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EDITOR’S CHOICE


QUALITY THAT DOESN’T CLOCK OUT: BUILDING RESILIENT INSPECTION WORKFLOWS FOR CONTINUOUS PRODUCTION


By Matthew Brum, Director Product Marketing, Metrology & Production Software, Hexagon Manufacturing Intelligence


By integrating these robust systems directly M


anufacturing never sleeps. But your skilled metrology professionals do. Today, manufacturers operate under fluctuating labour availability, flexible staffing models and a relentless


pressure for around-the-clock production. While the shop floor continues to cut metal at all hours, the quality lab often becomes a bottleneck during off-shifts. When skilled personnel are not physically present, throughput stalls, inspection backlogs grow and the risk of costly scrap increases. To stay competitive in a demanding global


market, quality operations must keep pace with production. We must design quality systems for absolute continuity, not just speed.


THE SHIFT FROM SPEED TO CONTINUOUS RESILIENCE Speed is an important metric, but continuous resilience drives true return on investment. When a machine tool runs unattended at two in the morning, your measurement systems must be ready to validate those parts without human intervention. This requires a fundamental shift in how


we approach quality assurance. It is no longer enough to rely on isolated experts working in climate-controlled labs. Instead, manufacturers must implement standardised inspection workflows, robust hardware and intuitive software that empower production operators. By building resilience into your quality systems, you ensure that quality control never clocks out.


EMPOWERING OPERATORS WITH SHOP FLOOR CMMS To build true resilience, you must move inspection directly to the point of production. Shop floor coordinate measuring machines (CMMs) are engineered specifically to withstand harsh industrial environments. They feature advanced parametric thermal compensation, covered ways, and built-in vibration resilience to combat the typical challenges of a bustling factory floor.


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into manufacturing cells, you eliminate the need to transport parts across the facility. Operators can execute automated, highly accurate measurement routines with the simple touch of a button. This user-friendly approach minimises the learning curve, reduces dependency on scarce metrology experts and empowers your frontline workers to make immediate, data-driven decisions. The result is a dramatic reduction in cycle times, faster defect detection and a significant improvement in First Pass Yield.


MAINTAINING THROUGHPUT WITH OFFLINE PROGRAMMING You cannot afford to tie up your physical CMMs for time-consuming programming tasks. A machine used for programming is a machine not measuring parts. Offline programming leverages advanced


digital twin technology to create a virtual replica of your part, machine and fixtures. Using sophisticated metrology software like PC-DMIS, your quality engineers can create, test and optimise comprehensive measurement routines entirely offline. This strategy ensures that physical machines


remain dedicated to active inspection. It allows you to simulate paths to prevent costly collisions, reduce machine downtime and guarantee that when a new shift begins, the CMM is immediately ready to run flawlessly. By separating the programming process from the physical equipment, you eliminate bottlenecks and maintain a continuous flow of production.


TRACKING OEE AND MACHINE HEALTH Running unattended systems requires real- time visibility into machine performance, which is something that becomes increasingly hard to maintain as operations scale and shifts change hands without overlap. This is where tracking Overall Equipment


Effectiveness (OEE) becomes a critical component of resilient manufacturing. Dedicated condition monitoring software can connect to measuring systems and machine tools to track OEE, manage program progress and evaluate operating states continuously. The goal is straightforward: give quality managers enough visibility to catch problems before they compound. Predictive maintenance capabilities, such as flagging potential outages and adjusting service intervals based on actual usage patterns, represent a maturation of how manufacturers think about equipment health. Rather than


JUNE 2026 | FACTORY&HANDLINGSOLUTIONS


scheduling maintenance around the calendar, teams can respond to what the data actually shows.


BUILDING QUALITY SYSTEMS THAT LAST The case for continuous quality operations ultimately comes down to where bottlenecks form and what they cost. When inspection can only happen during staffed hours, production doesn’t wait. It accumulates risk. Scrap rates climb, yield data lags and by the time a defect pattern is identified, it has already run through multiple shifts. Addressing that gap requires treating quality


infrastructure with the same rigor applied to production equipment. Shop floor CMMs, offline programming and OEE monitoring each solve a discrete piece of the problem, but their real value emerges when they’re designed as an integrated system from the outset, not bolted together after the fact. Manufacturers who get this right don’t just


reduce inspection backlogs. They remove quality as a constraint on throughput entirely, and that changes the economics of running a 24-hour operation in a fundamental way.


Hexagon www. hexagon.com


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