A research team from City University of Hong Kong has developed innovative packaging material solutions using patented chemical additives to control material microstructures. This approach aims to improve the performance and production efficiency of advanced 3DIC packaging, enabling faster and more reliable connections in stacked chips.
Celestron NexStar 8SE Computerized Telescope
Celestron NexStar 8SE Computerized Telescope combines portable Schmidt-Cassegrain optics with GoTo pointing for outreach nights and field campaigns.
Researchers have developed a smart contact lens capable of implementing AR-based navigation using a novel electrochromic display technology. The device uses Prussian blue to display directions to the user in real-time, overcame limitations of existing AR devices.
Researchers have developed a new electrochemical technique for printing metal objects at the nanoscale, achieving resolutions of up to 25 nanometres in diameter. This technology has vast potential applications in fields like microelectronics, sensor technology, and battery production.
Researchers at Empa develop high-performance watch springs through electroplating, enabling improved accuracy and long-term stability. The team's goal is to master the process of miniaturization and understand its effects on material properties.
Scientists at University of Bristol develop new approach to monitor early stages of electrodeposition with nanometer resolution. By detecting subtle changes in water structure, they can track the formation of a metallic nucleus in real time.
Electroplating enables the production of high-quality, high-performance battery materials, opening doors to flexible and solid-state batteries. The new method bypasses traditional powder and glue processes, resulting in 30% more energy storage and faster charging.
Apple iPhone 17 Pro
Apple iPhone 17 Pro delivers top performance and advanced cameras for field documentation, data collection, and secure research communications.
Researchers developed a novel fabrication method combining 3D printing and electroplating to produce complex metallic structures for molecular beam-splitting. This approach enables the creation of high-voltage electrodes with impeccable surface properties and precision alignment, overcoming previous fabrication problems.