AMD Opteron 250 HE

The AMD Opteron 250 HE is a single-core server processor built on the K8 architecture, codenamed Troy, and fabricated on a 90nm process. It runs at a fixed base clock of 2.40 GHz with no boost capability, and it is designed for the AMD Socket 940 platform. The processor carries a 55W thermal design power, placing it in the low-power segment for its generation. Notably, the benchmark database contains no recorded scores for this part, and the average benchmark score is listed as zero, which complicates any quantitative performance assessment. The processor was released on February 28, 2005, and is now marked as end-of-life.

Benchmark Performance

The benchmark results for the AMD Opteron 250 HE are effectively absent. The dataset lists an average benchmark score of zero, and the benchmark array is empty, indicating that no standardized tests have been run or recorded for this processor. The percentile ranking, however, is set at 50, which would place it at the median of all CPUs in the database. But this percentile is not supported by any actual score—it is a default or placeholder value that does not reflect measured performance. In the absence of real data, any interpretation of the 50th percentile is speculative. The only performance-related specifications available are the base clock of 2.40 GHz and the single-core, single-thread configuration. These specs suggest that the processor is capable of modest single-threaded throughput, but without benchmark numbers, we cannot quantify how it stacks up against other parts. The lack of a boost clock means the processor runs at a constant frequency, which simplifies power delivery but also caps peak performance. For a server chip from the mid-2000s, this level of performance was likely sufficient for basic tasks, but it would be severely outclassed by modern processors. The 50th percentile ranking, if taken at face value, would imply that it sits exactly in the middle of the CPU performance distribution, but given the zero score, this ranking is likely an artifact of the database's default handling of unmeasured parts. The processor's cache hierarchy—128 KB of L1 and 1 MB of L2, with no L3—further defines its performance envelope. The L2 cache is relatively large for a single-core design, which can help reduce memory latency for frequently accessed data. However, the absence of an L3 cache means that all cache misses must go to main memory, which, combined with the dual-channel memory bus, sets a limit on overall throughput. The 90nm process and 106 million transistors indicate a design that was competitive at the time but is now far behind modern nodes.

How It Compares

The FACT PACK lists no nearest rivals for the Opteron 250 HE. The nearestRivals field is empty, meaning the database does not provide any direct comparison points. As a result, a comparative analysis against specific competing processors is impossible from this dataset. We cannot reference any rival names, scores, or percentage deltas because none are supplied. The only relative measure available is the percentile versus all CPUs, which stands at 50. However, as noted, this percentile is not backed by any benchmark score. In practical terms, the Opteron 250 HE would have competed with other single-core server processors of its generation, but without explicit data, we cannot name them or quantify differences. The absence of rival data is a significant limitation for this analysis. It means that any statement about how this processor performs relative to its contemporaries must be based solely on its own specifications. Given its 2.40 GHz clock and single core, it would likely trail multi-core parts of the same era, but again, no numbers are available to confirm this. The database's decision to leave the nearestRivals array empty suggests that either no meaningful comparisons were established, or that the processor is so obscure that it was not matched with any peers. This lack of comparative data is a notable gap, especially for a part that holds a 50th percentile ranking, which implies a median standing in the overall CPU landscape. Without rival scores, that ranking remains an unverified claim.

Platform and Compatibility

The Opteron 250 HE is built for the AMD Socket 940 platform. This socket is a legacy interface that was used for early AMD Opteron processors. The processor's memory bus is dual-channel, which indicates that it can access two memory channels simultaneously, a feature that helps improve memory bandwidth. However, the specific memory types and speeds supported are not listed in the dataset; the memorySupport field is null. The processor does not support ECC memory, which is unusual for a server-oriented chip, as ECC is often used to detect and correct data corruption. This limitation suggests that the Opteron 250 HE was intended for less mission-critical applications or for environments where ECC was not a requirement. The processor provides PCIe Gen 2 connectivity, which was a contemporary interface standard at the time of its release. This allows for compatible expansion cards and peripherals, though modern systems have moved on to newer PCIe generations. The processor was released on February 28, 2005, and is now marked as end-of-life. This means it is no longer in production, and support from AMD has likely ceased. The part number is OSK250FAA5BL. The platform offers no upgrade path to newer processors because the Socket 940 was discontinued long ago. Users of this processor are effectively locked into a legacy system with limited expansion options. The lack of integrated graphics means that a separate graphics card is required for any display output. The processor's multiplier is locked, preventing overclocking. All these factors point to a platform that is firmly rooted in the past. The 90nm process node and 106 million transistors are further indicators of its age, as are the absence of an L3 cache and the lack of a boost clock.

Who Should Consider It

The Opteron 250 HE is a server/workstation processor with a single core and a single thread. This configuration is best suited for workloads that are purely single-threaded and do not benefit from parallel processing. Examples might include simple web serving, lightweight database queries, or legacy software that runs on a single thread. The low 55W TDP makes it an attractive option for power-constrained environments, such as dense server racks or remote installations where cooling is limited. However, the processor's age and end-of-life status mean that it is not suitable for modern applications. For gaming, the single core and lack of boost clock would severely hamper performance in current titles, which typically require multiple cores and high clock speeds. For content creation, such as video editing or 3D rendering, the single-threaded design would be a major bottleneck, as these workloads are highly parallel. Office productivity tasks, such as word processing and spreadsheet work, might still function, but even these would feel sluggish compared to modern low-end processors. The processor's 50th percentile ranking, if it were meaningful, would suggest it sits at the midpoint of all CPUs, but given the zero benchmark score, this is not a reliable indicator. In essence, the Opteron 250 HE is a relic of a bygone era. It might appeal to collectors or hobbyists maintaining vintage server hardware, but for any serious workload, it is not recommended. The absence of ECC support further reduces its appeal for server use, as data integrity is a common concern in server environments. The dual-channel memory bus and 1 MB of L2 cache provide some benefit for memory-intensive single-threaded tasks, but the lack of L3 cache and the 2.40 GHz clock limit overall performance.

Power and Thermals

The Opteron 250 HE has a thermal design power (TDP) of 55 watts. This is a low figure for a server processor, especially one from the mid-2000s when many server chips consumed over 100 watts. The low TDP indicates that the processor was designed for power efficiency, likely to reduce operating costs in large data centers or to allow for passive cooling in compact chassis. With a 55W TDP, the processor would generate relatively little heat, meaning that a simple air cooler with a small heatsink and fan would be sufficient to keep it within operating temperatures. The lack of a boost clock means that the power draw is relatively constant, avoiding the power spikes associated with turbo modes. The 90nm manufacturing process, which involves 106 million transistors, is relatively large by modern standards, but for its time it was a mature node. The combination of a low clock speed (2.40 GHz) and a single core further contributes to the modest power envelope. In terms of cooling, a basic 80mm fan and aluminum heatsink would likely be adequate, though the exact cooling requirements are not specified in the dataset. The processor's end-of-life status means that replacement parts are scarce, but the low TDP makes it easy to cool with generic components. The 55W TDP also implies that the processor can be used in passively cooled systems, as long as there is adequate airflow in the chassis. Overall, the power and thermal characteristics of the Opteron 250 HE are one of its few positive attributes, allowing it to operate in environments where energy efficiency is a priority. The absence of ECC support and the single-core design, however, limit its utility in modern server deployments, where reliability and parallel processing are paramount.