Qualcomm Snapdragon 7c
VS
AMD Athlon Silver 3050U
Qualcomm Snapdragon 7c
VS
AMD Athlon Silver 3050U

Which to select

It is time to pick the winner. What is the difference between Qualcomm Snapdragon 7c vs AMD Athlon Silver 3050U? What CPU is more powerful? It is quite easy to determine – look at comparison table. The processor with more cores/ threads and also with higher frequency is the absolute winner!

CPU Cores and Base Frequency

Who will win between Qualcomm Snapdragon 7c vs  AMD Athlon Silver 3050U. The general performance of a CPU can easily be determined based on the number of its cores and the thread count, as well as the base frequency and Turbo frequency. The more GHz and cores a CPU has, the better. Please note that high technical specs require using a powerful cooling system.

2.40 GHz
Frequency
2.30 GHz
8
CPU Cores
2
2.40 GHz
Turbo (1 Core)
3.20 GHz
no data
Turbo (2 Cores)
2.30 GHz
No
Hyperthreading
No
No
Overclocking
No
2.40 GHz
Turbo (8 Cores)
hybrid (big.LITTLE)
Core architecture
8x Kryo 468
A core
--
B core
--
C core

CPU generation and family

Qualcomm Snapdragon 7c
Name
Mobile
Segment
Qualcomm Snapdragon 7c
CPU group
Qualcomm Snapdragon
Family
2
Generation
--
Predecessor
--
Successor

Internal Graphics

Some manufacturers complement their CPUs with graphic chips, such a solution being especially popular in laptops. The higher the clock frequency of a GPU is and the bigger its memory, the better. Find a winner - Qualcomm Snapdragon 7c vs AMD Athlon Silver 3050U. 

Qualcomm Adreno 618
GPU name
AMD Radeon Vega 3 Graphics
0.70 GHz
GPU frequency
1.10 GHz
No turbo
GPU (Turbo)
No turbo
6
Generation
8
12.1
DirectX Version
12
0
Execution units
3
128
Shader
192
no data
Max. Memory
2 GB
2
Max. displays
3
14 nm
Technology
14 nm
Q2/2019
Release date
Q1/2018
4 GB
Max. GPU Memory

Hardware codec support

Here we deal with specs that are used by some CPU manufacturers. These numbers are mainly technical and can be neglected for the purpose of the comparison analysis.

Decode / Encode
h264
Decode / Encode
Decode / Encode
JPEG
Decode / Encode
no data
h265 8bit
Decode / Encode
no data
h265 10bit
Decode / Encode
Decode
VP8
Decode / Encode
Decode
VP9
Decode / Encode
Decode
VC-1
Decode
Decode
AVC
Decode / Encode
Decode
h265 / HEVC (8 bit)
Decode
h265 / HEVC (10 bit)
No
AV1

Memory & PCIe

These are memory standards supported by CPUs. The higher such standards, the better a CPU’s performance is.

LPDDR4X-2133
Memory type
DDR4-2400
Max. Memory
32 GB
2
Memory channels
2
No
ECC
Yes
PCIe version
3.0
PCIe lanes
8

Encryption

Data encryption support

No
AES-NI
Yes

Memory & AMP; PCIe

Thermal Management

The thermal design power (TDP), sometimes called thermal design point, is the maximum amount of heat generated by a computer chip or component (often a CPU, GPU or system on a chip) that the cooling system in a computer is designed to dissipate under any workload.

no data
TDP
15 W
--
Tjunction max.
95 °C
--
TDP up
25 W
--
TDP down
12 W
--
TDP (PL2)

Technical details

8
CPU Threads
2
--
L3-Cache
4.00 MB
8 nm
Technology
14 nm
Kryo 468
Architecture
Dali (Zen+)
None
Virtualization
AMD-V, SEV
N/A
Socket
FP5
2020
Release date
Q1/2020
x86-64 (64 bit)
Instruction set (ISA)
--
L2-Cache
--
Part Number

Devices using this processor

You probably know already what devices use CPUs. These can be a desktop or a laptop.

Unknown
Used in
Unknown

Compatibility

Technologies and extensions

Virtualization technologies

Memory specs

Peripherals

Cinebench R15 (Single-Core)

The latter is used for creation of 3D models and forms. Cinebench R15 is used for single-core processor performance benchmark test. The hyperthreading ability doesn't count. It is the updated version of Cinebench 11.5. As all new versions, the updated benchmark is based on Cinema 4 Suite software

Cinebench R20 (Single-Core)

Cinebench R20 is based on Cinema 4 Suite. It is the software used to create 3D forms. The benchmark runs for single-core test procedure without counting of hyperthreading ability.

iGPU - FP32 Performance (Single-precision GFLOPS)

This test serves for determining the performance of integrated graphics in Intel and AMD processors. The result is the estimated computing power in the Single-Precision FP32 mode