Core Capabilities

TriVector’s senior leadership and engineering experts bring decades of highly successful, hands-on application of systems and aerospace engineering fundamentals, and we provide a wide range of technical and engineering services to our customers. Through our experience, performance, and value, we solve critical Customer challenges and deliver superior technical solutions.  Ultimately, our high-quality services ensure our customer’s mission success through the best engineering lifecycle fundamentals and proven experience.

TriVector’s expertise in the development of complex systems includes:

  • International Space Station: Nodes 2 and 3
  • Next Generation Interceptor (NGI)
  • Space Launch System (SLS):Core Stage, Field Programmable Gate Array, and Avionics Software
  • Hypersonics Glide Body Prototype
  • Human Landing Systems (HLS)
  • JAVELIN Block 1 Launcher and Missiles
  • STINGER Based Systems
  • AH-64 Apache Post Production Software

Artemis II Real-Time Mission Support

Artemis II required coordinated, real-time engineering support across launch, ascent, mission imagery, avionics, guidance, navigation and control, engine controller systems, and postflight data analysis. Mission teams needed disciplined console operations, rapid data interpretation, accurate status reporting, and timely coordination across NASA organizations to support launch readiness, mission execution, anomaly awareness, and follow-on reviews.

Our Experience

  • TriVector supported Artemis II through experienced NASA engineering personnel embedded across mission preparation, launch operations, and postflight review functions.

  • Our team contributed to ascent simulations, wet dress rehearsal activities, launch console operations, imagery integration, avionics support, RS25 Core Stage Engine Controller support, guidance backup responsibilities, and mission data review.

Our Performance

    • Supported launch and flight simulations, off-nominal scenario training, wet dress rehearsal activities, and real-time console operations across multiple technical disciplines.
    • Monitored SLS and data system health, supported countdown configuration, coordinated imagery activities, reviewed more than 200 imagery reportable events, and documented operational issues and lessons learned.

    • Following launch, supported quick-look analyses, reviewed RS25 flight data, assessed telemetry and timing data, and provided key inputs for postflight reporting.

    Our Value

      • Strengthened Artemis II mission execution through experienced engineering support, disciplined console operations, and responsive data analysis.

      • Helped NASA maintain real-time situational awareness, support technical decision-making, document mission performance, and capture lessons learned for Artemis III and future missions.

      Next Generation Interceptor

      Work with the Next Generation Interceptor (NGI) Gold program office, a competitive contract environment, for the Missile Defense Agency (MDA) to ensure that Critical Technology Elements (CTIs), Technical Performance Measures (TPMs), and Nuclear Radiation Survivability engineering assessments and schedule reviews all ensure that this high-cost and high-value work is on track and executing as planned.

      Our Experience

      • This work is currently being conducted by a team of program managers, test and evaluation, electrical, and systems engineers.

      Our Performance

      • Our work includes interfacing with the larger MDA community including Ground-based Midcourse Defense Subject Matter Experts (SMEs), and Technical Direction Agent (TDA) personnel working at various Federally Funded Research and Development Centers (FFRDCs) in technical interchanges with the prime contractor on engineering topics while considering how the engineering trades affects mass, performance, reliability, survivability, concept of operations (ConOps), and program cost and schedule.
      • TriVector’s engineering assessments include determining Technology Readiness Level (TRL) for new technologies that increase the likelihood of NGI intercepting targets.

      Our Value

      • TriVector SMEs have aided the NGI Gold Program Office with Earned Value Management (EVM) by participating in EVM meetings with the prime contractor and the subcontractors and interviewing the Cost Account Managers (CAMs) directly on design, prototype, and test efforts.
      • Specific engineering topics for which TriVector SMEs have made significant contributions are Nuclear Radiation Survivability, Sensors, Avionics, and Lethality.

      NASA Systems Engineering Space Launch System (SLS) Avionics Lab

      SLS avionics test labs generate large volumes of flight computer and lab timing data that must be precisely aligned for accurate analysis and requirements verification. Without a consistent, automated method for determining the lab clock time when SLS flight computer clocks cross T-0, engineers faced time-consuming manual analysis and potential inconsistencies across avionics test datasets and reports.

      Our Performance

      • We developed an algorithm to derive the time of the lab clock when SLS flight computer clocks cross T-0, with sub-millisecond accuracy (needed for precise data analyses).
      • Leveraging the relationship between timestamps on MIL-STD-1553 buses, we initially prototyped the algorithm as a macro, tested it among a small NASA group, and obtained buy-in from NASA leadership.
      • TriVector led Huntsville Operations Support Center (HOSC) and SLS Propulsion engineers to automate the solution as the standard reference for all test reports.

      Our Value

      • This solution automatically provides a consistent reference time for avionics test datasets from the various SLS avionics labs.
      • Standardizing and automating Lab T-0 has saved thousands of hours annually, thus expediting SLS avionics test analyses and requirements verification.
      • Jacobs management recognized TriVector’s technical accomplishments by announcing us as the winner of the Edwin F. Connors Award, awarded to for outstanding contributions by an individual or team that improves the quality of NASA support.

      Our Experience

      • This work was conducted and led by a Senior Systems Engineer and Project Manager SME on MIPSS SME.

      Digital Engineering Process Modernization

      Army Software Airworthiness activities require the review, tracking, analysis, and certification of complex software artifacts across multiple programs, stakeholders, and technical standards. As software systems become more advanced and fielding timelines become more compressed, traditional tracking and review processes can limit visibility into project status, suspense dates, analysis results, comments, urgent notifications, and tasker coordination.

      Our Experience

      • TriVector supports the Army Software Airworthiness Division by developing a digital engineering pilot dashboard and proof-of-concept digital process to modernize how software airworthiness work is tracked, analyzed, and communicated.

      • Our team applies software development, cloud architecture, Agile practices, API development, and model-based systems engineering to improve data visibility and coordination across SWAW activities
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      Our Performance

      • Developed a modern dashboard to display project progress, suspense dates, analysis results, comments, urgent notifications, required metadata, and SWAW Division Task Tracker System taskers.
      • Supported redesign of a mission-critical Army task tracking system using Microsoft Azure, RESTful APIs, microservices, and Agile methods to improve reliability, scalability, integration, and maintainability.

      • Used SysML/Cameo modeling to represent the SWAW process, dashboard interfaces, and API architecture connecting airworthiness artifacts, data, and tools.

      Our Value

      • Provides a practical steppingstone toward a next-generation software airworthiness digital engineering environment.
      • Improves visibility, strengthens data exchange, and supports Agile and DevSecOps approaches for future Army software development, qualification, certification, and fielding.

      • Helps the Army move toward a more efficient and accurate process for evaluating software artifacts against standards such as DO-178 and supporting timely, safe fielding of future software builds.

      Mission-Critical NASA Test Support

      NASA’s test and engineering operations require dependable support across specialized facilities, critical mission schedules, and time-sensitive science activities. Under METTS III, that work depends on skilled engineers and technicians who can maintain continuity, respond quickly to changing priorities, and support mission needs even under unusual operating constraints.

      Our Experience

      • TriVector supports METTS III through experienced engineering and technician personnel embedded across key Marshall Space Flight Center test and laboratory environments.

      • Our team contributes to environmental testing, structural dynamics, experimental fluid dynamics, aerodynamic research, impact testing, and specialized laboratory support.

      Our Performance

        • Supported NASA’s Science Mission Directorate BioPhysical Sciences ISS Electromagnetic Levitator Flight Experiment during the 2025 Government Shutdown.
        • Helped fabricate and ship critical samples for processing on the International Space Station, produced additional samples required for flight validation, and supported shipments to international partners.

        • Maintained continuity of work through documentation support, Acceptance Data Package preparation, and cross-training of new team members.

        Our Value

        • Strengthens NASA’s ability to sustain mission-critical testing, laboratory, and engineering activities with confidence.

        • Helps protect mission schedules, support continuity of critical science activities, and strengthen NASA’s partnerships with academic researchers and global collaborators.

        Multi-Core Processing Lab Software Airworthiness

        AAs Army aviation systems adopt more advanced embedded computing architectures, multi-core processors introduce new airworthiness challenges related to shared resource interference, timing behavior, determinism, and certification substantiation. Programs such as Apache, UH-60, and FLRAA require credible methods to evaluate processor behavior, document software risk, and support compliance with evolving guidance such as CAST-32A, AC 20-193, DO-178C, DO-254, and Army Military Airworthiness Certification Criteria.

        Our Experience

        • TriVector supports the Army Multi-Core Processing Artificial Intelligence Laboratory through embedded software development, test framework creation, software airworthiness assessment, and applied AI/ML research.
        • Our team develops C/C++ and Python-based tools, evaluates real-time operating systems and processor platforms, and conducts analysis across systems such as the NXP P4080, NXP T2080, and Xilinx UltraScale boards.

        • TriVector also supports Army aviation programs by reviewing airworthiness documentation, substantiation artifacts, interference analyses, timing reports, system safety assessments, and software development products

        Our Performance

        • Advanced the MCP Lab’s ability to evaluate multi-core processor behavior through repeatable test procedures, adversarial applications, interference test matrices, real-time data visualization tools, and analysis methods.
        • Supported AH-64 Apache MCP software airworthiness by helping define the airworthiness position for CAST-32A policy implementation, including recommendations for safe worst-case execution timing and shared resource compliance.

        • Contributed to UH-60V software airworthiness reviews, maintained the MCP Knowledgebase, supported CRADA activities, and authored or contributed to technical papers, guidance documents, and conference presentations

        Our Value

        • Strengthens the Army’s ability to assess, qualify, and safely integrate emerging multi-core and AI-enabled computing technologies into aviation systems.
        • Improves technical rigor, reduces certification uncertainty, and provides Government decision-makers with credible evidence for evaluating advanced mission computing architectures.

        • Positions the MCP Lab as a key resource for software airworthiness, multi-core processor certification, and future Army aviation modernization.