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pipeline.py β Main RAG orchestrator
Ties together:
1. Retriever β get top-k NCERT chunks from Supabase
2. PromptBuilder β construct grounded LLM prompts
3. Generator β call Groq to answer / justify / verify
4. Confidence β produce a single confidence score
Usage:
from rag.pipeline import run_pipeline
result = run_pipeline("Which organelle is the powerhouse of the cell?")
print(result)
"""
from rag.retriever import retrieve_chunks
from rag.prompt_builder import (
build_answer_prompt,
build_justification_prompt,
build_verifier_prompt,
)
from rag.generator import generate_answer, generate_justification, verify_answer_llm
from rag.confidence import compute_confidence
from Classification.classify_and_extract import classify_question
def run_pipeline(
question: str,
chapter_filter: str = None,
top_k: int = 5,
use_classifier: bool = False,
) -> dict:
"""
End-to-end RAG pipeline for a NEET Biology question.
Args:
question : The student's question string.
chapter_filter : Optional chapter name to restrict retrieval scope.
Auto-populated by BERT classifier if use_classifier=True.
top_k : Number of NCERT chunks to retrieve.
use_classifier : If True, auto-classify question to get chapter + topics.
Returns a structured dict:
{
"question" : str,
"classification" : {chapter, chapter_id, chapter_confidence, topics},
"answer" : str,
"justification" : list[str],
"sources" : list[{chapter, section, section_title, text_content, similarity}],
"confidence" : float,
"verified" : bool,
"verifier_note" : str,
}
"""
# ββ Step 0: BERT Classification + Topic Extraction ββββββββββββββββββββββ
classification = None
if use_classifier:
print("[Pipeline] Step 0: BERT classification + topic extraction...")
classification = classify_question(question)
predicted_chapter = classification["chapter"]
print(f"[Pipeline] Predicted chapter: {predicted_chapter} (Not used as filter)")
# ββ Confidence gate: reject if BERT is too uncertain or OOD ββ
if classification.get("rejected") or classification["chapter_confidence"] < 0.45:
reject_reason = classification.get("rejection_reason") or f"BERT confidence ({classification['chapter_confidence']:.2%}) is below the 45% threshold."
print(f"[Pipeline] β οΈ Classifier Rejected β {reject_reason}")
return {
"question" : question,
"classification" : classification,
"answer" : "This question does not appear to be related to NEET Biology.",
"justification" : [],
"sources" : [],
"confidence" : 0.0,
"verified" : False,
"verifier_note" : reject_reason,
"rejected" : True,
}
# ββ Step 1: Retrieve relevant NCERT chunks ββββββββββββββββββββββββββββββ
print("[Pipeline] Step 1: Retrieving NCERT chunks (Global DB Search)...")
chunks = retrieve_chunks(question, chapter_filter=None, top_k=top_k)
if not chunks:
return {
"question" : question,
"classification" : classification,
"answer" : "Insufficient context: no relevant NCERT passages found.",
"justification" : [],
"sources" : [],
"confidence" : 0.0,
"verified" : False,
"verifier_note" : "No chunks retrieved β cannot verify.",
}
# Extract top chapter/section for prompt context
top_chunk = chunks[0]
top_chapter = top_chunk.get("chapter", "Unknown Chapter")
top_section = top_chunk.get("section_title", "Unknown Topic")
# ββ Step 3: Generate answer + justification in a single Groq call ββββββ
print("[Pipeline] Step 3: Generating answer + justification via Groq...")
answer_msgs = build_answer_prompt(question, top_chapter, top_section, chunks)
# Append instruction to also include justification in the same response
answer_msgs[-1]["content"] += (
"\n\nAfter the answer, on a new line write '---JUSTIFICATION---' "
"and then provide a numbered step-by-step biological justification "
"for why the answer is correct, citing only the NCERT context above."
)
raw_response = generate_answer(answer_msgs)
# Parse answer and justification apart
if "---JUSTIFICATION---" in raw_response:
parts = raw_response.split("---JUSTIFICATION---", 1)
answer = parts[0].strip()
just_raw = parts[1].strip()
else:
answer = raw_response.strip()
just_raw = ""
# Parse justification into numbered steps
if just_raw:
lines = just_raw.strip().split("\n")
justification = [l.strip() for l in lines if l.strip() and (
l.strip()[0].isdigit() or l.strip().lower().startswith("step")
)]
if not justification:
justification = [l.strip() for l in lines if l.strip()]
else:
justification = []
# ββ Step 5: Verify answer (LLM Judge) βββββββββββββββββββββββββββββββββββ
print("[Pipeline] Step 5: Verifying answer via LLM Judge...")
verif_msgs = build_verifier_prompt(question, answer, chunks)
verif_result = verify_answer_llm(verif_msgs)
verified = verif_result["verified"]
verifier_note = verif_result["explanation"]
# ββ Step 6: Compute confidence ββββββββββββββββββββββββββββββββββββββββββ
retrieval_scores = [c.get("similarity", 0.0) for c in chunks]
confidence = compute_confidence(retrieval_scores, verified)
# ββ Step 7: Build sources list (no raw embeddings) βββββββββββββββββββββ
sources = [
{
"chapter" : c.get("chapter"),
"section" : c.get("section"),
"section_title": c.get("section_title"),
"text_content" : c.get("text_content"),
"similarity" : round(c.get("similarity", 0.0), 4),
}
for c in chunks
]
return {
"question" : question,
"classification" : classification,
"answer" : answer,
"justification" : justification,
"sources" : sources,
"confidence" : confidence,
"verified" : verified,
"verifier_note" : verifier_note,
}
if __name__ == "__main__":
import json, sys
# ββ Chapters currently in your Supabase DB ββββββββββββββββββββββββββββββ
# Kebo101 β The Living World
# Kebo109 β Biomolecules
TEST_QUESTIONS = [
"What is the role of cofactors in enzyme activity?", # Biomolecules
"What are primary and secondary metabolites in living organisms?", # Biomolecules
"How does carbonic anhydrase speed up chemical reactions?", # Biomolecules
"What is the difference between metabolism, anabolism and catabolism?", # Biomolecules
"What is binomial nomenclature and who proposed it?", # The Living World
]
question = TEST_QUESTIONS[0] # β change index (0-4) to test different questions
debug = "--debug" in sys.argv # run with: python -m rag.pipeline --debug
print(f"\n{'='*60}")
print(f"QUESTION: {question}")
print(f"{'='*60}\n")
result = run_pipeline(question)
if debug:
# Show full retrieved context so you can verify what the LLM saw
print("\nββ RETRIEVED CONTEXT ββββββββββββββββββββββββββββββββββββββ")
for i, src in enumerate(result["sources"], 1):
print(f"\n[{i}] ({src['similarity']:.3f}) {src['chapter']} > {src['section_title']}")
print(f" {src['text_content'][:300]}...")
print()
print("ββ ANSWER βββββββββββββββββββββββββββββββββββββββββββββββββ")
print(result["answer"])
print("\nββ JUSTIFICATION ββββββββββββββββββββββββββββββββββββββββββ")
for step in result["justification"]:
print(f" {step}")
print(f"\nββ CONFIDENCE: {result['confidence']} | VERIFIED: {result['verified']} ββ")
if result.get("verifier_note"):
print(f" Verifier note: {result['verifier_note']}")
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