AMD Ryzen 5 130 VS Intel Core i5-110

The AMD Ryzen 5 130 and Intel Core i5-110 are both capable processors, but they differ in several key specifications. The Ryzen 5 130 is designed for both laptop and desktop use, while the Intel Core i5-110 is specifically a laptop processor. Both processors feature integrated graphics, ensuring basic graphical capabilities without the need for a dedicated GPU. However, the AMD Ryzen 5 130 has a significantly lower Thermal Design Power (TDP) of 28W compared to the Intel Core i5-110's 65W, which means the Ryzen chip is likely to generate less heat and consume less power during operation.

When it comes to semiconductor size, the Ryzen 5 130 uses a more advanced 6 nm process, which typically results in better energy efficiency and performance per watt compared to the Intel Core i5-110, which is built on a 14 nm process. Additionally, the Ryzen 5 130 has a CPU temperature of 95°C, while the Intel Core i5-110 reaches 100°C, indicating slightly higher thermal output for the Intel processor under similar conditions.

Both processors support 64-bit systems, ensuring compatibility with modern software. The Ryzen 5 130 supports PCIe 4.0, offering faster data transfer speeds than the Intel Core i5-110, which only supports PCIe 3.0. This difference could be more significant in high-performance applications that make use of the PCIe interface.

At their cores, these two processors share an identical foundation: 6 cores, 12 threads, a base clock of 2.9 GHz, and a clock multiplier of 29 — meaning out-of-the-box, day-to-day responsiveness is virtually indistinguishable between them. Neither chip offers an unlocked multiplier, so overclocking enthusiasts have no headroom to exploit on either side.

Where the Ryzen 5 130 begins to pull ahead is in sustained and peak performance headroom. Its turbo clock reaches 4.55 GHz versus the Core i5-110's 4.3 GHz — a 250 MHz gap that, while modest in isolation, translates to a tangible advantage in short-burst workloads like launching applications, compiling code, or handling rapid UI interactions. More meaningfully, the Ryzen also carries a larger 16 MB L3 cache compared to the i5's 12 MB, with a per-core cache ratio of 2.67 MB/core versus 2 MB/core. A larger L3 acts as a faster staging area for frequently accessed data, reducing costly trips to slower main memory — which directly benefits cache-sensitive workloads like gaming, video encoding, and data-heavy applications.

Overall, the AMD Ryzen 5 130 holds a clear performance edge in this group. The higher turbo frequency and substantially larger L3 cache — both per chip and per core — give it a real-world throughput advantage without any trade-off visible in the provided specs. The Intel Core i5-110 is competitive at base loads where the two are effectively tied, but the Ryzen's ceiling is meaningfully higher.

This is one of the most lopsided categories in the entire comparison. The Ryzen 5 130's Radeon 660M operates at a base clock of 1500 MHz and boosts to 1900 MHz — figures that dwarf the UHD Graphics 630's 350 MHz base and 1100 MHz turbo. Clock speed alone doesn't tell the whole story, but combined with double the shading units (384 vs 192) and more than five times the render output units (16 vs 3), the Radeon 660M has a fundamentally more capable rendering pipeline. ROPs in particular govern how quickly a GPU can write pixels to the framebuffer — a 16-to-3 advantage here is not a minor edge, it's an architectural gulf.

Both GPUs support DirectX 12, so modern API compatibility is a wash. The OpenGL versions differ only slightly (4.6 vs 4.5), which is negligible in practice. OpenCL tells a more nuanced story: the i5-110's UHD 630 supports OpenCL 3 versus the Radeon's OpenCL 2.2, meaning the Intel GPU technically conforms to a newer compute standard — though in real-world GPU-accelerated tasks, raw compute throughput still heavily favors the Radeon's larger shader array. The Ryzen also supports one additional simultaneous display (4 vs 3), a practical bonus for multi-monitor setups.

The AMD Ryzen 5 130 wins this category decisively. The Radeon 660M is in a different performance class for integrated graphics — light gaming, video playback, and GPU-accelerated creative workloads are all meaningfully more capable compared to what the UHD Graphics 630 can offer. The i5-110's OpenCL 3 support is the only technical footnote in its favor, but it does not offset the Radeon's overwhelming advantages across every other rendering metric.

The generational gap in memory technology is the defining story here. The Ryzen 5 130 operates on DDR5 with a maximum RAM speed of 4800 MHz and a peak bandwidth of 76.8 GB/s, while the Core i5-110 is limited to DDR4 at 2666 MHz and 41.6 GB/s. That bandwidth differential — nearly double in favor of the Ryzen — has tangible consequences: memory-intensive workloads like large dataset processing, high-resolution video editing, and GPU-compute tasks that lean on system RAM all benefit directly from faster data throughput between the CPU and memory subsystem.

The one area where the i5-110 holds a meaningful advantage is maximum memory capacity: it supports up to 128 GB of RAM versus the Ryzen's ceiling of 64 GB. For the vast majority of consumer use cases, 64 GB is more than sufficient, but in professional environments running virtual machines, large in-memory databases, or server-adjacent workloads, that extra headroom matters. Compounding the Ryzen's appeal for professional use, however, is its support for ECC memory — error-correcting RAM that detects and fixes single-bit memory errors on the fly. The i5-110 lacks ECC support entirely, which is a notable omission for reliability-critical applications.

On balance, the AMD Ryzen 5 130 holds the stronger memory profile for most users. Its DDR5 platform delivers substantially higher bandwidth and adds ECC support — a combination that serves both performance-oriented and reliability-focused workloads. The i5-110's doubled maximum capacity is a real advantage for specific high-memory professional scenarios, but its older DDR4 platform and absence of ECC leave it trailing in nearly every other dimension.

Feature parity is total in this category. Both the Ryzen 5 130 and the Core i5-110 share an identical instruction set lineup — including AVX2, FMA3, AES, and SSE 4.2 — and both support multithreading and the NX bit for hardware-level memory protection against certain classes of malicious code execution.

The practical takeaway is that software optimized for any of these instruction sets will run equivalently on either chip. AVX2 and FMA3 are particularly relevant for scientific computing, machine learning inference, and media encoding workloads, while AES acceleration ensures hardware-assisted encryption performance is available on both platforms. Neither processor holds any exclusive capability here.

This group is a dead tie. Every feature listed is present on both chips without exception, and no differentiating advantage exists on either side based solely on the provided data.