The future of predictive maintenance with Limble CEO Gary Specter

Predictive maintenance is evolving just as much as the technology streamlining the process. What will this mean for your plant?

Predictive maintenance is evolving just as much as the technology streamlining the process.

Just ask Limble‘s newly minted chief executive officer Gary Specter. Specter was named Limble’s CEO in January, and he’s got a lot to say about the ways in which automation, artificial intelligence (AI) and other technologies are advancing manufacturers’ maintenance strategies.

Gary Specter, Limble CEO. Courtesy: Limble
Gary Specter, Limble CEO. Courtesy: Limble

1. What is the future of predictive maintenance strategies for manufacturers?

The future of predictive maintenance is an always-on capability where AI-driven systems anticipate failures, prescribe corrective actions, and continuously learn from every repair outcome. Manufacturers are moving rapidly past scheduled maintenance into a world where real-time data drives every decision across the plant floor.

But technology alone won’t get organizations there. One of the most overlooked factors in a successful strategy is the usability of technologies like Computerized Maintenance Management Systems (CMMS). Even the most sophisticated platforms become worthless if technicians on the floor find them burdensome or hard to use. Adoption stalls, data entry suffers, and the entire strategy unravels from the ground up. The next generation of maintenance tools will win or lose on how intuitively they surface the right information to the right person at the right moment whether that’s a technician on the line or a plant engineer overseeing asset performance.

Manufacturers that invest in both the technology and the usability surrounding it will find that predictive maintenance stops being a cost center and becomes a genuine driver of operational performance.

2. What role does data play in organizations’ maintenance plans?

Data is the foundation of modern maintenance strategy. Where schedules were once driven by manufacturer recommendations or reactive repairs, today’s most competitive manufacturers build plans around continuous streams of operational and production data. This ultimately  transforms maintenance from a calendar exercise into a live, condition-based discipline.

But not just any data. The foundation only holds if what’s being collected is accurate, consistent, and clean. Incomplete records, miscalibrated sensors and inconsistent data entry can quietly corrupt an entire strategy and generate false confidence built on faulty inputs. The shift to predictive maintenance demands the same rigor applied to data quality that manufacturers already apply to product quality and production processes.

When that clean data is unified across systems, maintenance and plant engineering teams can stop asking, “When should we service this asset?” and start asking, “What does this asset need right now?” Organizations that treat data as a strategic asset are consistently outperforming peers on uptime, maintenance cost and asset lifespan.

Courtesy: Adobe Stock
Courtesy: Adobe Stock

3. What is one thing manufacturers can automate in their operations to prevent unplanned downtime?

Condition-based alert routing: the automatic detection, classification and assignment of anomalies before they become failures.

Most manufacturing operations have sensors generating data constantly, but that data is either reviewed manually on a lag or triggers generic alarms technicians learn to tune out. Automating that middle layer closes the gap between “something is changing” and “someone is acting on it.” When that process runs in minutes rather than days, failure curves flatten, production disruptions decrease, and emergency maintenance events drop significantly.

4. How can organizations ensure their data is accurate enough for a maintenance strategy that maximizes uptime?

Data quality is the most underestimated challenge in predictive maintenance. Organizations can invest in sophisticated analytics platforms and still make poor decisions if the underlying data is incomplete, inconsistent, or siloed. Accuracy starts with fundamentals: standardized asset records in the CMMS, sensor calibration on a documented schedule and technicians and plant teams held accountable for consistent data entry after every job.

Beyond that, build validation loops into the strategy. Regularly audit whether sensor readings align with physical inspections, track prediction accuracy over time and use near-miss events as data quality feedback opportunities. Organizations that treat data governance as an asset and not just an IT function are far better positioned to trust their analytics and act on them with confidence across the plant.

5. How can manufacturers prepare for the evolution of artificial intelligence?

Preparing for AI is less about chasing the latest tools and more about building the foundation on which AI can actually deliver value.

When that foundation is solid with clean data, standardized processes, and consistent records, AI sits on top of it seamlessly rather than exposing every gap in it. The goal is not to force technicians and plant teams to use “AI tools.” It is to remove friction from the work they are already doing. In the best implementations, technicians may not even realize AI is involved. They simply experience faster workflows, less administrative burden and better access to the information they need.

AI amplifies existing workflows, good or bad. So before you invest, focus on getting the foundation right.

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By

Sheri Kasprzak

Sheri Kasprzak is the executive editor of WTWH Media's Automation & Control brands, Plant Engineering, Control Engineering and Consulting-Specifying Engineer.