Nuclear Physics
Nuclear Physics
Nuclear Physics
what you'll learn
Lesson details
Units 1 & 2 (Nuclear Physics Foundations)
Focus on understanding the structure and properties of the atom, types of nuclear radiation, radioactive decay processes, nuclear reactions, and the applications and effects of nuclear physics in everyday life and technology.
Unit 1 (Atomic Structure and Radioactivity)
1.1 Atomic Structure and Isotopes
Basic Structure: protons, neutrons, electrons; atomic number and mass number
Isotopes: definition, notation, and applications in dating and medicine
Nuclear Stability: balance of forces, stable vs. unstable nuclei
1.2 Types of Nuclear Radiation
Alpha, Beta, Gamma Radiation: properties, penetration, and ionization abilities
Detection and Measurement: Geiger counters, cloud chambers, scintillation detectors
Interaction with Matter: ionization effects and shielding requirements
1.3 Radioactive Decay
Decay Processes: alpha decay, beta decay (β− and β+), gamma emission
Half-Life: concept, calculation, and graphs
Decay Equations and Nuclear Transmutation
1.4 Applications and Risks of Radioactivity
Medical Uses: radiotherapy, diagnostic imaging
Industrial Uses: radiography, carbon dating
Safety and Biological Effects: radiation dose, contamination, and protection
Unit 2 (Nuclear Reactions and Energy)
2.1 Nuclear Reactions
Fission: process, chain reactions, nuclear reactors
Fusion: conditions, energy release, stars as fusion reactors
Balancing Nuclear Equations
2.2 Energy from Nuclear Reactions
Mass-Energy Equivalence: E=mc² and mass defect
Binding Energy: concepts and graphs, energy per nucleon
Energy Release Calculations in Fission and Fusion
2.3 Applications of Nuclear Energy
Nuclear Power Plants: operation, advantages, and challenges
Radioisotopes in Industry and Medicine
Environmental and Ethical Considerations
2.4 Nuclear Physics in the Modern World
Particle Accelerators and Fundamental Particles
Nuclear Medicine Advances
Future Prospects in Fusion Energy
Units 1 & 2 (Nuclear Physics Foundations)
Focus on understanding the structure and properties of the atom, types of nuclear radiation, radioactive decay processes, nuclear reactions, and the applications and effects of nuclear physics in everyday life and technology.
Unit 1 (Atomic Structure and Radioactivity)
1.1 Atomic Structure and Isotopes
Basic Structure: protons, neutrons, electrons; atomic number and mass number
Isotopes: definition, notation, and applications in dating and medicine
Nuclear Stability: balance of forces, stable vs. unstable nuclei
1.2 Types of Nuclear Radiation
Alpha, Beta, Gamma Radiation: properties, penetration, and ionization abilities
Detection and Measurement: Geiger counters, cloud chambers, scintillation detectors
Interaction with Matter: ionization effects and shielding requirements
1.3 Radioactive Decay
Decay Processes: alpha decay, beta decay (β− and β+), gamma emission
Half-Life: concept, calculation, and graphs
Decay Equations and Nuclear Transmutation
1.4 Applications and Risks of Radioactivity
Medical Uses: radiotherapy, diagnostic imaging
Industrial Uses: radiography, carbon dating
Safety and Biological Effects: radiation dose, contamination, and protection
Unit 2 (Nuclear Reactions and Energy)
2.1 Nuclear Reactions
Fission: process, chain reactions, nuclear reactors
Fusion: conditions, energy release, stars as fusion reactors
Balancing Nuclear Equations
2.2 Energy from Nuclear Reactions
Mass-Energy Equivalence: E=mc² and mass defect
Binding Energy: concepts and graphs, energy per nucleon
Energy Release Calculations in Fission and Fusion
2.3 Applications of Nuclear Energy
Nuclear Power Plants: operation, advantages, and challenges
Radioisotopes in Industry and Medicine
Environmental and Ethical Considerations
2.4 Nuclear Physics in the Modern World
Particle Accelerators and Fundamental Particles
Nuclear Medicine Advances
Future Prospects in Fusion Energy
Units 1 & 2 (Nuclear Physics Foundations)
Focus on understanding the structure and properties of the atom, types of nuclear radiation, radioactive decay processes, nuclear reactions, and the applications and effects of nuclear physics in everyday life and technology.
Unit 1 (Atomic Structure and Radioactivity)
1.1 Atomic Structure and Isotopes
Basic Structure: protons, neutrons, electrons; atomic number and mass number
Isotopes: definition, notation, and applications in dating and medicine
Nuclear Stability: balance of forces, stable vs. unstable nuclei
1.2 Types of Nuclear Radiation
Alpha, Beta, Gamma Radiation: properties, penetration, and ionization abilities
Detection and Measurement: Geiger counters, cloud chambers, scintillation detectors
Interaction with Matter: ionization effects and shielding requirements
1.3 Radioactive Decay
Decay Processes: alpha decay, beta decay (β− and β+), gamma emission
Half-Life: concept, calculation, and graphs
Decay Equations and Nuclear Transmutation
1.4 Applications and Risks of Radioactivity
Medical Uses: radiotherapy, diagnostic imaging
Industrial Uses: radiography, carbon dating
Safety and Biological Effects: radiation dose, contamination, and protection
Unit 2 (Nuclear Reactions and Energy)
2.1 Nuclear Reactions
Fission: process, chain reactions, nuclear reactors
Fusion: conditions, energy release, stars as fusion reactors
Balancing Nuclear Equations
2.2 Energy from Nuclear Reactions
Mass-Energy Equivalence: E=mc² and mass defect
Binding Energy: concepts and graphs, energy per nucleon
Energy Release Calculations in Fission and Fusion
2.3 Applications of Nuclear Energy
Nuclear Power Plants: operation, advantages, and challenges
Radioisotopes in Industry and Medicine
Environmental and Ethical Considerations
2.4 Nuclear Physics in the Modern World
Particle Accelerators and Fundamental Particles
Nuclear Medicine Advances
Future Prospects in Fusion Energy
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