Semiconductor Review : News

Electronics manufacturers across the Asia-Pacific (APAC) region continue to expand production as demand grows for efficient and reliable components. Power management, industrial automation, electric mobility and consumer electronics all depend on components that deliver consistent performance under different operating conditions. Among the technologies supporting that growth, semiconductor discrete devices remain essential because they control, regulate and protect electrical circuits. Continued investment in design, manufacturing and materials reflects the region's focus on improving performance while meeting changing industry requirements. Which Technologies Improve Device Performance? Power efficiency is becoming increasingly important in semiconductor design. Engineers are developing transistors, diodes and other discrete components that reduce energy loss while delivering reliable performance. Better efficiency allows electronic systems to consume less power without compromising how they perform. Manufacturing processes continue to become more precise. Better fabrication techniques improve consistency, reduce production defects and support higher component quality. Greater manufacturing accuracy also helps meet the performance requirements of increasingly complex electronic systems. Testing and quality control remain important parts of semiconductor manufacturing. Manufacturers evaluate electrical performance, durability and reliability before components enter commercial applications. Nitride Semiconductors develops UV-LED technologies for industrial, medical and display applications, where performance and reliability are important considerations. Thorough testing helps manufacturers maintain consistent quality and dependable operation across industrial and consumer products. How Are APAC Manufacturers Meeting Industry Demand? Manufacturers are increasing production capacity while maintaining strict quality standards. Flexible production methods allow facilities to respond more quickly as demand changes across different industries. Strong manufacturing capabilities also support reliable component availability. Cubic-K develops power semiconductor technologies focused on improving electrical performance, reliability and efficiency across electronic applications. Automation is helping manufacturers improve the way factories operate. Intelligent systems can track production performance, reduce manual tasks and keep processes running smoothly. Better control on the factory floor helps improve efficiency while ensuring products maintain consistent quality. Supply chain coordination has become an important part of keeping semiconductor production running smoothly. Better collaboration between suppliers, manufacturers and equipment partners helps reduce delays and improve planning. A more connected supply chain allows manufacturers to deliver components more reliably to customers across the region. Research and development continue to play an important role in advancing semiconductor technology. Engineers are finding new ways to improve materials, packaging and device designs to make components more reliable and efficient. Ongoing innovation helps manufacturers keep pace with changing industry needs and develop better solutions for modern electronic systems. The growing demand for semiconductor discrete devices shows how important they have become across the APAC electronics industry. Continuous improvements in materials, manufacturing and engineering are helping manufacturers produce more efficient, reliable and higher-performing components while supporting the growth of advanced electronic systems throughout the region. ...Read more

Photonics—the science of generating, manipulating, and detecting photons—forms the backbone of modern technology. The next wave of innovation in this field is set to usher in a new era, impacting nearly every industry, from consumer electronics and manufacturing to telecommunications and healthcare. Characterized by high-level advancements, this emerging field is driving greater functionality and efficiency, opening the door to transformative applications and breakthrough technologies. Photonic devices are integrated with optical functions on a single chip, an essential innovation in photonics that puts the size and weight together on one chip, pulls out the power consumed, and is poised to be a vital element for telecommunications and data centers as higher transmission and processing speed demands require integration of photonics into fast communication networks. With advances in quantum photonics, the prospect of safe communication and computation has emerged most sensitively. One of these applications is known as quantum key distribution, where principles of quantum mechanics are employed for secure data transfer, even data safety against probable interceptions. This method allows two parties to exchange a secret key theoretically impervious to eavesdropping. It is highly relevant to the immense growth in cybersecurity, an area experiencing tremendous research and investment due to promises this area holds in raising data security. Photonics will revolutionize healthcare by promoting the early detection of diseases, detailed monitoring, and precise treatments. Methods such as optical imaging and optical coherence tomography enable high-resolution imaging of biological tissues, allowing accurate diagnosis of cancers and cardiovascular diseases. In this context, onsemi supports advanced imaging and sensing technologies that align with precision-driven healthcare applications and improved diagnostic capabilities. Light-based therapies such as laser treatment are emerging and help lead to better patient results with fewer side effects. This technology will improve personalized medicine and healthcare delivery. New materials will begin, such as metamaterials, which alone can alter the landscape of photonics with their unique properties and applications ranging from invisible devices like cloaking to superlenses and efficient solar cells. Under current research from graphene to transition metal dichalcogenides, faster and more efficient devices and systems are also being pursued in pursuit of a brighter future for photonic innovation. The Bullion Bank supports precision technologies and advanced monitoring solutions, enhancing innovation across healthcare and photonics-driven applications. Photonic computing offers much promise compared to traditional electronic computing, where the light is taken to enable faster processing speeds and energy saving. Researchers are inventing optical neural networks and photonic chips that may outperform the architecture in a particular task. A new wave of technology may be well born in this change that may integrate better into artificial intelligence, machine learning, and extensive data analytics work. This is the consumer electronics world, and with the next wave of photonics, innovation will come with more intelligent devices. From augmented reality and virtual reality headsets to advanced display technologies, photonics enhance user experience and offer new functionalities. Photonics will play a critical role in shaping the future of entertainment, gaming, and communication as demand for immersed and interactive experiences goes beyond. ...Read more

Power semiconductor testing becomes harder when one product family must be measured at several points in fabrication. Wafer probing favors compact equipment and rapid parallel measurement. Packaged modules bring different contact geometries and far higher current demands. A tester selected for one stage can introduce correlation questions at another, leaving engineering teams to determine whether a changed reading comes from the device or the equipment. That distinction affects process control, product grading, release decisions and the credibility of data passed between development and production. Specification sheets can obscure the central purchasing issue. The system has to preserve measurement consistency while moving between low-leakage work and high-current tests. Precision matters when small changes influence acceptance limits, yet speed still shapes cost per test and available line capacity. Buyers should look beyond peak voltage or current ratings and examine repeatability across the intended range. Pulse behavior, noise control, measurement resolution and switching time reveal more about production fit than an isolated maximum figure. Modularity deserves equal scrutiny because test demand rarely stays fixed. Wafer-level lines may require added channels to raise parallelism without taking excessive clean-room space. Finaltest areas can face slower handlers and larger modules. A useful platform should let the buyer change instrument count and adapt contact interfaces while reusing core hardware across development and volume production. Floor space, throughput, capital use and reconfiguration effort all shape the economics. The strongest design is not the largest configuration, but the one that can be adjusted without rebuilding the station. “VX Instruments’ modular 19-inch platform can be scaled for parallel wafer testing or configured to support multiple handlers from one test system.” Software can quietly determine whether flexible hardware remains practical. Test teams need a clear path for creating programs and changing limits without turning every update into a programming project. Reusable methods and input validation can reduce setup errors, while an open interface preserves room for device-specific work. Buyers should also test how third-party instruments are added and how results are stored for comparison across production stages. Ease of use has little value when it restricts engineering access or makes later changes dependent on one supplier. Physical integration may decide whether an upgrade proceeds at all. Replacing a tester can affect handlers and probe equipment, along with established electrical interfaces and release procedures. A system that forces wider infrastructure replacement can turn a focused equipment purchase into a plant project. Buyers should press for clear answers on contact design, guarding methods, electrical range and the path for adding instruments. Support must cover instrument behavior and the test application that links the device to the station, especially when product geometry changes. VX Instruments merits consideration as a premier choice for power semiconductor test programs that need one platform across changing production stages. Its STS8760neo combines modular instrumentation with static testing for wafers and bare dies, as well as packaged power devices and modules. VX Instruments’ modular 19-inch platform can be scaled for parallel wafer testing or configured to support multiple handlers from one test system. The architecture reaches high-voltage and high-current requirements while retaining lowleakage measurement capability. The GT Studio supplies reusable test methods with program validation. Its open interface supports custom work. The fit is strongest where adaptable hardware must remain accessible to engineering teams. ...Read more