latent-label-data-augmentation

Augment latent labels to repair benchmarks and reduce confounds.

4|1|Updated May 20, 2026
One-click install
npx skills add https://github.com/concordance-co/xenon --skill latent-label-data-augmentation
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: latent-label-data-augmentation
Source: https://github.com/concordance-co/xenon/tree/main/.agents/skills/latent-label-data-augmentation
Command: npx skills add https://github.com/concordance-co/xenon --skill latent-label-data-augmentation

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Use this skill when a benchmark cannot support the desired latent labels cleanly and needs rewrites, matched pairs, counterbalancing, response generations, or synthetic augmentation. It covers benchmark repair for confounds, split construction, framing variants, and contrast-set design for mechanistic interpretability.

Core Features & Use Cases

  • Guides structured augmentation moves (rewrite, pairing, counterbalancing) to reduce leakage and improve label validity.
  • Enables generation of matched donor-target pairs and controls for causal questions, preserving core scenario semantics.
  • Supports documentation and validation workflows to map repairs back to original gaps and to track phase status.

Quick Start

Provide an augmentation plan to rewrite, pair, or counterbalance latent labels for a benchmark repair.

Frequently Asked Questions about latent-label-data-augmentation

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
What is latent-label data augmentation for benchmark repair?

Latent-label data augmentation repairs benchmarks by rewriting and counterbalancing data to reduce confounds. It fixes latent-label leakage or misalignment that hampers evaluation in mechanistic interpretability tasks.

How do I reduce confounds in mechanistic interpretability benchmarks?

To reduce confounds in mechanistic interpretability benchmarks, apply structured augmentation moves like rewriting, matched-pair generation, and counterbalancing. This preserves core scenario semantics while improving label validity.

How do I create matched donor-target pairs for benchmark counterbalancing?

Create matched donor-target pairs by generating controls for causal questions during benchmark augmentation. This preserves core scenario semantics while enforcing documented validation and gap-to-repair traceability.

When do I need to rewrite benchmark data for latent-label leakage?

You need to rewrite benchmark data for latent-label leakage when a benchmark cannot support desired latent labels cleanly. This occurs when misalignment hampers evaluation and requires synthetic augmentation or contrast-set design.

Does this benchmark repair approach work for contrast-set design?

Yes, this benchmark repair approach works for contrast-set design and split construction. It supports mechanistic interpretability tasks by guiding augmentation moves to reduce leakage and improve label validity.

What are the limitations of synthetic augmentation for benchmark repair?

Synthetic augmentation for benchmark repair requires documented validation and gap-to-repair traceability throughout phase-02 workflows. Without enforcing these validation workflows, generated matched pairs may not properly map repairs back to original gaps.