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What is Internet of Things (IoT)?

The Internet of Things (IoT) is a network of connected objects and devices (aka “things”) that are equipped with sensors (and other technologies) that allows them to transmit and receive data—to and from other things and systems. Today IoT is used extensively in industrial settings (IIoT) and is synonymous with Industry 4.0.

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IoT definition in detail

In the most general of terms, the Internet of Things includes any object—or “thing”—that can be wirelessly connected to an Internet network. But today, IoT has more specifically come to mean connected things that are equipped with sensors, software, and other technologies that allow them to transmit and receive data—for the purpose of informing users or automating an action. Traditionally, connectivity was achieved mainly via Wi-Fi, whereas today 5G and other types of network platforms offer the promise of handling huge data sets, almost anywhere, with speed and reliability.

Once IoT devices collect and transmit data, the ultimate point is to learn as much as possible from it, and make it deliver increasingly accurate and sophisticated outputs and insights. This is where AI technologies come into play: augmenting IoT networks with the power of generative AI, machine learning, and data analytics.

Key drivers of IoT growth

In just a few decades, IoT data has grown exponentially, and that’s likely to continue. So what set off this Internet of Things boom? For IoT to evolve, a specific set of technologies had to come together and advance concurrently.

How does IoT work?

IoT devices are our eyes and ears when we can’t physically be there—capturing whatever data they are programmed to gather. That data can then be collected and analyzed to help us inform and automate subsequent actions or decisions. There are four key stages in this process:

  1. Capture the data. Through sensors, IoT devices capture data from their environments. This could be as simple as the temperature or as complex a real-time video feed.
  2. Share the data. Using available network connections, IoT devices send this data to a public or private cloud system (device-system-device) or to another device (device-device), or store it locally as directed for processing at the edge.
  3. Process the data. At this point, software is programmed to do something based on that data—such as turn on a fan or send a warning.
  4. Act on the data. Accumulated data from all devices within an IoT network is analyzed. This delivers powerful insights to inform confident actions and business decisions.

Examples of IoT networks in action

IoT networks and the data they produce are at work in virtually all aspects of modern life—in our homes, our cars, our stores, and even on our bodies.

What are the industrial uses of IoT data?

Of the trillions of gigabits of data we generate each year, Industrial IoT (IIoT or Industry 4.0) data is the largest (and fastest growing) producer of data. This growth in data comes from myriad sources, from surveillance cameras to connected cars and manufacturing and transportation applications. Today, IIoT data is generated, gathered, and leveraged across virtually every industry, from supply chain management to healthcare.

One of the areas in which IIoT technology is growing the fastest is within manufacturing and supply chains. In a smart factory, sensors can detect and even predict mechanical issues to keep things running smoothy. They can also collect and analyze operational data to find workflows and processes that are the fastest and most efficient—which can then be automated via a central system. In supply chains, IoT solutions help to streamline operation from end to end. Raw goods and supplies can be tracked for safety and provenance. Cargo, shipping, and last-mile logistics can be monitored in real time. And customers can have live updates about the state of their orders or the origin of their products.

The future of IoT

What we can look for in the future, is a more seamless integration between technology and human experience. While the metaverse may still be a few years away, 3D audio, advanced virtual reality, haptic sensations, and AI-powered real-time personalization will mean that our interaction with the devices around us, will allow for increasingly “real” sensory experiences. Furthermore, with the rise of 5G and globally ubiquitous fast connectivity, humans will have a quantum-like ability to share these experiences across any distance. The implications of this are vast and have the potential to change how we approach some of our most fundamental activities and institutions such as workplaces, surgical and medical care, real estate, shopping, travel, and human relations in general.