In this episode, discuss how big of a problem lead contaminated water still is across the world and how a collaboration between MIT & Nanyang University plans to tackle it with a highly accurate and inexpensive water pollution sensor.
Using an ultrasensitive photonic crystal, TU/e researchers were able to detect single particles down to 50 nanometers in diameter. The new research has just been published in the journal Optica.
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.
Explore the future of photonic-enabled systems, system-level engineering, and join PhotonDelta's challenge to rethink photonic design, integration, and real-world applications.
Direct Retinal Projection (DRP) technology eliminates vergence-accommodation conflict, delivering focus-free, high-resolution AR and VR experiences with unmatched comfort, clarity, and optical efficiency.
Focused laser-like light that covers a wide range of frequencies is highly desirable for many scientific studies and for many applications, for instance quality control of manufacturing semiconductor electronic chips.
Explore the future of photonic-enabled systems, system-level engineering, and join PhotonDelta's challenge to rethink photonic design, integration, and real-world applications.
In this episode, discuss how big of a problem lead contaminated water still is across the world and how a collaboration between MIT & Nanyang University plans to tackle it with a highly accurate and inexpensive water pollution sensor.
Using an ultrasensitive photonic crystal, TU/e researchers were able to detect single particles down to 50 nanometers in diameter. The new research has just been published in the journal Optica.
Physicists from ITMO University have created an AI-based solution to make quantum states remain stable for longer for the processing, reliable recording, and storage of information. This study, described in a recent article in Applied Physics Letters, may help pave the way to quantum computers.
The researchers developed a light-based means of printing nano-sized metal structures that is 480 times faster and 35 times cheaper than the current conventional method.
Lights could soon use the full color suite of perfectly efficient organic light-emitting diodes, or OLEDs, that last tens of thousands of hours, thanks to an innovation from physicists and engineers at the University of Michigan.
There are times when scientific progress comes in the form of discovering something completely new. Other times, progress boils down to doing something better, faster, or more easily.
Lasers have become relatively commonplace in everyday life, but they have many uses outside of providing light shows at raves and scanning barcodes on groceries. Lasers are also of great importance in telecommunications and computing as well as biology, chemistry, and physics research.
Integrated photonics, also known as planar lightwave circuits or integrated optical circuits, revolutionizes optical communication by leveraging the properties of light to process and transmit information. This cutting-edge technology offers superior efficiency and compactness compared to traditional electronic components, paving the way for faster and more energy-efficient communication systems. With its interdisciplinary nature encompassing materials science, quantum physics, and electrical engineering, integrated photonics presents an exciting and promising field of study and research in today's digital era.
Photonic time crystals, whose properties change periodically, promise significant advances in microwave technology, optics and photonics. Researchers at the Karlsruhe Institute of Technology (KIT), together with partners at Aalto University and Stanford University, have now produced a two-dimensional photonic time crystal for the first time and demonstrated important applications.
We proclaim 2022 The Year of Innovation. In this "End of the Year" list we highlight 25 Campus high-tech, innovative companies, including multi-nationals, startups, scale-ups and everything in-between. These are companies of the future, and they’re all here at HTCE.