SIT1602BC-11-18S-33.333000

Oscillators Overview

The SiTime SIT1602BC-11-18S-33.333000 is a MEMS standard clock oscillator operating at 33.333 MHz with ±20 ppm frequency stability. It features HCMOS and LVCMOS output formats, powered by a 1.8 V supply within a 1.62 V to 1.98 V range. The device draws 4.5 mA current and supports a 15 pF load capacitance. Encased in a 7 mm x 5 mm SMD package measuring 0.9 mm high, it functions across -40°C to +85°C temperatures with a maximum duty cycle of 55%.

Oscillators Feature Summary

• MEMS-based timing solution resistant to shock and vibration
• Factory programmable architecture for flexible configuration
• Operates reliably in extreme environmental conditions

Oscillators Applications

• Industrial equipment requiring robust timing
• Battery management systems
• Automotive electronics

Oscillators Procurement Notes

Verify the specific suffix codes against official documentation to ensure correct voltage, temperature, and packaging specifications. Confirm that the requested part matches the exact electrical parameters required for your design, as minor variations in suffixes can alter functionality or availability.

Oscillators Selection Notes

Select this component when a compact, low-power MEMS oscillator is needed for applications sensitive to mechanical stress. Ensure the 1.8 V supply voltage aligns with system requirements and verify that the 33.333 MHz frequency meets the target circuit's timing needs.

Oscillators Part Context

This model belongs to the SiT1602B series, designed for general-purpose timing applications. It utilizes silicon MEMS technology to replace traditional quartz crystals, offering improved reliability and design flexibility while maintaining a small form factor suitable for space-constrained PCB layouts.

Oscillators Replacement Considerations

Direct substitutes include other SiT1602B variants with matching frequency and voltage but different packages or temperature ranges. Verify pin compatibility and electrical characteristics before swapping to ensure seamless integration without redesigning the host circuit.