Mini-Circuits LFCN-113+

Mini-Circuits LFCN-113+ Environmental and export classification status description

The LFCN-113+ is a low pass filter designed for use in various RF and microwave applications. It operates in a frequency range of 0.002 GHz to 1 GHz and offers excellent performance characteristics. Functions: This filter functions as a low pass filter, allowing signals below a certain cutoff frequency to pass through while attenuating the frequencies above it. It provides high rejection of unwanted signals and maintains a good passband flatness. Applications: The LFCN-113+ filter has several applications in RF and microwave systems, such as signal conditioning, communications, radar systems, and test and measurement equipment. It can be used to remove high-frequency noise, unwanted harmonics, and other interference signals. Alternative Parts: If the LFCN-113+ filter is not available or suitable for a specific application, there are alternative filter options available from other manufacturers. Some possible alternatives to consider are the Mini-Circuits® SLP-1+ and the Mini-Circuits® BLP-3+ filters. Embedded Modules: The LFCN-113+ filter is a standalone component and does not have any embedded modules. However, it can be integrated into larger RF or microwave systems alongside other components and modules to perform various filtering tasks. Here are 3 related Q&A: 1. Can I use the LFCN-113+ filter for frequencies above 1 GHz? No, the LFCN-113+ is specifically designed for frequencies up to 1 GHz. It may not provide desired performance beyond that range. 2. How does the LFCN-113+ filter attenuate signals above the cutoff frequency? The filter uses a combination of passive components, such as capacitors and inductors, to create a frequency-dependent impedance. This impedance progressively attenuates higher frequencies. 3. What is the typical insertion loss of the LFCN-113+ filter? The filter has a typical insertion loss of less than 1 dB within its specified frequency range. However, the actual insertion loss may vary slightly depending on the specific application and conditions.