Manufacturer Part Number
DSC1123CI2-125.0000T
Manufacturer
microchip-technology
Introduction
The microchip-technology DSC1123CI2-125.0000T is a high-performance MEMS-based crystal oscillator with a frequency of 125 MHz and an LVDS output. It is designed to provide a stable and accurate clock signal for a wide range of electronic applications, including telecommunications, industrial automation, and consumer electronics.
Product Features and Performance
MEMS-based crystal technology for enhanced reliability and stability
Frequency of 125 MHz
LVDS output
Voltage supply range of 2.25V to 3.63V
Frequency stability of ±25 ppm
Operating temperature range of -40°C to 85°C
Maximum supply current of 32 mA
AEC-Q100 qualified for automotive and industrial applications
Product Advantages
Highly stable and accurate clock signal
Compact surface-mount package for efficient board layout
Low power consumption for energy-efficient designs
Automotive and industrial-grade reliability
Key Reasons to Choose This Product
Proven MEMS-based technology for superior performance and reliability
Wide operating temperature range and AEC-Q100 qualification for demanding applications
Compact and low-power design for space-constrained and power-sensitive systems
Excellent value for the level of performance and features offered
Quality and Safety Features
AEC-Q100 qualified for automotive and industrial applications
Robust surface-mount package for reliable operation
Compatibility
The DSC1123CI2-125.0000T is compatible with a wide range of electronic systems and can be easily integrated into various circuit designs.
Application Areas
Telecommunications equipment
Industrial automation and control systems
Consumer electronics
Automotive electronics
Product Lifecycle
The DSC1123CI2-125.0000T is an active product, and there are no immediate plans for discontinuation. However, as technology evolves, customers are advised to check with the manufacturer or our website's sales team for the latest product information and availability of any equivalent or alternative models.