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Core i3-8100 vs Xeon E5-2620


Description
The i3-8100 is based on Coffee Lake architecture while the E5-2620 is based on Sandy Bridge.

Using the multithread performance as a reference, the i3-8100 gets a score of 157.6 k points while the E5-2620 gets 224.7 k points.

Summarizing, the E5-2620 is 1.4 times faster than the i3-8100. To get a proper comparison between both models, take a look to the data shown below.

Specs
CPUID
906eb
206d7
Core
Coffee Lake-S
Sandy Bridge-EP
Architecture
Base frecuency
3.6 GHz
2 GHz
Boost frecuency
3.6 GHz
2.5 GHz
Socket
LGA 1151
LGA 2011
Cores/Threads
4/4
6/12
TDP
65 W
95 W
Cache L1 (d+i)
4x32+4x32 kB
6x32+6x32 kB
Cache L2
4x256 kB
6x256 kB
Cache L3
6144 kB
15360 kB
Date
October 2017
March 2012
Mean monothread perf.
59.18k points
18.8k points
Mean multithread perf.
200.4k points
224.7k points

AVX optimized benchmark
The benchmark in mode II (AVX) is optimized to used 256 bits registers beside the first version of the Advanced Vector Extensions (AVX). The first AVX compatible CPU was released in 2011.
Monothread
i3-8100
E5-2620
Test#1 (Integers)
13.52k
6.95k (x0.51)
Test#2 (FP)
20.57k
6.24k (x0.3)
Test#3 (Generic, ZIP)
4.96k
3.05k (x0.62)
Test#1 (Memory)
7.91k
2.56k (x0.32)
TOTAL
46.96k
18.8k (x0.4)

Multithread

i3-8100

E5-2620
Test#1 (Integers)
53.4k
90.01k (x1.69)
Test#2 (FP)
80.87k
82.43k (x1.02)
Test#3 (Generic, ZIP)
19.03k
42.59k (x2.24)
Test#1 (Memory)
4.29k
9.66k (x2.25)
TOTAL
157.59k
224.7k (x1.43)

Performance/W
i3-8100
E5-2620
Test#1 (Integers)
822 points/W
948 points/W
Test#2 (FP)
1244 points/W
868 points/W
Test#3 (Generic, ZIP)
293 points/W
448 points/W
Test#1 (Memory)
66 points/W
102 points/W
TOTAL
2425 points/W
2365 points/W

Performance/GHz
i3-8100
E5-2620
Test#1 (Integers)
3757 points/GHz
2780 points/GHz
Test#2 (FP)
5714 points/GHz
2494 points/GHz
Test#3 (Generic, ZIP)
1377 points/GHz
1220 points/GHz
Test#1 (Memory)
2196 points/GHz
1024 points/GHz
TOTAL
13044 points/GHz
7519 points/GHz

Monothread performance graph
Monothread performance graphics gives the performance vs time. They are useful to measure the time it takes to the CPU to reach the maximum performance.

Usually, CPU's performance will be steady during these tests but if it has a slow frequency strategy, the first samples will show a lower score.


Test#1 (Integers) [points vs time]

grafica bm.hardlimit.com


Test#2 (FP) [points vs time]

grafica bm.hardlimit.com


Test#3 (Generic, ZIP) [points vs time]

grafica bm.hardlimit.com


Test#1 (Memory) [points vs time]

grafica bm.hardlimit.com

Multithread performance graph
Multithread graphs measure the performance against a heavy load during certain time.

If CPU's TDP doesn't limit the frequency and the machine is properly cooled, performance should remain steady vs time. Otherwise, the performance score will oscillate or decrease over time.


Test#1 (Integers) [points vs time]

grafica bm.hardlimit.com


Test#2 (FP) [points vs time]

grafica bm.hardlimit.com


Test#3 (Generic, ZIP) [points vs time]

grafica bm.hardlimit.com


Test#1 (Memory) [points vs time]

grafica bm.hardlimit.com

Hardlimit Benchmark Central - Ver. 3.11.4