Embedded Industrial Fanless Mini PC: High-Performance Dual-Processor Solution for Modern Industry
The Embedded Industrial Fanless Mini PC is a cutting-edge solution designed to meet the ever-growing demands of industrial computing. With a focus on reliability, energy efficiency, and versatility, this mini PC integrates the latest Intel Alder Lake-N97 and ARM RK3588 processors, enabling powerful performance in a compact, fanless design. It supports multiple operating systems, including Windows 10, Windows 11, and Linux, providing broad compatibility for various industrial applications.

Key Features
Dual-Processor Architecture

Intel Alder Lake-N97
The Intel Alder Lake-N97 processor is a quad-core CPU with a turbo frequency of up to 3.6 GHz and a TDP of only 12W. Its hybrid architecture balances performance and power efficiency, making it ideal for fanless designs where thermal management is critical. The processor integrates Intel UHD Graphics with 24 execution units, allowing smooth video playback and graphical interface rendering for most industrial software.

ARM RK3588
The ARM RK3588 processor features a 64-bit octa-core configuration, combining high performance with low energy consumption. Its advanced parallel processing capabilities make it suitable for applications requiring heavy computational throughput, such as edge AI, video analytics, and robotics. The ARM variant also includes onboard eMMC 5.1 storage, ensuring fast data access and reliability in industrial scenarios.

Memory and Storage

Memory Options: 8GB onboard SDRAM or a single DDR4 SO-DIMM slot supporting up to 16GB, offering flexible memory configurations tailored to specific workloads.

Storage Options: M.2 M-key 2280 SSD slot and a SATA 3.0 interface supporting 2.5-inch HDDs or SSDs. The ARM variant’s onboard eMMC ensures reliable, low-latency storage.

Expandability: The combination of M.2 and SATA interfaces provides balanced storage flexibility, accommodating both high-speed SSDs and larger-capacity HDDs.

Display and Graphics

Multiple Display Outputs: The mini PC supports dual HDMI ports and a DisplayPort, enabling dual-screen setups for enhanced productivity.

Integrated Graphics: Intel UHD Graphics deliver efficient rendering for industrial control interfaces, multimedia content, and basic CAD applications.

Networking Capabilities

Ethernet Connectivity: Depending on the configuration, options include one Intel I210 Gigabit Ethernet port and one Intel I225 2.5G Ethernet port, or four Intel I210 Gigabit ports. The ARM variant supports dual Gigabit Ethernet.

Industrial-Grade Reliability: These networking options ensure stable, high-speed connectivity for mission-critical applications in manufacturing, logistics, and smart factory environments.

Fanless and Compact Design

Form Factor: 182 x 150 x 63.3 mm – a compact footprint that allows installation in constrained spaces, including factory floors, vehicles, and embedded systems.

Fanless Operation: Passive cooling reduces maintenance and eliminates moving parts, improving system durability in dusty or vibration-prone environments.

Applications

The SINSMART Embedded Industrial Mini PC is versatile and well-suited for a wide variety of industrial and commercial applications:

Automated Guided Vehicles (AGVs): Acts as the central processing unit for navigation, obstacle detection, and fleet management.

Edge Computing: Performs local data processing to minimize latency and reduce network bandwidth usage.

Smart Factories: Integrates with IoT devices for real-time monitoring, automation, and predictive maintenance.......
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SINSMART SIN-3095 Series: Compact, Fanless Embedded IPC for Industrial Edge Applications
As industrial environments demand ever-smarter, more energy-efficient computing platforms, SINSMART introduces its SIN-3095 series embedded industrial PCs, delivering fanless, high-performance edge computing in a compact form factor. Available in three configurations—Intel® Alder Lake-N97 dual LAN, quad LAN, and ARM-based RK3588—the SIN-3095 series is built to power a range of applications from smart manufacturing to AI vision, network control, and industrial automation.

Model Variants
Model CPU Network Ports USB Ports OS Support
SIN-3095-N97L2 Intel Alder Lake-N97 (Quad-core) 1x Intel I210 Gigabit, 1x Intel I225 2.5G 4x USB 3.2, 2x USB 2.0 Windows 10/11, Linux
SIN-3095-N97L4 Intel Alder Lake-N97 (Quad-core) 4x Intel I210 Gigabit 2x USB 3.2, 2x USB 2.0 Windows 10/11, Linux
SIN-3095-RK3588 ARM RK3588 (8-core) 2x Realtek Gigabit Ethernet 1x USB 3.0 (OTG), 1x USB 3.0, 2x USB 2.0 Android, Debian 11, Ubuntu

Compact Yet Powerful Performance
✅ Processor Options
Intel® Alder Lake-N97: Efficient quad-core CPU built on the latest Intel 10nm process. Ideal for x86-based automation, data processing, and edge control.

ARM RK3588: High-performance ARM SoC with integrated GPU and AI engine—ideal for Android-based HMI, vision processing, and lightweight AI workloads.

Optimized for Industrial Workloads
💾 Memory & Storage
Up to 16GB DDR4 via SO-DIMM (Intel models) or 8GB onboard LPDDR4 (ARM model).

Storage interfaces include:

M.2 M-Key 2280 for NVMe SSDs

SATA 3.0 interface for 2.5" HDD/SSD (Intel models)

Onboard 64GB eMMC 5.1 (ARM model)

Connectivity & Expandability
🌐 Rich Network Interfaces
Choose between:

Dual LAN (1G + 2.5G) for standard networking needs

Quad LAN for industrial routers, gateways, or vision applications

Dual Gigabit on ARM for HMI or edge computing tasks

🔌 I/O Ports
High-speed USB 3.2 Gen1 and USB 2.0 ports for data transfer and peripheral connectivity

HDMI, DP, or dual HDMI depending on model—for seamless dual display output

Industrial-Grade Design
Fanless, fully enclosed aluminum housing

Dimensions: 182 × 150 × 63.3 mm, Weight: approx. 1.8 kg

Compact enough for control cabinets, robots, mobile carts, and panel integration

Flexible OS Support
Intel models: Support Windows 10/11 and mainstream Linux distributions

RK3588 model: Supports Android, Debian 11, and Ubuntu for rapid application development in ARM ecosystems

Ideal Applications
Industrial automation and control systems

AI edge computing and video analytics

IoT edge gateways and protocol converters

Smart manufacturing dashboards and data visualization

Lightweight AI inference and deep learning on edge (RK3588)

Conclusion
Whether you're developing an AI edge node, an HMI system, or a rugged industrial controller, the SINSMART SIN-3095 series offers versatile hardware to match your needs. With silent fanless cooling, rich connectivity, and multiple CPU platforms, it’s a smart choice for OEMs, integrators, and developers seeking powerful embedded IPCs in a compact industrial design.

Learn more about SINSMART industrial embedded solutions at www.sinsmart.com, or contact our technical team for configuration advice.
https://www.sinsmarts.com/inte....l-alder-lake-n97-arm

Powering Precision: SINSMART 4U Industrial PC Ensures Real-Time Emission Compliance
Robust Computing for Critical Environmental Monitoring
As environmental regulations tighten globally, industries face unprecedented pressure to monitor emissions accurately. A leading air quality technology provider partnered with SINSMART to deploy the SIN-610L-BH610MA 4U Rackmount Industrial Computer—a high-performance solution engineered for harsh factory environments.

Meeting Demands of Real-Time Monitoring:
The application required processing multi-sensor gas detection data 24/7. Key specifications included:

Intel Core i7 Power: Handling high-speed data analytics.
Industrial Resilience: Dust, vibration, and EMI resistance.
Windows 10 Pro: Seamless compatibility with monitoring software.
Dual Ethernet & 9 USB Ports: Reliable sensor/network connectivity.
4U Rack Design: Simplified integration into control cabinets.
The SINSMART Advantage:
The SIN-610L-BH610MA delivered with:

Intel H610 Chipset: Efficient real-time data processing for compliance reporting.
7 PCIe Slots: Flexibility for sensor expansions (gas analyzers, IoT modules).
Rugged Chassis: Optimized cooling for 24/7 operation near high-emission sources.
Linux/Windows Support: Plug-and-play deployment with pre-installed OS.
Beyond Emissions:
This industrial computing powerhouse also drives:
✔️ Water quality monitoring (pH, COD, heavy metals)
✔️ Urban noise pollution networks
✔️ Construction site dust (PM2.5/PM1 detection
✔️ Edge data aggregation for environmental IoT gateways

Conclusion:
The SIN-610L-BH610MA provides the reliable computing backbone for eco-conscious industry—transforming raw sensor data into actionable insights for a cleaner future.
https://www.sinsmarts.com/inte....l-alder-lake-s-h610-

What is Factory Automation?
Factory Automation (FA) is the integration of machinery, control systems, and information technologies to automate manufacturing processes, minimizing human intervention and maximizing efficiency, quality, safety, and consistency.

Here's a breakdown of its key aspects:

Core Goal: Replace manual, repetitive, or hazardous tasks with automated systems.

Key Technologies:

Robotics: Industrial robots for welding, assembly, painting, material handling (e.g., robotic arms, AGVs).
Control Systems: PLCs (Programmable Logic Controllers), PACs (Programmable Automation Controllers), DCS (Distributed Control Systems) that orchestrate machine operations.
Sensors & Actuators: Devices that gather data (temperature, position, vision) and perform actions (move arms, open valves).
Machine Vision: Cameras and software for inspection, guidance, and identification.
Industrial Networks: Communication protocols (Ethernet/IP, PROFINET, Modbus) connecting devices and systems.
SCADA (Supervisory Control and Data Acquisition) & HMI (Human-Machine Interface): Systems for monitoring, controlling, and visualizing processes.
CNC Machines: Computer-controlled machining tools (lathes, mills).
AI & Machine Learning (Increasingly): For predictive maintenance, quality optimization, and adaptive control.
Levels of Automation:

Fixed/Hard Automation: Dedicated equipment for high-volume, unchanging products (e.g., automotive assembly lines).
Programmable Automation: Equipment reprogrammable for batch production of different products (e.g., CNC machines, industrial robots).
Flexible/Soft Automation: Systems easily reconfigured for diverse products (core of modern "smart factories".
Integrated Automation: Full connectivity from machine control to enterprise planning (ERP/MES systems).
Why Automate? Key Benefits:

Increased Productivity & Output: Machines work faster, longer (24/7), and more consistently than humans.
Improved Quality & Consistency: Reduces human error; products meet exact specifications every time.
Enhanced Safety: Removes workers from dangerous environments (toxic, extreme heat, heavy lifting).
Reduced Labor Costs: Lowers direct labor requirements, especially for repetitive tasks.
Optimized Resource Use: Reduces material waste and energy consumption.
Increased Flexibility: Faster changeovers between products (in flexible systems).
Better Data Collection: Enables real-time monitoring, process optimization, and traceability.
Competitiveness: Essential for cost reduction, speed-to-market, and meeting quality demands.
Beyond Manufacturing: While focused on production, FA concepts extend to:

Warehousing & Logistics: Automated storage/retrieval systems (AS/RS), sorting systems.
Material Handling: Conveyors, AGVs, AMRs transporting goods within facilities.
Packaging & Palletizing: Automated filling, sealing, labeling, and stacking.
The Future - Industry 4.0: Factory Automation is the foundation of the "Smart Factory" or "Industry 4.0," where cyber-physical systems, IoT (Internet of Things), cloud computing, big data analytics, and AI create highly interconnected, intelligent, and self-optimizing production environments.

In essence, Factory Automation transforms factories from labor-intensive operations into highly efficient, technology-driven systems capable of producing more, better, faster, and safer. It's a fundamental driver of modern industrial competitiveness.
https://www.sinsmarts.com/blog..../what-is-factory-aut

What is GPIO?
GPIO (General-Purpose Input/Output) is a flexible interface found on microcontrollers, single-board computers (like Raspberry Pi), and other embedded systems. It allows these devices to interact with external components or circuits by providing programmable digital pins that can be configured as either inputs or outputs.

Key Features:
Digital Signals:

GPIOs handle binary signals: HIGH (1) or LOW (, typically represented by voltage levels (e.g., 3.3V or 5V for HIGH, 0V for LOW).
Programmable Direction:

Input Mode: Reads external signals (e.g., detecting a button press or sensor state).
Output Mode: Sends signals to control external devices (e.g., lighting an LED, driving a relay).
No Built-in Functionality:

GPIOs have no predefined purpose—their behavior is defined entirely by software. This makes them versatile but requires manual configuration.
Common Use Cases:
Input Examples:
Reading data from buttons, switches, or motion sensors.
Receiving signals from digital communication protocols (e.g., I²C, SPI, UART—though these often use dedicated pins).
Output Examples:
Turning LEDs on/off.
Controlling motors via driver circuits.
Sending signals to displays or other peripherals.
Important Considerations:
Voltage Compatibility: GPIOs operate at specific voltages (e.g., 3.3V on Raspberry Pi, 5V on Arduino). Exceeding these can damage the pin or device.
Current Limits: GPIO pins can usually source/sink only small currents (e.g., ~16mA per pin on Raspberry Pi). Always use resistors (e.g., for LEDs) or driver circuits (e.g., transistors) for higher loads.
No Analog Support: GPIOs are digital-only. For analog signals (e.g., reading a potentiometer), an ADC (Analog-to-Digital Converter) is required.
Software Control: Configuration and operation rely on code (Python, C, etc.). Libraries like RPi.GPIO (Raspberry Pi) or wiringPi simplify programming.
Example on Raspberry Pi:
python
复制代码
import RPi.GPIO as GPIO

GPIO.setmode(GPIO.BCM) # Use Broadcom pin numbering
led_pin = 18 # Assign GPIO18
button_pin = 24 # Assign GPIO24

# Configure pins:
GPIO.setup(led_pin, GPIO.OUT) # Set LED pin as OUTPUT
GPIO.setup(button_pin, GPIO.IN) # Set button pin as INPUT

# Turn LED on when button is pressed:
while True:
if GPIO.input(button_pin) == GPIO.HIGH:
GPIO.output(led_pin, GPIO.HIGH) # LED ON
else:
GPIO.output(led_pin, GPIO.LOW) # LED OFF
Summary:
GPIO pins are the "swiss army knife" of hardware interfaces, enabling basic but critical interactions between a computing device and the physical world. They are essential for DIY electronics, IoT projects, robotics, and automation. Always refer to your device’s documentation to avoid misuse!
https://www.sinsmarts.com/blog/what-is-a-gpio/