Intel Xeon 5060

Intel Xeon 5060 is a dual-core server processor from the NetBurst-era Dempsey family, built on a 65 nm process with 376 million transistors. It operates at a base clock of 3.20 GHz with no boost capability, supporting four threads via Hyper-Threading. The chip carries a 130 W TDP, uses the Intel Socket 771 platform, and supports DDR2 memory with ECC functionality. Its benchmark percentile versus all CPUs sits at 50, placing it exactly at the median of the database, though its average benchmark score is zero, indicating no standardized performance data is available for direct comparison.

Benchmark Performance

The Intel Xeon 5060 does not have any recorded benchmark scores in the database, and its nearestRivals list is empty. This absence of quantitative data means that absolute performance cannot be stated with numeric precision. However, the processor’s percentile rank of 50 against all CPUs in the database provides a positional signal: it sits at the midpoint of the distribution, meaning half of all tracked processors are faster and half are slower. This is a notable placement for a dual-core part from 2006, as it suggests that while the architecture is dated, the combination of a high 3.20 GHz clock and dual-thread-per-core support keeps it competitive with a broad swath of historical and low-end modern parts.

Without rival scores, no deltaPct values can be computed, and no percentage-based comparisons are possible. The lack of benchmarks may reflect the processor’s end-of-life status and its niche server/workstation market segment, where standardized synthetic workloads are less commonly run than in consumer desktop testing. The zero average benchmark score is a data artifact, not a performance verdict—it indicates that no valid test runs have been submitted or averaged for this model. Consequently, any claim about its speed relative to specific competitors must remain qualitative, grounded in architectural characteristics rather than measured deltas.

Single-Thread vs Multi-Thread Behavior

The Xeon 5060 features 2 physical cores and 4 threads, with each core possessing 16 KB of L1 cache and 2 MB of dedicated L2 cache. This configuration yields a per-core L2 ratio of 1 MB per thread, which is generous for the era and helps mitigate the relatively small L1 capacity. In single-threaded workloads, the processor relies entirely on its 3.20 GHz base clock—there is no boost clock to dynamically increase frequency. This fixed clock speed means that single-thread performance is deterministic and scales directly with the core’s NetBurst pipeline efficiency, which is known for high clock speeds but lower instructions-per-clock compared to later architectures.

For multi-threaded scenarios, the presence of Hyper-Threading allows the operating system to schedule two threads per physical core. This does not double throughput—shared execution resources within each core limit gains—but it improves utilization during stalls such as memory latency or branch mispredictions. The 2 MB per-core L2 cache is a critical asset here, as it reduces the frequency of accesses to the slower DDR2 memory subsystem. In workloads that fit within the L2 footprint, the processor can exhibit strong scaling; beyond that, the dual-channel DDR2 interface becomes the bottleneck. The 50th percentile ranking suggests that, on average, the processor handles a mix of single- and multi-threaded tasks at a level typical for its time, but without benchmark deltas, the exact split between its single- and multi-thread efficiency cannot be quantified.

Power and Thermals

The Xeon 5060 carries a 130 W thermal design power (TDP), which classifies it as a high-power part by modern standards but was typical for dual-core NetBurst server chips of its generation. This TDP figure directly dictates the minimum cooling solution required: a capable air cooler or a server-grade heatsink with adequate airflow is mandatory, and passive cooling in a chassis with strong forced convection is feasible. The 65 nm process node helps contain power density, but the 376 million transistor count and 2x 81 mm² die size (two separate dies on a multi-chip module) contribute to a substantial heat load concentrated in a small area.

For thermal management, the 130 W TDP means that the processor will generate significant heat under sustained full load, especially in multi-threaded workloads that engage both cores and all four threads. The absence of a boost clock implies that power draw is relatively steady at maximum frequency, avoiding the bursty thermal spikes seen in modern turbo-boosted parts. However, the lack of any thermal throttling data in the fact pack means no specific temperature thresholds or frequency reduction behaviors can be cited. In practical terms, the cooling tier implied by 130 W TDP is one that requires a robust heatsink with a 80 mm or larger fan, or a server chassis designed for high-TDP processors—anything less would risk thermal shutdown or accelerated degradation.

Platform and Compatibility

The Xeon 5060 uses the Intel Socket 771, a server-oriented socket that supports registered ECC memory. Memory support is limited to DDR2, with no memory bus speed or bandwidth figures provided in the fact pack. ECC memory is enabled, which is critical for server and workstation reliability, as it can detect and correct single-bit memory errors. The platform does not include integrated graphics, meaning a discrete GPU is required for any display output—standard for server processors. PCIe support is not listed, so no lane counts or versions can be stated; however, the lack of integrated PCIe on the CPU die suggests the chipset handles expansion, typical for the 2006 era.

The processor’s release date is May 22, 2006, and it is marked as end-of-life, meaning it is no longer in production. Its market segment is Server/Workstation, which aligns with the Socket 771 platform’s focus on multi-socket configurations and high memory capacity. The upgrade path from the Xeon 5060 is constrained by the Socket 771 platform itself: any replacement would require a motherboard with the same socket, and since the processor is end-of-life, newer parts on this socket may be limited to other Dempsey or early Woodcrest models, though no specific compatible processors are listed. The part number is SL96B, and the multiplier is locked, preventing any clock frequency adjustments beyond the stock 3.20 GHz. The launch MSRP is $316, which provides a reference for its original market positioning as a mid-range server chip.

How It Compares

Since the nearestRivals array in the fact pack is empty, no direct comparisons to specific rival processors can be made with named products. The only relative data point is the 50th percentile ranking against all CPUs, which serves as a proxy for overall competitive positioning. This percentile indicates that the Xeon 5060 is not an outlier in either direction—it performs at the median level of the entire database, which includes processors from multiple generations and market segments. For a 2006 dual-core part, this is a respectable showing, suggesting that its high clock speed compensates for architectural inefficiencies.

Without rival names or deltaPct values, any attempt to compare against specific processors would violate the fact pack constraints. The absence of benchmark scores further complicates a comparative analysis, as there are no numeric deltas to cite. The only defensible statement is that the processor occupies a middle-ground position in the overall CPU landscape, neither excelling nor lagging in aggregate performance. This neutrality is consistent with its role as a mid-tier server processor at launch, aimed at balanced workloads rather than extreme computational throughput. Future comparisons would require populating the nearestRivals field with actual benchmark data, but as presented, the Xeon 5060 remains a median performer with no direct rival data to analyze.