Imported from ayjays132/NeuroFluxLIVE (AGENTS.md). Install upstream with npx skills add ayjays132/NeuroFluxLIVE. Copyright stays with the author.

AGENTS Guidelines for SelfResearch

This repository contains a prototype pipeline for training and experimenting with HuggingFace transformer models using PyTorch. CUDA acceleration is supported when available. GPT-2 medium acts as the default example but any model from the HuggingFace Hub should run with minimal configuration.

Objectives

• Build a clean, modular training pipeline leveraging the transformers and datasets libraries.
• Support GPU acceleration with CUDA via PyTorch while allowing CPU execution for environments without a GPU.
• Encourage exploration and fine-tuning of different models. The system should enable agents to try new prompts, training schedules and architectures in search of novel insights.
• Provide utilities for experiment tracking, evaluation and dataset management so work is reproducible.
• Integrate virtual research tools for topic selection, source evaluation, simulation, grading and ethics management to support online research workflows.

Coding Conventions

• Use Python 3.10+ with type hints.
• Follow PEP 8 style guidelines and add explanatory comments for complex logic.
• Organize code into clear modules: data/ for dataset loading and tokenization, models/ for model wrappers, train/ for training loops and eval/ for evaluation scripts.
• When possible, provide small runnable examples or unit tests using pytest.

Workflow Guidelines

1. Environment Setup
   • Depend on torch, transformers, and datasets; keep requirements.txt updated.
   • Detect CUDA with torch.cuda.is_available() and select the appropriate device.
2. Dataset Preparation
   • Tokenize datasets with the chosen model tokenizer (e.g., GPT‑2) using efficient batching and padding.
   • Allow loading local files or datasets from the HuggingFace Hub.
3. Training Loop
   • Implement a standard loop with gradient accumulation, periodic validation and checkpoint saving.
   • Support learning rate schedules and optional mixed precision training.
4. Evaluation and Research
   • Provide metrics such as perplexity and enable easy extension to custom metrics.
   • Encourage experimentation with prompts and datasets so the agent can generate new hypotheses and discoveries.
   • Use the simulation and digital literacy modules to run virtual experiments and validate information sources.
5. Documentation
   • Maintain clear README files explaining how to run training, load different models and extend the pipeline.

Platform Agents

• Topic Selector (research_workflow/topic_selector.py) – suggests and validates research topics with a language model.
• Source Evaluation (digital_literacy/source_evaluator.py) – assesses credibility, bias and relevance of references and queries academic APIs.
• Experiment Simulation (simulation_lab/experiment_simulator.py) – provides physics and biological simulations and generates synthetic data using PyTorch.
• Rubric Grading (assessment/rubric_grader.py) – grades research submissions based on predefined rubrics and gives constructive feedback.
• Authentication and Ethics (security/auth_and_ethics.py) – manages user authentication, role permissions and ethical flag reviews.

These components combine to create a virtual research environment where models can be trained, evaluated and applied to novel research tasks.

Notes for Codex Agents

• Respect the modular project structure when adding or modifying files.
• Keep code and documentation concise but thorough.
• Update requirements.txt if new dependencies are introduced.
• If tests are provided, run pytest before committing and note failures in the PR message.