Samsung is making a big bet on its own technology. The company is thinking about using its new Exynos 2600 chip in the upcoming Galaxy Z Flip 8. This is not just any chip. It is made using a cutting-edge 2nm process. Samsung's Foundry is the first to mass-produce chips at this level. If this works,
Marvell, a big name in semiconductors, just made a bold move. They're buying Celestial AI for a whopping $3. 25 billion. That price could even go up to $5. 5 billion if Celestial hits certain sales targets. This isn't just any purchase. It's a strategic play to boost Marvell's networking business.
A legal battle is heating up in the tech world. Adeia, a company focused on intellectual property, has taken AMD to court. They claim that AMD's processors, used in computers and servers, break their patents. These patents cover ways to make semiconductors better. Adeia's CEO, Paul Davis, said that
The AI revolution is here, and it's not just about the chips. The real game-changer is how these powerful brains communicate. Traditional copper cables are struggling to keep up with the massive data demands of advanced AI models. This is pushing the industry towards a costly but necessary shift to
Samsung is making waves in the semiconductor world. They've just finished the basic design of their second-generation 2nm GAA process. This tech is set to power future Exynos chips and more. It's a big step for Samsung, showing they're back in the game and could challenge TSMC, the current leader.
In the world of technology, progress is always on the move. Jensen Huang, a leader in the tech industry, recently shared some insights about the future of graphics processing units (GPUs). This is not just about faster gaming. It's about how we use technology in everyday life. This includes ever
Samsung's foundry business is facing significant hurdles. The company is rumored to have canceled its next-generation 1. 4nm manufacturing process. This move comes as a surprise, especially since Samsung has been making strides with its 2nm GAA node, achieving a 30 percent yield in trial production.
Growing III-V nanowires (NW) on silicon (Si) substrates is a tricky task. Scientists often rely on guesswork and different interpretations of important steps, like preparing the sample and forming the Au-Si alloy in the growth reactor. To make high-performance electronic devices that combine the bes
