• Responsible for the Imaging Science Radiography team; manage facilities, day-to-day testing activities, product certification, and personnel development.• Constructed a lead shielded radiography facility and control room in collaboration with multiple engineering construction firms and validated two industrial X-ray systems.• Assessed image quality and performed root cause analysis of image artifacts for an industrial flexible digital detector array utilized for curved applications.• Project manager and lead design engineer for two new high resolution computed radiography imaging plates.

• United States patent for a high dynamic range dual energy imaging software method to extend the dynamic range of flat panel detectors.• Executed three-dimensional imaging with medical cone beam computed tomography (CBCT) and digital tomography (DT) systems for aerospace applications.• Directed image quality analysis and radiation hardness testing for new industrial digital detector array flat panels.• Extensive X-ray and radioisotope radiography for image processing software improvements and designed field capable bad pixel mapping software.

• Published exposure factors for Carestream digital radiography systems exposed with selenium, iridium, and cobalt radioisotopes.• Executed radiation hardness testing and evaluated detective quantum efficiency of various scintillator options for a new industrial 35x43 cm 139 um pixel pitch digital detector array a-Si flat panel. • Conducted sixty-three industrial radiography classroom-training classes for five-hundred and seventy students.• Created course content and implemented a DICONDE industrial data storage archive training class.• Developed worldwide industry relationships through sales support, customer interaction, and product demonstration.

• Lab supervisor and commercialization leader for a team of engineers and technicians, responsible for the development of medical and industrial computed radiography imaging plates. • Introduced new titanium dioxide polyethylene terephthalate support for a gadolinium oxysulfide scintillator utilized for digital radiography detectors. Achieved equivalent detective quantum efficiency relative to best in class competitive product for cost savings.• Improved the detective quantum efficiency image quality metric for a high-resolution computed radiography mammography plate product via phosphor process modification. The commercialization effort was business and time critical, resulting in best in class product performance. Directed the product technology development activities for the project team.• Established sigma level and first pass yield for existing phosphor manufacturing process. Conducted nested design across all functional processes to create a variance budget. Followed DMAIC process to implement quality process improvements onto the phosphor factory shop floor.• Team leader for a dispersion rheology crisis team. Quickly determined that the root cause for viscosity degradation was a complex alumina and iodide chemical interaction. Added viscosity stabilizers to mitigate the rheological concerns.• Determined the mechanism for seasonal customer returns due to artifact defects. Demonstrated that oxidants resulted in more relative artifacts at low humidity conditions.