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gene
stringlengths
3
7
gene_id
int64
135
255k
clinical_significance
stringclasses
5 values
review_status
stringclasses
3 values
variant_type
stringclasses
1 value
consequence
stringclasses
3 values
protein_change
stringclasses
8 values
allele_freq_gnomad
float64
0.07
0.68
rsid
stringlengths
6
9
genotype
stringclasses
8 values
chromosome
int64
1
22
position
int64
8.8M
113M
zygosity
stringclasses
2 values
conditions
stringlengths
4
46
pubmed_ids
float64
1.3M
20.7M
βŒ€
MTHFR
4,524
Pathogenic/Likely pathogenic
criteria provided multiple submitters
SNV
missense
p.Ala222Val
0.337
rs1801133
GG
1
11,856,378
homozygous
Homocystinuria
9,042,909
MTHFR
4,524
Pathogenic/Likely pathogenic
criteria provided multiple submitters
SNV
missense
p.Ala222Val
0.337
rs1801133
GG
1
11,856,378
homozygous
Neural tube defects
10,215,325
MTHFR
4,524
Pathogenic/Likely pathogenic
criteria provided multiple submitters
SNV
missense
p.Ala222Val
0.337
rs1801133
GG
1
11,856,378
homozygous
Methylenetetrahydrofolate reductase deficiency
15,565,111
OXTR
5,021
Benign
criteria provided single submitter
SNV
intron_variant
null
0.378
rs53576
AG
3
8,804,371
heterozygous
Social behavior
19,934,046
OXTR
5,021
Benign
criteria provided single submitter
SNV
intron_variant
null
0.378
rs53576
AG
3
8,804,371
heterozygous
Autism spectrum disorder
20,724,662
PPARG
5,468
Benign
criteria provided single submitter
SNV
missense
p.Pro12Ala
0.122
rs1801282
CG
3
12,393,125
heterozygous
Type 2 diabetes
9,333,238
PPARG
5,468
Benign
criteria provided single submitter
SNV
missense
p.Pro12Ala
0.122
rs1801282
CG
3
12,393,125
heterozygous
Obesity
10,581,039
PPARG
5,468
Benign
criteria provided single submitter
SNV
missense
p.Pro12Ala
0.122
rs1801282
CG
3
12,393,125
heterozygous
Metabolic syndrome
null
HFE
3,077
Benign
reviewed by expert panel
SNV
missense
p.His63Asp
0.136
rs1799945
CC
6
26,091,179
homozygous
Hereditary hemochromatosis
9,110,990
HFE
3,077
Benign
reviewed by expert panel
SNV
missense
p.His63Asp
0.136
rs1799945
CC
6
26,091,179
homozygous
Iron overload
null
BDNF
627
Benign/Likely benign
criteria provided multiple submitters
SNV
missense
p.Val66Met
0.196
rs6265
CC
11
27,679,916
homozygous
Major depressive disorder
11,174,898
BDNF
627
Benign/Likely benign
criteria provided multiple submitters
SNV
missense
p.Val66Met
0.196
rs6265
CC
11
27,679,916
homozygous
Episodic memory
14,671,180
BDNF
627
Benign/Likely benign
criteria provided multiple submitters
SNV
missense
p.Val66Met
0.196
rs6265
CC
11
27,679,916
homozygous
Bipolar disorder susceptibility
null
ANKK1
255,239
risk factor
criteria provided single submitter
SNV
missense
p.Glu713Lys
0.192
rs1800497
GG
11
113,270,828
homozygous
Alcohol dependence
1,301,956
ANKK1
255,239
risk factor
criteria provided single submitter
SNV
missense
p.Glu713Lys
0.192
rs1800497
GG
11
113,270,828
homozygous
ADHD
11,349,230
ANKK1
255,239
risk factor
criteria provided single submitter
SNV
missense
p.Glu713Lys
0.192
rs1800497
GG
11
113,270,828
homozygous
Reward deficiency syndrome
null
CYP1A2
1,544
drug response
criteria provided single submitter
SNV
intron_variant
null
0.681
rs762551
AC
15
75,041,917
heterozygous
Caffeine metabolism
10,022,961
CYP1A2
1,544
drug response
criteria provided single submitter
SNV
intron_variant
null
0.681
rs762551
AC
15
75,041,917
heterozygous
Drug metabolism β€” clozapine
15,364,890
CYP1A2
1,544
drug response
criteria provided single submitter
SNV
intron_variant
null
0.681
rs762551
AC
15
75,041,917
heterozygous
PharmGKB β€” caffeine
null
FTO
79,068
risk factor
criteria provided multiple submitters
SNV
intron_variant
null
0.404
rs9939609
AT
16
53,820,527
heterozygous
Obesity
17,293,877
FTO
79,068
risk factor
criteria provided multiple submitters
SNV
intron_variant
null
0.404
rs9939609
AT
16
53,820,527
heterozygous
Type 2 diabetes
17,468,765
FTO
79,068
risk factor
criteria provided multiple submitters
SNV
intron_variant
null
0.404
rs9939609
AT
16
53,820,527
heterozygous
Body mass index quantitative trait locus 8
null
APOE
348
risk factor
reviewed by expert panel
SNV
missense
p.Cys130Arg
0.154
rs429358
TT
19
45,411,941
homozygous
Alzheimer disease
8,446,170
APOE
348
risk factor
reviewed by expert panel
SNV
missense
p.Cys130Arg
0.154
rs429358
TT
19
45,411,941
homozygous
Cardiovascular disease
1,303,239
APOE
348
risk factor
reviewed by expert panel
SNV
missense
p.Cys130Arg
0.154
rs429358
TT
19
45,411,941
homozygous
Hyperlipoproteinemia type III
null
APOE
348
risk factor
reviewed by expert panel
SNV
missense
p.Arg176Cys
0.073
rs7412
CC
19
45,412,079
homozygous
Alzheimer disease
8,446,170
APOE
348
risk factor
reviewed by expert panel
SNV
missense
p.Arg176Cys
0.073
rs7412
CC
19
45,412,079
homozygous
Cardiovascular disease
1,303,239
COMT
1,312
Benign/Likely benign
criteria provided single submitter
SNV
missense
p.Val158Met
0.502
rs4680
GG
22
19,951,271
homozygous
Pain sensitivity
9,632,102
COMT
1,312
Benign/Likely benign
criteria provided single submitter
SNV
missense
p.Val158Met
0.502
rs4680
GG
22
19,951,271
homozygous
Schizophrenia susceptibility
12,142,688
COMT
1,312
Benign/Likely benign
criteria provided single submitter
SNV
missense
p.Val158Met
0.502
rs4680
GG
22
19,951,271
homozygous
Catechol-O-methyltransferase deficiency
null
ADORA2A
135
Benign
criteria provided single submitter
SNV
synonymous_variant
null
0.463
rs5751876
CT
22
24,837,301
heterozygous
Caffeine-induced anxiety
17,074,977
ADORA2A
135
Benign
criteria provided single submitter
SNV
synonymous_variant
null
0.463
rs5751876
CT
22
24,837,301
heterozygous
Sleep sensitivity to caffeine
null

part of

🧬 Genomic Reasoning Agent

LLM-driven agentic system for personal genomic variant interpretation

HuggingFace Dataset Model License: MIT


Overview

This project builds a multi-step reasoning agent that interprets personal genomic data from 23andMe against biomedical knowledge databases (ClinVar, GWAS Catalog, gnomAD). The agent is trained with GRPO (Group Relative Policy Optimization) using fully verifiable reward signals β€” no human labelers needed.

The core insight mirrors DeepSeek-R1's approach to mathematics: genomic variant interpretation has verifiable ground truth (ClinVar classifications, GWAS p-values, population frequencies), making it ideal for RL-based reasoning training.

23andMe SNPs (631K)
        ↓
  ClinVar Annotation          ← rs1801133 β†’ MTHFR β†’ Pathogenic
        ↓
 Tool-Using LLM Agent         ← 5 tools: lookup / scan / haplotype / stats / reward
        ↓
   GRPO Training Loop         ← verifiable reward from ClinVar ground truth
        ↓
  Reasoning Model             ← factual Β· calibrated Β· evidence-grounded
        ↓
   HF Spaces Demo             ← upload 23andMe β†’ ask questions β†’ reasoning trace

Motivation

Standard LLMs hallucinate on genomic questions. This project trains a model that:

  • Cites sources (ClinVar review status, GWAS p-values, PubMed IDs)
  • Shows reasoning chains (mechanism β†’ evidence β†’ conclusion)
  • Calibrates uncertainty (risk factor β‰  diagnosis)
  • Uses tools to look up live databases rather than relying on memorised weights

The training signal is 100% verifiable β€” reward is computed by checking responses against ClinVar annotations, not scored by humans.


Repository Structure

genomic-reasoning-agent/
β”œβ”€β”€ genomic_pipeline.py              # Step 1: Parse 23andMe .txt β†’ DataFrame
β”œβ”€β”€ clinvar_pipeline_full.py         # Step 2: Annotate variants via ClinVar API
β”œβ”€β”€ genomic_agent_huggingface.py     # Step 3: smolagents tool-using agent (5 tools)
β”œβ”€β”€ train_grpo.py                    # Step 4: GRPO training with TRL
β”œβ”€β”€ app.py                           # HF Spaces Gradio UI
β”œβ”€β”€ data/
β”‚   β”œβ”€β”€ clinvar_annotations.json     # 12 variants with full ClinVar metadata
β”‚   └── genomic_qa_dataset.json      # 36 Q&A pairs (3 task types Γ— 12 variants)
└── README.md

Pipeline: Step by Step

Step 1 β€” Parse 23andMe

Reads the raw .txt export (Build GRCh37) into a DataFrame of 631,455 SNPs.

from genomic_pipeline import parse_23andme
df = parse_23andme("genome_23andme.txt")
# β†’ 631,455 SNPs across chromosomes 1–22, X, Y, MT
# β†’ 104,617 heterozygous (16.6%) | 522,909 homozygous (82.8%)

Step 2 β€” ClinVar Annotation

Queries NCBI E-utilities and GWAS Catalog for each rsID. Builds a Q&A dataset with verifiable answers.

from clinvar_pipeline_full import query_clinvar_batch, build_qa_dataset
annotations = query_clinvar_batch(rsids, email="your@email.com")
qa_dataset  = build_qa_dataset(annotations, genome_df)
# β†’ 12 variants annotated
# β†’ 36 Q&A pairs: variant_interpretation / genotype_interpretation / pathway_reasoning

Sample annotation:

rsID Gene Genotype Significance Condition
rs1801133 MTHFR GG Pathogenic/Likely pathogenic Homocystinuria
rs429358 + rs7412 APOE TT / CC risk factor Alzheimer disease
rs9939609 FTO AT risk factor Obesity
rs762551 CYP1A2 AC drug response Caffeine metabolism

Step 3 β€” Tool-Using Agent (smolagents)

A ToolCallingAgent with 5 tools that plans multi-step queries across databases.

from smolagents import ToolCallingAgent, InferenceClientModel
from genomic_agent_huggingface import (
    VariantLookupTool,    # rsID β†’ ClinVar + genotype
    GeneScannerTool,      # gene/trait β†’ all patient variants
    HaplotypeCallerTool,  # APOE Ξ΅2/Ξ΅3/Ξ΅4 from two SNPs
    GenomeStatsTool,      # 631K SNPs overview
    RewardEvaluatorTool,  # GRPO reward score (used during training)
)
model = InferenceClientModel("meta-llama/Llama-3.1-8B-Instruct")
agent = ToolCallingAgent(tools=[...], model=model, max_steps=10)
answer = agent.run("What is my APOE haplotype and what does it mean?")

6-step reasoning trace for "Give me a genomic health summary":

Step 1 [genome_stats]       β†’ 631,455 SNPs | 16.6% heterozygous
Step 2 [variant_lookup]     β†’ rs1801133 | MTHFR | GG | Pathogenic
Step 3 [call_haplotype]     β†’ APOE Ξ΅3/Ξ΅3 | Neutral Alzheimer's risk
Step 4 [scan_gene_variants] β†’ dopamine: ANKK1 GG (risk), COMT GG (Val/Val)
Step 5 [scan_gene_variants] β†’ caffeine: CYP1A2 AC (intermediate), ADORA2A CT
Step 6 [evaluate_reasoning] β†’ reward: 0.93 / 1.00 (excellent)

Step 4 β€” GRPO Training

Trains the base LLM to reason better about genomic questions using reinforcement learning with verifiable rewards β€” no human annotation required.

from train_grpo import train, TrainingConfig
config = TrainingConfig(
    model_name="meta-llama/Llama-3.1-8B-Instruct",
    num_epochs=3,
    num_generations=4,        # G: completions per question
    beta=0.04,                # KL penalty
    use_lora=True,
)
trainer = train(config)

Reward function β€” 6 verifiable components:

Component Weight Verifiable against
Factual accuracy 0.35 ClinVar clinical significance
Condition coverage 0.25 ClinVar associated conditions
Gene mention 0.15 ClinVar gene annotation
Reasoning chain 0.15 Presence of causal language
Uncertainty calibration 0.05 Hedging language
Response completeness 0.05 Word count

Training progression (simulated):

untrained  reward=0.06  |β–ˆβ–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘|
epoch_1    reward=0.56  |β–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘|
epoch_3    reward=0.71  |β–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘β–‘|
epoch_5    reward=0.93  |β–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–‘β–‘β–‘|
epoch_10   reward=1.00  |β–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆβ–ˆ|

GRPO advantage formula:

advantage_i = (reward_i βˆ’ mean(rewards)) / std(rewards)
No critic network. No value function. No human labeler.
Just relative comparison within each group of G=4 completions.

Key Results from Real Genome Data

Running the full pipeline on a real 23andMe export (Zalina Dezhina, v5 chip):

Variant Gene Genotype Clinical Note
πŸ”΄ rs1801133 MTHFR GG Pathogenic β€” folate metabolism (p.Ala222Val)
🟑 rs9939609 FTO AT Risk factor β€” obesity, 1 risk allele (40.4% population)
🧠 APOE β€” Ξ΅3/Ξ΅3 Neutral β€” most common haplotype, no elevated AD risk
πŸ’Š rs762551 CYP1A2 AC Drug response β€” intermediate caffeine metabolizer
🟑 rs1800497 ANKK1 GG Risk factor β€” reward pathway / DRD2 association
🟒 rs6265 BDNF CC Benign (Val/Val) β€” better episodic memory

⚠️ This is a research and portfolio project, not medical advice. All interpretations are for educational purposes only.


Tech Stack

Layer Technology
Genome parsing pandas, Python
Variant annotation NCBI E-utilities (ClinVar), EBI GWAS Catalog
Agentic framework smolagents (HuggingFace)
RL training TRL GRPOTrainer
Fine-tuning LoRA (PEFT) + 4-bit quantization (bitsandbytes)
Base model meta-llama/Llama-3.1-8B-Instruct
Demo UI Gradio (HF Spaces)
Evaluation Per-task reward breakdown, 3 task types

HuggingFace Deployment

Spaces (interactive demo):

1. Create new Space β†’ Gradio SDK
2. Upload: genomic_agent_huggingface.py, app.py, data/
3. Add secret: HF_TOKEN
4. Upload your 23andMe .txt β†’ ask questions in chat

Model Hub (trained weights):

trainer.push_to_hub("mioulin/genomic-reasoning-llm")

Dataset Hub:

from datasets import Dataset
Dataset.from_list(qa_dataset).push_to_hub("mioulin/genomic-reasoning-qa")

Connection to ML Scientist Role

This project was built to demonstrate the exact skills required for ML Scientist roles in AIΓ—biology:

  • Agentic systems β€” 5-tool ToolCallingAgent with multi-step planning
  • RL/RLHF training β€” GRPO with verifiable reward, no human labelers
  • Biomedical data integration β€” ClinVar, GWAS Catalog, gnomAD, PubMed
  • Evaluation framework β€” 6-component reward breakdown across 3 task types
  • Real scientific domain β€” 631,455 SNPs from real 23andMe genome
  • Reasoning over evidence β€” multi-hop: SNP β†’ gene β†’ pathway β†’ phenotype

Running Locally

git clone https://huggingface.co/spaces/mioulin/genomic-reasoning-agent
cd genomic-reasoning-agent
pip install smolagents trl transformers accelerate peft datasets gradio
# Annotate your genome
python clinvar_pipeline_full.py \
  --genome your_23andme.txt \
  --output data/clinvar_annotations.json \
  --email your@email.com
# Run agent (requires HF token for model inference)
export HF_TOKEN=hf_...
python genomic_agent_huggingface.py
# Train with GRPO (requires GPU)
python train_grpo.py \
  --model meta-llama/Llama-3.1-8B-Instruct \
  --epochs 3 --lora --G 4

Author

Zalina Dezhina, PhD
HuggingFace

Citation

@misc{dezhina2026genomic,
  title  = {Genomic Reasoning Agent: GRPO Training on Personal SNP Data},
  author = {Dezhina, Zalina},
  year   = {2026},
  url    = {https://huggingface.co/spaces/mioulin/genomic-reasoning-agent}
}

License

MIT β€” research and educational use only. Not intended for clinical or medical decision-making.


Built with 🧬 smolagents · TRL · HuggingFace · ClinVar · 23andMe

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