AMD E1-1500

The AMD E1-1500 is a dual-core desktop processor built on the Bobcat architecture (codename Zacate, generation "E1 (Zacate 2)") with a 40 nm process node. It runs at a base clock of 1480 MHz, has 2 threads (no simultaneous multithreading), and integrates a Radeon HD 7310 graphics unit. With a TDP of 18 W and a socket FT1 footprint, it targets low-power, entry-level systems. This analysis interprets the available data from the benchmark database, focusing on workload behavior, thermal requirements, and platform constraints.

Single-Thread vs Multi-Thread Behavior

The E1-1500 presents a straightforward dual-core design without extra threads: 2 cores, 2 threads. This means each core handles exactly one thread, and there is no hyper-threading to boost parallel throughput. The base clock of 1480 MHz is modest by modern standards, and since no boost clock is listed, the CPU operates at that fixed frequency under load. For single-threaded tasks, the processor relies entirely on that 1480 MHz frequency and the efficiency of the Bobcat core. Bobcat was designed for low power consumption rather than raw speed, so single-thread performance will be adequate for basic office work, web browsing, and light productivity, but it will struggle with demanding applications that require high per-core throughput.

Multi-threaded behavior is limited by the two physical cores and two threads. Any workload that can utilize more than two concurrent threads will see no benefit beyond that, and the lack of SMT means the CPU cannot process more than two instructions streams simultaneously. In practice, this restricts the E1-1500 to very light multitasking—for example, running a word processor alongside a web browser with a few tabs. Heavier multi-threaded workloads such as video encoding, 3D rendering, or scientific simulations would overwhelm the processor, as they typically scale with core count and clock speed. The 512 KB L2 cache per core (totaling 1 MB across the CPU) is modest but adequate for the intended workload scope, helping to reduce memory latency for frequently accessed data.

Because the CPU has no boost clock, its performance is predictable and consistent—there is no dynamic frequency variation to account for. This makes it easier to estimate execution times for simple tasks, but also means there is no headroom for bursty workloads. The single-channel memory interface (DDR3) further constrains memory bandwidth, which can become a bottleneck in multi-threaded scenarios where multiple cores compete for data. Overall, the E1-1500 is best suited for sequential, low-intensity tasks where its single-thread capabilities are sufficient and its multi-thread limitations are not exposed.

Power and Thermals

The E1-1500 has a TDP of 18 W, placing it in the ultra-low-power segment. This figure is exceptionally low, indicating that the processor generates minimal heat and can be cooled with a passive heatsink or a very small, low-speed fan. For system builders, this means a compact, quiet cooling solution is sufficient—no large tower coolers or liquid loops are required. The 40 nm process node, while older, contributes to the low power draw; the die size of 75 mm² suggests a small chip with relatively low transistor count, further reducing thermal output.

In practice, a TDP of 18 W allows for fanless designs in well-ventilated cases, or at most a tiny 40 mm fan. The integrated Radeon HD 7310 graphics also share the same thermal envelope, so the total system power remains modest. This makes the E1-1500 an attractive option for always-on systems, thin clients, or embedded applications where power efficiency is more critical than performance. The lack of a boost clock means the CPU does not spike in power draw under load, keeping thermals steady and predictable. However, the 40 nm node is not as efficient as newer processes, so the 18 W figure is still higher than what a modern low-power chip might achieve at similar performance—but that is outside the scope of this data.

For cooling tier, a simple low-profile cooler or even a passive heat sink with good airflow is adequate. The processor does not require any special power delivery; a basic motherboard with a modest VRM design will suffice. The low TDP also implies that the CPU can operate in tightly enclosed spaces without risking thermal throttling, provided the ambient temperature is reasonable. This is a key advantage for small form factor builds or industrial PCs where space and noise are at a premium.

Benchmark Performance

The benchmark database lists no recorded benchmark scores for the E1-1500, and the average benchmark score is 0. The percentile placement stands at 50, which, while not directly comparable due to the lack of scores, suggests the CPU sits at the median of all processors in the database when considering its relative position. However, this percentile is likely based on a sparse dataset, as the average score of 0 indicates that no meaningful performance measurements are available. Without specific benchmark numbers, we cannot quantify its performance against rivals. The nearestRivals field is empty, meaning the database has not identified any comparable processors for this part.

Given the specifications, we can infer that the E1-1500 is not a performance-oriented chip. Its 1480 MHz base clock and dual-core design place it at the low end of desktop CPUs. In the absence of benchmark data, we rely on architectural characteristics: Bobcat cores are known for efficiency over speed, and the 40 nm process limits maximum frequency. The integrated Radeon HD 7310 provides basic graphics capabilities but is not intended for gaming or GPU-accelerated workloads. The single-channel DDR3 memory further limits memory bandwidth, which can hamper memory-intensive applications.

When considering the percentile of 50, one might interpret this as the CPU being "average" in the database, but that is misleading because the database likely contains many modern high-performance parts. The 50th percentile could simply reflect the fact that the E1-1500 is an older, low-power part that falls in the middle of a list that includes many weak and strong CPUs. Without actual scores, we cannot draw any comparative conclusions. The data shows that the E1-1500 has no measurable benchmark presence, which aligns with its positioning as a basic, low-cost entry-level processor.

FAQ

Q: Does the AMD E1-1500 support ECC memory?

A: No. The ECC memory field is false, so the processor does not support Error-Correcting Code memory.

Q: What type of memory does the E1-1500 use?

A: It supports DDR3 memory with a single-channel memory bus. The exact bandwidth is not listed, but the interface is single-channel.

Q: How many cores and threads does the E1-1500 have?

A: It has 2 cores and 2 threads. There is no hyper-threading, so each core handles one thread.

Q: What is the base clock speed of the E1-1500?

A: The base clock is 1480 MHz. There is no boost clock listed, so the CPU runs at that fixed frequency.

Q: Does the E1-1500 have integrated graphics?

A: Yes, it includes a Radeon HD 7310 integrated graphics unit.

Q: What socket does the E1-1500 use?

A: It uses the AMD Socket FT1.

Who Should Consider It

The E1-1500 is intended for users who prioritize low power consumption and minimal heat output over performance. Its 18 W TDP makes it an excellent choice for fanless or passively cooled systems, such as small home servers, network attached storage (NAS) devices, or lightweight thin clients. The integrated Radeon HD 7310 provides basic display output, so it can handle office applications, web browsing, and video playback at standard resolutions. For office productivity—word processing, spreadsheets, email—the dual cores at 1480 MHz are sufficient, though multitasking should be kept light to avoid sluggishness.

Gamers and content creators should avoid this processor. The lack of benchmark scores and the modest clock speed indicate that it cannot handle modern games or video editing software. The single-channel memory and low thread count will bottleneck any demanding workload. However, for users building a low-cost, low-energy system for basic tasks, the E1-1500 fits the bill. It is also suitable for embedded applications where reliability and low power are more important than raw speed. The 40 nm process and small die size (75 mm²) suggest a mature, stable design, and the 18 W TDP means it can be powered by a simple power supply without dedicated cooling.

Given the absence of benchmark data, the E1-1500 is not a processor for performance enthusiasts. Instead, it targets the segment of users who value efficiency and simplicity. If your workload is limited to web browsing, document editing, and streaming media, the E1-1500 can handle these tasks without generating significant heat or noise. But if you plan to run multiple heavy applications simultaneously or engage in any form of content creation, this processor will quickly become a bottleneck.

Platform and Compatibility

The E1-1500 uses the AMD Socket FT1, a socket designed for low-power Bobcat-based APUs. This socket is part of the Zacate platform, which was released in early 2013 (the release date is 2013-01-05). The platform supports DDR3 memory in a single-channel configuration, as indicated by the memory support field. There is no PCIe information listed, so we cannot specify the number of lanes or version, but it is safe to say that the platform is limited in expansion capabilities. The integrated Radeon HD 7310 handles display output, so no discrete GPU is required for basic use.

The E1-1500 is not overclockable—the multiplier is locked, and there is no boost clock. This means the 1480 MHz frequency is fixed. The socket FT1 is an older platform, and upgrade paths are essentially nonexistent; users are limited to the processors that were designed for this socket, which are all low-power Bobcat variants. The part number EM1500GBB22GV identifies this specific SKU. The processor has a 40 nm process node and a die size of 75 mm², which are characteristics of the Zacate generation.

For system builders, the platform requires a motherboard with an FT1 socket. These motherboards typically feature integrated graphics outputs (VGA, DVI, or HDMI) and support DDR3 memory. The single-channel memory interface means that using one DIMM is sufficient; adding a second DIMM will not provide dual-channel benefits. The TDP of 18 W allows for a compact power supply, and the low heat output means that even a small case with minimal airflow can house the system. However, the lack of modern features such as PCIe 4.0 or NVMe support (not listed) makes this platform unsuitable for current high-speed storage or expansion cards. The E1-1500 is best viewed as a complete, self-contained solution for basic computing needs, not as a foundation for future upgrades.