AMD E2-3000M

Who Should Consider It

The AMD E2-3000M is a mobile processor designed for entry-level computing tasks where power efficiency matters more than raw performance. With 2 cores and 2 threads running at a base clock of 1800 MHz and a boost clock of 2.40 GHz, this chip targets users who primarily need a machine for basic productivity, web browsing, and light multimedia consumption. Benchmark data places it at the 50th percentile among all CPUs, indicating it sits squarely in the middle of the performance distribution, neither a standout performer nor a laggard.

For gaming, the E2-3000M is not a viable option for modern titles. The integrated Radeon HD 6380G graphics core handles only the most undemanding 2D or older 3D games, and the dual-core configuration will struggle with any title that requires more than two processing threads. Users seeking even modest gaming capability should look elsewhere, as the data suggests this chip lacks the computational headroom for smooth frame rates in contemporary games.

Office work and productivity applications, however, are a reasonable fit. Spreadsheets, word processing, email clients, and web-based tools with moderate tab counts will run acceptably given the 1800 MHz base clock. The dual-core design with 512 KB of L2 cache per core provides adequate responsiveness for single-threaded office tasks, though multitasking between several heavy applications will expose the lack of threads. The E2-3000M suits a secondary laptop or a basic daily driver where occasional slowdowns are tolerable.

Content creation is firmly out of scope. Video editing, 3D rendering, or large-scale photo manipulation require far more cores and faster memory bandwidth than this chip provides. The absence of an L3 cache further limits performance in workloads that benefit from larger, shared cache pools. The data indicates that the E2-3000M excels only in scenarios where the workload is light, intermittent, and largely single-threaded.

Power and Thermals

The E2-3000M carries a TDP of 35 watts, placing it in a low-power class suitable for thin-and-light laptops and compact mobile devices. This TDP rating implies that a modest cooling solution, a small fan and heat pipe assembly, is sufficient to keep the chip within operational limits. The 32 nm process node from the Llano architecture generation contributes to this efficiency, allowing AMD to pack 1,178 million transistors into a 228 mm² die while maintaining a 35-watt thermal envelope.

The low TDP has practical implications for system design. Laptops using this chip can be built with passive cooling in some chassis, though active cooling is generally preferred to sustain the 2.40 GHz boost clock for extended periods. Under sustained load, the processor will likely drop from boost to base clock to manage thermals, but the modest power draw means thermal throttling should be infrequent in well-designed systems. The lack of an unlocked multiplier prevents enthusiast overclocking, reinforcing the chip's positioning as a low-power, fixed-performance part.

How It Compares

The the benchmark database provides no nearest rival data for the E2-3000M, which limits direct quantitative comparisons. However, the 50th percentile ranking among all CPUs offers a reference point: half of all processors in the benchmark database score higher, and half score lower. This middling position reflects the chip's age (released in late 2011) and its mobile, low-power focus. Without specific rival scores, the analysis must rely on the architectural context, K10 architecture, dual cores, and integrated graphics, to infer that the E2-3000M sits below contemporary desktop dual-cores and well below any modern quad-core or higher.

The absence of rival data also suggests that the E2-3000M occupied a niche segment where few direct competitors existed at its exact power and performance point. In the mobile space, it likely competed against Intel's low-voltage dual-core offerings of the same era, but without concrete scores, such comparisons remain speculative. The data simply shows a processor that was average in its time, now end-of-life, and best evaluated on its own merits rather than against a crowded field.

FAQ

Q: Does the E2-3000M support ECC memory?

A: No, the the benchmark database indicates ECC memory is not supported, so this processor cannot be used in systems requiring error-correcting memory.

Q: What integrated graphics does it include?

A: The E2-3000M integrates a Radeon HD 6380G GPU, which provides basic display output and light graphics acceleration but is not suited for demanding gaming.

Q: Is the multiplier unlocked for overclocking?

A: No, the multiplier is locked, preventing users from adjusting the clock multiplier to exceed the specified 2.40 GHz boost clock.

Q: What is the release date and production status?

A: The processor was released on December 19, 2011, and is currently marked as end-of-life, meaning AMD no longer produces it.

Q: How much L2 cache does each core have?

A: Each of the two cores has 512 KB of L2 cache, totaling 1 MB across the chip, with no L3 cache present.

Q: What memory type does it support?

A: The E2-3000M supports DDR3 memory in a dual-channel configuration, which provides adequate bandwidth for its integrated graphics and general computing tasks.

Single-Thread vs Multi-Thread Behavior

The E2-3000M presents a clear single-thread bias. With only 2 cores and 2 threads, the processor cannot execute more than two threads simultaneously, which severely limits multi-threaded performance. The base clock of 1800 MHz is modest, but the boost clock of 2.40 GHz provides a 33% increase for short bursts of single-threaded activity. This dynamic behavior means that tasks like opening applications, loading web pages, or responding to keystrokes, which often rely on single-thread performance, will see the benefit of the higher boost clock, offering a snappier feel than the base clock suggests.

However, sustained multi-threaded workloads will expose the fundamental limitation. Rendering, encoding, or compiling that can utilize more than two threads will leave the remaining threads idle, and the processor will likely settle at the base clock under full load, reducing effective throughput. The lack of an L3 cache compounds this issue, as threads cannot share a large pool of cached data, forcing more frequent accesses to main memory. For real-world use, this means the E2-3000M feels responsive for light, bursty tasks but bogs down when multiple demanding applications run concurrently or when any single application scales beyond two threads.

Platform and Compatibility

The E2-3000M uses the AMD Socket FS1, a mobile-specific socket that was part of the Llano platform. The architecture is K10, codenamed Llano, which was AMD's first-generation Fusion line combining CPU and GPU on a single die. The 32 nm process node and 228 mm² die size characterize this generation's design, which prioritized integration and power efficiency over raw compute performance. The socket FS1 platform supports DDR3 memory in dual-channel mode, though the the benchmark database does not specify maximum capacity or speed ratings.

PCIe support is not listed in the the benchmark database, leaving the expansion capabilities undefined. Given the mobile market segment, the E2-3000M would typically be soldered to the motherboard or seated in a socket that supports limited upgrade options. The end-of-life status and 2011 release date mean that this platform is obsolete, with no modern upgrade path available. Users with systems based on this chip are effectively limited to the original configuration, as newer AMD processors use entirely different sockets and architectures. The integrated Radeon HD 6380G handles display output, eliminating the need for a discrete GPU in basic configurations, but the lack of PCIe data suggests that adding a dedicated graphics card may not be straightforward or supported.

Benchmark Performance

The the benchmark database lists an average benchmark score of 0 for the E2-3000M, which is an unusual data point that likely indicates the absence of standardized benchmark results in the database rather than a literal zero-performance score. The percentile ranking of 50 places the chip at the median of all CPUs in the database, but this figure must be interpreted with caution given the empty benchmark array and rival list. Without concrete scores or delta percentages relative to competitors, the quantitative analysis is limited to the architectural specifications and the percentile placement.

The 50th percentile suggests that, among all CPUs tracked by the database, the E2-3000M performs better than half and worse than half. This is a remarkably neutral position, reflecting a chip that was neither a performance leader nor a laggard at the time of its release. In practical terms, the dual-core configuration with a 2.40 GHz boost clock would put it roughly in line with other entry-level mobile processors of the 2011-2012 era, though the lack of L3 cache and the integrated GPU's modest capabilities likely drag down overall system performance in graphics-intensive tasks.

The absence of rival data means the E2-3000M cannot be positioned against specific competitors with exact percentage deltas. What the data does show is a processor that achieved mediocrity by design, sufficient for basic tasks, efficient in power draw, and unremarkable in performance. For a benchmark database, the E2-3000M serves as a baseline reference point: a chip that defines the middle of the performance curve for its generation, against which more powerful or more efficient processors can be measured.