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AIoT and the Physical World: Turning Connected Data Into Industrial Intelligence

IoT systems can tell you what is happening in the physical world. AI can help you understand patterns in the data those systems produce. Put them together, and you get AIoT: Artificial Intelligence of Things. For developers and technology teams, AIoT is more than adding an AI model to an IoT application. It involves connecting devices, data pipelines, analytics, applications, and operational…

The interplay between Artificial Intelligence and the Internet of Things (AIoT) enables the transformation of raw data from the physical world into actionable industrial intelligence. In an industrial setting, this interconnected data network can monitor equipment, inventory, and working conditions among other factors to yield valuable insights.

AIoT is more than simply adding an AI model to an IoT application; it involves integrating devices, data pipelines, analytics, applications, and operational workflows into a cohesive system that turns physical-world data into useful information. The AIoT architecture typically consists of five layers, each with its own function: physical environment sensors/devices, IoT infrastructure, data pipelines, AI/Analytics, applications, and operational decisions.

Industrial AIoT environments generate vast amounts of continuous data, with assets moving, inventory changing, equipment operating under varying conditions, and workers interacting with various physical systems. While abundant data does not automatically guarantee improved operations, a successful AIoT implementation must address the practical question of how this information can improve specific decisions or workflows. This approach helps prevent the development of systems merely because a technology is available.

Common AIoT application areas include asset tracking and visibility, inventory and operations management, workforce safety and monitoring, and access control and security. For each area, IoT devices gather data on asset locations, movement, or status; inventory systems provide movement and operating condition data; safety and monitoring systems collect relevant information about working conditions or activities; and access control systems offer insights into activity at physical entry points.

These data streams can then be connected to operational systems to generate a broader view of activity within a facility.

The success of an AIoT system heavily relies on the quality of the data it collects. IoT data can be incomplete, inconsistent, delayed, or inaccurately labeled, potentially leading to unreliable results from downstream analytics. Therefore, an AIoT project should prioritize data engineering, addressing aspects such as data collection, validation, transmission, processing, storage, model processing, and application delivery.

The choice of where processing should occur—either at the edge (closer to physical devices) or in the cloud—depends on the specific requirements of the AIoT application. Factors such as latency, connectivity, data volume, processing needs, reliability, security, and infrastructure considerations play a crucial role in this decision-making process.

Written by urgent.news from Dev.to's reporting — not their text. Machine-written — may contain errors; check the original before relying on it.

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