Conference Description
Key Takeaways
- Academic cryptography track within the RSA Conference, held annually in San Francisco
- Focuses on bridging peer-reviewed cryptographic research with industry security practice
- Covers post-quantum cryptography, zero-knowledge proofs, multi-party computation, and blockchain security
- Designed for cryptographers, security researchers, academics, and industry practitioners
- Emphasises in-person paper presentations and cross-sector collaboration
Introduction
CT-RSAC 2027, the Cryptographers’ Track at the RSA Conference, brings academic cryptography research to one of the security industry’s most prominent annual gatherings in San Francisco. The track provides a dedicated forum where researchers present peer-reviewed scientific papers to an audience spanning industry engineers, government security specialists, and fellow academics. As organisations worldwide contend with evolving threats to digital infrastructure and prepare for the cryptographic implications of quantum computing, the need for rigorous research that translates into deployable security solutions has never been more pressing.
About This Event
The Cryptographers’ Track operates as a specialised programme within the broader RSA Conference, distinguishing itself through its emphasis on scientific rigour and academic contribution. Unlike commercially oriented conference sessions, CT-RSAC prioritises the presentation of original research findings, with a strong preference for authors to deliver their work in person. This format encourages direct dialogue between researchers and practitioners, enabling the kind of technical exchange that written publications alone cannot facilitate.
The track also welcomes Systematization of Knowledge papers, which synthesise existing research across a domain to identify gaps, consolidate understanding, and guide future investigation. These contributions serve a valuable function in a field where the volume of published work can make it difficult for practitioners to maintain a comprehensive view of the state of the art.
Research Themes and Technical Focus Areas
The programme spans a broad range of cryptographic disciplines, reflecting both foundational theory and emerging application areas. Post-quantum cryptography remains a central theme as the security community works toward transitioning away from algorithms vulnerable to quantum attack. Closely related is code-based cryptography, one of several mathematical approaches under consideration for post-quantum standardisation efforts.
Privacy-preserving technologies feature prominently, including zero-knowledge proofs, multi-party computation, and differential privacy. These techniques enable computation and verification over sensitive data without exposing the underlying information, addressing regulatory requirements and user expectations around data protection.
Implementation security receives substantial attention through sessions on side-channel attacks and defences, leakage resistance, and hardware and software implementation challenges. Even mathematically sound cryptographic schemes can fail when deployed in systems that leak information through timing, power consumption, or electromagnetic emissions. Research in this area helps close the gap between theoretical security and real-world resilience.
Additional topics include blockchain and distributed ledger security, cryptanalysis, formal verification of cryptographic protocols, physically unclonable functions, white-box cryptography, and time-released cryptography. The breadth of coverage reflects the expanding role cryptography plays across digital infrastructure, from financial systems to identity management and secure communications.
Connecting Research to Industry Practice
A persistent challenge in cryptography is the distance between academic publication and operational deployment. Research findings may take years to influence product development, and practitioners often lack visibility into work that could address their immediate security concerns. CT-RSAC explicitly aims to shorten this cycle by situating academic presentations within an industry-focused conference environment.
For researchers, the track offers exposure to decision-makers and engineers who can translate theoretical advances into deployed systems. For industry attendees, it provides early insight into techniques that may shape future standards, inform procurement decisions, or reveal vulnerabilities in existing implementations. Government participants benefit from understanding the trajectory of cryptographic capability, which informs policy development and national security planning.
Who Should Attend
CT-RSAC 2027 is designed for professionals engaged with cryptography at a technical level. This includes academic researchers presenting or evaluating new work, security architects assessing emerging techniques for enterprise deployment, engineers responsible for cryptographic implementation, and product managers defining security roadmaps. Government security experts and standards body participants will find value in the track’s coverage of areas under active standardisation, particularly post-quantum algorithms and privacy-enhancing technologies.
Conclusion
As cryptographic requirements grow more complex and the timeline for quantum-resistant migration becomes more concrete, forums that connect rigorous research with practical implementation serve an essential function. CT-RSAC 2027 provides that connection, offering a technically substantive programme within the broader context of the RSA Conference.