Intel and Micron have announced the completion of an expansion to Building 60 (B60) at the IM Flash facilities in Lehi, Utah. The expanded fab will produce 3D XPoint memory media, a building block of Intel Optane technology that includes Intel Optane memory for clients, the recently announced Intel Optane SSD 900P Series and new capacities and form factors of the Intel Optane SSD DC P4800X Series. A ribbon-cutting was held at the facility with Utah Gov. Gary Herbert, employees of the facility and representatives from Intel and Micron.
The Intel Optane SSD 900P Series half-height half-length add-in card is available in 480 GB and 280 GB capacities.
The IM Flash joint venture was created in 2006 to manufacture non-volatile memory for both Intel and Micron, starting with NAND for use in SSDs, phones, tablets and more. In 2015, IM Flash began manufacturing 3D XPoint technology, the first entirely new memory media in 25 years. The technology was developed to meet the quickly expanding data needs for all types of customers. 3D XPoint technology uses a crosspoint structure to deliver a cell and array architecture that can switch states significantly faster than NAND.
Intel recently announced the Intel Optane SSD 900P Series for use in desktop and workstation PCs. It delivers incredibly low latency and best-in-class random read and write performance at low queue depths. Additionally, Intel expanded the Intel Optane technology offerings for the data center, introducing 750GB capacity and 2.5-inch U.2 form factor versions of the Intel Optane SSD DC P4800X Series. For details on these products and all Intel SSDs, visit Intel’s solid state drives website.
Intel | www.intel.com
Micron Technology | www.micron.com
At the Flash Memory Summit earlier this month in Santa Clara, CA, leading FPGA vendor Xilinx rolled out the Xilinx NVMe-over-Fabrics reference design. It provides designers a flexible platform to enable scalable storage solutions and integrate custom acceleration functions into their storage arrays. The reference design eliminates the need for a dedicated x86 processor or an external NIC, thus creating a highly integrated, reliable and cost-effective solution. The NVMe-over-Fabrics (NVM-oF) reference platform is implemented on the Fidus Sidewinder card which supports up to 4 NVMe SSDs, and has a Xilinx ZU19EG Ultrascale+ MPSoC device. The reference platform is delivered with the required software drivers.
The Xilinx NVMe-over-Fabric Platform is a single-chip storage solution that integrates NVMe-over-Fabric and target RDMA offloads with a processing subsystem to provide a very power-efficient and low-latency solution compared to existing products that require both an external host chip and a Network Interface Card (NIC). This 2x100Gb Ethernet platform enables customers to implement value-added storage workload acceleration, such as compression and erasure code.
Xilinx | www.xilinx.com
Interested in wafer-packaged NAND flash storage solutions? ATP Electronics recently launched a new generation of storage solutions using the latest 3D NAND flash technologies. These new 3D NAND-based SSDs are targeted at the industrial and embedded markets for industrial, IoT, medical, automotive, and telecom applications.
ATP provides various chip densities using DDP, QDP, and even ODP die-stacking while using the same wafer stock. This offers flexibility in supply chain, and also enables ATP to ramp multiple product densities quickly. The new 3D NAND solutions are reliable, cost-effective storage solutions.
Source: ATP Electronics
Micrcontrollers and electrical engineering probably don’t come to mind when you flip through an IKEA product catalog. But when you think about it, IKEA has plenty of easy-to-assemble tables, cabinets, and storage containers that could be handy for outfitting a electronics workspace or “circuit cellar.”
(Source: Patrik Thalin)
Sweden-based Patrik Thalin built a workspace within an IKEA Husar cabinet. The setup is compact, orderly, and well-planned. He noted:
It has a pull-out keyboard shelf that I use it as an extension of the workspace when the doors are open. My inspiration came from a friend that had built his lab in a two door closet. The main idea is to have a workspace that can be closed when not used and to be able to resume my work later. I have used this lab for nearly ten years and I am still happy with it!
In the upper part of the cabinet I keep commonly used tools and instruments. On the top shelf are two PSUs, a signal generator, assortment boxes with components, the SMD component kit and shelf trays with cables and small tools. On the lower shelves are things like multimeter, callipers and a power drill. At the bottom is the work space with a soldering station. On the left wall are screwdrivers,wrenches and pliers. To the left are cables hanging on hooks.The thing hanging under the shelf is an old radio scanner. You can also see a small vise hanging on the front of the workspace.
The lower part of the cabinet is for additional storage, he noted.
(Source: Patrik Thalin)
The information and images were submitted by Patrik Thalin. For more information about his space and work, visit his blog.