Management
How Digital Twins Are Helping Manufacturers Double Down on Quality
Consider three ways that digital twins are boosting quality in the plant, the engineering department and the supply chain.
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As manufacturing becomes increasingly complex, and the quality stakes become higher, AI-driven digital twins are emerging as one of the most powerful tools for ensuring consistency, reducing defects and accelerating innovation. Considered experimental until just recently, digital twin technology is now moving into the mainstream, enabling manufacturers to monitor, simulate and optimize production with unprecedented precision. It is seen as a key trend setter for managing, optimizing and enforcing quality as a strategic differentiator, as manufacturing processes become increasingly digitalized.
The evidence points out the rising popularity of digital twins. Three quarters of executives surveyed by Hexagon in its Digital Twin Industry Report said they expected to increase their investment in digital twins, and 62 percent are finding “immense value” from digital twins.
At its core, a digital twin is a virtual replica of a physical product, process or system, continuously updated with real-time data from sensors, machines and systems. This dynamic collaborative convergence between the physical and digital worlds is redefining how manufacturers approach quality—not in a reactive mode, but as a proactive, predictive business driver to maximize business impact.
While the digital twin visualizes changes and issues, AI and machine learning can provide a real time understanding and analysis of how those changes will fit into existing systems and processes and how they can improve over time.
Manufacturers use AI-driven digital twins to increase productivity by digitally modeling improvements to their production lines, plants, equipment or supply chains before making costly investments or adjustments in the real world. A key feature is real-time, two-way data exchange between sensors and its virtual replica, helping ensure that simulated conditions accurately reflect the physical world environments.
Consider three ways that digital twins are boosting quality in the plant, the engineering department and the supply chain.
From Reactive to Predictive Quality with Real-time Monitoring in the Plant
Traditional quality management in manufacturing has largely been manual and reactive. Inspections occur after products are produced; defects are only identified when products are out in the field, and root-cause analysis can take days or weeks before it can be used to develop a plausible solution. Digital twins fundamentally change this paradigm.
By continuously ingesting real-time data from equipment and production lines, digital twins provide up-to-the-minute visibility into operations. Manufacturers can detect anomalies in equipment, for example, even the smallest deviations in temperature, pressure, or cycle time—long before they cause defects.
The result is a shift toward predictive quality. Instead of asking what went wrong? manufacturers can now ask what is about to go wrong—and more importantly, how can we prevent it?
This visibility allows manufacturers to quickly identify bottlenecks. For example, if a machine is operating below its expected capacity, the digital twin can highlight the deviation and trace it back to specific causes—whether it’s equipment wear, operator errors or lack of maintenance.
Digital twins also enable far more effective root-cause analysis. Because they capture historical and real-time data simultaneously, quality professionals can replay event history leading up to a defect and pinpoint exactly where the process went awry. This level of insight dramatically reduces the time required to resolve quality issues and prevents recurrence.
Improving Product Design and Reducing Defects Beginning with Engineering
Digital twins are not limited to the factory floor—they also play a critical role in product development. By creating digital representations of products, manufacturers can simulate performance across the entire lifecycle, from design to end-of-life.
This has a direct impact on quality. Digital twin-enabled development allows companies to identify design flaws earlier, before they enter production and result in defects.
Digital twins also support the development of closed-loop quality systems, where insights from production are continuously fed back into design, planning and execution.
For example, data collected from products in the field can be integrated into the digital twin, allowing manufacturers to understand how products perform in real-world conditions. This feedback loop enables continuous improvement, ensuring that future designs and processes are informed by actual usage data.
Boosting the Supply Chain
Given the rising complexity and global nature of supply chains, maintaining an efficient one is a top priority across organizations. According to McKinsey, supply chain disruptions cost, on average, 45 percent of one year’s cash profit; and 86 percent of companies surveyed said they are investing in supply chain transformation to respond to industry disruptions.
One of the ways they are doing this is by deploying AI-enabled digital-twins to ensure an efficient and reliable supply chain. Data collected across a supplier’s operations is used to create various scenarios of physical assets, people and processes. Based on insights from the digital twin, they test out various strategies, and according to McKinsey, can increase their decision-making speed by up to 90 percent or more.
The digital twin connects data from different suppliers, production lines, warehouses and logistics providers into a single, unified model. This allows manufacturers to track raw materials, monitor inventory levels across multiple locations and view shipment status as well as potential delays.
Implementing Digital Twins Requires a Strategic Approach
Getting up and running with digital twins requires much more than technology. It requires high-quality data, since poor quality or unclean data can compromise the effectiveness of the digital twin. They also require robust integration with existing systems and significant investment in infrastructure.
Additionally, the complexity of building and maintaining digital twins can be a barrier for organizations with legacy systems or limited digital capabilities. However, as technology matures and adoption increases, these barriers are gradually diminishing.
By combining real-time monitoring, AI-driven predictive analytics and advanced simulation, digital twins enable manufacturers to build quality into every stage of the product lifecycle – from design and development, to manufacturing, delivery and maintenance.
Digital twins are allowing manufacturers to reimagine what quality looks like and take action to make it a reality.
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