Difficulty: Easy
Correct Answer: Producing high neutron flux (≈10^12–10^13 neutrons/cm^2·s) for experiments and irradiation studies
Explanation:
Introduction:
Research reactors are specialized facilities optimized for intense neutron fields rather than power production. They underpin materials testing, neutron activation analysis, isotope production, and fundamental neutron science.
Given Data / Assumptions:
Concept / Approach:
The design focus is neutron economy and accessibility (beam tubes, irradiation facilities) rather than thermodynamic conversion to electricity. While isotope production can be a major mission, the defining characteristic is providing controlled, high neutron flux for experiments and material exposure.
Step-by-Step Solution:
Identify mission: high neutron flux for studies and irradiations.Flux magnitude aligns with typical research reactor capabilities.Therefore, option (a) matches the core purpose.
Verification / Alternative check:
Descriptions of well-known research reactors (e.g., TRIGA, MURR, HFIR) emphasize neutron flux and experimental facilities over electric power generation.
Why Other Options Are Wrong:
Common Pitfalls:
Assuming “reactor” always implies electricity generation. Research reactors are optimized differently, prioritizing neutron availability and experimental access.
Final Answer:
Producing high neutron flux (≈10^12–10^13 neutrons/cm^2·s) for experiments and irradiation studies
Discussion & Comments