Name: AMD Ryzen V1756b
Brand: AMD

Technical Specifications of processor AMD Ryzen V1756b

Overall score

5.0

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Popularity

What it is: An indicator based on the number of reviews received by the processor.

When it matters: When you prefer to choose a processor reviewed and selected by many other buyers.

Platform

8.0

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Brand name

What it is: The manufacturer or brand of the product.

When it matters: When you prefer a specific ecosystem, support network, or design philosophy.

Importance: MEDIUM

AMD

Processor type

What it is: The kind of system the processor is built for, such as desktop PCs, laptops, workstations, or servers.

When it matters: When you want a processor meant for the kind of machine you are actually building or buying, rather than a chip aimed at a different class of system.

Importance: HIGH

CPU socket

What it is: The physical socket the processor fits into on the motherboard.

When it matters: When you need to make sure the CPU can actually be installed on a specific motherboard.

Importance: HIGH

Chipset

What it is: The motherboard chipset families officially meant to work with the processor.

When it matters: When you are checking whether a CPU will work with the motherboard features and platform you plan to use.

Importance: HIGH

N/A

CPU architecture

What it is: The processor family or design generation behind the chip, such as Zen 4 or Raptor Lake.

When it matters: When you are comparing CPUs across generations and want a clearer sense of their design age, feature level, and expected performance class.

Importance: HIGH

Performance

4.4

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N. of physical cores

What it is: The number of physical CPU cores on the processor.

When it matters: When you run workloads that benefit from more real cores.

Importance: HIGH

Good value: 8+

CPU threads

What it is: The total number of processing threads the CPU can handle at once.

When it matters: When you run heavily threaded workloads or multitask a lot.

Importance: HIGH

Good value: 16+

Threads per core

What it is: The number of threads each physical core can handle at once.

When it matters: When you want to understand how much thread-level parallelism each core can provide in multitasking or heavily threaded work.

Importance: MEDIUM

Good value: 2

CPU boost clock speed

What it is: The highest clock speed the processor can reach under boost conditions.

When it matters: When you care about peak speed in short bursts.

Importance: HIGH

Good value: >4.7 GHz

CPU base clock speed

What it is: The processor's normal all-core starting frequency before boost behavior raises clocks temporarily.

When it matters: When you care about steadier performance in longer workloads rather than short burst speed alone.

Importance: MEDIUM

Cache & Architecture

5.6

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Semiconductor size

What it is: The manufacturing process node used to produce the processor, usually expressed in nanometers.

When it matters: When efficiency, heat, and the relative modernity of the chip-making process matter to your comparison.

Importance: HIGH

Good value: <10 nm

Foundry

What it is: The semiconductor manufacturer that physically fabricates the processor chip.

When it matters: When process source, manufacturing generation, or foundry differences matter to your comparison more than day-to-day performance alone.

Importance: MEDIUM

L3 cache

What it is: The total amount of L3 cache available on the processor.

When it matters: When you want better performance in cache-sensitive workloads and games.

Importance: MEDIUM

Good value: >=16 MB

L2 cache

What it is: The total amount of L2 cache available across the processor.

When it matters: When you want to compare CPU design efficiency and how much fast intermediate cache the cores have available.

Importance: MEDIUM

Good value: >=6 MB

L1 cache

What it is: The total amount of L1 cache built into the processor, which sits closest to the cores.

When it matters: When you are comparing low-level CPU design details rather than the broader performance picture buyers usually notice first.

Importance: MEDIUM

Good value: >=512 KB

Memory & PCIe

5.0

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DDR memory version

What it is: The RAM generation the processor is designed to support, such as DDR4 or DDR5.

When it matters: When you need the CPU to match the kind of memory platform you want to buy or reuse.

Importance: MEDIUM

Good value: DDR5

Maximum memory speed

What it is: The highest official memory speed supported by the processor.

When it matters: When you choose RAM and want to know the supported speed ceiling.

Importance: HIGH

Good value: >=4800 MHz

Max memory speed (JEDEC)

What it is: The highest official RAM speed the processor supports under standard JEDEC settings, before any memory overclocking profiles are applied.

When it matters: When officially supported stock RAM speed matters more than XMP, EXPO, or manual memory tuning.

Importance: MEDIUM

Good value: >=5600 MHz

Max memory speed (XMP / EXPO)

What it is: The highest memory speed supported through XMP or EXPO profiles.

When it matters: When you want faster RAM through memory profiles.

Importance: MEDIUM

Good value: >=5200 MHz

N/A

Maximum memory capacity

What it is: The largest total amount of memory officially supported by the processor.

When it matters: When you plan a system with very large RAM capacity.

Importance: HIGH

Good value: >=128 GB

Integrated Graphics

7.8

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Integrated graphics

What it is: Includes built-in graphics, so the system can output video without a separate graphics card.

When it matters: When you want the PC to work without a dedicated GPU, or you are building an office, media, compact, or troubleshooting-friendly system.

Importance: HIGH

Integrated GPU model

What it is: The model name of the integrated graphics processor, if present.

When it matters: When you plan to use the CPU's built-in graphics.

Importance: MEDIUM

Integrated GPU execution units

What it is: The number of execution units available in the integrated graphics part of the processor.

When it matters: When you plan to rely on built-in graphics and want a better sense of its light gaming, display, or media capability.

Importance: MEDIUM

Good value: >=24

Integrated GPU base frequency

What it is: The base operating frequency of the integrated GPU.

When it matters: When integrated graphics performance matters to you.

Importance: MEDIUM

Good value: >=350 MHz

Integrated media encoders/decoders

What it is: The hardware media formats the processor can encode or decode directly.

When it matters: When you stream, edit video, or rely on hardware media acceleration.

Importance: LOW

Power & Thermal

6.6

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TDP (Thermal design power)

What it is: The rated thermal design power, which gives a general idea of cooling and power needs.

When it matters: When you choose a cooler or build in a tighter case.

Importance: HIGH

Good value: <30 W

Base power (PL1)

What it is: The sustained power target used for longer CPU loads.

When it matters: When you choose cooling and power delivery for sustained workloads.

Importance: MEDIUM

Good value: <30 W

Boost power (PL2)

What it is: The short-term boost power limit the processor may draw under heavier turbo loads.

When it matters: When you size cooling and power delivery for peak turbo behavior.

Importance: MEDIUM

Good value: <50 W

Tau (power duration limit)

What it is: The time limit the CPU can stay at higher boost power before dropping toward sustained power.

When it matters: When you want to understand turbo behavior under longer loads.

Importance: MEDIUM

Good value: <=28 s

N/A

Configurable TDP

What it is: Allows the processor to run in alternate power modes instead of being fixed to one default TDP target.

When it matters: When you want more control over heat, noise, and power draw in compact systems, quieter builds, or thermally limited machines.

Importance: LOW

AMD Ryzen V1756b vs the average processor

Why is AMD Ryzen V1756b better than the average processor?

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More advanced microarchitecture
AMD Ryzen V1756b uses a more advanced microarchitecture than the average processor (Great Horned Owl vs Kaby Lake).
What it is: The internal core-design codename used for this processor generation.
When it matters: When you are comparing CPUs at a deeper design level and want to identify the exact architecture behind marketing names.
Importance: LOW
AMD Ryzen V1756b uses a more advanced microarchitecture than the average processor (Great Horned Owl vs Kaby Lake).Great Horned Owl vs Kaby Lake
5 °C higher TJ Max
AMD Ryzen V1756b has a higher TJ Max than the average processor (105 °C vs 100 °C). The average processor has a TJ Max of 100 °C.
What it is: The highest safe operating junction temperature before the CPU starts throttling or protecting itself.
When it matters: When you tune cooling or monitor thermals under load.
Importance: LOW
Good value: >=100 °C
AMD Ryzen V1756b has a higher TJ Max than the average processor (105 °C vs 100 °C). The average processor has a TJ Max of 100 °C.105 °C vs 100 °C
Supports ECC memory
AMD Ryzen V1756b supports ECC memory, the average processor does not.
What it is: Can work with ECC memory, which helps detect and correct certain memory errors on supported platforms.
When it matters: When long-term stability, uptime, or data integrity matter more than a basic consumer-style setup.
Importance: MEDIUM
AMD Ryzen V1756b supports ECC memory, the average processor does not.
Includes crypto acceleration
AMD Ryzen V1756b includes crypto acceleration, the average processor does not.
What it is: Built-in hardware support for accelerating encryption and cryptographic tasks.
When it matters: When encryption speed or secure workloads matter to you.
Importance: LOW
AMD Ryzen V1756b includes crypto acceleration, the average processor does not.AES, SHA, RSA/PKA vs AES, SHA
15.6% lower boost power
AMD Ryzen V1756b has a lower boost power draw than the average processor (54 W vs 64 W). The average processor has a boost power draw of 64 W.
What it is: The short-term boost power limit the processor may draw under heavier turbo loads.
When it matters: When you size cooling and power delivery for peak turbo behavior.
Importance: MEDIUM
Good value: <50 W
AMD Ryzen V1756b has a lower boost power draw than the average processor (54 W vs 64 W). The average processor has a boost power draw of 64 W.54 W vs 64 W
1 more supported displays
AMD Ryzen V1756b has more supported displays than the average processor (4 vs 3). The average processor supports 3 displays.
What it is: The maximum number of displays the processor can drive at once.
When it matters: When you plan a multi-monitor setup with integrated graphics.
Importance: LOW
Good value: 4
AMD Ryzen V1756b has more supported displays than the average processor (4 vs 3). The average processor supports 3 displays.4 vs 3
Includes crypto acceleration
AMD Ryzen V1756b includes crypto acceleration, the average processor does not.
More advanced microarchitecture
AMD Ryzen V1756b uses a more advanced microarchitecture than the average processor (Great Horned Owl vs Kaby Lake).
Supports ECC memory
AMD Ryzen V1756b supports ECC memory, the average processor does not.
1 more supported displays
AMD Ryzen V1756b has more supported displays than the average processor (4 vs 3). The average processor supports 3 displays.
5 °C higher TJ Max
AMD Ryzen V1756b has a higher TJ Max than the average processor (105 °C vs 100 °C). The average processor has a TJ Max of 100 °C.
15.6% lower boost power
AMD Ryzen V1756b has a lower boost power draw than the average processor (54 W vs 64 W). The average processor has a boost power draw of 64 W.

Why is AMD Ryzen V1756b worse than the average processor?

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2 year/s older release date
AMD Ryzen V1756b has an older release date than the average processor (2,018 vs 2,020).
February 2018
Older TPM support
AMD Ryzen V1756b supports an older TPM version than the average processor (fTPM 2.0 vs PTT 2.0).
16.3% lower boost clock
AMD Ryzen V1756b has a lower boost clock speed than the average processor (3.6 GHz vs 4.3 GHz). The average processor reaches boost clock speed of 4.3 GHz.
18% weaker single-core performance
AMD Ryzen V1756b has a lower PassMark single-core score than the average processor (2,035 vs 2,483). The average processor scores 2,483 in PassMark single-core.
2 fewer CPU cores
AMD Ryzen V1756b has fewer CPU cores than the average processor (4 vs 6). The average processor has 6 CPU cores.
46.4% lower multi-core score
AMD Ryzen V1756b has a lower Geekbench 6 multi-core score than the average processor (2,571 vs 4,793). The average processor scores 4,793 in Geekbench 6 multi-core.
23.8% lower PassMark score
AMD Ryzen V1756b has a lower PassMark benchmark score than the average processor (8,022 vs 10,532.5). The average processor scores 10,532.5 in PassMark benchmark.
41.7% less L3 per core
AMD Ryzen V1756b has less L3 cache per core than the average processor (1 MB/core vs 1.714 MB/core). The average processor provides 1.714 MB/core of L3 cache per core.
16.7% larger process node
AMD Ryzen V1756b has a higher process node than the average processor (14 nm vs 12 nm). The average processor uses a process node of 12 nm.
50% smaller L3 cache
AMD Ryzen V1756b has a lower L3 cache than the average processor (4 MB vs 8 MB). The average processor has L3 cache of 8 MB.
18% larger die size
AMD Ryzen V1756b has a higher die size than the average processor (210 mm² vs 178 mm²). The average processor has a die size of 178 mm².
20% smaller L2 cache
AMD Ryzen V1756b has a lower L2 cache than the average processor (2 MB vs 2.5 MB). The average processor has L2 cache of 2.5 MB.
50% less memory capacity
AMD Ryzen V1756b has fewer maximum memory capacity than the average processor (32 GB vs 64 GB). The average processor supports 64 GB of memory.
66.7% fewer GPU execution units
AMD Ryzen V1756b has fewer GPU execution units than the average processor (8 vs 24). The average processor has 24 GPU execution units.
Narrower media codec support
AMD Ryzen V1756b supports fewer media codecs than the average processor (H.264 (HW decode/encode), H.265 (HW decode/encode), VP9 (HW decode) vs H.264 (HW decode/encode), H.265 (HW decode/encode), VP9 (HW decode/encode), AV1 (HW decode)).
5 °C higher CPU temperature
AMD Ryzen V1756b has a higher CPU temperature than the average processor (105 °C vs 100 °C). The average processor runs at a CPU temperature of 100 °C.
16.3% lower boost clock
AMD Ryzen V1756b has a lower boost clock speed than the average processor (3.6 GHz vs 4.3 GHz). The average processor reaches boost clock speed of 4.3 GHz.
What it is: The highest clock speed the processor can reach under boost conditions.
When it matters: When you care about peak speed in short bursts.
Importance: HIGH
Good value: >4.7 GHz
AMD Ryzen V1756b has a lower boost clock speed than the average processor (3.6 GHz vs 4.3 GHz). The average processor reaches boost clock speed of 4.3 GHz.3.6 GHz vs 4.3 GHz
41.7% less L3 per core
AMD Ryzen V1756b has less L3 cache per core than the average processor (1 MB/core vs 1.714 MB/core). The average processor provides 1.714 MB/core of L3 cache per core.
What it is: The amount of L3 cache effectively available per CPU core.
When it matters: When you are comparing how much shared cache each core can draw on in deeper technical analysis.
Importance: MEDIUM
Good value: >=2 MB/core
AMD Ryzen V1756b has less L3 cache per core than the average processor (1 MB/core vs 1.714 MB/core). The average processor provides 1.714 MB/core of L3 cache per core.1 MB/core vs 1.714 MB/core
2 fewer CPU cores
AMD Ryzen V1756b has fewer CPU cores than the average processor (4 vs 6). The average processor has 6 CPU cores.
What it is: The number of physical CPU cores on the processor.
When it matters: When you run workloads that benefit from more real cores.
Importance: HIGH
Good value: 8+
AMD Ryzen V1756b has fewer CPU cores than the average processor (4 vs 6). The average processor has 6 CPU cores.4 vs 6
18% weaker single-core performance
AMD Ryzen V1756b has a lower PassMark single-core score than the average processor (2,035 vs 2,483). The average processor scores 2,483 in PassMark single-core.
What it is: A benchmark score that reflects single-core CPU performance.
When it matters: When you care about responsiveness in lighter or older software.
Importance: HIGH
Good value: >3200
AMD Ryzen V1756b has a lower PassMark single-core score than the average processor (2,035 vs 2,483). The average processor scores 2,483 in PassMark single-core.2,035 vs 2,483
46.4% lower multi-core score
AMD Ryzen V1756b has a lower Geekbench 6 multi-core score than the average processor (2,571 vs 4,793). The average processor scores 4,793 in Geekbench 6 multi-core.
What it is: A Geekbench 6 score that reflects multi-core CPU performance in mixed modern workloads.
When it matters: When you want a quick picture of multi-core speed in everyday mixed workloads, multitasking, and broadly optimized software.
Importance: HIGH
Good value: >8500
AMD Ryzen V1756b has a lower Geekbench 6 multi-core score than the average processor (2,571 vs 4,793). The average processor scores 4,793 in Geekbench 6 multi-core.2,571 vs 4,793
16.7% larger process node
AMD Ryzen V1756b has a higher process node than the average processor (14 nm vs 12 nm). The average processor uses a process node of 12 nm.
What it is: The manufacturing process node used to produce the processor, usually expressed in nanometers.
When it matters: When efficiency, heat, and the relative modernity of the chip-making process matter to your comparison.
Importance: HIGH
Good value: <10 nm
AMD Ryzen V1756b has a higher process node than the average processor (14 nm vs 12 nm). The average processor uses a process node of 12 nm.14 nm vs 12 nm
50% smaller L3 cache
AMD Ryzen V1756b has a lower L3 cache than the average processor (4 MB vs 8 MB). The average processor has L3 cache of 8 MB.
What it is: The total amount of L3 cache available on the processor.
When it matters: When you want better performance in cache-sensitive workloads and games.
Importance: MEDIUM
Good value: >=16 MB
AMD Ryzen V1756b has a lower L3 cache than the average processor (4 MB vs 8 MB). The average processor has L3 cache of 8 MB.4 MB vs 8 MB
5 °C higher CPU temperature
AMD Ryzen V1756b has a higher CPU temperature than the average processor (105 °C vs 100 °C). The average processor runs at a CPU temperature of 100 °C.
What it is: The reported operating temperature of the processor.
When it matters: When you monitor thermals, cooling, or system stability.
Importance: LOW
Good value: <100 °C
AMD Ryzen V1756b has a higher CPU temperature than the average processor (105 °C vs 100 °C). The average processor runs at a CPU temperature of 100 °C.105 °C vs 100 °C

Third-party reviews

What customers like about AMD Ryzen V1756b?

Integrated Radeon Vega 8 graphics provide capable performance for basic tasks and light gaming without a discrete card.
Supports up to four independent 4K displays, making it ideal for digital signage and multi-monitor setups.
Efficient power consumption (45W TDP) allows for use in small form factor PCs and potentially passive cooling systems.
Long-term industrial support ensures availability and stable supply for enterprise use through 2030.
Simultaneous Multithreading (SMT) effectively doubles the 4 cores to 8 threads for better multitasking and virtualization performance.

What customers dislike about AMD Ryzen V1756b?

Uses an outdated 14nm process technology which can lead to high heat generation under sustained peak loads.
The 4MB L3 cache is relatively small, which can be a bottleneck in demanding multi-threaded applications.
Lacks PCIe 4.0/5.0 support, limiting maximum data transfer speeds for modern NVMe SSDs.
The multiplier is locked, preventing users from overclocking to gain extra performance.
Generally slower in both single-thread and multi-thread performance compared to newer consumer Ryzen 5 or competing Intel i7 desktop chips.

Expert reviews

cpubenchmark.net

30/03/2026

AMD Ryzen Embedded V1756B - CPU Benchmarks

The AMD Ryzen Embedded V1756B is a 14nm Zen "Great Horned Owl" SoC with 4 cores, 8 threads, and integrated Radeon Vega 8 graphics, designed for industrial, digital signage, and medical imaging applications with a flexible 35W–54W TDP. PassMark data highlights a CPU mark of approximately 8,022, offering reliable performance for embedded tasks. Key advantages include support for up to...Read more

servethehome.com

08/06/2020

HP T740 Thin Client Review: AMD Ryzen Embedded V1756B Linux Kernel Compile Benchmark

The HP T740 thin client, analyzed by ServeTheHome, stands out in the "TinyMiniMicro" category by utilizing an AMD Ryzen Embedded V1756B quad-core processor to offer server-grade performance, often compared to an Intel Core i5-8500T. A key differentiator is its internal 80mm cooling fan and a low-profile PCIe Gen3 x8 slot (riser card included), enabling high-speed network cards...Read more

valid.x86.fr

01/03/2026

CPU-Z Benchmark for AMD Ryzen Embedded V1756B (Single-Thread)

This CPU-Z validation highlights a high-performance system featuring an AMD Ryzen 9 5900X processor paired with 32GB of DDR4 memory and an MSI MPG X570 motherboard. The 12-core, 24-thread configuration demonstrates exceptional multi-threaded performance and high IPC for gaming, characteristic of the Zen 3 architecture. Key pros include the robust X570 platform supporting PCIe 4.0...Read more

01/11/2025

CPU-Z Benchmark for AMD Ryzen Embedded V1756B (Real-world performance validation)

The AMD Ryzen 3 3300X, as shown in CPU-Z benchmark 3305y3, is a 4-core, 8-thread Zen 2 processor that delivers exceptional single-core performance suitable for budget gaming and light productivity. Pros include high single-thread IPC, strong efficiency due to the 7nm process, and an unlocked multiplier for overclocking headroom. However, cons include limited multi-threaded...Read more

AMD Ryzen V1756b Review | 78 Data compared

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Technical Specifications of processor AMD Ryzen V1756b

AMD Ryzen V1756b vs the average processor

Why is AMD Ryzen V1756b better than the average processor?

Why is AMD Ryzen V1756b worse than the average processor?

Graphic comparison of AMD Ryzen V1756b and other processors

Third-party reviews

What customers like about AMD Ryzen V1756b?

What customers dislike about AMD Ryzen V1756b?

Expert reviews

Best alternatives

Compare AMD Ryzen V1756b with other processors