Shenzhen Shinho Electronic Technology Co., Limited

Railway self-service kiosks give passengers direct access to ticket searches, fare information, route details, and station services without going through a staffed counter. These terminals are commonly installed in ticket halls, station entrances, waiting areas, and other high-traffic passenger zones. For this project, a 19-inch industrial panel PC was integrated into the railway kiosk as the main touchscreen and computing unit. The system runs Ubuntu-based kiosk software and supports passenger interaction, data communication, and connection with external kiosk devices. 1. Technical Requirements The terminal needed to operate for long hours while remaining easy to read and use in a public railway environment. Since the computer is built directly into the kiosk enclosure, the selected hardware also had to cope with temperature changes, frequent touch operation, and occasional impact. To address these environmental and operational needs, the system required: 19-inch touchscreen suitable for ticketing and passenger information interfaces 1000-nit high-brightness display for better visibility in bright station areas and semi-outdoor locations 3 mm tempered cover glass to protect the display surface from repeated public use and accidental impact -25°C to 75°C operating range for terminals exposed to seasonal temperature variation 9–30V wide-voltage input for more flexible kiosk power integration Ubuntu compatibility for the customer’s kiosk application LAN and USB connectivity for network communication and peripheral devices Compact all-in-one construction for installation inside the terminal enclosure These functions were more relevant to the project than adding separate commercial computers and displays inside the kiosk.   2. Solution Implementation The 19-inch panel PC was installed directly into the front section of the railway self-service terminal. Its display, touchscreen, computing platform, and communication interfaces are integrated into one industrial unit, which reduces the amount of internal cabling and hardware required inside the kiosk. The system architecture: Industrial Panel PC → Touch Interface → Ubuntu Kiosk Software → Railway Passenger Services Through this integrated touch interface, the system supports key passenger self-services, including: ticket search route information fare inquiry station information self-service operations First, the 1280 × 1024 display provides enough screen space for menu navigation, journey details, fare data, and service instructions without making the interface overly dense. Second, a 1000-nit screen was selected because railway terminals are not always installed under controlled indoor lighting. Kiosks positioned close to entrances, glass walls, or outdoor areas can receive strong ambient light, making standard commercial displays difficult to read. Third, the 3 mm tempered glass cover also adds a practical layer of protection for a public-facing terminal. Passengers interact with the same screen throughout the day, so resistance to scratches, knocks, and repeated contact is more important than it would be in a closed industrial control cabinet. Fourth, for the computing side, the Intel Core i5 platform provides enough performance to run the Ubuntu kiosk interface and handle routine passenger-service software without requiring a separate external PC. Fifth, the available LAN and USB interfaces allow the terminal builder to connect other kiosk hardware as required, such as ticket printers, barcode readers, card readers, or communication modules.   3. Project Benefits Using an integrated industrial panel PC simplified both the passenger-facing interface and the internal kiosk layout. The terminal manufacturer could build the application around one main computing platform instead of combining a separate monitor, touch controller, and embedded PC. The deployment provided several practical benefits: Clearer screen visibility in bright station and semi-outdoor environments Better front-panel protection through the 3 mm tempered glass surface Broader temperature tolerance for kiosks installed in less controlled environments Simpler internal installation with the touchscreen and computer combined in one unit Flexible power integration through the 9–30V DC input range Ubuntu software compatibility for the existing kiosk platform Straightforward peripheral expansion through LAN and USB connections Reduced internal cabling compared with a separate PC-and-monitor arrangement For passengers, the result is a single touchscreen interface for common railway services. For the kiosk manufacturer, it provides a simpler hardware platform that can be integrated into different terminal designs. 4. Customer Testimonial “We installed the 19-inch panel PC in the front of our railway self-service terminal and used Ubuntu for the kiosk software. The high-brightness screen is easy to read in the station entrance area, and the front glass gives us better protection for public use. Integration was also simpler because the display and computer are in one unit.” — System Integration Engineer, Railway Kiosk Manufacturer   This railway kiosk deployment uses a 19-inch industrial touch panel computer as the central HMI and computing platform for passenger self-service. High brightness, tempered front glass, wide-temperature operation, and flexible DC input make the unit better suited to railway terminals than a standard commercial touchscreen computer. The all-in-one design also keeps the kiosk architecture compact while leaving enough connectivity for the peripherals required by the final terminal.

Arcade gaming cabinets require a display that can be integrated into a compact enclosure while providing clear images and responsive user interaction. The monitor must work with the cabinet’s control system, support commonly used video inputs, and remain stable during continuous operation. For this application, SIHOVISION provides the SL900M capacitive touch monitor. Available in display sizes from 10 to 21.5 inches, the monitor combines high-definition image output, capacitive touch control, and multiple signal interfaces in a compact design. 1. Application Background The customer was developing an arcade gaming cabinet with an integrated display and physical control panel. The cabinet included a joystick, illuminated buttons, and an internal computing system. The monitor needed to fit into the upper section of the cabinet and connect with the gaming computer through standard video and USB interfaces. The application required a display project that could support both visual output and interactive functions. The monitor also needed to provide reliable operation in indoor entertainment environments where the equipment may remain powered on for extended periods. 2. Technical Requirements The display solution was selected based on the cabinet structure and the requirements of the gaming system. Requirement SL900M Solution Display size 10 to 21.5 inches Touch technology Capacitive touch Touch points Up to 10 points Touch interface USB Video input VGA, DVI, HDMI Brightness 350 cd/m² Contrast ratio 1000:1 Response time 5 ms Touch accuracy ±2 mm Operating temperature -10°C to 60°C The capacitive touch panel provides responsive operation for interactive menus, game selection, system configuration, and other touch-based functions. With a brightness of 350 cd/m² and a contrast ratio of 1000:1, the monitor provides readable images for the cabinet’s display area without requiring a high-brightness outdoor panel. The range of available sizes could be adapted to different cabinet layouts. A smaller model can be used for compact countertop machines, while a larger model can be selected for full-size arcade cabinets. 3. Solution Implementation The SL900M was installed in the upper display section of the arcade gaming cabinet. The monitor was connected to the external gaming computer through the available VGA, DVI, or HDMI input. l  Display integration: The monitor was fitted into the upper section of the arcade cabinet to align with the cabinet’s front panel and viewing angle. l  Video connection: VGA, DVI, or HDMI was selected according to the output interface of the gaming computer. l  Touch connection: The USB touch interface was connected to the computer so that the system could receive input from the capacitive panel. l  System testing: The display, touch response, image output, and connection stability were tested together with the arcade control panel and gaming software. The SL900M also supports customization based on project requirements. Display size, touch interface, and other configuration details can be adjusted for different cabinet structures and system designs. 4. Project Benefits After integration, the touch monitor provided a stable interface between the user and the arcade gaming system. The customer was able to use the display for game content, menu navigation, and touch-based system functions while maintaining the physical joystick and button controls on the cabinet. This configuration also supports future product variations. The customer can use the same display platform for different arcade cabinet models by changing the screen size or adjusting the installation structure. The monitor can also be combined with a compact industrial mini PC when the cabinet requires a dedicated computing platform for game software and graphics processing. 5. User Feedback “The SIHOVISION SL900M has improved the efficiency of our arcade gaming system development. The capacitive touch technology provides responsive operation, and the multiple video inputs make it easier to connect the monitor with different computing platforms.” This application demonstrates how an industrial touchscreen monitor can be integrated into an arcade gaming cabinet as a high-performance display and interactive interface. By combining capacitive touch operation, multiple video inputs, flexible sizing, and external computer compatibility, the Sihovision touchscreen monitor provides a practical display solution for arcade machines and other interactive entertainment equipment.

A factory automation integrator was upgrading the SCADA interface for a packaging and material-handling line. Operators needed a reliable local terminal to monitor PLC data, acknowledge alarms, adjust operating parameters, and review production status directly beside the equipment. The existing office-style PCs required separate displays and peripherals, occupied too much cabinet space, and were not well suited to dust, routine cleaning, or continuous operation. Sihovision provided a panel mount computer that combined the display, touch interface, and industrial computing platform in one compact HMI solution. 1. Technical Requirements The customer did not need a high-end data center platform. The priority was a stable industrial panel PC for machine-level SCADA visualization and routine operator control. The required configuration focused on the functions used every day on the production floor: l  Fanless computing for continuous SCADA visualization near machinery l  Resistive touchscreen operation for alarms, recipes, and control commands l  Dual Ethernet and serial connectivity for PLC, network, and legacy-device integration l  IP65 front-panel protection for dusty or splash-prone production areas l  Panel-mount installation for compact control-cabinet integration. These requirements align with common industrial HMI deployments, where touch panel PCs are used to run SCADA clients, visualize production data, and give operators direct access to machine-control information. 2. Solution Implementation Sihovision integrated the industrial panel PC into the main operator cabinet beside the packaging line. The system ran the customer’s existing Windows-based SCADA client, allowing the project team to upgrade the HMI hardware without changing established PLC programs or control logic. The panel mount computer was installed flush with the control-cabinet door, creating a compact operator station with the display, touchscreen, and computing system in one enclosure. The fanless platform supported continuous SCADA operation near conveyors, filling equipment, and packaging machinery, where airborne dust could affect conventional PCs. One Ethernet port connected to the PLC and machine-control network, while the second supported communication with the factory network for supervisory access and production-data reporting. Serial ports were used to retain communication with selected legacy controllers and peripheral equipment, reducing the need for additional protocol converters. The resistive touchscreen was configured for daily production tasks, including live equipment-status checks, alarm acknowledgement, recipe selection, manual control, and trend review. This deployment gave operators direct access to line data at the point of operation while keeping the SCADA architecture straightforward for maintenance and future workstation expansion. 3. Project Benefits The SCADA workstation has become a more integrated part of the production line rather than a separate office-PC setup. Operators had a dedicated industrial HMI terminal positioned where they could react to alarms and equipment changes. Faster response to machine alarms through local real-time visualization Clearer line-level visibility across multiple stations and conveying equipment More compact operator stations with no separate monitor, keyboard, or external PC enclosure Simplified future expansion using the same industrial panel PC architecture at additional workstations 4. Customer Testimonial Plants that have replaced older HMI terminals with Sihovision's panel PCs consistently point to fewer nuisance failures as the biggest change. "We used to lose an operator station every few months to dust or a failed fan. That problem has basically gone away since the switch," said a maintenance lead at a metal stamping facility. "Touch response stays solid even standing next to our welding cells, which our old panels could never handle," noted a controls engineer overseeing an assembly line retrofit.   For factory automation projects, the industrial panel PC provides a direct and durable interface between operators, PLC-controlled equipment, and the SCADA system. Sihovision industrial panel PCs can be deployed as SCADA HMI terminals for packaging lines, assembly equipment, material handling systems, utility monitoring stations, and other factory automation applications. Equipment builders can create a high-performance operator interface while keeping system integration straightforward.

Digital signage is moving past scheduled video loops. Retailers, transit hubs, and hospitality venues now let visitors browse catalogs, check wayfinding maps, or pull up self-service menus directly on the screen. Capacitive touch monitors are what make that shift possible, turning a passive display into an interactive media player. The touch layer has to register multiple users at once, respond instantly, and hold up under constant contact and cleaning, all while staying bright enough to read under unpredictable indoor lighting. 1. Project Background Digital media applications are evolving from simple content playback into interactive experiences. Users expect to browse information, select services, and interact with digital content directly through the display interface. For system integrators and equipment manufacturers, the display is not only a visual output device but also the main interaction interface between users and digital platforms. A reliable touch display solution needs to provide: Accurate touch interaction for smooth user operations Long-term display stability for continuous commercial usage Flexible connectivity with different media playback systems Durable surface protection for public environments Easy integration into kiosks, digital signage, and customized terminals Compared with conventional monitors, industrial-grade capacitive touch monitors provide better reliability and user experience for interactive media applications. 2. Typical Applications Sihovision capacitive touch monitors can be integrated into various interactive media applications. 2.1 Interactive Digital Signage In shopping malls, retail stores, and brand exhibition areas, touch displays allow customers to explore product information, promotions, and digital content independently. 2.2 Self-Service Kiosks The touch monitor provides an intuitive interface for information inquiry, service selection and interactive guidance. It can be integrated with mini PCs or embedded systems to create customized self-service terminals. 2.3 Exhibition and Education Displays Museums, training centers, and educational facilities can use interactive touch displays to provide engaging digital learning experiences. 2.4 Entertainment and Gaming Terminals Fast response time and accurate touch performance make the monitor suitable for interactive entertainment systems and gaming equipment. 3. Project Introduction Sihovision provides interactive display solutions based on the SL900M Capacitive Touch Monitor, designed for digital signage, kiosk, and media player applications. The monitor features a 10-point capacitive touch panel, allowing multiple users to interact with digital content simultaneously. This makes it suitable for interactive advertising, product browsing, information inquiry, and educational applications. 3.1 Touch Panel Integration The monitor uses a 10-point capacitive touch panel, allowing up to 10 simultaneous touch points across the screen A 5ms touch response time keeps interaction feeling immediate during content browsing or catalog navigation A 7H-hardness surface layer resists scratching from repeated public touch and daily cleaning 3.2 Display and Backlight Integration A WLED backlight rated for 50,000 hours supports the extended daily runtime signage networks require Brightness of 350 cd/m2 keeps on-screen content legible under typical indoor ambient lighting An operating range of -10°C to 60°C allows the unit to run in unconditioned lobbies, transit areas, and seasonal retail spaces 3.3 System Connection VGA, DVI, and HDMI inputs let the monitor connect directly to existing media players, PCs, or kiosk controllers without adapters CE, FCC, and RoHS certification supports deployment across mixed international signage networks 4. Project Benefits Once installed, the SL900M transformed signage sites by enhancing both user interaction and operational maintenance. Its capacitive touch capabilities and robust design enable smoother visitor experiences while reducing long-term upkeep demands in industrial environments. Multi-user touch function: Multiple visitors can interact with catalogs, maps, or menus at the same time without queuing at one screen Faster touch response: Interaction feels closer to a personal device, encouraging longer engagement with signage content Scratch-resistant surface: Screens stay clear and legible despite constant public contact and cleaning Extended backlight lifespan: Networks running 12+ hours daily see fewer brightness-related service calls Wide temperature tolerance: Same display spec deploys in conditioned lobbies and unconditioned transit or retail spaces without redesign Standard video input support: Integrators connect the monitor to whatever media player or kiosk hardware is already specified for the project 5. Customer Review For digital signage and interactive terminal manufacturers, display performance directly influences the reliability of the final product. “A responsive touch experience, flexible connection options, and reliable operation for interactive applications.” “The display is easy to integrate into our media player systems and provides the durability required for commercial environments.” Through stable hardware design and customization support, Sihovision helps customers build more effective interactive media solutions.   6. Why Choose Sihovision? As an industrial display manufacturer, Sihovision provides customization based on project requirements. OEM/ODM support for signage integrators who need branded or application-specific configurations Custom mounting options for wall-mount, kiosk enclosure, or freestanding signage installations Wide operating voltage support for deployment across regions with varying power standards Operating temperature range suited to both conditioned interior spaces and unconditioned public areas Certification coverage (CE, FCC, RoHS) that simplifies compliance across multi-region signage rollouts

Automated sorting equipment requires an operator interface that remains clear and responsive throughout the production cycle. From start-up and recipe selection to alarm handling and production review, the display is the point where operators interact with the control system. An Industrial Touch Monitor provides a dedicated visual interface for equipment that already uses an external industrial PC, PLC, or controller. It supports direct HMI operation while allowing machine builders to retain the computing platform and software architecture used across their product range.   1. Technical Requirements Sorting equipment often operates for extended shifts and needs a display that can be integrated into a compact control enclosure. The screen must present machine status, production data, inspection results, and alarm messages in a format that is easy to review during operation. For a typical Sorting Machine Display project, machine builders may require: l  An open-frame structure for embedded installation in an equipment panel or cabinet door l  A metal enclosure suitable for regular operation around industrial machinery l  Resistive touch control for stable input and compatibility with gloved or tool-assisted operation l  VGA, DVI, and HDMI video inputs for use with different control computers l  USB touch communication, with optional serial touch integration where required l  A clear industrial LCD panel for HMI screens, status messages, and process graphics l  Support for Windows, Linux, Android, and other operating environments used by machine-control software l  Flexible installation through embedded mounting, wall mounting, VESA mounting, or a desk stand Industrial touch displays are commonly designed for environments that involve vibration, extended use, dust, and varied installation requirements. Panel and VESA mounting also remain standard options for automation projects.   2. Solution Implementation A soybean sorting-machine manufacturer integrated the open-frame Industrial Touch Monitor for Sorting Machine applications into the front control panel of its equipment. The monitor served as the primary Sorting Machine HMI Display, giving operators direct access to the graphical interface during machine setup, production, and maintenance.   The operator interface was configured to display: HMI Function Operator Task Machine overview Check the conveyor, feeder, camera, and ejector status Recipe management Select settings for different soybean batches or grades Sorting parameters Adjust color, defect, and foreign-material thresholds Alarm screen Identify communication, material-flow, or actuator faults Production data Review throughput, reject rate, and operating time The USB Touchscreen Monitor allowed operators to make settings directly at the machine rather than relying on a separate keyboard or mouse. Its open-frame design also allowed the equipment manufacturer to install the display behind its own control-panel bezel.   3. Solution Benefits The sorting-machine manufacturer had a more consistent interface platform for its standard and customized systems. The display became the central machine control display for monitoring equipment status, managing product recipes, and responding to process exceptions. The solution helped the manufacturer achieve several practical improvements: l  Simplified integration with existing HMI software and industrial PCs l  Compatibility with multiple display-input standards l  Reduced need for external input peripherals l  Flexible mounting options for different machine enclosures l  Easier replication across soybean, grain, seed, and food-sorting equipment l  More options for Industrial Monitor Customization, including enclosure color, touch interface, mounting hardware, and connector configuration   Computer-vision-based sorting systems classify products using visual features such as color, shape, size, and texture. A dedicated automated sorting system display gives operators a practical point of control for these inspection and material-handling processes.   4. Customer Testimonial The Controls Engineering Manager at a soybean sorting machine manufacturer said that the industrial touch display provided a straightforward HMI interface for operators throughout each shift, integrated smoothly with the existing controller and software, and created a cleaner, more standardized embedded control panel. For sorting-machine oems, the right industrial display should fit the control architecture, panel structure, and daily operating process. an open-frame industrial touchscreen display with reliable touch input and flexible connectivity gives equipment builders a practical way to standardize their operator interface. As an industrial touch monitor manufacturer, we support display integration for sorting machines, CNC equipment, production lines, self-service terminals, printer boxes, and other automation systems. The monitor can be configured around the required interface, installation method, touch technology, and enclosure design to match the final machine application.  

Cleanroom production lines in semiconductor fabrication, pharmaceutical packaging, medical device assembly, and biotech manufacturing depend on operator workstations that don't compromise the controlled environment around them. Every enclosure, cable run, and touch surface placed on the line is a potential contamination source — which means the computing hardware has to be held to the same standard as the process equipment itself.   1. Application Background These environments usually fall under ISO 14644 classifications, where airborne particle counts, surface cleanliness, and material outgassing are actively monitored. An operator workstation inside this space needs to meet that standard without becoming the weak point in an otherwise sealed process. Facilities deploying HMI workstations across cleanroom lines generally fall into a few categories: Semiconductor wafer fabs, where sub-micron particles directly affect production yield Pharmaceutical fill-finish and packaging lines operating under GMP requirements Medical device assembly cells requiring near-sterile working conditions Biotech production suites with strict sanitation cycles between batch runs The recurring issue across all of these settings is that industrial PCs aren't designed around contamination control, but they're designed around compute performance, leaving hygienic design as an afterthought.   2. Key Challenges Facilities trying to place computing hardware directly on a cleanroom line encounter the same set of obstacles regardless of industry. Particle generation from standard enclosures. Cooling vents, seams, and plastic housings on conventional panel PCs trap and shed particulates, which is disqualifying in a regulated manufacturing environment where airborne counts are logged as part of the quality record. Chemical degradation from sanitation routines. Cleanroom protocols require frequent wipe-downs with isopropyl alcohol, hydrogen peroxide, or other aggressive disinfectants. Repeated exposure degrades plastic bezels, adhesives, and unsealed touch surfaces faster than most procurement teams anticipate. Contamination pathways at ports and gaps. Exposed connectors, unsealed cable entries, and gaps around mounting hardware create crevices where residue and microbial growth accumulate between cleaning cycles — exactly the kind of surface that sanitation staff flag during audits. Maintenance access without breaking containment. Servicing a workstation inside a classified area typically requires a formal change of protocol. Hardware that fails frequently or needs physical intervention adds operational risk well beyond the repair time itself.   3. Technical Requirements Getting the hardware specification right for a clean production area means addressing the enclosure and sealing method first, then building the compute and connectivity spec around it. Requirement Category Specification Enclosure material 304 or 316 stainless steel with a flush, seamless front bezel and no exposed fasteners Ingress protection IP65 or IP67 sealing to withstand direct disinfectant wipe-down without liquid or chemical intrusion Touch interface Projected capacitive panel with glove-touch support and a chemical-resistant surface layer Connectivity Ethernet, RS232/RS485 serial ports for PLC communication and MES data exchange Mounting options Wall-mount, arm-mount, or flush-panel installation matched to cleanroom partition construction Customization OEM/ODM support for display size, port layout, and enclosure dimensions   4. Solution Implementation Sihovision installed sealed stainless steel panel PCs at operator workstations across a multi-zone cleanroom line, replacing a mix of commercial tablets and open-frame terminals. The rollout covered both physical integration into wall and arm-mount infrastructure and software-level connection to the existing MES. 1) Enclosure and Mounting Integration Stainless steel housing with gasket-sealed flat front panel. Workstations flush-mounted into cleanroom partition walls or positioned on articulating arms at each operator station. 2) Touch Interface for Gloved Operation Stainless steel housing with gasket-sealed flat front panel. Workstations flush-mounted into cleanroom partition walls or positioned on articulating arms at each operator station. 3) PLC and MES Connectivity Each workstation connected via RS485 serial and Ethernet to the facility automation layer. Direct interface with line-level PLCs and the manufacturing execution system. 4) Customized Enclosure Configuration Display sizing and port selection refined during a prototype phase before full deployment. Engineering support provided to match existing equipment footprint and cleanroom wall construction specs.   5. Project Results Following full deployment across the cleanroom line, the facility recorded measurable improvements across contamination control, maintenance frequency, and operational workflow. Sanitation audit results improved after the sealed enclosures eliminated the crevices and vent openings that had been flagged in previous internal reviews. Surface wipe-down times dropped because staff no longer needed to work around exposed components. Unplanned maintenance visits inside classified zones dropped significantly. The sealed housing prevented the moisture and chemical ingress on the previous hardware. MES data completeness improved once each workstation was connected directly into the production monitoring system. Operators recording batch data eliminated the transcription gap that had existed when data was logged manually and entered later. Compliance documentation became more straightforward to maintain, with consistent surface cleanliness at each workstation supporting the facility's ongoing ISO 14644 and GMP reporting requirements.   6. Customer Testimonial "After switching to the sealed stainless steel units, the sanitation team treats them the same as any other cleanroom surface. That consistency matters a lot when you're preparing for an audit," said the manager of a pharmaceutical packaging facility. The same facility extended the deployment to two additional production suites within six months of the initial installation, citing reduced friction between the IT maintenance schedule and the cleanroom access protocol as the primary driver of the decision.