Mr. Anderson explains the conservation of charge in nuclear reactions, focusing on fission, alpha decay, beta minus decay, and beta plus decay. He illustrates how charge and mass are conserved in these processes, using examples like uranium 235 fission, alpha decay of uranium 238, and beta decay of carbon-14 and magnesium 23. The video emphasizes the importance of understanding charge conservation in nuclear reactions, distinct from chemical reactions where electrons play a key role.

What is the charge of a neutron in nuclear reactions?

• 1

• 0

• -1

• 92

In nuclear reactions, which particles are primarily involved?

• Electrons

• Protons and neutrons

• Photons

• Ions

What is emitted during alpha decay?

• A neutron

• A proton

• An alpha particle

• A beta particle

What is the resulting element when uranium 238 undergoes alpha decay?

• Uranium 235

• Barium 141

• Krypton 92

• Thorium 234

In beta minus decay, what particle is emitted alongside an electron?

• Positron

• Electron antineutrino

• Neutron

• Proton

What happens to a neutron during beta minus decay?

• It becomes a proton

• It becomes an electron

• It becomes a positron

• It remains unchanged

In beta plus decay, what is produced along with a positron?

• Proton

• Neutron

• Electron antineutrino

• Electron neutrino