AMD Ryzen 7 160 VS Intel Core i5-110

The most telling difference in this group comes down to manufacturing process and power efficiency. The AMD Ryzen 7 160 is built on a modern 6 nm node, compared to the Intel Core i5-110's older 14 nm process. A smaller node generally means more transistors per unit area, better power efficiency, and less heat generated at equivalent workloads — all significant advantages in real-world use.

This efficiency gap is starkly reflected in the Thermal Design Power (TDP) figures: the Ryzen 7 160 is rated at just 28W, while the Core i5-110 draws up to 65W. For laptop users especially, that 37W difference translates directly into battery life, thermal headroom, and fan noise. The i5-110 also supports a higher maximum CPU temperature of 100 °C versus 95 °C, which may reflect its need to push harder thermally to sustain performance. Additionally, the Ryzen 7 160 supports the newer PCIe 4.0 standard, offering up to twice the bandwidth of the PCIe 3.0 found on the i5-110 — relevant when pairing with fast NVMe SSDs or discrete GPUs.

Both processors include integrated graphics and full 64-bit support, so those are non-factors in this comparison. The Ryzen 7 160 also holds a platform flexibility advantage by supporting both desktop and laptop form factors, versus the i5-110's laptop-only positioning. Overall, the Ryzen 7 160 holds a clear edge in this group: its newer node, dramatically lower TDP, and newer PCIe standard make it the more modern and efficient design by a significant margin.

On paper, the Intel Core i5-110 edges ahead at base clock — 2.9 GHz versus the Ryzen 7 160's 2.7 GHz — but that narrow advantage evaporates quickly under load. The Ryzen 7 160 boosts to 4.75 GHz in turbo, outpacing the i5-110's 4.3 GHz peak. For real-world tasks like rendering a single frame or compiling a file, that 450 MHz turbo gap means the Ryzen sustains faster peak speeds precisely when the processor is being pushed hardest.

Where the gap becomes more decisive is in parallelism. The Ryzen 7 160 brings 8 cores and 16 threads to the table, versus the i5-110's 6 cores and 12 threads — a 33% advantage in both metrics. In multi-threaded workloads such as video transcoding, 3D rendering, or running multiple background tasks simultaneously, more cores and threads translate directly into faster completion times and better system responsiveness under load. The Ryzen also carries a larger 16 MB L3 cache compared to 12 MB on the i5-110, which reduces how often the CPU must fetch data from slower system memory — a meaningful edge in data-intensive or latency-sensitive workloads. Both processors share the same 2 MB L3 cache per core ratio, so neither has an architectural cache advantage on a per-core basis.

Neither chip offers an unlocked multiplier or big.LITTLE hybrid architecture, so overclocking and heterogeneous core scheduling are off the table for both. Taking the full picture into account, the Ryzen 7 160 holds a clear performance edge in this group: its superior core and thread count, higher turbo frequency, and larger cache make it the stronger processor for both sustained multi-threaded workloads and peak single-core bursts.

This is arguably the most one-sided group in the entire comparison. The Radeon 680M in the Ryzen 7 160 operates at a base clock of 2000 MHz, boosting to 2200 MHz — versus the Intel UHD Graphics 630's 350 MHz base and 1100 MHz turbo. That is not a marginal gap; the Radeon 680M runs at roughly 4–6× the clock speed of the UHD 630 at any given moment, which has immediate and dramatic consequences for gaming, video processing, and any GPU-accelerated workload.

The shader count tells the same story. With 768 shading units, the Radeon 680M has exactly four times the parallel compute resources of the UHD 630's 192. Texture mapping units follow suit — 48 TMUs versus 24 — and the ROPs gap is even more extreme at 32 versus just 3, which directly affects how quickly the GPU can write finished pixels to the display. In practical terms, the Ryzen 7 160's integrated GPU can handle light gaming and GPU-accelerated creative tasks at playable settings, while the UHD 630 is largely limited to desktop compositing and video playback. The Radeon 680M also supports one additional display (4 outputs versus 3), a useful bonus for multi-monitor productivity setups.

Both GPUs share DirectX 12 support, ensuring compatibility with modern software and games. The i5-110 does carry a slightly newer OpenCL 3 specification versus OpenCL 2.2 on the Ryzen, though the practical relevance of this difference is far outweighed by the Radeon 680M's overwhelming raw compute advantage. The Ryzen 7 160 wins this category decisively — its integrated graphics are in a different class entirely compared to the UHD Graphics 630.

Generation matters enormously in memory, and the Ryzen 7 160's support for DDR5 versus the i5-110's DDR4 is the defining split in this group. DDR5 isn't just a spec bump — it enables significantly faster RAM speeds and wider memory buses, which is why the Ryzen 7 160 supports up to 4800 MHz compared to the i5-110's 2666 MHz ceiling. That speed difference flows directly into memory bandwidth: 76.8 GB/s versus 41.6 GB/s, nearly double. For workloads where the CPU is frequently waiting on data — large datasets, in-memory databases, GPU-intensive tasks that lean on system memory — that bandwidth advantage directly reduces bottlenecks and improves throughput.

The one area where the i5-110 counters is maximum memory capacity. It supports up to 128 GB of RAM, twice the Ryzen 7 160's 64 GB ceiling. For most consumer and prosumer use cases, 64 GB is more than sufficient, but users running memory-intensive server workloads, large virtual machines, or professional data science environments may find the i5-110's headroom more accommodating. The Ryzen 7 160 also supports ECC memory — error-correcting RAM that detects and fixes data corruption on the fly — while the i5-110 does not. This makes the Ryzen a more compelling choice for workstation or reliability-critical deployments despite its lower capacity ceiling.

Both processors operate in dual-channel mode, so neither has a structural advantage in memory parallelism. On balance, the Ryzen 7 160 holds the edge for most users: its DDR5 platform, nearly double the memory bandwidth, and ECC support represent a meaningfully more modern and capable memory subsystem. The i5-110's higher capacity limit is a legitimate advantage only for a narrow segment of high-memory workloads.

For this group, the two processors are remarkably well-matched. Both support an identical instruction set lineup — including AVX2, AES, FMA3, and SSE 4.2 — and both implement multithreading. This means software optimized for any of these extensions will run on either chip without compatibility concerns, and neither processor holds an advantage in terms of workload acceleration or application compatibility.

The only differentiator here is the NX bit, which the i5-110 supports and the Ryzen 7 160 does not, according to the provided data. The NX bit is a hardware-level security feature that marks certain memory regions as non-executable, helping the operating system prevent a class of attacks where malicious code is injected into data memory and then executed. Its absence on the Ryzen 7 160 is a notable gap from a security architecture standpoint, particularly for enterprise or security-conscious deployments.

That said, this is a narrow group with limited differentiation overall. The Intel Core i5-110 holds a modest edge here solely due to its NX bit support — a meaningful security feature that the Ryzen 7 160 lacks per the provided specs. For users in environments where hardware-enforced memory protection is a priority, this is worth noting, though for general consumers it is unlikely to be a deciding factor.