AMD Z-60

Launched in October 2012 for mobile devices, the AMD Z-60 is a dual-core, dual-thread processor built on the 40 nm Bobcat architecture, codenamed Hondo. It targets the low-power, always-on segment of the market, with a 5W TDP and integrated Radeon HD 6250 graphics. Benchmark data shows no recorded scores for this chip, placing it at the 50th percentile of all CPUs, with an average benchmark score of 0.

Benchmark Performance

The AMD Z-60’s benchmark results are effectively absent from the database. The average benchmark score is 0, and the benchmark array is empty. This is not a sign of failure but rather a reflection of the processor’s positioning: it was designed for a niche where raw performance is secondary to power efficiency. The percentile of 50 against all CPUs is a statistical artifact, not a meaningful performance indicator, because the chip has no measured scores to rank against.

Without any benchmark data, direct numerical comparisons against rivals are impossible. The nearestRivals list is empty, meaning no competitor scores or deltaPct values are available for analysis. Consequently, any claim about the Z-60’s speed relative to other processors cannot be substantiated with numbers from the fact pack. What the data does show is that this is a processor that was not subjected to the standard benchmarking suite, likely because its intended workloads—simple web browsing, light media playback, and basic productivity—do not generate the kind of multi-threaded or single-threaded loads that typical benchmarks stress.

The 50th percentile placement, in the absence of scores, should be read as a neutral placeholder rather than a verdict. In practice, the Z-60’s performance is bounded by its 1.00 GHz base clock and its two cores. No boost clock is listed, so the chip runs at a fixed frequency. With 64 KB of L1 cache and 1 MB of L2 cache, the memory hierarchy is minimal, further indicating that the processor is not built for heavy lifting. The lack of L3 cache and the single-channel DDR3 memory support reinforce this picture: the Z-60 is a low-throughput device.

How It Compares

The fact pack lists no nearest rivals for the AMD Z-60. There are no competitor names, no scores, and no deltaPct values to cite. This absence is itself informative: the Z-60 occupies a space so specialized that the database does not cross-reference it with other chips. In the broader mobile landscape of its release period, most processors had higher clock speeds, more cores, or larger caches, but those details are not in the fact pack and cannot be discussed.

What can be said is that the Z-60’s 5W TDP and dual-core design place it in a category far below mainstream mobile processors. The integrated Radeon HD 6250 graphics suggest a unified chip for basic visual output, but without benchmark scores, the graphics performance cannot be quantified. For any comparison, the data simply does not exist, so the Z-60 must be evaluated on its own specifications rather than against peers.

Single-Thread vs Multi-Thread Behavior

The Z-60 has two cores and two threads, meaning it does not support simultaneous multithreading. Each core handles exactly one thread. This configuration is straightforward: multi-threaded workloads can use both cores, but each core operates at a modest 1.00 GHz base clock with no boost capability. The single-thread performance is therefore limited by that clock speed and the Bobcat architecture’s efficiency, which was designed for low power rather than high instruction throughput.

For real workloads, this split has clear implications. Single-threaded tasks—such as opening a document, rendering a simple web page, or running a legacy application—will execute at a pace determined by the 1.00 GHz clock. Multi-threaded tasks, like background updates or parallelizable light computations, can engage both cores, but the overall throughput remains low because each core is slow. The absence of L3 cache and reliance on single-channel DDR3 memory further bottleneck data access, making the Z-60 unsuitable for memory-intensive or latency-sensitive applications.

Benchmark results indicate that the Z-60 is not designed for either single-thread or multi-thread dominance. Instead, it is tuned for consistent, low-power operation where occasional bursts of activity are acceptable. The 2-core/2-thread layout means that any workload requiring more than two threads will see no benefit, and even two-thread workloads will be constrained by the clock speed. The data shows a chip that prioritizes energy efficiency over computational speed in every dimension.

FAQ

Q: What is the TDP of the AMD Z-60?

A: The TDP is 5 watts, placing it in the ultra-low-power class for mobile processors.

Q: How many cores and threads does the Z-60 have?

A: It has 2 cores and 2 threads, with no hyper-threading or equivalent technology.

Q: What is the base clock speed?

A: The base clock is 1000.00 MHz (1.00 GHz). No boost clock is listed in the fact pack.

Q: Does the Z-60 support ECC memory?

A: No, ECC memory is not supported. The memory support is single-channel DDR3.

Q: What integrated graphics does the Z-60 include?

A: It includes the Radeon HD 6250 integrated graphics.

Q: What is the release date of the Z-60?

A: The release date is October 8, 2012.

Power and Thermals

The AMD Z-60’s 5W TDP is the defining characteristic of this processor. This is an extremely low thermal design power, indicating that the chip generates minimal heat and requires minimal cooling. In a mobile context, this means a fanless or passively cooled design is feasible, which is consistent with its target market of thin, light, and quiet devices. The 40 nm process node is older by modern standards, but at this TDP level, the manufacturing process is not a bottleneck for thermal management.

The low TDP implies that the Z-60 can be paired with a simple heat spreader or a small heatsink without active airflow. For system designers, this reduces the mechanical complexity and cost of the cooling solution, though the fact pack does not specify a cooler. The absence of a boost clock also means that the chip never exceeds its base frequency, so thermal output remains constant under load. No wattage figures beyond the 5W TDP are available, so the exact power draw under varying conditions cannot be quantified, but the TDP class strongly suggests that the Z-60 is suitable for battery-powered devices where energy conservation is paramount.

The integrated Radeon HD 6250 graphics adds to the thermal envelope, but since the entire package is rated at 5W, the combined CPU and GPU load stays within that limit. This is a processor that will not require sophisticated liquid cooling or large heatsinks; a capable air cooler or even passive cooling is sufficient.

Who Should Consider It

Based on the specifications, the AMD Z-60 is suited for workloads that are light, intermittent, and power-sensitive. The 2 cores at 1.00 GHz are adequate for basic office tasks such as word processing, spreadsheet editing, and email. The single-channel DDR3 memory and 1 MB L2 cache are enough for applications that do not demand large data throughput. For web browsing, the Z-60 can handle static pages and simple scripts, but modern interactive sites with heavy JavaScript may strain the single-thread performance.

For gaming, the Z-60 is not a viable option. The Radeon HD 6250 integrated graphics is a basic solution, and the low CPU clock speed will bottleneck any 3D rendering. The data shows no benchmark scores to suggest otherwise, and the architecture is not designed for high frame rates. Similarly, content creation—video editing, 3D modeling, or large-scale photo manipulation—is out of scope due to the limited cores, threads, and memory bandwidth.

The Z-60 is best for embedded or portable use cases where the device runs a lightweight operating system, performs periodic updates, and spends most of its time in low-power states. The 5W TDP makes it ideal for fanless tablets, thin clients, or industrial handhelds. The 50th percentile ranking, while not based on scores, indicates that the chip sits in the middle of the distribution—not because it is average in performance, but because it is unmeasured. The recommendation is clear: choose the Z-60 only for tasks where power efficiency outweighs speed.

Platform and Compatibility

The AMD Z-60 uses the AMD Socket FT1, a socket designed for low-power mobile processors. This socket is specific to the Bobcat architecture, so the upgrade path is limited to other FT1-compatible chips, though the fact pack does not list any alternatives. The processor is not multiplier unlocked, meaning overclocking is not supported; the chip runs at its fixed 1.00 GHz base clock.

Memory support is DDR3 in a single-channel configuration. This limits memory bandwidth compared to dual-channel setups, but for the intended workloads, the bandwidth is sufficient. ECC memory is not supported, so the Z-60 is not suitable for error-critical server or workstation environments. The PCIe support is not listed in the fact pack, so expansion capabilities cannot be described with numbers. The integrated Radeon HD 6250 graphics provides display output, eliminating the need for a discrete GPU in basic systems.

The market segment is Mobile, and the release date of October 8, 2012, places it in an era when ultra-low-power processors were emerging for tablets and netbooks. The part number is XMZ60AFVB22GV. The platform is closed in the sense that the socket and architecture are tied together, so upgrading to a different generation would require a new motherboard. For users who need a simple, low-power computing core with integrated graphics, the Z-60 platform offers a complete package, but for those seeking future expansion, the options are minimal.