AMD A6-6310

The AMD A6-6310 is a 4-core, 4-thread mobile processor built on the 28 nm Jaguar architecture, also known by its codename Beema. It is an end-of-life part aimed at the entry-level mobile segment, with a modest 1.80 GHz base clock that can reach 2.40 GHz under boost conditions. The processor is designed for Socket AMD FT3, which anchors its platform identity firmly in the low-power, compact laptop and mini-PC space. The data shows a chip that prioritizes energy efficiency over raw computational muscle, a trade-off that defines every aspect of its behavior in benchmark results.

Platform and Compatibility

The A6-6310 is physically and electrically tied to the AMD Socket FT3, a package designed for ultrathin and value-oriented notebooks. This socket dictates that the processor is soldered to the motherboard, meaning there is no upgrade path for the CPU itself; consumers must choose the entire platform at purchase time. The chip uses the Jaguar microarchitecture, a design that AMD targeted specifically at low-cost, fanless or nearly silent systems, and it is built on a 28 nm process from GlobalFoundries. The silicon contains 930 million transistors within a 107 mm² die, which is a compact footprint that contributes to its thermal and power profile.

Memory support is limited to DDR3, and critically, the memory controller operates in single-channel mode. This yields a theoretical memory bandwidth of 14.9 GB/s, a figure that is low by modern standards and will constrain performance in memory-sensitive workloads. There is no support for ECC memory, which is expected for a consumer mobile part. On the expansion front, the processor integrates PCIe Gen 2 lanes, which is a generation behind the contemporary standard but adequate for the SSDs and lower-tier discrete GPUs that would pair with this class of processor. The integrated graphics solution is the Radeon R4, which is a part of the same Beema die and shares the system memory for its frame buffer.

The platform is strictly a mobile affair, with a market segment designation of "Mobile" and a production status of "End-of-life." The release date is April 28, 2014, placing it in the early-to-mid 2010s low-power era. Because the CPU is not socketed for user replacement, the upgrade path is essentially nil; the only meaningful upgrade would be to replace the entire laptop or motherboard. For a buyer looking at this platform today, the key takeaway is that it is a closed, legacy system with no headroom for future CPU improvements, and its single-channel DDR3 memory is a fundamental bottleneck that cannot be remedied.

Who Should Consider It

Benchmark results place this processor at the 50th percentile against all CPUs ever tested, which indicates it sits exactly at the median of the historical performance distribution. This is not a flattering position for a modern workload, as the median is dragged down by decades of weak entry-level parts. For gaming, the A6-6310 is only suitable for very light, older titles, and the Radeon R4 integrated graphics will rely heavily on the single-channel memory bandwidth, which will cause stuttering in anything beyond 2D or simple 3D scenes. The processor has no benchmark scores provided in the data, so quantitative gaming comparisons are impossible, but the architecture's age and low clock speeds suggest it is not a viable platform for contemporary gaming.

For content creation, the chip is a poor fit. Video editing, 3D rendering, and photo manipulation all require sustained multi-threaded throughput, and a 4-thread part at 1.80 GHz base will struggle with even basic 1080p video encodes. The absence of any L3 cache, relying instead on 2 MB of shared L2, further hampers complex data sets. The 64 KB L1 cache per core is small, and the total cache hierarchy is not designed for the large working sets of creative applications.

The processor finds its natural home in basic office productivity, web browsing, and document editing. For a single user running a word processor, a spreadsheet, and a handful of browser tabs, the A6-6310 is adequate. The 15 W TDP class means it can be placed in a thin chassis with a modest battery, making it suitable for a secondary or travel laptop where performance is not a priority. However, even in this role, users should expect sluggishness when multitasking or when encountering JavaScript-heavy websites. It is a chip for basic tasks, not for concurrent workloads, and the 50th percentile ranking reinforces that it is neither a bottom-tier e-waste part nor a capable performer.

Power and Thermals

The A6-6310 has a TDP of 15 watts, which places it in the ultra-low-power category reserved for fanless or lightly cooled designs. This is a crucial figure because it dictates the entire thermal solution: a small heatsink or even a thin heatpipe with a low-speed fan is sufficient to keep the chip within operating limits. The 28 nm process node is relatively old, but the low clock speeds—1.80 GHz base and 2.40 GHz boost—help keep heat generation manageable. The data does not provide specific cooler requirements, but the 15 W TDP implies that a simple passive cooler or a tiny active fan is all that is necessary.

The thermal implications are straightforward: sustained loads will push the processor to its boost ceiling of 2.40 GHz, but only if the thermal budget allows. In a cramped chassis, the boost duration may be limited, causing the chip to settle back to the base clock more frequently. The integrated Radeon R4 graphics share the same die and thermal envelope, so gaming or GPU-accelerated tasks will add heat to the same cooling solution, potentially causing the CPU to throttle earlier. For system builders, the 15 W figure means that power delivery is simple, with no need for elaborate VRM phases or thick power cables. The processor is multiplier-locked, so there is no overclocking headroom to stress the cooling further; it is a fixed-performance part that must be accepted as-is. The end-of-life status also means that replacement thermal paste or coolers are a concern, as the platform is no longer in production.

FAQ

Q: What socket does the AMD A6-6310 use?

A: The processor uses the AMD Socket FT3, which is a soldered mobile socket with no upgrade path for the CPU.

Q: Does the A6-6310 support ECC memory?

A: No, ECC memory is not supported; the chip only works with standard DDR3 memory.

Q: What is the memory bandwidth of the A6-6310?

A: The single-channel memory controller provides a theoretical bandwidth of 14.9 GB/s.

Q: Is the processor multiplier unlocked for overclocking?

A: No, the multiplier is locked, so the base and boost clocks cannot be adjusted by the user.

Q: What integrated graphics does the A6-6310 include?

A: It includes the Radeon R4 integrated graphics, which shares system memory for its operation.

Q: When was the A6-6310 released?

A: The release date is April 28, 2014, and the production status is now end-of-life.

Benchmark Performance

The FACT PACK lists no individual benchmark scores for the A6-6310, and the nearestRivals array is empty, leaving the average benchmark score at zero. However, the percentileVsAllCpus field provides a critical anchor: the chip sits at the 50th percentile against all CPUs in the database. This is a misleadingly neutral position, as it means the processor is exactly as fast as the median of every chip ever tested, from ancient Pentiums to modern Ryzens and Xeons. In practical terms, this places the A6-6310 in the lower quartile of contemporary processors, since the database includes many weak embedded and mobile parts that drag the median down.

Without direct rival scores, we cannot state exact percentage deltas against named competitors. The data shows a processor that, by virtue of its 4 threads and 2.40 GHz boost, will outperform older dual-core parts but will be soundly beaten by any modern quad-core with higher clocks and newer architecture. The absence of an L3 cache (null value) means the chip relies entirely on 2 MB of shared L2, which is a significant handicap in workloads that benefit from large caches, such as database queries or compiled code. The 50th percentile ranking indicates that the A6-6310 is not a complete failure, but it is a baseline performer. For users coming from a 2010-era dual-core, this chip would feel like a modest upgrade; for anyone used to a 2018 or later processor, it would feel like a severe regression.

Single-Thread vs Multi-Thread Behavior

The A6-6310 has 4 cores and 4 threads, meaning there is no simultaneous multithreading (SMT) to extract extra work from each core. This is a symmetrical design where each core handles one thread, and the total throughput is limited by the 1.80 GHz base clock. Under boost, the clock rises to 2.40 GHz, but this is a single-core or light multi-core boost; the data does not specify how many cores can sustain the boost simultaneously. The single-thread performance is dictated by the Jaguar architecture's execution efficiency, which was designed for low power rather than high instructions-per-clock (IPC). This means that for tasks like web browsing, spreadsheet recalculation, or opening applications, the chip will feel slow compared to a newer architecture running at the same clock speed, because the older design simply does less work per cycle.

Multi-threaded behavior is similarly constrained. With only 4 threads and no SMT, the processor can only use up to 4 concurrent threads, and the single-channel memory bandwidth of 14.9 GB/s will become a bottleneck when all cores are active and sharing data. The 2 MB shared L2 cache is a positive, as it allows all cores to access a common pool of fast memory, but it is small by modern standards. The 50th percentile ranking suggests that multi-threaded performance is mediocre: it will handle 4-thread workloads like basic video playback or light compilation, but it will fall behind 6-core and 8-core parts that are common in the database. The real-world split is that single-thread tasks feel unresponsive due to low IPC and clock speed, while multi-thread tasks are limited by thread count and memory bandwidth. This is a chip that does everything slowly but consistently, with no ambition beyond basic functionality.