To manufacture a GaAs wafer, gallium and arsenide first must be procured. Here, we’ll explore how GaAs is crafted—and if the USA can make it domestically in the future.
Read MoreAn InP wafer can find several uses, but it’s currently used in large quantities in quantum computing. Here, we’ll break down why.
Read MoreAssessing the electrical properties of a material is crucial during silicon wafer manufacturing. Here are some of the key factors to look at.
Read MoreAn FZ wafer is a safe material in its final solid form, but incorrect handling can be toxic and cause serious health problems, and here, we’ll explain why.
Read MoreLately, oversupply and decreased demand have made silicon prices drop—however, new tariffs could reverse this trend in the future, and here’s why.
Read MoreAdvances in bendy silicon can potentially change the game for silicon wafer suppliers. Let's explore the future of this phenomenon.
Read MoreDid you know silicon wafer manufacturers dope silicon to enhance its electrical properties and improve it for certain applications? Learn more about some of these applications.
Read MoreBand gap plays a crucial role in silicon manufacturing. Here, we’ll go more in detail about what band gap is and how it affects semiconductors.
Read MoreSilicon wafer processing is an industry that’s always innovating. Here, we’ll explore some potential ways in which wafer manufacturing may evolve in 2025.
Read MoreGaAs wafer’s superior efficiency in power management makes it an excellent component for wireless devices that depend on batteries. Let’s explain why.
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