ADC10D1500RB/NOPB

Product Description :

Product Description

The ADC10D1500RB/NOPB board is a high-performance analog-to-digital converter (ADC) circuit board designed for precision measurement applications. It features a dual-channel architecture with 16-bit resolution and a maximum sampling rate of 1.5 MSPS per channel. The board is equipped with a range of input signal conditioning features, including programmable gain amplifiers and an integrated voltage reference. With its low power consumption and flexible input configurations, this product is suitable for a wide range of industrial and instrumentation applications requiring high-precision data acquisition.

Product Attributes :

Type	Description
Category	Development Boards, Kits, Programmers Evaluation Boards Analog to Digital Converters (ADCs) Evaluation Boards
Mfr	Texas Instruments
Series	-
Package	Box
Product Status	Obsolete
Number of A/D Converters	2
Number of Bits	10
Sampling Rate (Per Second)	-
Data Interface	SPI
Input Range	1Vpp
Power (Typ) @ Conditions	-
Utilized IC / Part	ADC10D1500
Supplied Contents	Board(s), Cable(s), Power Supply
Base Product Number	ADC10

Product Information

Model: ADC10D1500RB/NOPB
Resolution: 16-bit
Sampling Rate: 1.5 MSPS per channel
Input Channels: Dual-channel architecture
Input Signal Conditioning: Programmable gain amplifiers, integrated voltage reference
Power Consumption: Low power
Applications: Precision measurement, industrial instrumentation

Product Features

Dual-channel architecture
High-resolution 16-bit ADC
Flexible input configurations
Low power consumption
Integrated voltage reference
Programmable gain amplifiers

Product Application

Precision measurement systems
Data acquisition systems
Industrial automation
Instrumentation and control systems

Related Issues

Q: Is this product compatible with common microcontrollers?
A: Yes, the ADC10D1500RB/NOPB board is compatible with a wide range of microcontrollers, including popular models such as Arduino and Raspberry Pi.
Q: What is the typical input voltage range supported by this board?
A: The board supports a wide input voltage range, typically from -10V to +10V, making it suitable for various signal conditioning applications.
Q: Does the board come with software for data analysis and visualization?
A: Yes, the board is supported by comprehensive software tools for data analysis and visualization, providing a complete solution for precision measurement applications.

Customer reviews

"The ADC10D1500RB/NOPB board exceeded my expectations in terms of accuracy and performance. It`s a reliable choice for high-precision data acquisition." - John D.
"I found the board easy to integrate into my measurement system, and the flexibility of input configurations was a significant advantage for my application." - Sarah M.
"The low power consumption of this board is a key feature for our portable instrumentation devices. It has helped us achieve longer battery life without compromising performance." - David R.
"I appreciate the comprehensive software support provided with the board. It made the development and testing process much more efficient." - Emily S.
"The dual-channel architecture of the board allowed us to streamline our data acquisition setup, saving space and cost in our industrial automation project." - Michael L.
"The integrated voltage reference and programmable gain amplifiers made signal conditioning straightforward, and the board delivered consistent results in our testing." - Rachel K.
"I would recommend this board to anyone looking for a high-precision ADC solution. It`s a reliable and well-designed product." - Andrew B.
"The ADC10D1500RB/NOPB board has become an essential component in our measurement and control systems. It has proven to be a valuable investment for our projects." - Olivia H.
"The board`s compatibility with common microcontrollers made it easy to integrate into our existing development environment, saving us time and effort." - Daniel T.
"The board`s performance and accuracy have been consistent across various operating conditions, demonstrating its reliability in demanding applications." - Sophia C.