ICM7555CD/01,118 General Purpose Timer by NXP

The ICM7555CD/01,118 is a highly versatile and reliable general-purpose timer IC designed and manufactured by NXP Semiconductors. This integrated circuit is a CMOS version of the well-known 555 timer, which is widely used in a variety of electronic applications due to its stability and low power consumption. The ICM7555CD/01,118 is suitable for use in precision timing, pulse generation, sequential timing, and time-delay applications.

Key Features

• Supply Voltage Range: The device operates on a supply voltage range of 2V to 18V, making it compatible with a variety of power sources and suitable for battery-operated applications.
• Low Power Consumption: With its CMOS technology, this timer ensures low power consumption, which is ideal for energy-saving applications.
• High Frequency: It can produce accurate time delays and oscillations, with the capability to reach frequencies up to 1MHz.
• Adjustable Duty Cycle: The ICM7555CD/01,118 offers an adjustable duty cycle, providing flexibility in controlling the timing intervals.
• Stable Operation: Users can expect stable and reliable operation across its full temperature range.

Applications

The versatility of the ICM7555CD/01,118 makes it an excellent choice for a wide range of applications including:

• Timing circuits
• Precision timing
• Pulse generation
• Sequential timing
• Time-delay circuits
• Oscillators

Package and Quality

The ICM7555CD/01,118 is available in a compact 8-pin SOIC package, which is suitable for space-constrained applications. The device is also RoHS compliant, ensuring adherence to the latest environmental standards and regulations. Manufactured by NXP, a leader in semiconductor solutions, you can be assured of the highest quality and performance.

Ordering Information

For ordering or to request samples of the ICM7555CD/01,118, please visit the NXP Semiconductors official website or contact an authorized distributor. Ensure to reference the complete part number to avoid any confusion with similar models.