About the role
Lace Lithography is seeking a talented and experienced Senior Automation Engineer to join our Instrumentation Control team in Bergen. In this role, you will lead the introduction and development of a robust industrial automation layer for our laboratory and production systems, strengthening system control, operational reliability, and fail-safe behavior. As our lithography platform grows, we are strengthening the automation and control infrastructure required for reliable, safe, and scalable system operation. This role will contribute to the design and implementation of robust industrial control solutions, including equipment coordination, monitoring, interlocks, alarm handling, and fail-safe mechanisms. This is not a narrowly defined PLC programming role. You will help determine where industrial automation adds the most value, define clean interfaces between PLCs and higher-level software, and contribute to an architecture that can evolve as our technology and roadmap mature. The ideal candidate brings hands-on PLC experience together with the ability to contribute in a general-purpose programming language such as Rust or Python. This is a high-impact position suited to an engineer who is comfortable moving between architecture, implementation, commissioning, and hands-on troubleshooting of complex physical systems. You will work closely with physicists, electrical engineers, and hardware developers to build automation systems suitable for high-reliability laboratory and semiconductor environments. Key
Responsibilities This list is not exhaustive; additional duties may be assigned as needed. Automation Architecture: Define and evolve the PLC-based automation layer for Lace’s instrumentation systems, establishing clear
responsibilities and interfaces between industrial controllers, embedded devices, and higher-level software. PLC and Control Logic Development: Design, implement, test, and maintain PLC applications for equipment sequencing, subsystem coordination, interlocks, alarms, diagnostics, and controlled recovery from faults. Hardware-Software Integration: Build reliable interfaces between PLC systems and the wider control platform using appropriate industrial communication protocols, APIs, and data models while preserving modularity and technology flexibility. System Integration and Commissioning: Lead hands-on integration, commissioning, validation, and troubleshooting of automated subsystems involving sensors, actuators, motion systems, instrumentation, and supporting equipment in the Bergen lab. Testing and Reliability: Establish automated testing, simulation, hardware-in-the-loop testing, failure-injection approaches, and commissioning procedures that improve the reliability and maintainability of the control system. Technology Evaluation and Roadmap: Evaluate PLC platforms, industrial automation technologies, and architectural options. Help define a pragmatic long-term roadmap without prematurely locking the organization into a single technology or vendor. General Software Development: Bridge the gap between industrial controllers and higher-level systems by writing, reviewing, and maintaining code in general-purpose languages (such as Rust or Python), ensuring seamless data exchange and robust API design.
