LTC1296CIN#PBF

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 LTC1296CIN#PBF is a special purpose piece of data acquisition equipment which is capable of handling both analog-to-digital (ADC) and digital-to-analog (DAC) conversions. Specifically, it is designed to be used primarily for sensing or controlling the temperature or current of a device. This technology is particularly useful for embedded applications, and the product has a variety of in-field applications, as well as integrated features that make it ideal for use in many environments and applications.

The LTC1296CIN#PBF achieves its broad range of features through a combination of an analog-to-digital converter, a digital-to-analog converter, a programmable scan-to-output capability, and an integrated, analog multiplexer. All of these components are built into a single integrated design that is optimized for low-power operation and space efficiency as well, making it a great choice for embedded applications.

The ADC portion of the device operates on a 12-bit resolution, with a total of 64 multiplexer channels available. Its low-power operation and low-voltage design make it well-suited for use in environments that have limited power and voltage availability. In addition, the device is capable of converting multiple channels in one sample period, which greatly simplifies the data-acquisition process and allows more efficient use of the integrated processor in a given system.

The DAC portion of the device is also optimized for low-noise operation, with 24-bit resolution and a maximum conversion rate of approximately 50 kHz. This level of resolution and speed enables precise control of a given circuit, allowing for even small changes in voltage or current to be sensed or regulated. For example, the product can be used for multiplexing and testing a circuit’s temperature or current, or for precise measurement of a temperature probe in order to adjust the temperature or flow of process liquid.

In order to better understand the internal workings of the LTC1296CIN#PBF, it is important to briefly discuss how the ADC and DAC portions of the device work together. The overall process can be broken down into three steps: (1) sampling, (2) conversion, and (3) output. During the sampling phase, the ADC quickly samples a selected number of channels in order to accurately represent the analog signal. The resulting digital sample is then processed by the device’s digital-to-analog converter (DAC) before being output to the system.

The DAC portion of the device functions to convert the digital sample into an analog voltage or current, which is then fed to the system. In order to provide precise control, the device features a programmable scan-to-output feature, which enables the user to set the exact voltage or current for a given channel without having to reconfigure the device. This feature can also be used to optimize various parameters, such as temperature or current, for a given system.

In addition, the LTC1296CIN#PBF features a variety of features that make it an attractive choice for embedded applications. Its low-power operation and low-voltage design make it suitable for low power and low voltage applications, while the integrated multiplexer allows multiple channels to be sampled in one sample period. Its high-resolution DAC also allows for precise control over the output, making it possible to regulate circuits in real-time.

The LTC1296CIN#PBF is a great choice for many applications where precise data acquisition is required. Its combination of low-power operation, high-resolution ADC and DAC, and programmable scan-to-output feature make it an ideal choice for embedded applications in which temperature or current control is needed. Its wide range of features makes it well-suited for multiple applications, and its low-voltage design and multiplexing capabilities make it suitable for low-power operation and space efficiency.

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