AMD Athlon XP 2400+

The AMD Athlon XP 2400+ is a single-core desktop processor from the K7 architecture, released in late August 2003 as part of the Thorton codename generation. It operates at a base clock of 2000.00 MHz on the AMD Socket A platform, built on a 130 nm process node with 63 million transistors, and holds a 50th percentile ranking among all CPUs in the database, though it carries no benchmark scores or direct rival comparisons in the available dataset.

How It Compares

The data lists no nearest rivals for the Athlon XP 2400+, meaning the benchmark database contains no direct comparison points for this specific processor. Consequently, its relative standing can only be inferred from its percentile position and architectural characteristics rather than head-to-head score deltas.

As a 50th-percentile part, the Athlon XP 2400+ sits exactly at the median of all CPUs tracked by the database. This places it in the middle of the performance distribution, above half of all recorded processors and below the other half, which is a reasonable outcome for a mainstream desktop chip from its era.

With zero benchmark scores recorded and an average benchmark score of zero, the database treats this processor as an unmeasured entry. The absence of rival data means no percentage improvements or deficits can be calculated against specific competitors, leaving only the percentile rank as a positional indicator.

The Thorton core represents a distinct variant within the Athlon XP family, differentiated from other K7 implementations by its 256 KB L2 cache configuration. This places it between lower-end Duron parts and higher-end Barton cores with larger caches, though no direct numeric comparisons are available in the fact pack.

Who Should Consider It

The Athlon XP 2400+ is best suited for single-threaded legacy applications that predate multi-core scaling, given its single core and single thread configuration. Its 2000.00 MHz base clock provides a straightforward frequency baseline, which historically favored responsiveness in lightly threaded desktop tasks.

For office productivity workloads, the processor’s single-threaded design means it can handle basic document editing, spreadsheet manipulation, and web browsing from its era, though modern multitasking would overwhelm its single execution thread. The absence of a boost clock limits any dynamic frequency headroom, so performance is fixed at the base 2000.00 MHz.

Gaming on this processor would be limited to titles from the early 2000s that were designed around single-core CPUs. The 128 KB L1 and 256 KB L2 cache hierarchy provided reasonable data locality for older game engines, but the lack of multi-threading means no parallel workload benefits.

Content creation tasks such as video encoding or 3D rendering, which even in that era began leveraging multiple threads where available, would strain the single-threaded architecture. Users needing such workloads would find the processor acceptable only for very simple, non-threaded operations.

The integrated graphics option, noted as available on certain motherboards as a chipset feature, means the processor itself does not contain a GPU. This makes it unsuitable for systems without a discrete graphics card, but appropriate for basic headless or server-style deployments where video output is unnecessary.

Benchmark Performance

With no benchmark scores recorded in the fact pack, the Athlon XP 2400+ cannot be quantitatively assessed against any rival processor. The average benchmark score of zero indicates that no standardized tests have been run or logged for this part in the database.

The percentile ranking of 50 provides the only numeric performance signal, suggesting that if and when benchmarks are measured, the processor would likely land near the midpoint of the distribution. This is consistent with a mainstream desktop part from 2003, which would have been mid-range relative to both contemporary high-end and low-end offerings.

The lack of nearestRivals data means no percentage deltas can be cited for this analysis. In the absence of such figures, the processor’s performance characteristics must be described qualitatively, based on its architectural specifications rather than measured outcomes.

The 2000.00 MHz clock speed, combined with the K7 architecture’s execution efficiency, would have provided competitive single-thread integer performance in its release window. However, without benchmark numbers, any specific performance claims remain unverified by the database.

FAQ

Q: How many cores and threads does the Athlon XP 2400+ have?

A: It has exactly 1 core and 1 thread, making it a strictly single-threaded processor.

Q: What is the base clock speed of this processor?

A: The base clock is 2000.00 MHz, with no boost clock available, so it runs at this fixed frequency.

Q: Does the Athlon XP 2400+ have integrated graphics?

A: It has no on-die graphics, but the fact pack notes that integrated graphics are available on certain motherboards as a chipset feature.

Q: What is the L2 cache size on this chip?

A: The L2 cache is 256 KB, alongside a 128 KB L1 cache, with no L3 cache present.

Q: What socket does this processor use?

A: It uses the AMD Socket A interface, which is the socket for the K7 architecture family.

Q: Is the multiplier unlocked for overclocking?

A: No, the multiplier is locked, so the clock frequency cannot be adjusted upward through multiplier changes.

Power and Thermals

The Athlon XP 2400+ has a thermal design power (TDP) of 68 watts, which classifies it as a moderately power-hungry desktop part for its generation. This TDP figure implies that a capable air cooler would be sufficient to manage its heat output under typical load conditions, given that 68 watts is well within the range of standard heatsink and fan solutions from the early 2000s.

The 130 nm process node helps constrain power draw relative to older, larger process technologies, though the 68-watt TDP still requires adequate chassis airflow. Users pairing this processor with a Socket A motherboard would need to ensure the cooler is rated for at least this thermal envelope to avoid throttling or instability.

The unlocked multiplier is false, which means the processor runs at its stock 2000.00 MHz without user-adjustable frequency multiplication. This limits overclocking headroom via the multiplier path, though front-side bus adjustments could theoretically alter effective clock speed, but such changes are not documented in the fact pack.

For cooling tier implications, the 68-watt TDP suggests a mid-range cooler, not a low-profile or passive solution, and not an extreme high-end cooler either. A standard aluminum heatsink with a fan would suffice, while copper-core or heat-pipe designs would provide additional margin for ambient temperature variations.

Single-Thread vs Multi-Thread Behavior

The Athlon XP 2400+ is exclusively single-threaded, with one core and one thread, meaning it can execute only a single instruction stream at a time. This architecture has no parallel execution capability, so any workload that could benefit from multiple threads will see zero scaling benefit on this processor.

The 2000.00 MHz base clock serves as the sole determinant of single-thread throughput, since there is no boost clock to temporarily elevate frequency under load. This fixed clock speed means the processor’s single-thread performance is consistent and predictable, but also unvarying regardless of workload intensity.

In real-world terms, this single-thread behavior favors applications that are latency-sensitive and serialize their execution, such as older word processors, spreadsheet calculations, and single-threaded games. Conversely, modern operating systems and web browsers that spawn multiple background threads will contend for the single execution resource, causing context-switching overhead.

The 256 KB L2 cache helps mitigate some memory latency penalties in single-threaded workloads by keeping frequently accessed data close to the execution core. However, the lack of an L3 cache means the processor relies entirely on the L1 and L2 hierarchy, which may bottleneck cache-miss-heavy workloads.

Given the 50th-percentile ranking, the processor’s single-thread performance is statistically average among all CPUs in the database, though this ranking is not tied to specific benchmark scores. The multi-thread behavior is effectively non-existent, as the processor cannot exploit any thread-level parallelism, making it unsuitable for modern multi-threaded applications.