It seems like most of you is missing the most important advances of this CPU; higher performance per core means anything from basic desktop applications to productive tools will get a nice performance boost. In workloads like office applications, web browsing etc., Alder Lake represent a new tier of performance over Rocket Lake and Zen 3, which will result in more responsiveness and a better user experience. Even in popular productive tools for photo and video editing, it should be obvious how faster cores is more useful than more cores. Far too many of you are fixated about useless benchmarks like Cinebench.
Another key takeaway should be that for most real workloads, having more than 6-8 "big cores" isn't really beneficial. Even among enthusiasts such as this forum, most of you should be looking at i5-12600K, even for those "semi-pros" who do a little bit of content creation, editing or programming. The big concerns should be availability and potential issues with Windows for early adapters, but performance i5-12600K is a more attractive all-round desktop CPU than Ryzen 9 5900X.
How is this any different than before with good single threaded performance at the cost of horrible power consumption?
Power consumption is still worrying though, and the inability to cool the CPU properly at all with a U14s - which is not a small cooler! - is pretty shocking. This is a top-of-the-line CPU, sure, but it shouldn't require an AIO still.
To both of you;
The important question is under what's the real power consumption under
which circumstances.
Does it matter if the CPU gets a little hot under an unrealistic workload? (And putting a CPU under such a load 24-7 is going to wear it out quickly anyways)
I'm pretty sure Noctua NH-U14S is more than sufficient for 99.9% of customers buying this CPU, and if anything an AiO is usually not going to improve that much over NH-U14S in a case, it's much better to upgrade the case fans and calibrate the fan curves. Do that, and you'll get a system that's very quiet under most real workloads, yet still can handle the extreme peaks.
AiO coolers are usually not a good choice anyways, far too much noise for little gains. If you need cooling for extreme overclocking, go custom loop.
What a reason to make E-Cores? Idle consumption isn't great with it, оverall perfomance is about the same. Maybe Windows should be improved a lot in that way, something like OS and it's services work on E-cores and keep other cores for work applications.
Marketing.
Most computers are sold by the big companies like Dell, HP, Lenovo etc., and most of their customers (even businesses) compare products based on "specs". Now that CPUs don't get more gains in clock speeds, they need to increase core count, even if it means adding "pointless" tiny cores. What the customer sees is 5 GHz 24 cores at 65W (for the OEM CPUs), even though they can't operate anywhere close to that sustained. This is why the upcoming mainstream architectures from Intel will contine to boost the tiny core count.
That would be because AnandTech uses JEDEC standard RAM. This is garbage to any DIY builder.
JEDEC speeds are the speeds most of you
should use, this is the speed the memory controller is designed to operate at, and running it overclocked over time will result in data loss and eventually stability issues.
Overclocking memory is still overclocking, and should never be the default recommendation for DIY builders. It should be reserved for those wanting to take the risk.
Using overclocked memory in benchmarking is also misleading, as each overclock will be different, and people usually have to decrease their overclock after a while.