MRAM News, Resources & InformationMRAM is a next-generation memory technology, based on electron spin rather then its charge. Often referred to as the "holy-grail of memory", MRAM is fast, high-density and non-volatile and can replace all kinds of memories used today in a single chip. Crocus licenses their MLU technology to TowerJazz, products expected by the end of 2013
Crocus's MLU blocks are used in magnetic sensors and secure embedded memories. The memory is fast (like DRAM) and non volatile. It also includes unique security options. Crocus actually plans to produce (at TowerJazz's Migdal Haemek manufacturing facility in Israel) their own magnetic sensor and non-volatile memory products.
GlobalFoundries joins the Qualcomm's and Imec's STT-MRAM research program
Imec and the other members aim to explore the potential of STT-MRAM, including performance below 1ns and scalability beyond 10nm for embedded and standalone applications.
New electron-generated magnetic field confirmed, may lead towards high-density MRAM devicesResearchers from the University of Delaware confirmed that electrons generate a magnetic field in a ferromagnetic material This new field does not radiate beyond the ferromagnetic material and so may lead towards high-density MRAM memory cells (in current technology it is difficult to shield the magnetic fields between memory cells). In materials made from two layers of a heavy metal and a ferromagnetic material, the spin current diffuses into the ferromagnetic material. When this happens, a magnetic field is generated. This magnetic field does not radiate beyond the ferromagnetic material (unlike regular magnetic fields).
Crocus to develop 8-bit cell MRAM technology for the US IARPA
Crocus will expand its magnetic logic unit (MLU) architecture to enable 8-bit per cells. This will reduce the energy consumed per written-bit to be below any other technology currently available. Such MRAM chips will be used to enhance chip security and cryptoprocessors as hacking into those chips will be more complex.
New magnetic switching technology will enable terahertz MRAM devicesResearchers from the US Ames Laboratory in collaboration with Iowa State University and Greece's University of Crete developed a new way to switch magnetism that is at least 1000 times faster than current technologies. This all-optical quantum method may lead towards terahertz (or even faster) MRAM devices and faster hard drives. The new technology uses short laser pulses to change the magnetic structure (from anti-ferromagnetic to ferromagnetic ordering) in colossal magnetoresistive materials (CMRs).
Everspin announces a new MRAM chip with Quad SPI interface
The MR10Q010 MRAM offers read/write bandwidth comparable to parallel I/O MRAM but with a significant savings in pins and allows execute in place (XIP) operation. The chip includes a complete command set for Quad SPI operations including fast reads and writes in which address and data are input on all four I/Os to reduce clock cycles. The part comes in a cost-effective, low pin count 16-pin SOIC package – a savings of 20 pins over parallel interfaces – that supports low voltage levels with separate VDDQ for I/O. It is compatible with future high-density Quad SPI packages that Everspin is planning to introduce.
Yole Développement sees the PCM and MRAM markets reaching $1.6 billion in 2018Yole Développement released a new report on Emerging Non-Volatile Memories (which include four major technologies: MRAM, PCM, RRAM and FeRAM). They see the market increasing ten-fold in the next five years to $2 billion by 2018 (of which STT-MRAM and PCM will take the major share of $1.6 billion) - mostly due to improved scalability and chip density. The largest market will be enterprise storage, where STT-MRAM and PCM cache memory will be adopted. PCM will also be used in mobile phones thanks to 1GB chips made available by Micron in 2012. STT-MRAM is expected to replace SRAM in SoC applications thanks to lower power consumption and better scalability. Another market for MRAM and STT-MRAM is smart card MCUs.
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