⚡ AI & Knowledge Graph Ontologies
Leveraging Large Language Models (LLMs), attention mechanisms, and Grakn/Neo4j knowledge graphs to automate static code analysis and mission after-action reports.
Pairing hardware, software, and advanced data algorithms for rapid product innovation. From AI vulnerability classification and Tactical Assault Kit (TAK) Starshield HWIL integration to embedded health sensors, autonomous drone simulation, and deep-sky astrophotography deconvolution.
Exceptional technical leadership bridging experimental physics, hardware engineering, and computational AI.
With a Bachelor of Science in Physics from the University of Alabama in Huntsville (UAH), I bring a rigorous first-principles mindset to every engineering challenge. I excel at unifying physical hardware, embedded streaming devices, and scalable cloud data pipelines with state-of-the-art AI architecture.
Whether designing 3D-printed over-ear heart rate monitors, reducing vulnerability assessments from weeks to days with C++ Abstract Syntax Tree RAG pipelines, integrating TRL 7 & 9 military hardware into the Tactical Assault Kit (TAK) over Starshield satellite C2, or capturing celestial deconvolution data from deep space, I thrive where physical reality meets computation.
Beyond technical execution, I am deeply passionate about mentoring young professionals—including leading intern engineering teams to build autonomous AI drone simulation engines from scratch—sharing project coding templates, and guiding future data scientists.
Leveraging Large Language Models (LLMs), attention mechanisms, and Grakn/Neo4j knowledge graphs to automate static code analysis and mission after-action reports.
Integrating TRL 7 & TRL 9 hardware into TAKX/PyTAK over Starshield, 3D-printed embedded biosensors, and autonomous drone computer vision surveillance.
Amateur astrophotography specializing in point spread function (PSF) correction, multi-scale AI noise reduction, and signal-to-noise optimization across deep galactic fields.
Comprehensive proficiency spanning hardware sensors, AI systems, cloud infrastructure, and computational imaging.
Innovative systems developed across defense, hardware-in-the-loop, autonomous flight simulation, medical sensors, and deep space imaging.
Served as Technical Lead for US Army Threat Systems Management Office (TSMO) initiatives, securing $2.7M in additional funding following successful C2 TSMO asset deployment over Starshield. Integrated TSMO hardware at TRL 7 & TRL 9 into the Tactical Assault Kit (TAK). Executed high-stakes government demonstrations of the TAKX (Java) plugin to command and control EWA and Motorola assets over Starshield via a custom PyTAK translation layer. Built an AI After Action Report engine utilizing autonomous LLM agents inside TAK Chat to synthesize mission engagements.
Served as Technical Lead for an enterprise AI Drone Simulation program guiding intern engineering teams from mission planning through autonomous flight execution. Engineered end-to-end simulation workflows where virtual drones autonomously navigate complex terrain using A* (A-Star) pathfinding, identify critical points of interest via real-time computer vision, and leverage multi-modal LLMs to maneuver, surveil, and automatically generate comprehensive post-mission reconnaissance reports.
Reduced evaluation of vulnerable software from weeks to days by pairing AI Large Language Models (LLMs) with knowledge graph ontologies. Ingests SwA static code analysis results to automatically classify vulnerabilities. Designed an LLM attention-aided RAG framework prompted directly by C++ Abstract Syntax Trees (AST) and Code Property Graphs.
Engineered a cost-effective, high-precision photoplethysmographic (PPG) monitor to measure cerebral blood flow dynamics. Designed a lightweight, ergonomic 3D-printed over-ear form factor enclosing continuous Bluetooth Low Energy (BLE) streaming on a custom minimal embedded Arduino device powered by lithium-ion battery. Paired with a bespoke Kotlin Android app displaying real-time PPG signals.
Led development of MAVRC, a same-day dashboard for comprehensive analysis of Digital and Hardware-in-the-Loop (HWIL) evaluations across the MDS kill chain. Built robust ETL processes from AWS S3 Elasticsearch into an OOP analysis framework featuring Bokeh visualization. Researched and implemented Fréchet distance minimization and DBSCAN clustering to pair trajectories via open-source propagation.
Led the OPEX team solving single-sensor 4-parameter motion solution ambiguity using Convolutional Neural Networks (CNN) to drastically reduce target uncertainty. Analyzed Measures of Performance against DIHD truth trajectories for Integrated Performance Reviews. Demonstrated Grakn AI knowledge graph integration coupled with CNNs for contextual scene-based reasoning across complex engagements.
Reverse engineered object classification for GMD sensors in Python, delivering the complete analysis product and briefings to government Tech Fellows. Developed a reusable, high-performance file browser interface for viewing and plotting multi-dimensional data in HDF files. Refactored legacy tools to Python, creating standardized parsers running 5x faster than previous implementations.
Capturing the cosmos: where precision optical tracking meets computational AI deconvolution.
With my ongoing astronomical pursuits, I honed deep-sky object acquisition techniques using motorized equatorial tracking mounts to ensure sub-arcsecond celestial targeting precision.
Because raw deep-sky photons are buried under atmospheric noise and optical distortion, my post-processing workflow treats astrophotography as a rigorous physical signal-to-noise optimization problem:
A proven track record of technical leadership across defense, aerospace, autonomous systems, and commercial AI.
Leading AI LLM prompt engineering and knowledge graph ontologies for VET (Vet Enhancement Tool). Ingesting SwA static analysis results from Cyber teams to automatically classify vulnerabilities, reducing analysis time from weeks to days. Developed C++ AST attention-guided RAG frameworks and delivered self-contained offline Docker CI/CD pipelines.
Served as Technical Lead for US Army TSMO programs, securing $2.7M in additional funding following successful C2 TSMO asset deployment over Starshield. Led integration of TSMO hardware at TRL 7 & TRL 9 directly into the Tactical Assault Kit (TAK). Executed government demonstrations of TAKX (Java) plugins controlling EWA and Motorola assets via a custom PyTAK translation layer. Developed an automated AI After Action Report engine utilizing autonomous LLM agents inside TAK Chat.
Served as Technical Lead for an AI Drone Simulation initiative, mentoring and guiding intern engineering teams from mission planning through autonomous flight execution. Engineered simulation pipelines where autonomous drones navigate via A* (A-Star) pathfinding, identify critical points of interest using real-time computer vision, and leverage multi-modal LLMs to maneuver, surveil, and automatically generate structured post-mission reports.
Spearheaded development of 'Maverick' (MAVRC), a same-day analytics dashboard evaluating the MDS kill chain. Created automated ETL pipelines from AWS S3 Elasticsearch into object-oriented Python frameworks with Bokeh plotting. Optimized Fréchet distance metrics and DBSCAN clustering algorithms to pair and analyze complex flight trajectories.
Dedicated sabbatical focused on mastering high-precision optical astrophotography, computational point spread function deconvolution, multi-scale noise reduction, and advanced stellar processing techniques.
Led the Object Pattern EXtractor (OPEX) team resolving 4-parameter motion solution ambiguities using deep Convolutional Neural Networks. Evaluated and briefed OPEX Measures of Performance against DIHD truth trajectories for executive reviews. Integrated Grakn AI knowledge base graphs with CNNs to enable contextual scene reasoning.
Reverse engineered object classification algorithms for GMD sensors in Python, briefing senior government Tech Fellows. Supported Lockheed Martin Aegis and UEWR CD BIT contracts at COLSA Advanced Research Center. Developed custom HDF multi-dimensional data file browsers and refactored legacy parsers for a 5x processing speedup. Selected as Honorary Junior Tech Fellow (2017–2018) across cross-functional subject matter experts.
Developed comprehensive analysis toolsets and plots for AN/TPY-2 (FBM) Focus Search Plan (FSP) and Threat Acquisition evaluations. Created post-mission trajectory linkages and 3D globe search plans for high-level executive briefings (GTI-04e Part 2).
Designed reliable data collection software extracting device logs from Motorola radios and network interfaces. Created robust MD5 checksum data management algorithms, automating a 4-hour weekly manual procedure into a 4-minute execution.
Education: B.S. in Physics (Graduated Spring 2013).
Research Assistant (CSPAR): Developed optimized searching algorithms for
current sheet structures within solar wind plasma. Analyzed ~11,400 structures across ACE,
Helios, Ulysses, and WIND spacecraft, proving them as boundaries between flux tubes and
sources of intermittent electromagnetic turbulence throughout the Heliosphere.
Continuous learning and cutting-edge data science mastery.
Mastery of Palantir Foundry data engineering pipelines, Ontology architecture, and Artificial Intelligence Platform (AIP) application building for enterprise data ecosystems.
Accelerated data science and machine learning workflows within Palantir systems, focusing on rapid data modeling, predictive modeling, and operational deployment.
Comprehensive mastery of enterprise ethical AI frameworks, security risks, regulatory compliance standards, and risk mitigation policies for generative AI deployments.
Advanced mathematical regression techniques, bias-variance tradeoffs, feature selection algorithms, ridge/Lasso regularization, and predictive linear algorithms.
Hands-on implementation of machine learning models across real-world case studies including sentiment analysis, clustering, deep learning architectures, and recommender systems.
Selected by corporate leadership to join an elite cross-functional council of subject matter experts collaborating across defense programs to solve critical, complex technical bottlenecks.
Published in The Astrophysical Journal (2013). Systematic mathematical structure function analysis of Magnetohydrodynamics across 11,400+ current sheets from interplanetary spacecraft data (ACE, Helios, Ulysses, WIND), demonstrating electromagnetic intermittent turbulence throughout the Heliosphere.
Open for technical leadership consulting, AI architecture discussions, astrophotography collaborations, and mentorship.
Whether you are looking to accelerate an AI product timeline, discuss hardware sensor challenges, or share astrophotography tips under the Huntsville dark skies, feel free to reach out across any of my active networks: