Apply to Malware Analyst III (MA3)

Malware Analyst III (MA3)

Salary: Up to $217,500, depending on education and experience
Security Requirements: TS/SCI with CI Poly (both active)
Education: Minimum of bachelor’s degree from an accredited college or university in
Computer Engineering, Computer Science, Cybersecurity, or related discipline.

Certifications: None Required.

Experience (Ten years Required):
- Employs engineering techniques and processes to analyze software to identify vulnerabilities.
- Re-creates programs to rebuild something like it, exploits its weaknesses, or strengthens its
defenses.
- Develops design specifications by inspection and analysis to offset various malware and to
protect and defend USCYBERCOM infrastructure.
- Develops, researches, and maintains proficiency in tools, techniques, countermeasures, and
trends in computer and network vulnerabilities, data hiding, and encryption. - Conducts
vulnerability assessments/penetration tests of information systems.
- Ensures software standards are met; designs, develops, documents, tests, and debugs
applications software and systems that contain logical and mathematical solutions.
- Performs in-depth detailed research of software and methodologies to build defensive and
offensive technical capabilities for USCYBERCOM.
- Possesses senior-level experience as a Malware Analyst with a background in cutting-edge
cyberspace technologies.
- Often and without source code or documentation, performs system analysis, reverse
engineering, and static, dynamic, and best-practice malware analytics methodologies and
analysis on Windows, Android, or UNIX-based platforms.
- Coordinates effort to develop and analyze cyberspace operations, DCO, Computer Network
Exploitation (CNE), and OCO solutions.
- Creates malware detection topologies. - Possesses comprehensive knowledge of programming
skills especially including C/C++ and Assembly language, Windows internal C/C++ and either
UNIX/Linux or mobile (Android) platform, malware and things related to malware research and
analysis, reverse engineering, vulnerability analysis, exploit development, and related
disciplines.

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ORv3 / Modular Rack-Scale Compute Architecture

Describe a specific project where you architected or significantly contributed to a high-density compute system using ORv3 (Open Rack v3) or a similar open/modular rack standard. What were the key architectural decisions you made regarding power delivery, thermal management, mechanical integration, and scalability? What trade-offs did you evaluate, and what was the outcome?

Power & Thermal Co-Design at High Density

High-power-density edge compute (often 30–100+ kW per rack equivalent) requires tight integration between compute architecture and power/thermal systems. Describe a project where you led or drove co-design between compute hardware and power/thermal systems. What specific challenges arose, and how did you resolve them? How did this impact overall system performance or density?

Platform Integration & Ruggedization

This role requires deploying high-performance compute in shipboard or airborne environments (shock, vibration, EMI, temperature extremes, weight/volume constraints). Describe your experience designing, qualifying, or integrating compute systems for naval, airborne, or similarly demanding platforms. What standards or methods did you use, and what were the biggest technical hurdles you overcame?

Principal-Level Architecture Ownership

Tell us about a time you served as the principal technical authority for a complex compute or data center system. How did you define the overall architecture, make key trade-off decisions, and drive alignment across hardware, power, mechanical, software, and mission teams? What was the measurable impact of your architectural decisions?

High-Speed Interconnects & AI Workload Optimization

Modular edge AI compute requires high-performance interconnects (e.g., PCIe, CXL, Ethernet fabrics, NVLink, or custom fabrics) and optimization for AI workloads at the edge. Describe your experience designing or architecting high-speed interconnect fabrics or accelerator integration in dense compute systems. What considerations drove your choices, and how did you balance performance, power, and reliability?

Mission Alignment & Handling Extreme Constraints

Bastogne AI is building sovereign, resilient edge AI that must operate in denied or contested environments where traditional data center assumptions do not apply. Why does this specific challenge (modular, rugged, power-dense edge compute for naval and airborne platforms) interest you at a principal architect level? Describe a past project where you had to deliver high performance under severe constraints (power, thermal, size, reliability, or environmental). What approach did you take?

Security Clearance Information

Are You A United States Citizen? *

YesNo

Desired Pay *

Additional Information

Date Available *

Naval Power Standards & Real-World Application: Describe a specific project where you were personally responsible for designing or qualifying a high-power (≥100 kW) shipboard electrical power system that had to fully comply with MIL-STD-1399 (and ideall *

What were the biggest technical challenges you faced in power quality, EMI/EMC, or integration, and exactly how did you solve them? (Include any specific components, simulation tools, or test outcomes you drove.)

Modern Solid-State Power Density at Scale: Walk us through your hands-on experience designing MW-class (or high 100 kW-class) power conversion architectures using modern SiC and/or GaN devices, advanced transformers/rectifiers, and ORv3-level packaging o *

Airborne Platform Experience (Optional) Have you designed, integrated, or upgraded high-power electrical systems for airborne platforms such as the C-130J (or similar aircraft with ≥25 kW supplemental onboard power generation)?

If yes, detail your work with MIL-STD-704 power quality requirements, RTCA/DO-160 Section 16 (Power Input), generator/TRU integration, and any weight/altitude/vibration challenges you solved. If not, describe the closest equivalent high-reliability airborne or extreme-environment power work you have led.

Simulation & De-Risking Expertise: Which advanced simulation tools have you used for high-power system modeling (Altair preferred, but others acceptable)? *

Give a concrete example of a complex power architecture you simulated, the key insights or failures it revealed, and how those results directly influenced your final hardware design or qualification strategy.

Principal-Level Ownership & Cross-Team Impact: Tell us about a time you served as the principal technical authority on a high-power-density program spanning grid-side and load-side systems. How did you drive requirements, architecture decisions, and inte *

What was the measurable outcome in terms of power density, reliability, or deployment success?

Creative Problem-Solving in Constrained Environments: We explicitly seek engineers who are not “Mr. No.” Describe a situation in a defense, aerospace, or hyperscale energy storage project where you faced a seemingly impossible constraint (e.g., extreme s *

What creative, first-principles solution did you develop that others on the team initially thought was unfeasible?

Mission & Motivation Alignment: Beyond SOF is building sovereign, resilient MW-scale AI compute that must survive and operate at full performance on U.S. Navy floating platforms (and soon airborne) in fully denied/contested environments. Why does this sp *

Why does this specific power-density challenge excite you at a principal-engineer level, and how does your background make you uniquely positioned to own the entire roadmap for both naval and airborne systems?

Security level

What is your current Security Level?

Can you walk us through your experience leading IT strategy development and execution in a rapidly scaling organization, particularly one undergoing significant growth through acquisitions? What was your role in aligning IT with overall business objective

Describe a specific M&A technology integration you personally led. What challenges did you face in migrating disparate tech stacks to a unified platform, and how did you minimize disruptions while maximizing synergies?

How have you designed, optimized, and managed enterprise-wide Microsoft ecosystems (Azure, Office 365, Active Directory, Windows Server, Exchange, and related security tools) in complex, multi-entity environments? Provide concrete examples of infrastructu

Tell us about your experience building and leading information security programs from the ground up. Walk us through how you have handled risk assessments, compliance programs, incident response, and implementation of frameworks such as NIST or ISO 27001.

Have you worked with defense-contractor compliance requirements such as CMMC, ITAR, DFARS, or similar government standards? If so, describe how you ensured IT systems met these standards during periods of rapid growth or integration.

Describe a time when you evaluated and integrated AI, machine learning, or agentic tools (autonomous agents, automation workflows, etc.) into organizational processes. What was the measurable impact on efficiency, decision-making, or client services?

How have you built, scaled, and mentored a high-performing IT team in a remote, fast-paced environment? What specific strategies did you use to instill innovation, accountability, and continuous improvement?