AMD Ryzen Threadripper 9980X Sets New PassMark Record with 64 Cores Outperforming 96-Core Predecessor

BigGo Editorial Team
AMD Ryzen Threadripper 9980X Sets New PassMark Record with 64 Cores Outperforming 96-Core Predecessor

AMD's upcoming flagship desktop processor has achieved a remarkable milestone in multi-threaded performance benchmarks, demonstrating that core count isn't always the determining factor in CPU supremacy. The Ryzen Threadripper 9980X has emerged as a powerhouse that challenges conventional wisdom about processor performance scaling.

Comparative performance of AMD Ryzen Threadripper models highlighting the Threadripper 9980X's achievements
Comparative performance of AMD Ryzen Threadripper models highlighting the Threadripper 9980X's achievements

Record-Breaking Multi-Threaded Performance

The Ryzen Threadripper 9980X has claimed the top position in PassMark's multi-threaded desktop CPU rankings with an impressive score of 147,481 points. This achievement is particularly noteworthy because it surpasses AMD's own 96-core Threadripper Pro 7995WX, which previously held the crown with 145,572 points. The new processor delivers this superior performance despite having 32 fewer cores than its workstation-grade counterpart, showcasing the efficiency improvements of the newer Zen 5 architecture.

PassMark CPU Mark results for various desktop CPUs, showcasing the prowess of the Ryzen Threadripper 9980X
PassMark CPU Mark results for various desktop CPUs, showcasing the prowess of the Ryzen Threadripper 9980X

Generational Improvements and Architecture Advantages

Compared to its direct predecessor, the Threadripper 7980X, the new 9980X demonstrates solid generational progress with an 8% improvement in multi-threaded performance. The single-core performance shows even more impressive gains, with a 13.7% uplift reaching 4,594 points in PassMark testing. This improvement stems from the combination of AMD's refined Zen 5 microarchitecture and higher boost clocks reaching up to 5.40 GHz.

Single-threaded performance comparison of CPUs enhancing the understanding of generational advancements in the Threadripper series
Single-threaded performance comparison of CPUs enhancing the understanding of generational advancements in the Threadripper series

Technical Specifications and Design Philosophy

The Threadripper 9980X belongs to AMD's Shimada Peak family and features 64 cores with 128 threads through simultaneous multi-threading technology. The processor operates at a base frequency of 3.20 GHz and includes substantial cache configurations with 64MB of L2 cache and 256MB of L3 cache. AMD has positioned this CPU as a bridge between gaming performance and professional workload capabilities, targeting enthusiasts who demand excellence in both domains.

Single-Core Performance Considerations

While the multi-threaded results are impressive, single-core performance reveals the inherent trade-offs in high-core-count processors. The 9980X's single-core score of 4,594 points places it on par with Apple's M4 Max and Intel's Core i9-13900KF, but falls behind Intel's Core Ultra 9 285K (5,096 points) and Apple's M3 Ultra (5,133 points). This performance gap reflects the challenges of balancing numerous cores with high individual core frequencies.

Market Positioning and Target Audience

AMD has strategically positioned the Threadripper 9980X to serve dual purposes in the high-end desktop market. Unlike the workstation-focused Pro series with its emphasis on maximum core counts, the 9980X aims to deliver strong gaming performance alongside professional application capabilities. This approach makes it particularly attractive to content creators, developers, and enthusiasts who require versatility rather than specialized workstation features.

Availability and Future Outlook

AMD plans to launch the Ryzen Threadripper 9000-series processors later this month, when independent reviews will provide more comprehensive performance analysis. The early PassMark results suggest that AMD's architectural improvements have successfully enhanced per-core efficiency, allowing fewer cores to compete effectively against higher core count alternatives. This development could influence future processor design strategies across the industry.