Use simulation to reduce emissions while improving system performance, efficiency, and engineering confidence. Support cleaner energy outcomes by evaluating design and operating choices earlier in development.
Conventional Power Generation
Improve conventional power assets with simulation that helps address emissions, thermal stress, and equipment performance. Support better decisions around efficiency, durability, and reliability across thermal power systems.
Wind Energy
Advance wind-energy development with simulation that improves blade behavior, load response, and overall turbine performance. Understand structural and multiphysics behavior earlier to support more reliable turbine design.
Nuclear Thermal Stress Analysis
Evaluate how nuclear systems respond to thermal stresses that affect safety, durability, and operational confidence. Use thermal-structural simulation to better understand reactor-related performance under demanding conditions.
Hydrogen Production
Support hydrogen production development by evaluating process parameters, design choices, and system efficiency earlier. Improve output and cost performance across pathways such as hydrocarbon processing and electrolysis.
Hydrogen Storage
Assess hydrogen storage systems under cryogenic, filling, leakage, and high-pressure conditions with greater confidence. Use simulation to improve storage performance, safety, and readiness before physical testing alone.
Hydrogen Transport
Analyze hydrogen transport behavior across storage, draining, and transportation workflows using simulation-led engineering. Improve confidence in cryogenic and liquid hydrogen handling by understanding system behavior earlier.
Hydrogen Combustion
Develop hydrogen-fueled systems with simulation that supports safer and more efficient combustion analysis. Understand combustion behavior earlier where performance, emissions, and validation all matter.
Why
Fluid Codes
Supporting Energy Innovation with
Practical Simulation Expertise
Energy teams need simulation workflows that can support both current operational demands and the transition to newer technologies. Fluid Codes helps apply the right Ansys technologies across generation, storage, hydrogen, electrification, and connected engineering workflows.
With the right technical guidance, simulation can be used more effectively to improve performance, reliability, safety, and long-term asset value. This creates a stronger link between engineering decisions, operational readiness, and lifecycle improvement.
How Simulation
Helps
Fluids
Model flow, heat transfer, combustion, multiphase behavior and thermal performance across generation, hydrogen, storage and process equipment workflows.
Structures
Analyze thermal stress, structural integrity, vibration and durability in energy assets such as turbines, blades, vessels and critical infrastructure.
Electronics
Support electrification, electric machines, power electronics and electromagnetic design challenges that increasingly shape modern energy systems.
Digital Twin
Connect simulation and operational data for predictive maintenance, asset optimization and lifecycle intelligence across energy operations.
Connect
Create stronger traceability and reuse around simulation data, workflows and engineering decisions across complex energy programs.
Materials
Enable better materials decisions and simulation-ready property data for demanding energy environments, including thermal, structural and lifecycle-sensitive applications.
Safety Analysis
Support structured safety and risk workflows where hydrogen, pressure systems, critical infrastructure and regulated engineering processes require stronger traceability and assurance.
Advance Energy Innovation with Simulation
Talk to Fluid Codes about the right Ansys solutions for your energy challenges, from hydrogen and storage to asset reliability, electrification, and digital twin deployment.
Talk To Fluid Codes