Skill UI

A comprehensive playbook for advanced mobile security assessments of iOS applications. Covers both jailbroken and non-jailbroken environments, focusing on critical attack vectors such as keychain extraction, URL scheme hijacking, Universal Links exploitation via AASA misconfigurations, runtime memory manipulation (Frida/Objection), and binary protection analysis.

This skill provides a rigorous, measured framework for optimizing system performance. It guides users to convert vague goals (e.g., 'make it faster') into a bounded, repeatable process. The loop requires establishing a clear baseline, systematically testing hypotheses (variants), identifying bottlenecks, and promoting the safest, most measurably improved solution, ensuring reproducibility and stability throughout the process.

This skill guides researchers to determine if their topic fits the scope of Acta Automatica Sinica (AAS). It provides detailed boundaries for control theory, pattern recognition, robotics, and smart systems, helping authors distinguish their contribution from pure algorithms or system software, and advising on appropriate article type (Review/Paper/Short) to avoid initial rejection.

This tool guides authors on whether their manuscript fits the scope of Advanced Functional Materials. It emphasizes the critical structure-function-application chain, covering highly advanced fields such as optoelectronics, biomedical devices, and soft robotics. It provides criteria for methodology, required evidence, and journal-specific house style.

This detailed guide teaches authors how to structure and position their research paper within the highly interdisciplinary field of robot learning. It covers essential best practices, including reviewing multiple concurrent literature streams (ML methods, classical robotics, robot lineage, VLA models) and adhering to strict academic citation hygiene (e.g., handling PMLR year offsets).

A comprehensive guide for designing and reporting rigorous experimental results in robotics research. It details the 'evidence ladder' (from simulation to real-world deployment), statistical best practices (e.g., sample size, confidence intervals), ensuring baseline fairness, and quantifying sim-to-real transfer gaps. Essential reading for researchers submitting to top-tier robotics conferences.

This guide outlines the rigorous standards for achieving robust reproducibility in robotics research papers, especially those involving physical hardware. It details a two-tier approach, defining results as either fully *rerunnable* (code/simulation) or fully *auditable* (hardware logs/protocols). Key requirements include creating comprehensive hardware specification ledgers, logging detailed sensor data (rosbags), separating deterministic from stochastic claims, and structuring the entire repository for peer review.

This guide details how to prepare the mandatory video attachment for robotics conference submissions. It covers strict technical specifications (e.g., 180 seconds, 20 MB), the crucial self-containment rule, effective storyboarding techniques, and necessary steps for anonymization. Learn to transform your video from a mere demonstration into robust, undeniable scientific evidence.

A comprehensive guide to strategically routing robotics research projects. This skill helps determine whether a project is best suited for ICRA, IROS, CoRL, RA-L, or other specialized venues. It evaluates your work based on the physical embodiment test, contribution type (e.g., HRI, manipulation, perception), and provides a decision framework between direct conference submission and journal publication.

A comprehensive guide detailing the end-to-end annual submission and presentation cycle for the IEEE ICRA conference. It covers critical milestones—from paper deadlines and video attachments to camera-ready submissions—and provides structured backward planning, fallback strategies (RA-L, IROS), and tips for navigating the academic timeline in robotics research.

A comprehensive style guide for structuring and refining robotics research manuscripts for top-tier conferences like ICRA. It dictates moving from technique-speak to task-first narratives, emphasizing figure-first presentation, rigorous quantification of claims, and adhering to strict page budgets to maximize reviewer impact and clarity.

This guide helps authors determine if their robotics research is suitable for IEEE Transactions on Robotics (T-RO). It focuses on establishing the necessary rigor, emphasizing that contributions must be complete and rigorously validated, preferably demonstrated on real robots or high-fidelity simulation platforms. It covers scope, experimental validation standards, and manuscript structure.