CPU Comparison
Apple M1 Pro vs Apple M5 Pro
A side-by-side comparison of specs, performance and value. Apple M1 Pro is a 5nm ARM-based SoC with 8 performance and 2 efficiency CPU cores, up to a 16-core GPU, a 16-core Neural Engine, and up to 32GB unified memory with 200GB/s bandwidth, designed for pro laptops.
The Bottom Line
Overview & Launch
Specifications Compared
Performance Compared
Productivity
Gaming
Virtualization
Efficiency
Specialized Performance
AI / ML
- 16-core Neural Engine accelerates on-device ML tasks in apps and frameworks.
- Apple advertises 11 TOPS INT8 for M1-series Neural Engines.
- CPU and GPU also contribute to ML workloads via optimized libraries.
- Neural Accelerators in GPU cores plus 16-core Neural Engine provide strong on-device AI acceleration
- Apple claims up to 4x faster LLM prompt processing and significantly higher AI image generation vs M4 Pro/M4 Max
- Excellent for running and fine-tuning small-to-medium LLMs and diffusion models locally
Content Creation
Gaming
- Integrated GPU provides playable performance in many games but is not comparable to midrange dedicated GPUs.
- Limited macOS game catalog impacts practical gaming utility.
- Apple Silicon adoption improves performance in supported titles over time.
- 20-core GPU with hardware ray tracing and mesh shading handles modern games well
- Best experience at 1440p–4K with high but not always ultra settings in the most demanding titles
- Apple’s GPU architecture and Metal drivers continue to improve, but game library and driver support lag Windows/x86
Industry Impact
Best CPU by Use Case
Target Audience
Strengths & Weaknesses
Pros
- Strong multi-core CPU and GPU performance in a power-efficient design.
- Excellent battery life for a pro laptop.
- Up to 32GB unified memory with high bandwidth.
- Integrated media engines with ProRes accelerators for video workflows.
- Thunderbolt 4/USB4 built into the SoC.
Cons
- RAM is not upgradable; unified memory is fixed at purchase.
- Gaming performance lags behind midrange dedicated GPUs.
- No official socket or user-configurable PCIe lanes.
- Apple does not publish TDP or official clock specifications.
- macOS-only for direct use; no boot-to-Windows support on Apple Silicon.
Pros
- Substantial CPU and GPU performance gains over M4 Pro, especially for multi-threaded and AI workloads
- Unified memory up to 64GB at 307GB/s avoids data copies and simplifies optimization
- Thunderbolt 5 and on-chip controllers enable high-bandwidth external devices
- Excellent energy efficiency for a pro laptop SoC
- Strong on-device AI capabilities via GPU Neural Accelerators and 16-core Neural Engine
Cons
- Not user-upgradeable; RAM and storage are soldered
- No official TDP or detailed power specs published by Apple
- Maximum memory limited to 64GB, less than some desktop workstations
- GPU and CPU clock speeds not officially disclosed
- Gaming ecosystem and driver support still smaller than Windows/x86 platforms
Competitors & Alternatives
Apple M1 Pro
- Intel Core i7-11800HRival
High-performance laptop
- Intel Core i7-12700HRival
High-performance laptop
- AMD Ryzen 9 5900HXRival
High-performance laptop
- AMD Ryzen 9 6900HXRival
High-performance laptop
- Compare head-to-headIntel Core i9-11980HKRival
Enthusiast laptop
- Alt
Newer generation with higher performance and improved efficiency in the same MacBook Pro form factors.
Compare head-to-head - Alt
More GPU cores and memory bandwidth for GPU-heavy workloads.
Compare head-to-head - Intel Core i7-13700HAlt
x86 compatibility for Windows-centric workflows.
- AMD Ryzen 9 7940HSAlt
Strong x86 efficiency and integrated graphics for Windows laptops.
- Alt
Newer architecture with updated CPU and GPU for non-Pro users.
Compare head-to-head
Apple M5 Pro
- AMD Ryzen AI 9 HX 370Rival
High-End Mobile / Creator
- Intel Core Ultra 9 288VRival
High-End Mobile / Creator
- Qualcomm Snapdragon X EliteRival
High-End Mobile / AI PC
- AMD Ryzen 9 8945HSRival
High-End Mobile
- Intel Core Ultra 7 165HRival
High-End Mobile
- Alt
Much higher GPU compute and up to 128GB unified memory if you need more GPU/AI headroom.
Compare head-to-head - Apple M4 Pro MacBook ProAlt
Lower cost if you don’t need the latest CPU/GPU/AI improvements or Thunderbolt 5.
- Mac Studio with M4 Max/M5 MaxAlt
Better sustained performance and more IO for a desktop workstation.
- High-end Windows workstation laptop (Ryzen AI 9 / Intel Core Ultra + RTX 5070)Alt
Better for Windows-centric workflows, gaming, and CUDA-based ML.
- Desktop PC with RTX 5070/5080 and 64–128GB RAMAlt
Superior GPU performance and expandability for heavy rendering and ML training.
Our Verdict on Each
M1 Pro delivers outstanding performance per watt and strong multi-core throughput for pro workloads, with highly efficient operation and excellent battery life, making it a compelling choice for creators who do not need x86.
Best for: Creator or developer needing sustained performance and battery life in a MacBook Pro (14 or 16, 2021) who can work within macOS.
Read the full reviewM5 Pro is a substantial generational leap over M4 Pro for CPU and GPU performance, especially for AI and multi-threaded workloads, with excellent efficiency and Thunderbolt 5. It’s best suited for professionals who need a single, powerful laptop rather than a desktop replacement.
Best for: Professional creator, developer, or scientist who needs a single, powerful laptop for CPU/GPU/AI work and values macOS, battery life, and Thunderbolt 5 over maximum upgradability.
Read the full reviewFrequently Asked Questions
Which is faster for gaming, Apple M1 Pro or Apple M5 Pro?
For gaming, the Apple M5 Pro leads with a gaming performance score of 85/100 among Apple M1 Pro and Apple M5 Pro.
Which uses less power?
The Apple M5 Pro has the lowest rated TDP. Power draw across these chips: Apple M5 Pro (0 W).
Which has more cores?
The Apple M5 Pro has the most cores. Core counts: Apple M1 Pro (10 cores), Apple M5 Pro (18 cores).
Which is faster in multi-core benchmarks?
The Apple M5 Pro posts the highest multi-core benchmark score. Multi-core results: Apple M5 Pro (0). Benchmark figures are approximate and workload-dependent.