Showing posts with label Fusion. Show all posts
Showing posts with label Fusion. Show all posts

Monday, 25 May 2026

Week 6 Term 2 2026 Nuclear Reactions

 Homework

Models of the Atom & Radioactivity

  • Act 15A, p.173-176 Models of the Atom and Radioactivity
  • Ex 5A, p. 151-155 Models of the Atom
  • Ex 5B, p.160-171 Radioactivity

Nuclaer Reactions
  • Act 16A, p. 181, Nuclear Reactions
  • Ex 5C, p.175-182 Nuclear Reactions

Nuclear Reactions:
  • Conservation of Atomic Number
  • Conservation of Nucleon Number
  • Conservation of Mass-Energy E = Δmc2

E = Δmc2




Nuclear Fusion in the Sun

Binding Energy comes from the change in mass from individual nucleons to being combined into a nucleus. This is energy lost by the nucleons joined together in a nucleus and must be returned in order to separate the nucleons
E = Δmc2

Element formation in Stars Nuclear Fusion



Binding Energy Per Nucleon

Mass Per Nucleon




Nuclear Reactions

Fission Fusion and Radioactive Decay

Fission & Fusion

Natural Nuclear Fission Reactor

Tuesday, 10 June 2025

Week 7 Term 2 2025 Nuclear Reactions

Homework

Models of the Atom & Radioactivity

  • Act 15A, p.173-176 Models of the Atom and Radioactivity
  • Ex 5A, p. 151-155 Models of the Atom
  • Ex 5B, p.160-171 Radioactivity

Nuclaer Reactions
  • Act 16A, p. 181, Nuclear Reactions
  • Ex 5C, p.175-182 Nuclear Reactions

Nuclear Reactions:
  • Conservation of Atomic Number
  • Conservation of Nucleon Number
  • Conservation of Mass-Energy E = Δmc2

E = Δmc2




Nuclear Fusion in the Sun

Binding Energy comes from the change in mass from individual nucleons to being combined into a nucleus. This is energy lost by the nucleons joined together in a nucleus and must be returned in order to separate the nucleons
E = Δmc2

Element formation in Stars Nuclear Fusion



Binding Energy Per Nucleon

Mass Per Nucleon




Nuclear Reactions

Fission Fusion and Radioactive Decay

Fission & Fusion

Natural Nuclear Fission Reactor

Monday, 29 May 2023

Week 6 Term 2 2023

  Homework

  • Act 15A, p.173-176 Models of the Atom and Radioactivity
  • Ex 5A, p. 151-155 Models of the Atom
  • Act 16A, p. 181, Nuclear Reactions
  • Ex 5B, p.160-171 Radioactivity

Nuclear Reactions:
  • Conservation of Atomic Number
  • Conservation of Nucleon Number
  • Conservation of Mass-Energy E = Δmc2

E = Δmc2




Nuclear Fusion in the Sun

Binding Energy comes from the change in mass from individual nucleons to being combined into a nucleus. This is energy lost by the nucleons joined together in a nucleus and must be returned in order to separate the nucleons
E = Δmc2

Element formation in Stars Nuclear Fusion



Binding Energy Per Nucleon

Mass Per Nucleon


Nuclear Reactions

Fission Fusion and Radioactive Decay

Fission & Fusion

Natural Nuclear Fission Reactor

Thursday, 25 June 2020

Term 2 Week 11 2020

Homework

  • Ex 5A, p. 151-155, Models of the Atom
  • Ex 5B, p. 160-171, Radioactivity
  • Ex 5C, p. 175-182, Nuclear Reactions

Nuclear Reactions:
  • Conservation of Atomic Number
  • Conservation of Nucleon Number
  • Conservation of Mass-Energy E = Δmc2

E = Δmc2




Nuclear Fusion in the Sun

Binding Energy comes from the change in mass from individual nucleons to being combined into a nucleus. This is energy lost by the nucleons joined together in a nucleus and must be returned in order to separate the nucleons
E = Δmc2

Element formation in Stars Nuclear Fusion



Binding Energy Per Nucleon

Mass Per Nucleon


Nuclear Reactions

Fission Fusion and Radioactive Decay

Fission & Fusion

Natural Nuclear Fission Reactor

Monday, 11 June 2018

Term 2 Week 7 2018

Homework
  • Ex 5A, p. 151-155, Models of the Atom
  • Ex 5B, p. 160-171, Radioactivity
  • Ex 5C, p. 175-182, Nuclear Reactions

Nuclear Reactions:
  • Conservation of Atomic Number
  • Conservation of Nucleon Number
  • Conservation of Mass-Energy E = Δmc2

E = Δmc2




Nuclear Fusion in the Sun

Binding Energy comes from the change in mass from individual nucleons to being combined into a nucleus. This is energy lost by the nucleons joined together in a nucleus and must be returned in order to separate the nucleons
E = Δmc2


Mass Energy Equivalence

Nuclear Reactions

Fission Fusion and Radioactive Decay

Fission & Fusion

Wednesday, 14 June 2017

Term 2 Week 6 2017

Homework
  • Ex 5A, p. 151-155, Models of the Atom
  • Ex 5B, p. 160-171, Radioactivity
  • Ex 5C, p. 175-182, Nuclear Reactions
Chem/Phy Canterbury Field Trip this Thursday-Friday

Nuclear Reactions:
  • Conservation of Atomic Number
  • Conservation of Nucleon Number
  • Conservation of Mass-Energy E = Δmc2

E = Δmc2




Nuclear Fusion in the Sun

Binding Energy comes from the change in mass from individual nucleons to being combined into a nucleus. This is energy lost by the nucleons joined together in a nucleus and must be returned in order to separate the nucleons
E = Δmc2


Mass Energy Equivalence

Nuclear Reactions

Fission Fusion and Radioactive Decay

Fission & Fusion

Thursday, 9 June 2016

Term 2 Week 6 2016

Homework,

  • Ex 5B Radioactive Decay and Half Life - This should be complete by now
  • Ex 5C Nuclear Reactions and Nuclear Energy Calculations - due next week
Nuclear Fusion in the Sun

Binding Energy comes from the change in mass from individual nucleons to being combined into a nucleus. This is energy lost by the nucleons joined together in a nucleus and must be returned in order to separate the nucleons
E = Δmc2

Mass Energy Equivalence

Nuclear Reactions

Fission Fusion and Radioactive Decay

Fission & Fusion