Maxim Integrated's MAX396EPI+ Precision, 16-Channel/Dual 8-Channel, Low-Voltage, CMOS Analog Multiplexers
The MAX396EPI+ from Maxim Integrated is a highly versatile and precise analog multiplexer that offers a wide array of features for sophisticated electronic systems. This component is ideal for applications requiring the routing of multiple analog signals to a single output. Its dual functionality allows it to operate as either a 16-channel single-ended analog multiplexer or as a dual 8-channel multiplexer, providing flexibility for various circuit designs.
Constructed with low-voltage CMOS technology, the MAX396EPI+ ensures low power consumption and excellent digital noise immunity, making it suitable for battery-powered devices and noise-sensitive applications. The device operates from a single +5V supply or dual ±5V supplies, giving designers the choice to best suit their system requirements.
Key features of the MAX396EPI+ include:
- Low On-Resistance: 100Ω (max)
- Low Crosstalk Between Channels: -84dB (min)
- Low Off-Channel Leakage Current: 0.1nA (max at +25°C)
- Single-Supply Operation: +4.5V to +30V
- Dual-Supply Operation: ±4.5V to ±20V
- Low Power Consumption: 5µW (max)
- 44-Pin Plastic DIP Package
The MAX396EPI+ boasts a high level of integration, which can help reduce the overall component count in a system, thereby saving space and potentially reducing costs. Its digital interface is TTL and CMOS compatible, allowing for easy integration with a wide range of microcontrollers and digital systems.
Applications for the MAX396EPI+ are diverse and include data acquisition systems, test equipment, communication systems, and medical equipment. Its precision and reliability make it an excellent choice for any application that requires the switching of multiple analog signals with minimal signal distortion or attenuation.
Maxim Integrated's commitment to high-quality and reliable components is reflected in the MAX396EPI+, making it a trusted solution for designers seeking a high-performance analog multiplexer.