Close
Forgot password?
  • Federal EIS Portal

    Portal for federal employees and agencies with dashboard, invoice and inventory management, reports, help desk, ordering and more.

    Sign in  
  • Bill Pay Portal

    Customer billing portal to access and pay
    your MetTel invoice.

    Sign in  
  • Agent Portal

    Sales information portal for agent
    partners.

    Sign in  

The Future of Production: Exploring IoT in Manufacturing

Iot in manufacturing

The Internet of Things (IoT) is nothing short of revolutionary. Interconnected devices have opened up a whole new world of possibilities, from self-driving cars to connected buildings and homes. IoT has transformed the way work is done across all industries. In this blog post, we’ll explore how IoT is revolutionizing the manufacturing industry and discuss powerful use cases of IoT for manufacturing.

The Role of IoT in Manufacturing

While traditional manufacturing involves a fair amount of automation, many processes are still done manually. For example, workers need to assess the condition of each machine regularly to determine if repairs are needed.

In addition, with traditional manufacturing, each factory generally operates as an individual silo. That means that if the head office wants to know the status of a process at a particular plant, they would need to rely on human supervisors for updates.

With IoT, manufacturing companies can eliminate many of these inefficiencies using secure connectivity, automation, and real-time data capabilities. IoT in manufacturing improves operational efficiencies, reduces costs, enhances product quality, and provides better control and visibility. Let’s explore some of these benefits in greater detail.

How IoT in Manufacturing is Revolutionizing the Industry

Real-Time Data Monitoring and Collection

Monitoring is one of the best uses of IoT in factory environments. Embedded sensors can track data and metrics in real time, providing insights into machine performance, product quality, and energy consumption. In addition, IoT can automate quality control by checking on product quality at various stages of manufacturing. Defects can be caught early, reducing waste and improving consistency.

Centralized management allows for overseeing multiple operations in multiple locations for immediate response to issues.

Predictive Maintenance

Self-diagnosis and repair are hallmarks of smart manufacturing. IoT sensors make this possible by closely tracking a machine’s parameters like run-time hours used, energy consumption, temperature, vibration, and wear and tear. The goal is to detect and repair defects before they happen to help streamline operations, reduce downtime, and cut down on maintenance costs.

Supply Chain Optimization

Using IoT, smart factory machines can keep track of materials and products as they move through the process line. Raw materials, tools, or other components needed for production are also tracked throughout the supply chain. This can simplify inventory management, improve shipping and help with demand forecasting, reducing costs and providing management with an accurate measure of their raw material usage.

Process Automation

By incorporating IoT, smart manufacturing processes automate entire production pipelines. Sensors can detect various parameters, such as temperature, pressure, humidity, and motion. The system can then read this data and optimize the process as necessary. For example, increasing heat automatically to compensate for a drop in ambient temperature.

IoT in Manufacturing Challenges

While IoT systems offer transformative benefits, implementation presents several challenges, from integration to data security concerns. Addressing these obstacles is essential for manufacturers to maximize the potential of industrial automation.

Managing Large Data Volumes

IoT devices generate vast amounts of real-time data, requiring strong analytics to extract actionable insights. Inefficient data processing infrastructure can cause delays, unnecessary storage costs, and difficulty identifying relevant information.

Cybersecurity Risks

As industrial IoT systems connect more devices, they become prime targets for cyber threats. Unauthorized access to machine data can disrupt manufacturing operations, expose intellectual property, or manipulate production settings. Strong encryption, authentication protocols, and continuous monitoring are necessary to prevent breaches.

High Implementation Costs

Deploying IoT solutions requires investments in hardware, edge computing, workforce training, and security enhancements. Companies need to balance the cost of implementation with the long term benefits and savings associated with predictive maintenance, automation, and supply chain optimization in order to establish a clear ROI strategy.

Network Reliability

For IoT systems to function efficiently, they need stable, high-speed connectivity. Factories in remote locations or complex industrial environments often face network dead zones that disrupt real-time monitoring. Satellite broadband internet, expanding 5G networks, and edge computing can help address these limitations.

Workforce Training and Compliance

Many workers lack experience with IoT technologies, creating a skills gap that slows adoption. Training programs are essential to ensure teams can interpret machine data and respond to automation alerts. Additionally, compliance with evolving regulations requires continuous monitoring and system updates.

Scalability and Long-Term Viability

Expanding IoT infrastructure across multiple manufacturing facilities introduces complexity in data consistency, security, and interoperability. Without a scalable strategy, connected devices can overwhelm existing network capabilities, leading to inefficiencies instead of optimization.

Requirements for Deploying IoT in Manufacturing

Replaced POTS

Using POTS replacement solutions, a company can forgo its copper telephone network, or “Plain Old Telephone Service”, and upgrade to a fully digital infrastructure. Without the support of a robust digital network, sensors and devices can’t transmit data fast enough. However, in larger factories, the high number of IoT devices will require larger bandwidth beyond what a POTS line can provide.

Connectivity

In order to facilitate the real-time transfer of large data to a central system or portal, a business needs established, reliable, and secure network infrastructure and connectivity. Pending specific requirements of IoT deployment, Wi-Fi, Satellite Broadband, and cellular networks are options that MetTel would design and procure for the manufacturing plant.

5G

High speeds and large bandwidth are required for IoT to work as smoothly and near real-time as possible. 5G provides a substantial increase in bandwidth, allowing instantaneous data transmission between IoT devices. In addition, 5G networks provide enhanced security and better monitoring.

IoT Sensors and Devices

MetTel works with each business to identify all machines, equipment and products that collect data. We design and procure sensors and devices capable of measuring temperature, humidity, pressure, vibration, location, and more. Included in equipment monitoring are workforce management, IoT tools to help with shift scheduling, environmental condition evaluation, setting up automated alerts, and more to protect workers.

Secure Data Processing and Storage

Understanding how data will be processed and stored is crucial to setting up network infrastructure and security to manage the data generated by IoT devices. MetTel establishes encryption, authentication, access controls and intrusion detection to safeguard data and prevent unauthorized access on edge compute devices, the network, and cloud-based platforms.

The Future of IoT in Manufacturing

The manufacturing industry is undergoing a digital transformation, driven by IoT systems that enhance efficiency, automation, and data-driven decision-making. As the technology matures, several key trends are shaping the next phase of smart manufacturing.

Edge Computing for Faster Data Processing

Manufacturers are turning to edge computing to process data locally rather than relying on cloud-based solutions to handle the increasing flow of machine data. By analyzing real-time data at the source, factories reduce network congestion, enhance operational efficiency, and improve predictive maintenance accuracy. Edge computing also enhances data security, minimizing vulnerabilities associated with centralized cloud storage. However, increased security is required to ensure that edge devices are securely connected to your private network.

Digital Twin Technologies for Production Optimization

Digital twin technologies create virtual models of industrial equipment, production lines, and supply chain processes, allowing manufacturers to simulate real-world conditions. These models help identify bottlenecks, optimize machine performance, and predict failures without disrupting production. By integrating IoT data into digital twins, manufacturers can test configurations, fine-tune workflows, and reduce unplanned downtime.

AI-Driven Predictive Maintenance and Machine Learning

Advancements in machine learning and AI-powered IoT are making predictive maintenance more precise. Instead of relying on historical trends alone, AI models analyze real-time machine data to detect performance anomalies and anticipate failures before they occur. This proactive approach further reduces downtime and extends the lifespan of industrial equipment.

Sustainability and Energy Efficiency

Environmental concerns drive manufacturers to implement IoT solutions that improve energy efficiency, reduce waste, and optimize resource usage. Smart sensors now monitor energy consumption in real time, adjusting factory operations to minimize carbon footprints. By integrating AI-driven energy management, factories can automatically balance power loads, detect inefficiencies, and lower operational costs.

Fleet Management and Logistics

Integrating IoT technologies into fleet management streamlines logistics and transportation networks. IoT minimizes delays and enhances supply chain processes by tracking vehicle conditions, optimizing routes, and predicting maintenance needs. IoT devices help improve driver safety, provide GPS tracking, fuel management and reduce expenses while improving communication by linking connected intelligence and location-based solutions with in-vehicle technology.

Cloud Integration for Scalable IoT Infrastructure

As more manufacturing businesses embrace IoT technologies, cloud-based platforms become the backbone of scalable industrial automation. Cloud integration enables manufacturers to store, analyze, and share machine data across multiple facilities, ensuring seamless plant coordination. With AI-powered cloud analytics, companies can automate decision-making and further optimize their manufacturing operations.

The Next Phase of IoT in Manufacturing

With 5G, edge computing, AI, and migration from analog to digital infrastructure driving the evolution of IoT solutions, the future of manufacturing IoT is centered around faster automation, greater efficiency, and deeper integration between digital and physical systems. As adoption grows, companies that leverage these innovations will remain competitive, lower costs, improve productivity, and future-proof their manufacturing facilities.

Make the Transformation Today with MetTel

For manufacturing IoT to function properly, it needs a powerful communication and data system behind it. This is where MetTel’s IoT connectivity solutions can help.

We help your factory become IoT-ready through our suite of IoT manufacturing solutions, such as managed SD-WAN services, network security services (NSS), and enterprise mobility.

In addition, our POTS replacement services help upgrade your voice and data infrastructure to handle the bandwidth demand of a powerful manufacturing Internet of Things approach.

We are a trusted service provider for big tech companies like Verizon, Cisco, and AT&T. We’re also recognized as a 5X Leader in Gartner’s 2024 Magic Quadrant for Managed Network Services. Need help setting up your smart factory IoT infrastructure? Contact us today to learn more.

IoT in Manufacturing FAQs

How is IoT used in manufacturing?

IoT systems connect industrial equipment, IoT sensors, and real time data analytics to improve automation, predictive maintenance, and supply chain efficiency. These technologies enhance machine performance, reduce downtime, and optimize production workflows.

How can manufacturers leverage IoT?

Manufacturers use IoT solutions to monitor equipment, automate processes, and improve energy efficiency. By integrating real-time data analytics and AI-driven insights, companies can reduce costs, enhance product quality, and streamline operations.

Which manufacturers benefit most from IoT?

Industries with high automation, complex supply chains, or precision manufacturing benefit the most. Automotive, aerospace, pharmaceuticals, food production, and heavy machinery manufacturers use IoT technologies to enhance efficiency, quality control, and asset tracking.

How do smart sensors help manufacturers?

Smart sensors collect real-time machine data, enabling predictive maintenance, automated quality checks, and operational monitoring. They help manufacturers reduce waste, prevent failures, and optimize production lines.

What kind of data do IoT devices collect?

IoT devices track machine performance, production metrics, environmental conditions, energy consumption, and asset locations. This data helps improve efficiency, detect issues, and automate decision-making.

What are the main benefits of IoT in manufacturing?

IoT improves efficiency, reduces downtime, enhances quality control, and optimizes supply chain management. It also lowers costs, boosts energy efficiency, and increases equipment effectiveness.

Get fresh updates on email.

Subscribe to our newsletter for the latest MetTel news, articles, and resources—sent straight to your inbox every month. All fields are required.

  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is hidden when viewing the form
  • This field is for validation purposes and should be left unchanged.