Shenzhen Shinho Electronic Technology Co., Limited

Smart clothes recycling bins use touchscreens to provide donation instructions, collection information, and interactive functions directly at the drop-off point. The monitor is normally installed into the front or side panel of the recycling cabinet and connected to the bin controller. For unattended installations, the touchscreen needs to handle frequent public use, changing temperatures, dust, moisture, and occasional impact. An anti-vandal capacitive touch monitor provides a practical interface for these outdoor and semi-outdoor collection systems. 1. Application Background Clothes recycling bins are often installed in locations where people can drop off clothing without staff assistance. The touchscreen gives users clear information before they place items into the collection bin. Typical deployment locations include: Supermarket and shopping center car parks, where bins remain accessible throughout the day. Residential and municipal collection points, where the screen can display donation rules and bin status. Campus and office locations, where users may need simple instructions or program information. Community and charity collection sites, where the interface can support different campaigns or collection programs. Depending on the control system, the screen can display accepted clothing types, operating instructions, language options, collection status, charity information, or user registration pages. Because the bins may be installed without staff nearby, the display becomes the main local interface between the user and the recycling system.   2. Solution Implementation The anti-vandal capacitive touch monitor is mounted into a prepared opening in the recycling bin cabinet. Installation from the inner side of the door or panel keeps the main display hardware inside the enclosure while leaving the touchscreen accessible from the front. A front IP65 design helps protect the exposed display surface from dust and water. Tempered glass provides additional protection for locations where the screen is frequently touched or may receive accidental impact. The projected capacitive touchscreen supports up to 10-point touch. Users can select menu options, change languages, enter program information, or follow on-screen instructions directly from the collection point. The Full HD 1920 × 1080 display provides enough space for text, icons, status messages, and graphical instructions. With 400-nit brightness, the monitor is suitable for indoor areas, building entrances, covered car parks, and shaded outdoor locations. For the control connection, the monitor supports: HDMI, VGA, and DVI video input USB connection for touch control 12 VDC power input Continuous 24/7 operation The wide operating temperature range of -20°C to 75°C also supports installations where the recycling cabinet is exposed to seasonal temperature changes. The touch monitor works with the bin's existing control board or embedded computer. Other devices such as fill-level sensors, scanners, network modules, or identification hardware remain connected to the main control system. For example, when a fill-level sensor reports that the container is full, the controller can send a full-bin message to the touchscreen. The same interface can also display updated collection instructions or program information when the system is connected to a backend platform. 3. Project Benefits With the touchscreen integrated into the collection cabinet, the recycling bin can provide a consistent interface at different unattended locations. For bin manufacturers and operators, the main project benefits include: Clear user guidance: Donation steps, accepted items, and collection information can be displayed directly on the bin. Protection for public installations: Tempered glass and the front IP65 design support exposed or semi-exposed collection points. Simple controller integration: HDMI, VGA, DVI, and USB make the monitor compatible with different control platforms. Flexible interface content: The screen can support multilingual instructions, status messages, registration pages, and campaign information. Cabinet-friendly installation: Panel mounting allows the display to be integrated into the recycling bin enclosure without taking up unnecessary external space. For operators managing several collection points, the same touchscreen layout can also be used across different bin locations, making the user interface easier to standardize. 4. Customer Testimonial “The monitor was easy to install into our bin enclosure. Touch response is quick, and the screen is clear for the instructions we display. HDMI and USB also made it straightforward to connect with the controller we were already using.” —— Waste & Textile Recycling Kiosk Integrator from EU   Anti-vandal capacitive touch monitors provide a practical user interface for unattended clothes recycling bins used in retail areas, residential collection points, campuses, and community locations. By matching the monitor with the cabinet opening, controller interfaces, power supply, and installation environment during the design stage, bin manufacturers can build a simple and consistent touchscreen interface for different collection sites.

Inside a wafer processing tool, many operations happen before the wafer leaves the chamber or handling station. Pumps start, valves switch, sensors return readings, transfer mechanisms move the wafer, and process software keeps track of each step. A fanless mini PC can sit inside the equipment cabinet and support this sequence from the software side. Its job is to keep machine applications, peripheral communication, and production data available throughout the process cycle.   1. Application Background Wafer processing equipment covers more than one type of machine. Depending on the production stage, the system may handle cleaning, material delivery, wafer transfer, process monitoring, or supporting control functions around the chamber. These systems typically support wafer manufacturing in core operational areas: Wafer cleaning stations, where pumps, valves, sensors, and process sequences must work together. Wafer transfer systems, where handling mechanisms move wafers between load ports, chambers, or process positions. Gas or chemical delivery equipment, where operating conditions and supply status need to remain visible to the control software. Temperature, pressure, and flow monitoring, where process instruments continuously return equipment data. Supporting process modules, where several peripheral devices need to communicate with one machine application. In these machines, the computer usually becomes part of the control cabinet instead of appearing as a separate workstation. That location changes what matters most. The system needs enough communication paths for existing devices, room for machine-specific expansion, and a power arrangement that suits the equipment electrical design.   2. Solution Implementation The fanless mini PC is installed inside the wafer processing equipment enclosure and connected according to the machine layout. Serial devices may occupy several COM ports because process equipment often includes controllers or instruments that still use RS232, RS422, or RS485. The available platform can support up to six COM ports, with one configurable for RS232/422/485. Network connections can then be separated according to the machine design. With two Gigabit Ethernet ports, one connection may remain on the equipment side while another is reserved for communication with an upper-level network or another machine subsystem. Expansion is handled differently when the equipment requires a dedicated interface card. The platform supports configurations including PCIe x4 and PCIe x1, giving the equipment builder another option when the standard onboard interfaces are not enough. Power integration is also straightforward for machine cabinets using industrial DC distribution. The system accepts 9–36V DC input and includes reverse-polarity protection. Instead of building the machine around the computer, the computer is fitted around the equipment architecture already defined by the process. That makes it suitable for projects where the same basic control platform may need to support different peripheral combinations across several machine versions.   3. Project Benefits Once deployed inside the equipment, the main benefit is easier machine integration. Engineering teams can keep process software, device communication, and equipment data handling on one embedded computing platform while leaving specialized control tasks with the corresponding controllers and instruments. In practical terms, this hardware can support: Faster cabinet integration when several serial and Ethernet devices are already defined in the machine design. Easier configuration changes when different equipment versions need different interface combinations. Cleaner machine communication between process devices, local software, and higher-level production systems. More flexible expansion when a project requires an additional communication or control card. Simpler maintenance access because logs, software, and peripheral communication remain concentrated around one computing node. For the equipment manufacturer, that helps reduce the amount of redesign needed when a machine is adapted for another wafer-processing step or customer configuration. The value is mainly in keeping the machine architecture manageable from initial assembly through commissioning and later service. 4. Customer Testimonial “The panel PC integrates smoothly within our equipment layout with minimal modification. Its rich port selection supports all required peripheral connections, and it fits perfectly for cabinet mounting. And the fanless design also worked well for the cabinet installation.” —— Semiconductor Equipment Integrator from South Korea   Wafer processing equipment depends on stable communication between process devices, machine software, and production systems. A fanless mini PC with serial connectivity, Ethernet, expansion capability, and wide-voltage DC input can provide a practical computing base for this type of equipment. The final configuration should follow the actual machine layout, connected devices, and software requirements.

Digital microscopes have become standard equipment on electronics, PCB, and precision-assembly lines, where operators rely on enlarged, real-time images to inspect solder joints, component placement, and surface defects. The display and control interface directly determines inspection speed, operator fatigue, and defect-detection accuracy.   A growing microscope OEM needed a compact, panel-mount industrial touch panel PC to replace the bulky external monitor and separate controller box used in earlier models. The new design had to integrate the digital microscope display, lighting control, and zoom functions into a single sealed front panel, while surviving dust, flux fumes, and frequent cleaning in lab and production environments.   1. Technical Requirements In modern electronics manufacturing, PCB assembly, and semiconductor fabrication, shrinking component sizes and increasing trace densities make real-time optical inspection vital for detecting micro-defects like hairline solder cracks, tin bridging, and misalignments. Microscope OEMs face major operational challenges from time to time: bulky external monitors and controller boxes waste ESD-safe workbench space, while airborne dust, flux fumes, and daily isopropyl alcohol cleaning quickly destroy standard commercial displays. This integrated setup is widely used across key inspection scenarios: SMT & PCB Inspection: Solder joint verification and rework. Precision Assembly: Micro-machined parts and device inspection. Failure Analysis Labs: Root-cause defect analysis and quality testing.   2. Solution Implementation The SC101 10.1" All-In-One Panel Mount Industrial PC was built as the embedded panel PC for the digital microscope system. l  Panel-mount flush installation — The 3 mm thin front bezel and aluminum-alloy chassis let the industrial touch panel PC sit cleanly inside the microscope boom arm, removing the external monitor bracket and controller box and shrinking the system footprint by roughly 40%. l  10-point capacitive touch control — With 7H surface hardness and a 2 ms response time, operators can pinch-zoom into solder-joint images, switch lighting presets, and capture snapshots with a single touch, without lifting a hand from the workbench. l  High-resolution microscope display — The 1366×768 panel renders 16.7M colors at 1000:1 contrast and 300 nits brightness, giving inspectors the image depth needed to spot hairline cracks, bridging, and misaligned components under bench lighting. l  Fanless sealed enclosure — The fully enclosed aluminum chassis blocks dust and metal shavings from the optics, while the IP65 front bezel resists the alcohol and deionized-water wipes used between shifts. l  Integrated imaging and lighting I/O — 1×Gigabit Ethernet and 3×USB 2.0 + 1×USB 3.0 ports connect the HD camera module, ring-light controller, and factory MES network, consolidating all controls onto one optical inspection display. l  Stable embedded computing platform — The fanless Intel Celeron J1900 runs the microscope imaging software under Windows 10, with an operating range of -10 to 60 °C that keeps the laboratory equipment display stable near heat-generating soldering stations.   3. Project Benefits Adopting the SC101 industrial display for microscope integration delivered measurable results on the production floor: l  Smaller footprint — embedded panel-mount design removed the external monitor and controller box l  Faster inspection — single-touch zoom and lighting control cut per-board inspection time l  Reliable in harsh labs — IP65 front bezel and fanless enclosure survive dust, flux, and cleaning solvents l  Easy integration — rich USB/COM/LAN I/O connects camera, ring light, and factory network l  Long-term supply — stable J1900 platform supports the microscope product's multi-year lifecycle   4. Customer Feedback "The 10.1" touch panel let us combine the microscope display and lighting controls into one sealed front panel. Operators inspect PCBs faster, and the IP65 front holds up to daily alcohol cleaning without issue," said the R&D manager at the microscope OEM.   For digital microscope systems used in electronics, PCB inspection, and precision assembly, the display interface is where image quality, operator speed, and equipment reliability converge. The 10.1" industrial touch panel PC integrates the digital microscope display and control functions into one fanless, IP65-sealed panel-mount unit.   With HD resolution, 10-point capacitive touch, and rich I/O for camera and lighting control, it gives microscope OEMs a compact, durable, and long-lifecycle embedded panel PC that meets the real demands of lab and production-line optical inspection.

AGVs used for material transfer need a computer inside the robot to connect navigation sensors, controllers, and the factory network. The hardware does not need every available industrial interface. What matters is whether the computer can support the devices already selected for the AGV, fit inside the electrical compartment, and run the required software without adding unnecessary adapters. For this type of project, the SM8124 combines 12th Gen Intel Core processing, four Gigabit Ethernet ports, DDR5 memory, and optional industrial interfaces in a compact fanless enclosure. 1. Onboard Computing for Material Transport AGVs A typical warehouse or production AGV may carry totes, components, or finished parts between storage areas and production stations. The onboard computer can run navigation-related software, collect device data, communicate with controllers, and exchange information with the factory network. The exact workload depends on the navigation system and the devices installed on the robot. The SM8124 is available with Intel Core i5-1235U or i7-1255U processors and supports up to 64GB DDR5 memory. This gives system integrators room to select the processor and memory configuration around the actual AGV software instead of using a fixed low-power controller. 2. Connecting Sensors and Controllers Ethernet devices are common inside AGVs. A robot may use an Ethernet LiDAR, industrial camera, controller, or maintenance interface. The SM8124 provides four Intel Gigabit Ethernet ports. These connections allow several Ethernet devices to connect directly to the onboard computer and make the network layout easier to organize during installation and troubleshooting. Some AGVs also need communication with motor controllers, PLCs, I/O modules, or other industrial equipment. For these projects, the SM8124 can be configured with optional RS232/RS485, CANBUS, and GPIO interfaces. Wi-Fi, 4G, or Bluetooth can also be added through the Mini PCIe expansion slot when wireless communication is required. 3. AGV Material Handling Deployment The SM8124 was selected for an AGV platform used to move material bins between warehouse storage and production stations. The system needed separate connections for an Ethernet LiDAR, industrial camera, vehicle controller, and factory network. Four Gigabit LAN ports provided the required Ethernet connections, while optional CANBUS was reserved for communication with the controller. The computer was mounted inside the AGV control compartment and powered from the robot's 12–24V DC system. Integrating these connections into one compact fanless computer reduced the need for additional network adapters and simplified the internal wiring layout. 4. Installation Inside the AGV Available space inside an AGV is usually limited by batteries, motor electronics, wiring, controllers, and mechanical structures. The SM8124 measures 170 × 140 × 58 mm and uses an aluminum fanless enclosure. It can be installed inside the AGV control compartment and supports 12–24V DC input through a Phoenix terminal. The absence of an internal cooling fan also removes one moving component from the computer. Watchdog, automatic power-on, Wake on LAN, and PXE boot are available for projects where the embedded computer needs to operate with limited physical access. A practical integration benefit is having these interfaces available on one computer. It reduces the need for additional interface converters or network adapters and makes the internal wiring easier to plan. For this type of AGV deployment, the most useful features are often straightforward: enough LAN ports for the selected sensors, the required CAN or serial interfaces, sufficient computing resources, and a chassis that fits the available installation space. The final configuration should still be checked against the AGV's actual sensor list, controller interfaces, software requirements, DC supply, installation space, and operating environment.

Oil and gas pump stations often include local control cabinets where technicians check pump status, pressure, flow conditions, alarms, and equipment operating data during inspection and maintenance. Many of these stations are installed outdoors or in partially sheltered locations where ambient light changes significantly throughout the day. A 10.1-inch sunlight readable industrial monitor directly into the front panel of the pump station control cabinet. Paired with the station's existing industrial PC, it gives field operators a fixed local interface for status checks, alarm acknowledgement, and parameter review right at the equipment.   1. Technical Requirements The display had to fit into an existing cabinet design while remaining practical for daily field operation including High screen brightness for daytime viewing at outdoor and semi-outdoor stations Compact panel mounting without occupying additional workstation space Front protection against dust and water exposure around the cabinet surface Touch operation for local navigation, alarm acknowledgement, and parameter access Compatibility with existing industrial computers and video output interfaces A metal enclosure suitable for fixed installation around industrial equipment The display also needed enough viewing area for process values, equipment indicators, alarm messages, and basic HMI controls without making the control cabinet unnecessarily large.   2. Solution Implementation The monitor was panel-mounted flush against the cabinet face, sitting close to the enclosure so the operator-facing surface stays clean and unobtrusive. Its removable embedded mounting hardware allowed the display to sit closely against the enclosure while maintaining a clean operator-facing surface. Brightness is what makes this unit usable outdoors. The 1000-nit LED backlight keeps process pages legible even when sunlight falls directly on the screen, and the wide viewing angle lets a technician read values while standing off-center rather than dead-on. For protection, the front carries an IP65 rating against dust and water, and the aluminum alloy housing gives the whole assembly the mechanical rigidity needed for a permanent mount inside a field cabinet. Touch runs through a 5-wire resistive layer, which operators use to move between equipment pages, confirm alarms, and pull up maintenance notes. The display links to the station industrial PC via VGA, DVI, or HDMI, with touch input passed through USB — so the PC keeps running the HMI software while the monitor acts purely as the operator interface. Data shown on the local screen: Pump running / stopped status Inlet and outlet pressure Flow values and trend lines Valve and actuator position Active alarms and warning messages Communication and maintenance status   3. Project Benefits After integration, the monitor provides a fixed local interface that technicians can use during inspection, startup, maintenance, and alarm checks. Its compact format fits naturally into equipment-level control stations while keeping important process information immediately accessible. Clear daytime viewing: The 1000-nit display keeps process pages visible under strong ambient light at field installations. Compact cabinet integration: Panel mounting creates a permanent HMI station without adding an external desktop display or mounting arm. Protected operator surface: Front IP65 protection supports installations where dust and occasional water exposure are part of normal site conditions. Flexible system connection: VGA, DVI, and HDMI inputs simplify integration with different generations of industrial computers and control hardware. Direct field interaction: Resistive touch gives technicians access to monitoring pages and commonly used HMI functions directly at the equipment. The result is a practical local visualization point for pump station operations, allowing field personnel to check equipment conditions without leaving the station to access a separate control terminal.   4. Customer Testimonial “The monitor was installed into our pump station cabinet and gave us a clear local interface for equipment status and alarm checks. The screen remains easy to read during daytime inspections, and the compact panel-mounted design worked well with the space available in the enclosure.” — Field Automation Engineer, Oil & Gas Equipment Integrator The 10.1-inch sunlight readable industrial monitor gives oil and gas pump stations, pipeline equipment cabinets, and other non-classified outdoor monitoring points a compact local HMI option. Connected to an industrial PC or monitoring controller, it puts process values, equipment status, and alarms directly at the point of operation.  

Production weighing involves several connected steps, including weight capture, product identification, operator confirmation, data recording, and label printing. The control terminal needs to keep these actions accessible at the weighing station throughout daily production. A 12.1-inch SC500M industrial panel PC was deployed as the local HMI for floor scale and automated weighing equipment. It provides touchscreen operation, weighing data display, peripheral communication, and access to production records from one machine-side terminal.   1. Technical Requirements The project focused on the workflow around the scale and the way operators interact with weighing data during each production cycle. Displaying gross, tare, and net weight together with product and batch information Touch controls for zero, tare, confirmation, data entry, and print commands Connections for weighing controllers, barcode scanners, label printers, and plant networks Compact installation beside a floor scale, platform scale, or conveyor weighing station Stable operation across continuous production shifts Flexible mounting for different machine and workstation layouts The terminal also needed to support future changes to the weighing process, such as barcode identification, additional printing functions, or network-based production records.   2. Solution Implementation The SC500M was integrated directly into the weighing workstation as the local HMI and data-handling terminal. Its 12.1-inch touchscreen provides operators with clear access to weighing data, job information, and routine control functions during each production cycle. Floor Scale OperationThe panel PC can be mounted on a stand beside the weighing platform. Weight data from cartons, containers, raw materials, or pallets is displayed through the weighing software for operator review and confirmation. Weight and Job Data DisplayThe interface can present gross, tare, and net weight together with product ID, batch number, operator information, time, and job status. Operators can enter or confirm data directly from the touchscreen. Barcode and Record HandlingBarcode scanners can be connected to identify products, batches, or work orders. The scanned information can be linked with the corresponding weighing record for production and warehouse traceability. Conveyor Weighing and PrintingIn conveyor-based systems, the IPC can display live weight values, production counts, job status, and print controls as cartons pass through the weighing section. For vertically coupled parallel print weighers, the weight record can be associated with the relevant label or print information. Peripheral and Network IntegrationSerial, USB, Ethernet, and optional wireless connectivity support scale controllers, barcode devices, printers, and production networks. The compact all-in-one design also makes the terminal easy to position around floor scales, conveyors, and printing equipment.   3. Project Benefits After deployment, the panel PC became the main operating point for the weighing station. Operators could follow the weighing sequence from the same touchscreen, which helped keep routine actions clear and consistent. Centralized weighing operationWeight readings, batch information, job status, and operator commands remain available on one interface. Efficient weighing workflowScanning, weighing, confirmation, record handling, and printing can follow a clear sequence at the same station. Peripheral integrationScale controllers, barcode scanners, label printers, and network systems can be incorporated into the workstation. Flexible installationThe terminal can be positioned beside floor scales, mounted on equipment frames, or integrated into conveyor weighing machinery. Scalable application designThe same IPC platform can support different weighing configurations as software functions and connected devices change. For machine builders, this provides a consistent control platform across floor scales, production weighing stations, conveyor systems, and weighing-and-printing equipment.   4. Customer Feedback “We use the panel PC directly at the weighing station for weight display, job confirmation, and printing. The touchscreen gives operators quick access to the main functions, and the 12.1-inch size fits well beside our weighing equipment.” The customer also found the compact installation useful for equipment layouts with limited space around the scale and printer. The available connectivity allowed the terminal to fit into the existing weighing workflow with the required peripheral devices.   The all-in-one pc serves as the local control and data interface across the weighing process. It connects operator actions with weight capture, product identification, production records, and printing from a single machine-side station. This configuration can be applied to floor scales, platform scales, production weighing stations, conveyor weighing systems, and automated weighing-and-printing equipment, giving equipment manufacturers a flexible IPC platform for different scale system designs.