Materials & Plastics Engineering

Leads the people, programs, and budgets of materials science R&D — managing scientists who research, characterize, and optimize advanced materials (metals, alloys, polymers, ceramics, composites) using techniques such as XRD, SEM/TEM, mechanical testing, thermal analysis (DSC/EGA), surface analysis (XPS, AFM, EDS, SIMS, AES), and computational modeling (pymatgen, matminer, MAST-ML, pyMKS, ASE, DAMASK). Distinct from hands-on bench/IC characterization and from plastics/process focus areas: this management track is accountable for portfolio direction, resource and instrumentation allocation, safety compliance, cross-functional integration into product development, and securing funding rather than personally executing experiments.

9 leveled profiles. Pick a level to see the full profile.

Individual contributor

P2Plastics Engineering — P2

Designs and develops plastic and polymer components and the processes used to manufacture them. Distinct from broader Materials Engineering (metals, ceramics, composites) and from Tooling/Mold Design specialists in that this focus centers on polymer selection, plastics processing (injection molding, extrusion, thermoforming, blow molding), and Moldflow-driven validation of plastic part and process design from concept to production.

P3Plastics Engineering — P3

Designs and develops plastic and polymer components and the processes used to manufacture them. Distinct from broader Materials Engineering (metals, ceramics, composites) and from Tooling/Mold Design specialists in that this focus centers on polymer selection, plastics processing (injection molding, extrusion, thermoforming, blow molding), and Moldflow-driven validation of plastic part and process design from concept to production.

P4Plastics Engineering — P4

Designs and develops plastic and polymer components and the processes used to manufacture them. Distinct from broader Materials Engineering (metals, ceramics, composites) and from Tooling/Mold Design specialists in that this focus centers on polymer selection, plastics processing (injection molding, extrusion, thermoforming, blow molding), and Moldflow-driven validation of plastic part and process design from concept to production.

P5Plastics Engineering — P5

Designs and develops plastic and polymer components and the processes used to manufacture them. Distinct from broader Materials Engineering (metals, ceramics, composites) and from Tooling/Mold Design specialists in that this focus centers on polymer selection, plastics processing (injection molding, extrusion, thermoforming, blow molding), and Moldflow-driven validation of plastic part and process design from concept to production.

P6Plastics Engineering — P6

Designs and develops plastic and polymer components and the processes used to manufacture them. Distinct from broader Materials Engineering (metals, ceramics, composites) and from Tooling/Mold Design specialists in that this focus centers on polymer selection, plastics processing (injection molding, extrusion, thermoforming, blow molding), and Moldflow-driven validation of plastic part and process design from concept to production.

Management

M3Materials Science — M3

Leads the people, programs, and budgets of materials science R&D — managing scientists who research, characterize, and optimize advanced materials (metals, alloys, polymers, ceramics, composites) using techniques such as XRD, SEM/TEM, mechanical testing, thermal analysis (DSC/EGA), surface analysis (XPS, AFM, EDS, SIMS, AES), and computational modeling (pymatgen, matminer, MAST-ML, pyMKS, ASE, DAMASK). Distinct from hands-on bench/IC characterization and from plastics/process focus areas: this management track is accountable for portfolio direction, resource and instrumentation allocation, safety compliance, cross-functional integration into product development, and securing funding rather than personally executing experiments.

M4Materials Science — M4

Leads the people, programs, and budgets of materials science R&D — managing scientists who research, characterize, and optimize advanced materials (metals, alloys, polymers, ceramics, composites) using techniques such as XRD, SEM/TEM, mechanical testing, thermal analysis (DSC/EGA), surface analysis (XPS, AFM, EDS, SIMS, AES), and computational modeling (pymatgen, matminer, MAST-ML, pyMKS, ASE, DAMASK). Distinct from hands-on bench/IC characterization and from plastics/process focus areas: this management track is accountable for portfolio direction, resource and instrumentation allocation, safety compliance, cross-functional integration into product development, and securing funding rather than personally executing experiments.

M5Materials Science — M5

Leads the people, programs, and budgets of materials science R&D — managing scientists who research, characterize, and optimize advanced materials (metals, alloys, polymers, ceramics, composites) using techniques such as XRD, SEM/TEM, mechanical testing, thermal analysis (DSC/EGA), surface analysis (XPS, AFM, EDS, SIMS, AES), and computational modeling (pymatgen, matminer, MAST-ML, pyMKS, ASE, DAMASK). Distinct from hands-on bench/IC characterization and from plastics/process focus areas: this management track is accountable for portfolio direction, resource and instrumentation allocation, safety compliance, cross-functional integration into product development, and securing funding rather than personally executing experiments.

M6Materials Science — M6

Leads the people, programs, and budgets of materials science R&D — managing scientists who research, characterize, and optimize advanced materials (metals, alloys, polymers, ceramics, composites) using techniques such as XRD, SEM/TEM, mechanical testing, thermal analysis (DSC/EGA), surface analysis (XPS, AFM, EDS, SIMS, AES), and computational modeling (pymatgen, matminer, MAST-ML, pyMKS, ASE, DAMASK). Distinct from hands-on bench/IC characterization and from plastics/process focus areas: this management track is accountable for portfolio direction, resource and instrumentation allocation, safety compliance, cross-functional integration into product development, and securing funding rather than personally executing experiments.