Specifications:
| Controller Supply Voltage |
USB 5V Typ.v |
| Touch Report Rate |
≥100Hz |
| Touch Response Time |
≤25ms |
| Touch Linearity |
±2mm |
| Display Supply Voltage |
3.3 Typ.v |
| BACKLIGHT Supply Voltage |
12 Typ.V |
| Display Power Consumption |
12.5 MAX.w |
| Transmittance |
>85% |
| Pixels H×V |
1920 x 3(RGB) x 1080 |
| Pixel Pitch |
0.17925x 0.17925mm |
| Support Color |
16.7M Colors ( RGB 8-bits ) |
| Contrast Ratio |
1000 Typ. |
| Viewing Angle |
89 Typ. |
| Display Surface Treatment |
Anti-glare 3H |
How to Improve the Touch Accuracy of Touch Monitors for Gloved Operation in Industrial Applications1.Upgraded high-sensitivity IC touch solution with optimized driver sampling frequency, enabling direct touch operation with thick rubber gloves, cotton yarn gloves and nitrile work gloves without glove removal. It supports precise single-point and multi-point touch for conventional rubber or cotton gloves ranging from 0.5 mm to 3 mm in thickness, with a false touch rate lower than 1%.
2.Operating temperature range: -40℃ to 85℃. It is suitable for working conditions with drastic temperature fluctuations such as high-temperature metallurgy, low-temperature cold chains and heavy industry workshops. The touch sensitivity remains stable without attenuation under low temperatures, effectively solving touch failure issues caused by hardened gloves in cold-chain environments.
3.Enhanced touch filtering and anti-interference design is adopted. Shielding and grounding processing are implemented to resist EMI electromagnetic interference generated by inverters and high-power motors in metallurgical and heavy industrial sites, preventing touch coordinate drift and touch failure under strong electromagnetic environments.
How to Improve the Environmental Adaptability of Touch Monitors in Industrial Applications1.Optional AG anti-glare & scratch-resistant tempered glass surface effectively prevents screen glare that leads to poor visibility under intense light in metallurgical workshops and open-air workstations. It also safeguards the display against scratches caused by metal debris and tool friction.
2.Adopting IP67 dustproof and waterproof full lamination technology, the monitor effectively blocks the infiltration of metallurgical dust, assembly line cutting fluid and cold-chain condensed water into the screen, preventing random touch drift and touch failure triggered by water film on the touch surface.
3.An inclined shading protective cabinet is installed at the equipment operation terminal, which prevents misoperation and repeated accidental touches caused by unclear interface viewing under strong metallurgical light and backlight in workshops. The cabinet adopts dustproof sealing treatment to avoid touch failure resulting from dust accumulation around the edges of the touch panel.
How to Solve Poor Heat Dissipation of Touch Monitors in Industrial Applications1.Air intake vents are arranged at the bottom and side of the cabinet, with air outlets set on the top to form a forced convection air duct featuring bottom-in and top-out airflow. High-density dust filter screens are installed at the air inlets to prevent metallurgical dust and production line oil mist from being drawn into the cabinet and adhering to the driver boards and touch panels, which would otherwise clog the heat sinks. Wide-temperature industrial fans rated for -40℃ to 85℃ are adopted, equipped with fault alarm wiring. Once the fan stops running, an alarm pop-up window will be triggered on the host computer.
2.We install dustproof and waterproof louver ventilation filters without downgrading the cabinet’s original IP rating, effectively keeping dust, moisture and cutting fluid out. No large unprotected openings are adopted to prevent dust buildup and premature aging of components in harsh industrial environments.
3.High-heat components including industrial controllers, touch monitors and power supplies are laid out dispersedly to avoid concentrated heat accumulation. Heat-generating units are placed away from touch driver boards and touch IC cores to prevent overheating from overlapping hot zones. At least 20mm clearance is reserved between all devices and cabinet inner walls; tight sealed mounting against cabinet panels is not allowed for reliable heat dissipation.
4.Equipped with high-conductivity thermal pads (≥3W/m·K) and aluminum heat sinks on core touch ICs, driver and power chips for fast heat dissipation. It eliminates PCB heat buildup by fully filling component gaps and avoiding localized overheating.
5.For extreme high-temperature scenarios like metallurgical and heat production lines, optional industrial cabinet air conditioners provide precise temperature control (25℃~40℃) for enclosed cabinets. It prevents system shutdown due to overheating protection and touch chip malfunctions caused by combined ambient and internal heat buildup.
6.Upgraded from consumer-grade to industrial wide-temperature driver boards and touch ICs with a working range of -40℃~85℃. It ensures stable chip voltage and signal sampling at high temperatures to avoid signal chaos, thermal lockout, touch drift and malfunction.
7.Built-in NTC temperature sensors near the touch driver board provide real-time internal temperature monitoring. Dual-stage thermal protection enables fan speed boost and pop-up early warnings at the first temperature threshold, and triggers safe standby & orderly shutdown at the second threshold, effectively avoiding component burnout and production line risks caused by sudden overheating crash.
FAQ1.Q: Can this touch monitor work stably when operators wear thick work gloves?A: Yes. We adopt industrial high-sensitivity touch IC and optimize the sampling frequency, supporting accurate single and multi-point touch for 0.5–3 mm thick rubber, cotton and nitrile gloves, with a false touch rate lower than 1%. No need to take off gloves during operation.
2.Q: Is the touch screen still sensitive under ultra-high or ultra-low temperature working conditions?A: Our equipment uses industrial wide-temperature components with an operating temperature range of -40℃ to 85℃. Touch sensitivity will not decay in low-temperature cold chain environments, and it can effectively avoid touch drift or failure caused by thermal expansion and contraction of components under high temperature.
3.Q: How does the device avoid touch disorder caused by strong EMI interference from on-site inverters and high-power motors?A: We add multi-level touch filtering and shielding grounding design, which effectively resists electromagnetic interference in metallurgical and heavy industry workshops, thoroughly solving common faults such as touch drift, random false touches and intermittent touch failure.
4.Q: What heat dissipation and over-temperature protection configurations are equipped for the enclosed industrial cabinet?A: We adopt bottom-in top-out forced air cooling with dustproof and waterproof louver filters. High thermal conductivity silicone pads and aluminum heat sinks are fitted on core chips. Dual-stage NTC temperature protection is configured to realize fan speed regulation, alarm reminder and automatic orderly shutdown to prevent component burnout. Optional industrial cabinet air conditioners are available for extreme high-temperature environments.
5.Q: Can the touch screen resist dust, cutting fluid and strong light in harsh industrial workshops?A: It adopts IP67 full lamination sealing technology to block dust, condensed water and cutting fluid. Optional AG anti-glare scratch-resistant tempered glass avoids unclear screen viewing under strong light and protects the panel from scratches by metal debris and tools. The shaded sealed cabinet further prevents dust accumulation at the touch edge.
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