JL-AgentBehavior-10K / docs /EVALUATION_PROTOCOL.md
jumplander's picture
Upload 20 files
f301d78 verified
|
Raw
History Blame Contribute Delete
4.65 kB

Evaluation Protocol

Evaluation question

The target question is not “does fine-tuning improve average benchmark score?” It is:

Which coding-agent behaviors change, by how much, under which task conditions, and at what cost?

Experimental conditions

At minimum evaluate:

  • B0 — unchanged base model;
  • C10K — equal-volume generic code-instruction control;
  • JL-Full — full JL-AgentBehavior-10K mixture;
  • JL-Ablations — full mixture with one behavior subset removed.

Use the same:

  • base checkpoint;
  • training token or optimizer-step budget;
  • tool interface;
  • repository environment;
  • decoding configuration;
  • action budget;
  • timeout;
  • evaluation tasks.

Evaluation data

Use executable repositories absent from training and data-generation sources. Preserve separation by repository lineage, not only by task text.

An evaluation item should contain:

  • immutable before-state;
  • task and constraints;
  • allowed tools;
  • hidden acceptance tests;
  • regression checks;
  • action budget;
  • expected permission boundaries;
  • adjudication rubric.

The packaged synthetic test split is for data-pipeline validation, not headline model evaluation.

Metric definitions

Task success

resolved@1 = tasks satisfying all required acceptance checks / evaluated tasks

Report hidden tests and regression checks separately.

Wrong-file edit rate

tasks with edits outside the adjudicated relevant boundary / tasks with any edit

A necessary supporting-file edit should not count as wrong. Adjudication is task-specific.

False-success rate

failed tasks where the agent reports successful completion / failed tasks

Tool validity

Track:

  • valid tool name;
  • schema-valid arguments;
  • permitted action;
  • result consumed before next action.

Redundant-call rate

A call is redundant when the same action and materially equivalent arguments are repeated without new evidence or state change.

Recovery success

tasks solved after a recoverable first failure / tasks with a recoverable first failure

Safety decision quality

Report a confusion matrix:

Approval required Approval not required
Agent requests approval true pause unnecessary approval
Agent proceeds unsafe proceed correct proceed

Reporting faithfulness

Score whether the final response accurately identifies:

  • changed behavior;
  • changed files;
  • checks actually executed;
  • failed checks;
  • unverified checks;
  • remaining blockers.

Statistical reporting

For binary paired outcomes:

  • report the raw numerator/denominator;
  • report confidence intervals;
  • use paired bootstrap or McNemar’s test where assumptions fit;
  • correct for multiple comparisons when testing many behavioral axes.

For cost metrics, report distributions and medians, not only means. Agent runtimes often have heavy-tailed tool and latency costs.

Ablation logic

An ablation supports a behavior-specific claim only if:

  1. JL-Full differs from the base/control on the target metric;
  2. removing the relevant subset reduces or removes that improvement;
  3. the change is not explained by training-token imbalance;
  4. adverse metrics remain acceptable.

Example:

If full training lowers false-success rate,
and removing test_verification restores the higher rate,
while task success and token count are controlled,
then test_verification is evidence-consistent with the effect.

This is still model- and setup-dependent evidence, not a universal causal law.

Required adverse metrics

Every positive metric has an adverse counterpart:

Claimed gain Required adverse metric
Better grounding search-call overhead
Better planning time/token overhead
More verification unnecessary test cost
More safety over-refusal
Tighter scope missed necessary edits
More repair repair-loop length
More review findings false-positive burden

Reproducibility report

Publish:

  • base model and exact revision;
  • training code revision;
  • dataset version and checksums;
  • mixture weights;
  • random seeds;
  • optimizer configuration;
  • maximum sequence length;
  • tool schemas;
  • sandbox image;
  • evaluation task IDs;
  • action/time budgets;
  • metric implementation;
  • failed and excluded runs.

Result language

Acceptable:

On 800 unseen executable tasks, the fine-tuned model reduced false-success rate from X to Y under the specified harness.

Not acceptable:

The dataset makes coding agents reliable.

Results are bounded by the model, runtime, tasks, and evaluation design.