The underlying challenge here is vertical integration: Apple can invest more in chip design not just on the CPU but also balancing with accelerators for things like AI or media processing, security, etc. because they work closely across the OS and app teams to see what they need & make sure it’s actually used (if they add a new coprocessor to reduce need for certain CPU features, it’s priority 1 for the next OS release). Microsoft and Intel or Samsung/Qualcomm and Google work together, of course, but they have different goals and budgets, they need to support multiple companies worth of corporate overhead on the same sale, and they can’t focus too much on any one deal because they need to hedge their bets.
This cuts the other way, of course: Apple’s stuff is best at the mobile and up to mid-range, but beyond that if you need more than a certain amount of RAM or features like advanced virtualization, they don’t have an alternative the way Google can choose between AMD and Intel for GCP with no concern about affecting the Pixel lineup. We’ll see whether Apple stumbles badly enough for this to matter.
https://www.anandtech.com/show/16226/apple-silicon-m1-a14-de...
For a list of relative transistor counts among CPUs: Perhaps more to the point, I think the onus would be on somebody who claims Apple is doing something uniquely spectacular with their chips, other than simply capitalizing on a massive transistor count and power efficiency advantage made possible by their node advantage.By the way, I'm not knocking what Apple has achieved. I recently upgraded from an 2018 Intel MBP to a 2021 M1 Max MBP. And, holy smokes. This thing is fast and it is effortlessly fast. I have been running all 10 cores pretty hard for the job I'm currently doing. I am absolutely beyond impressed.
But, from an engineering standpoint, it's definitely worth wrapping our heads around what Apple has and has not achieved here. I don't think they have any magic fairy dust or special sauce.