Photon Design’s Laser Design Course Now Part of Cardiff’s Physics Curriculum

Why It Matters

The course equips future engineers with industry‑grade photonics skills, shortening the talent gap and accelerating laser product development across the sector.

Key Takeaways

• Photon Design adds two‑day laser course to Cardiff physics program.
• Students use FIMMPROP EME tool, cutting simulation time to seconds.
• PICWave enables 3D, time‑evolving laser modeling in coursework.
• Course produces manufacturable laser designs within two days.
• Partnership supplies real‑world feedback for next‑gen simulation tools.

Pulse Analysis

Integrating commercial photonic CAD tools into university curricula addresses a long‑standing skills shortage in the high‑growth laser market, which is projected to exceed $30 billion globally by 2030. By offering a structured two‑day module, Cardiff University gives physics students immediate exposure to industry‑standard workflows, bridging the gap between theory and production. This hands‑on approach not only enriches the academic experience but also creates a pipeline of engineers ready to contribute to startups and established manufacturers seeking rapid prototyping capabilities.

The technical edge of Photon Design’s EigenMode Expansion (EME) engine lies in its ability to deliver accurate mode‑solving results in seconds, a stark contrast to the hours required by traditional finite‑difference time‑domain (FDTD) methods. For laser designers, this speed translates into dramatically shorter design cycles, enabling iterative optimization of components such as MMIs, ring resonators, and tapered waveguides. The inclusion of PICWave further extends the workflow to three‑dimensional, time‑evolving simulations that capture thermal and carrier dynamics, essential for next‑generation high‑power and quantum‑dot lasers. Companies that adopt these tools can reduce time‑to‑market and lower R&D costs, a competitive advantage in a sector where innovation cycles are tightening.

Beyond student training, the partnership creates a feedback loop that informs Photon Design’s product roadmap. Real‑world academic use cases surface edge‑case scenarios and performance benchmarks that might not emerge in purely commercial testing. This collaborative data stream accelerates the refinement of simulation algorithms, ensuring the tools stay ahead of emerging photonic architectures. As the UK government continues to invest in photonics research hubs, such university‑industry alliances are likely to proliferate, fostering a vibrant ecosystem that supports both talent development and technological advancement.