What is the Industrial Internet of Things (IIOT)

What is IIoT and How Does IIoT Work?

Consider a factory floor filled with intelligent machines, sensors transferring data, and insights generated to every corner. That’s IIoT, the Industrial Internet of Things. It’s the fusion of cutting-edge technology and industrial expertise, transforming everyday machines into data-driven powerhouses.

Here’s the magic behind IIoT:

  • Smart Devices: Sensors, actuators, and intelligent machines are embedded throughout the production process, capturing data on everything from temperature and pressure to machine health and product quality.
  • Data Connectivity: A secure network connects these devices, transmitting this valuable data to central hubs and cloud platforms.
  • Data Analysis: Powerful software crunches the numbers, uncovering hidden patterns and trends that guide informed decision-making.
  • Actionable Insights: Insights are translated into real-time actions. Machines adjust settings, operators receive alerts, and managers optimize production, all based on the data’s wisdom.

IIoT is like a nerve system for your factory, sensing, analyzing, and adapting with real-time intelligence. It’s a symphony of technology and industry, harmonizing efficiency, productivity, and innovation.

Differences Between IIoT and IoT

While IIoT shares similarities with the broader Internet of Things (IoT), it’s a focused evolution, tailored for the unique demands of industrial environments. Here’s what sets it apart:

  • Data Complexity: IIoT handles complex, industrial-grade data, often involving real-time measurements, equipment performance, and safety-critical information.
  • Rugged Hardware: IIoT devices must withstand harsh environments, extreme temperatures, and potential physical impacts.
  • Focus on Performance: IIoT’s primary goal is to optimize industrial processes, improve operational efficiency, and drive measurable ROI.

Think of IIoT as a specialized branch of the IoT family, built for the demanding world of manufacturing, energy, and other industrial sectors.

(credit: CoreTigo)

Benefits of IIoT

Ready to witness the transformative power of IIoT? Here’s a glimpse of the benefits it unlocks:

  • Increased Efficiency: Optimize production processes, reduce downtime, and minimize waste with data-driven insights.
  • Predictive Maintenance: Anticipate equipment failures before they happen, preventing costly breakdowns and production disruptions.
  • Enhanced Quality Control: Continuously monitor product quality throughout the process, ensuring top-notch standards and reducing defects.
  • Data-Driven Decisions: Make informed decisions based on real-time data, not just hunches, leading to better business outcomes.
  • New Revenue Streams: IIoT enables innovative services like remote monitoring, predictive maintenance contracts, and data-driven product development.

IIoT isn’t just a buzzword; it’s a game-changer, empowering industries to operate smarter, safer, and more sustainable. It’s the future of manufacturing, and the time to embrace its potential is now.

The Wireless Convergence of IT and OT

The convergence of Information Technology (IT) and Operational Technology (OT) forms the backbone of the Industrial Internet of Things (IIoT).

IIoT empowers manufacturers with a panoramic view of their entire operations, bridging the IT/OT divide. It fosters informed decision-making by integrating data across all levels, from strategic insights for enterprise leadership to actionable intelligence on the production floor.

Historically, data remained siloed on the factory floor due to the high cost and complexity of wired communication networks. Cabling is expensive, disrupts production, and requires significant infrastructure support. For factories with sizeable investments in existing wired systems, adding more cables for new applications is often daunting.

But here’s where industrial wireless automation shines. Forward-thinking industrial players are bypassing the cabling constraints by retrofitting existing equipment with wireless industrial communication devices thanks to CoreTigo’s IO-Link Wireless technology. This enables seamless expansion of production lines and integration of new applications without costly infrastructure overhauls or replacing machinery.

This shift towards wireless represents a paradigm change in industrial intelligence. It empowers manufacturers to unlock the full potential of IIoT, optimizing operations, boosting efficiency, and driving smarter decision-making across the entire enterprise.

IIoT in Action: Bringing Intelligence to Factory Floor

The Industrial Internet of Things (IIoT) isn’t just a theoretical concept. Thanks to IO-Link Wireless, it’s revolutionizing industries right now. In a bustling auto plant, robots equipped with vision systems autonomously identify defective parts on the assembly line. Connected machines instantly adjust settings based on real-time data, optimizing production and minimizing waste. This hyper-connected ecosystem is the hallmark of IIoT in action.

Predictive Maintenance: Seeing Through Time to Save Resources

IIoT creates a world where you can predict the future, not of lottery numbers, but of machine breakdowns. That’s the power of predictive maintenance (PdM), a revolutionary approach that uses data and analytics to anticipate equipment failures before they happen. By proactively scheduling maintenance, PdM saves businesses millions by preventing downtime, avoiding repair costs, and improving productivity.

So, how does it work? Utilizing IO-Link Wireless, PdM employs a three-pronged approach:

  • Data Gathering: Sensors and monitoring systems embedded in machines collect real-time data on vibration, temperature, energy consumption, and other vital parameters.
  • Data Analysis: Powerful algorithms and AI tools analyze this data, identifying patterns and trends that indicate potential problems.
  • Proactive Action: Based on the analysis, maintenance teams are alerted to potential failures, which allows them to schedule repairs before the equipment breaks down.

Let’s take some real-world examples:

Wind Turbines

A classic example is that of a network of wind turbines scattered across a vast landscape. Each turbine is equipped with sensors that monitor vibration, temperature, and blade stress.

PdM algorithms analyze this data, predicting bearing wear, gearbox fatigue, and even potential icing on the blades. This information helps technicians schedule maintenance during calm periods, avoiding costly downtime and ensuring continued energy production.

Production Lines

In a busy factory, PdM systems monitor the health of critical machinery, from conveyor belts to CNC machines. 

By analyzing vibration, temperature, and power consumption, the system can predict potential failures like jammed components, worn bearings, or overheating motors. Maintenance teams can then address these issues before they disrupt production, ensuring smooth operation and on-time deliveries.

Medical Equipment

PdM can make a significant impact on streamlining hospital equipment operations. For example, MRI machines can be equipped with sensors that monitor vibration, temperature, and energy usage. PdM algorithms can predict potential coil failures, power supply issues, or cooling system inefficiencies. This allows technicians to schedule preventive maintenance, ensuring critical equipment is always available for patient care.

The benefits of PdM are undeniable:

  • Reduced Downtime: Proactive maintenance minimizes equipment failures and production disruptions, leading to increased uptime and productivity.
  • Lower Costs: Avoiding costly emergency repairs and replacing parts saves businesses significant money in the long run.
  • Improved Safety: Early detection of potential problems reduces the risk of accidents and injuries caused by equipment failures.
  • Enhanced Efficiency: Data-driven insights help optimize maintenance schedules and resource allocation, leading to a more efficient operation.

As technology advances, PdM is becoming increasingly sophisticated and affordable. Today, it’s no longer just for large enterprises; even small and medium-sized businesses can reap the benefits of this transformative technology.

Industrial Communication: The Language of Smart Machines

In every factor, machines interact with each other in many different ways. This is the world of industrial communication, the language that connects the brains (PLCs, controllers) and brawn (actuators, robots) of modern industry.

Industrial communication:

  • Defines the protocols and technologies that enable data exchange within industrial control systems.
  • Connects sensors, actuators, controllers, and other devices, allowing them to share information and coordinate actions.
  • Plays a crucial role in real-time monitoring, predictive maintenance, and optimizing industrial processes.

The landscape of industrial communication is diverse, with options for every need:

Wired Technologies:

  • Fieldbus: Dedicated networks like PROFINET, PROFIBUS, and Foundation Fieldbus offer reliable communication for harsh environments.
  • Industrial Ethernet: Adapts the familiar Ethernet protocol for industrial settings, providing high bandwidth and flexibility.
  • IO-Link: Point-to-point communication protocol for sensors and actuators, enabling intelligent data exchange and diagnostics.

Wireless Technologies:

  • Industrial Wi-Fi: High-performance Wi-Fi variants like Wi-Fi 6 and Time-Sensitive Networking (TSN) try and cater to the real-time demands of industrial applications with little success.
  • Cellular IoT: Low-power wide-area (LPWA) technologies like LTE-M and NB-IoT provide cost-effective connectivity for remote assets and distributed networks.
  • IO-Link Wireless: Offers the same reliability, robustness, speed, and deterministic nature of wired IO-Link, in a wireless manner. 

Choosing the right communication protocol depends on various factors:

  • Application requirements: Real-time control, data monitoring, or remote connectivity each have different bandwidth and latency needs.
  • Network topology: Wired networks offer high reliability, while wireless solutions provide flexibility and reach difficult locations. IO-Link Wireless combines them both.

Examples of Industrial Communication in Action:

  • Predictive maintenance: Sensors on assembly line robotic arms and conveyor belts, using AI to predict potential failures and schedule preventative maintenance.
  • Automated production lines: Industrial Ethernet connects robots, PLCs, and vision systems, enabling coordinated actions and real-time adjustments based on sensor feedback.

Industrial communication is the vital link between data and action, the backbone of the IIoT revolution. As technology advances, we can expect even more efficient, secure, and intelligent communication solutions, further empowering industries to unlock their full potential.

(credit: CoreTigo)

Smart Machine Tooling

In the ever-evolving world of manufacturing, smart machine tooling is emerging as a game-changer. It’s not just about robots and automation. It’s about infusing machines with intelligence, adaptability, and connectivity, enabled by IO-Link Wireless. 

Smart CNC machines that seamlessly measure multiple variables based on real-time material analysis are already a reality. So are smart flexible packaging lines, adapting to handle diverse product shapes and sizes while in motion. This is the magic of smart machine tooling.

Some of the tangible examples are:

  • Smart Transport Tracks: Production lines can be equipped with intelligent tracks that not only convey materials but also track their location, health, and even environmental conditions. This Smart Transport Track system enables predictive maintenance, optimizes production flow, and ensures product quality through real-time data analysis.
  • Smart Packaging Machines: The packaging line can automatically adjust settings based on the product being processed. It identifies size, shape, and fragility, then selects the ideal materials and techniques, minimizing waste and ensuring perfect packaging for every item. This is the power of smart packaging machines, maximizing efficiency and minimizing errors.

These are just glimpses into the future of manufacturing, where smart machine solutions like intelligent welding robots, self-optimizing cutting tools, and data-driven factory layouts offer unparalleled flexibility, efficiency, and productivity. 

In this new paradigm, smart machines aren’t just tools. They are collaborative partners, learning, adapting, and constantly improving the manufacturing process. 

The Future is Connected: IIoT’s Transformative Journey

The Industrial Internet of Things (IIoT) is no longer a futuristic vision. It’s an integral part of modern industry. From smart sensors whispering data to intelligent machines making real-time decisions, IIoT is weaving a web of connection, intelligence, and efficiency that’s revolutionizing every sector, from manufacturing and healthcare to agriculture and energy.

IO-Link Wireless

IO-Link Wireless stands out for being an industrial-grade two-way communication system. It not only sends important data but also allows users to set up and check on devices with ease. This two-way conversation between devices makes integrating new technology simpler, keeps maintenance straightforward, and minimizes any pauses in production.

In a factory setting, using IO-Link Wireless can lead to major improvements in how things run. For instance, a manufacturer could use IO-Link Wireless to monitor machinery conditions in real-time, adjusting settings without stopping the assembly line. This can lead to fewer disruptions and a more efficient production process. Plus, going wireless with IO-Link Wireless means fewer cables, creating a neater and safer work environment.

Furthermore, IO-Link Wireless offers the ability to connect multiple devices on a single cable, reducing installation time and costs. With its standardized interface, IO-Link Wireless also allows for seamless integration of new components into existing systems. This makes upgrading or expanding production processes much more manageable and cost-effective.

IO-Link Wireless’ diagnostic capabilities are another essential feature that sets it apart from traditional communication systems. With IO-Link Wireless, users can monitor the health and status of devices in real-time, enabling predictive maintenance and reducing downtime. This not only saves time but also prevents unexpected breakdowns that could lead to costly repairs or replacements.

Moreover, IO-Link Wireless is a versatile technology that can be used in various industrial applications such as robotics, packaging machines, and motion control systems

We’ve touched upon the transformative power of IIoT, but the journey is just beginning. The future holds even more exciting possibilities, fueled by:

  • Hyper-connectivity: Such is an industrial landscape where every device, from the smallest sensor to the most powerful machine, is seamlessly connected, sharing data in real-time. This hyper-connected ecosystem will unlock unprecedented levels of collaboration, optimization, and agility.
  • Advanced Analytics: Data is the gold of the IIoT era, and powerful AI and machine learning algorithms will extract even deeper insights from this treasure trove. Consider predictive maintenance anticipating failures before they happen, or production lines self-adjusting to optimize output based on real-time data analysis.
  • Human-Machine Convergence: The future of IIoT isn’t about replacing humans with machines. It’s about empowering us with their intelligence. Augmented reality (AR) will overlay vital data onto our vision, guiding us in complex tasks. AI-powered assistants will anticipate our needs and provide actionable insights. Collaboration, not competition, will define the human-machine relationship in the IIoT future.

But this transformative journey also comes with challenges:

  • Standardization: The proliferation of diverse technologies and protocols can create communication silos. Establishing industry-wide standards in the form of IO-Link Wireless will be crucial for smooth interoperability and data exchange.
  • Skilling the Workforce: Embracing IIoT requires a skilled workforce capable of managing, analyzing, and leveraging its power. Reskilling and upskilling initiatives will be vital to bridge the workforce gap.

Despite these challenges, the future of IIoT is undeniably bright. It’s a future where factories operate at peak efficiency, healthcare becomes personalized and proactive, and energy grids manage resources sustainably. It’s a future where smart machines and intelligent systems work in harmony with humans, unlocking a new era of innovation and prosperity.

About CoreTigo:

CoreTigo empowers expedited and adaptable manufacturing through the provision of advanced machine digitalization, wireless connectivity, and edge solutions tailored for machine builders, system integrators, and industrial equipment manufacturers. Employing the robust IO-Link Wireless global standard, CoreTigo’s solutions are well-suited for demanding factory settings and motion control applications, facilitating seamless integration into various industrial environments.

This article was written in cooperation with CoreTigo