Remember that MetaRAM technology we figured was nothing more than a sophisticated joke back in February? Intel, one of the noteworthy backers, has proven that said tech actually is one rung above snake-oil at its own Developers Conference in San Francisco. Hynix-made DDR3 DIMMs packing 16GB of memory were reportedly created via the MetaRAM method (and subsequently shown off), and just in case you're not wowed by such wizardry, the demo system included no fewer than ten of these modules. Just in case that sort of flew over your head, the machine they were in possessed 160GB of RAM. Unfortunately, we've a feeling these are quite aways out from hitting the consumer market.

We first heard about Toshiba's plan to increase NAND flash capacities by building "3D" memory chips with "pillars" of stacked cells in January of 2007, but it looks like the effort is getting revived -- Tosh and SanDisk have entered into an agreement to jointly develop and cross-license 3D memory tech. SanDisk was once rumored to be developing write-once 3D flash chips, so both companies have experience building the stuff, but it sounds like it'll take another three or four years for the partnership to produce actual products, as high-yield production is still difficult.

Just a few months back, we all gave SanDisk a round of golf claps for moving towards 43-nanometer NAND production. Fast forward to today, and that "feat" doesn't look so mighty anymore. Intel and Micron have just announced the industry's first sub-40nm NAND flash memory device, the 34nm 32 gigabit multi-level cell chip. The process technology was collaboratively developed by the two firms' joint venture, IM Flash Technologies (IMFT)," and there's nary a hint of shame when they trumpet that this is the "smallest NAND process geometry on the market." Sample shipments are expected to leave the dock in June, while mass production should get going sometime in the second half of this year. Somehow, we get the impression this won't stay on top for long.

So, how do you go about impressing the world after busting out a few systems based around the "fastest chip on Earth?" By getting us all worked up for a little thing called racetrack memory, that's how. Far from being the first memory technology that runs laps around the DIMMs we're relying on today, IBM researchers are suggesting that this iteration could enable users to store substantially more data at a lower cost and be available in around a decade. Put simply, the gurus working the project have discovered a way to overcome the prohibitively expensive process of manipulating domain walls in magnetic storage, essentially making a long-standing approach entirely more viable. If you're totally in nerd heaven right now, we assure you, checking out the explanatory video waiting after the jump is a must-do.

[Via BBC]

Though not quite as impressive as the idea of toppling Intel and AMD within the next ten years, Hynix Semiconductor still has a decent reason to brag today. The South Korean chip producer has announced that it has just started mailing out the "fastest data transferring advanced dynamic random access memory (DRAM) chip for mobile devices." Said chip is the one-gigabit LPDDR2 (low-power double-data-rate 2), which was crafted using 66-nanometer technology and features an 800-megabits per second operating speed at 1.2-volts. No word on exactly what devices will see the super-speedy chip packed within, but a company spokesperson did note that it plans on ramping up production during Q4 to meet "growing demand for flat-panel television sets and high-end handheld devices."

[Via Physorg]

We're not sure what whacky voodoo snakeoil these MetaRAM people are peddling, but the company's got some high profile behind it (like Intel, for one), is being led by former AMD CTO Fred Weber, has appears to have some potentially revolutionary RAM quadrupling technology. Claiming to have leapfrogged current RAM technology by 2-4 years, MetaRAM uses a specialized "MetaSDRAM" chipset that effectively bonds and addresses four cheap 1Gb DRAM chips as one, tricking any machine's memory controller into using it as a 4x capacity DIMM. Since a 1Gb chip is apparently far less expensive than a 2Gb chip, MetaRAM devices can multiply capacity at prices far lower than their competition; the company claims it'll be shipping in machines in the first quarter of this year, and Hynix has already announced their own 2-rank 8GB DDR2 RDIMMs for the second half.

It's like we can't make it through the week these days without word of some outlandish memory technology solving all worldly ills; but it's not that we're complaining. This week's featured tech comes from Nanochip, and promises gains in storage quantity and cost per chip over flash memory. The first prototypes will store 100GB, and will be shipped to device makers next year for evaluation. Nanochip technology stores data on a thin-film material, and accesses it using microscopic cantilevers. Each bit will be 15 nanometers wide at first, with theoretical sizes as small as a couple nanometers. Speeds will be near that of flash, and the data could last longer. There are still some obstacles to accessing the data efficiently, but luckily Nanochip just scored $14 million in funding to complete its pursuit. IBM has been pursuing a similar tech since the late 90's.

Mere days ago we were being treated to the adventures of Intel and Micron in their efforts to create the "world's fastest" NAND drive, and now Intel's got its hands in some phase-change memory, with a technology to double the storage capacity without adding much cost to the fabrication. Phase-change memory is being billed as the successor to flash memory, since it relies on the configuration of a material's atoms instead of those dinky electrons we've been pushing around in our devices for the past few decades. Up until now phase-change memory has used two states to record data: loose and rigid organization of atoms (amorphous and crystalline). Now Intel, along with partner ST Microelectronics, has discovered two more distinct states in between those extremes, effectively doubling capacity in the burgeoning technology. Apparently this sort of advancement puts the clincher on this tech coming to market eventually -- and with speeds comparable to RAM plus the non-volatility of flash, we can hardly wait.

[Via Slashdot]

Multicore processors have become a major part of the consumer mainstream in the past couple years, but if a cryptographic researcher named Joseph Ashwood has his way, the next few years will see the rise of multicore memory. Ashwood's design, which he's had positively reviewed by a team at Carnegie Mellon, allows memory to actually become faster as it gets bigger, due to the way data is organized across individual memory cells. Ashwood says the ratio is almost 1:1 -- doubling size should result in a doubling of speed -- but it's all theory for now, as he's only gotten as far as the software simulation stage. Once a manufacturer commits to the tech, however, Ashwood says chips could be coming off fabs in as little as three months, but it'll be interesting to see who signs up first -- with so many next-gen RAM techs all jostling for position, Ashwood is going to need quite a sales pitch to stand out.

[Photo courtesy of MrBill]

We won't pretend to be experts in NAND fabrication so we'll keep this short. Toshiba just showed their 15-nm processes which allows for the production of 100Gbit NAND flash chips in 4 years time. That is, if they can develop the technology for manufacturing -- no easy task. Compare that to those 16Gbit chips manufactured from 50-nm and 52-nm processes due for release next year, and you'll understand why physicists are in such a tizzy over the announcement.

[Via Impress and The Inquirer]

Gadzooks gamers, Samsung just announced what they are calling the world's fastest memory: GDDR5. The new series five, double-data rate memory chip transfers data at a lickity quick 6Gbps -- about 4x faster while using 20% less power than the GDDR3 memory found in modern GPUs and the PS3. Compare that to their 4Gbps GDDR4 chips and you'll understand the fuss. The chips have already been delivered in samples to the likes of NVIDIA and ATI. Samsung expects the series five chips to capture more than 50 percent of the high-end PC graphics market by 2010.

[via DigiTimes]

We already saw A-DATA unveil what it claimed was the "world's first" 16GB SDHC card in the Class 6 family, and now Transcend is hitting us all up with a very viable alternative. The card guarantees a minimum write speed of 6MB/second, includes ECC to automatically detect and fix errors and sports a lifetime warranty, too. Not a lot to say beyond that -- especially considering the glaring lack of a price or ship date -- but we doubt you'll be waiting too much longer before seeing this on store shelves.

[Via AVing]

If you've fantasized about how wonderful your life could be if the merits of DRAM, SRAM and Flash memory could all be mixed harmoniously into one "dream semiconductor," listen up. You may not be up to speed on all the advancements in ferroelectric materials, but we're pretty sure even the technological newbie could appreciate a new discovery by Korean researcher Dr. Shin Young-han. Reportedly, this fellow has "succeeded in figuring out the operational mechanism of ferroelectrics," which could potentially lead to FeRAM -- a technology that could "store data ten times faster than Flash memory and keep it for longer than ten years." Kudos to you, Dr. Shin, now let's get this stuff on the production line, shall we?

[Image courtesy of Ferra]

Earlier this year, we heard that NASA gurus were working up a biological nanobattery that utilized ferritin, and now another report is suggesting that the substance could even be used in a "biotech-based process for creating ultrathin computer memory." Reportedly, the researchers have found that by using ferritin, metal memory cells could be arranged on substrates sans heat, which consequently allows for thinner substrate materials to be used. The method could eventually lead to "computers being built on thin films that could then be integrated into eyeglass lenses or into clothing," which could add a whole new dimension to wearable electronics.

[Via PinkTentacle]