The client is a global leader in blood-processing technology, building medical devices, systems, and single-use consumables for blood donation, processing, and surgical settings. It wanted to increase production with its current resources, drive continuous improvement, and streamline its quality systems, all without adding capacity. Leadership also wanted to open communication between departmental silos so managers would work together on cross-functional problems instead of solving in isolation.

Underneath those goals sat a measurement problem. The company accounted for costs and set performance standards using historical financial data rather than the actual operational capability of its equipment, people, and lines. Because the bar was set by an old financial number rather than true capacity, management could hit its adjusted goals with little effort, and the operation saw only incremental improvement while real slack stayed hidden. Supervisors were not actively managing people or proactively monitoring daily operations, so off-schedule conditions were not caught and corrected quickly. Equipment builders received little direction on what to build and when, which made it hard to keep production cells stocked.

The work itself was unevenly distributed. Two high-volume production lines used too many people, creating excessive subassembly buildup, while other lines that depended on the same parts went short, and on another line operators waited to build subassemblies until key components arrived. In quality, inspectors spent inordinate time double-entering inspection data, by hand and then into an Oracle database where it went unused, and the nonconforming-material reporting process was full of duplicate effort and cumbersome manager signoffs. Leadership did not need a one-time push; it needed a system that measured true capacity, managed to it every day, and connected departments that had been working apart.

POWERS started by establishing what the operation could actually do. Working across two manufacturing facilities, the team identified manufacturing capacities based on the real capability of each line and cell, focusing first on the two production lines that accounted for 45% of product volume. It analyzed the activities, time, and workload at each workstation to determine true capacity and maximum line efficiency, then rebalanced the lines with the right mix of internal and external activities so every operator carried equal work. As part of the rebalance, the team determined the component inventory needed in advance, removing the shortages that had stalled dependent lines, and showed alternative methods to increase line speed.

In parallel, POWERS built the management system to hold those standards. It developed supervisory skills and instituted accountability at all levels with daily and weekly production targets, created daily schedule controls for group leaders and supervisors, and gave workers daily pocket cards reporting production so productivity could be monitored hourly. Equipment production planning was reassigned to the corporate master planner, freeing manufacturing management to focus on scheduling and execution. POWERS also worked with IT to streamline incoming-parts inspection and reduce the double data entry, and redesigned the entire discrepant-parts process to cut transaction time.

To break down the silos, POWERS organized cross-functional teams that met daily to report prior-day attainment and solve systemic issues together. The combined effect was an operation running on real capacity rather than an old financial standard: it produced 15% more from the same equipment, people, and IT, lifted one high-volume line 25% and one cell 40%, cut the labor to build one product by 10% while eliminating overtime on a subassembly workstation, reduced double inspection data-entry time by 21%, and delivered $4.5 million in annual cost savings.