[citation][nom]mr_tuel[/nom]This probably has to most potential (to consumers and users) in laptops or tablets. This should help extend standby battery life since no power will be required to keep the memory contents and you don't have to write to the HDD. OTOH, SSDs makes hibernation fast, and this sounds like having SSDs built into the RAM modules.[/citation]
Not at all, it is not intended for consumer electronic anyway, but for enterprise market, and has potential to save as much power as it is spent on one or two key strokes on keyboard. Think about it this way, this is not exact math but will give you idea of what kind of saves could be made. RAM works at certain frequency, let's say 1333MHz, the most common frequency among cheap economic laptops and netbooks. That means 1333 times per second RAM consumes X amount of electricity on refreshing, reading or writing. There is certain level of variation depending on how many 1s and 0s there is,more 1s more electricity is spent. But variation is so small compared to battery capacity that you can approximate it as round value of X. So when you do absolutely nothing on your laptop,your RAM consumes 1333X volts per second. Copying data from RAM in NAND will spend 2X volts. This is infinitely small amount compared to battery capacity.
[citation][nom]bctande1[/nom]Very interesting concept! Makes conceptualizing the HDD-free future much easier. I would like it, however, if industry can release more 30nm-based RAM, like Samsung's offerings.[/citation]
That's utterly wrong because HDD-free future is impossible. There will always exist need for secondary storage and prices of RAM will never fall down to HDD or SSD level.
[citation][nom]wiinippongamer[/nom]Very interesting indeed, but buying a good SSD will probably remain much cheaper for quite a long time.[/citation]
This is not competition for SSD. NAND flash of same capacity coupled with RAM module is not replacement of SSD. It's aim is to provide time required to bring system up in working order after power failure as close to 0s as possible while preserving integrity of data that was loaded in RAM. Think about hospital clerk filling out your chart when power goes out, that clerk will be able to continue working as soon as generators kick in.
[citation][nom]Razor512[/nom]how fast is the NAND. the data will have to be transfered to and from the NAND to actually be loaded into memory. (the type of data has a major impact on write speeds, in a wost case scenario, will the capacitors hold enough power to dump all of the RAM's contents to the NAND (if the RAM is 100% full)?Will it provide power loss protection, for example if the power were to fail, could a system be designed where if power is restored, the system will notice the data still in the RAM and pick up where it left off due to the power failure?if so then that would be worth upgrading to.A system that can handle power loss without having to go through a full reboot can be a very big evolutionary step forward for servers and other systems where uptime and not losing working data is extremely important.[/citation]
Well duh. Here's one question that makes sense as much as your does. Do cars have enough wheels to be driven around, are those wheels round enough to roll on the ground? That is how and why they are designed, both wheels and these RAM modules.