Engineering and Physical Sciences Researcher - Experienced to Expert Level (MD)

The NSA invites you to be part of an elite research team designing the cryptography that protects our nation's most sensitive communications. As an Engineering and Physical Sciences Researcher, you will translate mission needs into cryptographic solutions. You will partner with customers across space, special operations, tactical, and SWaP constrained domains. You will work alongside world-class mathematicians and engineers to design, prototype, and evaluate new symmetric. Do you want to work on the cryptography that protects our nation's most sensitive systems and see it fielded in the real world? We're looking for engineers who can turn cutting-edge cryptographic research into working, deployable capabilities. Within NSA's Research Directorate, the Cryptography for Cybersecurity organization researches and designs secure cryptographic algorithms and drives the integration of modern cryptographic capabilities into U.S. National Security Systems. Our multi-disciplinary team of mathematicians, computer scientists, and engineers designs new public-key and symmetric cryptography for a wide range of mission customers, spanning space and satellite systems, special operations, tactical communications, and low size, weight, and power (SWaP) environments. A significant portion of our current work is focused on the design, evaluation, and transition of post-quantum cryptography, to secure National Security Systems against the threat of quantum computers. We are seeking an Engineering and Physical Sciences Researcher to work at the intersection of cryptographic design and real-world application. In this role, you will serve as the bridge between mission customers and our research team. You will capture operational requirements and system constraints from customer organizations and bring them back to the mathematicians, engineers, and computer scientists who develop cryptography for specialized target environments. These environments frequently present challenges such as low-bandwidth or error-prone channels, tight protocol and interface constraints, and demanding performance targets ranging from high-speed networking to tactical edge devices. You will prototype and implement candidate algorithms in hardware and software, evaluate them on representative systems, and estimate their performance in the customer's operational environment. You will ensure the secure algorithms that are developed can be translated into secure implementations, covering topics such as resilience to implementation mistakes and side-channel attacks. A successful candidate will possess a strong understanding of, and experience in, at least three of the following: • Hardware design and implementation targeting FPGAs (VHDL/Verilog, vendor toolchains); ASIC design experience a plus • Software development in C, Rust, and/or Python for implementation, testing, and tooling • Embedded systems design, including operating systems, real-time constraints, and resource-constrained platforms • Applied cryptography and cryptographic engineering (public-key and/or symmetric algorithms, modes, and protocols) • Performance analysis, modeling, benchmarking, and optimization of algorithms in hardware and/or embedded software • Communications and networking concepts, including error-prone/low-bandwidth links, framing, and protocol design Responsibilities for the Engineering and Physical Sciences Researcher position include, but are not limited to: • Engaging with customer organizations to elicit requirements, characterize the target system and operating environment, and communicate constraints back to the cryptographic design team • Collaborating with mathematicians, computer scientists, and engineers to develop and refine both symmetric and public-key cryptographic algorithms and protocols for constrained, noisy, low-bandwidth, and high-performance environments • Designing, implementing, and testing candidate symmetric and public-key algorithms in hardware (primarily FPGA, occasionally ASIC) and embedded software to evaluate correctness, performance, and resource utilization • Developing reference and optimized implementations, test vectors, and test harnesses to validate algorithm and protocol behavior • Estimating and modeling algorithm performance (throughput, latency, memory, power, area) in customer environments, and presenting trade studies to inform design decisions • Integrating cryptographic components into protocols and embedded systems, and assessing interface, framing, and error-handling impacts on the overall design • Contributing to the evaluation and transition of post-quantum cryptographic algorithms for National Security Systems • Staying abreast of current research in cryptographic engineering and implementation, and incorporating state-of-the-art techniques into designs and evaluations • Performing side-channel analysis of candidate implementations, including timing and power measurements, and applying countermeasures to produce side-channel-resistant designs The qualifications listed are the minimum acceptable to be considered for the position. Relevant experience must be in one or more of the following: performing engineering or physical sciences work, or conducting academic or independent research in a technical field (for example, mathematics, engineering, cognitive sciences and physical sciences). SENIOR Entry is with a Bachelor's degree plus 7 years of relevant experience, or a Master's degree plus 5 years of relevant experience, or a Doctoral degree plus 3 years of relevant experience. EXPERT Entry is with a Bachelor's degree plus 10 years of relevant experience, or a Master's degree plus 8 years of relevant experience, or a Doctoral degree plus 6 years of relevant experience. Degree must be in either (1) Engineering, (2) Physics or Astronomy from an accredited college, or (3) a relevant professional technical field (for example, chemistry, computer science, mathematics, hydrology, geology). For Engineering degrees, if program is not ABET accredited, it must include specified coursework. Specified coursework includes courses in differential and integral calculus and 5 of the following 18 areas: (a) statics or dynamics, (b) strength of materials/stress-strain relationships, (c) fluid mechanics, hydraulics, (d) thermodynamics, (e) electromagnetic fields, (f) nature and properties of materials/relating particle and aggregate structure to properties, (g) solid state electronics, (h) microprocessor applications, (i), computer systems, (j) signal processing, (k) digital design, (l) systems and control theory, (m) circuits or generalized circuits, (n) communication systems, (o) power systems, (p) computer networks, (q) software development, (r) Any other comparable area of fundamental engineering science or physics, such as optics, heat transfer, or soil mechanics.