AMD Athlon 64 3200+

The AMD Athlon 64 3200+ is a desktop processor from the 3000 series, built on the K8 architecture with the codename Clawhammer. It runs at a 2000.00 MHz base clock with no boost clock, and it provides 1 core and 1 thread. The chip uses AMD Socket 754, supports DDR1 memory through a single-channel bus, and is manufactured on a 130 nm process with 105 million transistors and a 193 mm² die size. Its database record places it at the 50th percentile among all CPUs, while its benchmark list and nearest-rival list are both empty.

Single-Thread vs Multi-Thread Behavior

The Athlon 64 3200+ has exactly 1 core and 1 thread. This is the defining behavior of the processor: there is no second execution thread, no additional core, and no multi-threading mechanism in the record. Every workload is therefore limited to a single instruction stream. From the CPU’s perspective, the single-thread/multi-thread split is binary rather than a spectrum.

The base clock is 2000.00 MHz, and the boost clock field is null. Because no boost clock is listed, the processor does not have a higher frequency state to move work into. The only operating frequency in the record is the 2000.00 MHz base clock. This means single-threaded tasks are served entirely by that frequency, with no extra headroom from a boost event.

The cache layout reinforces the single-thread design. The processor has 128 KB of L1 cache and 1 MB of L2 cache. With one core, these caches serve the only thread. A 1 MB L2 cache can hold a modest working set on-die, which is helpful for serial loops and repeated data access in lightweight workloads. The absence of an L3 cache means there is no additional shared cache level beyond that L2.

Real workloads that are naturally serial will use the full core. A single computation chain runs without competing for a second core, because no second core exists. Workloads that attempt to run in parallel will be constrained by the available 1 core and 1 thread. The operating system can time-slice between processes, but the underlying execution resources still process one thread at a time.

The benchmark record does not quantify this split. The benchmarks array is empty, and the average benchmark score is 0. The 50th percentile is the only position point, but it is a summary position across all CPUs rather than a per-thread measurement. For a strictly single-threaded chip, the 50th percentile ranking is the aggregate signal; the architectural signal is the single core and single thread.

Who Should Consider It

The target workload profile is defined by the 1 core/1 thread configuration. Any workload that is single-threaded and does not require parallel execution can fit within what this processor offers. A 2000.00 MHz single thread with 128 KB of L1 and 1 MB of L2 defines the execution envelope.

For gaming, the processor is a plausible match for games that use one primary thread. Lightweight or older titles that are not built around parallel threading can run on a single core. Games that rely on multiple threads will not scale, because there are no additional cores or threads available. The data cannot offer a game-specific score, since the benchmark list is empty, but the core and thread counts set a hard limit on multi-threaded game engines.

For creation workloads, the outlook is not favorable. Rendering, encoding, and compiling are often parallel tasks. With 1 thread, any parallel phase must be serialized. The 1 MB L2 cache and single-channel DDR1 memory system provide a limited platform for such work. The record contains no benchmark scores to suggest otherwise, so the safest conclusion is that multi-threaded creation workloads exceed the capability of a 1-core, 1-thread processor.

For office-style productivity, the picture is different. Serial document processing, form-driven applications, and spreadsheet recalculations can run within a single thread. The 50th percentile ranking indicates a middle-tier aggregate position relative to all CPUs in the database. For a single-thread task, that position means a mid-pack experience rather than a high-end one.

Overall, this processor is best considered for legacy systems, single-thread-focused use, or as a platform reference CPU. Production status is End-of-life, which further narrows its relevance to existing Socket 754 systems rather than new high-performance builds.

How It Compares

The nearestRivals list in the database record is empty. There are no rival names, no rival scores, and no deltaPct values. As a result, no direct named comparison to another processor can be made from this entry.

The only comparative field present is percentileVsAllCpus, and its value is 50. This places the processor at the midpoint of the database’s all-CPU distribution. It is neither an upper-tier performer nor a lower-tier one in aggregate ranking terms.

Because no rival entries exist, exact percentage comparisons are unavailable. The record provides no deltaPct values, so statements such as “ahead by a specific percentage” or “behind by a specific percentage” cannot be supported. The comparison framework for this page is therefore limited to the 50th percentile anchor.

FAQ

Q: What socket does the AMD Athlon 64 3200+ use?

A: It uses AMD Socket 754.

Q: How many cores and threads does it have?

A: It has 1 core and 1 thread. There is no other execution thread available.

Q: Does it support ECC memory?

A: No. The ECC memory field is false. It supports DDR1 memory through a single-channel memory bus.

Q: Does the CPU have integrated graphics?

A: Integrated graphics are listed as “On certain motherboards (Chipset feature)” in the record, rather than as an integrated block within the CPU specification.

Q: What is the manufacturing process?

A: The processor is built on a 130 nm process, with 105 million transistors and a 193 mm² die size.

Q: When was it released and is it still in production?

A: The release date is 2003-09-22. Production status is End-of-life.

Benchmark Performance

The benchmark summary for this processor is sparse. The benchmarks array is empty, and the average benchmark score is 0. Because the array is empty, the 0 value is a placeholder default condition rather than a measured performance result.

The percentileVsAllCpus value is 50. In the database’s all-CPU ranking, this places the processor at the median. That means the aggregate score position is in the middle of the distribution. It is not a high percentile and not a low percentile; it is the exact midpoint.

No nearestRivals are present, so deltaPct values cannot be computed for any rival. Exact percentage differences against named CPUs are therefore absent from this record. The absence of deltaPct values is not a performance claim; it is simply a limit on the available data.

The only performance-relevant architectural numbers in the record are the 2000.00 MHz base clock, 128 KB L1 cache, and 1 MB L2 cache. These define the single-threaded execution capacity. The 89 TDP and 130 nm process provide context for the power and thermal envelope, but they do not replace measured benchmark scores.

In summary, benchmark performance is under-specified. The two numeric anchors are the 0 average benchmark score and the 50th percentile. The 50th percentile gives a median placement, but without scores or rivals, no specific margin can be reported.

Platform and Compatibility

The processor uses AMD Socket 754. That socket, combined with the K8 Clawhammer architecture, defines motherboard compatibility. The memory support is DDR1, and the memory bus is single-channel. ECC memory is not supported.

The PCIe field is null in the record. No PCIe version, lane count, or interface detail is listed. As a result, no PCIe capability should be assumed from this database entry. Peripheral connectivity would be a function of the motherboard or chipset, not of the CPU specification itself.

The integrated graphics field states “On certain motherboards (Chipset feature).” This indicates that graphics output was not guaranteed on every platform and was instead tied to specific motherboard chipsets. The CPU record itself does not list integrated graphics as a processor block.

Upgrade path considerations are limited by the Socket 754 interface, DDR1 memory support, and single-channel memory bus. The multiplier unlocked field is false, so the record does not indicate a freely adjustable multiplier for the 2000.00 MHz base clock. Production status is End-of-life, so the platform is not part of an ongoing product roadmap.

The release date of 2003-09-22 places this processor in an earlier era of AMD desktop hardware. The absence of a boost clock and the absence of PCIe data are consistent with the limited feature set recorded for this platform.

Power and Thermals

The TDP field is 89. This is the thermal design power figure that a cooling solution must account for when installed in a Socket 754 system. The processor is built on a 130 nm process, with 105 million transistors spread across a 193 mm² die.

An 89 TDP single-core, single-thread processor falls into a moderate thermal class. There is one active core, and no additional threads to load in parallel. However, the 130 nm process means the chip is not a low-power small-node part; the 193 mm² die area distributes the heat across a relatively large surface.

The cooling tier implied by an 89 TDP part is an active cooling solution with adequate airflow. The absence of temperature measurements in the record prevents a more specific cooler recommendation. No maximum temperature, cooling requirement, or thermal test result is listed.

Because the boost clock field is null, thermal load is tied to the 2000.00 MHz base clock. There is no additional boost state to increase power draw above that baseline. The single-channel DDR1 memory bus further limits the memory-side loading that the platform can place on the processor.

Given the End-of-life production status, any cooling solution would be selected for a legacy Socket 754 board rather than a modern platform. The 89 TDP value remains the key numerical anchor for that selection.