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Use when designing or auditing ACM CCS experiments, attack demonstrations, adaptive-attack defense evaluations, security measurements, baselines, overhead and cost reporting, ablations, and claim-to-evidence fit, with emphasis on evidence that survives an adversarial program

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$ npx -y skills add brycewang-stanford/Awesome-Journal-Skills --skill ccs-experiments --agent claude-code

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How this skill gets triggered: by you, by Claude, or both.

  • Fires itselfAuto-invocation. Claude auto-loads it when your prompt matches the work.Auto-invocation is when the right skill fires by itself at the right moment, driven by a FLOW.md router and a hook, instead of you invoking it by name. It is the difference between a skill being installed and a skill actually getting used.Read the full definition →
  • You can call itInvoke it directly when you want it.
  • Slash command/ccs-experiments

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Use when designing or auditing ACM CCS experiments, attack demonstrations, adaptive-attack defense evaluations, security measurements, baselines, overhead and cost reporting, ablations, and claim-to-evidence fit, with emphasis on evidence that survives an adversarial program

SKILL.md

ccs-experiments.SKILL.md
name: ccs-experiments
description: Use when designing or auditing ACM CCS experiments, attack demonstrations, adaptive-attack defense evaluations, security measurements, baselines, overhead and cost reporting, ablations, and claim-to-evidence fit, with emphasis on evidence that survives an adversarial program committee rather than leaderboard wins.

CCS Experiments

Use this before submission when the attack demonstration, defense evaluation, or measurement story is not yet locked.

Experiment audit

  • Map each security claim to a specific artifact: an exploit run, an overhead measurement, a

coverage number, a false-positive/false-negative table, or a measurement dataset.

  • For attacks, demonstrate the exploit against a realistic, named target (software version,

platform, configuration) and report the resource cost to the attacker.

  • For defenses, evaluate against an adaptive attacker built with knowledge of the defense,

and report performance overhead, memory cost, and any compatibility breakage.

  • For measurements, validate sampling: document the population, the vantage point, coverage

and blind spots, and ground-truth checks against known cases.

  • Include baselines that represent the state of the art in attack or defense, not strawmen.
  • Report variance for stochastic results and audit for leakage, selection bias, and any

mismatch between the threat model and the tested configuration.

What experiments are for at this venue

  • CCS experiments exist to make a security claim undeniable to a skeptic, not to top a

benchmark. One clean end-to-end exploit against a real target outweighs a table of micro-benchmarks.

  • The strongest defense design triad: the attack it stops, an adaptive attack that knows the

defense, and a deployment-cost measurement. Missing the middle element is the classic CCS defense reject.

  • Reviewers, often practitioners, check whether the evaluation environment matches the threat

model. A defense claimed for production but tested only on a toy in a lab invites the relevance question.

Attack-and-defense evaluation table

| Security claim | Matching evidence | Reject pattern avoided | |---|---|---| | Exploit is practical | End-to-end run on named target with attacker cost | "Works only in a lab against a strawman" | | Defense stops the attack | Detection/prevention rate on the original attack | "No numbers, only a design argument" | | Defense resists adaptation | Adaptive attacker with defense knowledge, degraded results | "Only the non-adaptive attack was tried" | | Deployment is feasible | Overhead, memory, compatibility on a realistic workload | "Security claimed, cost never measured" |

Vignette: evaluating a control-flow-integrity defense

Suppose the paper proposes a fine-grained CFI scheme. The matching plan: reproduce a known code-reuse attack and show it blocked; construct an adaptive attacker that respects the CFI policy and search for surviving gadget chains; then measure runtime overhead and binary-size growth on a standard benchmark suite. Every claim ties to a numbered table, and the adaptive result is reported even when it dents the headline.

Reporting floor

  • Name every target's exact version and configuration; "a popular browser" is not a target.
  • Report the attacker's resource budget (queries, time, samples) and the defense's measured

overhead rather than vague "negligible cost" language.

Output format

[Experiment readiness] strong / adequate / weak
[Claim -> evidence map] <claim: exploit run / overhead table / measurement>
[Missing security evidence] <adaptive attack / baseline / cost / validation>
[Threat-model mismatch] <where the setup breaks the stated model>
[Decision-critical next run] <one experiment>
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Repo: brycewang-stanford/Awesome-Journal-Skills

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