When selecting a custom industrial LCD monitor for use in manufacturing, kiosks, transportation, control rooms, or embedded systems, it's essential to define requirements precisely. Drawing on the capabilities of Oscy Monitor and general best practices for industrial-grade displays, this checklist guides you through four critical specification areas: Interfaces, Casing & Durability, Mounting & Integration, and Brightness & Display Performance. 1. Interfaces & Connectivity: Ensuring Compatibility An industrial monitor often needs to interface with a variety of systems — PCs, embedded controllers, cameras, analog machines — possibly older or proprietary. Therefore, you should specify: Multiple video inputs: For maximum compatibility, ensure the display supports standard inputs like HDMI and VGA — but also less-common options such as AV, BNC, USB, or composite, depending on legacy or specialized equipment. Oscy models, for instance, can offer HDMI, VGA, AV, BNC, and USB. Touch capability (if needed): If your application demands user interaction — e.g. kiosks, HMI operator panels, POS — consider whether you need a resistive or capacitive touch panel. Oscy offers optional resistive or capacitive touch with USB-based plug-and-play input. Audio or peripheral support: Some industrial monitors include built-in audio outputs or support for additional modules (card readers, external sensors), which can streamline integration in kiosks, embedded devices, or multimedia setups. Power input flexibility: For embedded systems or non-conventional installations (vehicles, kiosks, machines), having a wide input-voltage range (e.g. 9 V–32 V) helps avoid needing extra power converters. Oscy cites this flexibility on several models. Checklist questions: Which video input(s) does your source equipment support? HDMI? VGA? Composite/BNC? Do you need touch functionality? Resistive or capacitive? USB or alternative touch interface? Will the monitor need built-in audio or external peripherals (card reader, sensors)? What power input voltages are available at installation? 2. Casing, Durability & Environmental Tolerance: Building for Real-World Use Industrial environments — whether factory floors, kiosks, transportation vehicles, or control rooms — often involve dust, heat, vibration, or 24/7 operation. Thus: Rugged construction: Choose monitors built with industrial-grade components. Full-metal enclosures, robust internal components, and vibration-resistant housing improve reliability in demanding settings. Oscy emphasizes these qualities for their industrial-grade line. Wide operating temperature range: If monitors will operate in extreme climates or poorly controlled environments, ensure the specification supports a broad temperature span (for example, –10 °C to 60 °C or more) so continuous operation remains stable. Oscy lists –10 °C to 60 °C for certain models. Customization — enclosure type, branding, and design: When embedding into custom machinery, kiosks, or dashboards, you may need special casing: open-frame, panel-mount, or sealed housings — possibly with custom colors or logos. Oscy’s OEM/ODM services support custom branding and enclosures. Compliance and quality assurance: Confirm that the monitors meet relevant safety and environmental standards (e.g. CE, RoHS, CCC, IEC) — especially important for large-scale deployment or export. Oscy indicates compliance with such global standards. Checklist questions: Will the monitor operate in a harsh or uncontrolled environment (dusty, hot, humid, vibration)? What enclosure type does your installation require (open-frame, sealed, metal housing)? Is custom branding or design necessary (e.g. logo, color, custom casing)? Are compliance certifications required (e.g. CE, RoHS, IEC)? 3. Mounting & Integration: Making Installation Seamless How you physically mount or embed the monitor can greatly affect installation ease and long-term stability. Key considerations: Mounting standards (e.g. VESA): Standard mounting patterns (like 75 × 75 mm or 100 × 100 mm) help ensure compatibility with kiosk frames, control cabinets, or standard monitor arms. Oscy’s monitors commonly support these VESA mount options. Open-frame or embedded options: If you’re building a custom housing, dashboard, or control panel, open-frame monitors provide flexibility, allowing you to embed the display directly into machinery or kiosks. Oscy offers such open-frame models for embedded applications. System integration support: For OEM/ODM applications, the manufacturer should offer integration support — e.g. custom interface configurations, appropriate power supply wiring, possibly even embedding external modules (card readers, sensors, etc.). Oscy promotes such flexibility for integrators. Checklist questions: Will the monitor be wall-mounted, embedded in a kiosk, or attached via arm/stand? Does your mounting system support standard patterns (VESA)? Do you require an open-frame or custom housing for embedding? Do you need additional peripherals or custom wiring for integration? 4. Brightness, Display Performance & Environmental Visibility Industrial and commercial environments can vary dramatically in lighting — from dim control rooms to brightly lit kiosks, outdoor terminals, or factory floors. Ensuring the display remains readable and reliable under these conditions is vital. High brightness (nits / cd/m²): For use under strong ambient light (e.g. near windows, outdoors, outdoor kiosks, vehicle cabins), choose a monitor with elevated luminance (e.g. 500–600 cd/m² or more). Oscy offers high-brightness options in some models — for example, their 7″ IPS panel model supports 500–600 cd/m² for visibility in bright industrial environments.  Consistent brightness and contrast under variable lighting: If lighting conditions often change (e.g. day/night shifts, outdoor stations), consider features like anti-glare coatings, optical bonding, or ambient-light sensing (if available from supplier) to maintain readability. Many industrial-grade monitors from other vendors offer such optional enhancements. Panel resolution and aspect ratio: Depending on your application — e.g. dashboards, detailed graphs, camera feeds, video — choose a resolution and aspect ratio that meets clarity and layout needs. For example, Oscy provides a variety of sizes and aspect ratios from 4:3 to widescreen. Reliability under 24/7 operation: Industrial displays should tolerate continuous operation, brightness stability, and minimal degradation over time. Industrial-grade components and robust backlights are essential. Oscy emphasizes this reliability as part of its OEM/ODM offerings. Checklist questions: What ambient lighting conditions will the monitor face (indoor dim, bright indoor, outdoor, direct sunlight)? What minimum brightness (nits / cd/m²) is required to ensure consistent readability? Do you need anti-glare, bonded glass, or ambient-light sensing for variable lighting? What resolution and aspect ratio best suits your display content (text, dashboards, video, graphics)? Will the display run 24/7, and does it need to maintain brightness/contrast over long periods? 5. Why Choose a Vendor like Oscy Monitor — Customization, Compliance & Integration Using a specialized industrial LCD supplier such as Oscy Monitor offers several advantages when specifying a custom monitor: Wide OEM/ODM customization: Oscy supports custom touch or non-touch panels, bespoke interface and power configurations, branded enclosures, and even custom packaging — allowing you to tailor displays to your exact application. Full-size range: From small 7″ touch-monitors to large 22″ industrial panels, you can choose the appropriate size for embedded systems, kiosks, control rooms, or large dashboards. Rigorous quality and compliance standards: Monitors meet international safety/environment standards (e.g. IEC 62368, CE, RoHS, CCC), offering reliability and ease of deployment across different regions. Support and integration services: Oscy’s engineering team can assist in configuring and customizing displays — reducing integration risk and accelerating time to deployment. By partnering with a manufacturer with strong industrial experience, you benefit from better reliability, flexibility, and long-term support — especially critical in professional, mission-critical, or high-volume deployments. 6. Sample Specification Template Here is a sample spec you can provide to a vendor when requesting a custom industrial LCD monitor: Display Size & Aspect Ratio: e.g. 12″, 16:9 or 17″, 4:3 Resolution: e.g. 1280×800 (for 12″), 1280×1024 (for 17″) Brightness: Minimum 500 cd/m² (sunlight-readable) Interfaces: HDMI, VGA, USB (for touch, if needed), BNC (if analog video needed), optional audio out Touch Option: Resistive or capacitive — USB touch input Power Input Voltage: 9–32 V DC (or as required by your system) Operating Temperature Range: –10 °C to +60 °C (or wider if needed) Mounting: VESA 75×75 mm or 100×100 mm; open-frame option for embedding Enclosure / Housing Requirements: Metal housing; custom color/logo; dust- and vibration-resistant; compliance with CE / RoHS / IEC 62368 Additional Features: Built-in speakers (if audio needed), custom logo/branding, multi-language on-screen menu (for international deployment), optional peripherals (e.g. card readers, sensors) Conclusion   Specifying a custom industrial LCD monitor requires careful thought across interfaces, mounting, casing, and display performance. A well-specified industrial monitor — with the right inputs, rugged housing, flexible mounting, and adequate brightness — will deliver reliable, long-term performance in demanding environments. Partnering with a vendor such as Oscy Monitor gives you access to deep customization, global compliance, and integration support — ensuring that your display solution is not only fit for today’s needs but scalable for future deployments.

In modern transportation systems and mission-critical control rooms, the choice of display technology is more than a matter of convenience — it’s foundational to safety, efficiency, and real-time decision-making. Open-frame monitors, such as those produced by Oscy Monitor, are emerging as a preferred solution for real-time dashboards in transportation and control-room environments. This article explores why open-frame displays are especially suited to these applications, and how they support robust, scalable, and flexible deployment. What Is an Open-Frame Monitor — and Why It Matters An open-frame monitor is fundamentally different from a typical consumer screen. Instead of arriving in a finished enclosure with bezel and housing, an open-frame display comes as a bare panel wrapped in a metal chassis or mounting frame — giving system integrators direct access to the underlying hardware and enabling embedding into custom enclosures, dashboards, consoles, or kiosks. Key characteristics of open-frame monitors include: No external housing — enabling custom mechanical integration and flexible mounting. Multiple mounting options — front, rear, side, VESA mounting, or custom chassis mounts depending on design needs. Support for diverse touch technologies — including resistive, capacitive (PCAP), infrared (IR), SAW — letting integrators choose touch interface suitable for the environment (e.g., gloved operators, multi-touch requirements, outdoor use). Long product lifecycle and industrial-grade build — open-frame displays often offer stable form factors and reliable availability over years, critical for systems where rework and redesign are costly. Because of these traits, open-frame monitors are not “just another screen” — they are building blocks for purpose-built dashboards, dashboards integrated directly into equipment, vehicles, consoles, or custom control panels. Why Open-Frame Monitors Fit Transportation & Control Room Use Cases Transportation systems (buses, trains, railways, stations, control centers) and control rooms (traffic management, dispatch centers, surveillance operations) impose demanding requirements that consumer-grade monitors often cannot meet. Industrial open-frame displays address those needs thoughtfully: 1. Durability and 24/7 ReliabilityControl rooms and transit centers often operate around the clock, and transit vehicles must withstand vibration, motion, and frequent environmental stress. Oscy’s industrial monitors are built with rugged components, full-metal enclosures, and vibration-resistant housings — designed to operate continuously in harsh conditions and support wide temperature ranges (e.g., –10 °C to 60 °C). Such robustness ensures that dashboards, alerts, maps, CCTV feeds, and other real-time displays remain dependable even in demanding environments. 2. Flexible Power & Connectivity IntegrationTransportation systems and control centers often pool data from diverse sources — sensors, cameras, ticketing systems, network feeds, legacy equipment, etc. Oscy monitors support a broad range of signal inputs (HDMI, VGA, AV, BNC, USB) and flexible power inputs (e.g., 9 V–32 V), minimizing the need for additional converters and simplifying integration into varied infrastructures. This versatility makes them suitable for retrofits, upgrades, or new installations — regardless of existing systems or cabling constraints. 3. Mounting Versatility & Custom EmbeddingBecause they come without external housings, open-frame displays can be embedded directly into consoles, operator panels, kiosks, ticketing machines, vehicle dashboards, or custom-built control cabinets. This flexibility allows system designers to maintain clean, space-efficient control-room layouts or vehicle dashboards — often critical where space is limited or when ergonomics matter. 4. Optional Touch Capability for Interactive ControlFor scenarios requiring operator interaction — such as dispatch consoles, route planning terminals, passenger information systems, or maintenance dashboards — some open-frame monitors offer touch panels (resistive or capacitive). This enables interactive control interfaces without losing the durability or environmental resilience typical of industrial displays. 5. Scalability & OEM/ODM FlexibilityWith open-frame displays, organizations can order standardized modules, customize them with logos or interfaces, or request OEM/ODM adaptations to meet specific project requirements (e.g., localized menu languages, custom signal ports, special power ranges). Moreover, because open-frame monitors maintain consistent mechanical specs over time, integrators can confidently plan large deployments — for instance, across dozens of vehicles or multiple control rooms — without worrying about frequent redesigns. Real-Time Transportation Dashboards: Use Cases & Benefits Implementing open-frame monitors in transportation and control environments unlocks a range of valuable use cases: Onboard vehicle displays — for buses, trains, or shuttles: real-time route information, schedules, announcements, CCTV feeds, diagnostics. Station signage and wayfinding kiosks — interactive ticketing machines, arrival/departure boards, platform alerts, passenger information systems. Central control rooms / dispatch centers — real-time dashboards showing network status, traffic flow, vehicle locations, maintenance alerts, CCTV feeds. Security and surveillance monitoring — combining live video feeds, alert systems, sensor data, and control interfaces for security or infrastructure monitoring. Maintenance and operations dashboards — monitoring vehicle health, system diagnostics, environmental sensors, and predictive maintenance alerts. The benefits of deploying industrial, open-frame displays in these scenarios go beyond mere aesthetics — they significantly enhance operational efficiency, situational awareness, and system reliability. As transit systems evolve toward “smart transportation,” the displays become an essential backbone for communication, control, and decision-making. Specifically, such deployments can: Improve passenger experience (clear, real-time information; interactive kiosks). Enable faster operator response in control rooms when issues arise. Reduce downtime and maintenance costs thanks to rugged, long-lifespan hardware. Simplify integration and customization for diverse transportation or control infrastructures. Support scalability across multiple vehicles, stations, or control centers. Best Practices When Designing Control Rooms & Transportation Display Systems If you’re planning to build or upgrade a control room, transit dashboard system, or station terminal using open-frame monitors, keep the following recommendations in mind: Choose displays rated for industrial environments (wide temperature, vibration resistance, continuous operation) rather than consumer-grade screens. Opt for open-frame monitors when you need custom embedding — e.g., into dashboards, consoles, kiosks, or vehicles — to ensure a clean, integrated look. Evaluate your power and connectivity requirements carefully (voltage range, interface types, signal sources) to match the display with existing or planned hardware infrastructure. If interactivity is needed, select a monitor with a touch panel (capacitive or resistive) that suits your use case (operator use, kiosk, outdoor, etc.). Plan for scalability and future maintenance: choose models with long lifecycle, wide OEM/ODM support, and global certifications (e.g., CE, RoHS, IEC). Use modular design and consistent mechanical interface standards (e.g., VESA or custom mounting) to make future upgrades or replacements easier. Conclusion For modern transportation systems and mission-critical control rooms, the choice of display hardware has major implications for reliability, usability, and long-term maintainability. Open-frame monitors — like those from Oscy Monitor — combine industrial-grade durability, flexible mounting and integration, customizable touch capabilities, and wide compatibility with diverse power and connectivity requirements.   These attributes make open-frame displays especially suitable for real-time dashboards in transit vehicles, control centers, stations, or kiosks — forming the visual backbone of “smart transportation.” By investing in rugged, OEM/ODM-ready open-frame displays, transit operators, system integrators, and control-room designers can deliver greater efficiency, safety, and operational flexibility in a scalable, future-ready way.

In modern healthcare environments, touch-enabled monitors are transforming workflows — from diagnostic review and patient monitoring to mobile charting and surgical visualization. However, deploying touch monitors in medical settings requires more than simply picking a screen. To ensure safety, reliability, and compliance, hospital IT teams and clinicians must carefully evaluate hygiene, durability, certification, and integration factors. This article outlines the essential considerations and best practices when selecting and deploying medical-grade touch monitors. 1. Why Touch Monitors Matter in Healthcare Enhanced clinical workflows: Touch monitors provide intuitive, fast user interaction — whether used for reviewing diagnostic images, navigating electronic health records, adjusting patient-monitoring parameters, or interacting with medical equipment. Flexibility & integration: Modern medical facilities often employ mobile workstations on carts, bedside terminals, or operating-room displays. Touch monitors can be seamlessly embedded into mobile carts, surgical stations, or diagnostic workstations, enabling flexible deployment across departments. High-fidelity visualization: In diagnostic, radiology, or surgical contexts, clarity, accurate image reproduction, and consistent display performance are non-negotiable. Medical-grade monitors deliver the sharpness and stability required to support precise decision-making. Because of these reasons, touch monitors designed specifically for medical use — rather than consumer-grade displays — are strongly preferred. 2. Hygiene & Infection Control Considerations In healthcare facilities, hygiene isn’t optional — it’s critical. Touch monitors will be handled by multiple clinicians, sometimes under urgent conditions, and may be exposed to contaminants, bodily fluids, or disinfectants. When selecting and deploying monitors, consider: Seamless, easy-to-clean surfaces: Monitors with flat, bezel-less, or sealed front panels minimize crevices where pathogens, dust, or residue can accumulate. A smooth, single-glass surface simplifies disinfection. Resistance to frequent disinfection: Medical-grade touchscreens must withstand repeat cleaning with hospital-grade disinfectants (e.g., quaternary ammonium compounds, hydrogen peroxide, bleach-based solutions) without surface degradation, discoloration, or touch-responsiveness loss. Contamination-resistant construction: Ideally, the monitor should feature sealed construction (e.g., IP65 or higher) to prevent ingress of liquids or disinfectants during spray cleaning or wipe-downs. Glove and fluid compatibility: In many clinical contexts — e.g., operating rooms, intensive care units — clinicians wear gloves, and monitors may come into contact with fluids or gels (e.g., saline, antiseptics). Touchscreens designed for medical use should support reliable input under these conditions. Failing to consider hygiene may not only compromise device longevity — it can also pose infection risks. Therefore, hygiene and disinfection compatibility must be foregrounded in any medical deployment strategy. 3. Reliability, Durability & Operational Requirements Medical environments are demanding: monitors may be used 24/7, moved between departments, exposed to variable environmental conditions, or subjected to physical stress. Key reliability considerations include: Industrial-grade components: Unlike consumer displays, medical-grade monitors should use robust internal components (glass overlays, rugged enclosures, vibration-resistant frames, capable of continuous operation) to ensure long-term performance. Manufacturers such as Oscy Monitor design their industrial-grade solutions specifically to withstand harsh or variable conditions. Wide operating tolerance: Devices should tolerate a range of environmental conditions — temperature swings, humidity, possible mechanical shock or vibration — especially if they are to be mounted on mobile carts or used in different hospital areas. Continuous operation support: Medical displays often need to run nonstop — for patient monitoring, imaging review, or critical-care dashboards. It's vital that display hardware is rated for continuous operation with high mean time between failures (MTBF). Touch technology suited for medical use: Resistive or projected-capacitive (PCAP) touch panels are preferred — they are more rugged, withstand repeated use, and maintain accuracy even with frequent disinfecting or glove use. Integration flexibility: Monitors should support relevant mounting standards (e.g., VESA), multiple input interfaces (HDMI, USB, etc.), and optionally custom configurations to fit carts, carts-mounted workstations, OR displays, or embedded devices. Reliability and durability reduce maintenance overhead, avoid unscheduled downtime, and ensure that clinical staff can focus on patient care rather than troubleshooting hardware failures. 4. Regulatory Compliance & Certification Deploying touch monitors in a medical context demands adherence to relevant safety, environmental, and quality standards. When evaluating vendors and devices, pay attention to: International safety & environmental standards: Medical-grade monitors from trusted suppliers typically comply with relevant standards such as IEC 62368, CE, RoHS, and other safety certifications to ensure electrical safety, environmental compliance, and overall build quality. Medical-specific certifications where needed: For monitors used in diagnostic, imaging, or surgical environments, compliance with medical-device standards such as IEC 60601 (or related versions such as IEC 60601-1 for electrical safety) and electromagnetic compatibility is often required. Antimicrobial or hygiene-related certification/coating: As noted by other manufacturers, antimicrobial surface treatments or coatings compliant with hygiene standards (e.g., ISO 22196 or similar) can be a useful feature to mitigate infection risk. Documentation and traceability: For hospitals and regulatory bodies, having documentation of certifications, compliance reports, and manufacturing quality controls helps support audits, quality assurance, and regulatory compliance. Choosing monitors with the appropriate certifications is not just best practice — it’s often a regulatory requirement, especially in critical-care, diagnostic imaging, or surgical settings. 5. Customization & Integration: Why OEM/ODM Solutions Matter One of the advantages offered by vendors such as Oscy Monitor is their OEM/ODM capabilities — a significant asset for medical device OEMs, hospital integrators, or system designers. Key benefits include: Tailored form factors: Depending on the use case (mobile cart, bedside terminal, diagnostic workstation, OR monitor), you may need specific screen sizes (from compact 7″ to larger 22″ or more), custom touch technology (resistive vs. capacitive), or special mounting options. Oscy supports a wide size range and offers customization. Custom input/output interfaces: Medical workstations often integrate with varied hardware — card readers, USB peripherals, legacy equipment, or specialized input/output modules. Having flexibility in interface options helps with seamless integration. Branding and packaging alignment: For OEMs building complete medical devices or carts, being able to imprint logos, choose custom packaging, and adapt appearance helps align with brand identity and professional product standards. Scalable production & support: For larger medical systems — hospital-wide deployments, multiple carts or ORs — working with a manufacturer capable of scalable production and global support ensures consistency across units and reduces supply-chain risk. These customization and integration advantages are especially valuable for medical equipment manufacturers or health systems implementing bespoke solutions rather than off-the-shelf equipment. 6. Practical Recommendations for Deploying Touch Monitors in Hospitals & Clinics Based on the above considerations, here are practical recommendations when you plan to deploy touch monitors in medical settings: Define use case clearly — e.g., diagnostic review, patient monitoring, mobile cart workstation, OR display — so you can match screen size, touch technology, and mounting accordingly. Prioritize hygiene features — choose displays with flat, sealed, bezel-less front panels and surfaces that can withstand frequent disinfection. If possible, opt for screens with antimicrobial coatings or smooth glass overlays. Ensure compliance and certification — verify that the monitors meet relevant safety and medical-device certifications (e.g., IEC 62368, IEC 60601, CE, RoHS), and retain documentation for audits or regulatory compliance. Select rugged, industrial-grade hardware — avoid consumer-grade monitors; instead choose displays built for 24/7 operation, able to tolerate environmental stress (temperature, humidity, vibration), and with long MTBF/reliability ratings. Plan for integration and future maintenance — ensure the monitors support required input/output interfaces, mounting (VESA or custom), and that the vendor offers customization, global support, and spare parts if needed. Coordinate with infection control protocols — incorporate monitor cleaning and disinfection into hospital hygiene workflows; choose touch surfaces compatible with disinfectants, glove use, and fluid exposure. Test before large-scale deployment — perform pilot installations (e.g., in a ward or a mobile cart) to validate real-world cleaning, durability, and integration before scaling hospital-wide. 7. Why a Supplier Like Oscy Monitor Can Be an Asset Manufacturers like Oscy Monitor — with 14+ years of experience in industrial-grade LCD and touchscreen solutions — are well-positioned to meet the demanding requirements of medical deployments. Oscy’s emphasis on customization, industrial-grade components, wide operating tolerances, multiple interface options, and compliance with international safety and environmental standards (IEC 62368, CE, RoHS, CCC) make them a compelling choice for integrators, medical-device OEMs, or health systems seeking robust, scalable display solutions. By partnering with a supplier offering OEM/ODM services, hospitals or equipment vendors can secure tailored, future-proof solutions — whether for patient monitoring, diagnostic workstations, mobile carts, or embedded systems. Conclusion Deploying touch monitors in medical settings is not simply a matter of buying “any touchscreen.” It requires deliberate consideration of hygiene, reliability, certification, and integration. The success of such deployments hinges on choosing the right type of monitor — one that can withstand frequent cleaning, glove use, environmental stress, and round-the-clock operation — while meeting medical-device standards and integrating smoothly into clinical workflows.   Medical-grade, industrial-class touch monitors from experienced OEM/ODM manufacturers like Oscy Monitor offer a strong foundation for such deployments. By prioritizing infection control, reliability, compliance, and customization, healthcare organizations can deploy touch-enabled displays that not only improve operational efficiency but also maintain the highest standards of patient safety and care.

As global industries push toward carbon reduction and sustainable manufacturing, display technologies are facing increasingly strict energy-efficiency requirements. Industrial displays—often high-brightness, rugged, and designed for continuous operation—must now meet new national standards to ensure lower energy consumption without compromising performance. China’s latest standard, GB 21520-2023 – “Energy Efficiency Limits and Grades for Displays”, officially takes effect on June 1, 2024. For industrial display manufacturers, including companies such as OSCAN / Oscy Monitor, this new regulation introduces both compliance challenges and opportunities for technological advancement. This article provides a comprehensive explanation of GB 21520-2023 and outlines how industrial display manufacturers can prepare and benefit from the new requirements. Overview of GB 21520-2023 Purpose and Background GB 21520-2023 replaces the older 2015 edition, updating energy-efficiency requirements to: Reduce power consumption across the display industry Encourage adoption of more efficient technologies Support national energy-saving and carbon-neutral goals The standard introduces new test protocols, revised energy grades, and expanded product coverage—reflecting today’s rapid evolution in display technologies. Expanded Scope of Application Unlike the older version, GB 21520-2023 applies to a much broader range of display products. Key additions include: OLED displays LED integrated display terminals DC-powered display devices High-performance displays (such as high-resolution or HDR-capable screens) Some specialized categories, however, remain excluded, such as: VR/AR/MR headsets Medical imaging displays Cinema-grade projection equipment KVM or console-specific display modules This expansion means many industrial-grade devices—previously not regulated—must now meet mandatory energy standards. Energy Efficiency Grades and Power Requirements GB 21520-2023 defines three energy-efficiency grades: Level 1 — Highest efficiency Level 2 — Standard efficiency Level 3 — Minimum acceptable efficiency These limits differ depending on display type (LCD, OLED, LED integrated terminals, etc.). The standard also places new restrictions on: On-mode power consumption Sleep-mode power consumption Off-mode power consumption Industrial displays must now optimize energy behavior not only during active use, but also during idle and standby states. Updated Testing Methods To accurately measure power and efficiency, the standard introduces updated testing rules, including: More precise measurement equipment requirements Standardized viewing distance and brightness conditions Additional tests for OLED and LED integrated displays High-performance-display requirements such as: Native resolution Horizontal viewing angle Color gamut coverage HDR peak luminance These changes ensure consistency and reliability in evaluating energy performance across various display technologies. Certification, Conversion, and Compliance Timeline Manufacturers must pay close attention to certification requirements. Key points include: New certification aligns with GB 21520-2023, replacing the older GB 21520-2015 rule. Existing certificates under the old standard must be converted before May 31, 2025. After the transition deadline, outdated certificates will be suspended and eventually revoked. Annual surveillance audits conducted after June 1, 2024 must comply with the new standard. Certification bodies have already opened applications based on GB 21520-2023. For display manufacturers, timely preparation is essential to maintain market access. Impact on Industrial Display Manufacturers For companies such as OSCAN (Oscy Monitor), which specialize in industrial LCD monitors and touch displays, GB 21520-2023 introduces significant changes across product development, testing, and market positioning. Product Design and Engineering Manufacturers must adopt new design strategies to achieve higher efficiency levels, such as: High-efficiency backlight systems (e.g., advanced LED or mini-LED designs) Automatic Brightness Control (ABC) for dynamic power savings Optimized driver boards and power-management ICs Low-power display controllers and processors Targeting Level 1 or Level 2 energy efficiency can significantly enhance product competitiveness, especially in power-sensitive industrial environments. Laboratory and Testing Upgrades To meet stricter testing requirements, companies must enhance their in-house testing capabilities: Calibration-grade luminance meters Higher-accuracy power analyzers Controlled lighting environments Expanded test procedures for sleep/off-mode power Capability to evaluate high-performance displays (HDR, wide-gamut, high-refresh-rate) A well-equipped testing facility ensures accuracy, reduces certification risk, and shortens time to market. Certification and Compliance Management Manufacturers must plan ahead for: New-standard certification applications Conversion of existing certifications Annual audits aligned with GB 21520-2023 Documentation updates (specification sheets, test reports, energy labels) Failure to comply may result in suspended certificates, delayed shipments, or lost market access. Market Strategy and Brand Positioning Energy efficiency is becoming a purchasing priority for industrial clients. Manufacturers can leverage compliance to: Promote “GB 21520-2023 Level 1 Certified” as a premium feature Strengthen brand reputation as a green, energy-efficient supplier Reduce customers’ long-term operating costs Support smart-factory and environmental-sustainability initiatives OEM/ODM partners—especially in automation, transportation, digital signage, and industrial control—actively seek low-power display solutions to meet their own energy goals. Long-Term Sustainability and Innovation GB 21520-2023 encourages manufacturers to pursue long-term innovation: Smart power-management algorithms Light-sensor-based brightness control AI-driven display optimization Ultra-low-power display materials Integration with renewable-energy powered systems Companies that embrace these advancements will be better positioned in global green-manufacturing ecosystems. Recommendations for OSCAN (Oscy Monitor) and Industrial Display Brands Based on industry standards and typical capabilities of established industrial display manufacturers, several strategic actions are recommended: Perform a Full Product Energy-Efficiency Audit Identify: Models already meeting Level 1/Level 2 Models needing redesign High-performance displays requiring specialized testing Upgrade Design for Lower Power Consumption Focus on: Efficient backlights Auto brightness Optimized PCBA power rails Energy-efficient touch controllers Accelerate New-Standard Certification Prepare documentation early and begin certification applications immediately. Promote Energy-Efficient Product Lines Highlight compliance in marketing: Website product pages Datasheets Catalogs OEM/ODM proposals Trade shows and customer presentations Strengthen R&D Around Green Display Technologies Build long-term competitive advantage through sustainable innovation. Conclusion GB 21520-2023 marks a significant milestone in China’s efforts to enhance energy efficiency across the display industry. For industrial display manufacturers—especially those producing rugged industrial monitors, touch displays, and high-brightness screens—the new standard represents both a compliance requirement and a strategic opportunity. Companies that proactively adapt their designs, upgrade testing facilities, and adopt energy-efficient technologies will gain: Stronger market competitiveness Greater customer trust Compliance with national sustainability trends A future-proof product portfolio   For manufacturers like OSCAN (Oscy Monitor), aligning with GB 21520-2023 not only ensures regulatory compliance but also reinforces their position as a leading provider of efficient, reliable, and environmentally responsible industrial display solutions.