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stego-tech
carefree-bob
The main cost with on-prem is not the price of the gear but the price of acquiring talent to manage the gear. Most companies simply don't have the skillset internally to properly manage these servers, or even the internal talent to know whether they are hiring a good infrastructure engineer or not during the interview process.
For those that do, your scaling example works against you. If today you can merge three services into one, then why do you need full time infrastructure staff to manage so few servers? And remember, you want 24/7 monitoring, replication for disaster recovery, etc. Most businesses do not have IT infrastructure as a core skill or differentiator, and so they want to farm it out.
throwup238
> even the internal talent to know whether they are hiring a good infrastructure engineer or not during the interview process.
This is really the core problem. Every time I’ve done the math on a sizable cloud vs on-prem deployment, there is so much money left on the table that the orgs can afford to pay FAANG-level salaries for several good SREs but never have we been able to find people to fill the roles or even know if we had found them.
The numbers are so much worse now with GPUs. The cost of reserved instances (let alone on-demand) for an 8x H100 pod even with NVIDIA Enterprise licenses included leaves tens of thousands per pod for the salary of employees managing it. Assuming one SREs can manage at least four racks the hardware pays for itself, if you can find even a single qualified person.
everforward
I work in SRE and the way you describe it would give me pause.
The first is that SRE team size primarily scales with the number of applications and level of support. It does scale with hardware but sublinearly, where number of applications usually scales super linearly. It takes a ton less effort to manage 100 instances of a single app than 1 instance of 100 separate apps (presuming SRE has any support responsibilities for the app). Talking purely in terms of hardware would make me concerned that I’m looking at an impossible task.
The second (which you probably know, but interacts with my next point) is that you never have single person SRE teams because of oncall. Three is basically the minimum, four if you want to avoid oncall burnout.
The last is that I don’t know many SREs (maybe none at all) that are well-versed enough in all the hardware disciplines to manage a footprint the size we’re talking. If each SRE is 4 racks and a minimum team size is 4, that’s 16 racks. You’d need each SRE to be comfortable enough with networking, storage, operating system, compute scheduling (k8s, VMWare, etc) to manage each of those aspects for a 16 rack system. In reality, it’s probably 3 teams, each of them needs 4 members for oncall, so a floor of like 48 racks. Depending on how many applications you run on 48 racks, it might be more SREs that split into more specialized roles (a team for databases, a team for load balancers, etc).
Numbers obviously vary by level of application support. If support ends at the compute layer with not a ton of app-specific config/features, that’s fewer folks. If you want SRE to be able to trace why a particular endpoint is slow right now, that’s more folks.
tgrowazay
Self-hosted 8xH100 is ~$250k, depreciated across three years => $80k/year, with power and cooling => $90k/year (~$10/hour total).
AWS charges $55/hour for EC2 p5.48xlarge instance, which goes down with 1 or 3 year commitments.
With 1 year commitment, it costs ~$30/hour => $262k per year.
3-year commitment brings price down to $24/hour => $210k per year.
This price does NOT include egress, and other fees.
So, yeah, there is a $120k-$175k difference that can pay for a full-time on-site SRE, even if you only need one 8xH100 server.
Numbers get better if you need more than one server like that.
harrall
You didn’t find people because SREs don’t do that.
You wanted sysadmins / IT / data center technicians.
Eridrus
I disagree with on-prem being ideal for GPU for most people.
If you're doing regular inference for a product with very flat throughput requirements (and you're doing on-prem already), on-prem GPUs can make a lot of sense.
But if you're doing a lot of training, you have very bursty requirements. And the H100s are specifically for training.
If you can have your H100 fleet <38% utilized across time, you're losing money.
If you have batch throughput you can run on the H100s when you're not training, you're probably closer to being able to wanting on-prem.
But the other thing to keep in mind is that AWS is not the only provider. It is a particularly expensive provider, and you can buy capacity from other neoclouds if you are cost-sensitive.
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ozgrakkurt
This factually did not play out like this in my experience.
The company did need the same exact people to manage AWS anyway. And the cost difference was so high that it was possible to hire 5 more people which wasn't needed anyway.
Not only the cost but not needing to worry about going over the bandwidth limit and having soo much extra compute power made a very big difference.
Imo the cloud stuff is just too full of itself if you are trying to solve a problem that requires compute like hosting databases or similar. Just renting a machine from a provider like Hetzner and starting from there is the best option by far.
Drunkfoowl
[dead]
LunaSea
> The company did need the same exact people to manage AWS anyway.
That is incorrect. On AWS you need a couple DevOps that will Tring together the already existing services.
With on premise, you need someone that will install racks, change disks, setup high availability block storage or object storage, etc. Those are not DevOps people.
PunchyHamster
> The main cost with on-prem is not the price of the gear but the price of acquiring talent to manage the gear. Most companies simply don't have the skillset internally to properly manage these servers, or even the internal talent to know whether they are hiring a good infrastructure engineer or not during the interview process.
That's partially true; managing cloud also takes skill, most people forget that with end result being "well we saved on hiring sysadmins, but had to have more devops guys". Hell I manage mostly physical infrastructure (few racks, few hundred VMs) and good 80% of my work is completely unrelated to that, it's just the devops gluing stuff together and helping developers to set their stuff up, which isn't all that different than it would be in cloud.
> And remember, you want 24/7 monitoring, replication for disaster recovery, etc.
And remember, you need that for cloud too. Plenty of cloud disaster stories to see where they copy pasted some tutorial thinking that's enough then surprise.
There is also partial way of just getting some dedicated servers from say OVH and run infra on that, you cut out a bit of the hardware management from skillset and you don't have the CAPEX to deal with.
But yes, if it is less than at least a rack, it's probably not worth looking for onprem unless you have really specific use case that is much cheaper there (I mean less than usual half)
dgxyz
This is not the case. We had to double staff count going from three cages to AWS. And AWS was a lot more expensive. And now we're stuck.
On top of that no one really knows what the fuck they are doing in AWS anyway.
tempaccount5050
You need the exact same people to run the infra in the cloud. If they don't have IT at all, they aren't spinning up cloud VMs. You're mixing together SaaS and actual cloud infra.
danielheath
I'm one of those people, and I don't agree.
Before I drop 5 figures on a single server, I'd like to have some confidence in the performance numbers I'm likely to see. I'd expect folk who are experienced with on-prem have a good intuition about this - after a decade of cloud-only work, I don't.
Also, cloud networking offers a bunch of really nice primitives which I'm not clear how I'd replicate on-prem.
I've estimated our IT workload would roughly double if we were to add physically racking machines, replacing failed disks, monitoring backups/SMART errors etc. That's... not cheap in staff time.
Moving things on-prem starts making financial sense around the point your cloud bills hit the cost of one engineers salary.
justsomehnguy
> main cost with on-prem is not the price of the gear but the price of acquiring talent to manage the gear
Not quite. If you hire a bad talent to manage your 'cloud gear' then you would find what the mistakes which would cost you nothing on-premises would cost you in the cloud. Sometimes - a lot.
boltzmann-brain
As opposed to talent to manage the AWS? Sorry, AWS loses here as well.
carefree-bob
I know of AWS's reputation as a business and what the devs say who work there, so I have no argument against your point, except to say that they do manage to make it work. Somewhere in there must be some unsung heroes keeping the whole thing online.
barrkel
What about the cost of k8s and AWS experts etc.?
zbentley
That’s definitely the right call in some cases. But as soon as there’s any high-interconnect-rate system that has to be in cloud (appliances with locked in cloud billing contracts, compute that does need to elastically scale and talks to your DB’s pizza box, edge/CDN/cache services with lots of fallthrough to sources of truth on-prem), the cloud bandwidth costs start to kill you.
I’ve had success with this approach by keeping it to only the business process management stacks (CRMs, AD, and so on—examples just like the ones you listed). But as soon as there’s any need for bridging cloud/onprem for any data rate beyond “cronned sync” or “metadata only”, it starts to hurt a lot sooner than you’d expect, I’ve found.
stego-tech
Yep, 100%, but that's why identifying compatible workloads first is key. A lot of orgs skip right to the savings pitch, ignorant of how their applications communicate with one another - and you hit the nail on the head that applications doing even some processing in a cloud provider will murder you on egress fees by trying to hybrid your app across them.
Folks wanting one or the other miss savings had by effectively leveraging both.
hedora
Any experience with the mid-to-small cloud providers that provide un-metered network ports and/or free interconnect with partner providers?
(For various reasons, I just care about VPS/bare metal, and S3-compatiblity.)
I'm looking at those because I'm having difficulty forecasting bandwidth usage, and the pessimistic scenarios seem to have me inside the acceptable use policies of the small providers while still predicting AWS would cost 5-10x more for the same workload.
PaulKeeble
What has surprised me about the cloud is that the price has been towards ever increasing prices for cores. Yet the market direction is the opposite, what used to be a 1/2 or a 1/4 of a box is now 1/256 and its faster and yet the price on the cloud has gone ever up for that core. I think their business plan is to wipe out all the people who used to maintain the on premise machines and then they can continue to charge similar prices for something that is only getting cheaper.
Its hard drive and SSD space prices that stagger me on the cloud. Where one of the server CPUs might only be about 2x the price of buy a CPU for a few years if you buy less in a small system (all be it with less clock speed usually on the cloud) the drive space is at least 10-100x the price of doing it locally. Its got a bit more potential redudency but for that overhead you can repeat that data a lot of times.
As time has gone on the deal of cloud has got worse as the hardware got more cores.
ragall
> What has surprised me about the cloud is that the price has been towards ever increasing prices for cores.
That makes a lot of sense. Cloud providers are selling compute, and as cores get faster, the single core gets more expensive.
jfindley
Do note though that AIUI these are all E-cores, have poor single-threaded performance and won't support things like AVX512. That is going to skew your performance testing a lot. Some workloads will be fine, but for many users that are actually USING the hardware they buy this is likely to be a problem.
If that's you then the GraniteRapids AP platform that launched previously to this can hit similar numbers of threads (256 for the 6980P). There are a couple of caveats to this though - firstly that there are "only" 128 physical cores and if you're using VMs you probably don't want to share a physical core across VMs, secondly that it has a 500W TDP and retails north of $17000, if you can even find one for sale.
Overall once you're really comparing like to like, especially when you start trying to have 100+GbE networking and so on, it gets a lot harder to beat cloud providers - yes they have a nice fat markup but they're also paying a lot less for the hardware than you will be.
Most of the time when I see takes like this it's because the org has all these fast, modern CPUs for applications that get barely any real load, and the machines are mostly sitting idle on networks that can never handle 1/100th of the traffic the machine is capable of delivering. Solving that is largely a non-technical problem not a "cloud is bad" problem.
adrian_b
These Intel Darkmont cores are in a different performance class than the (Crestmont) E-cores used in the previous generation of Sierra Forest Xeon CPUs. For certain workloads they may have even a close to double performance per core.
Darkmont is a slightly improved variant of the Skymont cores used in Arrow Lake/Lunar Lake and it has a performance very similar to the Arm Neoverse V3 cores used in Graviton5, the latest generation of custom AWS CPUs.
However, a Clearwater Forest Xeon CPU has much more cores per socket than Graviton5 and it also supports dual-socket motherboards.
Darkmont also has a greater performance than the older big Intel cores, like all Skylake derivatives, inclusive for AVX-using programs, so it is no longer comparable with the Atom series of cores from which it has evolved.
Darkmont is not competitive in absolute performance with AMD Zen 5, but for the programs that do not use AVX-512 it has better performance per watt.
However, since AMD has started to offer AVX-512 for the masses, the number of programs that have been updated to be able to benefit from AVX-512 is increasing steadily, and among them are also applications where it was not obvious that using array operations may enhance performance.
Because of this pressure from AMD, it seems that this Clearwater Forest Xeon is the final product from Intel that does not support AVX-512. Both next 2 Intel CPUs support AVX-512, i.e. the Diamond Rapids Xeon, which might be launched before the end of the year, and the desktop and laptop CPU Nova Lake, whose launch has been delayed to next year (together with the desktop Zen 6, presumably due to the shortage of memories and production allocations at TSMC).
formerly_proven
E-cores aren't that slow, yesteryear ones were already around Skylake levels of performance (clock for clock). Now one might say that's a 10+ year old uarch, true, but those ten years were the slowest ten years in computing since the beginning of computing, at least as far as sequential programs are concerned.
bearjaws
I just don't know if the human capital is there.
At my job we use HyperV, and finding someone who actually knows HyperV is difficult and expensive. Throw in Cisco networking, storage appliances, etc to make it 99.99% uptime...
Also that means you have just one person, you need at least two if you don't want gaps in staffing, more likely three.
Then you still need all the cloud folks to run that.
We have a hybrid setup like this, and you do get a bit of best of both worlds, but ultimately managing onprem or colo infra is a huge pain in the ass. We only do it due to our business environment.
to11mtm
I think you're hitting on a general problem statement a lot of orgs run into, even ignoring the uptime figure...
All of the complexity of onprem, especially when you need to worry about failover/etc can get tricky, especially if you are in a wintel env like a lot of shops are.
i.e. lots of companies are doing sloppy 'just move the box to an EC2 instance' migrations because of how VMWare jacked their pricing up, and now suddenly EC2/EBS/etc costing is so cheap it's a no brain choice.
I think the knowledge base to set up a minimal cost solution is too tricky to find a benefit vs all the layers (as you almost touched on, all the licensing at every layer vs a cloud provider managing...)
That said, rug pulls are still a risk; I try to push for 'agnostic' workloads in architecture, if nothing else because I've seen too many cases where SaaS/PaaS/etc decide to jack up the price of a service that was cheap, and sure you could have done your own thing agnostically, but now you're there, and migrating away has a new cost.
IOW, I agree; I don't think the human capital is there as far as infra folks who know how to properly set up such environments, especially hitting the 'secure+productive' side of the triangle.
sounds
> I just don't know if the human capital is there.
> At my job we use HyperV, and finding someone who actually knows HyperV is difficult and expensive...
Try offering significantly higher pay.
ponector
Or even try to educate people. It was common to have learning programs but nowadays managers only complain you cannot find cheap experts.
zer00eyz
> These sorts of core-density increases are how I win cloud debates in an org.
AMD has had these sorts of densities available for a minute.
> Identify the workloads that haven't scaled in a year.
I have done this math recently, and you need to stop cherry picking and move everything. And build a redundant data center to boot.
Compute is NOT the major issue for this sort of move:
Switching and bandwidth will be major costs. 400gb is a minimum for interconnects and for most orgs you are going to need at least that much bandwidth top of rack.
Storage remains problematic. You might be able to amortize compute over this time scale, but not storage. 5 years would be pushing it (depending on use). And data center storage at scale was expensive before the recent price spike. Spinning rust is viable for some tasks (backup) but will not cut it for others.
Human capital: Figuring out how to support the hardware you own is going to be far more expensive than you think. You need to expect failures and staff accordingly, that means resources who are going to be, for the most part, idle.
jmward01
Cloud = the right choice when just starting. It isn't about infra cost, it is about mental cost. Setting up infra is just another thing that hurts velocity. By the time you are serving a real load for the first time though you need to have the discussion about a longer term strategy and these points are valid as part of that discussion.
andoando
I guess it depends, but infra is also a lot simpler when starting out. It really isnt much harder (easier even?) to setup services on a box or two than managing AWS.
Im pretty sure a box like this could run our whole startup, hosting PG, k8s, our backend apis, etc, would be way easier to setup, and not cost 2 devops and $40,000 a month to do it.
CyberDildonics
Is infra really that hard to set up? It seems like infra is something a infra expert could establish to get the infra going and then your infra would be set up and you would always have infra.
ocdtrekkie
As a big on-prem guy, I think cloud makes sense for early startups. Lead time on servers and networking setup can be significant, and if you don't know how much you need yet you will either be resource starved or burn all your cash on unneeded capacity.
On-prem wins for a stable organization every time though.
PunchyHamster
You are correct but it still takes time. You can start using cloud today but you need to:
* sign the papers for server colo * get quote and order servers (which might take few weeks to deliver!), near always a pair of switches * set them up, install OSes, set up basic services inside the network (DNS, often netboot/DHCP if you want to have install over network, and often few others like image repository, monitoring etc.)
It's "we have product and cashflow, let's give someone a task to do it" thing, not "we're a startup ,barely have PoC" thing
estimator7292
You have to pay that infra person and shield them from "infra works, why are we paying so much for IT staff" layoffs. Then you have ongoing maintenance costs like UPS battery replacement and redundant internet connections, on top of the usual hardware attrition.
It's unfortunately not so cut and dry
UltraSane
Secure and reliable infrastructure is hard to set and keep secure and reliable over time.
readthenotes1
Based on the evidence, not only is infrastructure really hard to set up in the first place, it is incredibly error-prone to adjust to new demand.
MrBuddyCasino
It seems a lot of people have forgotten how BigCorp IT used to work.
- request some HW to run $service
- the "IT dept" (really, self-interested gatekeeper) might give you something now, or in two weeks, or god help you if they need to order new hardware then its in two months, best case
- there will be various weird rules on how the on-prem HW is run, who has access etc, hindering developer productivity even further
- the hardware might get insanely oversubscribed so your service gets half a cpu core with 1GB RAM, because perverse incentives mean the "IT dept" gets rewarded for minimizing cost, while the price is paid by someone else
- and so on...
The cloud is a way around this political minefield.
misswaterfairy
> The cloud is a way around this political minefield.
Until the bills _really_ start skyrocketing...
bee_rider
I don’t quite follow:
> From a cache hierarchy standpoint, the design groups cores into four-core blocks that share approximately 4 MB of L2 cache per block. As a result, the aggregate last-level cache across the full package surpasses 1 GB, roughly 1,152 MB in total.
If cores are grouped into four-core blocks, and each block has 4MB of cache… isn’t that just 1MB per core? So 288MB total?
HotHardware reports
https://hothardware.com/news/intel-clearwater-forest-xeon-6-...
> these processors pack in up to 288 of the little guys as well as 576MB of last-level cache, 96 PCIe 5.0 lanes, and 12-channel DDR5-8000.
> The Xeon 6+ processors each have up to 12 compute tiles fabbed on 18A, all of which have six quad-core modules for a total of 24 cores per tile. There are also three 'active' base tiles on Intel 3, so-called because the base tiles include 192MB of last-level cache, which is so-called because each compute tile has 48MB of L3 cache.
So maybe 1MB per core L2, then 192MB of basically-L4 per base tile, then 48MB of L3 per compute tile? 192*3+48*12 gets me to the 1152, maybe that’s it.
Anyway, apparently these things will have “AMX” matrix extensions. I wonder if they’ll be good number crunchers.
50lo
With packages like this (lots of cores, multi-chip packaging, lots of memory channels), the architecture is increasingly a small cluster on a package rather than a monolithic CPU.
I wonder whether the next bottleneck becomes software scheduling rather than silicon - OS/runtimes weren’t really designed with hundreds of cores and complex interconnect topologies in mind.
Agingcoder
Yes there are scheduling issues, Numa problems , etc caused by the cluster in a box form factor.
We had a massive performance issue a few years ago that we fixed by mapping our processes to the numa zones topology . The default design of our software would otherwise effectively route all memory accesses to the same numa zone and performance went down the drain.
zadikian
Wait, does a single CPU chip have numa within it now, or are you only talking about multi-socket machines?
__turbobrew__
Modern AMD processors are basically a bunch of smaller processors (chiplets) glued together with an interconnect. So yes single chip nodes can have many numa zones.
creddit
Single chips do.
brcmthrowaway
Intel contributes to Linux, how is this a problem?
fc417fc802
Wrong level of abstraction. NUMA is an additional layer. If the program (script, whatever) was written with a monolithic CPU in mind then the big picture logic won't account for the new details. The kernel can't magically add information it doesn't have (although it does try its best).
Given current trends I think we're eventually going to be forced to adopt new programming paradigms. At some point it will probably make sense to treat on-die HBM distinctly from local RAM and that's in addition to the increasing number of NUMA nodes.
wmf
Often the Linux scheduling improvements come a year or two after the chip. Also, Linux makes moment-by-moment scheduling and allocation decisions that are unaware of the big picture of workload requirements.
jeffbee
There definitely are bottlenecks. The one I always think of is the kernel's networking stack. There's no sense in using the kernel TCP stack when you have hundreds of independent workloads. That doesn't make any more sense than it would have made 20 years ago to have an external TCP appliance at the top of your rack. Userspace protocol stacks win.
otabdeveloper4
> Userspace protocol stacks win.
No they don't. They are horribly wasteful and inefficient compared to kernel TCP. Also they are useless because they sit on top of a kernel network interface anyways.
Unless you're doing specific tricks to minimize latency (HFT, I guess?) then there is no point.
fc417fc802
Do the partitioned stacks of network namespaces share a single underlying global stack or are they fully independent instances? (And if not, could they be made so?)
wmf
Usually network namespaces are linked together with a single bridge so you can get lock contention there.
If you have a separate physical NIC for each namespace you probably won't have any contention.
rishabhaiover
io_uring?
jeffbee
If anything, uring makes the problem much worse by reducing the cost of one process flooding kernel internals in a single syscall.
lich_king
I don't think there are any fundamental bottlenecks here. There's more scheduling overhead when you have a hundred processes on a single core than if you have a hundred processes on one hundred cores.
The bottlenecks are pretty much hardware-related - thermal, power, memory and other I/O. Because of this, you presumably never get true "288 core" performance out of this - as in, it's not going to mine Bitcoin 288 as fast as a single core. Instead, you have less context-switching overhead with 288 tasks that need to do stuff intermittently, which is how most hardware ends up being used anyway.
Retr0id
Maybe no fundamental bottlenecks but it's easy to accidentally write software that doesn't scale as linearly as it should, e.g. if there's suddenly more lock contention than you were expecting, or in a more extreme case if you have something that's O(n^2) in time or space, where n is core count.
dehrmann
> I don't think there are any fundamental bottlenecks here.
You memory only has so much bandwidth, but now it's shared by even more cores.
lich_king
You're responding out of context. The parent was asking if there are bottlenecks specifically related to scheduling. I explicitly made the point that if there are bottlenecks, they're more likely related to memory.
marcyb5st
I think linux and co do already a decent job. Even on K8s (so like at least another layer removed from the host OS) you can specify your topology preferences: https://kubernetes.io/docs/tasks/administer-cluster/topology...
So on the OS side we might already have the needed tools for these CoC (cluster on chip ;))
whateverboat
I think linux can handle upto 1024 cores just fine.
TomMasz
I was wondering this, too. There's no mention of OS support, but I assume Intel is working with the usual suspects on it.
rishabhaiover
That's a great point. Linux has introduced io_uring, and I believe that gives us the native primitives to hide latency better?
But that's just one piece of the puzzle, I guess.
to11mtm
> OS/runtimes weren’t really designed with hundreds of cores and complex interconnect topologies in mind.
I mean....
IMO Erlang/Elixir is a not-terrible benchmark for how things should work in that state... Hell while not a runtime I'd argue Akka/Pekko on JVM Akka.Net on the .NET side would be able to do some good with it...[0] Similar for Go and channels (at least hypothetically...)
[0] - Of course, you can write good scaling code on JVM or CLR without these, but they at least give some decent guardrails for getting a good bit of the Erlang 'progress guaranteed' sauce.
andreadev
I think everyone's focusing on the core count, but the packaging story is way more interesting here. This thing is 12 separate chiplets on 18A stacked on base dies made on Intel 3, connected to I/O tiles on Intel 7. Three different process nodes in one package, shipping at volume. That's nuts.
And it's clearly an IFS play too. Intel Foundry needs a proof point — you can publish PDKs all day, but nothing sells foundry credibility like eating your own cooking in a 288-core server part at 450W. If Foveros Direct works here, it's the best ad Intel could run for potential foundry customers.
The chiplet sizing is smart for another reason nobody's mentioned: yield. 18A is brand new, yields are probably rough. But 24 cores per die is small enough that even bad yields give you enough good chiplets. Basically AMD's Zen playbook but with a 3D twist.
Also — 64 CXL 2.0 lanes! Several comments here are complaining about DDR5 prices, which is fair. But CXL memory pooling across a rack could change that math completely. I wonder if Intel is betting the real value isn't the cores but being the best CXL hub in the datacenter.
The ARM competition is still the elephant in the room though. "Many efficient cores" is what ARM has always done natively, and 17% IPC uplift on Darkmont doesn't close that gap by itself.
nsteel
Agree entirely with your take. The packaging story is awesome, I wish there were more details on the stacking used on this one.
But I am at a loss to how Intel are really going to get any traction with IFS. How can anyone trust Intel as a long-term foundry partner. Even if they priced it more aggressively, the opportunity cost in picking a supplier who decides to quit next year would be catastrophic for many. The only way this works is if they practically give their services away to someone big, who can afford to take that risk and can also make it worth Intel's continued investment. Any ideas who that would be, I've got nothing.
0x0203
I suspect that timing might help Intel here, with so much of the better established foundries near fully allocated for the next two years, it may be more a question of availability than brand name risk. And for whatever problems Intel has, it's pretty unlikely they'd go completely under and disolve in less than a year. Good non completion clauses in the contracts can mitigate a good chunk of the remaining risk.
Not to mention potential customers who would prefer a US based foundry regardless. My guess is that there's a pretty large part of the market that would be perfectly fine with using Intel.
bryanlarsen
> How can anyone trust Intel as a long-term foundry partner
With the standard form of business trust: a contract.
nsteel
Worthless. Just looks how IFS worked out the previous two times they gave it a go. If you're not in the industry you may not even be aware it was a thing. And then not. Twice.
boltzmann-brain
Helped a friend make a difficult career decision (cozy job vs something hard and new + moving to a new city) that ultimately ended up with him working on the project. Glad that happened. I love to see people grow.
NoNameHaveI
As a Yocto enthusiast, I am curious as to how much elapsed realtime would be needed for a clean Yocto build. Yocto is thread heavy, so with 288, it oughta be good.
overfeed
My Yocto build times on a 32-core AMD are negligible, <2 minutes for a full distro, IIRC. I suspect higher core counts have diminishing returns, especially since most dev builds are heavily cached.
foxglacier
As a fellow yocto enthusiast, I think they should call the process node 1.8e15 ym instead of the stupid legacy Angstrom unit.
rubyn00bie
I’ve not kept up with Intel in a while, but one thing that stood out to me is these are all E cores— meaning no hyperthreading. Is something like this competitive, or preferred, in certain applications? Also does anyone know if there have been any benchmarks against AMDs 192 core Epyc CPU?
topspin
"Is something like this competitive, or preferred, in certain applications?"
They cite a very specific use case in the linked story: Virtualized RAN. This is using COTS hardware and software for the control plane for a 5G+ cell network operation. A large number of fast, low power cores would indeed suit such a application, where large numbers of network nodes are coordinated in near real time.
It's entirely possible that this is the key use case for this device: 5G networks are huge money makers and integrators will pay full retail for bulk quantities of such devices fresh out of the foundry.
cyanydeez
is RAM a concern in these cluster applications, cause if prices stay up, how do you get them off the shelf if you also need TB of memory.
topspin
> how do you get them off the shelf if you also need TB of memory
You make products for well capitalized wireless operators that can afford the prevailing cost of the hardware they need. For these operations, the increase in RAM prices is not a major factor in their plans: it's a marginal cost increase on some of the COTS components necessary for their wireless system. The specialized hardware they acquire in bulk is at least an order of magnitude more expensive than server RAM.
Intel will sell every one of these CPUs and the CPUs will end up in dual CPU SMP systems fully populated with 1-2 TB of DDR5-8000 (2-4GB/core, at least) as fast as they can make them.
bgnn
In HPC, like physics simulation, they are preferred. There's almost no benefit of HT. What's also preferred is high cluck frequencies. These high core count CPUs nerd their clixk frequencies though.
sllewe
I'm so sorry for being juvenile but "high cluck frequencies" may be my favorite typo of all time.
Analemma_
It all depends on your exact workload, and I’ll wait to see benchmarks before making any confident claims, but in general if you have two threads of execution which are fine on an E-core, it’s better to actually put them on two E-cores than one hyperthreaded P-core.
amelius
Without the hyperthreading (E-cores) you get more consistent performance between running tasks, and cloud providers like this because they sell "vCPUs" that should not fluctuate when someone else starts a heavy workload.
MengerSponge
I don't know the nitty-gritty of why, but some compute intensive tasks don't benefit from hyperthreading. If the processor is destined for those tasks, you may as well use that silicon for something actually useful.
to11mtm
It's a few things; mostly along the lines of data caching (i.e. hyper threading may mean that other thread needs a cache sync/barrier/etc).
That said I'll point to the Intel Atom - the first version and refresh were an 'in-order' where hyper-threading was the cheapest option (both silicon and power-wise) to provide performance, however with Silvermont they switched to OOO execution but ditched hyper threading.
bgnn
Yeah of you are running Comsol you need real cores + high clock frequency + high memory bandwidth.
Gaming CPUs and some EPYCs are the best
DetroitThrow
I think some of why is size on die. 288 E cores vs 72 P cores.
Also, there's so many hyperthreading vulnerabilities as of late they've disabled on hyperthreaded data center boards that I'd imagine this de-risks that entirely.
mort96
For an application like a build server, the only metric that really matters is total integer compute per dollar and per watt. When I compile e.g a Yocto project, I don't care whether a single core compiles a single C file in a millisecond or a minute; I care how fast the whole machine compiles what's probably hundred thousands of source files. If E-cores gives me more compute per dollar and watt than P-cores, give me E-cores.
Of course, having fewer faster cores does have the benefit that you require less RAM... Not a big deal before, you could get 512GB or 1TB of RAM fairly cheap, but these days it might actually matter? But then at the same time, if two E-cores are more powerful than one hyperthreaded P-core, maybe you actually save RAM by using E-cores? Hyperthreading is, after all, only a benefit if you spawn one compiler process per CPU thread rather than per core.
EDIT: Why in the world would someone downvote this perspective? I'm not even mad, just confused
hedora
Yocto's for embedded projects though, right?
I imagine that means less C++/Rust than most, which means much less time spent serialized on the linker / cross compilation unit optimizer.
mort96
It's for building embedded Linux distros, and your typical Linux distro contains quite a lot of C++ and Rust code these days (especially if you include, say, a browser, or Qt). But you have parallelism across packages, so even if one core is busy doing a serial linking step, the rest of your cores are busy compiling other packages (or maybe even linking other packages).
That said, there are sequential steps in Yocto builds too, notably installing packages into the rootfs (it uses dpkg, opkg or rpm, all of which are sequential) and any code you have in the rootfs postprocessing step. These steps usually aren't a significant part of a clean build, but can be a quite substantial part of incremental builds.
georgeburdell
E core vs P core is an internal power struggle between two design teams that looks on the surface like ARM’s big.LITTLE approach
Aardwolf
E cores ruined P cores by forcing the removal of AVX-512 from consumer P cores
Which is why I used AMD in my last desktop computer build
jsheard
That's finally set to be resolved with Nova Lake later this year, which will support AVX10 (the new iteration of AVX512) across both core types. Better very late than never.
mort96
E cores didn't just ruin P cores, it ruined AVX-512 altogether. We were getting so close to near-universal AVX-512 support; enough to bother actually writing AVX-512 versions of things. Then, Intel killed it.
bmenrigh
I love the AVX512 support in Zen 5 but the lack of Valgrind support for many of the AVX512 instructions frustrates me almost daily. I have to maintain a separate environment for compiling and testing because of it.
avhception
A bad moment to have a make-or-break moment for your CPU business - a lot of customers will probably hold off purchases right now because of the RAM prices, no matter how good your CPU might be.
skyberrys
Isn't this new server CPU a drop in replacement though? So the DC could pull off the old CPU, drop in the new one and not touch the existing RAM setup, yet be able to deliver better performance within the limits of the existing RAM. Then once RAM prices drop (okay that might be a while) separately upgrade the RAM at a different time.
to11mtm
That's semi-dependent on supplier arrangements; i.e. lots of shops won't want to upgrade CPUs on a server out of fear that they can't get support later; sometimes that's justified by contract, sometimes it's not.
winwang
If you have enough cores, you could pool the L1 together for makeshift RAM!
tempaccount5050
In my experience, RAM costs will have very little impact on businesses buying servers. When we buy is pretty much set by contract and warranty cycles.
renewiltord
Core density plus power makes so many things worthwhile. Generally human cost of managing hardware scales with number of components under management. CPUs very reliable. So once you get lots of CPU and RAM on single machine you can run with very few.
But right pricing hardware is hard if you’re small shop. My mind is hard-locked onto Epyc processors without thought. 9755 on eBay is cheap as balls. Infinity cores!
Problem with hardware is lead time etc. cloud can spin up immediately. Great for experimentation. Organizationally useful. If your teams have to go through IT to provision machine and IT have to go through finance so that spend is reliable, everybody slows down too much. You can’t just spin up next product.
But if you’re small shop having some Kubernetes on rack is maybe $15k one time and $1.2k on going per month. Very cheap and you get lots and lots of compute!
Previously skillset was required. These days you plug Ethernet port, turn on Claude Code dangerously skip permissions “write a bash script that is idempotent that configures my Mikrotik CCR, it’s on IP $x on interface $y”. Hotspot on. Cold air blowing on face from overhead coolers. 5 minutes later run script without looking. Everything comes up.
Still, foolish to do on prem by default perhaps (now that I think about it): if you have cloud egress you’re dead, compliance story requires interconnect to be well designed. More complicated than just basics. You need to know a little before it makes sense.
Feel like reasoning LLM. I now have opposite position.
PunchyHamster
> Previously skillset was required. These days you plug Ethernet port, turn on Claude Code dangerously skip permissions “write a bash script that is idempotent that configures my Mikrotik CCR, it’s on IP $x on interface $y”. Hotspot on. Cold air blowing on face from overhead coolers. 5 minutes later run script without looking. Everything comes up.
Last time I tried to do anything networking with Claude it set up route preference in opposite order (it thought lower number means more preferred, while it was opposite), fucking it up completely, and then invented config commands that do not exist in BIRD (routing software suite).
Then I looked at 2 different AIs and they both hallucinated same BIRD config commands that were nonexistent. And by same I mean they hallucinated existence of same feature.
> If your teams have to go through IT to provision machine and IT have to go through finance so that spend is reliable, everybody slows down too much. You can’t just spin up next product.
The time of having to order a bunch of servers for new project is long over. We just spun k8s cluster for devs to self-service themselves and the prod clusters just have a bit of accounting shim so adding new namespace have to be assigned to a certain project so we can bill client for it.
Also you're allowed to use cloud services while you have on-prem infrastructure. You get best of both, with some cognition cost involved.
9cb14c1ec0
One day I hope to be rich enough to put a CPU like this (with proportional RAM and storage) in my proxmox cluster.
epistasis
Some of the AMD offerings like this on Ebay are pretty close to affordable! It's the RAM that's killer these days...
I still regret not buying 1TB of RAM back in ~October...
mort96
I bought a bundle with 512GB of RAM and an older 24-core EPYC (7F72) + supermicro motherboard on ebay a bit over a year ago, it was really an amazing deal and has made for a truly nice NAS. If you're okay with stuff that's old enough that you can buy decommissioned server stuff, you can get really high-quality gear at surprisingly low prices.
Companies decommission hardware on a schedule after all, not when it stops working.
EDIT: Though looking for similar deals now, I can only find ones up to 128GB RAM and they're near twice the price I paid. I got 7F72 + motherboard + 512GB DDR4 for $1488 (uh, I swear that's what I paid, $1488.03. Didn't notice the 1488 before.) The closest I can find now is 7F72 + motherboard + 128GB DDR4 for over $2500. That's awful
jauntywundrkind
AMD also has some weird cpus like the 7c13 7r13, that are way way way below their normal price bands. You don't even have to buy used to get a ridiculous systems... Until 4 months ago (RIP ram prices). https://www.servethehome.com/amd-epyc-7c13-is-a-surprisingly...
MostlyStable
I've heard it claimed that the era of being able to do this (buy slightly old used server hardware cheap on ebay) is coming to an end because, in the quest for ever more efficiency, the latest server hardware is no longer compatible with off-the-shelf power supplies etc. (there was more but that's the part that I remember) and therefore won't have any value on the second hand market.
I hope it was wrong, but it seems at least plausible to me. I'm sure that probably fixes could be made for all these issues, but the reason the current paradigm works is that, other than the motherboard and CPU, everything else you need is standard, consumer grade equipment which is therefore cheap. If you need to start buying custom (new) power supplies etc. to go along, then the price may not make as much sense anymore.
epistasis
RAM! (And NAND SSDs too now, probably...)
When I was looking in October, I hadn't bought hardware for the better part of a decade, and I saw all these older posts on forums for DDR4 at $1/GB, but the lowest I could find was at least $2/GB used. These days? HAH!
If I had a decent sales channel I might be speculating on DDR4/DDR5 RAM and holding it because I expect prices to climb even higher in the coming months.
MayeulC
I'm curious, what is the powe draw for such a system? Of course, it heavily depends on the disks, but does it idle under 200W?
I personally feel like I will downscale my homelab hardware to reduce its power draw. My HW is rather old (and leagues below yours), more recent HW tends to be more efficient, but I have no idea how well these high end server boards can lower their idle power consumption?
Tepix
Do you remember what you dreamed about 7 years ago? An Ampere Altra 80-core-CPU was sold for less than 210€ on eBay in January.
mort96
Oh, nice! I always wanted one of those, a many-core build server running ARM would be excellent for Yocto. Anything running in quemu in the rootfs is so slow on x86 and I've seen the rootfs postprocess step take a long time.
Though... these days, getting enough RAM to support builds across 80 cores would be twice the price of the whole rest of the system I'm guessing.
Aurornis
Wait long enough and these will be cheap on eBay.
By that point we'll be desiring the new 1000 core count CPUs though.
fred_is_fred
This is the 2026 version of "I need a beowulf cluster of these".
TheCondor
‘Can you imagine a Beowulf cluster of these’
cmxch
Aside from the memory cost being exorbitant, 4th/5th gen ES CPUs aren’t horribly expensive for the core count you get. 8480s and 8592s have been quite accessible.
Stuffed an 8480+ ES with 192gb of memory across 8 channels and it’s actually not too bad.
SecretDreams
> with proportional RAM and storage
Let's not get carried away here
hagbard_c
Just give it a few years and you'll be able to buy the thing for a fraction of the 'current' price. By that time it will be considered to be 'slow' and 'power-hungry' and people will wonder why you're intent on running older hardware but it'll still work just fine. The DL380 G7 under the stairs here also used to cost an arm and a leg while I got it for some finger nail clippings.
O5vYtytb
Sure looks like a lot of glue holding that CPU together :)
s3p
As soon as I read chiplets I thought about this too! Glad even intel agrees that chiplet architecture is the way forward.
benj111
Am I the only one disappointed they didn't settle for 286 cores?
soganess
During the 8th gen they made an i7-8086... Hopefully Intel hasn't fired that person.
boltzmann-brain
8086K, actually. I still run one inside one of my PCs!
hedora
I wonder if they can bin out ones that have a dead core or two specifically for this purpose.
kissiel
At least you got the Intel® Core™ Ultra 9 Processor 386H :)
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These sorts of core-density increases are how I win cloud debates in an org.
* Identify the workloads that haven't scaled in a year. Your ERPs, your HRIS, your dev/stage/test environments, DBs, Microsoft estate, core infrastructure, etc. (EDIT, from zbentley: also identify any cross-system processing where data will transfer from the cloud back to your private estate to be excluded, so you don't get murdered with egress charges)
* Run the cost analysis of reserved instances in AWS/Azure/GCP for those workloads over three years
* Do the same for one of these high-core "pizza boxes", but amortized over seven years
* Realize the savings to be had moving "fixed infra" back on-premises or into a colo versus sticking with a public cloud provider
Seriously, what took a full rack or two of 2U dual-socket servers just a decade ago can be replaced with three 2U boxes with full HA/clustering. It's insane.
Back in the late '10s, I made a case to my org at the time that a global hypervisor hardware refresh and accompanying VMware licenses would have an ROI of 2.5yrs versus comparable AWS infrastructure, even assuming a 50% YoY rate of license inflation (this was pre-Broadcom; nowadays, I'd be eyeballing Nutanix, Virtuozzo, Apache Cloudstack, or yes, even Proxmox, assuming we weren't already a Microsoft shop w/ Hyper-V) - and give us an additional 20% headroom to boot. The only thing giving me pause on that argument today is the current RAM/NAND shortage, but even that's (hopefully) temporary - and doesn't hurt the orgs who built around a longer timeline with the option for an additional support runway (like the three-year extended support contracts available through VARs).
If we can't bill a customer for it, and it's not scaling regularly, then it shouldn't be in the public cloud. That's my take, anyway. It sucks the wind from the sails of folks gung-ho on the "fringe benefits" of public cloud spend (box seats, junkets, conference tickets, etc...), but the finance teams tend to love such clear numbers.