The 1N821UR-1 is a precision temperature-compensated voltage reference from Microchip Technology. This high-performance component is designed to offer a stable voltage reference over a wide range of environmental conditions, making it an ideal choice for critical and demanding applications.
Key Features
- Voltage Stability: The 1N821UR-1 provides a stable 6.2V output, with excellent temperature stability. This precision voltage reference is temperature-compensated, ensuring minimal voltage variation with temperature changes.
- Low Dynamic Impedance: The dynamic impedance of the device is low, which allows it to maintain voltage stability under varying load conditions, ensuring reliable performance in a variety of circuits.
- High Reliability: Manufactured by Microchip Technology, a leader in the semiconductor industry, the 1N821UR-1 is built to the highest quality standards, offering exceptional reliability for mission-critical applications.
- Hermetically Sealed: The device is hermetically sealed, providing excellent resistance to environmental factors such as moisture and dust, which contributes to its long-term stability and performance.
- Military Standards: The 1N821UR-1 meets rigorous military standards for electronic components, making it suitable for use in defense and aerospace applications where durability and performance are paramount.
Applications
The 1N821UR-1 is versatile and can be used in a variety of applications, including:
- Precision instrumentation
- Analog-to-Digital and Digital-to-Analog converters
- Industrial control systems
- Military and aerospace electronics
- High-precision power supplies
Technical Specifications
- Nominal Voltage: 6.2V
- Temperature Coefficient: Specified over a temperature range
- Package Type: Hermetically sealed
- Compliance: Meets military standards
With its combination of stability, reliability, and versatility, the 1N821UR-1 voltage reference from Microchip Technology is an essential component for designers and engineers who require the highest level of performance from their electronic systems.