It does because it is deceptive and done to game SEO.The naming doesn't matter, calm down.
It does because it is deceptive and done to game SEO.The naming doesn't matter, calm down.
I disagree that it's cheaper. We don't know how much this costs, but a similar amount of RAM is almost certainly going to be way more expensive. Not to mention the scenario of trying to inference a model that's bigger than the amount of RAM a machine can support. Then, you have to upgrade to the next tier of CPU, board, etc. If we're talking about laptops, some people would never want to lug around a mobile-workstation class machine (myself included).Why would a sane, normal person who knows what they are doing ever do such a stupid thing?!?
It's:
- Cheaper
- Faster
- More power-efficient
- Doesn't require special software
To just buy more RAM, or if you can't afford it just quantize the damn LLM down to a manageable size.
Maybe, but at least the specs meaningfully differ from other drives on the market and they have a story that matches up. It's not like some of the other cynical opportunists we've seen who will basically slap the term "AI" on existing products, just for buzzword compliance.This is clearly just a gimmick to fleece some dumb people.
Some of us are curious how they achieved the claimed endurance numbers, independent of whether we agree with their stated use case for the product.No, no we don't. We need to let it fade into obscurity where it belongs and hope that such idiotic naming doesn't catch with other AIBs.
I used the wikipedia page. I'm not going to argue the specifics, as my point was just that you don't need a terribly exotic dGPU to meet Microsoft's threshold for an AI PC and I think we're in agreement on that.I've found it very hard to find TOPS ratings (INT8) for some of the consumer discrete GPUs. For example, that figure isn't on Nvidia's website or TechPowerUp for the RTX 3060. I have to go to this Wccftech article to find out it's supposedly 101 TOPS. Any leads on this?
They don't need to? They're practically synonymous with AI, these days.Well you could argue that point about GPU's too! Lets hope nVidia/AMD don't start using AI TOPS in the already really long winded naming schemes currently in use. RTX4070 Ti Super AI TOPS!! Or AIB partners: 4070 Ti Super AI TOPS Windforce 57 SCC OC!!! Uggghh. No thanks.
I scoured the internet multiple times to find such information and never could get an answer to that very question. It doesn't even have a DWPD stat associated with it. All I know is that when I was having OS stability issues for a the last 1.5 years of its use, I finally checked S.M.A.R.T. and it showed what I wrote above. It had to of had read or write errors. I reinstalled windows on it multiple times and it would be fine for a month or two and then start BSODing. I finally deduced it had to be the drive and got a new one. New windows install and 2.5 years later, no BSODs what-so-ever.What was the warranty TBW on that?
I looked as well. Found nothing.I scoured the internet multiple times to find such information and never could get an answer to that very question. It doesn't even have a DWPD stat associated with it. All I know is that when I was having OS stability issues for a the last 1.5 years of its use, I finally checked S.M.A.R.T. and it showed what I wrote above. It had to of had read or write errors. I reinstalled windows on it multiple times and it would be fine for a month or two and then start BSODing. I finally deduced it had to be the drive and got a new one. New windows install and 2.5 years later, no BSODs what-so-ever.
The OCZ Agility 3 came out in earlyish 2011 when I got it so its even older tech than the Kingston drive. I have also seen conflicting data on the TBW drive endurance for that drive. Maybe there were multiple revisions with different TBW endurance numbers? Here is one of the sources for that:I looked as well. Found nothing.
A similar era 120GB Kingston HyperX 3K (I have one), has a warranty value of 290TB.
(not that this really means anything)
Quite possibly.Maybe there were multiple revisions with different TBW endurance numbers?
Yeah, I did a TON of redownloading games on that OCZ drive for years and years on end to get a meager 56 TBW. I added a bit to the bottom of my last post. Though I say that and I apparently have 49 TBW already on my 970 evo as my OS drive on this computer. I think I can sleep at night with 97% drive life remaining, to be fair.Quite possibly.
In any case, a regular user running past the TBW number is relatively rare.
Especially with newer drives.
I've seen people ridicule a drive with a warranty of 750TBW, in favor of a comparable one with 1200TBW.
In reality, a regular consumer will never see either number.
This can't match what you'd see if you were continually under heavy swapping.Yeah, I did a TON of redownloading games on that OCZ drive for years and years on end to get a meager 56 TBW.
That's not cookies, it's session store and history and it can be tuned down.This can't match what you'd see if you were continually under heavy swapping.
I've also watched the iostats for some web browsers without privacy add-ons, and some websites hit your cookies really hard. You might be thinking that shouldn't amount to much I/O, but the I/O Writes counter in Task Manager says otherwise. Consider that each of those will be subject to write-amplification and encompass at least a block, and now you're getting into serious territory. Right now, I have one Firefox process with 724 GB written, and that's before accounting for amplification. The number of I/O writes is 1.926B. SMART isn't telling me what the drive claims about TBW.
They are fairly close to being extinct. They can be found, but you’d need deep enough pockets to meet their MOQ or pay ridiculous markups for a paltry capacity.Last I checked, enterprise M.2 drives are pretty much extinct. I bought the last one I could find, and that was a Samsung PM9A3. The only place I could still find them for sale is ebay.
Yes, but there are limits to how much RAM different machines can accept and it might not be as much as you need. Then, there's the cost argument. NAND is way cheaper, GB/$ - probably even in this SSD!Anyway, I still maintain that if you are swapping you would benefit from more RAM, not from a disk more resilient to excessive writes. It's common sense.
You're probably right. That's one of the reasons I want to know the details!Also the claim is so outrageous that it must come with a huge asterisk somewhere.
To be honest, I'm not sure it was worth it. The thing is a 110 mm long, double-sided drive, with high idle power (I forget exactly, but maybe around 5 W?) and doesn't support ASPM. I could only find one SSD cooler that provided full coverage of both sides and it's not awesome (but probably good enough).They are fairly close to being extinct. They can be found, but you’d need deep enough pockets to meet their MOQ or pay ridiculous markups for a paltry capacity.
I got myself a degree in Data Science on a whim a couple years ago. In the middle of the coursework, I found that my machine could barely complete the training loads I threw at it. And that was with toy datasets. What did I do? I made the swap file take the brunt of the infrequently accessed memory just so the Python script wouldn’t die. I don’t quite recall the algorithm I used, but using the SSD as a memory extension did the trick. *With theses new round of AI PCs packing so much inferencing horsepower in the CPU, you could be limited to just 32 or 64 GB of RAM, which isn't big enough for some popular models that currently exist, let alone future ones.
As for the speed argument, I think the performance impact of paging in needed pieces of the model might be manageable, if you can keep the most frequently-used parts in RAM and predictively load most of the needed parts in advance of when they're referenced.
Yeah enterprise has mostly switched to U.2 but during the heyday of the 970 Evo(so pcie3 days) it was still fairly easy to find enterprise M.2s. I eventually quit buying them because I realized consumer drives now have enough over-provisioning to generally go well past their TBW rating before they show ANY sort of issues.The capacities would suggest it's MLC, not SLC. It's probably the same NAND chips modern enthusiast SSD use, but just configured all to run in pseudo-MLC mode. When you do that on NAND capable of usable endurance in QLC mode, it's probably not too surprising (TBH, I wouldn't have guessed these endurance levels would be possible outside of SLC).
No, only enthusiast drives are TLC. Most of the consumer world is using QLC.
Okay, so 182.5 TBW vs. 219,000 TBD? You're off by 3 orders of magnitude.
Anyway, I think you're reading too much into the 2.5x discrepancy. Part of it is that the manufacturer needs to build in some margin of error, because the endurance is going to follow something like a bell curve. They'd want to be sure that they guarantee about 2-3 sigmas less than the mean endurance.
Also, they probably allow for it to be operated at higher temperatures than TechRepublic's testing used, and that's very detrimental to endurance!
I'm pretty sure it doesn't need to get that bad, before they'll accept it for return under warranty.
Last I checked, enterprise M.2 drives are pretty much extinct. I bought the last one I could find, and that was a Samsung PM9A3. The only place I could still find them for sale is ebay.
They mostly went straight to U.2, I think. Now, they seem to be all in on the E1.S and E3 form factors.Yeah enterprise has mostly switched to U.2
It's not only that, but also things like low tail latencies that enterprise drives tend to optimize for. Unfortunately, that also means they tend to idle pretty hot.during the heyday of the 970 Evo(so pcie3 days) it was still fairly easy to find enterprise M.2s. I eventually quit buying them because I realized consumer drives now have enough over-provisioning to generally go well past their TBW rating before they show ANY sort of issues.
Well enterprise had <Mod Edit> lots of 2.5” SATA SSDs before they went U.2. Or at least the first data centers I worked in around 2012 were packed full of them <Mod Edit>. To be clear, these were fairly small AT&T installations not some huge Google site.They mostly went straight to U.2, I think. Now, they seem to be all in on the E1.S and E3 form factors.
It's not only that, but also things like low tail latencies that enterprise drives tend to optimize for. Unfortunately, that also means they tend to idle pretty hot.
Why? Because no need to re-read if an error is encountered (i.e. since no errors should occur)?If this is an all-pSLC(or even pMLC) drive, I think random read performance could be very nice.
For random reads, true.If this is an all-pSLC(or even pMLC) drive, I think random read performance could be very nice.
Not only that, but isn't its interface just PCIe 3.0 x2?One might say “just use Optane” for random I/O, but for the mini PC and laptop markets, there aren’t many great choices. I excised a 500 GB NAND SSD from my laptop and replaced it with 118 GB Optane. To my mild annoyance, I had to give up hibernation, a page file, and a whole bunch of software just to recover enough free space to work comfortably in.
I'd suggest you check its idle power consumption. I think it's going to be a fair bit worse than most NAND-based SSDs.Depending on the performance characteristics of this drive, if it’s got good enough random write and latency, I’ll swap out my Optane for it. The 380 GB Optane is 110 mm long, and if I don’t have to, then I’m going to postpone buying a Framework just to use them.
That was something I already had to give in to since the 800P wasn’t recognized by my laptop. The P1600X―which idles at 1.7 W (far more than the 8 microwatts of the 800P)―but surprisingly less power hungry than I anticipated, and I can get through the day with no perceptible loss of uptime.I'd suggest you check its idle power consumption. I think it's going to be a fair bit worse than most NAND-based SSDs.
I just went down a similar path about a month ago. In my case, I wanted to mount heatsinks on the backside of a mini-ITX motherboard. The underside of the motherboard had some surface-mount components, but what worried me most were the leads of the VRM capacitors poking through their solder blobs.I’ve yet to get around to sanding off the internal protrusions in my laptop so that I can fit a M.2 22110 in it.
IMO, a decent SSD and plenty of RAM is probably all you need, but suit yourself.If dev workloads don’t take forever, I’d say it’s worth it. 😎 But I’d trade up a bit of the latency advantage for more capacity.
There’s no way they’re running TLC as pSLC. After you take over provisioning into account too, you’re talking 7-8 TB of flash for a 2TB drive.If this is an all-pSLC(or even pMLC) drive, I think random read performance could be very nice.