Analog Devices showcases innovative embedded systems technology at Embedded World 2022
Technologies drive development of next-generation embedded designs in smart sensing, power management, machine vision and precision motor control applications
Technologies drive development of next-generation embedded designs in smart sensing, power management, machine vision and precision motor control applications
Analog Devices, Inc. (ADI) today announced a three-axis MEMS accelerometer designed for a wide range…
Heart rate (HR) and blood oxygen saturation (SpO2) are quickly moving from the “desirable” to…
Mouser Electronics, Inc., the industry’s leading New Product Introduction (NPI) distributor with the widest selection…
Analog Devices, Inc. (NASDAQ: ADI) today announced its Wireless Battery Management System (wBMS) is certified…
Intel, Analog Devices Join to Inspire Technological Innovation in Contest’s 20th Anniversary
Reduce the size and extend the life of bioimpedance (BioZ) remote-patient monitoring (RPM) devices with…
Designed to Accelerate Collaborative Innovation and Support R&D in Europe
Three-part webinar series offers insights into the latest AI solutions for edge devices
We are experiencing an explosive growth in demand for bandwidth that pushes the carrier frequencies to multiple decades of gigahertz. At these extremely high frequencies, consumers can enjoy wider bandwidths without the fear of overcrowding the spectrum. However, as the frequencies increase, the instrumentation solutions targeting these devices and frequencies can become extremely complex. This stems from the need for an order of magnitude better performance in instrumentation solutions to prevent impairing the device under test. In this article, we will review several methods for low phase noise signal generation. We will demonstrate the advantages and disadvantages of these methods and introduce the translation loop device, which takes the best of all frequency generation methods without their complexity to enable ultralow phase noise signal generation.