• Design validation systems and components for research and development projects of aircraft motors, gearboxes, bearings and driveshaft systems. Generate 3D models in Catia, produce all engineering drawings with appropriate GD&T, notes and engineering specifications. • Oversee assembly of test system, driveshaft alignments, and testing operation. Ensure project runs on schedule and within budget through completion.• Responsible for post test documentation, analysis and recommendations based on test results.

• Lead engineer for engineering projects through entire project lifecycle, including assessment, design/build/qualify, analysis, validation, verification, and commercialization. Review customer requirements for mechanical and hydraulic systems and design appropriate systems to meet customer needs. Produce tool design including all engineering analysis, calculations, documentation and engineering drawings complete with all Geometric Dimensioning and Tolerances (GD&T). Responsible for developing all assembly, operation and disassembly procedures for designed systems. Multiple mechanical systems designed and validated through development testing to date. Customer’s report 100% successful operation of mechanical systems in field for all systems designed to date as well as integration with other mechanical and hydraulic systems.• Generate engineering models and drawings using SolidWorks and creating complete Bill of Materials. • Oversee system requirement reviews, preliminary design reviews, critical design reviews, and final design reviews. • Conduct Risk Analysis meetings, Technology Readiness Level analysis, verification reviews, Root Cause and Failure Analysis reviews. Complete Change Point Analysis or Failure Mode and Effects Analysis for all new mechanical systems designed.• Developing validation test plans, procedures and performing component, full scale and system integration tests. Overseeing proper assembly of mechanical systems during validation, validation tests, and generating full validation test reports. Responsible for engineering decisions pertaining to design for manufacturing and assembly.

• Managed a fast track lifecycle engineering project from the assessment stage through definition, design/build/qualify, verification, validation, and commercialization.• Designed a tool not previously in the Halliburton Completion Tools suite. Performed engineering calculations for pressure, temperature, static and dynamic loading analysis, and assembled the complete bill of materials.• Conducted concept, detailed, final design reviews and verification readiness reviews.• Wrote verification test procedures. Performed full scale validation tests. • Wrote full test reports and completed final design review. Final tool validated at all testing points and met customer budget, schedule and technical requirements.• Completed Failure Mode and Effects Analysis and Design for Manufacturing and Assembly Analysis.

• Managed engineering projects involving design, validation, testing, procurement, manufacturing and deployment.• Redesigned company parts to improve manufacturing processes and produce company savings of over $50,000 annually.• Designed innovative products/features to enhance company technology and competitiveness. Modeled parts in Siemens NX.• Ensured the highest standards of safety were maintained for all people impacted by new designs and processes.• Designed mechanical systems to simulate downhole stick-slip with multiple degrees of freedom. • Performed short notice quality control analysis using the ATOS light scan technology.

Engaged in research for ion selective electrodes use in optimizing Navy submarine Impressed Current Cathode Protection systems. Manufacture Na+, Ca++, SO4-- selective electrodes and perform electrochemical and potentiometric measurement experiments to determine electrode potential as a function of ion concentration in selective ions as well as sea water.

Fabricate Uranium Fuel Pellets in argon filled glove box with dye and high pressure hydraulic press. Perform Laser Flash Analysis (LFA) on fuel pellets and determine thermal diffusivity as a function of temperature. Analyze potential issues with pellet design and identify possible solutions