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 MIPI I3C is a two-wire interface with a bidirectional data bus for connecting sensors to an application processor.

MIPI I3C is a specification to enable communication between computer chips by defining the electrical connection between the chips & signaling patterns to be used. The standard defines the electrical connection between the chips to be two wires, shared, serial data bus, one wire being used as a clock to define the sampling times, the other wire being used line whose voltage can be sampled.

Functions & Application of MIPI I3C:

The I3C Basic includes many protocol innovations in I3C 1.0 but lacks some of the potentially more difficult to implement ones such as the optional high data rate (HDR) modes like DDR

The MIPI I3C is available for implementation of intended to facilitate a royalty-free licensing environment for all implementers, as described within the specification. I3C main builds on the capabilities of I2C and the ecosystem that has grown up around it, while preserving the two-wire serial interface.

An NXP free license MIPII3C Slave contrivances in Verilog for use in FPGAs and Silicon parts. I3C Slaves come up in I2C mode, as they do not yet possess a Dynamic Address. If they have an I2C static address, then they may operate on a legacy I2C bus, using that static address. I3C Slaves may also support an I2C 50 ns Spike filter for Fm+ modes, and they may support other I2C features that are not supported by I3C such as device ID.

●       Support for numerous transmission modes: Single Data Rate(SDR) & High Data Rate(HDR)

●       Support for in-band interrupts, hot join, peer to peer request, and mastership request.

●       Acquiescent with the least I3C specification.

●       I2C legacy device support

●       Support for I3C common command codes

●       APB interface support for registration access

●       Dynamic address assignment (DAA) support 

●       Command queue acquiescent

Why Should We Prefer MIPI I3C?

The role highlights the importance of the interface between each sensor and its host processor (ECU, MCU, application processor). Interfaces directly affect power consumption, performance, system complexity, development time, cost, and other attributes that determine to IoT device’s success in the marketplace. To know more details about MIPI I3C Basic, MIPI I3C Main, or MIPI I3C Slave & its Versions, please visit our website https://www.digitalblocks.com/

Location: New Jersey, USA

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