Hey, the Core Ultra 7 265K is now more affordable than the i7-14700K at Microcenter.
Hey, the Core Ultra 7 265K is now more affordable than the i7-14700K at Microcenter.
It varies across different performance tiers, from Ryzen 7 9700X to Ryzen 9 9950X based on the task at hand. The best AMD match often aligns with the Ryzen 9 9900X, though the exact choice depends on needs.
The Core Ultra 265 delivers solid results in the tests I’ve reviewed. It comes close to the Ryzen 9 9900X or even surpasses it during video encoding tasks. https://www.techpowerup.com/review/intel...5k/12.html This assessment applies to the 265K model, though the non-K variant shares the same CPU but has a reduced power ceiling of 200MHz and a fixed multiplier, preventing overclocking. Both versions feature identical core and cache setups, meaning boosting the 265K’s limits will keep it performing just a few percent better than the 265K. A 3% drop in clock speed at 200MHz is minimal.
I think turning off HT was meant to boost a bit more single-threaded or lightly threaded performance, often aimed at gamers. For my setup, the AMD R7 9000 series would likely lag behind an i7-14700K because I rely more on many cores that don’t need extreme power. I expect the 16th gen to be a real challenge for compilers and programmers due to its many E-cores, but Intel seems hesitant to focus there since they want gamers. The issue here is that without HT, Core Ultra would run noticeably slower. They’re disabling HT in an effort to match AMD’s gaming performance (which hasn’t succeeded yet). Games could handle many more threads, but most games stick to general-purpose engines that support both old and new graphics APIs, so they don’t really gain from high-core systems—except for ID Tech 2.
One of the main enhancements for Core Ultra came in Cinebench. The 285K is nearly 15% quicker than the 14900K while using 20% less energy. It’s likely your specific scenario could gain from HT. There are many cases like this. Generally, if you can achieve the same performance with fewer cores, it’s advantageous. A theoretical 50 GHz quad-core processor could be the most powerful CPU available for all tasks. Productivity work, gaming, and applications all benefit. As long as it delivers at least four times the single-core speed of a 16-core setup like the 9950X, it would perform better overall. The challenge lies in current architecture limitations. In games, improving multi-threaded efficiency is constrained—not just by engine design but by time dependencies. When Event B depends on Event A, you can’t finish B until A is done. Many game mechanics follow this pattern. Ultimately, this explains why you often see a single-core "world thread" or "game thread" handling everything on one core. This keeps the gameplay flow consistent. I’m confident games will become more multi-threaded in the future, especially with consoles potentially offering 8 cores and 16 threads again. I expect the PS6 might feature a 12c/24t CPU if the Zen 6 transition to a 12-core architecture is confirmed. This would further motivate developers to leverage more multi-threading capabilities. Unless there’s a significant leap in game engine technology, single-core performance will remain important for gaming.