Brochures

• Wind, Solar, Hydrogen, Nuclear, and other alternatives • Consumption • Integrated Energy Systems • Storage Solutions • Electric Motors • Fast Charging Batteries and Fuel Cells Ansys Sustainability Pillars Clean Environment Materials & Circularity Energy Solutions Manufacturing & Operational Efficiency • Emission Tracing and Control • Carbon Capture, Utilization and Storage • Water Treatment & Management • Environmental Noise • Dust • Orbital Space Debris • Materials Management and Selection • Packaging • Light-weighting • Chemical Safety • Compliance & Traceability • Recycling, Reuse • Advanced Manufacturing • Digital Twins • Prognostic Health Management • Energy Efficiency • Reliability, Durability • Workflow Optimization • Process Automation • Safety 11

• Default Section
• Slide 1
• Slide 2: Agenda
• Slide 3: Business landscape shifting
• Slide 4: Sustainability Urgency
• Slide 5: The pressure to change and the opportunity to grow
• Slide 6: Product complexity has reshaped development processes
• Slide 7: Additional key dimension: environmental impact
• Slide 8: What is environmental sustainability?
• Slide 9: What will take to achieve net zero emissions by 2050? 
• Slide 10: The Value and Power of Simulation for Sustainable Product Development
• Slide 11: Ansys Sustainability Pillars
• Slide 12: Ansys Sustainability Across the Product Life Cycle
• Slide 13: Sustainable solution pathways
• Renewable Energy
• Slide 14: Renewable Energy
• Slide 15: Predicting Wind Power
• Slide 16: Solar: Supporting Structures Reliability for CSP
• Slide 17: Solar: Electronics Reliability 
• Slide 18
• Slide 19
• Material
• Slide 20: Material Decision: sustainability analysis across product lifecycle
• Slide 21: The impact of material selection on SPD
• Slide 22: Materials information 'triple challenge' for sustainability
• Slide 23: How to design more sustainable, compliant products?
• Slide 24: What Ansys Granta offers
• Slide 25: Maximizing Recycling Efficiency
• Slide 26: Designing More Sustainable Packaging
• Slide 27: Reducing Plastics Use in Packaging
• Slide 28: Case Study: reducing product CO2 footprint
• Slide 29: Case study: material for speed & sustainability
• Slide 30: Case study: right material to reduce environmental impact
• Electrification
• Slide 31: Electrification: transportation example
• Slide 32: Electrification: electric motors
• Slide 33
• Slide 34: Electrification: batteries
• Slide 35
• Slide 36: Electrifying Aviation
• Slide 37
• Hydrogen
• Slide 38: Enabling Hydrogen at Scale
• Slide 39: Fuel Cells: Adding efficiencies to the process
• Slide 40: Fuel Cell Performance Under Full Range of Operating Conditions
• Slide 41:
• Slide 42: Helping Companies Transition to Carbon-Free Energy 
• Carbon Capture and Utilization
• Slide 43: Designing Carbon Capture Equipment for Efficiency
• Slide 44: Carbon Adsorption/Desorption in Carbon Canisters
• Slide 45
• Slide 46: Carbonova: converting carbon emissions into solid nanofibers
• Slide 47: Synhelion: development of sustainable solar fuels
• Slide 48: Amine-based Carbon Capture System: Digital Twin and System Model
• Manufacturing & Operational Efficiencies
• Slide 49: Sustainable Manufacturing & Operations
• Slide 50: Manufacturing & Operational Efficiency
• Slide 51: Designing for Reduced Energy Consumption and Emissions: Fired Heater
• Slide 52: Saving Energy and Reducing Wear in Tilling machine
• Slide 53: Optimizing Sheet Metal Forming
• Slide 54: Efficient Appliances: Reducing Energy and Water Use
• Slide 55: Health management & predictive maintenance: battery ageing
• Slide 56: Amine-based Carbon Capture System: Digital Twin and System Model
• Slide 57: Air Transport of Pharmaceuticals
• Slide 58
• Slide 59: Takeways
• Slide 60