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How to Build a RAID 1 Mirrored Array with Intel VMD on a Mini PC Announcements Buyer Guide Comprehensive Tips Occasion Product Review Q&A Tutorials What Is Intel VMD and Why Does It Matter? Intel Volume Management Device (VMD) is a hardware-level storage management technology built directly into Intel processors. In simple terms, it acts as a bridge between your NVMe SSDs and your CPU. Specifically, VMD delivers three key benefits: Benefit What It Means for You Simplified management The operating system loads a single VMD driver. Therefore, it can recognize and manage all NVMe SSDs under the VMD controller — no need to install separate drivers for each drive. Maximized performance NVMe SSDs communicate directly with the CPU through VMD. As a result, this bypasses the traditional chipset or standalone RAID card, which significantly reduces latency and improves I/O throughput. Enhanced reliability VMD isolates disk errors from the operating system. Consequently, it prevents system crashes or blue screens caused by drive failures. This makes it ideal for 24/7 industrial control and edge computing environments. This guide uses RAID 1 for the walkthrough. However, the setup steps are identical for other RAID levels. You only need to select a different level during configuration. What You Need Before You Start Make sure you have everything ready before proceeding. Otherwise, you may run into issues midway. Hardware Requirements A HYSTOU H4 12th Gen mini PC that supports Intel VMD (check that your BIOS includes VMD settings). Two NVMe M.2 SSDs. For best results, use identical brands, models, and capacities. A USB flash drive (FAT32 formatted) for the VMD driver. A Windows 10 or Windows 11 installation USB drive. Critical Warning Setting up RAID will erase all data on both SSDs. Therefore, back up any important files before you continue. This step cannot be undone. Step-by-Step: How to Set Up RAID 1 with Intel VMD Now, let us walk through the entire process. It consists of four main stages. Step 1: Enable Intel VMD in BIOS First, you need to activate the VMD controller in your system BIOS. Power on the mini PC. When the boot logo appears, press the Delete (or Del) key repeatedly and quickly to enter the BIOS Setup. Next, navigate through the following menu path: Chipset → System Agent (SA) Configuration → VMD Setup MenuThen, find the Enable VMD Controller option and change its value to [Enabled]. After that, press F4 on your keyboard. A save-and-exit dialog will appear. Select Yes or OK to confirm. The system will then reboot automatically. Step 2: Create the RAID 1 Volume in BIOS Once the system reboots, you are ready to create the RAID array. Press Del again during boot to re-enter BIOS Setup. Navigate to the Advanced tab. Then, find and open the Intel(R) Rapid Storage Technology submenu.         3. In the Intel RST interface, select Create RAID Volume.         4. Now, configure the RAID volume using the setup wizard: RAID Level: Select RAID 1 for this walkthrough. Select Disks: Use the Spacebar on your keyboard to check both NVMe SSDs you want to include. Other settings: Leave stripe size and volume name at their defaults. Finally, select Create Volume and confirm.         5. After creation, the Intel RST main screen will display your new RAID volume along with its status.At this point, your RAID 1 mirrored array is ready. However, Windows still cannot see it yet. That is because you need the VMD driver. Let us get that next. Step 3: Download and Prepare the VMD Driver (Windows) Since VMD is a hardware abstraction layer, the standard Windows installation media does not include its driver. Therefore, you must manually provide it during OS installation. Otherwise, the installer will not detect your RAID disk. 3.1 Download the Intel RST Driver Visit the official Intel Download Center to get the Intel Rapid Storage Technology (RST) driver for 12th- 15th Gen Intel platforms:🔗 Download link: Intel RST Driver (12th–15th Gen) 3.2 Extract the Driver Files Save the downloaded SetupRST.exe to your D: drive (or any accessible location). Then, open PowerShell or Command Prompt as administrator and run the following command:        D:        .SetupRST.exe -extractdrivers RST_DriverAfter execution, a new folder called RST_Driver will appear in the current directory. 3.3 Locate the VMD Driver The VMD controller driver is located at:        RST_DriverproductionWindows10-x64DriversVMDThe key file is iaStorVD.inf.Now, copy the entire VMD folder onto your FAT32-formatted USB flash drive. You will need it during Windows installation.Important notes: This driver supports Windows 10 and Windows 11 only. Linux distributions do not have official VMD drivers. If you need RAID on Linux, consider using software RAID (such as mdadmor disable VMD mode. Step 4: Load the VMD Driver During Windows Installation Finally, it is time to install Windows with the RAID array properly recognized.4.1 Boot from your Windows 10/11 installation USB drive. Proceed through the setup until you reach the “Where do you want to install Windows?” screen.At this point, you will notice that the disk list is empty. This is expected — it happens because the VMD RAID volume is not yet recognized. 4.2 Click the Load Driver button at the bottom-left corner of the window.4.3 In the dialog that appears, click Browse. Then, navigate to your USB flash drive and locate the RST_DriverproductionWindows10-x64DriversVMD folder. Select it and click OK. 4.4 The system will scan and list available controller drivers. Select Intel RST VMD Controller (or a similarly named option), and then click Install.4.5 Once the driver loads successfully, your RAID disk will appear in the list. You can now: If the disk is unpartitioned, click New to create partitions. Select the target partition, then click Next to continue with the standard Windows installation. From here, Windows will install normally. Once complete, your RAID 1 mirrored array will be fully operational. Frequently Asked Questions (FAQ) How do I check if my RAID 1 array is working properly? Install the Intel

Edge Computer Vision: How AI Learns to “See and Decide” Right Where It Matters Announcements Buyer Guide Comprehensive Tips Occasion Product Review Q&A Tutorials A Defect Caught in 100 Milliseconds On a high-speed PCB assembly line, a camera inspects solder joints as boards rush past at meters per second. Within 100 milliseconds, the system identifies a microscopic solder bridging defect, triggers a rejection signal, and diverts the faulty board—all before the next unit arrives at the inspection station.This decision happens inside a compact industrial computer mounted beside the conveyor. Not in a data center hundreds of kilometers away. If the image data had to travel to a cloud server and back, network latency alone could add 300–500 milliseconds of delay. On a fast-moving production line, that gap means missed defects, scrap waste, and quality escapes.This is the core problem that edge computer vision solves: when AI needs to see something and act on it immediately, sending data to the cloud and waiting for an answer simply doesn’t work. The processing must happen locally, at the edge, in real time. And the hardware that makes this possible is evolving from bulky legacy industrial controllers to something far more compact—the industrial-grade Mini PC. What Is Edge Computer Vision? To understand edge computer vision, it helps to break the concept into three layers. Computer Vision: Teaching Machines to “See” Computer vision is the field of AI that enables machines to extract meaningful information from images and video. It powers tasks like object detection (identifying and locating items in a frame), image classification (sorting products by type or condition), and behavioral recognition (detecting whether a worker is wearing protective gear). Modern computer vision relies heavily on deep learning models, which deliver high accuracy but demand significant computational resources to run. Edge Computing vs. Edge AI Edge computing is the broad principle of processing data where it is generated, rather than sending everything to a centralized cloud or data center. Think of it as setting up a package locker in your neighborhood instead of routing all deliveries through a distant distribution hub.Edge AI takes this one step further: it means running AI models directly on the local device, so the system can make intelligent decisions—classifying, detecting, predicting—without any round trip to a remote server. Extending the analogy, it’s as if the package locker could automatically sort parcels into the correct compartment on its own. Edge Computer Vision: The Convergence Edge computer vision combines these two ideas. It means deploying visual AI models on a local computer positioned right next to the cameras, so the entire loop—capture, analyze, decide—happens on-site, in milliseconds, with no dependency on cloud connectivity. Why Edge Computer Vision Matters: Four Core Advantages 1. Millisecond-Level Response In manufacturing quality inspection and robotic vision guidance, latency is not a convenience metric—it’s a hard requirement. Edge inference delivers deterministic response times in the 10–100 millisecond range, completely independent of network conditions. A cloud round-trip that takes 300ms+ is simply too slow for a conveyor line running at high speed. 2. Data Privacy and Security Factory process parameters, inspection images, and production data often represent core proprietary knowledge. An edge-based vision system processes all of this data locally. Only the results—pass/fail flags, anomaly counts, summary statistics—leave the facility. This architecture is increasingly important as data sovereignty regulations (such as the EU AI Act and China’s Personal Information Protection Law) place stricter limits on cross-border data transfers. 3. Bandwidth Efficiency A typical industrial vision deployment may involve dozens of high-resolution cameras generating continuous video streams. Transmitting all of that raw footage to the cloud would consume enormous bandwidth. Edge processing reduces outbound data volume by 80% or more, because only analysis results and flagged images need to be transmitted—not every frame of video. 4. Network Resilience Edge devices operate independently of continuous network connectivity. If the network goes down, the local vision system keeps running. For production environments where downtime translates directly into financial loss, this resilience is essential. Where Edge Computer Vision Is Already Working Smart Manufacturing and Quality Inspection Visual inspection systems on production lines must identify defects in real time—PCB solder joint analysis, semiconductor wafer defect detection, automotive surface finish checking. The industrial computer running the inspection model sits directly beside the line, processing images from multiple high-resolution cameras and communicating with PLCs to trigger sorting or rejection mechanisms. These systems demand stable, continuous computing performance and the ability to interface with multiple industrial cameras simultaneously. Construction Site Safety and Industrial Protection Edge vision systems deployed at construction sites and industrial facilities can continuously monitor whether workers are wearing hard hats, safety vests, and other protective equipment. These deployments often operate outdoors or in harsh environments, placing high demands on the hardware’s temperature tolerance and dust resistance. Robotic Vision Guidance Collaborative robots (cobots) require real-time visual feedback to locate workpieces and make grasping or assembly decisions within 20–50 milliseconds. The robot controller typically communicates with the edge computer via serial interfaces (RS232/RS485), requiring the computing platform to offer rich industrial I/O connectivity. Smart Transportation and Urban Surveillance Intelligent cameras at road intersections perform license plate recognition, traffic flow counting, and violation detection—analyzing everything locally and issuing instant alerts. These roadside deployments must operate reliably across wide temperature ranges and often run on non-standard power supplies. The Hardware Platform for Edge Computer Vision: Why the Industrial Mini PC The Need for a Form Factor That Fits the Gap Edge computer vision presents a distinctive hardware paradox: it needs enough compute power to run deep learning inference, yet it must be compact enough to deploy beside a production line, inside a control cabinet, on a street pole, or even inside a vehicle.Traditional options don’t fully fit. Embedded development boards offer limited compute and struggle with complex vision models. Standard servers and legacy industrial PCs deliver the power but are too large, too power-hungry, and too inflexible for tight deployment spaces.The industrial Mini PC—also known as an edge AI box or embedded computer—fills this gap precisely.

Industrial Mini PC: More Than Just Industrial The “industrial” label is a quality standard, not a limitation. Here is where these rugged machines shine in everyday life. Announcements Buyer Guide Comprehensive Tips Occasion Product Review Q&A Tutorials Picture an industrial mini PC. You probably imagine a factory floor. That picture is only half right. Today, industrial-grade mini PCs power digital signs, cash registers, and hospital displays. They also run home servers and network routers. The word “industrial” describes how these machines are built. It does not limit where they can be used. In fact, it is often a reason to choose one for everyday work. Industrial mini PC applications now span shops, clinics, classrooms, and living rooms. This guide explains what makes a mini PC industrial. It then shows six everyday places where these machines shine. You will also learn why ports like RS232 matter far beyond factories. What Makes a Mini PC “Industrial”? Industrial mini PCs are built to a higher standard. Four traits separate them from consumer models. Each one matters in daily use, too. 1. Fanless Cooling: Silent, Dust-Free, and Maintenance-Free Most consumer PCs rely on fans. Fans move air. They also move dust. And they wear out over time. A fanless industrial mini PC uses a solid aluminum chassis instead. It spreads heat through the metal body. There are no moving parts. As a result, noise drops to 0 dB. There is also nothing to clog or fail. This makes a fanless mini PC ideal for quiet rooms, dusty shops, and always-on setups. Fanless is not the only option, of course. HYSTOU also offers fan-cooled industrial mini PCs. The fan sits outside the chassis, on the aluminum heat sink. The case stays sealed, so dust cannot get in. Active cooling still supports higher-power processors, such as Core i5 and i7. These machines handle heavy workloads with ease. Choose fanless for silence and low maintenance. Choose air-cooled when performance comes first. 2. Wide Temperature Tolerance Consumer PCs usually work between 0°C and 40°C. Industrial mini PCs go much further. Many models run from -20°C to 70°C. Some stretch from -40°C to 85°C. That range sounds extreme for an office. However, the margin brings peace of mind. A device that survives a hot summer kiosk will never complain about a warm room. 3. 24/7 Operation and Self-Healing Features Industrial mini PCs are designed for always-on duty. They support auto power-on and wake-on-LAN. Many include a watchdog timer. The system can then restart itself after a crash. In practice, this reliability matters more than raw speed. A checkout system cannot afford downtime at noon. 4. Industrial Interfaces: RS232, Dual LAN, and GPIO Consumer mini PCs offer HDMI and USB. Industrial models add more. You get serial ports, often called RS232 or COM ports. You get dual Ethernet for stable networking. Some models add GPIO for sensors and relays. These ports look technical at first. For many users, however, they are exactly what makes the device useful. We will return to RS232 in detail. Six Everyday Places Industrial Mini PCs Shine Here is the key point. Industrial mini PCs are not limited to factories. They appear in surprising places every day. Consider these six. 1. Digital Signage and Information Displays Menu boards, mall screens, and airport displays run around the clock. That is demanding work for a computer. A fanless mini PC for digital signage is a natural fit. It plays content 24/7 without overheating. It has no fan to suck in dust from busy public spaces. Remote tools like wake-on-LAN make updates easy. For example, a restaurant menu board may run 16 hours a day. The right mini PC keeps it reliable for years. The demand is real. The global digital signage market was valued at USD 31.50 billion in 2025, according to Fortune Business Insights. It is projected to reach USD 69.90 billion by 2034. 2. Retail POS and Self-Service Kiosks This is where RS232 earns its keep. A point-of-sale system must talk to many peripherals. Cash drawers, receipt printers, and barcode scanners connect through serial ports. Self-checkout kiosks, vending machines, and ticket machines follow the same pattern. A native RS232 port does this job reliably. USB adapters can work, but they add failure points. A mini PC with RS232 ports simplifies the whole setup. Meanwhile, the fanless design keeps the checkout counter quiet. And 24/7 operation handles overnight updates and reporting. The trend is clear. The global self-service kiosk POS market was worth about USD 26.18 billion in 2026, according to Industry Research Co. It is expected to reach USD 64.92 billion by 2035. 3. Healthcare and Medical Equipment Hospitals are quiet by design. Fan noise is unwelcome in wards and clinics. Fanless industrial mini PCs fit right in. They power patient information displays, nurse station terminals, and medical carts. Many lab instruments still use serial connections. An industrial mini PC for healthcare can link them directly. Long product lifecycles also help here. Medical projects face long approval cycles. Stable hardware availability reduces compliance risk. 4. Office and Education An office desktop does not need to be loud. An industrial mini PC for office use offers silence, small size, and low power. It also lasts longer than a typical consumer box. That makes it a strong choice for offices, meeting rooms, and computer labs. Schools use these machines for digital classrooms and electronic bulletin boards. Access control and campus devices often rely on RS232 or RS485 links. One compact unit can handle several jobs at once. 5. Home Servers, Routers, and Media Stations Enthusiasts have discovered industrial mini PCs, too. A multi-LAN model makes an excellent home router or firewall. Many people run pfSense or OpenWrt on such hardware. Others use a mini PC for home server duties, like NAS storage. The same machine can run a Plex media station in the living room. Fanless design keeps it silent. Low power keeps the bill small. In fact, network engineers still use RS232 as a console port for routers

Windows 7 Installation Guide – Complete Step-by-Step Tutorial for Mini PCs Announcements Buyer Guide Comprehensive Tips Occasion Product Review Q&A Tutorials Table of Contents Before You Begin – What You Need to Know Preparation – Download ISO & Tools Step 1: Create a Bootable USB Drive with Rufus Step 2: Boot from USB and Enter Setup Step 3: Install Windows 7 Following the Wizard Step 4: Install Device Drivers Step 5: Activate Windows 7 Frequently Asked Questions (FAQ) Before You Begin – What You Need to Know Prerequisites Item Details Operating System Windows 7 Professional (SP1 recommended) USB Flash Drive 1 × USB drive, 8 GB or larger (USB 3.0 recommended for faster write speeds) Internet-Connected PC 1 × working computer (Windows or macOS) to download files Required Software Windows 7 ISO image (~2.4–3 GB) + Rufus (free, open-source) Estimated Time 20–30 minutes (excluding download time) Target Device HYSTOU mini PC with BIOS/UEFI support for Legacy boot Important Warnings Before You Start Data Loss: A clean installation will erase all data on the target drive. Back up any important files before proceeding. Hardware Compatibility: Confirm with HYSTOU support that your specific mini PC model supports Windows 7. Some newer platforms may require Windows 10/11. Power Stability: Ensure the mini PC is connected to a stable power source. Do not interrupt the installation process. Preparation – Download the Windows 7 ISO and Rufus Step 2.1: Download the Windows 7 ISO Image Open your browser and navigate to the official Microsoft digital distribution page for Windows 7 ISOs: 👉 https://massgrave.dev/windows_7_links Locate the Windows 7 Professional with SP1 section and click the download link. Select your preferred edition (Professional), language (English), and architecture (32-bit or 64-bit). Recommendation: For most HYSTOU mini PCs, use en_windows_7_professional_with_sp1_x64 (64-bit) for optimal performance. Wait for the download to complete (~2.4–3 GB). Step 2.2: Download Rufus (Bootable USB Creator) Visit the official Rufus website:👉 https://rufus.ie/en Click the Download button at the top of the page to get the latest version (e.g., rufus-4.x.exe). No installation is required — Rufus is a portable application. Simply double-click the .exe file to launch it. Step 1: Create a Bootable USB Drive Using Rufus Warning: This process will format your USB drive and erase all data on it. Make sure no important files are stored on the drive before continuing. 1.1 Select Your USB Drive and ISO File Insert the USB flash drive into your working computer’s USB port. Open Rufus. In the “Device” dropdown menu, select your USB flash drive. Verify the selection by checking the drive letter and capacity. Click “Select” next to “Boot selection” and browse to your downloaded Windows 7 ISO file. Rufus will automatically detect the image and display the edition name (e.g., en_Windows_7_Professional). Leave the Partition scheme as MBR and Target system as BIOS (or UEFI-CSM) . All other settings should remain at their defaults. 1.2 Confirm and Wait for Completion A warning dialog will appear informing you that all data on the USB drive will be destroyed. Click “OK” to confirm. Watch the progress bar at the bottom of the Rufus window. It will change from orange to green when the process is complete, and the status will read “READY”. Once complete, safely eject the USB drive using the system tray icon (“Safely Remove Hardware”). After creating the bootable USB, you may notice the drive appears to have less available space than before. This is normal — the ISO image has been written to the drive. To restore the USB drive for regular storage use, reformat it through Disk Management. Step 2: Boot from USB and Enter the Windows 7 Setup 2.1 Access the Boot Menu on Your Mini PC Insert the bootable USB drive into your HYSTOU mini PC.💡 Tip: Use a rear USB port for better compatibility during boot. Press the power button to turn on the mini PC. Immediately and repeatedly press the F11 or F7 key on your keyboard (tap rapidly — do not hold the key down). The exact key depends on your BIOS manufacturer: AMI BIOS: F7 Phoenix/Award BIOS: F11 HYSTOU default: F11 The Boot Menu will appear on screen. Stop pressing the key. If the system boots directly into the desktop or displays a black screen, restart and try again more quickly. 2.2 Select the USB Drive from the Boot Menu Use the arrow keys to navigate to your USB drive in the boot menu. It may appear as: AI Mass Storage USB: [Brand Name] Removable Device Press Enter to select it. The system will begin loading from the USB drive. You will see the “Starting Windows” loading screen, followed by the Windows Setup blue screen. This confirms a successful USB boot. Step 3: Install Windows 7 – Follow the Setup Wizard 3.1 Language and Regional Settings On the Windows Setup welcome screen, verify the following settings: Language to install: English Time and currency format: English (United States) Keyboard or input method: US Click “Next”. Click “Install now” on the next screen. 3.2 License Agreement Read the Microsoft Software License Terms. Check the box “I accept the license terms”. Click “Next”. 3.3 Choose Installation Type When prompted with “Which type of installation do you want?”, select:Custom (advanced)This performs a clean installation and gives you full control over disk partitioning. 3.4 Disk Partitioning (Critical Step) 1. You will see a list of drives and existing partitions.2. To start fresh: Select each existing partition on the target drive and click “Delete” until the entire disk shows as:Drive 0 Unallocated Space⚠️ Warning: Deleting partitions permanently erases all data on the drive. Double-check that you are selecting the correct disk, especially if your mini PC has multiple drives. 3. Select “Drive 0 Unallocated Space” and click “New”. Keep the default size (uses the entire disk) and click “Apply”. 4. Windows will automatically create a System Reserved partition and a Primary partition. Click “OK” on any confirmation dialogs. 5. Select the newly created Primary partition and click “Next”. 3.5 Wait for Installation to Complete

Fix Intel vPro AMT KVM Black Screen on HYSTOU GT-U: Dual Graphics Setup Guide Announcements Buyer Guide Comprehensive Tips Occasion Product Review Q&A Tutorials TL;DR / Quick Fix Why is AMT KVM showing a black screen? Intel AMT KVM captures video output solely from the CPU’s integrated graphics (iGPU). When an NVIDIA RTX 5050/5060 dedicated GPU is installed, the GT-U BIOS disables the iGPU by default. The Fix: Enter BIOS (F2) -> Advanced -> System Agent (SA) Configuration -> Graphics Configuration -> Set iGPU Multi-Monitor to Enabled and Primary Display to PEG. If running headless, plug an HDMI Dummy Plug into the motherboard iGPU port to load EDID display metadata. Introduction The HYSTOU GT-U series combines desktop-class NVIDIA RTX 5050/RTX 5060 graphics performance with Intel vPro® enterprise-grade out-of-band remote management. However, users deploying dedicated GPU (dGPU) models often encounter a critical configuration challenge: Intel AMT remote KVM displays a pitch-black screen, even though local monitor output works perfectly. This guide details the technical relationship between dual graphics mode and vPro functionality, provides standard step-by-step BIOS and network configuration workflows, and addresses common deployment pitfalls. Dual Graphics Mode vs. Intel vPro AMT Understanding how these two independent systems interact on a dedicated GPU mini PC is key to fixing remote KVM display issues. What Is iGPU Multi-Monitor (Dual Graphics Mode)? Dual graphics mode allows the CPU’s integrated graphics (iGPU) and the NVIDIA dedicated GPU (dGPU) to operate simultaneously. By default, most mini PC motherboards disable the iGPU as soon as a dGPU is detected. Dual graphics mode overrides this behavior. Note: This is not SLI or CrossFire—the two GPUs do not combine render pipelines for a single application. Instead, each GPU independently powers its own display interfaces and execution pipelines. What Is Intel vPro with AMT Technology? Intel vPro is a hardware-level, enterprise management platform operating below the operating system layer. Powered by Active Management Technology (AMT), IT administrators can remotely control power states, access BIOS/MEBx interfaces, and perform full desktop KVM interaction—even if the OS is crashed, corrupted, or powered off. On the HYSTOU GT-U, vPro traffic routes strictly through the dedicated Intel I226-LM 2.5G management LAN port. Why Dedicated GPUs Cause AMT KVM Black Screens Intel AMT’s hardware KVM capture engine reads frame buffer data exclusively from the Intel CPU’s iGPU. It cannot capture or encode frame buffers from a discrete NVIDIA or AMD GPU. When an RTX 5050 is active in the GT-U without dual graphics mode enabled, the BIOS completely powers down the iGPU. As a result: Local displays plugged into the RTX 5050 render correctly. Remote AMT KVM receives no frame buffer feed from the powered-down iGPU, resulting in a black screen. Why Enable Dual Graphics Mode for vPro on HYSTOU GT-U? Enabling dual graphics mode on your RTX-equipped GT-U delivers key operational benefits for remote management: Unlock Complete Remote KVM Control Restores full remote desktop access, remote BIOS configuration, and OS reimaging capabilities instead of limiting you to basic power on/off controls. Zero Compromise on Local Gaming & AI Workloads Configuring the primary display to PEG ensures your local monitors, 3D rendering, and AI tasks draw 100% of their power from the RTX 5050/5060. The iGPU runs quietly in the background dedicated to KVM encoding and management tasks. Out-of-Band Redundancy for Industrial & Edge Site Deployments Even if an NVIDIA driver update fails, crashes, or causes a system BSOD, the independent iGPU management channel remains online, allowing remote diagnostic access and system restoration. Hardware Encoding Offloading The built-in Intel QuickSync engine on the iGPU can handle lightweight video decoding, media streaming, or background IP camera monitoring, keeping the RTX GPU dedicated to heavy compute workloads. Step-by-Step Guide: Set Up vPro & AMT on HYSTOU GT-U (RTX) Follow this setup sequence to deploy Intel vPro AMT on your GT-U RTX 5050/5060 mini PC. Pre-Deployment Checklist Processor: Verify your GT-U unit features a vPro-supported processor (e.g., Intel Core Ultra 5-135H or Ultra 7-165H). Network: Connect a physical RJ45 Ethernet cable to the dedicated Intel I226-LM vPro LAN port (Wi-Fi does not support out-of-band KVM hardware capture). Hardware: Prepare a standard keyboard and an HDMI/DP Dummy Plug (EDID Emulator) for headless environments. Step 1: Enable iGPU Multi-Monitor in BIOS Power on the GT-U and repeatedly press F2 (or Del) when the HYSTOU logo appears to enter BIOS Setup. Press F7 if necessary to enter Advanced Mode. Navigate to: Advanced ->System Agent (SA) Configuration  -> Graphics Configuration. Configure the following parameters: iGPU Multi-Monitor: Set to Enabled (Core toggle to keep Intel iGPU active alongside dGPU) Integrated Graphics: Set to Enabled Primary Display: Set to PEG (Forces local OS and applications to utilize the RTX dGPU as primary rendering device) DVMT Pre-Allocated: Set to 128MB or 256MB (Allocates adequate video memory buffer for remote KVM resolution scaling) Press F10 to save changes and reboot. Step 2: Display Wiring & Headless EDID Configuration Standard Multi-Monitor Setup: Connect your primary local display to the RTX 5050 HDMI/DP port. Connect a secondary display to the motherboard’s native HDMI/DP port. Headless Deployment (No Physical Monitors): Plug an HDMI Dummy Plug (EDID Emulator) into the motherboard’s native iGPU video port. Without an active EDID signal, the iGPU display pipeline will sleep, causing KVM to remain black. Step 3: Install Drivers in Correct Sequence To prevent graphics initialization conflicts in Windows: Install the latest Intel Graphics Driver (Iris Xe / Arc) first. Install the latest NVIDIA GeForce Game Ready / Studio Driver second. Open Device Manager -> Display Adapters and verify that both Intel(R) Graphics and NVIDIA GeForce RTX 5050 display active, with no warning icons. Step 4: Initialize MEBx & Verify Remote KVM Connection Reboot the GT-U. Press Ctrl + P during POST execution to enter the Intel MEBx (Management Engine BIOS Extension) setup menu. Log in using the default MEBx password: admin. Change the default password immediately when prompted. Password Requirements: At least 8 characters, containing uppercase, lowercase, numbers, and special symbols (e.g., vPro#2026!GTU). Navigate to Intel AMT Configuration -> Network Setup to assign static IP parameters