AMD E1-1200

The AMD E1-1200 is a dual-core desktop processor from the Bobcat architecture, released in June 2012. It represents the entry-level segment of the Zacate platform, designed for basic computing tasks, with an integrated Radeon HD 7310 graphics solution.

Benchmark Performance

The benchmark data for the AMD E1-1200 presents a unique situation: the processor holds a 50th percentile ranking among all CPUs in the database, yet its average benchmark score is recorded as zero. This discrepancy suggests that the E1-1200 has been categorized based on its architectural class rather than raw performance metrics, as it sits precisely at the median of all tracked processors.

With only 2 cores and 2 threads running at a base clock of 1400.00 MHz, the E1-1200 occupies the absolute bottom tier of processing capability. The absence of a boost clock means the processor operates at a fixed frequency, never exceeding its 1.4 GHz ceiling. This places it in direct competition with other low-power, low-frequency parts from the same era, though the nearestRivals data is empty, preventing direct percentage-based comparisons.

The 50th percentile ranking requires careful interpretation. In a database spanning decades of processor releases, a 50th percentile position does not indicate mid-range performance — it indicates that the E1-1200 sits at the median point of the entire historical distribution. Given that modern processors have dramatically higher scores, this percentile reflects the processor's position in the full catalog, not its standing among contemporary parts. The zero average benchmark score suggests that no standardized benchmark runs have been successfully completed or recorded for this unit, making quantitative comparisons impossible.

Platform and Compatibility

The E1-1200 uses the AMD Socket FT1, a package designed specifically for the Zacate platform. This socket is exclusive to the Bobcat architecture family, meaning upgrade paths are limited to other low-power Zacate parts rather than mainstream AMD processors. The platform targets compact and energy-efficient systems, not performance-oriented builds.

Memory support is limited to DDR3 with a single-channel memory bus. This configuration halves the theoretical memory bandwidth available to the processor compared to dual-channel setups, which directly impacts integrated graphics performance and memory-intensive workloads. The E1-1200 does not support ECC memory, making it unsuitable for error-critical server or workstation environments.

The processor integrates a Radeon HD 7310 graphics processor, eliminating the need for a discrete GPU in basic systems. This integrated solution shares the single-channel DDR3 memory, further constraining graphics performance. The 40 nm process node used for fabrication indicates the manufacturing technology of the era, with the die size measuring 75 mm².

The platform does not list PCIe support in the available data, suggesting that expansion capabilities were minimal or handled through the chipset rather than the processor directly. The multiplier is locked, preventing overclocking and restricting enthusiasts from extracting additional performance. The part number EM1200GBB22GV identifies this specific configuration.

Power and Thermals

The E1-1200 carries a thermal design power (TDP) of 18 watts, placing it in the ultra-low-power category. This figure is exceptionally modest by any standard, indicating that the processor generates minimal heat and requires only the most basic cooling solution. A passive heatsink or a small low-profile fan would be sufficient to maintain safe operating temperatures.

The 18-watt TDP class has significant implications for system design. It enables fanless operation in well-ventilated chassis, silent computing configurations, and compact form factors where heat dissipation is challenging. The low power draw also makes the processor suitable for always-on systems that prioritize energy efficiency over performance.

The combination of a 1400.00 MHz base clock, 2 cores, and the Bobcat architecture's efficiency-focused design explains this modest thermal envelope. The processor's power characteristics align with its intended market segment: basic desktop systems, thin clients, and entry-level all-in-one computers where low noise and minimal power consumption are priorities.

FAQ

Q: How many cores and threads does the AMD E1-1200 have?

A: The E1-1200 has 2 cores and 2 threads, meaning it does not support simultaneous multithreading and can handle only two processing tasks concurrently.

Q: What is the base clock speed of the E1-1200?

A: The base clock speed is 1400.00 MHz, with no boost clock available. The processor runs at this fixed frequency at all times.

Q: Does the E1-1200 include integrated graphics?

A: Yes, it features a Radeon HD 7310 integrated graphics processor, eliminating the need for a separate graphics card in basic systems.

Q: What type of memory does the E1-1200 support?

A: The processor supports DDR3 memory through a single-channel memory bus. This limits memory bandwidth and affects overall system performance.

Q: What socket does the E1-1200 use?

A: The E1-1200 uses the AMD Socket FT1, which is specific to the Bobcat architecture and the Zacate platform.

Q: What is the thermal design power of the E1-1200?

A: The TDP is 18 watts, classifying it as an ultra-low-power processor suitable for fanless or minimally cooled systems.

Who Should Consider It

The E1-1200 is appropriate for users whose computing requirements are strictly limited to basic office tasks, web browsing, and document editing. The 2-core, 2-thread configuration at 1400.00 MHz provides just enough processing power for lightweight productivity applications, where responsiveness is acceptable for single-tasking workflows.

Gaming is not a realistic use case for this processor. Even with the integrated Radeon HD 7310, the combination of a single-channel memory bus and the low-frequency CPU cores will struggle with any modern game or graphics-intensive application. The absence of a boost clock means the processor cannot temporarily increase performance when needed.

Content creation workloads, such as video editing or large-scale photo manipulation, are similarly unsuitable. These applications benefit from higher core counts, faster clock speeds, and greater memory bandwidth — all of which the E1-1200 lacks. The 512 KB L2 cache per core provides minimal headroom for data-intensive operations.

The processor's 18-watt TDP makes it an option for specialized systems where power consumption is the primary concern. Digital signage, basic point-of-sale terminals, and lightweight embedded applications could leverage the E1-1200's efficiency, though its 2012 release date means it is now a legacy component.

Single-Thread vs Multi-Thread Behavior

The E1-1200's performance profile is heavily constrained by its architectural design. With 2 cores and 2 threads, the processor has no multi-threading capability beyond its physical core count. This means multi-threaded workloads can utilize at most two concurrent execution threads, while single-threaded workloads receive the full attention of one core.

The 1400.00 MHz base clock represents the sole frequency at which the processor operates. Modern single-threaded applications often require clock speeds well above 3 GHz for responsive performance, placing the E1-1200 at a significant disadvantage. The Bobcat architecture prioritizes power efficiency over raw execution speed, which further limits single-thread throughput.

Multi-threaded performance is equally constrained. While two cores can work in parallel for multi-threaded applications, the low clock speed and lack of boost capability mean that even fully parallelized workloads will complete slowly. The 512 KB L2 cache per core is small by modern standards, potentially causing frequent memory accesses that exacerbate the single-channel DDR3 bandwidth limitation.

The absence of boost clock technology is particularly impactful. Processors with boost functionality can dynamically increase frequency for short bursts, improving responsiveness in latency-sensitive tasks. The E1-1200 lacks this feature entirely, so its performance is constant but never elevated. This makes the processor predictable but also means it cannot adapt to demanding situations.

The split between single-thread and multi-thread behavior ultimately reflects the processor's design goals. The E1-1200 was engineered for basic functionality with minimal power draw, not for computational throughput. Its single-thread performance is limited by the low clock speed, while multi-thread performance is limited by the minimal core and thread count. Both aspects point to the same conclusion: this is a processor for simple, low-intensity tasks where performance is secondary to efficiency.