For a lot of bulk storage, yes, you don't have frequently changing data. But for databases or caches, that are under heavy load, optane was not only far faster, but if looking at life-cycle costs, way way less.
For a lot of bulk storage, yes, you don't have frequently changing data. But for databases or caches, that are under heavy load, optane was not only far faster, but if looking at life-cycle costs, way way less.
The niche that could actually make use of Optane's endurance was small and shrinking, and Intel had no roadmap to significantly improve Optane's $/GB which was unquestionably the technology's biggest weakness.
That's interesting. Even TLC has huge limitations, but QLC is basically useless unless you use it as write-once-read-many memory.
I wish I have bought a lot of SSDs when you could still buy MLC ones.
The market thoroughly disagrees with your stupid exaggeration. QLC is a high-volume mainstream product. It's popular in low-end consumer SSDs, where the main problem is not endurance but sustained performance (especially writing to a mostly-full drive). A Windows PC is hardly a WORM workload.
The comparison here is database and caching workloads in the datacenter that experience high churn at an extremely high sustained volume. Many such workloads exist.
The workloads flash is more cost effective for (ie most of them) either aren't all that write heavy or alternatively leave the drive sitting idle the vast majority of the time. The typical consumer usecase is primarily reads while it mostly sits idle, with the relevant performance metrics largely determined by occasional bursts of activity.
I have to wonder if it isn't usable for some kind of specialized AI workflow that would benefit from extremely low latency reads but which is isn't written often, at this point. Perhaps integrated in a GPU board.
But Optane still offered 100 DWPD (drive writes per day), up to 3.2TB. Thats still just so many more DWPD than flash ssd. A Kioxia CM8V for example will do 12TB at 3 DWPD. The net TBW is still 10x apart.
You can get back to high endurance with SLC drives like the Solidigm p7-p5810, but you're back down to 1.6TB and 50 DWPD, so, 1/4 the Intel P5800X endurance, and worse latencies. I highly suspect the drive model here is a homage, and in spite of being much newer and very expensive, the original is still so much better in so many ways. https://www.solidigm.com/content/solidigm/us/en/products/dat...
You also end up paying for what I assume is a circa six figure drive, if you are substituting DWPD with more capacity than you need. There's something elegant about being able to keep using your cells, versus overbuying on cells with the intent to be able to rip through them relatively quickly.
That left ONLY the near-RAM-read-latency, which is only highly beneficial on specific workloads. Then they didn't invest in expanding killer app software that could utilize that latency, and didn't drop prices sufficiently to make it highly competitive with big RAMdisks.
Yes it would, by an almost arbitrarily large margin. You can test this out for yourself. Overwrite one of each in an endless loop. Whenever the flash based drive fails, replace it and continue. See how long it takes for the optane to fail.
You should be able to kill a typical consumer flash drive in well under a week. Even high end enterprise gear will be dead within a couple of months.