Apple’s M-series chips have always been about efficiency, not raw GPU horsepower. That’s why the Apple M5’s performance uplift in real-world gaming workloads—particularly in Resident Evil Village and Resident Evil 4 Remake—is such a surprise. This is the first time an Apple chip feels like it’s seriously catching up in GPU-driven gaming.
While direct MacBook Pro M4-to-M5 gaming comparisons are still pending, the iPad Pro M4 vs M5 benchmarks give us a solid reference point. Both use the same silicon and thermals, making their results directly relevant.
In controlled tests, Resident Evil Village and Resident Evil 4 Remake were run at 1669p (roughly between 1440p and 4K) on High settings with MetalFX Off—meaning no upscaling, no AI help, just raw GPU throughput.
Apple M5 vs M4 vs RTX 4060 Laptop
| Test/Game | Resolution | Settings | M4 Avg FPS | M5 Avg FPS | Uplift | RTX 4060 Laptop* |
|---|---|---|---|---|---|---|
| Resident Evil Village | 1669p | High, MetalFX Off | ~42 | ~63 | +50% | ~80 |
| Resident Evil 4 Remake | 1669p | High, MetalFX Off | ~35 | ~55–70 | +40–100% | ~85 |
| GPU Compute (GFXBench Aztec High) | 1440p | Offscreen | 230 FPS | 365 FPS | +59% | ~400 FPS |
| Power Draw | — | — | ~25 W | ~25 W | — | 90–120 W |
*Typical performance range for RTX 4060 Laptop (80–115W configuration).
The M5 matches roughly 80–85% of RTX 4060 Laptop performance in some optimized games, while maintaining efficiency that’s several times higher.
Performance Results
- Resident Evil Village (M5 vs M4):
Around 50 percent faster on average, with peaks up to 60 percent. - Resident Evil 4 Remake (M5 vs M4):
Typically 40–50 percent faster, occasionally spiking to nearly double the M4’s frame rate in select scenes.
For a single-generation jump on Apple Silicon, those are extraordinary numbers.
M4 vs M5 Power Consumption
Apple’s M5 chip consumes noticeably more power than the M4, reflected in its higher peak power draw and greater total energy usage for similar workloads. While the M4 typically operates at around 9W TDP, the M5 in the new MacBook Pro can exceed 30W at peak, compared to roughly 25W for the M4 under similar conditions.
This increase in power consumption comes from the M5’s higher clock speeds and expanded performance headroom — especially in AI and machine learning workloads, which tend to draw more energy per joule due to their compute intensity.
| Feature | M4 | M5 |
|---|---|---|
| Peak Power Draw (MacBook Pro) | ~25W | >30W |
| Energy Consumption (Fixed Workload) | 100% (baseline) | +34% higher |
| Typical TDP (9-core model) | 9W | Not specified, but higher due to performance demands |
In short, the M5 delivers stronger performance, but at the cost of greater power draw and energy use — a shift that suggests Apple is prioritizing performance scaling over ultra-low power efficiency this generation.
This aligns with Apple’s broader shift toward treating the MacBook Pro as a workstation-class device rather than just a creative portable. It’s the same direction we’ve observed since testing Cyberpunk 2077 on the M1 Pro MacBook Pro — where Apple surprised everyone with just how capable Metal can be in AAA workloads.
→ Read: I tried Cyberpunk 2077 on my MacBook Pro M1 Pro and I’m shocked at what Apple just pulled off.
For context, NVIDIA’s RTX 5060 is expected to be roughly 8 percent faster than the RTX 4060 in raw performance. We benchmarked benchmarked the RTX 5090 Mobile and found just 0.5–3 percent average gains depending on resolution—sometimes even slower in certain titles.
Against that backdrop, the M5’s 40–100 percent uplift looks less like a refresh and more like a milestone.
What’s Driving the Gains
- Refined GPU Core Architecture
Each M5 GPU core now integrates a Neural Accelerator, improving AI-assisted shading, frame reconstruction, and texture workloads that benefit Metal-optimized games. - Higher Unified-Memory Bandwidth
Up to 153 GB/s, reducing stalls during high-resolution rendering and texture streaming. - Stronger Metal Optimization
Resident Evil titles are among the best-optimized AAA games for Apple Silicon, showing what’s possible when developers fully leverage Metal and its shader pipeline.
Why It Matters
The M5 doesn’t just close a performance gap—it changes Apple’s positioning in gaming. Mac gamers have long accepted “playable” as good enough. With M5, “smooth” is finally on the table. If these gains carry over to desktop form factors like the Mac Mini M5 and MacBook Pro M5 Pro/Max, the platform could start offering credible competition to mid-range gaming laptops.
The results we’re seeing on the M5 aren’t just isolated wins. They point to a growing maturity in Apple’s GPU drivers and MetalFX optimization layer. With titles like Resident Evil now running smoothly at console-like frame rates, Mac gaming is beginning to carve out a viable niche — something we’ve explored in-depth while testing Counter-Strike 2 on the M1 MacBook Air, where even older Apple silicon managed 50–60 FPS with the right tweaks.
→ Read: How I got Counter-Strike 2 running at 60 FPS on a MacBook Air M1 using CrossOver.
This is still Apple’s early era in gaming. Not every title benefits from Metal optimization, and many AAA developers haven’t ported their engines. But Apple’s hardware is no longer the limiting factor—it’s the software ecosystem that needs to catch up.
Across five generations, Apple’s GPU evolution went from “better than integrated graphics” to “approaching discrete-class performance.” The M5 marks the biggest stride yet.
It proves that Apple’s in-house GPU team can now deliver competitive generational improvements—something even major GPU vendors struggle to achieve year-over-year.
While Apple’s M5 leap is impressive, it also hints at the limitations of integrated GPU scaling. As NVIDIA and Intel close in with next-gen mobile GPUs, Apple’s silicon dominance is starting to face meaningful competition in raw power, efficiency, and flexibility.
→ Read: Apple’s supremacy with Apple Silicon laptops might just be under threat from NVIDIA and Intel.
For now, though, the M5 stands tall as a watershed moment — a chip that finally gives us a glimpse of what a future “gaming Mac” could look like when Apple stops playing it safe.
If you strip away the brand names and just look at the numbers, the M5 is an objectively impressive chip. It finally gives Apple Silicon machines the headroom to run demanding games comfortably without leaning on aggressive upscaling or thermal throttling.
For Mac gaming, this feels like a turning point—the first time the hardware story outpaces the software one. Now the question is whether developers will follow.
