Product Overview: AD8207WBRZ-R7 by Analog Devices Inc.
The AD8207WBRZ-R7 is a high-performance, single-supply difference amplifier from Analog Devices Inc., designed to amplify small differential voltages in the presence of large common-mode voltages. With its wide input common-mode voltage range and high common-mode rejection ratio (CMRR), the AD8207WBRZ-R7 is an ideal choice for current sensing in battery management systems, motor control applications, and general-purpose data acquisition systems.
Key Features:
- Wide Input Common-Mode Voltage Range: The device can handle common-mode voltages from -2 V to +65 V, making it suitable for various applications that require monitoring across a broad voltage range.
- High CMRR: With a common-mode rejection ratio of 86 dB (minimum) at DC, the AD8207WBRZ-R7 ensures accurate measurements by minimizing the effects of common-mode noise.
- Single Supply Operation: The amplifier can operate from a single 5 V to 27 V supply, which simplifies the power supply design and is compatible with many industry-standard voltages.
- Fixed Gain: A fixed gain of 20 V/V eliminates the need for external gain-setting resistors, thus reducing board space and component count.
- Excellent Temperature Performance: The device offers a temperature range of -40°C to +125°C, making it reliable in extreme conditions and suitable for automotive and industrial applications.
- Robust Packaging: The AD8207WBRZ-R7 comes in a compact SOIC-8 package with the R7 suffix indicating a 7-inch reel packaging option for ease of manufacturing and assembly processes.
Applications:
Due to its high precision and robustness, the AD8207WBRZ-R7 is commonly employed in:
- Automotive battery monitoring
- Motor control feedback systems
- Power management systems
- Overcurrent detection
- Industrial process controls
Analog Devices Inc. is known for their high-quality components, and the AD8207WBRZ-R7 is no exception. It delivers precision and reliability where it matters most, providing engineers with a trusted solution for differential signal amplification in challenging environments.