AMD Opteron 2210 (F3)

The AMD Opteron 2210 (F3) is a dual-core server processor built on the K8 architecture, codenamed Santa Rosa. Released in August 2006, it carries a launch MSRP of $255. The database places it at the 50th percentile of all tracked CPUs, with an average benchmark score of 0. This zero score indicates that no performance samples have been recorded for this part, so the percentile is a positional marker rather than a measured result.

Benchmark Performance

The benchmark data for the Opteron 2210 (F3) is sparse. The average benchmark score is 0, meaning the database has no recorded performance runs for this processor. The 50th percentile placement across all CPUs is the only quantitative reference point. This percentile indicates a median standing — exactly halfway between the slowest and fastest tracked parts. With no nearest rivals listed, the analysis must rely on the processor's own characteristics. The 1800 MHz base clock, 2 cores, and 2 threads define the raw compute capacity. The 90 nm process and 227 million transistors on a 235 mm² die are the physical limits. The 50th percentile suggests that among all CPUs in the database, this Opteron sits at the midpoint. However, the zero benchmark score means no direct comparisons can be drawn. The absence of rival scores prevents any percentage deltas from being calculated. The data shows a neutral, mid-field position, but the lack of measured scores leaves the actual performance unverified. The 10.7 GB/s memory bandwidth and dual-channel DDR2 support are the only throughput numbers available. The 128 KB L1 and 1 MB L2 caches per core are the cache hierarchy. Without benchmark samples, the 50th percentile is a statistical placeholder, not a performance verdict. The 1800 MHz clock is the sole frequency, as no boost clock is listed. The 2-core, 2-thread configuration is the compute ceiling. The 50th percentile is a median marker, but the zero score means no empirical validation exists. The data set is incomplete, and the percentile is derived from the entire CPU population, not from this part's own runs. The 90 nm process and 235 mm² die size are the only physical performance indicators. The 227 million transistor count is a design metric, not a speed measure.

Single-Thread vs Multi-Thread Behavior

The Opteron 2210 (F3) has 2 cores and 2 threads, with no boost clock listed. This means the 1800 MHz base clock is the maximum frequency for all operations. Single-threaded workloads are entirely bound by this 1800 MHz clock. The L1 cache is 128 KB per core, and the L2 cache is 1 MB per core. For a single thread, the processor can dedicate one core's full cache and clock to that task. The lack of SMT (threads equal cores) means no additional logical threads are available. Multi-threaded workloads can use both cores, but the ceiling is exactly 2 concurrent threads. The memory bandwidth of 10.7 GB/s is shared between the two cores. For real-world server workloads, the split matters. A database transaction that is latency-sensitive will rely on the 1800 MHz clock and the 1 MB L2 per core. A web server handling multiple connections will use both cores, but each core handles one thread at a time. The dual-channel DDR2 memory bus provides 10.7 GB/s of bandwidth, which is modest for two cores. The 128 KB L1 per core is small, but the 1 MB L2 per core provides a larger working set. The absence of a boost clock means the processor never exceeds 1800 MHz, so single-thread performance is fixed. Multi-thread performance scales linearly to 2 cores, but no further. The 50th percentile ranking suggests that this fixed clock and 2-thread limit place it at the median of all CPUs. For workloads that require more than 2 threads, the processor will bottleneck. For workloads that are single-threaded, the 1800 MHz clock is the sole determinant. The cache hierarchy is modest, with 128 KB L1 and 1 MB L2 per core. The lack of SMT is a defining trait. The data shows a processor that is strictly dual-core, with no hyper-threading. The 1800 MHz clock is the same for both cores, so no core has a frequency advantage. The 10.7 GB/s bandwidth is a shared resource, so heavy memory access from one core can starve the other.

Platform and Compatibility

The Opteron 2210 (F3) uses the AMD Socket F interface. Memory support is DDR2, operating in dual-channel mode, with a peak bandwidth of 10.7 GB/s. ECC memory is supported, which is a critical feature for server reliability. The PCIe interface is Gen 1. The architecture is K8, with the codename Santa Rosa. The process node is 90 nm, with 227 million transistors on a 235 mm² die. The production status is end-of-life, meaning the part is no longer manufactured. The release date was August 2006. The platform is designed for server and workstation motherboards. The Socket F interface is specific to AMD's server line. The memory bus is dual-channel DDR2, which limits memory capacity and speed compared to later standards. The PCIe Gen 1 interface provides the expansion connectivity. The ECC memory support ensures data integrity in error-sensitive environments. The upgrade path is essentially closed, as the end-of-life status means no new motherboard chipsets or BIOS updates are forthcoming. The part number OSA2210GAA6CX identifies the exact SKU. The lack of a boost clock and the fixed 1800 MHz base clock are platform characteristics. The memory bandwidth of 10.7 GB/s is the maximum theoretical throughput. For compatibility, any motherboard with Socket F and DDR2 support will accept this processor. The 90 nm process and 235 mm² die size are physical attributes. The 227 million transistor count is a design metric. The socket is a server-specific interface, so desktop motherboards are incompatible. The dual-channel memory bus is a standard for that era. The ECC support is a differentiator for reliability. The end-of-life status means no future firmware support. The platform is a legacy server platform, with no modern expansion options beyond the PCIe Gen 1 slots.

Who Should Consider It

The Opteron 2210 (F3) is a server and workstation processor. With 2 cores and 2 threads at 1800 MHz, it is suited for lightweight server tasks. Simple file serving, print serving, or legacy application hosting are within its capability. The 50th percentile ranking places it at the median of all CPUs, so it is not a performance leader. For gaming, the processor has no integrated graphics, and the 2-core design limits modern game performance. The 1800 MHz clock is low for gaming. For content creation, the 2-thread limit is a severe constraint. Video encoding or 3D rendering that scales beyond 2 threads will be bottlenecked. The 10.7 GB/s memory bandwidth is sufficient for basic server I/O but not for high-throughput workloads. For office productivity, the processor could handle word processing and spreadsheets, but the server-oriented platform (Socket F, DDR2 ECC) is not typical for office desktops. The launch MSRP of $255 positioned it as a mid-range server part at release. The ECC memory support makes it attractive for reliability-focused environments. The 128 KB L1 and 1 MB L2 caches per core provide adequate cache for small workloads. The lack of a boost clock means no headroom for bursty tasks. The data shows that this processor is best for single-purpose, low-thread-count server roles. It is not suitable for modern multi-core scaling. The 50th percentile suggests it is an average performer for its era, but the era is long past. The 2-thread ceiling is the primary limitation. The 1800 MHz clock is the secondary limitation. For a small business running a single application, this could work. For a database server with concurrent queries, the 2-thread limit is a bottleneck. The 10.7 GB/s bandwidth is adequate for a single NIC or a few storage drives. The 95W TDP (discussed below) is a moderate thermal load for a server chassis.

Power and Thermals

The Opteron 2210 (F3) has a TDP of 95W. This is a moderate power envelope for a dual-core processor. The 90 nm process node and 227 million transistors on a 235 mm² die determine the thermal characteristics. A 95W TDP implies the need for a standard server-grade heatsink. A capable air cooler would suffice, as the thermal load is not extreme. The 1800 MHz base clock contributes to the power draw. The lack of a boost clock means the power draw is constant under load, without frequency spikes. The 95W TDP class is typical for server processors of that generation. The end-of-life status means thermal solutions are legacy. The 235 mm² die size and 227 million transistors are the physical heat sources. The 95W TDP indicates a cooling solution capable of dissipating 95W of heat. For a server chassis, a passive heatsink with adequate airflow or a low-profile active cooler would be appropriate. The data shows a modest thermal footprint for its performance class. The 90 nm process is relatively large, so the 95W TDP is expected. The 2 cores at 1800 MHz generate a steady heat load. The lack of a boost clock avoids thermal spikes. The 95W rating is the only power metric provided, and it places the processor in a mid-range cooling tier. The 227 million transistors on a 235 mm² die mean the power density is moderate, so a standard server fan is adequate. The 50th percentile ranking does not correlate with thermal performance, but the 95W TDP is a fixed design point.