Core i7-12700K vs A8-6410 — How Many FPS
Availability
Intel Core i7-12700K Desktop Processor 12 (8P+4E) Cores up to 5.0 GHz Unlocked LGA1700 600 Series Chipset 125W
Buy on Amazon
$401.26
In Stock
Updated 1 minutes ago
Availability
No items available
Key Differences
In short — Core i7-12700K outperforms A8-6410 on the selected game parameters. We do not have the prices of both CPUs to compare value.
Advantages of Intel Core i7-12700K
Advantages of AMD A8-6410
Counter-Strike: Global Offensive
Resolution
1920×1080
Game Graphics
High
Core i7-12700K
Desktop • Nov 4th, 2021
FPS
844
100%
Value, $/FPS
$0.48/FPS
100%
Price, $
$401.26
100%
FPS and Value Winner
Intel Core i7-12700K Desktop Processor 12 (8P+4E) Cores up to 5.0 GHz Unlocked LGA1700 600 Series Chipset 125W
Buy for $401. 26 on Amazon
In Stock
Updated 1 minutes ago
A8-6410
Value, $/FPS
Price, $
Resolution
1920×1080
Game Graphics
High
Core i7-12700K
Desktop • Nov 4th, 2021
A8-6410
1360
FPS
723
FPS
League of Legends
345
FPS
175
FPS
Grand Theft Auto V
599
FPS
307
FPS
VALORANT
844
FPS
435
FPS
Counter-Strike: Global Offensive
383
FPS
186
FPS
Apex Legends
Geekbench 5 Benchmarks
Core i7-12700K
Desktop • Nov 4th, 2021
Single-Core
1898
100%
Multi-Core
13767
100%
A8-6410
Single-Core
254
-547%
Multi-Core
743
-1653%
Intel Core i7-12700K |
vs |
AMD A8-6410 |
---|---|---|
Nov 4th, 2021 | Release Date | Unknown |
Core i7 | Collection | Not Available |
Alder Lake | Codename | Beema |
Intel Socket 1700 | Socket | BGA769 (FT3b) |
Desktop |
Segment | |
12 |
Cores | 4 |
20 |
Threads | 4 |
3. |
Base Clock Speed | 2.0 GHz |
5.0 GHz |
Turbo Clock Speed | 2.4 GHz |
125 W | TDP |
15 W |
10 nm | Process Size | Not Available |
36.0x | Multiplier | Not Available |
UHD Graphics 770 | Integrated Graphics | Radeon R5 Series |
Yes |
Overclockable | No |
Builds Using Core i7-12700K or A8-6410
Counter-Strike: Global Offensive, 1080p, High
Centaurus Warlock 2 Intel i7-12700K 12-Core 4.7GHz TB, 16GB RAM, Radeon RX 6600 XT, 1TB NVMe SSD, Liquid Cooled, Windows 11 PRO, Tempered Glass, RGB, WiFi. 4K Gaming Professional PC
610 FPS
$2.46/FPS
Radeon RX 6600 XT
Core i7-12700K
16 GB, 1 TB SSD
Buy on Amazon
$1,498
In Stock
Updated 95 minutes ago
MSI Aegis RS (Tower) Gaming Desktop PC
756 FPS
$2. 88/FPS
GeForce RTX 3070 Ti
Core i7-12700K
16 GB, 1 TB SSD
Buy on Amazon
$2,174
In Stock
Updated 101 minutes ago
Skytech Chronos Gaming PC
808 FPS
$2.98/FPS
GeForce RTX 3080
Core i7-12700K
16 GB, 1 TB SSD
Buy on Amazon
$2,403.93
In Stock
Updated 100 minutes ago
MSI Aegis RS (Tower) Gaming Desktop PC
685 FPS
$3.01/FPS
GeForce RTX 3070
Core i7-12700K
16 GB, 1 TB SSD
Buy on Amazon
$2,058.99
In Stock
Updated 101 minutes ago
2022 MSI Aegis RS 12TD-260US (i7-12700K, 16GB RAM, 1TB NVMe SSD, RTX 3070 8GB, Windows 11) Gaming Desktop PC
685 FPS
$3.01/FPS
GeForce RTX 3070
Core i7-12700K
16 GB, 1 TB SSD
Buy on Amazon
$2,065
In Stock
Updated 98 minutes ago
2022 MSI Aegis RS 12TE-258US (i7-12700K, 16GB RAM, 2TB NVMe SSD, RTX 3070Ti 8GB, Windows 11) Gaming Desktop PC
756 FPS
$3. 04/FPS
GeForce RTX 3070 Ti
Core i7-12700K
16 GB, 2 TB SSD
Buy on Amazon
$2,299
In Stock
Updated 101 minutes ago
Skytech Chronos Gaming PC
808 FPS
$3.09/FPS
GeForce RTX 3080
Core i7-12700K
32 GB, 1 TB SSD
Buy on Amazon
$2,499.99
In Stock
Updated 95 minutes ago
Dell XPS 8950 Desktop PC
521 FPS
$3.1/FPS
GeForce RTX 3060
Core i7-12700K
16 GB, 512 GB SSD + 1 TB HDD
Buy on Amazon
$1,617
In Stock
Updated 97 minutes ago
MSI Aegis RS (Tower) Gaming Desktop PC
808 FPS
$3.17/FPS
GeForce RTX 3080
Core i7-12700K
32 GB, 1 TB SSD + 2 TB HDD
Buy on Amazon
$2,558.21
In Stock
Updated 101 minutes ago
Acer Predator Orion 7000 PO7-640-UR11 Gaming Desktop PC
808 FPS
$3.22/FPS
GeForce RTX 3080
Core i7-12700K
32 GB, 2 TB HDD
Buy on Amazon
$2,599. 99
In Stock
Updated 97 minutes ago
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AMD A8-6410 vs Intel Core i7-2630QM
Comparative analysis of AMD A8-6410 and Intel Core i7-2630QM processors for all known characteristics in the following categories: Essentials, Performance, Memory, Graphics, Graphics interfaces, Graphics API support, Compatibility, Peripherals, Advanced Technologies, Virtualization, Security & Reliability.
Benchmark processor performance analysis: PassMark — Single thread mark, PassMark — CPU mark, Geekbench 4 — Single Core, Geekbench 4 — Multi-Core, CompuBench 1.5 Desktop — Face Detection (mPixels/s), CompuBench 1.5 Desktop — Ocean Surface Simulation (Frames/s), CompuBench 1.5 Desktop — T-Rex (Frames/s), CompuBench 1.5 Desktop — Video Composition (Frames/s), CompuBench 1.5 Desktop — Bitcoin Mining (mHash/s), GFXBench 4.0 — Car Chase Offscreen (Frames), GFXBench 4.0 — Manhattan (Frames), GFXBench 4.0 — T-Rex (Frames), GFXBench 4.0 — Car Chase Offscreen (Fps), GFXBench 4.0 — Manhattan (Fps), GFXBench 4.0 — T-Rex (Fps).
AMD A8-6410
Buy on Amazon
vs
Intel Core i7-2630QM
Buy on Amazon
Differences
Reasons to consider the AMD A8-6410
- CPU is newer: launch date 3 year(s) 4 month(s) later
- A newer manufacturing process allows for a more powerful, yet cooler running processor: 28 nm vs 32 nm
- 2x more L2 cache, more data can be stored in the L2 cache for quick access later
- 3x lower typical power consumption: 15 Watt vs 45 Watt
- 4.
4x better performance in CompuBench 1.5 Desktop — Face Detection (mPixels/s): 2.344 vs 0.53
- Around 71% better performance in CompuBench 1.5 Desktop — Ocean Surface Simulation (Frames/s): 98.139 vs 57.448
- 8.8x better performance in CompuBench 1.5 Desktop — Video Composition (Frames/s): 6.441 vs 0.731
Launch date | 1 June 2014 vs 3 January 2011 |
Manufacturing process technology | 28 nm vs 32 nm |
L2 cache | 2 MB vs 1 MB |
Thermal Design Power (TDP) | 15 Watt vs 45 Watt |
CompuBench 1.5 Desktop — Face Detection (mPixels/s) | 2.344 vs 0.53 |
CompuBench 1.![]() |
98.139 vs 57.448 |
CompuBench 1.5 Desktop — Video Composition (Frames/s) | 6.441 vs 0.731 |
Reasons to consider the Intel Core i7-2630QM
- 4 more threads: 8 vs 4
- Around 21% higher clock speed: 2.90 GHz vs 2.4 GHz
- Around 11% higher maximum core temperature: 100 C vs 90°C
- Around 55% better performance in PassMark — Single thread mark: 1218 vs 785
- 2x better performance in PassMark — CPU mark: 3554 vs 1769
- 2x better performance in Geekbench 4 — Single Core: 509 vs 252
- 2.5x better performance in Geekbench 4 — Multi-Core: 1837 vs 749
- 3.1x better performance in CompuBench 1.5 Desktop — T-Rex (Frames/s): 0.313 vs 0.1
- 8.7x better performance in CompuBench 1.5 Desktop — Bitcoin Mining (mHash/s): 13.
909 vs 1.59
Number of threads | 8 vs 4 |
Maximum frequency | 2.90 GHz vs 2.4 GHz |
Maximum core temperature | 100 C vs 90°C |
PassMark — Single thread mark | 1218 vs 785 |
PassMark — CPU mark | 3554 vs 1769 |
Geekbench 4 — Single Core | 509 vs 252 |
Geekbench 4 — Multi-Core | 1837 vs 749 |
CompuBench 1.5 Desktop — T-Rex (Frames/s) | 0.![]() |
CompuBench 1.5 Desktop — Bitcoin Mining (mHash/s) | 13.909 vs 1.59 |
Compare benchmarks
CPU 1: AMD A8-6410
CPU 2: Intel Core i7-2630QM
PassMark — Single thread mark |
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PassMark — CPU mark |
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Geekbench 4 — Single Core |
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Geekbench 4 — Multi-Core |
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CompuBench 1.![]() |
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CompuBench 1.5 Desktop — Ocean Surface Simulation (Frames/s) |
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CompuBench 1.5 Desktop — T-Rex (Frames/s) |
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CompuBench 1.![]() |
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CompuBench 1.5 Desktop — Bitcoin Mining (mHash/s) |
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Name | AMD A8-6410 | Intel Core i7-2630QM |
---|---|---|
PassMark — Single thread mark | 785 | 1218 |
PassMark — CPU mark | 1769 | 3554 |
Geekbench 4 — Single Core | 252 | 509 |
Geekbench 4 — Multi-Core | 749 | 1837 |
CompuBench 1.![]() |
2.344 | 0.53 |
CompuBench 1.5 Desktop — Ocean Surface Simulation (Frames/s) | 98.139 | 57.448 |
CompuBench 1.5 Desktop — T-Rex (Frames/s) | 0.1 | 0.313 |
CompuBench 1.5 Desktop — Video Composition (Frames/s) | 6.441 | 0.731 |
CompuBench 1.5 Desktop — Bitcoin Mining (mHash/s) | 1.59 | 13.909 |
GFXBench 4.0 — Car Chase Offscreen (Frames) | 685 | |
GFXBench 4.![]() |
1097 | |
GFXBench 4.0 — T-Rex (Frames) | 3853 | |
GFXBench 4.0 — Car Chase Offscreen (Fps) | 685 | |
GFXBench 4.0 — Manhattan (Fps) | 1097 | |
GFXBench 4.0 — T-Rex (Fps) | 3853 |
Compare specifications (specs)
AMD A8-6410 | Intel Core i7-2630QM | |
---|---|---|
Architecture codename | Beema | Sandy Bridge |
Family | AMD A-Series Processors | |
Launch date | 1 June 2014 | 3 January 2011 |
OPN Tray | AM6410ITJ44JB | |
Place in performance rating | 1788 | 2128 |
Series | AMD A8-Series APU for Laptops | Legacy Intel® Core™ Processors |
Vertical segment | Laptop | Mobile |
Launch price (MSRP) | $185 | |
Price now | $108.![]() |
|
Processor Number | i7-2630QM | |
Status | Launched | |
Value for money (0-100) | 15.06 | |
64 bit support | ||
Base frequency | 2 GHz | 2.00 GHz |
L2 cache | 2 MB | 1 MB |
Manufacturing process technology | 28 nm | 32 nm |
Maximum core temperature | 90°C | 100 C |
Maximum frequency | 2.![]() |
2.90 GHz |
Number of cores | 4 | 4 |
Number of threads | 4 | 8 |
Transistor count | 930 Million | 995 Million |
Unlocked | ||
Bus Speed | 5 GT/s DMI | |
Die size | 216 mm | |
L1 cache | 256 KB | |
L3 cache | 6 MB | |
Max memory channels | 1 | 2 |
Supported memory frequency | 1866 MHz | |
Supported memory types | DDR3L | DDR3 1066/1333 |
Maximum memory bandwidth | 21.![]() |
|
Maximum memory size | 16 GB | |
Enduro | ||
Graphics max frequency | 847 MHz | 1.1 GHz |
Processor graphics | AMD Radeon R5 Graphics | Intel® HD Graphics 3000 |
Switchable graphics | ||
Unified Video Decoder (UVD) | ||
Video Codec Engine (VCE) | ||
Device ID | 0x116 | |
Graphics base frequency | 650 MHz | |
Graphics max dynamic frequency | 1.![]() |
|
Intel® Clear Video HD technology | ||
Intel® Flexible Display Interface (Intel® FDI) | ||
Intel® InTru™ 3D technology | ||
Intel® Quick Sync Video | ||
DisplayPort | ||
HDMI | ||
CRT | ||
eDP | ||
Number of displays supported | 2 | |
SDVO | ||
Wireless Display (WiDi) support | ||
DirectX | 12 | |
Vulkan | ||
Sockets supported | FT3b | FCPGA988 |
Thermal Design Power (TDP) | 15 Watt | 45 Watt |
Low Halogen Options Available | ||
Max number of CPUs in a configuration | 1 | |
Package Size | 37.![]() |
|
PCI Express revision | 2.0 | 2.0 |
Max number of PCIe lanes | 16 | |
PCIe configurations | 1×16, 2×8, 1×8+2×4 | |
AMD App Acceleration | ||
AMD Elite Experiences | ||
AMD HD3D technology | ||
Enhanced Virus Protection (EVP) | ||
Fused Multiply-Add (FMA) | ||
Fused Multiply-Add 4 (FMA4) | ||
Intel® Advanced Vector Extensions (AVX) | ||
Intel® AES New Instructions | ||
PowerGating | ||
PowerNow | ||
VirusProtect | ||
4G WiMAX Wireless | ||
Enhanced Intel SpeedStep® technology | ||
Flexible Display interface (FDI) | ||
Idle States | ||
Instruction set extensions | Intel® AVX | |
Intel 64 | ||
Intel® Demand Based Switching | ||
Intel® Fast Memory Access | ||
Intel® Flex Memory Access | ||
Intel® Hyper-Threading technology | ||
Intel® My WiFi technology | ||
Intel® Turbo Boost technology | ||
Intel® vPro™ Platform Eligibility | ||
Thermal Monitoring | ||
AMD Virtualization (AMD-V™) | ||
IOMMU 2.![]() |
||
Intel® Virtualization Technology (VT-x) | ||
Intel® Virtualization Technology for Directed I/O (VT-d) | ||
Intel® VT-x with Extended Page Tables (EPT) | ||
Anti-Theft technology | ||
Execute Disable Bit (EDB) | ||
Intel® Identity Protection technology | ||
Intel® Trusted Execution technology (TXT) |
AMD A8-6410 vs Intel Core i7-7500U
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AMD A8-6410 vs Intel Core i7-7500U
Comparison of the technical characteristics between the processors, with the AMD A8-6410 on one side and the Intel Core i7-7500U on the other side. The first is dedicated to the notebook sector, It has 4 cores, 4 threads, a maximum frequency of 2,4GHz. The second is used on the mid-range laptop segment, it has a total of 2 cores, 4 threads, its turbo frequency is set to 3,5 GHz. The following table also compares the lithography, the number of transistors (if indicated), the amount of cache memory, the maximum RAM memory capacity, the type of memory accepted, the release date, the maximum number of PCIe lanes, the values obtained in Geekbench 4 and Cinebench R15.
Note: Commissions may be earned from the links above.
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Specifications:
Processor | AMD A8-6410 | Intel Core i7-7500U | ||||||
Market (main) | Notebook | Mid-range laptop | ||||||
ISA | x86-64 (64 bit) | x86-64 (64 bit) | ||||||
Microarchitecture | Puma | Kaby Lake | ||||||
Core name | Beema | Kaby Lake-U | ||||||
Family | A8-6000 | Core i7-7000 | ||||||
Part number(s), S-Spec | AM6410ITJ44JB | FJ8067702739740, SR341, SR2ZV |
||||||
Release date | Q2 2014 | Q3 2016 | ||||||
Lithography | 28 nm | 14 nm+ | ||||||
Transistors | 930.![]() |
— | ||||||
Cores | 4 | 2 | ||||||
Threads | 4 | 4 | ||||||
Base frequency | 2,0 GHz | 2,7 GHz | ||||||
Turbo frequency | 2,4 GHz | 3,5 GHz | ||||||
Cache memory | 2 MB | 4 MB | ||||||
Max memory capacity | 8 GB | 32 GB | ||||||
Memory types | DDR3L-1866 | DDR4-2133, LPDDR3-1866, DDR3L-1600 |
||||||
Max # of memory channels | 1 | 2 | ||||||
Max PCIe lanes | 8 | 12 | ||||||
TDP | 15 W | 15 W | ||||||
GPU integrated graphics | AMD Radeon R5 Graphics (Beema) | Intel HD Graphics 620 | ||||||
GPU cores | 8 | — | ||||||
GPU execution units | — | 24 | ||||||
GPU shading units | 128 | 192 | ||||||
GPU base clock | 800 MHz | 300 MHz | ||||||
GPU boost clock | 847 MHz | 1050 MHz | ||||||
GPU FP32 floating point | 216,8 GFLOPS | 403,2 GFLOPS | ||||||
Socket | BGA769, FT3b | BGA1356 | ||||||
Maximum temperature | 90°C | 100°C | ||||||
CPU-Z single thread | 126 | 247 | ||||||
CPU-Z multi thread | 462 | 876 | ||||||
Cinebench R15 single thread | 49 | 144 | ||||||
Cinebench R15 multi-thread | 164 | 339 | ||||||
Cinebench R23 single thread | 217 | 834 | ||||||
Cinebench R23 multi-thread | 811 | 2.![]() |
||||||
PassMark single thread | 781 | 1.947 | ||||||
PassMark CPU Mark | 1.759 | 3.635 | ||||||
(Windows 64-bit) Geekbench 4 single core |
1.213 | 3.784 | ||||||
(Windows 64-bit) Geekbench 4 multi-core |
3.136 | 7.291 | ||||||
(SGEMM) GFLOPS performance |
22,8 GFLOPS | 108 GFLOPS | ||||||
(Multi-core / watt performance) Performance / watt ratio |
209 pts / W | 486 pts / W | ||||||
Amazon | ||||||||
eBay |
Note: Commissions may be earned from the links above.
We can better compare what are the technical differences between the two processors.
Price: For technical reasons, we cannot currently display a price less than 24 hours, or a real-time price. This is why we prefer for the moment not to show a price. You should refer to the respective online stores for the latest price, as well as availability.
The processor AMD A8-6410 has more cores, the turbo frequency of Intel Core i7-7500U is bigger, that their respective TDP are of the same order. The Intel Core i7-7500U was started more recently.
Performances :
Performance comparison between the two processors, for this we consider the results generated on benchmark software such as Geekbench 4.
CPU-Z — Multi-thread & single thread score | |
---|---|
Intel Core i7-7500U |
247 876 |
AMD A8-6410 |
126 462 |
In single core, the difference is 96%. In multi-core, the difference in terms of gap is 90%.
Note: Commissions may be earned from the links above. These scores are only an
average of the performances got with these processors, you may get different results.
CPU-Z is a system information software that provides the name of the processor, its model number, the codename, the cache levels, the package, the process. It can also gives data about the mainboard, the memory. It makes real time measurement, with finally a benchmark for the single thread, as well as for the multi thread.
Cinebench R15 — Multi-thread & single thread score | |
---|---|
Intel Core i7-7500U |
144 339 |
AMD A8-6410 |
49 164 |
In single core, the difference is 194%. In multi-core, the difference in terms of gap is 107%.
Note: Commissions may be earned from the links above. These scores are only an
average of the performances got with these processors, you may get different results.
Cinebench R15 evaluates the performance of CPU calculations by restoring a photorealistic 3D scene. The scene has 2,000 objects, 300,000 polygons, uses sharp and fuzzy reflections, bright areas, shadows, procedural shaders, antialiasing, and so on. The faster the rendering of the scene is created, the more powerful the PC is, with a high number of points.
Cinebench R23 — Multi-thread & single thread score | |
---|---|
Intel Core i7-7500U |
834 2.111 |
AMD A8-6410 |
217 811 |
In single core, the difference is 284%. In multi-core, the difference in terms of gap is 160%.
Note: Commissions may be earned from the links above. These scores are only an
average of the performances got with these processors, you may get different results.
Cinebench R23 is cross-platform testing software that allows you to assess the hardware capabilities of a device such as a computer, tablet, server. This version of Cinebench takes into account recent developments in processors with multiple cores and the latest improvements in rendering techniques. The evaluation is ultimately even more relevant. The test scene contains no less than 2,000 objects and more than 300,000 polygons in total.
PassMark — CPU Mark & single thread | |
---|---|
Intel Core i7-7500U |
1.947 3.635 |
AMD A8-6410 |
781 1.759 |
In single core, the difference is 149%. In multi-core, the difference in terms of gap is 107%.
Note: Commissions may be earned from the links above. These scores are only an
average of the performances got with these processors, you may get different results.
PassMark is a benchmarking software that performs several performance tests including prime numbers, integers, floating point, compression, physics, extended instructions, encoding, sorting. The higher the score is, the higher is the device capacity.
On Windows 64-bit:
Geekbench 4 — Multi-core & single core score — Windows 64-bit | |
---|---|
Intel Core i7-7500U |
3.784 7.291 |
AMD A8-6410 |
1.213 3.136 |
In single core, the difference is 212%. In multi-core, the difference in terms of gap is 132%.
On Linux 64-bit:
Geekbench 4 — Multi-core & single core score — Linux 64-bit | |
---|---|
Intel Core i7-7500U |
4.126 7.296 |
AMD A8-6410 |
1.019 1.961 |
In single core, the difference is 305%. In multi-core, the difference in terms of gap is 272%.
On Android 64-bit:
Geekbench 4 — Multi-core & single core score — Android 64-bit | |
---|---|
Intel Core i7-7500U |
3.705 6.509 |
AMD A8-6410 |
1.209 3.294 |
In single core, the difference is 206%. In multi-core, the difference in terms of gap is 98%.
Note: Commissions may be earned from the links above. These scores are only an
average of the performances got with these processors, you may get different results.
Geekbench 4 is a complete benchmark platform with several types of tests, including data compression, images, AES encryption, SQL encoding, HTML, PDF file rendering, matrix computation, Fast Fourier Transform, 3D object simulation, photo editing, memory testing. This allows us to better visualize the respective power of these devices. For each result, we took an average of 250 values on the famous benchmark software.
Equivalence:
AMD A8-6410 Intel equivalentIntel Core i7-7500U AMD equivalent
Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB vs Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB: What is the difference?
29points
Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
39points
Toshiba Portege Z30 13. 3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
Comparison winner
vs
108 facts in comparison
Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
Why is Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB better than Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB?
- 244GB more internal storage?
500GBvs256GB - 17.29% bigger screen size?
15.6″vs13.3″ - 1.9x faster CPU speed?
4 x 2GHzvs2 x 2.1GHz - 4 more CPU threads?
8vs4 - Has an optical disc drive?
- 2 more USB 2.0 ports?
2vs0
Why is Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB better than Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB?
- Has a backlit keyboard?
- 4GB more RAM memory?
8GBvs4GB - 916.3g lighter?
1.18kgvs2.1kg
- 7.25h longer battery life?
12.25hvs5h - Has a touch screen?
- 17% higher pixel density?
117ppivs100ppi - Uses flash storage?
- 8.93mm thinner?
13.97mmvs22.9mm
Which are the most popular comparisons?
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vs
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Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
vs
Asus BR1100C 11.6″ Intel Celeron N4500 1.1GHz / 8GB RAM / 1TB SSD
Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
vs
Asus ROG Strix G15 Intel Core i5-10300H 2.5GHz / 8GB RAM / 1TB SSD
Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
vs
Lenovo IdeaPad 330 14” AMD A9-9425 3.1GHz / 4GB RAM / 1TB HDD
Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
vs
Lenovo IdeaPad 330 15.6” Intel Core i3-7020U 2.3GHz / 4GB RAM / 1TB HDD
Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
vs
Lenovo IdeaPad 330 14” AMD A4-9125 2.3GHz / 4GB RAM / 1TB HDD
Price comparison
User reviews
Overall Rating
Lenovo G50 15. 6″ AMD A8-6410 2GHz / 4GB / 500GB
1 User reviews
Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
7.0/10
1 User reviews
Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
0 User reviews
Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
0.0/10
0 User reviews
Features
Build quality
7.0/10
1 votes
No reviews yet
Portability
4.0/10
1 votes
No reviews yet
Battery life
8.0/10
1 votes
No reviews yet
Performance
7.0/10
1 votes
No reviews yet
Keyboard & trackpad
8.0/10
1 votes
No reviews yet
Display
1.resolution
1366 x 768px
1366 x 768px
Resolution is an essential indicator of a screen’s image quality, representing the maximum amount of pixels that can be shown on the screen. The resolution is given as a compound value, comprised of horizontal and vertical pixels.
2.pixel density
100ppi
117ppi
Pixel density is a measurement of a screen’s resolution, expressed as the number of pixels per inch (PPI) on the screen. A higher pixel density translates into more clarity and sharpness for the images rendered on the screen, thus improving the quality of the viewing experience.
3.has a touch screen
✖Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✔Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
You can operate the device easily, by pressing the screen with your fingers.
4.has anti-reflection coating
✖Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✖Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
This helps to reduce the reflection from your device.
5. brightness
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
A nit is a measurement of the light that a display emits, equal to one candela per square meter. Brighter displays ensure a screen’s contents are easy to read, even in sunny conditions.
6.screen size
The bigger the screen size is, the better the user experience.
7.refresh rate
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
The frequency at which the screen is refreshed. Higher frequency results in less flickering (less noise) and more natural movement representation in action-intense scenes.
8. has an LED-backlit display
✔Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✔Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
Uses LED backlighting, resulting in better image quality, more vibrant colors and richer blacks.
9.has an IPS screen
✖Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✖Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
IPS (In-Plane Switching) is a technology used for LCDs. It was designed to overcome the main limitations of conventional twisted nematic TFT displays: limited viewing angles and low-quality color reproduction. PLS (Plane-to-Line Switching) is a type of IPS screen developed by Samsung, with increased brightness and lower production costs.
Performance
Random-access memory (RAM) is a form of volatile memory used to store working data and machine code currently in use. It is a quick-access, temporary virtual storage that can be read and changed in any order, thus enabling fast data processing.
2.RAM speed
1600MHz
1600MHz
It can support faster memory, which will give quicker system performance.
3.Uses flash storage
✖Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✔Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
Flash-based storage devices such as SSDs have no mechanical components. Due to this, they are typically faster, run silently, and are more shock resistant than traditional HDDs.
4.internal storage
The internal storage refers to the built-in storage space available in a device for system data, apps, and user-generated data. With a large amount of internal storage, you can save more files and apps on your device.
5.CPU speed
4 x 2GHz
2 x 2.1GHz
The CPU speed indicates how many processing cycles per second can be executed by a CPU, considering all of its cores (processing units). It is calculated by adding the clock rates of each core or, in the case of multi-core processors employing different microarchitectures, of each group of cores.
6.CPU threads
More threads result in faster performance and better multitasking.
7.Is an NVMe SSD
✖Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✖Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
NVMe SSDs use the PCIe interface, which has a higher bandwidth than the SATA interface. This results in much faster read/write speeds compared to SSDs which use the SATA interface.
8.VRAM
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
VRAM (video RAM) is the dedicated memory of a graphics card. More VRAM generally allows you to run games at higher settings, especially for things like texture resolution.
9.GPU clock speed
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
The graphics processing unit (GPU) has a higher clock speed.
Benchmarks
1.Geekbench 5 result (multi)
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
Geekbench 5 is a cross-platform benchmark that measures a processor’s multi-core performance. (Source: Primate Labs, 2022)
2.Geekbench 5 result (single)
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2. 1GHz / 8GB / 256GB)
Geekbench 5 is a cross-platform benchmark that measures a processor’s single-core performance. (Source: Primate Labs, 2022)
3.PassMark result
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
This benchmark measures the performance of the CPU using multiple threads.
4.PassMark result (single)
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
This benchmark measures the performance of the CPU using a single thread.
5.Cinebench R20 (multi) result
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
Cinebench R20 is a benchmark tool that measures a CPU’s multi-core performance by rendering a 3D scene.
6.Cinebench R20 (single) result
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
Cinebench R20 is a benchmark tool that measures a CPU’s single-core performance by rendering a 3D scene.
Connectivity
1.USB 3.2 Gen 2 ports (USB-C)
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
USB 3.2 Gen 2 supports speeds of up to 10Gbps. It was formerly known as USB 3.1 Gen 2. These ports use the USB-C connector.
2.USB 3.2 Gen 2 ports (USB-A)
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
USB 3.2 Gen 2 supports speeds of up to 10Gbps. It was formerly known as USB 3.1 Gen 2. These ports use the older USB-A connector.
3.USB 4 20Gbps ports
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
This version of USB 4 supports speeds of up to 20Gbps. Unlike USB 3.2, USB 4 can dynamically allocate bandwidth to video and data. These ports use the USB-C connector.
4.USB 4 40Gbps ports
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
This version of USB 4 supports very high speeds of up to 40Gbps. Unlike USB 3.2, USB 4 can dynamically allocate bandwidth to video and data. These ports use the USB-C connector.
5.Thunderbolt 3 ports
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
The number of USB ports that are compatible with Thunderbolt 3. These ports support speeds of up to 40Gbps, including a minimum of PCIe 16Gbps. This guarantees that it can support one external 4K display.
6.Thunderbolt 4 ports
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2. 1GHz / 8GB / 256GB)
The number of USB ports that are compatible with Thunderbolt 4. These ports support speeds of up to 40Gbps, including a minimum of PCIe 32Gbps. This guarantees that it can support two external 4K displays (or one external 8K display).
7.USB 3.2 Gen 1 ports (USB-C)
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
USB 3.2 Gen 1 supports speeds of up to 5Gbps. It was formerly known as USB 3.1 Gen 1 and USB 3.0. These ports use the USB-C connector.
8.USB 3.2 Gen 1 ports (USB-A)
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
USB 3.2 Gen 1 supports speeds of up to 5Gbps. It was formerly known as USB 3.1 Gen 1 and USB 3.0. These ports use the older USB-A connector.
9.has an HDMI output
✔Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✔Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
Devices with a HDMI or mini HDMI port can transfer high definition video and audio to a display.
Battery
1.Battery life
12.25h
The device’s battery life (when in use) as given by the manufacturer. With a longer battery life you have to charge the device less often.
2.charge time
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
The time it takes to fully charge the battery.
3.battery power
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
Battery power, or battery capacity, represents the amount of electrical energy that a battery can store. More battery power can be an indication of longer battery life.
4.Has sleep-and-charge USB ports
✔Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✔Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
Sleep-and-charge USB ports can charge electronic devices when the laptop is in sleep mode, hibernate mode, or even switched off.
5.Has a MagSafe power adapter
✖Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✖Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
The MagSafe power adapter uses a power connector that is attached magnetically. When pulled or tugged, the connector will come out of the socket safely.
Features
1.has stereo speakers
✔Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✔Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
Devices with stereo speakers deliver sound from independent channels on both left and right sides, creating a richer sound and a better experience.
2.has a socket for a 3.5 mm audio jack
✔Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✔Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
With a standard mini jack socket, you can use the device with most headphones.
3.megapixels (front camera)
The number of megapixels determines the resolution of the images captured with the front camera. A higher megapixel count means that the front camera is capable of capturing more details, an essential factor for taking high-resolution selfies.
4.Stylus included
✖Lenovo G50 15. 6″ AMD A8-6410 2GHz / 4GB / 500GB
✖Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
A stylus is a pen-like accessory that allows you to interact with the touchscreen with greater precision, and is particularly useful for drawing and writing.
5.Has a fingerprint scanner
✖Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✔Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
The device has a fingerprint scanner which identifies the user.
6.number of microphones
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
More microphones result in better sound quality and enable the device to filter out background noise.
7.Uses 3D facial recognition
✖Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✖Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
3D facial recognition systems, like Apple’s Face ID, provide secure biometric authentication for unlocking devices and authorizing mobile payments.
8.video recording (main camera)
Unknown. Help us by suggesting a value. (Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB)
Unknown. Help us by suggesting a value. (Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB)
The maximum resolution available for videos shot with the main camera. Although it may be possible to choose among other frame rates, those recordings usually have lower resolutions.
9.has voice commands
✖Lenovo G50 15.6″ AMD A8-6410 2GHz / 4GB / 500GB
✖Toshiba Portege Z30 13.3″ Intel i7-4600U 2.1GHz / 8GB / 256GB
You can use your voice to control key functions of the device and you can easily access your device without pushing any button.
Price comparison
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Which are the best laptops?
AMD A8-6410 vs Intel Core i7-10875H
Comparing technical specs and benchmarks
VS
AMD A8-6410 28 nm — 2.00 GHz DDR3L-1600 SO-DIMM
Intel Core i7-10875H 14 nm — 2. 30 GHz DDR4-2933
AMD A8-6410 vs. Intel Core i7-10875H
CPU Cores and Base Frequency
In comparison between AMD A8-6410 and Intel Core i7-10875H, you should choose the model which has more cores and threads with base and turbo frequencies. All the features influence the system’s high-speed performance.
4x
Cores
no data
4 / 4
CPU Cores / Threads
8 / 16
normal
Core architecture
no data
No
Hyperthreading
Yes
No
Overclocking
No
2.00 GHz
Frequency
2.30 GHz
2.40 GHz
Turbo Frequency (1 Core)
5.10 GHz
2.40 GHz
Turbo Frequency (4 Cores)
no data
no data
Turbo Frequency (8 Cores)
3.20 GHz
AMD A8-6410 vs. Intel Core i7-10875H
CPU generation and family
4
CPU Cores
8
AMD A8-6410
Name
no data
AMD A
Family
no data
AMD A8-6000
CPU group
no data
6
Generation
9. 5
Desktop / Server
Segment
no data
—
Predecessor
no data
—
Successor
no data
AMD A8-6410 vs. Intel Core i7-10875H
Internal Graphics
Some manufacturers build a graphic core in many CPUs being an additional advantage. If you use a video card which is separated from a CPU, we recommend you skip this comparison as there is no need to compare AMD A8-6410 to Intel Core i7-10875H across a built-in video card.
AMD Radeon R5 (Beema)
GPU name
Intel UHD Graphics 630
0.80 GHz
GPU frequency
0.35 GHz
No turbo
GPU (Turbo)
1.20 GHz
2
Execution units
24
128
Shader
192
2 GB
Max. GPU Memory
no data
2
Max. displays
3
6
Generation
9.5
12
Direct X
12
28 nm
Technology
14 nm
Q2/2014
Release date
Q4/2017
AMD A8-6410 vs. Intel Core i7-10875H
Hardware codec support
Pay attention to support of different technological options by CPUs. The general performance is not influenced. In the interest of time, you can skip this section.
No
h365 8bit
Decode / Encode
No
h365 10bit
Decode / Encode
No
h365 / HEVC (8 bit)
no data
No
h365 / HEVC (10 bit)
no data
Decode
h364
Decode / Encode
No
VP8
Decode / Encode
No
VP9
Decode / Encode
No
AV1
no data
Decode
AVC
Decode / Encode
Decode
VC-1
Decode
Decode / Encode
JPEG
Decode / Encode
AMD A8-6410 vs. Intel Core i7-10875H
Memory & PCIe
Modern CPUs support memory which operates in a multi-channel regime that provides high-speed data exchange and improves productivity. The higher the ram’s clock frequency, its standard (for example, DDR3, DDR4, DDR5) and maximum space in a system are, the better it is.
PCIe version
3.0
PCIe lanes
16
DDR3L-1600 SO-DIMM
Memory type
DDR4-2933
Max. Memory
128 GB
2
Memory channels
2
—
Bandwidth
no data
No
ECC
No
Yes
AES-NI
Yes
AMD A8-6410 vs. Intel Core i7-10875H
Thermal Management
High-performance and powerful CPUs require the essence of a good power supply. Here you learn how much TDP AMD A8-6410 and Intel Core i7-10875H have. We recommend paying attention to the model which has lower TDP.
15 W
TDP
45 W
15 W
TDP (PL1)
no data
—
TDP (PL2)
no data
—
TDP up
—
—
TDP down
35 W
—
Tjunction max.
100 °C
AMD A8-6410 vs. Intel Core i7-10875H
Technical details
Here is the main information which can define the best CPU comparing technical specifications. Thus, the higher cash L2 and L3, the better it is. The lower the technological process of CPU production, the better it is. Another important factor is a production year that directly influences the manufacturer’s support terms and the opportunity of a system modernization at minimal cost in the future.
x86-64 (64 bit)
Instruction set (ISA)
no data
SSE4a, SSE4.1, SSE4.2, AVX, FMA3, FMA4
ISA extensions
no data
—
L2-Cache
no data
2.00 MB
L3-Cache
16.00 MB
Beema
Architecture
Comet Lake H
28nm
Technology
14 nm
AMD-V
Virtualization
VT-x, VT-x EPT, VT-d
AM1
Socket
BGA 1440
Q2/2014
Release date
Q2/2020
—
Part Number
no data
AMD A8-6410 vs. Intel Core i7-10875H
Devices using this processor
In completing the comparison between AMD A8-6410 and Intel Core i7-10875H, you can learn in which computer systems these models are used.
Unknown
Used in
Unknown
Cinebench R20 (Single-Core)
The version, having become a gold standard of a synthetic benchmark, allows accurately define a CPU performance in Cinema 4 Suite software complex. The most points mean a model’s best efficiency. Hyperthreading is not included.
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
105 (20 %)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
506 (100 %)
Cinebench R20 (Multi-Core)
It is a testing performance standard of CPU by Maxon. It is a specialized multi-platform number of tests that estimate the power of all processor cores in rendering mode.
AMD A8-6410
4x 2. 00 GHz (2.40 GHz)
349 (9 %)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
3569 (100 %)
Cinebench R15 (Single-Core)
Cinebench R15 is Maxon’s actual benchmark for older processors versions that test the processor’s performance without hyperthreading in single-core mode.
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
49 (23 %)
Intel Core i7-10875H
8x 2. 30 GHz (5.10 GHz) HT
212 (100 %)
Cinebench R15 (Multi-Core)
Cinebench R15 benchmark reflects the efficiency of your processor operation in assessment mode. It works on Cinema 4 Suite software complex of the earlier version. Hyperthreading is not included.
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
165 (10 %)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
1563 (100 %)
iGPU — FP32 Performance (Single-precision GFLOPS)
A benchmark is designed to determine graphics cards’ performance and speed, built into their central processor. It works in iGPU mode, FP32 Performance. The higher the rate is, the better it is.
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
205 (44 %)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
461 (100 %)
Geekbench 5, 64bit (Single-Core)
A new approach to testing processor performance opens up the GeekBench 5 benchmark! A detailed under-load system analysis gives an accurate assessment of the quality. The higher the estimation is, the faster and more efficient the processor is. It is a version for testing a single core.
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
256 (20 %)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
1278 (100 %)
Geekbench 5, 64bit (Multi-Core)
A modern version of the GeekBench 5 benchmark reveals all opportunities and potential of your processor. As a result of testing, you can understand to what extent a processor is fast and efficient in operation with graphic apps or games.
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
746 (9 %)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
7576 (100 %)
Blender 2.81 (bmw27)
Universal benchmark Blender 2.81 (bmw27) starts processor testing in rendering animated 3D images. The faster the processor copes with the task, the higher the overall performance estimation is.
AMD A8-6410
4x 2. 00 GHz (2.40 GHz)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
2250 (100 %)
Geekbench 3, 64bit (Single-Core)
To define how efficient and powerful a processor is among several models or in comparison with another, we recommend paying attention to Geekbench 3 benchmark, which tests the single-core processor performance.
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
1136 (100 %)
Intel Core i7-10875H
8x 2. 30 GHz (5.10 GHz) HT
Geekbench 3, 64bit (Multi-Core)
To reveal the whole potential of the equipment, the Geekbench 3 benchmark uses all cores for 64bit models in a specialised software complex that imitates modelling various 3D scenarios. The higher estimation is, the better the performance is.
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
3297 (100 %)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
Cinebench R11.5, 64bit (Single-Core)
Cinebench R11. 5 is an outdated version of the benchmark for processors of earlier generations. To find out the potential or compare it with a modern processor model, it is enough to check the performance estimate. The higher it is, the better it is. Hyperthreading is not included.
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
60 (100 %)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
Cinebench R11.5, 64bit (Multi-Core)
Cinebench R11.5 benchmark is designed for testing early-generation processors. The overall final performance is based on 3D scene simulations in Cinema 4 Suite. It engages all processor cores.
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
203 (100 %)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
Estimated results for PassMark CPU Mark
The authoritative benchmark PassMark shows how efficient the processor is in the overall performance rating. It takes into account the operation mode of all cores and supports hyperthreading. The benchmark is based on various scenarios for performing calculations, 2D and 3D modelling.
AMD A8-6410
4x 2. 00 GHz (2.40 GHz)
2501 (100 %)
Intel Core i7-10875H
8x 2.30 GHz (5.10 GHz) HT
Popular comparisons with these processors
1. |
Intel Core i7-10870H vs. Intel Core i7-10875H |
|
2. |
Intel Core i3-4000M vs. AMD A8-6410 |
|
3. |
AMD A8-6410 vs. Intel Xeon E3-1245 v3 |
|
4. |
Intel Xeon E3-1575M v5 vs. Intel Core i7-10875H |
|
5. |
AMD A8-6410 vs. AMD A8-7650K |
|
6. |
Intel Core i7-10875H vs. Intel Core i9-10900KF |
|
7. |
AMD A8-6410 vs. Intel Core i9-10900KF |
AMD A8-6410 vs Intel Celeron N4020 — CPU Specs & Benchmark
VS
AMD A8-6410
Intel Celeron N4020
Which to select
It is time to pick the winner. What is the difference between AMD A8-6410 vs Intel Celeron N4020? 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 AMD A8-6410 vs Intel Celeron N4020. 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.
2.00 GHz
Frequency
1.10 GHz
4
CPU Cores
2
2.40 GHz
Turbo (1 Core)
2.80 GHz
4
CPU Threads
2
Turbo (2 Cores)
2.70 GHz
No
Hyperthreading
No
No
Overclocking
No
2.40 GHz
Turbo (4 Cores)
CPU generation and family
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 — AMD A8-6410 vs Intel Celeron N4020.
AMD Radeon R5 (Beema)
GPU name
Intel UHD Graphics 600
0. 80 GHz
GPU frequency
0.20 GHz
No turbo
GPU (Turbo)
0.65 GHz
6
Generation
9.5
12
DirectX Version
12
2
Execution units
12
128
Shader
96
2 GB
Max. Memory
8 GB
2
Max. displays
3
28 nm
Technology
14 nm
Q2/2014
Release date
Q4/2017
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
h364
Decode / Encode
Decode / Encode
JPEG
Decode / Encode
No
h365 8bit
Decode / Encode
No
h365 10bit
Decode / Encode
No
VP8
Decode / Encode
No
VP9
Decode / Encode
Decode
VC-1
Decode
Decode
AVC
Decode / Encode
Memory & PCIe
These are memory standards supported by CPUs. The higher such standards, the better a CPU’s performance is.
DDR3L-1600 SO-DIMM
Memory type
DDR4-2400LPDDR4-2400
2
Memory channels
2
No
ECC
No
PCIe version
2.0
PCIe lanes
6
Encryption
Data encryption support
Yes
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.
15 W
TDP
6 W
—
Tjunction max.
—
—
TDP up
—
—
TDP down
—
Technical details
2.00 MB
L3-Cache
4.00 MB
28nm
Technology
14 nm
Beema
Architecture
Gemini Lake Refresh
AMD-V
Virtualization
VT-x, VT-x EPT, VT-d
AM1
Socket
BGA 1090
Q2/2014
Release date
Q4/2019
Devices using this processor
You probably know already what devices use CPUs. These can be a desktop or a laptop.
Unknown
Used in
Unknown
Popular comparisons containing this CPUs
1. |
Intel Celeron N4020 vs. Intel Celeron J4125 |
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2. |
Qualcomm Snapdragon 7c vs. Intel Celeron N4020 |
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3. |
Intel Celeron N4020 vs. AMD Ryzen 5 5500U |
|
4. |
Intel Core i7-2960XM vs. Intel Celeron N4020 |
|
5. |
Intel Celeron N4020 vs. Intel Core i9-10900KF |
|
6. |
Intel Celeron N5095 vs. Intel Celeron N4020 |
|
7. |
Intel Core i7-1160G7 vs. Intel Celeron N4020 |
|
8. |
Intel Celeron N4020 vs. AMD A6-9225 |
|
9. |
Intel Core i7-4701EQ vs. Intel Celeron N4020 |
|
10. |
AMD FX-4320 vs. Intel Celeron N4020 |
|
11. |
AMD A10-4600M vs. Intel Celeron N4020 |
|
12. |
AMD Phenom II X3 710 vs. Intel Celeron N4020 |
|
13. |
Intel Celeron N4020 vs. Intel Core i7-1160G7 |
|
14. |
AMD A10-5700 vs. Intel Celeron N4020 |
|
15. |
AMD A8-3510MX vs. Intel Celeron N4020 |
Comparison of Intel Core i7-8569U and AMD A8-6410
Comparative analysis of Intel Core i7-8569U and AMD A8-6410 processors by all known characteristics in the categories: General information, Performance, Memory, Graphics, Graphic interfaces, Picture quality in graphics, Graphics API support, Compatibility, Peripherals, Security and reliability, Technology, Virtualization.
Processor performance analysis by benchmarks: Geekbench 4 — Single Core, Geekbench 4 — Multi-Core, PassMark — Single thread mark, PassMark — CPU mark, CompuBench 1. 5 Desktop — Face Detection (mPixels/s), CompuBench 1.5 Desktop — Ocean Surface Simulation ( Frames/s), CompuBench 1.5 Desktop — T-Rex (Frames/s), CompuBench 1.5 Desktop — Video Composition (Frames/s), CompuBench 1.5 Desktop — Bitcoin Mining (mHash/s), GFXBench 4.0 — Car Chase Offscreen (Frames ), GFXBench 4.0 — Manhattan (Frames), GFXBench 4.0 — T-Rex (Frames), GFXBench 4.0 — Car Chase Offscreen (Fps), GFXBench 4.0 — Manhattan (Fps), GFXBench 4.0 — T-Rex (Fps).
Intel Core i7-8569U
versus
AMD A8-6410
Advantages
Reasons to choose Intel Core i7-8569U
Number of threads | 8 vs 4 | |
Maximum frequency | 4.70 GHz vs 2.4 GHz | |
Maximum core temperature | 100°C vs 90°C | |
Process | 14 nm vs 28 nm | |
Geekbench 4 — Single Core | 1134 vs 252 | |
Geekbench 4 — Multi-Core | 4245 vs 749 | |
PassMark — Single thread mark | 2731 vs 785 | |
PassMark — CPU mark | 8479vs 1769 | 15 Watt vs 28 Watt |
Benchmark comparison
CPU 1: Intel Core i7-8569U
CPU 2: AMD A8-6410
Geekbench 4 — Single Core |
|
|||
Geekbench 4 — Multi-Core |
|
|||
PassMark — Single thread mark |
|
|||
PassMark — CPU mark |
|
Name | Intel Core i7-8569U | AMD A8-6410 |
---|---|---|
Geekbench 4 — Single Core | 1134 | 252 |
Geekbench 4 — Multi-Core | 4245 | 749 |
PassMark — Single thread mark | 2731 | 785 |
PassMark — CPU mark | 8479 | 1769 |
CompuBench 1. |
2.344 | |
CompuBench 1.5 Desktop — Ocean Surface Simulation (Frames/s) | 98.139 | |
CompuBench 1.5 Desktop — T-Rex (Frames/s) | 0.1 | |
CompuBench 1.5 Desktop — Video Composition (Frames/s) | 6.441 | |
CompuBench 1.5 Desktop — Bitcoin Mining (mHash/s) | 1.59 | |
GFXBench 4.0 — Car Chase Offscreen (Frames) | 685 | |
GFXBench 4. |
1097 | |
GFXBench 4.0 — T-Rex (Frames) | 3853 | |
GFXBench 4.0 — Car Chase Offscreen (Fps) | 685 | |
GFXBench 4.0 — Manhattan (Fps) | 1097 | |
GFXBench 4.0 — T-Rex (Fps) | 3853 |
Performance comparison
Intel Core i7-8569U | AMD A8-6410 | |
---|---|---|
Architecture name | Coffee Lake | Beema |
Production date | Q2’19 | June 1, 2014 |
Price at first issue date | $431 | |
Place in the ranking | 710 | 1788 |
Processor Number | i7-8569U | |
Applicability | Mobile | Laptop |
Family | AMD A-Series Processors | |
OPN Tray | AM6410ITJ44JB | |
Series | AMD A8-Series APU for Laptops | |
Support 64 bit | ||
Base frequency | 2. |
2 GHz |
Bus Speed | 4 GT/s OPI | |
Level 3 cache | 8MB | |
Process | 14nm | 28nm |
Maximum core temperature | 100 °C | 90°C |
Maximum frequency | 4.70 GHz | 2.4 GHz |
Number of cores | 4 | 4 |
Number of threads | 8 | 4 |
Level 2 cache | 2MB | |
Number of transistors | 930 Million | |
Unlocked | ||
ECC support | ||
Maximum number of memory channels | 2 | 1 |
Maximum memory bandwidth | 37. |
|
Maximum memory size | 32GB | |
Supported memory types | DDR4-2400, LPDDR3-2133 | DDR3L |
Supported memory frequency | 1866 MHz | |
Device ID | 0x3EA5 | |
eDRAM | 128MB | |
Graphics base frequency | 300MHz | |
Graphics max dynamic frequency | 1. |
|
Intel® Clear Video Technology HD | ||
Intel® Clear Video Technology | ||
Intel® InTru™ 3D Technology | ||
Intel® Quick Sync Video | ||
Video memory size | 32GB | |
Integrated graphics | Intel Iris Plus Graphics 655 | AMD Radeon R5 Graphics |
Enduro | ||
Maximum GPU clock | 847MHz | |
Switchable graphics | ||
Unified Video Decoder (UVD) | ||
Video Codec Engine (VCE) | ||
DisplayPort | ||
DVI | ||
eDP | ||
HDMI | ||
Maximum number of monitors supported | 3 | |
4K support | ||
Maximum resolution via DisplayPort | [email protected] | |
Maximum resolution via eDP | [email protected] | |
Maximum resolution via HDMI 1. |
[email protected] | |
DirectX | 12 | 12 |
OpenGL | 4.5 | |
Vulcan | ||
Maximum number of processors in | 1 | |
Supported sockets | FCBGA1528 | FT3b |
Power consumption (TDP) | 28 Watt | 15 Watt |
Number of PCI Express lanes | 16 | |
PCI Express revision | 3. |
2.0 |
PCIe configurations | 1×4, 2×2, 1×2+2×1, 4×1 | |
Execute Disable Bit (EDB) | ||
Intel® Identity Protection Technology | ||
Intel® Memory Protection Extensions (Intel® MPX) | ||
Intel® OS Guard | ||
Intel® Secure Key Technology | ||
Intel® Software Guard Extensions (Intel® SGX) | ||
Intel® Trusted Execution Technology (TXT) | ||
Enhanced Intel SpeedStep® Technology | ||
Idle States | ||
Intel 64 | ||
Intel® Advanced Vector Extensions 2 (AVX2) | ||
Intel® AES New Instructions | ||
Intel® Flex Memory Access | ||
Intel® Hyper-Threading Technology | ||
Intel® My WiFi Technology | ||
Intel® Optane™ Memory Supported | ||
Intel® Stable Image Platform Program (SIPP) | ||
Intel® TSX-NI | ||
Intel® Turbo Boost Technology | ||
Intel® vPro™ Platform Eligibility | ||
Speed Shift technology | ||
Thermal Monitoring | ||
AMD App Acceleration | ||
AMD Elite Experiences | ||
AMD HD3D technology | ||
Enhanced Virus Protection (EVP) | ||
Fused Multiply-Add (FMA) | ||
Fused Multiply-Add 4 (FMA4) | ||
Intel® Advanced Vector Extensions (AVX) | ||
PowerGating | ||
PowerNow | ||
VirusProtect | ||
Intel® Virtualization Technology (VT-x) | ||
Intel® Virtualization Technology for Directed I/O (VT-d) | ||
Intel® VT-x with Extended Page Tables (EPT) | ||
AMD Virtualization (AMD-V™) | ||
IOMMU 2. |
AMD A8-6410 vs AMD A8-6410 processor comparison
Overall rating
Release date
Q2/2014
Issue date
Q2/2015
Overall rating
Detailed comparison of AMD A8-6410 32 nm and AMD A8-6410 32 nm in benchmarks and specifications.
The main differences between the models
Performance Tests
Characteristics
Reviews
Main differences between models
Reasons to choose
AMD A8-6410
Report a bug
-
Performance per watt
15 W 47W
O 3.
13 0.97 less power per watt
Reasons to choose
Intel Core i7-5700EQ
Report a bug
-
Higher clock frequency
2.60 GHz 2.00 GHz
Approximately 23%
higher clock frequency -
Higher turbo frequency
3.
40 GHz 2.40 GHz
Approximately 29% higher clock speed in overclocking
Performance tests
Accurate performance tests AMD A8-6410 vs Intel Core i7-5700EQ
iGPU — FP32 Performance (Single-precision GFLOPS)
AMD A8-6410
205
Intel Core i7-5700EQ
384
Features
Exact specifications for model comparison
AMD A8-6410
Intel Core i7-5700EQ
Processor generation and family
description_compare ✍(◔◡◔) Description on comparison page AMD A8-6410 and Intel Core i7-5700EQ
-
Name
AMD A8-6410 Intel Core i7-5700EQ
-
Segment
Desktop / Server Desktop / Server
-
Family
AMD A Intel Core i7
-
Generation
3 5
-
CPU group
AMD A8-6000 Intel Core i 5000
Processor cores and frequency
Processor cores and frequency
-
Frequency
2.
00 GHz 2.60 GHz
-
CPU cores
4 4
-
Turbo (1 core)
2.40 GHz 3.40 GHz
-
CPU Threads
4 8
-
Turbo (4 cores)
2.
40 GHz No turbo
-
Hyperthreading
No Yes
-
Overclocking
No. No.
-
Basic architecture
normal normal
Integrated video card
Codec support
-
h365 / HEVC (8 bit)
No.
No.
-
h365 / HEVC (10bit)
No. No.
-
h364
Decode Decode / Encode
-
VP9
No.
No.
-
VP8
No Decode
-
AV1
No. No.
-
AVC
Decode Decode / Encode
-
VC-1
Decode Decode
-
JPEG
Decode / Encode Decode
Memory & PCIe
Encryption
-
AES-NI
Yes Yes
Temperature rating
-
TDP (PL1)
15W 47W
-
TDP down
— 37W
Specifications
-
Instruction Set (ISA)
x86-64 (64 bit) x86-64 (64 bit)
-
Virtualization
AMD-V VT-x, VT-x EPT, VT-d
-
ISA Extensions
SSE4a, SSE4.
1, SSE4.2, AVX, FMA3, FMA4 SSE4.1, SSE4.2, AVX2
-
L3 cache
2.00MB 6.00MB
-
Architecture
Richland (Piledriver) Broadwell S
-
Technology
32 nm 14 nm
-
Socket
AM1 BGA 1364
-
Issue date
Q2/2014 Q2/2015
Used in
-
Where is
used
Unknown Unknown
Latest comparisons
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MSI GeForce GTX 1650 D6 AERO ITX OC
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AMD A4-6210
AMD Ryzen 3 PRO 2300U
AMD A4-6320
Intel Xeon Gold 6138
AMD Ryzen 5 PRO 4650GE
Intel Xeon Platinum 8352S
Report a bugDescription of the bug
Link to source
Intel Core i5-4200M vs.
AMD A8-6410
Intel Core i5-4200M
Intel Core i5-4200M runs with 2 and 4 CPU threads It runs at 3.10 GHz base 3.10 GHz all cores while TDP is set to 37 W single die, supports 2 to support DDR3L-1333 SO-DIMM, DDR3L-1600 SO-DIMM RAM and supports 3.0 PCIe Gen 16 . Tjunction is kept below 100°C degrees C. In particular, Haswell H architecture is advanced beyond 22 nm and supports VT-x, VT-x EPT, VT-d . The product was launched Q4/2013
AMD A8-6410
AMD A8-6410 runs with 4 and 4 CPU threads It runs at 2.40 GHz base 2.40 GHz all cores while TDP is set to 15 W .CPU connects to CPU socket AM1 This version includes 2.00 MB of L3 cache on a single die, supports 2 to support DDR3L-1600 SO-DIMM RAM, and supports PCIe Gen . Tjunction is kept below — degrees C. In particular, the Richland (Piledriver) architecture has been advanced over 32 nm and supports AMD-V . The product was launched Q2/2014
Intel Core i5-4200M
AMD A8-6410
Intel HD Graphics 4600
AMD Radeon R5 (Beema)
DDR3L-1600 SO-DIMM
Show more details
Show more details
Cinebench R20 (Single-Core)
Cinebench R20 is the successor to Cinebench R15 and is also based on Cinema 4 Suite. Cinema 4 is software used all over the world to create 3D forms. The single-core test uses only one CPU core, the number of cores or hyper-threading capability is not taken into account.
Cinebench R20 (Multi-Core)
Cinebench R20 is the successor to Cinebench R15 and is also based on the Cinema 4 Suite. Cinema 4 is software used all over the world to create 3D forms. The multi-core test uses all the CPU cores and has a big advantage of hyper-threading.
Cinebench R15 (Single-Core)
Cinebench R15 is the successor to Cinebench 11.5 and is also based on the Cinema 4 Suite. Cinema 4 is software used all over the world to create 3D forms. The single-core test uses only one CPU core, the number of cores or hyper-threading capability is not taken into account.
Cinebench R15 (Multi-Core)
Cinebench R15 is the successor to Cinebench 11.5 and is also based on Cinema 4 Suite. Cinema 4 is software used all over the world to create 3D forms. The multi-core test uses all the CPU cores and has a big advantage of hyper-threading.
Geekbench 5, 64bit (Single-Core)
Geekbench 5 is a memory-intensive, cross-platform test. A fast memory will greatly push the result. The single-core test uses only one CPU core, the number of cores or hyper-threading capability is not taken into account.
Geekbench 5, 64bit (Multi-Core)
Geekbench 5 is a memory-intensive, cross-platform test. A fast memory will greatly push the result. The multi-core test uses all the CPU cores and has a big advantage of hyper-threading.
iGPU — FP32 Performance (Single-precision GFLOPS)
Theoretical processing performance of the processor’s internal graphics unit with simple precision (32 bits) in GFLOPS. GFLOPS specifies how many billions of floating point operations the iGPU can perform per second.
Geekbench 3, 64bit (Single-Core)
Geekbench 3 is a cross-platform benchmark that is memory intensive. A fast memory will greatly push the result. The single-core test uses only one CPU core, the number of cores or hyper-threading capability is not taken into account.
Geekbench 3, 64bit (Multi-Core)
Geekbench 3 is a cross-platform benchmark that is memory intensive. A fast memory will greatly push the result. The multi-core test uses all the CPU cores and has a big advantage of hyper-threading.
Cinebench R11.5, 64bit (Single-Core)
Cinebench 11.5 is based on the Cinema 4D Suite, a software that is popular for creating shapes and other things in 3D. The single-core test uses only one CPU core, the number of cores or hyper-threading capability is not taken into account.
Cinebench R11.5, 64bit (Multi-Core)
Cinebench 11.5 is based on Cinema 4D Suite, a software that is popular for creating shapes and other 3D. The multi-core test uses all the CPU cores and has a big advantage of hyper-threading.
Cinebench R11.5, 64bit (iGPU, OpenGL)
Cinebench 11.5 is based on the Cinema 4D Suite, a software that is popular for creating shapes and other things in 3D. The iGPU test uses the CPU’s internal graphics unit to execute OpenGL commands.
Estimated results for PassMark CPU Mark
Some of the processors listed below have been tested with CPU-Comparison. However, most of the processors were not tested and the results were evaluated by the secret patented CPU-Comparison formula. As such, they do not accurately reflect the actual values of Passmark CPU ratings and are not endorsed by PassMark Software Pty Ltd.
Energy usage estimate
Average hours of use per day
Average CPU usage (0-100%)
Cost of electricity, USD/kWh
Energy usage estimate
Average hours of use per day
Average CPU usage (0-100%)
Cost of electricity, USD/kWh
Intel Core i5-4200M | AMD A8-6410 | |
37 W | Max TDP | 15W |
NA | Power consumption per day (kWh) | NA |
NA | Operating cost per day | NA |
NA | Power consumption per year (kWh) | NA |
NA | Operating cost per year | NA |
Popular comparison
Comments
Intel Core i7-6700HQ VS A8-6410 Comparison of processors in 14 benchmarks
Intel Core i7-6700HQ: 14 NM, SKYLAKE-M, 4 X 2. 6 -2133 SO-DIMMs.
AMD A8-6410: 28 nm, Beema, 4 X 2.00 GHz, DDR3L-1600 SO-DIMM.
Main Specifications
Comparison of Intel Core i7-6700HQ and AMD A8-6410 processors by cores, threads, base clock and turbo clock. Pay attention to the model, the characteristics of which are higher, this is reflected in the overall performance.
no data
Colors
4x
4/8
Processor Threads
4 / 4
no data
Basic architecture
normal
Yes
Hyper threads
no
no
Overclocking
no
2. 60GHz
Frequency
2.00GHz
3.50GHz
Turbo (1 core)
2.40GHz
3.20GHz
Turbo (4 cores)
2.40GHz
Generation and family
Comparison of processors by type of use (segment: mobile, desktop, laptop). Baseline comparison of Intel Core i7-6700HQ vs AMD A8-6410.
four
Processor cores
four
no data
Name
AMD A8-6410
no data
A family
AMD A
no data
CPU group
AMD A8-6000
9
Generation
6
no data
Segment
Desktop/Server
no data
Predecessor
—
no data
Successor
—
iGPU (integrated graphics)
Processor comparison does not always show the full picture, since not all models are equipped with an integrated graphics core. Therefore, in comparing {{cpu_name_1} with AMD A8-6410, one column may be empty due to missing iGPU specifications. If an embedded core is present, we recommend that you pay attention to the clock speed, because. other indicators are secondary.
Intel HD Graphics 530
GPU name
AMD Radeon R5 (Beema)
0.35GHz
GPU frequency
0.80GHz
1. 05GHz
GPU (turbo)
no turbo
24
Execution units
2
192
shader
128
no data
Maximum. GPU memory
2GB
3
Maximum. displays
2
9
Generation
6
12
Direct X
12
14 nm
Technology
28 nm
Q3/2015
Release date
Q2/2014
Hardware codec support
Comparison of Intel Core i7-6700HQ vs AMD A8-6410 processors in terms of hardware support for various codecs and add-ons. An exclusively introductory section that is not taken into account by benchmarks in synthetic performance tests.
Decode/Encode
h365 8bit
no
decode
h365 10bit
no
no data
h365/HEVC (8bit)
no
no data
h365/HEVC (10bit)
no
Decode/Encode
h364
decode
Decode/Encode
VP8
no
decode
WP9
no
no data
AB1
no
Decode/Encode
AVC
decode
decode
VK-1
decode
Decode/Encode
JPEG
Decode/Encode
Memory Specifications
Compare what type of memory is supported by the processors, how much maximum memory can be used, and examine the memory bus bandwidth and clock speed.
3.0
PCI version
twenty
PCIe lanes
DDR4-2133 SODIMM
Memory type
DDR3L-1600 SODIMM
2
Memory channels
2
no data
bandwidth
—
no
ECC
no
Yes
AES-NI
Yes
Temperature (TDP)
The TDPs of the Intel Core i7-6700HQ and AMD A8-6410 processors display all thermal information. Here you can easily conclude which processor will consume more electricity and, accordingly, require a larger power supply. We recommend paying attention to a model with a lower TDP, since the system of components requires a reserve of power not only for the power supply, but also for the cooling system.
45W
Estimated power
15W
no data
Rated power (PL1)
15W
no data
Design power (PL2)
—
—
TDP up
—
—
TDP down
—
—
Connection max.
—
Additional specifications
Based on the comparison of the technical characteristics of the Intel Core i7-6700HQ with the AMD A8-6410, you can understand how much faster the information flow will be processed in the cache memory of the second and third levels (L2 and L3), and also here you can compare the architecture cores, motherboard socket, and processor release dates.
no data
Instruction set (ISA)
x86-64 (64bit)
no data
ISA extensions
SSE4a, SSE4. 1, SSE4.2, AVX, FMA3, FMA4
no data
L2 cache
—
6.00MB
L3 cache
2.00MB
Skylake-M
Architecture
Beema
14 nm
Technology
28nm
VT-x, VT-x EPT, VT-d
Virtualization
AMD-V
BGA 1440
socket
AM1
Q3/2015
Release date
Q2/2014
no data
part number
—
Terms of use
unknown
Used in
unknown
Cinebench R20 (single core)
The Cinebench R20 benchmark is an updated version of the Cinebench R15 benchmark, similarly to the previous version developed on the Cinema 4 Suite software. In this version, the benchmark tests the performance of a single processor core without regard to hyperthreading. We present the updated results for review.
Intel Core i7-6700HQ
4x 2.60 GHz (3.50 GHz) HT
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
105 (100%)
Cinebench R20 (multi-core)
Based on the Cinema 4 Suite, Maxon has developed an accurate processor performance benchmark — Cinebench R20. Processing and compute scenarios display processor efficiency and performance across all cores and support for hyper-threading.
Intel Core i7-6700HQ
4x 2.60 GHz (3.50 GHz) HT
1651 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
349 (21%)
Cinebench R15 (single core)
Cinebench R15 benchmark for testing processors in single-core mode without hyperthreading. Real performance in rendering testing is excellent across all processor segments. Check out the Cinebench R15 results and scores below.
Intel Core i7-6700HQ
4x 2.60 GHz (3.50 GHz) HT
148 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
49 (33%)
Cinebench R15 (multi-core)
Cinebench R15 benchmark supporting all processor cores in testing and taking into account hyperthreading. Developed on the basis of proprietary Maxon software — Cinema 4 Suite. The number of points in the Cinebench R15 evaluation is presented below.
Intel Core i7-6700HQ
4x 2.60 GHz (3.50 GHz) HT
692 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
165 (23%)
iGPU — FP32 performance (single precision gigaflops)
Benchmark for testing iGPU (integrated graphics core in the central processing unit). The overall graphics performance is tested to evaluate the speed of the video chip. Evaluation scores are presented in the rating below. Please note that not all processor manufacturers implement an internal graphics core, so this parameter does not affect the overall performance results, but is considered a good plus.
Intel Core i7-6700HQ
4x 2.60 GHz (3.50 GHz) HT
403 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
205 (50%)
Geekbench 5 64 bit (single core)
Many people are wondering how good the Geekbench 5 scores are in testing processors — the answer is that they are accurate and unbiased to brands. The higher the Geekbench 5 score in single core CPU benchmark mode, the better. Look at the results or compare them.
Intel Core i7-6700HQ
4x 2.60 GHz (3.50 GHz) HT
806 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
256 (31%)
Geekbench 5 64-bit (multi-core)
Geekbench 5 (64-bit version) for testing the performance of processors in the mode of using all cores and threads. The Geekbench 5 benchmark for multi-core models shows in points how productive and fast the chip is in the review or comparison.
Intel Core i7-6700HQ
4x 2.60 GHz (3.50 GHz) HT
3079 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
746 (24%)
Blender 2.81 (bmw27)
Benchmark Blender 2.81 (bmw27) tests the gaming performance of the processor, which is verified by running various scenarios for rendering 3d models of the image. The test result is shown below.
Intel Core i7-6700HQ
4x 2.60 GHz (3.50 GHz) HT
5403 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
Geekbench 3 64 bit (single core)
Geekbench 3 64-bit (single-core) is an early benchmark designed to test the processor in harsh scenarios — performing calculations and rendering in single-core mode. The performance test results are shown below.
Intel Core i7-6700HQ
4x 2. 60 GHz (3.50 GHz) HT
3694 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
1136 (30%)
Geekbench 3 64-bit (multi-core)
Geekbench 3 64-bit (multi-core) is the first version of a professional synthetic benchmark that tests CPU performance in various rendering and math scenarios. The benchmark uses all cores and enables processor hyperthreading.
Intel Core i7-6700HQ
4x 2. 60 GHz (3.50 GHz) HT
13611 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
3297 (24%)
Cinebench R11.5 64 bit (single core)
The Cinebench R11.5 benchmark for single core processors is the first version of a professional synthetic benchmark application. Cinebench R11.5 performs hyper-threading-free testing of a single CPU core based on the Cinema 4 Suite application. Well suited for assessing the speed of early generation processors.
Intel Core i7-6700HQ
4x 2. 60 GHz (3.50 GHz) HT
170 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
60 (35%)
Cinebench R11.5 64 bit (multi-core)
Cinebench R11.5 for multi-core processors with hyperthreading. Cinebench R11.5 tests the performance of all processor cores in Cinema 4 Suite software. The results of evaluating the performance of all processor cores in Cinebench R11.5 are presented below.
Intel Core i7-6700HQ
4x 2. 60 GHz (3.50 GHz) HT
753 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
203 (26%)
Cinebench R11.5 64bit (iGPU, OpenGL)
Cinebench R11.5 benchmark for testing the performance of the integrated graphics core in the central processor. An early version of the benchmark that shows an accurate estimate of the performance of the integrated graphics card in an OpenGL application.
Intel Core i7-6700HQ
4x 2. 60 GHz (3.50 GHz) HT
327 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
PassMark CPU Mark
The PassMark score is the most authoritative among advanced users. It is the PassMark benchmark that is the leader in testing processor performance. The results of evaluating the speed of the processor are checked in the conditions of complex mathematical calculations and rendering of 3D models.
Intel Core i7-6700HQ
4x 2.60 GHz (3. 50 GHz) HT
8216 (100%)
AMD A8-6410
4x 2.00 GHz (2.40 GHz)
9Core i7-7500U
Compare
Compare
Compare
- A8-6410 APU R5 GRAPHICS APU
Compare
Gaming speed
Core i7-7660U
48.2
A8-6600K APU
49.1 (+1.8%)
The performance of 4 cores, if any, and performance per core has the greatest impact on the result, since most games do not fully use more than 4 cores.
The speed of caches and working with RAM is also important.
Speed in office use
Core i7-7660U
53. 8 (+0.7%)
A8-6600K APU
53.4
Performance in everyday work, such as browsers and office programs.
The performance of 1 core has the greatest impact on the result, since most of these applications use only one, ignoring the rest.
Similarly, many professional applications such as various CADs ignore multi-threaded performance.
Speed in heavy applications
Core i7-7660U
26.5
A8-6600K APU
26.6 (+0.4%)
maximum
The performance of all cores and their number have the greatest impact on the result, since most of these applications willingly use all the cores and increase the speed accordingly.
At the same time, certain periods of work can be demanding on the performance of one or two cores, for example, applying filters in the editor.
Data obtained from tests by users who tested their systems with and without overclocking. Thus, you see the average values corresponding to the processor.
Speed of numerical operations
Simple household tasks |
Core i7-7660U 54.1 (+14.4%) A8-6600K APU 46.3 |
Demanding games and tasks |
Core i7-7660U 23.4 (+13.2%) A8-6600K APU 20.3 |
Extreme |
Core i7-7660U 4.6 (+13%) A8-6600K APU 4 |
Different tasks require different CPU strengths. A system with few fast cores and low memory latency will be fine for the vast majority of games, but will be inferior to a system with a lot of slow cores in a rendering scenario.
We believe that a minimum of 4/4 (4 physical cores and 4 threads) processor is suitable for a budget gaming PC. At the same time, some games can load it at 100%, slow down and freeze, and performing any tasks in the background will lead to a drop in FPS.
Ideally, the budget shopper should aim for a minimum of 4/8 and 6/6. A gamer with a big budget can choose between 6/12, 8/8 and 8/16. Processors with 10 and 12 cores can perform well in games with high frequency and fast memory, but are overkill for such tasks. Also, buying for the future is a dubious undertaking, since in a few years many slow cores may not provide sufficient gaming performance.
When choosing a processor for your work, consider how many cores your programs use. For example, photo and video editors can use 1-2 cores when working with filtering, and rendering or converting in the same editors already uses all threads.
Data obtained from tests of users who tested their systems both with overclocking (maximum value in the table) and without (minimum). A typical result is shown in the middle, the more filled in the color bar, the better the average result among all tested systems.
Benchmarks
Benchmarks were run on stock hardware, that is, without overclocking and with factory settings. Therefore, on overclocked systems, the points can noticeably differ upwards. Also, small performance changes may be due to the BIOS version.
Geekbench 3 Multi Core
Intel Core i7-7660u
8693 (+30.5%)
A8-6600K APU
6038
Intel Core I7777777777777777777777777777777777777777777777A %)
AMD A8-6600K APU
3.43
Passmark
Intel Core i7-7660U
4207 (+29.4%)
A8-6600K APU
2972 9000
data are not in the following characteristics tables may be missing information or missing existing functions.
Basic
Manufacturer | Intel | AMD |
DescriptionInformation about the processor, taken from the official website of the manufacturer. |
Intel® Core™ i7-7660U Processor (4M Cache, up to 4.00 GHz) | |
ArchitectureCode name for the microarchitecture generation. | Kaby Lake | |
Process The manufacturing process, measured in nanometers. The smaller the technical process, the more perfect the technology, the lower the heat dissipation and power consumption. | 14 | No data |
Release dateMonth and year of the processor’s availability. | 09-2019 | 09-2016 |
Model Official name. | i7-7660U | |
Cores The number of physical cores. | 2 | 2 |
ThreadsNumber of threads. |
4 | 4 |
Multi-Threading Technology With Intel’s Hyper-threading and AMD’s SMT technology, one physical core is recognized by the operating system as two logical cores, which improves processor performance in multi-threaded applications. | Hyper-threading (note that some games may not work well with Hyper-threading, you can disable the technology in the BIOS of the motherboard for maximum FPS). | SMT (note that some games may not work well with SMT, for maximum FPS, you can disable the technology in the BIOS of the motherboard). |
Base frequencyGuaranteed frequency of all processor cores at maximum load. Performance in single-threaded and multi-threaded applications and games depends on it. It is important to remember that speed and frequency are not directly related. |
2.5 GHz | 3.9 GHz |
Turbo frequencyThe maximum frequency of one processor core in turbo mode. Manufacturers allow modern processors to independently increase the frequency of one or more cores under heavy load, due to which performance is noticeably increased. It may depend on the nature of the load, the number of loaded cores, temperature and the specified limits. Significantly affects the speed in games and applications that are demanding on the frequency of the CPU. | 4GHz | 4.1 GHz |
L3 cache size The third level cache acts as a buffer between the computer’s RAM and the processor’s level 2 cache. Used by all cores, the speed of information processing depends on the volume. | 4 | No data |
Instructions | 64-bit | |
Extended instruction set Allows you to speed up calculations, processing and execution of certain operations. |
SSE4.1/4.2, AVX 2.0 | |
Embedded Options Available Two enclosure versions. Standard and designed for mobile devices. In the second version, the processor can be soldered on the motherboard. | No | No |
Bus frequency The speed of communication with the system. | 4 GT/s OPI | |
Number of QPI links | ||
TDPThermal Design Power is an indicator that determines the heat dissipation in standard operation. The cooler or water cooling system must be rated for a larger value. Remember that with a factory bus or manual overclocking, TDP increases significantly. | 15 | No data |
Cooling system specifications |
Video core
Integrated graphics core Allows you to use your computer without a discrete graphics card. |
Intel® Iris™ Plus Graphics 640 | |
GPU base clockFrequency of 2D and idle operation. | 300 | No data |
Max GPU ClockMaximum 3D clock. | 1100 | No data |
Intel® Wireless Display (Intel® WiDi) Supports Wireless Display technology using the Wi-Fi 802.11n standard. Thanks to it, a monitor or TV equipped with the same technology does not require a cable to connect. | ||
Supported monitorsThe maximum number of monitors that can be connected to the integrated video core at the same time. |
3 |
RAM
Maximum amount of RAMThe amount of RAM that can be installed on the motherboard with this processor. | 32 | No data |
Supported type of RAM The type of RAM depends on its frequency and timings (speed), availability, price. | DDR4-2133, LPDDR3-1866, DDR3L-1600 | |
RAM Channels The multi-channel memory architecture increases data transfer speed. On desktop platforms, two-channel, three-channel and four-channel modes are available. | 2 | |
RAM bandwidth | 34.1 GB/s | |
ECC memory Support for error-correcting memory that is used in servers. |
No data | No data |
PCI
PCI-E PCI Express computer bus version. The bandwidth and power limit depend on the version. There is backward compatibility. | 3 | No data |
PCI | 1×4, 2×2, 1×2+2×1 and 4×1 | 1×4, 2×2, 1×2+2×1 and 4×1 |
Number of PCI lanes | 12 | 1×4, 2×2, 1×2+2×1 and 4×1 |
Data Protection
AES-NI The AES command set extension speeds up applications that use appropriate encryption. |
No data | No data |
Intel® Secure Key An RDRAND instruction that allows you to create a high performance random number generator. | No data | No data |
Decoration
Dimensions | No data | No data |
Supported sockets | No data | No data |
Maximum processors per motherboard | No data | No data |
Which one is better
Intel Core i7-7660U
- 0% faster performance in office applications and browsers
- In complex multi-threaded applications, faster and outperforms by 1%.
AMD A8-6600K APU
- On average, gaming performance is 1% better.
- The base frequency is 1.4 GHz higher.
How are they similar
- Prices for new processors are approximately equal.
- The number of physical cores is equal.
- The number of threads is equal.
AMD A8-6410 vs. AMD A8-4500M
Cpu Benchmark with tests
AMD A8-6410 | AMD A8-4500M | |
2.00GHz | Frequency | 1.90 GHz |
2.40 GHz | Turbo (1 core) | 2.80 GHz |
2.40 GHz | Turbo (all cores) | 2.80 GHz |
4 | Kernels | 4 |
No | Hyperthreading ? | No |
No | Overclocking? | No |
normal | Basic architecture | normal |
AMD Radeon R5 (Beema) | GPU | AMD Radeon HD 7640G |
12 | DirectX Version | 11 |
2 | Max. |
2 |
DDR3L-1600 SO-DIMM | memory size | DDR3-1600 |
2 | Memory channels | 2 |
Max. memory size | ||
No | ECC | No |
— | L2 Cache | — |
2.00MB | L3 Cache | 4.00 MB |
PCIe version | ||
PCIe lanes | ||
32nm | Technology | 32nm |
AM1 | Socket | FS1r2 |
15W | TDP | 35W |
AMD-V | Virtualization | AMD-V |
Q2/2014 | Issue date | Q2/2012 |
show more details | show more details |
Cinebench R20 (Single-Core)
Cinebench R20 is the successor to Cinebench R15 and is also based on Cinema 4 Suite. Cinema 4 is software used all over the world to create 3D forms. The single-core test uses only one CPU core, the number of cores or hyper-threading capability is not taken into account.
Cinebench R20 (Multi-Core)
Cinebench R20 is the successor to Cinebench R15 and is also based on the Cinema 4 Suite. Cinema 4 is software used all over the world to create 3D forms. The multi-core test uses all the CPU cores and has a big advantage of hyper-threading.
Cinebench R15 (Single-Core)
Cinebench R15 is the successor to Cinebench 11.5 and is also based on the Cinema 4 Suite. Cinema 4 is software used all over the world to create 3D forms. The single-core test uses only one CPU core, the number of cores or hyper-threading capability is not taken into account.
Cinebench R15 (Multi-Core)
Cinebench R15 is the successor to Cinebench 11.5 and is also based on Cinema 4 Suite. Cinema 4 is software used all over the world to create 3D forms. The multi-core test uses all the CPU cores and has a big advantage of hyper-threading.
Geekbench 5, 64bit (Single-Core)
Geekbench 5 is a memory-intensive, cross-platform test. A fast memory will greatly push the result. The single-core test uses only one CPU core, the number of cores or hyper-threading capability is not taken into account.
Geekbench 5, 64bit (Multi-Core)
Geekbench 5 is a memory-intensive, cross-platform test. A fast memory will greatly push the result. The multi-core test uses all the CPU cores and has a big advantage of hyper-threading.
iGPU — FP32 Performance (Single-precision GFLOPS)
Theoretical processing performance of the processor’s internal graphics unit with simple precision (32 bits) in GFLOPS. GFLOPS specifies how many billions of floating point operations the iGPU can perform per second.
Geekbench 3, 64bit (Single-Core)
Geekbench 3 is a cross-platform benchmark that is memory intensive. A fast memory will greatly push the result. The single-core test uses only one CPU core, the number of cores or hyper-threading capability is not taken into account.