AMD Opteron 8212 HE (F2)

The AMD Opteron 8212 HE (F2) is an end-of-life Server/Workstation processor from AMD’s K8 architecture, codenamed Santa Rosa, released on 2006-08-14. The database record shows an average benchmark score of 0 and a percentileVsAllCpus of 50, placing the CPU at the midpoint of the reference CPU distribution. Because the nearestRivals array is empty, no competitor name, score, or deltaPct value is available for direct comparison.

Benchmark Performance

Within the database, the percentileVsAllCpus value of 50 is the only comparative ranking. It places the Opteron 8212 HE at the median of all CPUs tracked by the database, although the avgBenchmarkScore of 0 indicates that no measured samples contribute to that placement. There are no entries in the benchmarks list, and there are no nearestRivals entries. As a result, the record cannot support a statement such as “X percent ahead of rival Y” or “Z percent behind rival W.” The absence of data is itself a relevant finding: any benchmark analysis must be built from the processor’s fixed specifications rather than from sampled scores.

Those specifications show 2 cores, 2 threads, a base clock of 2000.00 MHz, and no boost clock. Because the multiplier is not unlocked, the processor’s operating frequency is not intended to be altered. In benchmark terms, this means a predictable frequency profile across both cores, with no transient single-core boost. The cache hierarchy consists of 128 KB L1 per core and 1 MB L2 per core; no L3 is listed. Workloads that fit within the per-core L1 or L2 can avoid the main memory path, while larger working sets are exposed to the dual-channel DDR2 interface with 10.7 GB/s of bandwidth. The 50th percentile position cannot be tied to a meaningful raw score because the raw score is 0 and rival deltas are absent, but it does suggest a middle-of-distribution placement rather than an outlier at either extreme.

The absence of nearestRivals also means no exact percentage advantages or deficits can be reported. The empty rival list is a structural limitation: benchmark-derived statements about higher or lower performance require comparator records, and none are present. What remains is the architectural position of the part: a 2-core, 2-thread K8-generation server processor at 2000.00 MHz, with per-core cache, DDR2 memory support, and a 50th percentile standing in the database.

Single-Thread vs Multi-Thread Behavior

With cores equal to 2 and threads equal to 2, the processor has no extra logical contexts. Thread count equals core count, so each core can handle exactly one hardware thread at a time. For single-thread execution, one core can use its full 2000.00 MHz base clock, 128 KB of L1, and 1 MB of L2. The second core remains available to another independent thread but does not contribute to the execution of the first thread in a hardware-accelerated sense. There is no boost clock to raise frequency when only one core is active, so single-threaded performance is strictly set by the base clock and the K8 microarchitecture.

For workloads with exactly two runnable threads, the two cores can operate in parallel, providing two hardware execution contexts. The shared dual-channel DDR2 memory bus at 10.7 GB/s is the common memory path, so memory-heavy two-thread workloads may contend for the same channel resources. The record provides no measured single-thread or multi-thread scores, but the structural data is clear: scaling stops at two threads. A third or fourth runnable thread will time-share the two available contexts, introducing operating system scheduling pressure rather than adding hardware throughput.

The per-core cache arrangement matters for thread behavior. Each core has its own 128 KB L1 and its own 1 MB L2, with no shared L3 listed in the record. Threads pinned to the same core will share that core’s cache and execution resources, while threads pinned to separate cores will use separate caches. For server workloads that are deliberately limited to one or two threads, this configuration offers isolated per-core resources. For broader multi-threaded workloads, the lack of more than two threads is a hard boundary. The absence of a boost clock reinforces a flat performance profile: lightly loaded threads are not pushed to a higher frequency, so the single-thread and two-thread operating points are both tied to the 2000.00 MHz base clock.

Power and Thermals

The TDP is 68 W. The HE suffix in the processor name aligns with that efficiency-oriented thermal figure. The processor is fabricated on a 90 nm process, with 227 million transistors on a 235 mm² die. These facts define the physical and thermal design space. A 68 W TDP for a dual-core server processor can be managed by a conventional air cooler in a server/workstation chassis, but the fact pack does not list a specific cooler, thermal solution, or chassis requirement. The practical thermal behavior is therefore described by the fixed operating point: 2000.00 MHz base clock, no boost clock, and a locked multiplier.

The locked multiplier is relevant to thermals because the processor is not designed for user-directed frequency changes. Without an unlocked multiplier and without boost behavior, there is no mechanism for the processor to step above 2000.00 MHz. This makes the peak thermal load more predictable than a part with aggressive frequency scaling. On a 90 nm process, a 68 W TDP places the Opteron 8212 HE in a lower-power category relative to what the architecture could consume at higher frequencies, although the record does not provide a direct same-architecture comparison. The thermal analysis is also constrained by end-of-life status: no new platform thermal validation data appears in the database. What can be stated with confidence is the TDP figure, the process node, the transistor count, the die size, and the absence of any dynamic frequency mechanism that would alter the 2000.00 MHz operating baseline.

Who Should Consider It

The Opteron 8212 HE is aimed at the Server/Workstation market segment. Its 2-core, 2-thread configuration and ECC memory support make it relevant for server or workstation workloads that use one or two threads and require error-corrected DDR2 memory. The dual-channel memory interface with 10.7 GB/s bandwidth is sufficient for memory patterns that fit within the per-core L1 128 KB and per-core L2 1 MB caches. Workloads with larger working sets will depend on the DDR2 memory path.

For gaming, creation, or general-purpose office multitasking, the record provides no benchmark samples, and the two-thread ceiling is a significant structural limitation. The empty benchmarks list and empty nearestRivals list mean no measured performance estimate can be offered for those workload classes. The CPU is best considered within an existing AMD Socket F system rather than as a basis for a new build. The 50th percentile database position is a central ranking, but with an average benchmark score of 0, it is not supported by demonstrated scores. The launch MSRP is $1019.

Platform and Compatibility

The platform foundation is AMD Socket F. The processor belongs to the K8 architecture generation, codenamed Santa Rosa, and is manufactured on a 90 nm process. Memory support is DDR2 over a dual-channel bus with 10.7 GB/s of bandwidth, and ECC memory is enabled. PCIe support is Gen 1. The record lists no integrated graphics, so display output or GPU-accelerated work would rely on a separate graphics adapter. The multiplier is not unlocked, and the production status is end-of-life. The release date is 2006-08-14, and the exact part number is OSP8212GAA6CR.

Because the socket is AMD Socket F and the memory type is DDR2, compatible motherboards are those from the same platform generation. The record does not list a chipset, a series grouping, or compatible alternative processors; the series field is null, and nearestRivals is empty. This limits the upgrade path analysis: within the AMD Socket F era, the database provides no other processor records for comparison. What can be stated is that the platform uses DDR2, PCIe Gen 1, and ECC memory support, and that the CPU is end-of-life. Any upgrade path would have to stay within the motherboard’s supported AMD Socket F processor list, which is not documented in this record. The fixed 2000.00 MHz clock and locked multiplier also mean that board-level frequency configuration is limited to standard supported settings. The absence of a boost clock eliminates the need to account for dynamic power delivery steps. Overall, the Opteron 8212 HE is a legacy server/workstation CPU whose relevance is restricted to the AMD Socket F and DDR2 platform generation it was designed for.