As transistors have shrunk and compute performance has skyrocketed, one stubborn bottleneck has remained: interconnects.
Sonoran Electronics
The rise of generative artificial intelligence is not limited to content creation and chatbots—it is now firmly entering the fabric of microelectronics design.
In an era where microelectronic components underpin critical infrastructure, defense systems, and consumer devices, the integrity of integrated circuits (ICs) is under increasing threat.
The 2025 IEEE International Electron Devices Meeting (IEDM), held in December in San Francisco, once again affirmed its place as the premier venue for unveiling next-generation semiconductor technologies.
In 2025, high-bandwidth memory (HBM) has surged to the forefront of microelectronics innovation, quickly becoming a critical enabler of AI performance.
In early 2025, speculation surfaced about a potential merger between Taiwan-based United Microelectronics Corporation (UMC) and U.S.-based GlobalFoundries, a move that could shake up the global semiconductor landscape.
In an age defined by digital computation, artificial intelligence, and software-defined everything, it’s easy to overlook the quiet resilience of analog microelectronics.
Modern microelectronics are marvels of precision engineering, containing billions of transistors packed into areas smaller than a fingernail. Yet few outside the semiconductor industry truly understand how these chips are made.
As commercial and governmental interest in space exploration and satellite infrastructure accelerates, the demand for microelectronic components that can survive—and thrive—in the harsh conditions of space has never been greater.
As global data volumes surge, driven by artificial intelligence, cloud computing, and streaming media, traditional electronic interconnects are approaching their physical and economic limits. In response, photonic microelectronics—a hybrid field that merges optical communication with semiconductor microfabrication—is emerging as a vital solution for high-speed, low-latency data transmission.
As consumer expectations for vivid visuals, precise color rendering, and energy-efficient displays continue to rise, the microelectronics industry has responded with one of the most significant innovations in modern display engineering: quantum dot (QD) technology.
Autonomous vehicles (AVs)—from passenger cars to last-mile delivery robots—are no longer a distant vision. Rapid strides in perception, navigation, and decision-making technologies are propelling self-driving systems closer to large-scale deployment. Central to this evolution is the advancement of microelectronics, which form the foundational layer enabling AVs to sense their environment, process data in real time,…