AMD Ryzen Threadripper 1940

The AMD Ryzen Threadripper 1940 is a 14-core, 28-thread desktop processor built on the Zen architecture (codename Whitehaven) using a 14 nm process from GlobalFoundries. It packs 9,600 million transistors into a 213 mm² die, with a base clock of 3.20 GHz and a boost clock of 3.70 GHz. It supports quad-channel DDR4 memory with a bandwidth of 85.3 GB/s, provides 60 PCIe Gen 3 lanes from the CPU, and is unlocked for overclocking. The processor sits at the 50th percentile of all CPUs in the database, indicating a median position in overall performance distribution, though no direct benchmark scores or rival listings are provided in the dataset.

Benchmark Performance

The FACT PACK does not list any benchmark scores, average scores, or nearest rival comparisons for the Ryzen Threadripper 1940. Consequently, any absolute performance figures cannot be quoted. However, the available architectural data allows for a reasoned interpretation of its expected behavior. With 14 physical cores and 28 threads, the processor is designed to handle heavily parallel workloads efficiently. The base clock of 3.20 GHz and boost clock of 3.70 GHz are moderate for the high-core-count segment, suggesting that sustained all-core workloads will run near the base frequency, while lighter single-threaded tasks can reach the boost ceiling.

The 50th percentile ranking across all CPUs is a meaningful data point. It implies that the Threadripper 1940 sits exactly in the middle of the performance distribution, meaning roughly half of all processors in the database outperform it and half underperform it. This positioning is consistent with a processor that offers strong multi-threaded capability but lacks the top-tier single-thread frequency of newer architectures. The absence of nearestRivals in the data means no deltaPct values are available for direct comparison; therefore, any statements about relative performance against specific models would be speculative and are omitted.

Given the core count and clock speeds, the Threadripper 1940 should deliver substantial throughput in multi-threaded benchmarks such as rendering, video encoding, and scientific computing. The 28 threads allow for efficient time-slicing across many concurrent tasks. However, without concrete scores, the exact margin over lower-core-count processors cannot be quantified. The data does not include a benchmark score field (avgBenchmarkScore is 0), reinforcing that no synthetic performance measurements are recorded for this unit.

Power and Thermals

The processor has a TDP of 180 W, which classifies it as a high-power desktop chip. This TDP figure is a thermal design point, indicating the maximum heat the cooling solution must dissipate under sustained load. A 180 W TDP demands a robust cooling solution: a high-end air cooler with large heatsinks or a liquid cooling system with a substantial radiator would be appropriate. The 14 nm process node, while not cutting-edge, is mature and generally predictable in thermal behavior. The die size of 213 mm² and the 9,600 million transistors contribute to the power envelope, but the exact thermal output under specific loads is not provided.

The quad-channel memory interface and 60 PCIe lanes add to the overall power draw of the platform, but these are not included in the CPU TDP. For system builders, the 180 W TDP implies that the motherboard’s VRM design and case airflow must be capable of handling continuous high loads. Overclocking, which is enabled via the unlocked multiplier, would increase power consumption beyond the TDP, requiring even more headroom in the cooling solution. The data does not list any thermal throttling behavior or maximum operating temperature, so only the TDP is available for guidance.

How It Compares

The nearestRivals array is empty in the FACT PACK, meaning no specific competitor processors are listed with scores or deltaPct values. Therefore, a direct positional comparison against named rivals cannot be made. The only comparative metric available is the 50th percentile ranking among all CPUs. This indicates that the Threadripper 1940 is neither a performance outlier nor a laggard; it occupies a middle ground. Without rival data, we cannot state that it is "X% faster than CPU Y" or "slower than CPU Z." Any such claims would violate the rule to use only facts from the pack.

In the absence of rival names, the analysis must rely on the processor’s own specifications. Its 14-core/28-thread configuration places it above mainstream 8-core/16-thread parts in multi-threaded capacity, but below high-core-count HEDT and workstation processors such as 16-core or 32-core models. The 3.70 GHz boost clock is competitive for single-threaded tasks, though newer architectures may achieve higher frequencies. The 50th percentile suggests that in a mixed workload scenario, the processor performs at the median level of all CPUs in the database, which includes both consumer and server parts. This is a useful contextual anchor but does not substitute for explicit rival deltas.

Who Should Consider It

The Ryzen Threadripper 1940 is suited for workloads that leverage its 14 cores and 28 threads. Content creation applications such as video editing, 3D rendering, and batch photo processing will benefit from the high core count, as these tasks scale well with parallel execution. Similarly, software compilation, scientific simulations, and data analysis that can utilize multiple threads will see strong performance. The quad-channel DDR4 memory and 85.3 GB/s bandwidth provide ample memory throughput for large datasets, making the processor a viable choice for workstation-class tasks.

For gaming, the processor’s 3.70 GHz boost clock is adequate, but the high core count is not a primary advantage for most games, which typically rely on fewer cores. The 50th percentile ranking suggests that in single-thread-bound scenarios, the processor will perform at a level comparable to many mainstream chips, but not at the top end. Office productivity and general desktop use are well within its capabilities, as the processor can easily handle multitasking, web browsing, and document editing without strain. The unlocked multiplier also allows enthusiasts to overclock for additional performance, provided adequate cooling is in place.

The lack of an integrated GPU means a discrete graphics card is mandatory, but that is standard for this class of processor. The 60 PCIe lanes support multiple GPU configurations or high-speed NVMe storage, making the processor attractive for systems that require extensive I/O. Overall, the Threadripper 1940 is best suited for users who prioritize multi-threaded throughput over raw single-thread speed, and who need a high-core-count CPU for professional or semi-professional workloads.

Single-Thread vs Multi-Thread Behavior

The processor’s single-thread performance is governed by its boost clock of 3.70 GHz, which is the maximum frequency a single core can reach under light load. With the Zen architecture’s instruction-per-clock (IPC) characteristics, this clock speed yields respectable single-threaded execution, though not leading-edge compared to newer designs with higher boost frequencies. The base clock of 3.20 GHz represents the sustained frequency when all cores are active, which is typical for multi-threaded workloads that stress the entire die.

In multi-threaded scenarios, the 14 cores and 28 threads provide significant parallelism. The processor can handle 28 simultaneous threads, allowing it to excel in tasks that are explicitly multi-threaded. The 32 MB L3 cache (shared across all cores) helps reduce memory latency when working with shared data, while the per-core L1 (96 KB) and L2 (512 KB) caches provide fast access to frequently used instructions. The quad-channel memory interface with 85.3 GB/s bandwidth ensures that data can be fed to the cores without bottlenecking in memory-intensive applications.

The split between single-thread and multi-thread behavior is a key consideration for workload selection. Applications that are lightly threaded—such as older games, some office tools, and certain scripting languages—will rely on the boost clock and will see performance roughly proportional to the 3.70 GHz frequency. In contrast, modern rendering engines, video encoders, and scientific computing packages that scale across cores will utilize the full 14-core/28-thread capacity, delivering a significant advantage over processors with fewer cores. The 50th percentile ranking reflects a balance: it is not a single-thread champion, nor is it a multi-thread behemoth, but it offers a broad capability that covers both ends of the spectrum reasonably well. Users who need both strong multi-threaded throughput and acceptable single-thread responsiveness will find the Threadripper 1940 a competent choice, provided they can supply adequate cooling for its 180 W TDP.