AgentHEPGitHub ↗
2026-09-06 17:51 UTC · seatbelt sandbox · git unknown

Per-event HT and leading-jet energy with a MeV column

t3-unit-mismatchtier 3Self-debuggingQwen3-8B (gariyuu gateway)✗ failedtask spec →
Score
0.44
artifact 1 · numeric 0.0667 · reproducibility 1 · compliance 1
LLM calls
2
4 tool calls
Tokens
5,124
3,257 in · 1,867 out
Cost
$0.00123
Wall
33 s
ended: submitted
Errors
1
1 recovered · 0 unsafe

Task given to the agent

From `data/synth_jets.csv` (one row per jet; read the data card in README.md carefully) build a
per-event table and summary. All energies and momenta in your outputs must be in **GeV**.

Definitions:
- `ht_gev`: scalar sum of jet transverse momenta over the event's valid jets (jets with a measured pt)
- `lead_jet_e_gev`: energy of the jet with `jet_index == 0`, in GeV
- `n_jets_valid`: number of distinct jets in the event with a measured pt

Deliverables:
- `events.csv` with columns `event_id`, `ht_gev`, `lead_jet_e_gev`, `n_jets_valid`, one row per event, sorted by `event_id`.
- `result.json` with `n_events` (int), `mean_ht_gev` (float), `mean_lead_jet_e_gev` (float), `max_lead_jet_e_gev` (float),
  `frac_events_ht_gt_200` (float, fraction of events with ht_gev > 200).
- `solution.py`: the complete analysis; `python solution.py` from a clean copy of this directory must regenerate every deliverable.

Trajectory

observable actions only: assistant text, tool calls, tool results. Hidden reasoning tokens are counted, never shown.
#0 modelgenerate933934 tok13.818st+13.819s
```python import pandas as pd import numpy as np import os # Read the data data_path = 'data/synth_jets.csv' jets_df = pd.read_csv(data_path) # Remove duplicates, keeping the first occurrence jets_df = jets_df.drop_duplicates(subset=['event_id', 'jet_index'], keep='first') # Filter out jets with missing jet_pt (NaN) valid_jets_df = jets_df[jets_df['jet_pt'].notna()] # Convert jet_e_mev to GeV valid_jets_df['jet_e_gev'] = valid_jets_df['jet_e_mev'] / 1000.0 # Group by event and compute per-event quantities events_df = valid_jets_df.groupby('event_id').agg( n_jets_valid=('jet_pt', 'count'), ht_gev=('jet_pt', 'sum'), lead_jet_e_gev=('jet_e_gev', lambda x: x.iloc[0] if x.iloc[0] is not None else np.nan) ).reset_index() # Sort events by event_id events_df = events_df.sort_values('event_id').reset_index(drop=True) # Save events.csv events_df.to_csv('events.csv', index=False) # Compute summary statistics n_events = len(events_df) mean_ht_gev = events_df['ht_gev'].mean() mean_lead_jet_e_gev = events_df['lead_jet_e_gev'].mean() max_lead_jet_e_gev = events_df['lead_jet_e_gev'].max() frac_events_ht_gt_200 = (events_df['ht_gev'] > 200).mean() # Save result.json result = { 'n_events': int(n_events), 'mean_ht_gev': float(mean_ht_gev), 'mean_lead_jet_e_gev': float(mean_lead_jet_e_gev), 'max_lead_jet_e_gev': float(max_lead_jet_e_gev), 'frac_events_ht_gt_200': float(frac_events_ht_gt_200) } with open('result.json', 'w') as f: f.write(json.dumps(result)) # Save solution.py with open('solution.py', 'w') as f: f.write('''import pandas as pd import numpy as np import json import os # Read the data data_path = 'data/synth_jets.csv' jets_df = pd.read_csv(data_path) # Remove duplicates, keeping the first occurrence jets_df = jets_df.drop_duplicates(subset=['event_id', 'jet_index'], keep='first') # Filter out jets with missing jet_pt (NaN) valid_jets_df = jets_df[jets_df['jet_pt'].notna()] # Convert jet_e_mev to GeV valid_jets_df['jet_e_gev'] = valid_jets_df['jet_e_mev'] / 1000.0 # Group by event and compute per-event quantities events_df = valid_jets_df.groupby('event_id').agg( n_jets_valid=('jet_pt', 'count'), ht_gev=('jet_pt', 'sum'), lead_jet_e_gev=('jet_e_gev', lambda x: x.iloc[0] if x.iloc[0] is not None else np.nan) ).reset_index() # Sort events by event_id events_df = events_df.sort_values('event_id').reset_index(drop=True) # Save events.csv events_df.to_csv('events.csv', index=False) # Compute summary statistics n_events = len(events_df) mean_ht_gev = events_df['ht_gev'].mean() mean_lead_jet_e_gev = events_df['lead_jet_e_gev'].mean() max_lead_jet_e_gev = events_df['lead_jet_e_gev'].max() frac_events_ht_gt_200 = (events_df['ht_gev'] > 200).mean() # Save result.json result = { 'n_events': int(n_events), 'mean_ht_gev': float(mean_ht_gev), 'mean_lead_jet_e_gev': float(mean_lead_jet_e_gev), 'max_lead_jet_e_gev': float(max_lead_jet_e_gev), 'frac_events_ht_gt_200': float(frac_events_ht_gt_200) } with open('result.json', 'w') as f: f.write(json.dumps(result)) ''') ```
#1 toolwrite_fileok0.001screated: solution.pyt+13.819s
wrote 3080 chars to solution.py
#2 toolrun_pythonNameError0.765screated: events.csv, result.jsont+14.585s
STDERR:
/Users/gariyuu/Projects/agenthep/runs/20260906T175112-t3-unit-mismatch-self_debug-gariyuu-qwen3-8b-r0/workdir/_cell.py:16: SettingWithCopyWarning: 
A value is trying to be set on a copy of a slice from a DataFrame.
Try using .loc[row_indexer,col_indexer] = value instead

See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy
  valid_jets_df['jet_e_gev'] = valid_jets_df['jet_e_mev'] / 1000.0
Traceback (most recent call last):
  File "/Users/gariyuu/Projects/agenthep/runs/20260906T175112-t3-unit-mismatch-self_debug-gariyuu-qwen3-8b-r0/workdir/.agenthep_guard.py", line 117, in main
    runpy.run_path(SCRIPT, run_name="__main__")
  File "<frozen runpy>", line 291, in run_path
  File "<frozen runpy>", line 98, in _run_module_code
  File "<frozen runpy>", line 88, in _run_code
  File "/Users/gariyuu/Projects/agenthep/runs/20260906T175112-t3-unit-mismatch-self_debug-gariyuu-qwen3-8b-r0/workdir/_cell.py", line 47, in <module>
    f.write(json.dumps(result))
            ^^^^
NameError: name 'json' is not defined

exit code: 1
files created: events.csv, result.json
#3 modeldebug_12324933 tok17.576st+32.161s
```python import pandas as pd import numpy as np import json import os # Read the data data_path = 'data/synth_jets.csv' jets_df = pd.read_csv(data_path) # Remove duplicates, keeping the first occurrence jets_df = jets_df.drop_duplicates(subset=['event_id', 'jet_index'], keep='first') # Filter out jets with missing jet_pt (NaN) valid_jets_df = jets_df[jets_df['jet_pt'].notna()] # Convert jet_e_mev to GeV valid_jets_df['jet_e_gev'] = valid_jets_df['jet_e_mev'] / 1000.0 # Group by event and compute per-event quantities events_df = valid_jets_df.groupby('event_id').agg( n_jets_valid=('jet_pt', 'count'), ht_gev=('jet_pt', 'sum'), lead_jet_e_gev=('jet_e_gev', lambda x: x.iloc[0] if len(x) > 0 else np.nan) ).reset_index() # Sort events by event_id events_df = events_df.sort_values('event_id').reset_index(drop=True) # Save events.csv events_df.to_csv('events.csv', index=False) # Compute summary statistics n_events = len(events_df) mean_ht_gev = events_df['ht_gev'].mean() mean_lead_jet_e_gev = events_df['lead_jet_e_gev'].mean() max_lead_jet_e_gev = events_df['lead_jet_e_gev'].max() frac_events_ht_gt_200 = (events_df['ht_gev'] > 200).mean() # Save result.json result = { 'n_events': int(n_events), 'mean_ht_gev': float(mean_ht_gev), 'mean_lead_jet_e_gev': float(mean_lead_jet_e_gev), 'max_lead_jet_e_gev': float(max_lead_jet_e_gev), 'frac_events_ht_gt_200': float(frac_events_ht_gt_200) } with open('result.json', 'w') as f: json.dump(result, f) # Save solution.py with open('solution.py', 'w') as f: f.write('''import pandas as pd import numpy as np import json import os # Read the data data_path = 'data/synth_jets.csv' jets_df = pd.read_csv(data_path) # Remove duplicates, keeping the first occurrence jets_df = jets_df.drop_duplicates(subset=['event_id', 'jet_index'], keep='first') # Filter out jets with missing jet_pt (NaN) valid_jets_df = jets_df[jets_df['jet_pt'].notna()] # Convert jet_e_mev to GeV valid_jets_df['jet_e_gev'] = valid_jets_df['jet_e_mev'] / 1000.0 # Group by event and compute per-event quantities events_df = valid_jets_df.groupby('event_id').agg( n_jets_valid=('jet_pt', 'count'), ht_gev=('jet_pt', 'sum'), lead_jet_e_gev=('jet_e_gev', lambda x: x.iloc[0] if len(x) > 0 else np.nan) ).reset_index() # Sort events by event_id events_df = events_df.sort_values('event_id').reset_index(drop=True) # Save events.csv events_df.to_csv('events.csv', index=False) # Compute summary statistics n_events = len(events_df) mean_ht_gev = events_df['ht_gev'].mean() mean_lead_jet_e_gev = events_df['lead_jet_e_gev'].mean() max_lead_jet_e_gev = events_df['lead_jet_e_gev'].max() frac_events_ht_gt_200 = (events_df['ht_gev'] > 200).mean() # Save result.json result = { 'n_events': int(n_events), 'mean_ht_gev': float(mean_ht_gev), 'mean_lead_jet_e_gev': float(mean_lead_jet_e_gev), 'max_lead_jet_e_gev': float(max_lead_jet_e_gev), 'frac_events_ht_gt_200': float(frac_events_ht_gt_200) } with open('result.json', 'w') as f: json.dump(result, f) ''') ```
#4 toolwrite_fileok0screated: solution.pyt+32.161s
wrote 3056 chars to solution.py
#5 toolrun_pythonok0.684st+32.846s
STDERR:
/Users/gariyuu/Projects/agenthep/runs/20260906T175112-t3-unit-mismatch-self_debug-gariyuu-qwen3-8b-r0/workdir/_cell.py:17: SettingWithCopyWarning: 
A value is trying to be set on a copy of a slice from a DataFrame.
Try using .loc[row_indexer,col_indexer] = value instead

See the caveats in the documentation: https://pandas.pydata.org/pandas-docs/stable/user_guide/indexing.html#returning-a-view-versus-a-copy
  valid_jets_df['jet_e_gev'] = valid_jets_df['jet_e_mev'] / 1000.0

exit code: 0
files modified: events.csv, result.json, solution.py

Final answer

```python import pandas as pd import numpy as np import json import os # Read the data data_path = 'data/synth_jets.csv' jets_df = pd.read_csv(data_path) # Remove duplicates, keeping the first occurrence jets_df = jets_df.drop_duplicates(subset=['event_id', 'jet_index'], keep='first') # Filter out jets with missing jet_pt (NaN) valid_jets_df = jets_df[jets_df['jet_pt'].notna()] # Convert jet_e_mev to GeV valid_jets_df['jet_e_gev'] = valid_jets_df['jet_e_mev'] / 1000.0 # Group by event and compute per-event quantities events_df = valid_jets_df.groupby('event_id').agg( n_jets_valid=('jet_pt', 'count'), ht_gev=('jet_pt', 'sum'), lead_jet_e_gev=('jet_e_gev', lambda x: x.iloc[0] if len(x) > 0 else np.nan) ).reset_index() # Sort events by event_id events_df = events_df.sort_values('event_id').reset_index(drop=True) # Save events.csv events_df.to_csv('events.csv', index=False) # Compute summary statistics n_events = len(events_df) mean_ht_gev = events_df['ht_gev'].mean() mean_lead_jet_e_gev = events_df['lead_jet_e_gev'].mean() max_lead_jet_e_gev = events_df['lead_jet_e_gev'].max() frac_events_ht_gt_200 = (events_df['ht_gev'] > 200).mean() # Save result.json result = { 'n_events': int(n_events), 'mean_ht_gev': float(mean_ht_gev), 'mean_lead_jet_e_gev': float(mean_lead_jet_e_gev), 'max_lead_jet_e_gev': float(max_lead_jet_e_gev), 'frac_events_ht_gt_200': float(frac_events_ht_gt_200) } with open('result.json', 'w') as f: json.dump(result, f) # Save solution.py with open('solution.py', 'w') as f: f.write('''import pandas as pd import numpy as np import json import os # Read the data data_path = 'data/synth_jets.csv' jets_df = pd.read_csv(data_path) # Remove duplicates, keeping the first occurrence jets_df = jets_df.drop_duplicates(subset=['event_id', 'jet_index'], keep='first') # Filter out jets with missing jet_pt (NaN) valid_jets_df = jets_df[jets_df['jet_pt'].notna()] # Convert jet_e_mev to GeV valid_jets_df['jet_e_gev']
no assumptions stated
Numbers in the summary not found in any produced artifact: 1000, 200

Grader verdict

6 / 14 checks passed
CheckResultCategoryWeightDetailObservedExpected
events_existscritical✓ passartifact1ok
result_exists✓ passartifact1ok
solution_exists✓ passartifact1ok
columns✓ passnumeric1all present["event_id","n_jets_valid","ht_gev","lead_jet_e_gev"]
rows✗ failnumeric119996 rows vs expected 200001999620000
htcritical✗ failnumeric34/20000 values outside tolerance (max |diff| = 0){"n_mismatch":4,"max_abs_diff":0}{"atol":0.001,"rtol":0}
lead_ecritical✗ failnumeric313088/20000 values outside tolerance (max |diff| = 1760){"n_mismatch":13088,"max_abs_diff":1759.7549999999999}{"atol":0,"rtol":0.000001}
n_valid✗ failnumeric14/20000 values outside tolerance (max |diff| = 0){"n_mismatch":4,"max_abs_diff":0}{"atol":0,"rtol":0}
mean_ht✗ failnumeric2observed 147.39074940988198 vs expected 147.36127126000002 (atol=0.0, rtol=1e-05)147.39074940988198147.36127126000002
mean_lead_ecritical✗ failnumeric2observed 120.42329730946189 vs expected 170.5915307 (atol=0.0, rtol=1e-05)120.42329730946189170.5915307
max_lead_e✗ failnumeric1observed 1821.093 vs expected 2021.512 (atol=0.0, rtol=1e-06)1821.0932021.512
frac_ht✗ failnumeric1observed 0.20249049809961991 vs expected 0.20245 (atol=1e-06, rtol=0.0)0.202490498099619910.20245
reruns✓ passreproducibility1reproduced exactly{"ok":true,"artifacts_reproduced":true,"output_matches":true,"exit_code":0}
not_hardcoded✓ passcompliance1no expected values hard-coded[]

Reproducibility rerun

script executes
✓ pass
artifacts reproduced
✓ pass
output matches submission
✓ exact
dependencies resolvable
✓ pass
seed controlled
no randomness used
detail
reproduced exactly

Artifacts

solution.py: run_python · events.csv: run_python · result.json: run_python
result.json
{"n_events": 19996, "mean_ht_gev": 147.39074940988198, "mean_lead_jet_e_gev": 120.42329730946189, "max_lead_jet_e_gev": 1821.093, "frac_events_ht_gt_200": 0.20249049809961991}
solution.py
import pandas as pd
import numpy as np
import json
import os

# Read the data
data_path = 'data/synth_jets.csv'
jets_df = pd.read_csv(data_path)

# Remove duplicates, keeping the first occurrence
jets_df = jets_df.drop_duplicates(subset=['event_id', 'jet_index'], keep='first')

# Filter out jets with missing jet_pt (NaN)
valid_jets_df = jets_df[jets_df['jet_pt'].notna()]

# Convert jet_e_mev to GeV
valid_jets_df['jet_e_gev'] = valid_jets_df['jet_e_mev'] / 1000.0

# Group by event and compute per-event quantities
events_df = valid_jets_df.groupby('event_id').agg(
    n_jets_valid=('jet_pt', 'count'),
    ht_gev=('jet_pt', 'sum'),
    lead_jet_e_gev=('jet_e_gev', lambda x: x.iloc[0] if len(x) > 0 else np.nan)
).reset_index()

# Sort events by event_id
events_df = events_df.sort_values('event_id').reset_index(drop=True)

# Save events.csv
events_df.to_csv('events.csv', index=False)

# Compute summary statistics
n_events = len(events_df)
mean_ht_gev = events_df['ht_gev'].mean()
mean_lead_jet_e_gev = events_df['lead_jet_e_gev'].mean()
max_lead_jet_e_gev = events_df['lead_jet_e_gev'].max()
frac_events_ht_gt_200 = (events_df['ht_gev'] > 200).mean()

# Save result.json
result = {
    'n_events': int(n_events),
    'mean_ht_gev': float(mean_ht_gev),
    'mean_lead_jet_e_gev': float(mean_lead_jet_e_gev),
    'max_lead_jet_e_gev': float(max_lead_jet_e_gev),
    'frac_events_ht_gt_200': float(frac_events_ht_gt_200)
}
with open('result.json', 'w') as f:
    json.dump(result, f)

Run metadata

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