Intel Celeron E3200

Single-Thread vs Multi-Thread Behavior

The Intel Celeron E3200 is a dual-core, dual-thread processor, meaning it can handle two threads concurrently. Its base clock of 2.40 GHz dictates its single-thread performance ceiling, as there is no boost clock to provide temporary headroom. For real-world workloads, this split is straightforward: the processor’s strength lies in tasks that rely on a single core, such as lightweight office productivity, web browsing, and legacy software that is not heavily threaded. Multi-threaded performance is inherently limited by the lack of additional threads — with only two threads, the processor cannot parallelize workloads like modern video encoding or 3D rendering, which typically scale across four or more threads.

The 50th percentile ranking among all CPUs indicates that the E3200 sits exactly in the middle of the performance distribution when considering all processors ever benchmarked. This is a telling statistic: while it is not a bottom-tier part, it is also not competitive with even entry-level modern chips. The data implies that for single-threaded tasks, the 2.40 GHz clock can still deliver acceptable responsiveness for basic applications, but for any multi-threaded workload, the processor will quickly become a bottleneck. The absence of a boost clock means that sustained single-thread performance is constant — there is no burst capability to handle short spikes in demand.

In practice, the split between single-thread and multi-thread behavior here is stark. A user running a spreadsheet or a word processor will see adequate performance, as these applications rarely utilize more than one or two threads. Conversely, any modern operating system background process, browser with multiple tabs, or concurrent application usage will saturate the two threads, leading to noticeable slowdowns. The data suggests that the E3200 is best suited for a strictly single-tasking environment, where its 2.40 GHz clock can be fully utilized without contention.

Power and Thermals

The E3200 carries a 65W TDP, which places it in a modest power class. This TDP figure implies that a basic air cooler with a small heatsink and fan is sufficient for thermal management; there is no need for liquid cooling or oversized tower coolers. The 45 nm process node, manufactured by Intel, contributes to this manageable power draw — smaller process nodes generally reduce both power consumption and heat generation per transistor. The die size of 82 mm² and 228 million transistors further indicate a relatively simple, low-density chip that should not produce excessive heat.

For system builders, the 65W TDP means that any standard desktop power supply can handle this processor without concern. The thermal implications are equally benign: a stock cooler is adequate, and the system will run quietly under typical loads. However, the lack of a boost clock means that the processor will consistently draw near its TDP under sustained load, rather than ramping up and down. This steady-state power draw is predictable and easy to cool, but it also means that the processor cannot temporarily exceed its thermal envelope for better performance — a feature common in modern chips.

The 45 nm process is a key factor here; it was a mature node at the time of release, and Intel had refined it for good thermal characteristics. The data shows no unusual thermal spikes or power anomalies. For a system that prioritizes low noise and low heat output in a compact desktop case, the E3200 is well within acceptable bounds. The 65W TDP also suggests that the processor is not intended for overclocking without a better cooler, since the multiplier is locked — users cannot adjust the multiplier, and any overclocking would require adjusting the front-side bus, which is not covered by the FACT PACK.

Who Should Consider It

The E3200’s benchmark position at the 50th percentile of all CPUs is a double-edged sword. For users with very specific, low-demand workloads, this processor is a viable option. Office productivity — word processing, spreadsheets, email — will run adequately, as these tasks are primarily single-threaded and do not require high core counts. Similarly, basic web browsing with a limited number of tabs is feasible, though any heavy JavaScript or streaming video could cause stuttering.

Gaming is not a realistic use case for this processor. Modern games require at least four threads, and the E3200’s dual-thread limitation will cause severe frame rate drops and stuttering, even with a capable discrete GPU. The data does not support any gaming recommendation; the processor lacks the multi-threaded throughput required for contemporary game engines. Creation workloads — video editing, 3D modeling, audio production — are also out of scope, as these applications are heavily multi-threaded and would leave the E3200 completely saturated.

The ideal user for the E3200 is someone building a basic, low-cost system for a single primary task, such as a home server for file sharing, a lightweight point-of-sale terminal, or an embedded industrial PC. For these use cases, the 65W TDP and 45 nm process make it easy to cool and power. The dual-core design is sufficient for one application at a time, and the 2.40 GHz clock provides predictable performance. The 50th percentile ranking means that while it is not fast, it is also not the slowest processor ever made — there are many worse CPUs. For a user who knows they will never run more than two applications simultaneously, the E3200 is a functional, if unremarkable, choice.

How It Compares

The FACT PACK lists no nearest rivals for the E3200, which means there are no direct comparison points from the benchmark database at this time. This absence of rival data is itself informative: it suggests that the E3200 is an isolated part with no close competitors in the current benchmark environment. Without rival scores or deltaPct values, a positional analysis cannot be made against other specific processors. The only available benchmark is the percentile rank of 50, which places it exactly at the median of all CPUs in the database — a neutral midpoint that indicates neither strong nor weak performance relative to the entire field.

In the absence of rival comparisons, the data must be interpreted through the lens of the processor’s own specifications. The 2.40 GHz clock, dual cores, and 65W TDP define its performance envelope. The lack of a boost clock and the shared 1 MB L2 cache further constrain its capabilities. Compared to a hypothetical modern dual-core processor, the E3200 would lag significantly due to its older 45 nm process and slower memory bus — but such a comparison requires data not present in the FACT PACK. Therefore, the only valid conclusion is that the E3200 sits at the median, neither excelling nor failing in the broader CPU landscape.

Platform and Compatibility

The E3200 uses the Intel Socket 775, a platform that was widespread during the Core 2 era. This socket supports the Core 2 architecture, and the E3200 specifically uses the Wolfdale codename. The processor supports DDR1, DDR2, and DDR3 memory types, all via a dual-channel memory bus. This broad memory compatibility is unusual and provides flexibility for system builders who may have older memory modules on hand. However, the lack of a listed memory bandwidth figure means that actual throughput cannot be quantified — the data only confirms the memory types and channel configuration.

The processor supports PCIe Gen 2, which allows for a discrete graphics card or other expansion cards. However, the integrated graphics are only available "on certain motherboards (Chipset feature)," meaning the E3200 itself does not contain a GPU — it relies on the motherboard's chipset to provide display output if needed. This is a critical distinction for system builders: a standalone GPU or a motherboard with integrated graphics is required for any video output. The E3200 is not a complete system-on-chip; it is a traditional CPU that depends on external components for graphics.

The upgrade path for Socket 775 is limited to other processors from the same era, as this socket is long obsolete. The production status is listed as "End-of-life," and the release date is August 2009. The part number is SLGU5, and the multiplier is locked — no overclocking via multiplier adjustment is possible. ECC memory is not supported, which rules out use in error-correcting server environments. For a modern user, the platform is only relevant for preserving legacy systems or for low-cost embedded applications where new hardware is unnecessary.

FAQ

Q: How many cores and threads does the Intel Celeron E3200 have?

A: The E3200 has 2 cores and 2 threads, meaning it can process two threads simultaneously.

Q: What is the base clock speed of the E3200?

A: The base clock is 2.40 GHz. There is no boost clock available, so this is the maximum sustained frequency.

Q: What memory types does the E3200 support?

A: The processor supports DDR1, DDR2, and DDR3 memory, all in a dual-channel configuration.

Q: Does the E3200 have integrated graphics?

A: No, the E3200 does not contain integrated graphics. Display output depends on certain motherboards with a chipset feature that provides graphics.

Q: What is the TDP of the E3200?

A: The TDP is 65W, which implies a basic air cooler is sufficient for thermal management.

Q: What socket does the E3200 use?

A: The E3200 uses the Intel Socket 775, which is an end-of-life platform.

Benchmark Performance

The benchmark data for the E3200 is sparse: there are no individual benchmark scores, no average benchmark score (listed as 0), and no nearest rivals with scores or deltaPct values. The only quantitative performance indicator is the percentile rank of 50, which places the processor exactly at the median of all CPUs in the database. This percentile is a relative measure — it means that 50% of all CPUs benchmarked are slower and 50% are faster. In practical terms, this is a neutral position: the E3200 is neither a performance outlier nor a complete failure.

Given the lack of rival data, exact percentage comparisons are impossible. However, the percentile rank can be interpreted alongside the processor’s specifications. With a 2.40 GHz base clock and dual threads, the E3200 is likely to outperform processors from much older generations (e.g., single-core parts) but will fall behind any processor with a higher clock speed or more threads. The 50th percentile suggests that, in a database containing a broad historical range of CPUs, the E3200 is a middle-of-the-road performer — a reasonable result for a 2009 dual-core chip.

The absence of a benchmark score (0) and empty benchmarks array indicate that no standardized benchmark run has been recorded for this specific processor in the database. This is not uncommon for end-of-life parts that were never widely benchmarked. Therefore, the percentile rank is the sole data point for performance analysis. It is a broad indicator, not a precise measurement. The data shows that the E3200 is not a high-performance part, but it is also not a bottom-tier one. For a user with modest needs, this median position is adequate; for anyone seeking modern performance, it is clearly insufficient. The benchmark data, limited as it is, supports the conclusion that the E3200 is a functional but unremarkable processor suited only for basic, single-threaded tasks.