Manufacturing technology in action: 8 real-world examples

Discover how manufacturing technology like process software and automation tools can revolutionize operational efficiency and productivity.

Jonny Parker
February 29, 2024

The manufacturing sector consistently leads in adopting new technologies, revolutionizing the industry by enhancing efficiency, minimizing waste, and improving product quality. For businesses aiming for growth, leveraging advanced manufacturing technology isn’t an option — it’s a necessity.

From artificial intelligence (AI) and robotics to sustainable materials and smart manufacturing practices, these manufacturing technology examples illuminate the path for businesses looking to innovate. Each case provides tangible insights into how embracing change can improve operational processes.

What’s manufacturing technology?

Manufacturing technology encompasses the tools, equipment, and systems designed to enhance production processes. These technologies automate tasks like material handling and assembly line operations to streamline manufacturing operations.

Key manufacturing technology components include:

  • Assembly and production equipment
  • Advanced sensors
  • Innovative software solutions
  • Comprehensive reporting tools
  • Efficient tracking devices, like barcodes and RFID tags

By blending advanced software such as (AI) and machine learning with robotics and cutting-edge automation tools, manufacturing technology helps businesses achieve their operational goals with unprecedented efficiency.

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Manufacturing technology applications

Manufacturing technology fundamentally transforms operations in sectors with high precision, scalability, and flexibility demands. Here’s a list of key industries leveraging these advancements.

Aerospace

In the aerospace industry, robotics streamlines aircraft component assembly and testing to enhance precision and safety. AI powers advanced material science research, accelerating the discovery of lighter and more durable materials to elevate aerospace engineering to new heights. Together, AI and robotics not only augment aircraft performance and efficiency but also transform air travel into a safer, more eco-friendly mode of transportation by streamlining design and manufacturing workflows.

Heavy equipment

The heavy equipment industry leverages manufacturing technology such as sensors powered by the Internet of Things (IoT). These sensors track everything from energy consumption to operational efficiency. 

Here, manufacturing technology lets companies practice predictive maintenance to identify potential failures before they happen. This approach helps prevent downtime and extend machinery lifespan, minimizing profit loss and repair costs.

Automotive

Automation and robotics in the automatic sector transform the assembly line, making processes like car chassis construction and final inspections more efficient. These technologies ensure consistent quality and enhance production speed by executing precise, repeatable tasks without the variability of manual labor. This precision reduces error likelihood and, as a result, decreases manufacturing costs associated with waste and rework. 

AI and machine learning also help to design vehicles that meet stringent safety and environmental standards, optimizing the prototype testing process.

Consumer packaging

In consumer packaging, 3D printing and smart technologies create innovative and sustainable packaging solutions. 3D printing enables rapid prototyping and customization at a fraction of the cost of traditional manufacturing methods and can set your brand apart. And smart packaging technologies incorporating QR codes and augmented reality (AR) features can enhance user interaction and provide detailed product information.

The push toward sustainability also leads many businesses to adopt eco-friendly materials and processes that reduce waste and carbon output.

Why is adopting manufacturing technology important? 4 key benefits

The manufacturing landscape operates on continuous innovation rather than stagnation. Staying at the forefront of technological advancements is crucial for maintaining a competitive edge, while failure to do so can leave you tailing behind your competitors. Here are some more reasons why adopting manufacturing technology is key.

1. Improves maintenance efficacy 

Modern manufacturing integrates technology to shift maintenance from a reactive process to a proactive strategy. Imagine solutions such as IoT-enabled sensors that monitor equipment conditions in real time to predict machinery failures before they happen. This strategy streamlines maintenance, making it more efficient and less disruptive.

2. Enhances productivity

Manufacturing technology, such as robotics, automates tasks that were once manual. Robots can work around the clock, performing tasks consistently and precisely to significantly boost production rates.

You might use robotics technology to sort, store, and retrieve products with high accuracy, reducing manual errors in inventory counts and speeding up picking and packing processes. This automation enhances manufacturing productivity and improves warehouse efficiency by streamlining inventory management and material handling.

Plus, automation frees up human resources for strategic tasks that require advanced insight, such as process optimization and innovation development, multiplying your overall productivity.

3. Boosts operational flexibility

Changing your workflows and reconfiguring your manufacturing facility can take several weeks, with additional time needed for your team to fully adapt and perfect new processes. But unlike human resources and manual processes, you can quickly reprogram machines to accommodate product design and workflow changes. 

Consider an electronics manufacturer. Instead of reconfiguring the warehouse and retraining staff, they can swiftly reprogram assembly robots to switch from smartphone to tablet production. This approach increases their business agility in response to changing market trends, reducing their time-to-market for new products.

4. Reduces errors

Manufacturing technologies focusing on automation and precision, like AI-driven quality control systems, significantly reduce human error risk. These systems continuously monitor production processes to identify and correct deviations in real time. A food packaging company might use AI to inspect product seals, for instance, immediately correcting misalignments to prevent packaging errors. This enhances product quality and reduces manufacturing waste by ensuring that products meet standards the first time.

8 examples of manufacturing technology

Here are eight notable applications of technology in the manufacturing industry worth considering for your team.

1. Robotics

Using robotics technology in production has transitioned from a novel concept to a cornerstone of modern manufacturing, symbolizing a significant shift toward automation. These robotic systems are integral across various production stages. They excel in tasks from assembling components to precision work that exceeds human speed, accuracy, and endurance capabilities.

In the automotive industry, for example, robotic arms perform intricate tasks. They weld heavy car frames that people can’t lift and install windshields that require meticulous placement and sealing to ensure vehicle safety and integrity. This approach accelerates the assembly line while ensuring high precision and quality levels.

2. Simulation software

Simulation software helps teams visualize and test products and workflows in virtual environments. For example, it enables engineers and designers to examine how a design will function under various conditions, leading to optimized designs that comply with industry standards. This significantly reduces the need for physical prototypes, saving time and resources.

In aerospace engineering, engineers often use simulation software to model aircraft aerodynamics and the structural integrity of components under various flight conditions. This process helps identify potential performance issues and improvement opportunities without the high costs and time investment of building and testing physical models.

3. Digital twins

Digital twins create precise virtual models of physical objects, ranging from individual components to entire manufacturing systems. This lets you monitor and analyze data across the entire lifespan of a product or process. By mirroring the real world in a virtual space, digital twins enable enhanced decision making through near real-time insights, enabling early issue detection and resolution.

The energy sector might use digital twins to optimize performance and maintenance schedules for wind turbines. Closely mirroring the operational conditions and wear patterns lets you predict when equipment requires maintenance, significantly reducing downtime and increasing energy production efficiency.

4. AI and machine learning

AI and machine learning tools revolutionize manufacturing by providing deep analytical insights and enabling autonomous machine operation. They process vast datasets, uncovering patterns and predictions that inform strategic decisions. Autonomous machines powered by this technology can also learn and improve, enhancing their efficiency and enabling them to adapt to new tasks over time.

In precision manufacturing, AI-driven robots can take over complex assembly tasks, such as aligning and securing small components with exact precision and conducting intricate welding tasks demanding consistent accuracy. As they perform more tasks, they can analyze data from their operations to identify the most effective techniques and apply them to future tasks. This ongoing optimization lets companies rapidly adapt production lines to new product specifications without manual programming, improving operational agility.

5. Augmented reality

AR transforms enhance remote work capabilities and on-site efficiency by overlaying digital information onto the physical environment. This lets workers interact with real-time data and virtual representations of their workspace, increasing productivity and work efficiency. And it enables hands-on training without disrupting the actual production environment.

Technicians in complex machinery assembly facilities can use AR glasses to receive step-by-step assembly instructions and visual cues directly in their line of sight. This approach reduces errors and improves assembly time by overlaying critical information, such as torque specifications and component placement guidelines, onto the physical work area.

6. Manufacturing platforms 

Manufacturing platforms, including manufacturing execution systems (MESs), production software, and all-in-one manufacturing and inventory optimization solutions, centralize operations across the manufacturing process.

These platforms gather data from various sources to provide comprehensive oversight, enabling more informed decision making and process optimization. By integrating various functions into a single platform, this technology offers enhanced visibility and control over the entire production cycle.

A food processing company might implement an all-in-one manufacturing platform integrating an MES with inventory management. This system can track raw material usage and automatically update inventory levels in real time, helping companies better manage supply chains and respond quickly to market changes.

7. Private 5G networks

As manufacturing technology evolves, the demand for higher connectivity within industrial settings increases in tandem. Private 5G networks cater to this need by offering dedicated bandwidth and superior connectivity, ensuring seamless technology suite operations within manufacturing environments. And they support high data volumes and rapid communication between IoT devices, which is crucial for real-time data analysis and machine-to-machine interactions.

An automobile manufacturing plant can deploy a private 5G network to connect robotic assembly lines, autonomous material handling vehicles, and quality control cameras. This setup enables uninterrupted data exchange and coordination, driving drastic increases in production speed and error rate reductions.

8. Internet of Things sensors

IoT technology integrates Wi-Fi-enabled sensors, intelligent machinery, and various connected devices into a cohesive manufacturing ecosystem. This networked approach lets equipment exchange data continuously, offering critical insights like operational efficiency and predictive maintenance needs.

With every device connected to a centralized monitoring platform, businesses can maintain a comprehensive operational view that enhances decision-making and responsiveness.

Consider a textile manufacturing firm implementing IoT sensors across its looms and dyeing machines. These sensors can monitor thread tension and dye consistency moment-by-moment, automatically adjusting equipment parameters for optimal fabric quality.

Centralizing data on a single platform helps the company guarantee consistent product quality and minimize downtime, enhancing operational transparency and efficiency.

A top-of-the-game manufacturing solution

Choosing the right manufacturing technology is challenging, with numerous innovations vying for your attention. But no matter which one or how many you choose, an integrated manufacturing management solution can centralize and enhance these technologies, making it an essential step toward modernizing your manufacturing processes and supply chains.

Fishbowl Manufacturing excels in this role, offering comprehensive material handling management, production tracking, and capacity projection through real-time data on a single platform. Discover the transformative power of Fishbowl for your operations by booking a demo today.