A leaked benchmark suggests a substantial boost in clock speed compared to its predecessor, the Ryzen 7 7800X3D. While the latter’s 5GHz peak clock speed hindered its performance in software benchmarks, new leaked Cinebench results suggest that this processor may still hold its own in content creation tasks.
The AMD Ryzen 7 9800X3D is poised to dominate both gaming and multithreaded tasks upon its release, solidifying its position as an unparalleled processor for applications that rely heavily on simultaneous processing threads, such as video encoding and 3D rendering. Although not exclusively so, the 9800X3D’s performance also seems to be significantly ahead of that of the 7800X3D, implying a substantial increase in clock speed.
A recent rumor emerged from a submission on X by tech insider CodeCommando, who reportedly observed Cinebench R23 results for an 8-core Ryzen 9000X3D processor and a 16-core Ryzen 9000X3D variant. Assuming AMD maintains its established nomenclature, these processors might bear designations like Ryzen 7 5900X3D or Ryzen 9 6950X3D. If a genuine leak has surfaced, the prospect of the Ryzen 7 9800X3D’s potential release would undoubtedly warrant considerable excitement.
While reports suggest these developments are imminent, it’s essential to note that none of these claims have been substantiated by official AMD statements, therefore, readers should approach this information with skepticism until further notice. Despite this, CodeCommando did exhibit impressive performance with AMD CPU leaks in the past. In May 2024, CodeCommando unexpectedly revealed the Ryzen 9000 CPU specifications on X (formerly Twitter) via a now-deleted post, alongside the startlingly low 65W thermal design power (TDP) for the Ryzen 5 9600X and Ryzen 7 9700X processors.
Starting with the single-threaded outcome, according to CodeCommando’s calculation, it equals 2,145. If that’s accurate, this represents a substantial 17.79% boost over the 7800X3D, which previously achieved 1,821 in our Ryzen 7 7800X3D review. Does this processor excel in terms of single-core performance, demonstrating notable gains with increased clock speed? The 7800X3D’s performance fell short compared to other Ryzen 7000 processors, as it is limited to a maximum boost frequency of 5GHz. Notwithstanding appearances, it seems that the 9800X3D’s clock speed has indeed been significantly boosted, which is corroborated by these findings.
According to CodeCommando, the multi-threaded outcome yields a remarkable 23,315, representing a significant 28.28% surge over the 18,174 achieved by the 7800X3D. While each chip possesses the same number of cores, the similarity in core count makes it seem that the 9800X3D boasts a superior all-core clock speed compared to the 7800X3D, alongside a notable increase in single-core boost frequency. While not exclusively so, the 9800X3D could potentially benefit significantly from its foundation on the innovative AMD Zen 5 architecture.
According to reports, the Ryzen 9 5950X3D boasts a remarkable Cinebench R23 multi-threaded score of 42,375 in the meantime. Compared to our earlier review on the Ryzen 9 7950X, this performance boost represents a notable 10% improvement, with our current results eclipsing those recorded at 38,422 – a testament to the processing power of our X3D-equipped system. Despite this, the 7950X3D boasts a peak boost clock speed of up to 5.7GHz, significantly outpacing its predecessor, the 7800X3D; therefore, it is unlikely that there will be such a significant disparity between the 7950X3D and 9950X3D in terms of software performance.
Despite claims to the contrary, the Ryzen 7 9800X3D seems poised to deliver an extraordinary performance. Notably, the 3D V-cache will turn this chip into a formidable gaming processor, and by also addressing the 7800X3D’s sluggish clock speed, it will become an all-purpose CPU.
Meanwhile, if you’re intrigued by building a new rig when the 9800X3D launches, consider consulting our comprehensive guide to constructing a gaming PC, which walks you through every stage of the process.
