The deflection of charged particles, like alpha particles, as they pass through a field containing other particles, depends on a combination of factors, such as the energy of the alpha particles, the mass of the particles in the field, and the type of interaction between the alpha particles and the particles in the field. Alpha particles are helium nuclei, consisting of two protons and two neutrons, and are positively charged.
Let's analyze the given options:
1. **High-energy alpha particles passing through a field of high mass-number particles**: High-energy alpha particles will have more momentum and therefore be less influenced by interactions with other particles. In addition, high mass-number particles will be less readily deflected themselves and will offer a strong opposition to the path of the alpha particles. As a result, the deflection of the alpha particles will be smaller.
2. **Low-energy alpha particles passing through a field of high mass-number particles**: Low-energy alpha particles will be more easily deflected than high-energy ones because they have less momentum. However, high mass-number particles, due to their larger mass, can absorb more momentum without being deflected significantly. This configuration will lead to greater deflection of the alpha particles than in the first case.
3. **High-energy alpha particles passing through a field of low mass-number particles**: Although the alpha particles are high-energy, low mass-number particles are more easily displaced and might not offer significant resistance to the moving alpha particles. The deflection here would still be smaller because of the high momentum of the alpha particles.
4. **Low-energy alpha particles passing through a field of low mass-number particles**: Here, the alpha particles have low energy, meaning they have less momentum and can be more easily deflected. Simultaneously, the low mass-number particles in the field will be more responsive to the interactions due to their lighter mass and will be able to affect the path of the alpha particles more significantly. This scenario is likely to result in the largest deflection of the alpha particles, given the lower energy of the alpha particles and the lower mass of the field particles.
Therefore, the configuration that will result in the largest deflection of alpha particles is:
**Low-energy alpha particles passing through a field of low mass-number particles.**
You plan to pass alpha particles through a field that contains a consistent type of particle. Which configuration will result in the largest deflection of alpha particles? (1 point)
Responses
high-energy alpha particles passing through a field of high mass-number-particles
low-energy alpha particles passing through a field of high mass-number-particles
high-energy alpha particles passing through a field of low mass-number-particles
low-energy alpha particles passing through a field of low mass-number-particles
3 answers
what is the correct answer
The correct answer, based on the details provided, is:
**Low-energy alpha particles passing through a field of high mass-number particles.**
Here is the rationale:
- **Energy of alpha particles**: Low-energy alpha particles will be more easily deflected than high-energy ones because they have less momentum.
- **Mass of field particles**: High mass-number particles will interact more significantly with the passing alpha particles due to their larger mass, which can exert a greater force on the alpha particles while their own paths are relatively unaffected. This makes them effectively a 'heavier target' for the alpha particles to scatter from.
Altogether, since we are looking for the configuration that results in the largest deflection of the alpha particles, the combination of the alpha particles being low-energy (thus having less momentum and being more easily deflected) and the field particles being of high mass (providing a strong interaction point) is the scenario that maximizes the chance of a significant deflection.
**Low-energy alpha particles passing through a field of high mass-number particles.**
Here is the rationale:
- **Energy of alpha particles**: Low-energy alpha particles will be more easily deflected than high-energy ones because they have less momentum.
- **Mass of field particles**: High mass-number particles will interact more significantly with the passing alpha particles due to their larger mass, which can exert a greater force on the alpha particles while their own paths are relatively unaffected. This makes them effectively a 'heavier target' for the alpha particles to scatter from.
Altogether, since we are looking for the configuration that results in the largest deflection of the alpha particles, the combination of the alpha particles being low-energy (thus having less momentum and being more easily deflected) and the field particles being of high mass (providing a strong interaction point) is the scenario that maximizes the chance of a significant deflection.