MAX13108EETL+

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The MAX13108EETL+ is an integrated transceiver circuit with a dual output high speed interface and a low power sleep mode. It is used to translate an interface of one voltage level to another voltage level. The circuit is designed to work with protocols such as I2C and SPI, and is the first high speed adapter board on the market with both logic levels and a wide voltage range.

The MAX13108EETL+ is a 16-bit logic level translator. It has two paths, one path operating up to 1.8V and the other path operating between 2.5V and 5V. This level shifting capability enables the MAX13108EETL+ to bridge multiple voltage interfaces while maintaining signal levels.

Its working principle is simple. The input is a dual-output interface, and the voltage of each output is subjected to level shifting. A CMOS buffer is used to send the output signals to the destination device. The buffer outputs the signal at the destination level, and the destination device\'s input is the required logic level for the desired protocol.

The MAX13108EETL+ is mainly used for communication between devices operating at different voltage levels. It is also used to bridge between computers and other electronic peripherals in order to convert signals between different voltage levels. For example, it is commonly used to bridge USB to RS232 signals, and can help connect an application processor board to a USB host controller.

The advantages of using the MAX13108EETL+ include its high frequency performance and low power sleep mode. It also allows for multiple voltage and logic level setting, making it ideal for applications where a wide voltage range is needed. Furthermore, it is an easy-to-use adapter, as it requires no external components.

The MAX13108EETL+ is an example of a logic-level translator, level shifting IC which is mainly used for communication between electrical devices operating at different voltage levels. Its working principle is simple: it translates signals by shifting the voltage, then sends them to the desired protocol with a CMOS buffer. Its main advantage is its high frequency performance and low power sleep mode, which makes it perfect for applications needing a wide voltage range.

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