Dean H. Stanton · Selected Work

Defense Electronics Manufacturing, Quality & Program Execution Transformation

Defense-electronics leadership spanning plant startup, industrial and manufacturing engineering, visual and cellular production methods, quality systems, and integrated production-planning and program controls.

Results

Results and contributions.

012 plant startupsSupported manufacturing and test activities during two defense-electronics plant startups.
027 inspectors + 2 quality engineersLed seven line inspectors and two quality engineers while implementing SPC, quality-data, failure-analysis, and corrective-action routines.
03Production methods implementedIntroduced visual work methods, manufacturing cells, fixtures, graphical instructions, and rapid-escalation practices into normal production.
04Integrated program controlsCombined shop loading, kit releases, resource priorities, schedule-risk resolution, budget-versus-actual analysis, and estimate-at-completion reporting.
01
Situation

Operating context

A growing defense-electronics manufacturer was expanding capacity while needing repeatable production methods, stronger manufacturing flow, contractual quality control, and tighter schedule and cost visibility.

02
Challenge

What made the work difficult

Capacity expansion, production engineering, quality, and program execution had to work together. New facilities and production methods also needed reliable quality controls, resource planning, and schedule and cost visibility.

03
Dean's role

Responsibility and authority

Dean progressed through program planning, manufacturing engineering, and quality leadership roles. He connected program requirements to shop-floor execution through production planning, workstation and flow design, tooling, routing data, equipment programming, quality systems, failure analysis, corrective action, and recurring cross-functional review.

04
Actions

How the work moved forward

  1. Represented manufacturing and test during two plant start-ups, supporting layouts, workstations, tooling, equipment, time standards, and production-flow design.
  2. Implemented color-coded visual work methods, manufacturing cells, practical fixtures, graphical work instructions, and line-alert methods for faster manufacturing-engineering response.
  3. Maintained MAPICS routings and programmed auto-insertion and wave-solder production equipment.
  4. Led quality-engineering and inspection activities using SPC, quality databases, failure analysis, corrective action, trend analysis, material review, and recurring QA/manufacturing coordination.
  5. Used shop loading, kit releases, priorities, schedule-risk resolution, budget-versus-actual analysis, and estimate-at-completion reporting as an integrated program-control system.