The most common application of touchscreens is in personal electronics. Devices such as smartphones and tablets rely on touch interfaces for navigation, typing and app operation. This technology has completely changed the way we interact with mobile devices by enabling direct and intuitive interaction without physical buttons.
Touchscreens are widely used in public areas for self-service applications. Examples include information kiosks in museums, ticket machines at train stations and automated teller machines (ATMs). They provide a user-friendly interface that is accessible to a wide audience and simplifies complex transactions or information retries.
In industrial environments, touchscreens are used for Human-Machine Interfaces (HMI) to control machines and processes. In the medical sector, they are used on equipment where precision and hygiene are essential. The screens can often be operated with gloves and are robust and easy to clean, which is crucial in these sectors.
Modern vehicles are equipped with advanced touchscreen systems for infotainment, navigation and climate control. These integrated screens in the dashboard centralize the car's controls and allow the driver and passengers to access media, communications and vehicle settings through a clear and interactive interface.
A resistive touch screen consists of two flexible layers with a gap between them. Pressure on the screen causes the layers to touch, which registers a touch. This technology is inexpensive and can be operated with any object, including fingers, styluses and gloves. The disadvantages are lower image clarity and susceptibility to wear and tear.
Projected Capacitive (PCAP) is the dominant technology in modern smartphones and tablets. It detects touch by disrupting an electrostatic field caused by the conductive properties of the human finger. PCAP supports multi-touch, offers high precision and has a durable glass surface that provides excellent image quality.
Modern touchscreens, especially PCAP models, support multi-touch. This allows users to interact with multiple fingers simultaneously. Gestures such as pinch-to-zoom, rotate and swipe with multiple fingers make device operation more versatile and intuitive than first-generation single-touch systems.
Infrared touchscreens use a grid of infrared LEDs and photo detectors around the edges of the screen. When an object interrupts this grid, a touch is detected. Because there is no physical layer over the display, this technology provides superior optical clarity and durability. It is often used for large screens and interactive whiteboards.
At Dytos, we understand that each industry has specific requirements for touch solutions. That's why we offer a wide range of products and services designed to meet these diverse needs.
Dutch Dutch 
English
