AMD E2-3800 vs AMD E1-6010

Head-to-head processor comparison

Aggregated Scores

Combined benchmark scores for both processors


Overall Score

Out of 2,060 results in the database

3,933

Rank #1,940

vs
4,022

Rank #1,866

3,933
4,022

E1-6010 wins by 2.2% (Rank #1940 vs #1866)

Singlecore Score

Out of 2,060 results in the database

3,695

Rank #1,945

vs
3,865

Rank #1,853

3,695
3,865

E1-6010 wins by 4.4% (Rank #1945 vs #1853)

Multicore Score

Out of 2,060 results in the database

4,291

Rank #1,778

vs
4,257

Rank #1,884

4,291
4,257

E2-3800 wins by 0.8% (Rank #1778 vs #1884)

Number Crunching

Out of 1,771 results in the database

4,490

Rank #1,605

vs
4,465

Rank #1,712

4,490
4,465

E2-3800 wins by 0.6% (Rank #1605 vs #1712)

Data Processing

Out of 1,771 results in the database

4,454

Rank #1,635

vs
4,429

Rank #1,737

4,454
4,429

E2-3800 wins by 0.6% (Rank #1635 vs #1737)

Physics & Compute

Out of 1,771 results in the database

4,465

Rank #1,636

vs
4,443

Rank #1,726

4,465
4,443

E2-3800 wins by 0.5% (Rank #1636 vs #1726)


Specifications

Side-by-side comparison of key specifications


Specification E2-3800 E1-6010 Diff
Cores
4
2
+50%
Threads
4
2
+50%
Base Frequency
1,300 MHz
1,350 MHz
-3.7%
Clock Multiplier
13x
14x
-3.7%
L1 Cache
62 KB
62 KB
0%
L2 Cache
2 MiB
1 MiB
+50%
TDP (lower is better)
15 W
10 W
33.3% more
Process (lower is better)
28 nm
28 nm
0%

General Information

Specification E2-3800 E1-6010
Designer AMD AMD
Core Name Kabini Beema
Socket Socket FT3 Socket FT3
Package BGA769 BGA769
Memory Type DDR3 DDR3
Market Segment Mobile Mobile
Locked Multiplier Yes Yes

Designer

E2-3800
AMD
E1-6010
AMD

Core Name

E2-3800
Kabini
E1-6010
Beema

Socket

E2-3800
Socket FT3
E1-6010
Socket FT3

Package

E2-3800
BGA769
E1-6010
BGA769

Memory Type

E2-3800
DDR3
E1-6010
DDR3

Market Segment

E2-3800
Mobile
E1-6010
Mobile

Locked Multiplier

E2-3800
Yes
E1-6010
Yes

Physical Specifications

Manufacturing process and die characteristics


Specification E2-3800 E1-6010
Process 28 nm 28 nm
Die Area 107 mm² 107 mm²
Manufacturer GlobalFoundries GlobalFoundries

Process

E2-3800
28 nm
E1-6010
28 nm

Die Area

E2-3800
107 mm²
E1-6010
107 mm²

Manufacturer

E2-3800
GlobalFoundries
E1-6010
GlobalFoundries

CPU Extensions

Supported instruction set extensions comparison


Extension E2-3800 E1-6010
3DNow!
AES
AMD-V
AVX
BMI1
F16C
MMX
SSE
SSE2
SSE3
SSE4.1
SSE4.2
SSE4a

E2-3800 vs E1-6010 — Comparison Summary

The AMD E2-3800 and E1-6010 represent two distinct entries in AMD's low-power lineup, released during a period when the company was focused on energy-efficient computing for budget desktops and embedded systems. The E2-3800, launched in 2014, was part of the Kabini family, while the E1-6010, released in 2013, belonged to the earlier Beema series. Though both processors share a 28 nm manufacturing process and the same Socket FT3, their architectural evolution and performance profiles reveal significant differences in design priorities and target markets.

Both processors are dual-core designs, but the E2-3800 offers a larger L2 cache of 1.907 MiB compared to the E1-6010’s 0.954 MiB, which contributes to better memory handling and reduced latency in workloads. The E1-6010 slightly edges out the E2-3800 in base clock speed, running at 1.35 GHz versus 1.3 GHz, but this advantage is offset by the E2-3800’s higher TDP of 15 W compared to the E1-6010’s 10 W. This suggests that the E2-3800 was designed for slightly more demanding tasks, albeit at a cost of increased power consumption.

In terms of performance, the E2-3800 holds a slight lead in overall system benchmarks. It achieves an Overall Score of 3933, ranking #1940 out of 2060, while the E1-6010 scores 4022, placing it at #1866. This indicates that despite its lower TDP and smaller cache, the E1-6010 performs better in certain workloads, likely due to architectural refinements in the Beema core. The E1-6010 also excels in single-core performance, with a Singlecore Score of 3865, ranking #1853, compared to the E2-3800’s 3695 at #1945. This suggests the E1-6010 may be more responsive in single-threaded applications.

Both processors support a wide range of instruction sets, including SSE, AVX, AES, and AMD-V, making them suitable for basic virtualization and multimedia tasks. However, the E2-3800’s larger cache and higher TDP make it better suited for multitasking and slightly more intensive applications, such as light video editing or web development. The E1-6010, with its lower power draw, is ideal for always-on devices or systems where energy efficiency is paramount.

As of April 2026, both processors are considered legacy parts, but they remain relevant in niche markets such as thin clients, digital signage, and low-cost home computers. While the E2-3800 offers better performance in multicore scenarios, the E1-6010’s efficiency makes it a compelling choice for users prioritizing power savings over raw speed.