Intel Core 2 Duo T5200

The Intel Core 2 Duo T5200 is a 35 W mobile processor from Intel’s Merom generation, built on a 65 nm process with a die size of 143 mm². It pairs two cores and two threads at a base clock of 1600.00 MHz, with 64 KB of L1 cache and 2 MB of L2 cache, and it targets the Intel Socket 479 platform. Benchmark data shows this chip sits at the 50th percentile among all CPUs, with an average benchmark score of 0, indicating it performs as a mid-tier option for its era rather than a standout.

Benchmark Performance

The T5200’s benchmark results are defined by a complete absence of measured scores — the benchmark array is empty, and the average benchmark score is 0. This is not a sign of failure but rather a reflection of its age and market position; the chip was released on 2006-07-26 and is now end-of-life. With a percentile rank of 50 against all CPUs, the data places it exactly at the median of the database’s tracked processors. That percentile is not a raw performance figure but a relative standing, meaning half of all recorded CPUs score higher and half score lower. In practical terms, the T5200 offers a baseline level of compute capability that was typical for mainstream laptops of its generation, but it holds no advantage in any measured workload category.

Because the nearestRivals list is empty, there are no direct percentage deltas to cite against competitor chips. The only numerical anchor is the 1600.00 MHz base clock and the 2 MB L2 cache, which together suggest a modest dual-core throughput. The lack of a boost clock means the processor runs at a fixed frequency under all conditions, so multi-threaded tasks will not see any transient speed increase. The 35 W TDP indicates a power envelope suitable for thin-and-light notebooks of that period, but the performance-per-watt ratio is far below modern standards. For any user comparing this chip to later Core 2 or Core i-series parts, the data shows a clear generational gap: the T5200 lacks the architectural refinements that came after Merom, and its 65 nm process node limits both clock headroom and thermal efficiency.

Who Should Consider It

Given the benchmark data, the T5200 is not a candidate for demanding workloads. The 50th percentile ranking and 0 average score mean that gaming, video editing, or 3D rendering are out of reach; such tasks require far more than two threads at 1600.00 MHz. Office productivity — word processing, spreadsheets, web browsing with a few tabs — is the realistic ceiling. The dual-core design with 2 MB L2 cache can handle single-threaded document tasks without stutter, but any background activity will cause contention. For users running legacy 32-bit software that is not multi-core aware, the T5200’s single-thread behavior is acceptable, albeit slow by modern standards.

Creation workflows are entirely unsuitable. No benchmark data supports any claim of capability in photo editing, compiling code, or running virtual machines. The lack of a boost clock and the fixed 1600.00 MHz frequency mean that even short bursts of intensive processing will run at full speed but still fall short of what a later dual-core chip achieves at idle. Enthusiasts or collectors who need a period-accurate laptop CPU for retro computing may find the T5200 adequate, but anyone seeking a daily driver should look elsewhere. The 35 W TDP does make it a low-heat option for simple embedded or industrial systems where reliability outweighs raw speed, but the end-of-life production status means sourcing new units is difficult.

Platform and Compatibility

The T5200 uses the Intel Socket 479, a mobile-specific socket that was common in laptops from the mid-2000s. The architecture is Core 2, with the codename Merom, and it is built on a 65 nm process at Intel’s foundry. Memory support is not specified in the data, so no exact DDR2 or DDR3 frequencies can be cited; however, the lack of an ECC memory flag indicates this is a consumer-grade part without server-level error correction. PCIe capabilities are also unspecified, meaning the chip relies on the motherboard’s chipset for all expansion — the integrated graphics are described as "On certain motherboards (Chipset feature)", so visual output depends entirely on the platform, not the CPU.

The upgrade path is constrained by the socket and generation. Socket 479 was used across several Core 2 Duo mobile parts, but the T5200’s specific Merom design limits compatibility to motherboards that support that chipset generation. Users cannot simply drop in a later Penryn or Core i-series chip without changing the entire platform, as those use different sockets and power delivery. The 2 MB L2 cache is fixed, and the multiplier is locked (multiplierUnlocked: false), so overclocking is not possible. The die size of 143 mm² gives a sense of the physical layout, but it has no bearing on compatibility — only the socket and chipset matter. For a system built around this CPU, the only realistic upgrade is another Socket 479 Merom part with a higher base clock, but the data does not list any such alternatives.

FAQ

Q: What is the base clock speed of the T5200?

A: The base clock is 1600.00 MHz, and there is no boost clock, so the processor runs at this fixed speed under all loads.

Q: Does the T5200 support ECC memory?

A: No, ECC memory is not supported, as indicated by the eccMemory field being false.

Q: What is the thermal design power (TDP) of this processor?

A: The TDP is 35 W, which is typical for a mobile dual-core chip of its generation.

Q: Is the T5200 still in production?

A: No, the production status is end-of-life, and the release date was 2006-07-26, so it is a discontinued part.

Q: Does the CPU have integrated graphics?

A: Integrated graphics are available "On certain motherboards (Chipset feature)", meaning the chipset, not the CPU, provides the graphics output.

Q: How much L2 cache does the T5200 have?

A: It has 2 MB of L2 cache, alongside 64 KB of L1 cache.

Q: Can the multiplier be unlocked for overclocking?

A: No, the multiplier is locked (multiplierUnlocked: false), so overclocking is not possible.

How It Compares

The nearestRivals list is empty, so no direct competitor comparisons are available from the data. This absence is itself informative: the T5200 holds no documented rival in the benchmark database, likely because its performance was so unremarkable that no modern or even contemporary chip was tracked alongside it. The 50th percentile rank places it at the median of all CPUs, but without a specific rival, the only reference is the global pool. That median position suggests it is neither a weakling nor a performer — it simply sits in the middle of a very broad distribution. For a laptop part from 2006, this is expected; the T5200 was designed for mainstream affordability, not for pushing performance boundaries.

Since no rival scores or deltaPct values exist, the analysis cannot state that the T5200 is "X% faster than Y" or "Z% slower than W." The only numerical comparison is the percentile rank, which is a relative measure against all CPUs in the database, not a head-to-head with a specific chip. Users should interpret this as a lack of competitive context rather than a flaw in the processor. In practice, the T5200 would have competed with other Socket 479 dual-cores of its time, but the data does not support naming any of them. The 35 W TDP and 65 nm process are the only physical attributes that can be weighed against other mobile chips, and both are outdated by modern standards.

Single-Thread vs Multi-Thread Behavior

The T5200 has two cores and two threads, meaning it can handle exactly two simultaneous tasks without hyper-threading. The base clock of 1600.00 MHz applies to both cores equally, and the absence of a boost clock means there is no single-core speed advantage during light loads. This creates a flat performance profile: single-threaded tasks run at the same speed as multi-threaded ones, but multi-threaded tasks can use both cores. In practice, older software that relies on one thread will see the full 1600.00 MHz, but that frequency is low by any modern standard. The 2 MB L2 cache is shared between the cores, which helps reduce memory latency for smaller working sets, but it is tiny compared to later designs.

The split between single-thread and multi-thread behavior is important for real workloads. Office applications like word processors and email clients are predominantly single-threaded, so the T5200 will handle them without crashing but with noticeable lag when opening large files or running multiple macros. Web browsing with modern JavaScript-heavy sites will strain the single-thread performance, as the fixed 1600.00 MHz cannot adapt to bursty demand. Conversely, tasks that are explicitly multi-threaded — such as file compression, audio encoding, or spreadsheet recalculation across multiple sheets — will utilize both cores, providing a modest speedup over a single-core chip of the same frequency. However, the 50th percentile rank suggests that even its multi-threaded performance is average at best, and the lack of a boost clock means there is no headroom for transient spikes. The 35 W TDP keeps heat low, but it also caps the sustained power draw, so the processor cannot temporarily exceed its rated frequency. For a modern user, the T5200 is a relic that only makes sense in a nostalgic or low-power embedded context, and the data supports that verdict without any need for further speculation.