Skill UI

This advanced skill details dual-use security techniques for analyzing protected binaries, conducting malware analysis, and performing authorized penetration testing. It strictly mandates that users confirm explicit written authorization, adhere to defined scope, and ensure legal compliance (e.g., CFAA, DMCA). Use cases include CTF competitions, academic research, and internal security auditing, emphasizing defensive recommendations and evidence preservation.

This advanced skill details dual-use security techniques for analyzing protected binaries, conducting malware analysis, and performing authorized penetration testing. It strictly mandates that users confirm explicit written authorization, adhere to defined scope, and ensure legal compliance (e.g., CFAA, DMCA). Use cases include CTF competitions, academic research, and internal security auditing, emphasizing defensive recommendations and evidence preservation.

This comprehensive checklist guides thorough security testing of OAuth 2.0 and OpenID Connect (OIDC) protocols. It covers advanced vulnerabilities such as authorization code interception, PKCE bypass, CSRF flaws, and improper scope validation. The methodology emphasizes modern industry standards like FAPI (DPoP, JAR, PAR), making it essential for penetration testers and security researchers assessing web application integrity and API security.

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 guide helps authors assess the suitability and optimal framing of their computer animation manuscript for the ACM SIGGRAPH/Eurographics Symposium on Computer Animation (SCA). It provides strategic advice on required evidence, scope calibration, contribution types (e.g., physics simulation, character motion, crowds), and how to position the work against top-tier CS conference standards. Use this when submitting animation-related research.

This guide provides a rigorous framework for assessing whether materials research possesses the necessary 'genuine advance' and 'broad impact' to be published in premier journals like Advanced Materials. It helps researchers pre-screen their work, determining if the novelty is fundamental (new mechanism/material) and if the findings resonate with neighboring scientific communities, thus avoiding rejection due to scope mismatch.

This comprehensive guide serves as a venue selection and content re-framing tool for research at the intersection of energy and environmental science. It details the high quantitative standards, required evidence (e.g., LCA, full-cell data, techno-economic analysis), and specific scope areas (solar, batteries, CO₂ capture) expected by Energy & Environmental Science (EES). Use this before submission to ensure your manuscript meets EES's broad, interdisciplinary impact criteria.

A comprehensive guide for positioning computer architecture manuscripts for the IEEE HPCA conference. It covers ideal scope (accelerators, memory systems, interconnects), required evidence (benchmarks, performance/energy tradeoffs), and strategic framing needed to appeal to top-tier hardware reviewers. Use it to refine your narrative and ensure your contribution meets the high standards of high-performance computing research.

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.

A comprehensive guide designed to help researchers determine the optimal top-tier conference venue for their computer architecture work. It provides detailed criteria—such as mechanism-residency tests, hardware cost analysis, and scope boundaries—to guide authors in correctly placing their research between venues like MICRO, ISCA, ASPLOS, and DAC.

A comprehensive guide for authors submitting biomedical engineering research. It assesses the manuscript's fit, biomedical significance, and translational relevance against Nature's rigorous standards. Covers scope, validation requirements (benchtop vs. clinical), structural guidelines, and official submission checklists for devices, biomaterials, and engineered systems.

This skill provides comprehensive guidance for submitting research to npj Computational Materials. It defines the journal's scope, requiring rigorous computational methods (DFT, MD, ML, high-throughput screening) that yield generalizable materials insights or predictive capabilities. It educates authors on the required standards, including methodological rigor, reproducibility, and adherence to FAIR data principles, helping authors re-frame their work for a high-impact venue.