The most well-known application is in mobile devices. Capacitive screens dominate here due to their high sensitivity, brightness, and support for multi-touch gestures. These features enable intuitive navigation and interaction with apps and media, which is essential for the modern user experience on smartphones and tablets.
Many modern laptops, all-in-one PCs, and monitors are equipped with touchscreens. This offers an alternative control method to the keyboard and mouse, which is particularly useful for creative tasks, presentations, or when using touch-optimized software. It makes interacting with the computer more direct and versatile.
Touchscreens are widely used in public spaces for ATMs, information kiosks, and self-service terminals. More robust technologies such as resistive or infrared screens are often used for these applications because they are durable and can withstand heavy use. They provide a simple and accessible interface for a wide audience.
In industrial environments and the medical sector, touchscreens are crucial for operating machines and equipment. Resistive screens are often used here because they can be operated with gloves and are resistant to liquids and dirt. They provide a reliable interface for control panels and diagnostic devices.
This technology consists of two flexible, conductive layers that make contact when pressure is applied, registering the touch. Resistive screens are cost-effective and can be operated with any object (finger, stylus, glove). They are often used in industrial applications and point-of-sale systems.
Capacitive screens use the electrical properties of the human body. Touching with a finger disrupts an electrostatic field, which determines the location. These screens are more sensitive, brighter, and support multi-touch. Projected Capacitive (PCAP) is the most common variant in modern smartphones and tablets.
These screens use a grid of infrared LEDs and photodetectors along the edges. A touch interrupts the beams, determining the coordinates. This technology is very durable because there is no physical layer covering the screen. It is sometimes used in large displays and outdoor kiosks.
SAW technology uses ultrasonic waves that travel across the screen surface. When a finger touches the screen, part of the wave is absorbed, which determines the position. SAW screens offer excellent image quality but are sensitive to dirt and liquids on the surface.
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.