Nuclear Fusion: A Solution to the
Energy Crisis?
• Exploring the Future of Clean Energy
• Your Name
• Date
What is Nuclear Fusion?
• Fusion is the process of combining light atomic
nuclei to form a heavier nucleus, releasing
vast energy.
• It powers the sun and stars.
Why Nuclear Fusion?
• - Almost limitless fuel (hydrogen isotopes)
• - No greenhouse gas emissions
• - Minimal long-lived radioactive waste
How Does It Work?
• - Deuterium + Tritium → Helium + neutron +
energy
• Requires extremely high temperature (100
million °C)
• Uses magnetic confinement (tokamaks) or
inertial confinement
Fusion vs Fission
• - Fusion: combining nuclei; cleaner and safer
• - Fission: splitting nuclei; produces radioactive
waste
• Fusion is inherently safer (no meltdown risk)
Current Projects
• - ITER (France): Largest international fusion
experiment
• - JET (UK): Recent record energy output
• - NIF (USA): Inertial confinement
breakthroughs
Key Engineering Challenges
• - Plasma containment and stability
• - High-energy materials
• - Cost and scalability
Environmental Impact
• - No CO₂ emissions
• - Low radiation
• - Safe fuel cycle
• Could significantly reduce global carbon
footprint
Future Outlook
• - Commercial fusion by 2050?
• - Growing private sector interest
• - Potential to revolutionize global energy
systems
Conclusion & Q&A
• Nuclear fusion offers clean, safe, and
abundant energy.
• Still under development but holds massive
potential.
• Questions?

Nuclear_Fusion_Presentation_power_point.pptx

  • 1.
    Nuclear Fusion: ASolution to the Energy Crisis? • Exploring the Future of Clean Energy • Your Name • Date
  • 2.
    What is NuclearFusion? • Fusion is the process of combining light atomic nuclei to form a heavier nucleus, releasing vast energy. • It powers the sun and stars.
  • 3.
    Why Nuclear Fusion? •- Almost limitless fuel (hydrogen isotopes) • - No greenhouse gas emissions • - Minimal long-lived radioactive waste
  • 4.
    How Does ItWork? • - Deuterium + Tritium → Helium + neutron + energy • Requires extremely high temperature (100 million °C) • Uses magnetic confinement (tokamaks) or inertial confinement
  • 5.
    Fusion vs Fission •- Fusion: combining nuclei; cleaner and safer • - Fission: splitting nuclei; produces radioactive waste • Fusion is inherently safer (no meltdown risk)
  • 6.
    Current Projects • -ITER (France): Largest international fusion experiment • - JET (UK): Recent record energy output • - NIF (USA): Inertial confinement breakthroughs
  • 7.
    Key Engineering Challenges •- Plasma containment and stability • - High-energy materials • - Cost and scalability
  • 8.
    Environmental Impact • -No CO₂ emissions • - Low radiation • - Safe fuel cycle • Could significantly reduce global carbon footprint
  • 9.
    Future Outlook • -Commercial fusion by 2050? • - Growing private sector interest • - Potential to revolutionize global energy systems
  • 10.
    Conclusion & Q&A •Nuclear fusion offers clean, safe, and abundant energy. • Still under development but holds massive potential. • Questions?