CPU Comparison

Intel Core i5-3230M vs Intel Core i5-3380M

A side-by-side comparison of specs, performance and value. The Intel Core i5-3230M (PGA variant, SR0WY) is a dual-core, quad-thread Ivy Bridge mobile processor in a socketed FC-PGA12F package for Intel Socket G2 (988B), offering 2.6 GHz base and 3.2 GHz turbo clocks with Intel HD 4000 graphics and the rare advantage of being upgradeable.

Intel · Core i5
Intel Core i5-3230M
2C / 4T3.2 GHz35 W
5
Full review
Top pick
Intel · Core i5
Intel Core i5-3380M
2C / 4T3.6 GHz35 W
5.8
Full review

The Bottom Line

Overview & Launch

Brand
Intel
Intel
Market
Mobile
Mobile
Segment
Mobile
Mobile Mainstream
Generation
3rd Gen Core i5 (Ivy Bridge)
3rd Generation
Launched
2013
2013
Status
Discontinued
Discontinued
Codename
Ivy Bridge
Ivy Bridge
Series
Core i5
Core i5
Family
Ivy Bridge
Ivy Bridge
Predecessor
Intel Core i5-2450M
Sandy Bridge
Successor
Intel Core i5-4200M (new platform)
Haswell

Specifications Compared

Cores & Clocks
Cores
2
2
Threads
4
4
Base Clock
2.6 GHz
2.9 GHz
Boost Clock
3.2 GHz
3.6 GHz
Cache & Power
L3 Cache
3 MB
3 MB
TDP
35 W
35 W
Architecture
Architecture
Ivy Bridge
Ivy Bridge
Process Node
22nm
22nm
Memory
Memory Type
DDR3
DDR3
Memory Speed
DDR3-1600
DDR3-1600
Memory Channels
Dual (2)
Dual (2)
Max Memory
32 GB
32 GB
Platform & I/O
Socket
Intel Socket G2 (988B)
Intel Socket G2 (988B)
PCIe Version
PCIe 3.0
PCIe 3.0
PCIe Lanes
16
16
Integrated GPU
Yes
Yes
Unlocked
No
No

Performance Compared

Productivity

Intel Core i5-3230M30

Adequate for basic office tasks but overwhelmed by modern web applications and multitasking demands.

Intel Core i5-3380MBest42

Handles office apps fine but chokes on heavy scripts.

Gaming

Intel Core i5-3230M20

HD 4000 graphics provide minimal gaming capability, limited to very old titles at low settings.

Intel Core i5-3380MBest32

Can run games from 2010-2013 on low settings.

Virtualization

Intel Core i5-3230M28

VT-x and VT-d support is present, but two cores limit practical virtual machine usage.

Intel Core i5-3380MBest38

VT-d helps, but 2 cores limit VM size.

Efficiency

Intel Core i5-3230M45

Standard 35 W mobile power consumption, unremarkable by modern efficiency standards.

Intel Core i5-3380MBest48

35W TDP generates noticeable heat in older laptops.

Specialized Performance

AI / ML

Intel Core i5-3230MNone
  • No AI acceleration hardware
  • No AVX2 or later instruction support
  • Completely unsuitable for AI workloads
Intel Core i5-3380MNone
  • No hardware AI support
  • CPU inference is unfeasibly slow

Content Creation

Intel Core i5-3230MPoor
Basic Photo Editing (legacy versions)Document CreationLight Spreadsheet Work
Intel Core i5-3380MPoor
Basic Photo Editing

Gaming

Intel Core i5-3230MPoor
  • HD 4000 with 1100 MHz turbo is the limiting factor
  • Playable in very old or lightweight games only
  • The socketed nature means a discrete GPU upgrade path may exist in some laptop chassis
Intel Core i5-3380MPoor
  • HD 4000 is heavily outdated
  • No support for modern DirectX features

Industry Impact

Gaming
Low
Low
Workstations
Low
Low
Content Creation
Low
Low
Virtualization
Low
Moderate

Best CPU by Use Case

CPU Upgrade in Older Laptop
Good
Office Productivity
Adequate
Web Browsing
Adequate
HD Video Playback
Good
Legacy Software Compatibility
Good
Heavy Web Browsing
Fair
Office Applications
Good
Retro Gaming
Fair
Modern Gaming
Poor
Video Editing
Poor

Target Audience

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

Strengths & Weaknesses

Intel Core i5-3230M

Pros

  • Socketed design allows CPU replacement and upgrades
  • Socket G2 supports both Sandy Bridge and Ivy Bridge processors for flexible upgrade paths
  • Intel HD 4000 was capable for its time
  • VT-d and AES-NI support for business use
  • Low cost on the used market for extending older laptop life

Cons

  • Only two cores, completely insufficient for modern workloads
  • No AVX2 instruction support
  • 35 W TDP limits thin-and-light applicability
  • Socket G2 platform has no future upgrade path beyond Ivy Bridge
  • Obsolete for any meaningful 2026 computing
Intel Core i5-3380M

Pros

  • High 3.6 GHz turbo for a mobile chip
  • Socketed design allows upgrades
  • Good single-thread performance for 2013
  • Hardware virtualization

Cons

  • Obsolete by modern metrics
  • 35W TDP is high for dual-core
  • Soldered alternatives are more common
  • No Windows 11 support
  • Weak integrated graphics

Competitors & Alternatives

Intel Core i5-3230M

Intel Core i5-3380M

Our Verdict on Each

The PGA variant of the i5-3230M is functionally identical to its BGA sibling in performance but offers the significant advantage of being socketed and replaceable. This made it popular in business laptops where field upgradeability was valued.

Best for: Upgrading an existing Socket G2 laptop from an older Sandy Bridge processor to extend its useful life.

Read the full review

A fast dual-core for its time, but outdated. Its socketed nature allows for rare mobile upgrades.

Best for: Upgrading an old Socket G2 laptop for basic use.

Read the full review

Frequently Asked Questions

Which is better, Intel Core i5-3230M or Intel Core i5-3380M?

Based on our editorial ratings, the Intel Core i5-3380M comes out ahead with a score of 5.8/10. 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, Intel Core i5-3230M or Intel Core i5-3380M?

For gaming, the Intel Core i5-3380M leads with a gaming performance score of 32/100 among Intel Core i5-3230M and Intel Core i5-3380M.

Do Intel Core i5-3230M and Intel Core i5-3380M use the same socket?

Yes — all of these CPUs use the Intel Socket G2 (988B) socket, so they share compatible motherboards.

Which is faster in multi-core benchmarks?

The Intel Core i5-3380M posts the highest multi-core benchmark score. Multi-core results: Intel Core i5-3230M (1,900), Intel Core i5-3380M (3,800). Benchmark figures are approximate and workload-dependent.