AMD Ryzen 5 40 VS Intel Core i5-110

The most striking difference between these two processors lies in their manufacturing process and power envelope. The AMD Ryzen 5 40 is built on a modern 6 nm node, while the Intel Core i5-110 uses a much older 14 nm process. A smaller semiconductor node generally means more transistors per unit area, better power efficiency, and improved thermal characteristics — giving AMD a clear architectural advantage on paper.

This gap is reinforced by their Thermal Design Power figures: the Ryzen 5 40 is rated at just 15W, versus 65W for the Core i5-110. In practical terms, the AMD chip will generate far less heat, demand a less elaborate cooling solution, and consume significantly less energy — making it far more suitable for thin-and-light or battery-sensitive use cases. The Intel chip's higher TDP is typical of a full-power desktop-class or high-performance mobile design, which trades efficiency for raw sustained throughput.

Both processors share integrated graphics, PCIe 3 support, and full 64-bit compatibility, so those are non-differentiators here. The Ryzen 5 40 also supports both Laptop and Desktop deployments, while the Core i5-110 is positioned exclusively as a laptop chip — though its 65W TDP makes passive or slim laptop designs unlikely. On the general specs alone, the Ryzen 5 40 holds a clear edge in efficiency and manufacturing modernity; the Core i5-110 may compensate in raw performance, but those data points fall outside this group.

Core count is where the Intel Core i5-110 immediately separates itself: 6 cores and 12 threads versus the Ryzen 5 40's 4 cores and 8 threads. For workloads that scale across threads — video encoding, compilation, multi-tasking under load — the i5-110 has a structural advantage that clock speed alone cannot compensate for. Both chips share an identical 4.3 GHz turbo ceiling, so single-threaded responsiveness is effectively a wash.

Cache is another area where the i5-110 pulls ahead considerably. Its 12 MB L3 cache (at 2 MB/core) dwarfs the Ryzen 5 40's 4 MB (1 MB/core). A larger L3 cache reduces how often the CPU must reach out to slower main memory, which translates to more consistent frame times in games, snappier data processing, and lower latency in latency-sensitive applications. This is not a marginal gap — 3x more cache is a meaningful architectural difference.

Neither chip offers an unlocked multiplier or big.LITTLE heterogeneous core design, so overclocking and hybrid efficiency cores are off the table for both. On raw performance metrics alone, the Core i5-110 holds a clear edge thanks to its higher core and thread count combined with its substantially larger cache — the Ryzen 5 40 trades multi-threaded muscle for the efficiency advantages already seen in its general specs.

Clock speed tells much of the story here. The Ryzen 5 40's Radeon 610M runs at a base of 1500 MHz, boosting to 1900 MHz — figures that dwarf the Intel Core i5-110's UHD Graphics 630, which starts at just 350 MHz and peaks at 1100 MHz. In integrated graphics, clock speed is a primary driver of real-world rendering throughput, and this gap is substantial enough to matter for light gaming, media workloads, and GPU-accelerated tasks.

The UHD 630 counters with a higher raw shader count — 192 shading units versus 128 — and more texture mapping units (24 vs 8), which on paper suggests broader parallel compute potential. However, those execution resources are severely bottlenecked by the much lower operating frequency, meaning the Radeon 610M's arithmetic advantage per clock, combined with its clock speed lead, offsets the shader count gap in practice. The Radeon 610M also supports DirectX 12 Ultimate — a superset of the i5-110's DirectX 12 — enabling features like hardware-accelerated ray tracing and mesh shaders that the UHD 630 cannot access.

One nuance: the UHD 630 claims a higher OpenCL 3 rating versus OpenCL 2 on the Radeon 610M, which could matter for specific compute workloads. It also trails on display output, supporting 3 screens to the Radeon 610M's 4. Overall, the Radeon 610M holds a clear edge for graphics tasks — its clock speed dominance and newer feature set make it the stronger integrated GPU by the data provided.

Generation gap is the defining story in this category. The Ryzen 5 40 supports DDR5 memory at up to 5500 MHz, while the Core i5-110 is limited to DDR4 at 2666 MHz. This isn't just a frequency difference — DDR5 brings a fundamentally higher-bandwidth architecture, and the numbers reflect that: the Ryzen 5 40 delivers a maximum memory bandwidth of 88 GB/s, more than double the i5-110's 41.6 GB/s. For workloads where the CPU is frequently waiting on data from memory — think large datasets, image processing, or the integrated GPU feeding off system RAM — this bandwidth advantage translates directly into faster, smoother execution.

Where the i5-110 reclaims ground is maximum addressable memory: it supports up to 128 GB of RAM, compared to just 16 GB on the Ryzen 5 40. That ceiling is highly consequential for professional or server-adjacent workloads — virtualization, large in-memory databases, or heavy creative production pipelines — where headroom matters more than raw speed. For mainstream consumer use, 16 GB is adequate today, but the constraint is real and worth considering for future-proofing.

Both processors use dual-channel configurations and neither supports ECC memory, so those aspects are evenly matched. Taken together, this group presents a genuine trade-off: the Ryzen 5 40 wins on memory speed and bandwidth by a wide margin, while the Core i5-110 wins decisively on maximum capacity. The right advantage depends entirely on the target use case.

This is a rare case of a clean sweep tie. The Ryzen 5 40 and Core i5-110 share an identical instruction set portfolio — including AVX2, AES, FMA3, and SSE 4.2 — and both support multithreading and the NX bit for hardware-enforced memory protection. There is no differentiator to speak of within the data provided for this group.

The shared instruction sets are worth contextualizing: AVX2 enables efficient vectorized math operations used in scientific computing, media encoding, and machine learning inference; AES hardware acceleration is critical for encrypted storage and secure communications performance; and SSE 4.2 underpins fast string and text processing. The fact that both chips support this exact same suite means software compiled to exploit these extensions will behave identically from a feature-compatibility standpoint on either processor.

Based strictly on the specs in this group, the verdict is a complete tie — neither processor holds any feature advantage over the other. Buyers should weigh the differences identified in other specification groups rather than looking to features for a tiebreaker.