JEDEC Announces UFS 3.0 Flash Storage Standards, Allowing 8K Video on Portable Devices

JEDEC, the standards group for the microelectronics industry, has announced the UFS 3.0 flash storage standard, which allows speeds of 2.9 GB/s and lower power consumption. It paves the way for 8K video on smartphones.
JEDEC said the new standard doubles the theoretical speed of the current UFS 2.1 standard. It also allows for operation at a greater range of temperatures. The new standard requires the host device to use hardware that supports these high transfer rates.
The new standard allows not only for 8K resolution but 4K video capture at 60 frames per second. The new standard makes ultra high-resolution video recording possible on mobile phones.
The new standard is officially called Universal Flash Storage (UFS) version 3.0, JESD220D. In addition, new updates to related standards, JESD223D UFSHCI and JESD220-2A UFS Card Extension have also been published.
Developed for mobile applications and computing systems requiring high performance with low power consumption, UFS 3.0 is the first standard to introduce MIPI M-PHY HS-Gear4, with a data rate of up to 11.6 Gbps per lane, a 2x performance increase over prior versions of the specification.
UFS is a high-performance interface designed for use in applications where power consumption needs to be minimized, including mobile systems such as smart phones and tablets as well as automotive applications. Its high-speed serial interface and optimized protocol enable significant improvements in throughput and system performance.
To achieve the highest performance and most power efficient data transport, JEDEC UFS leverages industry leading specifications from the MIPI Alliance to form its Interconnect Layer. This collaboration continues with UFS version 3.0, which references the MIPI M-PHY v4.1 physical layer specification and the recently released MIPI UniProSM v1.8 transport layer specification.
The JESD223 UFS Host Controller Interface (UFSHCI) version 3.0 standard is intended to simplify the design process by defining a standard host controller interface with which system designers can create a common host controller software driver to work with UFS host controller hardware from different manufacturers. The HCI functionality enables higher performance and power efficiency by minimizing the involvement of the host processor in the operation of the Flash storage subsystem.

Mian Quddus
“UFS 3.0, UFSHCI 3.0 and the UFS Card Extension update offer a host of enhancements over the prior versions of these standards that will help product designers enable significant improvements in mobile devices and related applications,” said Mian Quddus, chairman of the JEDEC Board of Directors and the JC-64 Committee for Embedded Memory Storage and Removable Memory Cards. Quddus is also director of technology at Samsung.
You might also like...
Live Sports Production: Broadcast Controllers & Orchestration In Live Sports Systems
As production infrastructure, processing resources and the underlying networks required become ever more complex, powerful tools are required to plan, deploy and monitor.
Monitoring & Compliance In Broadcast: Monitoring The Media Supply Chain
Why monitoring the multi-format delivery ecosystem starts with a holistic approach to the entire media supply chain.
Live Sports Production: Sports Production Network Infrastructure
A discussion of production network infrastructure and where the industry is in the evolutionary journey from SDI to IP with senior system architects within three of the most respected organizations in broadcast.
Monitoring & Compliance In Broadcast: Part 2 - The Converged Delivery Ecosystem
‘Monitoring & Compliance In Broadcast’ explores how exemplary content production and delivery standards are maintained and legal obligations are met. The series includes four Themed Content Collections, each of which tackles a different area of the media supply chain. Part 2 con…
Microphones: Part 11 - The State Of The Art… And The Potential Of MEMS Microphone Arrays
Here we look from the state of the art in microphones, to what the future may bring with the enticing theoretical potential of microphone arrays built using MEMS technology.