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The community leaderboard aggregates benchmark results from every opt-in run across all contributors — local runs, Spaces runs, and PR-contributed JSON files — into a ranked view of which methods work best on which models.

What the leaderboard shows

Results are grouped by (model_id, method) pair and ranked by lowest best_refusal first, then by lowest best_perplexity. For each group, the leaderboard computes: Error runs (where the pipeline failed) are excluded from aggregation.

How to access the leaderboard

Open the Leaderboard tab on the public OBLITERATUS Space. The tab reads from both local session data and the central Hub dataset (pliny-the-prompter/OBLITERATUS-TELEMETRY), merging and deduplicating all contributions in real time.

The aggregate command

The CLI aggregate command reads contribution JSON files from a local directory and prints aggregated statistics:
The CLI aggregate command only supports --dir to specify the source directory. For more control (LaTeX output, metric filtering, minimum run thresholds), use the Python API via generate_latex_table() directly.

How aggregation works

The aggregate_results() function in community.py groups records by (model_name, method) and computes summary statistics for each metric:
The returned structure for each metric contains:

Generating LaTeX tables

Use generate_latex_table() to produce paper-ready tables directly from aggregated data:
The output is a complete tabular environment with \toprule / \midrule / \bottomrule formatting. Values are displayed as mean ± std (n) when multiple runs exist, or mean (n) for single-run entries. Missing combinations are shown as ---.

The recommend command

The recommend command uses community telemetry to suggest the best method for a specific model, based on historical data from runs on that model or models in the same family:
With --insights, the command also runs a subset of the analysis modules locally (alignment imprint detection, concept cone geometry) and factors those results into the recommendation.

Interpreting leaderboard data

A run with low refusal_rate and high coherence is the ideal outcome: the model’s guardrails have been removed (it responds to previously-refused prompts) while its general language capabilities are intact (outputs remain coherent and fluent).A low refusal rate with low coherence suggests over-aggressive obliteration — too many directions projected out, or a method that is damaging general capabilities alongside the refusal mechanism.A high coherence with high refusal rate means the model still refuses — the obliteration was incomplete.
Perplexity is the standard language modeling metric: the model’s uncertainty on a held-out text corpus. A well-obliterated model should have perplexity close to the baseline model. A large increase in perplexity signals that the weight modifications damaged the model’s language modeling ability.Compare best_perplexity on the leaderboard against the known baseline perplexity for the model family.
Single-run entries (runs: 1) have no variance estimate and may reflect hardware-specific anomalies. Look for entries with runs >= 3 for reliable conclusions. When using the Python API, filter results manually: {m: v for m, v in methods.items() if v["n_runs"] >= 3}.
The leaderboard only shows combinations that have been contributed. If a combination you care about is missing, run it yourself and contribute the results — that data will appear the next time the leaderboard is refreshed.
get_leaderboard_data() in telemetry.py fetches records from both the local telemetry.jsonl and the central Hub dataset, then deduplicates by (session_id, timestamp) before aggregating. This means running obliteratus aggregate locally will include both your own runs and any community runs synced from the Hub.