MAX6384XS17D1+T

Product Overview

Category

MAX6384XS17D1+T belongs to the category of integrated circuits (ICs).

Use

This product is commonly used in electronic devices for voltage monitoring and reset functions.

Characteristics

• Voltage monitoring and reset functionality
• Low power consumption
• Small form factor
• Wide operating temperature range

Package

The MAX6384XS17D1+T is available in a small SOT23-5 package.

Essence

The essence of MAX6384XS17D1+T lies in its ability to monitor voltage levels and provide a reset signal when necessary, ensuring proper operation of electronic devices.

Packaging/Quantity

This product is typically packaged in reels or tubes, with a quantity of 3000 units per reel/tube.

Specifications

• Supply Voltage Range: 1.6V to 5.5V
• Reset Threshold Voltage: 1.7V
• Reset Timeout Period: 140ms
• Quiescent Current: 3µA (typical)
• Operating Temperature Range: -40°C to +85°C

Detailed Pin Configuration

The MAX6384XS17D1+T has the following pin configuration:

1. GND (Ground)
2. MR (Manual Reset)
3. RESET (Reset Output)
4. VCC (Supply Voltage)
5. TH (Threshold)

Functional Features

• Voltage Monitoring: The MAX6384XS17D1+T continuously monitors the supply voltage and compares it to the preset threshold voltage.
• Reset Generation: When the supply voltage falls below the threshold voltage, the device generates a reset signal to ensure proper system operation.
• Manual Reset: The MR pin allows for manual reset control, overriding the automatic reset function.
• Adjustable Threshold: The threshold voltage can be adjusted using an external resistor connected to the TH pin.

Advantages and Disadvantages

Advantages

• Compact size allows for easy integration into various electronic devices.
• Wide operating temperature range enables usage in harsh environments.
• Low power consumption prolongs battery life in portable applications.

Disadvantages

• Limited reset timeout period may not be suitable for certain applications requiring longer reset times.
• Lack of built-in hysteresis may result in potential voltage fluctuations during the transition from reset to normal operation.

Working Principles

The MAX6384XS17D1+T operates by continuously monitoring the supply voltage using a voltage comparator. When the voltage falls below the preset threshold, the device triggers a reset signal. This ensures that the system is properly reset and starts functioning correctly. The manual reset feature allows for additional control over the reset function.

Detailed Application Field Plans

The MAX6384XS17D1+T finds application in various electronic devices where voltage monitoring and reset functionality are crucial. Some specific application fields include:

1. Microcontrollers: Ensures proper initialization and reliable operation of microcontroller-based systems.
2. Power Management Systems: Monitors voltage levels to protect sensitive components from undervoltage conditions.
3. Industrial Control Systems: Provides reset functionality to ensure safe and reliable operation of industrial equipment.
4. Automotive Electronics: Enables proper reset and initialization of automotive electronic systems for enhanced reliability.

Detailed and Complete Alternative Models

1. MAX6384XS17D1+T: The product described in this entry.
2. MAX6385XS17D1+T: Similar to MAX6384XS17D1+T, but with a different reset threshold voltage.
3. MAX6386XS17D1+T: Offers adjustable reset timeout period in addition to voltage monitoring and reset functions.

These alternative models provide similar functionality to the MAX6384XS17D1+T, catering to different voltage threshold requirements and additional features.

In conclusion, the MAX6384XS17D1+T is a compact integrated circuit that provides voltage monitoring and reset functionality. Its small form factor, low power consumption, and wide operating temperature range make it suitable for various electronic devices. While it offers advantages such as easy integration and extended battery life, it also has limitations in terms of reset timeout period and hysteresis. Nonetheless, its working principles and application field plans demonstrate its importance in ensuring reliable operation of electronic systems.