MXG 신호 생성기

This guide provides an overview and side-by-side comparisons to help determine which signal generator is right for you.

This MXG signal generator data sheet contains the following specifications: frequency, amplitude, spectral purity, analog modulation, vector modulation, and general, as well as related literature.

This configuration guide will help you determine which performance options, software apps, accessories and services to include with your new MXG, or to add as an upgrade to an existing MXG.

This data sheet provides a summary of specifications for the N5183B MXG X-Series microwave signal generator.

This configuration guide will help you determine which performance options, software applications, accessories, and services to include with a new or existing MXG microwave analog signal generator.

This application note discusses the components of spectral purity, why spectral purity is important to your applications, and how signal generator spectral purity affects measurements.

Choosing the right signal generator is essential for obtaining trustworthy test results and accelerating time-to-market. This paper covers the basic functionalities, types, and key specifications of signal generators in detail. Signal generators are crucial in eliminating uncertainties in test results for engineers working on consumer electronics, wireless communications, or radar devices. They provide precise and stable test signals necessary for characterizing devices, even in bandwidth-limited and interference-heavy environments. By allowing engineers to apply impairments, signal generators help test designs within and beyond their limits, ensuring reliability and robustness. RF signal generators, including analog and vector types, create necessary waveforms for testing RF applications. Engineers use them to generate repeated or non-repeated waveforms for designing, testing, and manufacturing systems and components. Signal generators simulate real-world signals, enabling comprehensive evaluation of electronic systems’ performance and behavior.

Navigating the numerous specifications and features of signal generators can be challenging. This white paper series helps by explaining various modulation schemes, the importance of spectral purity, and the impact of distortion. Additionally, it explores how application software can enhance productivity. Signal generators are essential for meeting customer requirements for robust and reliable high-speed wireless connections, which are crucial for business success. To address market demands, selecting the right signal generator is vital. Complex modulation schemes, necessary for increasing spectral efficiency and achieving higher data rates, rely on accurate and stable signal generators. Signal generators can be either digital (vector) or analog. Vector signal generators produce complex, digitally modulated signals, while analog signal generators produce continuous wave signals with basic modulation. The choice depends on the specific application and testing requirements. Generating an RF signal requires a metrology-grade signal generator with excellent distortion and spurious characteristics to ensure high spectral purity. The frequency accuracy of a signal generator depends on the stability of the reference oscillator and the time since the last calibration. Overall, signal generators are indispensable for evaluating applications that rely on radio frequencies, such as GNSS, 5G, avionics, and radar, ensuring reliable and efficient performance.

This application note covers the fundamental measurement principles involved in testing and troubleshooting digital communications receivers, particularly those used in digital RF cellular systems. Measurement setups are provided for receiver performance tests and troubleshooting tips are given.

Knowing the capabilities and performance of your signal generators is the first step to make accurate and consistent measurements. In this two-part Application Note, we discuss the best practices to optimize your signal generator.

Knowing the capabilities and performance of your signal generators is the first step to make accurate and consistent measurements. In this two-part Application Note, we discuss the best practices to optimize your signal generator.

Amplitude accuracy affects the frequency sweeping capability of a signal generator. Read this paper and find how to improve the amplitude accuracy with next-generation signal generators.

Test equipment characterizes design performance and verifies devices under test function as expected. To be effective, test equipment must outperform the device under test. Minimizing measurement uncertainty attributed to test equipment requires careful consideration of all components in the testbed.

Learn how to address five fundamental challenges in the development of wireless receivers.

This application note first discusses the fundamentals of phase noise before moving on to provide a closer look at architectural choices and the effects of various functionality alternatives. The discussion then shifts to an overview of Keysight signal generators and the built-in capabilities they provide to enhance or selectively degrade phase noise performance.

This application note provides 8 hints for improving the accuracy of your measurements using RF signal generators.