PhotonVentures explains how venture capital investors assess photonic chip startups, focusing on scalability, ecosystem alignment, and market readiness. They highlight key signals of investment readiness and the role of early validation opportunities like the Global Photonics Engineering Contest.
Indium phosphide (InP) enables fully integrated photonic chips with high performance and efficiency. As an InP foundry, SMART Photonics supports the transition from design to scalable production through mature platforms and proven design flows.
How can photonic integrated circuits push the limits of sensing systems? Join PhotonDelta's Global Photonics Engineering Contest and develop sensing technologies of the future.
Photoresist, a light-sensitive material, is essential in photolithography for transferring intricate circuit patterns onto semiconductor wafers. This article explores positive vs. negative photoresists, detailing their chemical mechanisms, processing parameters, and performance traits.
PhotonVentures explains how venture capital investors assess photonic chip startups, focusing on scalability, ecosystem alignment, and market readiness. They highlight key signals of investment readiness and the role of early validation opportunities like the Global Photonics Engineering Contest.
Indium phosphide (InP) enables fully integrated photonic chips with high performance and efficiency. As an InP foundry, SMART Photonics supports the transition from design to scalable production through mature platforms and proven design flows.
How can photonic integrated circuits push the limits of sensing systems? Join PhotonDelta's Global Photonics Engineering Contest and develop sensing technologies of the future.
PhotonVentures explains how venture capital investors assess photonic chip startups, focusing on scalability, ecosystem alignment, and market readiness. They highlight key signals of investment readiness and the role of early validation opportunities like the Global Photonics Engineering Contest.
Indium phosphide (InP) enables fully integrated photonic chips with high performance and efficiency. As an InP foundry, SMART Photonics supports the transition from design to scalable production through mature platforms and proven design flows.
How can photonic integrated circuits push the limits of sensing systems? Join PhotonDelta's Global Photonics Engineering Contest and develop sensing technologies of the future.
PhotonVentures explains how venture capital investors assess photonic chip startups, focusing on scalability, ecosystem alignment, and market readiness. They highlight key signals of investment readiness and the role of early validation opportunities like the Global Photonics Engineering Contest.
Indium phosphide (InP) enables fully integrated photonic chips with high performance and efficiency. As an InP foundry, SMART Photonics supports the transition from design to scalable production through mature platforms and proven design flows.
How can photonic integrated circuits push the limits of sensing systems? Join PhotonDelta's Global Photonics Engineering Contest and develop sensing technologies of the future.
A new technique using ultrasound waves to activate light-emitting nanoparticles could be used to manipulate cell signals or facilitate light-based medical treatments in the future.
Datacom and AI infrastructure demands are rapidly driving the growth of integrated photonics. Philippe Soussan from imec explains his perspective on the recent developments and how he expects the industry to evolve in the next few years.
Learn how compact methane sensors use TDLAS, 1.6 µm detection, and InGaAs photodiodes to deliver stable, repeatable sub-ppm CH₄ measurements in industrial environments.
Light-emitting structures that curl off the chip surface could enable advanced displays, high-speed optical communications, and larger-scale quantum computers.
Caltech scientists have developed a way to guide light on silicon wafers with low signal loss approaching that of optical fiber at visible wavelengths.
Learn how photonic integrated circuits are reshaping the future of imaging, and why PhotonDelta is inviting engineers to rethink how PICs can tackle imaging challenges of today and power the next generation of innovation.
Researchers at ETH Zurich and the University of Basel have succeeded in changing the polarity of a special ferromagnet using a laser beam. In the future, this method could be used to create adaptable electronic circuits with light.
Explore the future of photonic-enabled systems, system-level engineering, and join PhotonDelta's challenge to rethink photonic design, integration, and real-world applications.