Dean H. Stanton · Selected Work

Multi-Site Manufacturing Automation & Labor Cost Reduction

Long-running manufacturing transformation spanning automation, tooling, process design, labor economics, planning, Lean methods, and operating-system leadership across a high-mix medical-device environment.

Results

Results and contributions.

01>41K hrs / $287KAn early two-facility automation phase removed more than 41,000 labor hours and $287,000 in payroll.
02>41K hrs / $389.5KA later three-facility automation phase reduced more than 41,000 labor hours and $389,500 in payroll in one year.

The early and later phases are separate measurements and should not be added together.

0375%Palmar-stay metal-stamping automation reduced production labor hours by 75% while maintaining the same or greater output.
04~$190K → ~$2KAnnual overtime payroll fell from approximately $190,000 to approximately $2,000 around 2005 during a high-sales year, reflecting broader productivity improvements and operating controls.
01
Situation

Operating context

A labor-intensive, high-mix orthopedic medical-device manufacturer faced recurring pressure on cost, capacity, throughput, overtime, and schedule performance as product complexity and operating scale increased.

02
Challenge

What made the work difficult

Improvement required combining equipment and process changes with daily planning, labor management, and operating discipline across multiple manufacturing facilities.

03
Dean's role

Responsibility and authority

Dean's authority progressed from engineering leadership over automation, tooling, fixtures, and process design to operations leadership over labor, planning, capacity, and continuous improvement, and then to executive responsibility for the broader operating system.

04
Actions

How the work moved forward

  1. Applied time studies and routing redesign to identify labor-intensive constraints and improvement opportunities.
  2. Directed custom machinery, tooling, fixtures, and process changes across cutting, insertion, stamping, RF, slitting, gel-pack, and related manufacturing operations.
  3. Integrated process engineering with layouts, work instructions, planning, capacity management, Lean/JIT practices, root-cause analysis, and ERP/MES execution.
  4. Expanded the transformation from engineering-led improvements into broader multi-site operating and change leadership.