Knowledge Base

Choosing the right touch solution can be a challenge for many companies looking to implement innovative technologies in their products or processes. The two most commonly used types – capacitive touch screens and resistive touch panels – have unique advantages and are used in various environments. Understanding these differences will help select the ideal solution to ensure optimal performance, durability, and user convenience in a given application.

In industry, the reliability and durability of devices are crucial, especially in challenging environmental conditions. In many sectors, such as manufacturing, logistics, energy, or heavy industry, technologies must withstand various challenges – from extreme temperatures and high humidity to dust and chemical exposure. In this context, capacitive touch screens stand out due to advanced technology and appropriate design, enabling their use in demanding environments.

In the industry, automation and digitization of processes are increasingly important, often involving the use of advanced user interfaces like touch panels. In many industrial applications, choosing the right touch panel is a challenge, especially when adapting to specific working conditions such as high humidity, dust, or the need for glove operation. Resistive touch panels are a popular choice in industrial applications due to their durability and reliability. In the article below, we will...

Touch technologies play a key role in process automation and management across various industrial sectors. Among the different types of touchscreens, resistive touch panels stand out as one of the most reliable solutions for harsh working conditions. Thanks to their durability and simplicity of operation, resistive screens have become an ideal choice for many industrial applications where durability and precision are priorities.

In this article, we will discuss how to correctly connect cables to the Powersafe Sequential Mating Box power distribution unit.

In this article, we will examine the first two methods, discussing their key steps and recommendations.

STANEX transport cases are designed with the highest level of stability in mind and provide protection against all significant environmental threats.

Capacitive touch screens play a crucial role in the modern world of technology, and their application in industry is becoming increasingly common. Thanks to their reliability and precision, capacitive touch panels are used in many industrial sectors, from automation to medical devices. But how exactly does a capacitive touchscreen work, and why is it so popular in industry? Let’s take a look at its operating principles and key advantages.

Kompatybilność elektromagnetyczna (EMC) jest kluczowym aspektem w projektowaniu nowoczesnych urządzeń elektronicznych. Elastomery przewodzące odgrywają istotną rolę w poprawie EMC, oferując efektywne rozwiązania do kontrolowania zakłóceń elektromagnetycznych.

With the growing demands for electromagnetic compatibility (EMC), designing printed circuit boards (PCBs) is becoming increasingly complex. Shielding is a key technique that protects electronic components from electromagnetic interference (EMI). In this article, we discuss the main challenges and best practices related to designing shielding for PCB components in terms of EMC.

Sensor prądu IVT-3, dostępny w wersjach Base i PRO, oferuje precyzyjny pomiar prądu, temperatury oraz zaawansowane funkcje diagnostyczne. Wersja PRO umożliwia dodatkowo pomiar napięcia i ocenę stanu izolacji, co czyni go wszechstronnym narzędziem idealnym dla nowoczesnych aplikacji elektrycznych, zapewniając wysoką dokładność i integrację wielu funkcji.

EMC filters play a crucial role in ensuring electromagnetic compatibility of electrical and electronic systems. Their purpose is to minimize electromagnetic interference that can affect the operation of devices and systems. In this article, we will discuss the various types of EMC filters and the situations in which they are most commonly used.

Selecting the right EMC cable glands is crucial for effective protection against electromagnetic interference. Factors to consider include the material from which the gland is made, its size, and the type of cable it will be used with. The material of the gland significantly impacts its effectiveness in providing EMC protection. Metal glands offer better protection against interference than those made of plastic.

Electromagnetic Compatibility (EMC) is a key aspect in the design and operation of modern automation systems. Its importance is invaluable in ensuring the reliability and stability of complex electronic devices, which must operate without electromagnetic interference both internally and with their surroundings.

Electromagnetic Compatibility (EMC) is a key element in ensuring the reliability of telecommunication networks. Electromagnetic interference can lead to signal degradation, connection interruptions, and a general decline in the quality of telecommunication services.

Electromagnetic Compatibility (EMC) in medical equipment is crucial for ensuring the reliability and safety of devices used in healthcare. Electromagnetic interference can lead to malfunctions of equipment, which may have serious consequences for patient health and safety.

Electromagnetic Compatibility (EMC) is a crucial aspect of designing modern vehicles. Without proper management of EMC, vehicles may experience interference that affects their reliability and safety.

Electromagnetic interference (EMI) presents significant challenges in modern electronic circuit design. Effective shielding of PCB components is crucial for ensuring reliable device operation. Key practices include designing PCB layers to reduce coupling, isolating signal paths, using appropriate shielding materials, and employing metal enclosures. Common mistakes, such as improper grounding and incorrect material use, can lead to increased interference and device failures. Adhering to these...