CPU Comparison

Apple M1 vs Core i7-1160G7

A side-by-side comparison of specs, performance and value. The Apple M1 is an 8-core ARM-based system-on-a-chip (SoC) that marked Apple’s transition from Intel to its own Apple Silicon for the Mac, combining four high‑performance and four efficiency cores, an 8‑core integrated GPU, and a 16‑core Neural Engine on a 5 nm process.

Top pick
Apple · Apple M series
Apple M1
8C / 8T
8.8
Full review
Intel · Core i7
Core i7-1160G7
4C / 8T4.4 GHz15 W
8.6
Full review

The Bottom Line

Overview & Launch

Brand
Apple
Intel
Market
Consumer / Prosumer Laptops and Desktops
Mobile
Segment
Mobile / Desktop SoC (entry–mid-range Mac)
Mobile
Generation
1st Gen Apple Silicon (M1 family)
Core i7 (Willow Cove-U)
Launched
2020
2020
Status
Discontinued in new Macs (replaced by M2/M3; M1 Macs largely off new market by early 2024)
End-of-life
Codename
Firestorm (performance) + Icestorm (efficiency)
Tiger Lake-U
Series
Apple M series
Core i7
Family
Apple M1
11th Generation Core i7
Predecessor
Intel Macs (U‑series and Y‑series CPUs)
Intel Core i7-1060G7
Successor
Apple M2 (announced June 2022)
Intel Core i7-1250U

Specifications Compared

Cores & Clocks
Cores
8
4
Threads
8
8
Base Clock
1.2 GHz
Boost Clock
4.4 GHz
Cache & Power
L3 Cache
12 MB
TDP
15 W
Architecture
Architecture
ARMv8.4-A (Apple Firestorm + Icestorm big.LITTLE-style)
Tiger Lake-U (Willow Cove)
Process Node
5 nm (TSMC N5)
10nm
Memory
Memory Type
LPDDR4X
LPDDR4X
Memory Speed
4267 MT/s
LPDDR4X-4267
Memory Channels
Octa (8)
Dual (2)
Max Memory
16 GB
32 GB
Platform & I/O
Socket
On-package (BGA-style, not user-replaceable)
Intel BGA 1598
PCIe Version
PCIe 4.0
PCIe Lanes
4
Integrated GPU
Yes
Yes
Unlocked
No
No

Performance Compared

Productivity

Apple M1Best88

Very responsive for everyday tasks, Xcode builds, and light creative work; benefits from fast single‑core and SSD, but heavy multi‑thread workloads are constrained by 8 threads.

Core i7-1160G785

Snappy burst performance handles everyday tasks easily.

Gaming

Apple M1Best72

Competent for 1080p gaming in macOS and via Rosetta 2 for many titles, but the 8‑core GPU and 8–16 GB memory limit modern AAA performance and resolution scaling.

Core i7-1160G770

Good for casual gaming, but thermal throttling in fanless designs limits sustained performance.

Virtualization

Apple M1Best68

Capable for a couple of light VMs, but not ideal for large parallel VM farms due to core count and memory ceiling.

Core i7-1160G760

Low power limits make running VMs difficult.

Efficiency

Apple M195

Outstanding performance per watt; MacBook Air and 13‑inch MacBook Pro with M1 delivered dramatically better battery life and lower heat than comparable Intel Macs.

Core i7-1160G7Best98

Top-tier efficiency; designed for maximum battery life.

Specialized Performance

AI / ML

Apple M1Good for on‑device inference
  • 16‑core Neural Engine accelerates Core ML models
  • CPU and GPU also provide ML accelerators for framework‑level ops
  • Not designed for large‑scale training or server‑side inference
Core i7-1160G7Fair
  • GNA for audio AI
  • Low power limits restrict heavy AI inference

Content Creation

Apple M1Good for light-to-medium workloads
Adobe Premiere Pro (1080p–2K timelines)DaVinci Resolve (HD–2K, basic color grading)Xcode and Swift developmentBlender (small scenes, viewport rendering)Logic Pro and audio production
Core i7-1160G7Fair
Adobe PhotoshopLightroomLight Video Trimming

Gaming

Apple M1Good for casual and older titles
  • 8‑core GPU comparable to low‑end discrete GPUs of its era in some Metal titles
  • Rosetta 2 adds overhead for x86 games; some titles have compatibility or performance quirks
  • 16 GB memory limit and 8 GPU cores cap texture resolutions and frame rates in modern AAA games
Core i7-1160G7Good (Integrated)
  • Great for 2D and e-sports titles
  • Will throttle in heavy 3D loads due to fanless chassis
  • Iris Xe provides surprising capability at 7W

Industry Impact

Gaming
Moderate – pushed Windows OEMs to prioritize efficiency and integrated GPU performance in thin laptops, but M1’s gaming impact is limited by macOS software and GPU power.
Low
Workstations
High – demonstrated that ARM SoCs could compete with x86 in content creation and pro workloads at lower power, influencing subsequent Apple Silicon Pro/Max and ARM server efforts.
Low
Content Creation
High – made 4K video editing and photo editing accessible in thin, quiet laptops, changing expectations for what “ultrabook‑class” devices could do.
Moderate
Virtualization
Moderate – showed efficient VMs on ARM laptops, but x86 server and cloud ecosystems still dominate.
Low

Best CPU by Use Case

Web, Office and Study
Excellent
Coding and Development
Very Good
1080p–2K Video Editing
Good
Light 3D and Creative Apps
Good
Multi‑VM / Heavy Server Workloads
Limited
Silent Office Work
Excellent
Media Consumption
Excellent
Casual Gaming
Good
Photo Editing
Good
Video Editing
Fair

Target Audience

Gamers
Targeted
Targeted
Content Creators
Targeted
Targeted
Developers
Targeted
Targeted
Workstation Users
Streamers
Targeted
Office / Productivity
Targeted
Targeted
Students
Targeted
Targeted

Strengths & Weaknesses

Apple M1

Pros

  • Excellent single‑thread performance and responsiveness
  • Outstanding performance per watt and battery life
  • Integrated GPU much faster than old Intel UHD/Iris in Macs
  • Unified memory simplifies development and improves efficiency
  • Silent, fanless operation in MacBook Air and Mac mini under light loads
  • Strong on‑device ML inference via Neural Engine

Cons

  • Only 8 CPU threads; heavy multi‑thread workloads can hit a ceiling
  • Max 16 GB unified memory; not user‑upgradeable
  • No eGPU support and limited PCIe expansion
  • Rosetta 2 translation layer for some x86 apps; not all software is native
  • Newer M2/M3 chips and modern x86 CPUs offer more cores, higher clocks, and better GPU performance
Core i7-1160G7

Pros

  • Incredible power efficiency
  • Allows for completely silent, fanless designs
  • Retains 96 EU Iris Xe graphics
  • Excellent burst performance for daily tasks
  • Ultra-thin package size

Cons

  • Very low base clock (1.2 GHz)
  • Will throttle quickly under sustained load without a fan
  • Limited to LPDDR4X memory
  • Expensive and niche market positioning

Competitors & Alternatives

Apple M1

Core i7-1160G7

Our Verdict on Each

Apple M1Recommended

A landmark chip that delivered class‑leading efficiency and single‑thread speed for thin laptops, still very capable for most users but increasingly outdated compared to M2/M3 and modern x86 rivals in multi‑thread and GPU workloads.

Best for: Used or refurbished M1 MacBook Air / Mac mini for general use, study, or light creative work at a low price

Read the full review
Core i7-1160G7Recommended

A remarkably efficient 10nm chip that brings high-end integrated graphics to completely silent, fanless form factors.

Best for: Buying a used premium fanless tablet like the Surface Pro X alternative or Dell XPS 13 2-in-1.

Read the full review

Frequently Asked Questions

Which is better, Apple M1 or Core i7-1160G7?

Based on our editorial ratings, the Apple M1 comes out ahead with a score of 8.8/10. That said, the best choice depends on your workload — check the spec and performance breakdown above for gaming, productivity and efficiency differences.

Which is faster for gaming, Apple M1 or Core i7-1160G7?

For gaming, the Apple M1 leads with a gaming performance score of 72/100 among Apple M1 and Core i7-1160G7.

Which uses less power?

The Core i7-1160G7 has the lowest rated TDP. Power draw across these chips: Core i7-1160G7 (15 W).

Do Apple M1 and Core i7-1160G7 use the same socket?

No. They use different sockets (Apple M1: On-package (BGA-style, not user-replaceable), Core i7-1160G7: Intel BGA 1598), so each needs a compatible motherboard.

Which has more cores?

The Apple M1 has the most cores. Core counts: Apple M1 (8 cores), Core i7-1160G7 (4 cores).

Which is faster in multi-core benchmarks?

The Apple M1 posts the highest multi-core benchmark score. Multi-core results: Apple M1 (7,404), Core i7-1160G7 (4,000). Benchmark figures are approximate and workload-dependent.