Designing Integrated Excitation Platforms: A System-Level Perspective

Modern excitation, positioning, and imaging platforms support a wide range of applications—from biological analysis to materials inspection and semiconductor metrology—combining demanding optical performance with motion, controls, electronics, software, and manufacturing constraints. Yet these systems are often designed as independent subsystems, with early decisions made within individual disciplines. The result is a familiar industry challenge: hidden coupling that remains invisible until integration, limiting performance, stability, and throughput as platforms scale.

This talk presents a system-level design approach that treats excitation, positioning, and imaging as a unified architecture. By aligning optical, mechanical, control, and manufacturing decisions early, teams can reduce integration risk, preserve flexibility, and avoid costly redesigns. Attendees will gain practical lessons in identifying cross-disciplinary coupling, avoiding irreversible early trade-offs, and designing high-performance platforms that remain robust, buildable, and resilient over time.

About the presenter
Andrew Carson is a senior engineering leader specializing in integrated excitation, sample positioning, and imaging systems. His experience spans laser delivery and photon collection architectures from the deep UV through the IR, with hands-on involvement across the full product lifecycle—from early concept and system architecture through design for manufacturing, installation, and field support. He works on complex, multidisciplinary systems where optics, mechanics, electronics, controls, software, and manufacturing are tightly coupled, and where early architectural decisions have disproportionate impact on long-term performance and viability.

His focus is on holistic, system-level design approaches that align performance, scalability, reliability, and manufacturability, enabling advanced instruments to transition successfully from prototypes into robust, deployable systems across a wide range of applications.