ISL3281EFHZ-T Integrated Circuits (ICs)

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The ISL3281EFHZ-T is a fully integrated non-inverting I2C to low voltage differential signaling (LVDS) converter designed to translate I2C data into the LVDS format. The device operates at a supply voltage of 2.5V to 5.5V and comprises of three components; a 2:1 multiplexer, an LVDS driver and a power down (down) function.

The 2:1 multiplexer receives I2C data from a master device (microcontroller, CPU, etc.) and passes it to the LVDS driver, where it is converted into a differential LVDS signal. This signal is then passed to the downstream LVDS receiver, which converts the signal back into its original I2C format. The multiplexer also provides the power down function, making it possible to power down the device when it is not in use.

The LVDS driver is responsible for converting the I2C data into a differential LVDS signal with a high speed, low power operation that operates at a voltage range of 1.4V to 2.5V. The driver features adjustable signal amplitude and common mode voltage, making it possible to interface with a wide variety of LVDS receivers. In addition, the driver features an adjustable propagation and transition delay time, allowing for greater flexibility in terms of timing.

The ISL3281EFHZ-T is ideal for applications such as automotive, medical and industrial control systems, where the need exists to translate I2C data into LVDS. It is also well suited for use in any low voltage-sensitive structures such as in-vehicle networks and Ethernet networks. The device is RoHS compliant, making it the perfect choice for high-reliability designs.

The ISL3281EFHZ-T device is a versatile interface solution that employs an I2C interface and LVDS output. Its three component design enables high speed and low power operation, while its adjustable signal amplitude and common mode voltage make it compatible with a wide variety of LVDS receivers. Furthermore, its adjustable propagation and transition delay time allows for greater flexibility in terms of timing. These features make it a great choice for applications such as automotive, medical and industrial control systems, as well as in-vehicle and Ethernet networking.

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