MAX183BEWG+

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

The MAX183BEWG+ is an integrated circuit from Maxim Integrated, a leader in analog and mixed-signal semiconductors. This highly integrated device offers an ideal solution for data acquisition needs in a variety of applications. The MAX183BEWG+ is an Analog to Digital Converter (ADC) that enables conversion of analog signals into digital values. It is a low-power, 12-bit highly accurate, sigma-delta (Σ-Δ) converter that is designed for low cost and low voltage voltage supply.The MAX183BEWG+ is designed for high performance, with a maximum sampling rate of up to 2000 sample/second and a resolution of 12-bits, providing greater accuracy and faster sampling rates. The device is also designed to minimize noise with its low-noise, sigma-delta architecture and low-offset, low-drift amplifiers. Its digital output format is configurable for either serial or parallel modes.The MAX183BEWG+ is designed for applications where low power consumption is a priority. It offers a supply voltage range of 2.7 to 5.5V, making it an ideal solution for systems that require extended battery life or portable systems that operate on battery power. The device has a low current consumption of 15mW, making it an energy-efficient solution. Furthermore, its Sleep mode offers ultra-low current consumption of only 2μA.Applications for the MAX183BEWG+ include medical instruments, process control, optical and magnetic data acquisition, robotics, and any application where a low-power, low-cost solution is needed. Its wide range of features combined with the fact that it operates from a single supply voltage makes the MAX183BEWG+ an excellent choice for IoT, wearable technology, and any other low-power applications.The working of the MAX183BEWG+ is based on its sigma-delta architecture. It consists of a first order modulator, a low-pass filter, and a digital-to-analog converter. The analog input is fed into the modulator, which performs a noise shaping operation through a feedback loop. The noise-shaped signal is then passed through the low-pass filter, which eliminates out-of-band frequencies. It is then converted to a digital output by the digital-to-analog converter. The resulting digital output is proportional to the analog input.

The specific data is subject to PDF, and the above content is for reference