AMD Ryzen 5 150 VS AMD Ryzen 7 170

In terms of general characteristics, the AMD Ryzen 5 150 and AMD Ryzen 7 170 are remarkably alike. Both processors are designed for Laptop and Desktop use, share a 45W TDP, are built on a 6 nm process node, and top out at a 95 °C thermal ceiling. They also both feature integrated graphics, support 64-bit computing, and use PCIe 4.0 — meaning neither holds an edge in platform connectivity or power efficiency at this level of analysis.

The shared 6 nm fabrication and 45W TDP indicate that both chips are tuned for the same thermal envelope, making them equally suitable for slim laptops or compact desktops where heat and power draw are constrained. The 95 °C max CPU temperature is a standard ceiling for modern AMD mobile/desktop processors, and neither chip offers a margin advantage here.

Based strictly on the general info specs provided, these two processors are evenly matched in every category. There is no differentiator within this group — users should look to other spec groups such as core count, clock speeds, or cache to distinguish the Ryzen 5 150 from the Ryzen 7 170.

The most meaningful separation between these two chips lies in core and thread count. The Ryzen 7 170 offers 8 cores and 16 threads versus the Ryzen 5 150's 6 cores and 12 threads — a 33% increase in parallelism. In heavily threaded workloads like video encoding, 3D rendering, or running multiple virtual machines, this gap translates directly into faster completion times. For lightly threaded tasks like everyday browsing or office apps, the difference is far less noticeable.

Clock speeds tell a more nuanced story. The Ryzen 5 150 has a marginally higher base clock (3.3 GHz vs 3.2 GHz), but the Ryzen 7 170 pulls ahead where it matters more — at peak boost, reaching 4.75 GHz compared to 4.55 GHz. That 200 MHz turbo advantage means the 170 sustains higher speeds under burst loads, which benefits single-threaded responsiveness in real-world use. The L3 cache is identical at 16 MB on both, and L2 per core is equal at 0.5 MB, though the 170's total L2 is slightly larger at 4 MB due to its additional cores.

Overall, the Ryzen 7 170 holds a clear performance edge in this group. More cores, more threads, and a higher turbo clock make it the stronger choice for demanding, multi-threaded workloads, while remaining competitive in single-core scenarios as well.

The integrated GPU gap between these two processors is substantial. The Ryzen 7 170 carries the Radeon 680M, while the Ryzen 5 150 uses the Radeon 660M — and the difference is not merely a naming tier. The 680M doubles the shader count (768 vs 384 shading units), doubles the TMUs (48 vs 24), and doubles the ROPs (32 vs 16). These figures represent raw rendering throughput, and doubling all three simultaneously means the 680M can push roughly twice the pixel and texture work per clock cycle compared to the 660M.

Clock speeds amplify that advantage further. The 680M runs at a base of 2000 MHz and boosts to 2200 MHz, compared to the 660M's 1500 MHz base and 1900 MHz turbo. Combined with the doubled compute resources, this makes the Ryzen 7 170 significantly more capable for GPU-dependent tasks — light gaming, accelerated video playback, display output handling, and GPU-accelerated creative applications will all benefit noticeably. Both GPUs share the same API support (DirectX 12, OpenGL 4.6, OpenCL 2.2) and can drive up to 4 displays, so the parity ends there.

The Ryzen 7 170 wins this category decisively. For anyone relying on integrated graphics — whether gaming without a discrete GPU, running compute workloads, or driving a multi-monitor setup with GPU-accelerated content — the 680M's combination of higher clock speeds and doubled hardware resources gives it a commanding lead over the 660M in the Ryzen 5 150.

Memory capabilities are identical across both processors. Both the Ryzen 5 150 and Ryzen 7 170 support DDR5 RAM at up to 4800 MHz, operate over a dual-channel configuration, and deliver a maximum memory bandwidth of 76.8 GB/s. DDR5 and the dual-channel setup together ensure that neither chip is starved of memory throughput in typical workloads — this is particularly relevant for the integrated GPU, which draws directly from system RAM rather than dedicated VRAM.

Both chips cap out at 64 GB of maximum addressable memory and support ECC (Error-Correcting Code) RAM. ECC support is a notable feature at this tier, as it allows the processors to be used in reliability-sensitive environments — think small workstations, embedded systems, or professional applications where data integrity matters more than raw performance.

This category is a complete tie. Every memory specification is shared between the two processors, meaning the platform you build around either chip will offer the same memory performance, capacity ceiling, and reliability options. Memory configuration will not be a factor when choosing between these two.

Feature parity is total here. Both the Ryzen 5 150 and Ryzen 7 170 support the same instruction set extensions — including AVX2, FMA3, and AES — which are the most practically significant of the bunch. AVX2 enables wide 256-bit vector operations that accelerate scientific computing, image processing, and machine learning inference workloads. FMA3 benefits floating-point-heavy tasks like signal processing and simulations, while hardware-level AES support means cryptographic operations and encrypted storage perform efficiently without burdening the main execution pipeline.

Both processors also support multithreading and carry the NX bit, a hardware security feature that helps prevent certain classes of malicious code from executing in memory regions designated as data. These are standard but meaningful capabilities — multithreading has already been quantified in the performance group, and the NX bit is a baseline expectation for any modern OS deployment.

With every feature identical across both chips, this group is a complete tie. Neither processor offers a software compatibility or security advantage over the other, and any application or workload leveraging these instruction sets will run on both without distinction.