Implement reference-backed nuclear physics calculations in INITE with documented constants.
npx skills add https://github.com/Sanssin/Inite --skill nuclear-physics
Please help me install this Agent Skill. Skill: nuclear-physics Source: https://github.com/Sanssin/Inite/tree/main/docs/skills/nuclear-physics Command: npx skills add https://github.com/Sanssin/Inite --skill nuclear-physics
This skill provides a reference-backed framework to implement and validate nuclear physics calculations within INITE, ensuring formulas, constants, and sources are consistently applied across backend and frontend.
Use this skill to implement a new nuclear physics calculation in INITE by adding properly named constants, references, and documentation.
High-intent search queries and answers about installing and using this skill.
You implement nuclear physics calculations by using explicitly named constants, adding inline literature citations in code comments, and logging all formulas in a dedicated calculation log to maintain source traceability across backend and frontend components.
The best way to structure shielding and decay calculations is to enforce standardized, literature-backed formulas across both backend api/main.py and frontend simulations, ensuring consistent application of constants and sources throughout the INITE framework.
The framework ensures traceability for radiation dose and interaction calculations by requiring unit annotations, explicit named constants, and documentation of all applied formulas and sources in a dedicated calculation log file.
Yes, you can use this framework to integrate a new isotope decay model in api/main.py by following the guidelines for adding properly named constants, inline references, and updating the dedicated calculation documentation.
Yes, you need to document unit annotations and use explicitly named constants when extending frontend shielding calculations to maintain consistency and traceability to literature sources within the INITE simulation.
A reference-backed framework prevents inconsistent formula application by enforcing explicit constants, literature citations, and standardized documentation, ensuring that dose, shielding, decay, and interaction calculations remain accurate and verifiable.
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