PhotonDelta launches PIC imaging engineering contest
The initiative invites engineers to develop next-generation imaging systems using photonic integrated circuits, targeting applications such as LiDAR, AR and medical diagnostics.
PhotonDelta has launched the Global Photonics Engineering Contest 2026, inviting engineers and researchers to develop new imaging technologies built around PICs.
The initiative aims to encourage the photonics community to rethink how imaging systems can be designed using integrated photonic platforms, enabling smaller, more energy-efficient and scalable solutions.
Imaging technologies play a critical role across scientific discovery, healthcare and everyday applications. However, many current imaging systems remain bulky and expensive, limiting their accessibility.
By integrating optical components such as lasers, detectors and waveguides onto a single chip, PICs offer the potential to dramatically reduce the size, cost and energy consumption of advanced imaging platforms.
PhotonDelta highlighted several key applications where integrated photonics could transform imaging capabilities.
In autonomous vehicles, PIC-based systems are already enabling compact solid-state LiDAR solutions by replacing mechanical scanning with optical phased arrays.
In consumer technology, integrated photonics could support lightweight Augmented Reality glasses through on-chip RGB laser modules and compact holographic projection systems.
In healthcare, photonic chips are also expected to play a role in miniaturising diagnostic imaging technologies such as Optical Coherence Tomography, enabling portable and potentially lower-cost devices for point-of-care diagnostics.
Despite this progress, challenges remain around fabrication precision, optical losses and integration complexity.
Through the competition, PhotonDelta hopes to encourage engineers to tackle these challenges and develop scalable PIC-based imaging architectures.
The contest forms part of PhotonDelta’s broader effort to accelerate innovation in integrated photonics and expand the range of applications enabled by photonic chips.
