Abstract

This paper is devoted to the comparative analysis of modern integrated analog-to-digital converters (ADCs). At the moment, a number of foreign companies, such as Analog Devices, Texas Instruments and Microchip, produce ADCs in integrated design. Each manufacturer uses its own method of implementing the device. The main task of such devices is to convert voltage to binary code. ADCs are used wherever it is necessary to receive an analog signal and process it in digital form. Examples include applications such as communications and telecommunications, various radio systems, and measurement technology. Very important characteristics of such equipment are dynamic range, ease of implementation and speed. The means of analog-to-digital conversion are constantly being improved, which leads to an increase in the speed of the converters and the frequency band of the converted signals, an increase in the dynamic range, sensitivity and accuracy of the ADC. Significant interest in high-speed ADCs with a large dynamic range is explained by the fact that in the vast majority of telecommunications and radio engineering systems, direct signal conversion schemes without intermediate frequency conversion are increasingly used. Broadband applications have also been developed. The main requirement in these applications is the high sensitivity and wide dynamic range of the transducer for simultaneous detection of strong and weak signals. In this paper, a comparative analysis of the main types of analog-to-digital converters offered on the market is carried out in order to identify the most optimal construction method for using it in modern equipment.

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