Skip to main content

MediaTek's new 800U chipset



MediaTek has launched a new chipset Dimensity 800U that will provide 5G connectivity to mid-range smartphones. The Dimensity 800U is the latest addition in MediaTek’s Dimensity series family. The 7nm Dimensity 800U chipset is designed for multi-core performance and 5G+5G Dual Sim Dual Standby (DSDS) technology. The chipset manufacturer claims that this chipset will accelerate the rollout of 5G technology on mid-tier 5G smartphones.

The 5G modem in MediaTek’s Dimensity 800U supports sub-6Ghz SA and NSA networks, 5G+5G dual SIM dual standby (DSDS), dual Voice over New Radio (VoNR), and 5G two-carrier aggregation. With MediaTek 5G UltraSave technology, the modem’s operating mode is managed based on network environment and data transmission quality, which the company claims will extend the battery life of mobile devices.

The Dimensity 800U chipset is built on the 7nm process and has an octa-core CPU with a dual cluster consisting of two Arm Cortex-A76 processors with a clock speed of 2.4GHz and six Arm Cortex-A55 processors with a clock speed of 2.0GHz. Dimensity 800U integrates an Arm Mali-G57 GPU, an independent AI processing unit (APU), and LPDDR4x RAM.

The new chipset will support 120Hz FHD+ displays as well as the HDR10+ standard for better visual quality. The chipset will also offer support for flexible camera placement with up to 64MP cameras and quad camera capabilities. Along with that, there will be support for voice on wakeup (VoW) and dual-mic noise reduction technology, which will help to lower the standby power consumption of a voice assistant.

Comments

Popular posts from this blog

Party Pairs

  Atoms in a gas can seem like partiers at a nanoscopic rave, with particles zipping around, pairing up, and flying off again in a seemingly random fashion. And yet physicists have come up with formulas that predict this behavior, even when the atoms are extremely close together and can tug and pull on each other in complicated ways. The environment within the nucleus of a single atom seems similar, with protons and neutrons also dancing about. But because the nucleus is such a compact space, scientists have struggled to pin down the behavior of these particles, known as nucleons, in an atom’s nucleus. Models that describe the interactions of nucleons that are far apart broken down when the particles pair up and interact at close range. Now an MIT-led team has simulated the behavior of protons and neutrons in several types of atomic nuclei, using some of the most powerful supercomputers in the world. The team explored a wide range of nuclear interaction models and found, surprising...

The Next Best Thing to Jezero Crater This Side of Mars

You may not be able to travel to Jezero Crater on  , but you can visit the next best thing: Lake Salda, Turkey. Researchers are using their understanding of Lake Salda to help guide the Mars 2020 mission, which will drop the Perseverance rover into the crater to search for signs of ancient life. “One of the great things about visiting Lake Salda is it really gives you a sense of what it would have been like to stand on the shores of ancient Lake Jezero,” said Briony Horgan, a planetary scientist at Purdue University and member of the Perseverance science team. “Carbonates are important because they are really good at trapping anything that existed within that environment, such as microbes, organics, or certain textures that provide evidence of past microbial life,” said Brad Garczynski, a graduate student at Purdue who works with Horgan. “But before we go to Jezero, it is really important to gain context on how these carbonates form on Earth in order to focus our search for signs f...

Time-Stretch Infrared Spectroscopy

  Spectroscopy is an important tool of observation in many areas of science and industry. Infrared spectroscopy is especially important in the world of chemistry where it is used to analyze and identify different molecules. The current state-of-the-art method can make approximately 1 million observations per second. University of Tokyo researchers have greatly surpassed this figure with a new method about 100 times faster. From climate science to safety systems, manufacture to quality control of foodstuffs, infrared spectroscopy is used in so many academic and industrial fields that it’s a ubiquitous, albeit invisible, part of everyday life. In essence, infrared spectroscopy is a way to identify what molecules are present in a sample of a substance with a high degree of accuracy. The basic idea has been around for decades and has undergone improvements along the way. In general, infrared spectroscopy works by measuring infrared light transmitted or reflected from molecules in a sa...