Protect sensitive electronics by understanding the current limiting resistor, learning how to calculate appropriate values, and applying them in LEDs, transistors, microcontroller inputs and other circuits.
Protect sensitive electronics by understanding the current limiting resistor, learning how to calculate appropriate values, and applying them in LEDs, transistors, microcontroller inputs and other circuits.
This guide explains how potentiometer pins interact with mechanical rotation, resistive tracks, and load conditions across various circuit configurations. It provides clarity for both low-power electronic designs and high-precision embedded systems.
This technical article explains the theory behind potentiometer schematics. It shows how to implement mechanical and digital potentiometers in practical circuits, tailored for engineers, and students.
Engineering teams can achieve AI-ready design data with five-level maturity model by Keysight. The unified, traceable data accelerates design cycles, boosts IP reuse, and reduces costly re-spins.
Focused laser-like light that covers a wide range of frequencies is highly desirable for many scientific studies and for many applications, for instance quality control of manufacturing semiconductor electronic chips.
Scientists at ITMO have come up with a new way to protect microelectronics devices from counterfeit. The new technology is based on gold and silicon nanoparticles with unique optical properties that make it possible to create unclonable functions with a record information density.
An international team of scientists was first to demonstrate that halide perovskites can serve as a base for nonlinear on-chip optical components. As an example, they can be used to build ultrafast optical chips and transistors, and, potentially, other integrated optical systems.
Miniaturization in modern wearables and portable devices is shaped by consumer demands for compact, lightweight, and efficient electronics; Real-Time Clock (RTC) modules are essential for their precise timekeeping, low power consumption, and ease of integration into small designs.
Foggy windshields can compromise safety in seconds. Discover how ScioSense’s WSS2 sensor proactively prevents condensation, enhancing visibility and optimizing HVAC efficiency for a safer, more energy-efficient drive.
As the demand for smarter, faster, and more efficient electronic devices grows, the development of advanced circuits is becoming central to the evolution of next-generation technologies.
Real-time Clock (RTC) modules are the specialized components designed to maintain accurate timing even in medical devices such as neurostimulators, pacemakers, insulin pumps, and other essential devices.
Power Management ICs are the silent architects of energy efficiency. Discover how these specialized integrated circuits optimize power delivery in everything from smartphones to electric vehicles!
Flexible membrane keyboards are used in a variety of electronics, medical devices, automotive, and more due to their thin, lightweight design. This project demonstrates printing one using Voltera’s NOVA system.
Cornell scientists have developed a novel technique to transform symmetrical semiconductor particles into intricately twisted, spiral structures – or “chiral” materials – producing films with extraordinary light-bending properties.
Flexible Multilayer Electronics combine flexibility with advanced functionality, enabling applications in wearables, biosensors, defense, and consumer electronics. This article explores how technologies like Voltera’s NOVA platform are making their development more accessible.
Surface Mount Technology (SMT) revolutionized electronics manufacturing by enabling smaller, faster, and more efficient circuit designs. This guide delves into the core principles of SMT, explores its cutting-edge advancements, and addresses the challenges in implementing this technology.
Scientists at ITMO University have developed multiple-use sensor substrates coated with gold nanoparticles for use in gauging the precise ratio of chlorogenic acid in natural and manufactured raw material.
This article explains, how is a microprocessor different from an integrated circuit, exploring their key differences, architectures, technological advancements, and potential applications.