Facilities Mechanical Engineer (South Portland, ME)

• Make engineering decisions that balance safety, reliability, cost, capacity, and operational efficiency
• Lead the analysis, design, and continuous improvement of mechanical utility systems, including exhaust, air, thermal, and vacuum systems
• Provide engineering technical support for system operations, maintenance, troubleshooting, and incident response
• Develop and maintain key system documentation, including P&IDs, process flow diagrams, operating procedures, and sequences of operation
• Drive reliability and risk-based engineering through root cause analysis, FMEAs, system assessments, and improvement roadmaps
• Partner with operations, maintenance, manufacturing, EHS, and engineering teams to improve system performance and safe operation
• Mentor engineers and technicians while strengthening overall team technical capability

• Lead capital and expense projects for system upgrades, expansions, and optimization initiatives from concept through startup and handoff
• Define project scope, priorities, schedules, resources, and success measures, and drive execution to plan
• Coordinate design, procurement, construction, commissioning, and startup activities to ensure systems perform as intended
• Facilitate alignment across engineering, operations, supply chain, and external partners throughout project execution
• Identify and manage project risks, change control, and implementation issues to minimize operational impact
• Report project progress, results, and lessons learned to leadership

Texas Instruments will not sponsor job applicants for visas or work authorization for this position.

• Bachelor’s degree in Mechanical Engineering or a related engineering field
• 5 years of relevant engineering experience

• Capital or expense project leadership for semiconductor mechanical utility systems
• Strong background in semiconductor facility mechanical systems including:
  • Exhaust systems (acid, caustic, and VOC abatement)
  • Cleanroom air handling and HVAC systems
  • Thermal systems (boilers, hot water, chillers, and process cooling water)
  • Vacuum systems (process and house vacuum)
• Advanced troubleshooting, root cause analysis, FMEA, and reliability engineering experience
• Performance metrics, dashboards, and data analysis for system optimization
• Cross-functional partnership across facilities, manufacturing, EHS, process engineering, and maintenance
• Understanding of basic control systems principles (sensors, controllers, actuators) to design, analyze, and optimized automated behavior of mechanical processes