What are the key features of the BMX-P550 barebone system?

The BMX-P550 is a Mini-ITX barebone (MX160H board) for 14th Gen Intel Core i7-14700T on Intel H610E, with 2 x DDR5 5600 SO-DIMM up to 64GB, onboard TPM 2.0, a PCIe x16 Gen4 slot plus half-size PCIe expansion, M.2 M-Key NVMe, three internal 2.5" bays, HDMI + dual DP++ (4K), dual LAN, and a 300W ATX PSU.

Which processors does the BMX-P550 support?

It supports the 14th Gen Intel Core i7-14700T at 35W by default, with the 65W i7-14700 available on a project basis, via the Intel H610E chipset.

How much memory does the BMX-P550 support?

It has two 262-pin SO-DIMM sockets supporting up to 64GB DDR5 at 5600 MT/s (non-ECC only).

How many drives can the BMX-P550 hold?

It provides one M.2 M-Key 2242/2280 NVMe (PCIe x4 + SATA III) plus three internal 2.5" drive bays, well suited to storage-dense edge recording and logging.

What expansion does the BMX-P550 offer?

It has a PCIe x16 (Gen4) slot plus two half-size PCIe slots (shared with one full-size slot, cards ≤130mm), and an M.2 E-Key 2230 (CNVi) for wireless. The NVIDIA RTX A2000 Ada is an option.

What display outputs does the BMX-P550 provide?

It offers HDMI 1.4b (4K) and two Dual-Mode DisplayPort (DP++) 1.4a (4K@60Hz) via Intel UHD Graphics 770 (CPU dependent).

What networking does the BMX-P550 include?

It has dual Ethernet: an Intel I219LM Gigabit PHY plus an Intel i226V 2.5 Gigabit controller.

What power supply does the BMX-P550 use?

It includes a 300W AC-to-ATX PSU with standard ATX rails and a 4P ATX connector.

Does the BMX-P550 include hardware security?

Yes, it has an onboard Infineon SLB9670 supporting TPM 2.0 for hardware key storage and platform integrity.

What applications is the BMX-P550 best suited for?

With 14th Gen Core compute, storage-dense triple 2.5" bays, PCIe Gen4 expansion, and dual LAN, it suits edge recording/NVR, industrial workstations, machine vision, and build-to-order control systems.

What is a barebone system and how does it differ from a complete computer?

A barebone system is a partially assembled computer that typically includes the chassis, motherboard, power supply, and cooling system, but lacks components like CPU, RAM, and storage drives. This allows customers to customize these critical components based on their specific requirements while still benefiting from the industrial design and thermal management of the overall system.

What are the advantages of barebone systems in industrial applications?

Barebone systems offer several advantages for industrial applications, including flexibility to configure CPU, memory, and storage according to specific requirements; cost-effectiveness by allowing customers to use existing components or choose based on budget; easier upgrades as technology evolves; and standardized industrial-grade chassis with thermal design optimized for harsh environments.

What operating systems are supported by these barebone systems?

These barebone systems typically support Windows 10, Windows 11, and various Linux distributions, providing flexibility to choose the operating system that best suits the industrial application requirements.

How long is the warranty period for barebone systems?

TSL Automation provides a standard 2-year warranty on all barebone systems, with options for extended warranty coverage. The warranty covers manufacturing defects and hardware failures under normal operating conditions as specified in the product documentation.

What is the difference between PCIe Gen 3 and Gen 4 in these systems?

PCIe Gen 4 doubles the bandwidth of PCIe Gen 3, from 8 GT/s (gigatransfers per second) to 16 GT/s per lane. This means a PCIe Gen 4 x16 slot provides approximately 32 GB/s of bandwidth compared to 16 GB/s for Gen 3. In industrial computing, this higher bandwidth improves performance for data-intensive applications like machine vision, AI processing, or high-speed data acquisition.

What is the purpose of watchdog timers in these industrial systems?

Watchdog timers are hardware circuits that monitor system operation and trigger a reset if the system hangs or becomes unresponsive. In industrial environments where reliability is critical, watchdog timers help ensure continuous operation by automatically recovering from software failures without human intervention, minimizing downtime in automated processes.

What are the advantages of fanless design in industrial computing?

Fanless design offers several advantages in industrial environments: increased reliability by eliminating moving parts that can fail; improved dust and particulate resistance; silent operation for noise-sensitive environments; reduced maintenance requirements; better protection against vibration and shock; and enhanced longevity in harsh conditions.

What components do I need to purchase separately to complete a barebone system?

To complete a barebone system, you typically need to purchase: a compatible CPU according to the system specifications, memory modules (DDR5 for these systems), storage devices (M.2 SSDs and/or 2.5" drives), and an operating system license. Depending on your application, you might also need wireless modules for the M.2 E-Key slot or expansion cards for the PCIe slot.

How do I install memory in these barebone systems?

To install memory: ensure the system is powered off and unplugged, remove the appropriate access panel, align the notch on the SODIMM module with the socket key, insert at a 45-degree angle, and press down until it clicks into place. For best performance, use matched pairs of memory modules in dual-channel configuration and refer to the specific system manual for supported memory specifications.

What is the proper way to install an M.2 SSD in these systems?

To install an M.2 SSD: power off and unplug the system, access the M.2 slot location, insert the SSD at a 30-degree angle aligning the notch with the socket key, gently press down, and secure with the mounting screw. Be sure to verify the correct length support (2242/2280) and interface type (PCIe/SATA) for your specific M.2 slot before installation.

What power considerations should I be aware of when installing these systems?

When installing these industrial barebone systems, ensure your power source matches the required specifications (either AC input or DC input depending on model), provide adequate surge protection, consider uninterruptible power supply (UPS) for critical applications, ensure proper grounding, and leave sufficient clearance around the system for power connector access and heat dissipation.

Avalue · System komputerowy

BMX-P550

Karta katalogowa

*Cena na zapytanie. Prosimy o kontakt w sprawie wyceny.

Producent: Avalue

Najważniejsze informacje

14th Gen Intel Core i7-14700T (35W default, 65W project)
Intel H610E chipset, Mini-ITX MX160H board
2 x DDR5 5600 MT/s SO-DIMM, up to 64GB (non-ECC)
Onboard Infineon SLB9670 TPM 2.0
1 x PCIe x16 (Gen4) + 2 x half-size PCIe (shared)
M.2 M-Key 2242/2280 NVMe + 3 x internal 2.5" bays
HDMI 1.4b + 2 x DP++ 1.4a (4K)
Dual LAN (Intel I219LM GbE + Intel i226V 2.5GbE)
300W ATX PSU, Windows / Linux

Opis produktu

The Avalue BMX-P550 is a Mini-ITX barebone system built on the MX160H board for 14th Generation Intel Core i7-14700T (35W default, 65W project) with the Intel H610E chipset.

Dual SO-DIMM sockets support up to 64GB DDR5 5600 MT/s (non-ECC), with onboard Infineon TPM 2.0, a PCIe x16 Gen4 slot, and a 300W ATX PSU in a compact, storage-dense chassis.

The BMX-P550 is built for storage-heavy edge roles: M.2 M-Key NVMe (PCIe x4 + SATA III) plus three internal 2.5" drive bays, six USB ports, two RS-232/422/485 COM ports, dual display via HDMI 1.4b and dual DP++ 1.4a (4K), and dual Ethernet (Intel I219LM Gigabit + Intel i226V 2.5GbE).

Half-size PCIe expansion and active cooling make it a flexible build-to-order platform for industrial and edge computing on Windows or Linux.

Dane techniczne

Procesor

Intel® Core™ i7-14700T Processor (35W, Default)

Intel® Core™ i7-14700 Processor (65W, Project Base)

Platform Controller Hub

Intel® H610E Chipset

Pamięć systemowa

2 x 262-pin SO-DIMM Socket Max. Up to 64GB DDR5 5600MT/s (non ECC only)

SBC

Mini-ITX 170mmx170mm (MX160H)

Monitor stanu sprzętu

Monitoring CPU Temperature, Voltage with Auto Throttling Control

Watchdog

H/W Reset, 1sec. ~ 65535sec and 1sec. or 1min./step

TPM

Onboard infineon SLB 9670VQ2.0 support TPM2.0

Chipset I/O

nuvoton NCT6126D

Informacje o BIOS

AMI 256Mb UEFI BIOS

Karta rozszerzeń

A2000 Ada for opt.

M.2

1 x M.2 E-Key 2230 with CNVi Support (PCIe x1 + USB 2.0)

PCIe

1 x PCIex16 (Gen 4)

Rozszerzenia

2 x half-size PCIe slots, share with 1 x full-size slot.

(supports length ≤130mm expansion card)

M.2

1 x M.2 M-Key 2242/2280 NVMe (PCIe x4 + SATA III)

Kieszeń na dysk

3 x Internal 2.5” Drive Bay

Przycisk zasilania

1 x PWR

Wskaźnik LED

1 x PWR LED

1 x HDD Data Access LED

USB

2 x USB 2.0

USB

4 x USB 3.2 Gen1x1

2 x USB 2.0

HDMI

1 x HDMI 1.4b 4K@30Hz

Port LAN

1 x Intel® I219LM Gigabit Ethernet PHY

1 x Intel® i226V 2.5 Gigabit Ethernet

Audio

Mic-in, Line-out

DP

2 x Dual Mode DisplayPort (DP++) 1.4a 4K@60Hz

Port COM

2 x RS-232/422/485

Wentylator CPU/systemu

CPU FAN: 1 x 4P CPU FAN

System FAN: 1 x SYS FAN

Chipset graficzny

Intel® UHD Graphics 770 (Depends on CPU)

Rozdzielczość

HDMI 1.4b 4K@60Hz

Dual Mode DisplayPort (DP++) 1.4a 4K@60Hz

Kodek audio

RealTek ALC897

Chipset LAN

1 x Intel® I219LM Gigabit Ethernet PHY

1 x Intel® i226V 2.5 Gigabit Ethernet

ACPI

Single power ATX support S0, S3, S4, S5

Tryb zasilania

AT/ATX (ATX is default setting)

Zasilacz

AC to ATX PSU

Specyfikacja wejścia napięciowego

+12V/+5V/5VSB/+3.3V/-12V (ATX power)

Złącze wejścia napięcia

4P ATX connector

Specyfikacja wyjścia DC

ATX power, 300W PSU

OS

Win10, Win11, Linux

Temperatura pracy

0°C ~ 40°C (32°F ~ 104°F) with 0.5m/s air flow

Temp. przechowywania

-30~70C° (-22°F ~ 158°F)

Wilgotność pracy

40°C @ 95% Relative Humidity, Non-condensing

Wymiary (szer. x dł. x wys.)

270 x 235 x 88mm

Test wibracyjny

With SSD : 1.5 Grms, IEC 60068-2-64, Random, 5 ~ 500Hz, 0.5hr/axis

Test udarowy

With SSD : 10 G, IEC 60068-2-27, Half Sine, 11ms

Test zrzutowy

Package drop test

Reference ISTA 1G

Pozycje

1 x BMX-P550

1 x AC 300W PSU

1 x Screws kit (For M.2, SATA 2.5” cables)

Czym jest BMX-P550?

The BMX-P550 is a system komputerowy manufactured by Avalue, designed specifically for barebone-system applications. It features procesor of CPU FAN: 1 x 4P CPU FAN, System FAN: 1 x SYS FAN, sieć of 1 x PWR and system operacyjny of AMI 256Mb UEFI BIOS. The Avalue BMX-P550 is a Mini-ITX barebone system built on the MX160H board for 14th Generation Intel Core i7-14700T (35W default, 65W project) with the Intel H610E chipset. Dual SO-DIMM sockets support up to 64GB DDR5 5600 MT/s (non-ECC), with onboard Infineon TPM 2.0, a PCIe x16 Gen4 slot, and a 300W ATX PSU in a compact, storage-dense chassis. The BMX-P550 is built for storage-heavy edge roles: M.2 M-Key NVMe (PCIe x4 + SATA III) plus three internal 2.5" drive bays, six USB ports, two RS-232/422/485 COM ports, dual display via HDMI 1.4b and dual DP++ 1.4a (4K), and dual Ethernet (Intel I219LM Gigabit + Intel i226V 2.5GbE). Half-size PCIe expansion and active cooling make it a flexible build-to-order platform for industrial and edge computing on Windows or Linux.

Najważniejsze cechy i korzyści

14th Gen Intel Core i7-14700T (35W default, 65W project)
Intel H610E chipset, Mini-ITX MX160H board
2 x DDR5 5600 MT/s SO-DIMM, up to 64GB (non-ECC)
Onboard Infineon SLB9670 TPM 2.0
1 x PCIe x16 (Gen4) + 2 x half-size PCIe (shared)
M.2 M-Key 2242/2280 NVMe + 3 x internal 2.5" bays
HDMI 1.4b + 2 x DP++ 1.4a (4K)
Dual LAN (Intel I219LM GbE + Intel i226V 2.5GbE)
300W ATX PSU, Windows / Linux

Zastosowania i przykłady użycia

Model BMX-P550 doskonale sprawdza się w różnych zastosowaniach automatyki przemysłowej:

High-performance computing and data processing tasks
Networked industrial systems and data communication
Memory-intensive applications and multitasking
Industrial computing and data processing
Edge computing and IoT applications
Real-time monitoring and control
Industrial automation systems

Często zadawane pytania

Trusted Platform Module (TPM) 2.0 is a security chip that provides hardware-based cryptographic functions. In industrial computing, it enhances security by enabling secure boot, protecting encryption keys, ensuring platform integrity, and preventing unauthorized access to sensitive data. This is particularly important for industrial systems that may handle confidential manufacturing data or control critical infrastructure.

If the system doesn't power on: check power connections and ensure the power source is functioning, verify the power button connection, confirm the power supply is working (if applicable), check for any visible damage, ensure components like CPU and memory are properly seated, reset CMOS if possible, and if available, check status LEDs for diagnostic information. If these steps don't resolve the issue, contact technical support.

To diagnose memory issues: check if memory modules are properly seated, try using just one memory module at a time to identify a potentially faulty module, verify you're using compatible memory specifications (speed, type), check for POST codes or beep patterns indicating memory failures, and run memory diagnostic tests through the BIOS or a bootable diagnostic tool. Many memory issues can be resolved by reseating or replacing modules.

If display output isn't working: verify cable connections, check that the monitor is powered on and set to the correct input source, try alternative display outputs if available, ensure the system is fully booting (check power LEDs and listen for fan operation), confirm the CPU and graphics hardware is properly functioning, update graphics drivers if possible, and reset BIOS settings to default if necessary.

To resolve Ethernet connectivity issues: check physical cable connections, verify network configuration settings (IP address, subnet mask, gateway), ensure Ethernet ports are enabled in BIOS, test with different network cables, check for link LEDs indicating physical connection status, update network adapter drivers, reset network hardware (switches, routers), and disable/enable network interfaces in the operating system to reset connections.

Najważniejsze informacje

Opis produktu

Dane techniczne

Informacje o systemie

Procesor

Platform Controller Hub

Pamięć systemowa

SBC

Monitor stanu sprzętu

Watchdog

TPM

Chipset I/O

Informacje o BIOS

Karta rozszerzeń

Rozszerzenia

M.2

PCIe

Rozszerzenia

Pamięć masowa

M.2

Kieszeń na dysk

I/O z przodu

Przycisk zasilania

Wskaźnik LED

USB

I/O z tyłu

USB

HDMI

Port LAN

Audio

DP

Port COM

I/O na płycie

Wentylator CPU/systemu

Wyświetlacz

Chipset graficzny

Rozdzielczość

Audio

Kodek audio

Ethernet

Chipset LAN

Wymagania dotyczące zasilania

ACPI

Tryb zasilania

Zasilacz

Specyfikacja wejścia napięciowego

Złącze wejścia napięcia

Specyfikacja wyjścia DC

Wsparcie programowe

OS

Parametry mechaniczne i środowiskowe

Temperatura pracy

Temp. przechowywania

Wilgotność pracy

Wymiary (szer. x dł. x wys.)

Test wibracyjny

Test udarowy

Test zrzutowy

Lista zawartości opakowania

Pozycje

Czym jest BMX-P550?

Najważniejsze cechy i korzyści

Zastosowania i przykłady użycia

Często zadawane pytania