Projected case study · not a realized result

$233K projected net benefit over the first three months

A data-led automation plan for a plastic injection-molding cell was designed to reduce jams, downtime, cycle-time loss and non-value-added sorting labor—while reusing viable equipment elsewhere in the plant.

Projection only · implementation handed to engineering
$233K Projected net benefit—not a realized result
3 months The full and only modeled benefit period
2 people Planned release from manual sorting to value-added work
Ordered Materials ordered before handoff to engineering

The operating context

A high-volume molding cell constrained by legacy automation

The cell produced reusable produce and meat crates. Its existing automation could not consistently clear and organize parts at the required pace, creating interruptions between molding, part removal and downstream handling.

The visible symptoms were slow cycles, recurring jams, unscheduled downtime and equipment risk. At the end of the conveyor, two people were also required to sort parts that arrived without reliable organization.

01

Unscheduled downtime

Parts jammed within the legacy handling system, interrupting production and contributing to machine damage risk.

02

Cycle-time constraint

Automation performance limited the speed at which molded parts could clear the machine and progress downstream.

03

Manual sorting burden

Disorganized conveyor output required two people to perform repetitive sorting instead of higher-value work.

How the opportunity was isolated

Start with the whole process, then follow the largest economic loss

The analysis combined process observation, available operating data and cross-functional input. The goal was to distinguish symptoms from causes and direct capital toward the highest-return constraint.

1

Map the value stream

See how molding, automation, conveying and manual handling interact as one system.

2

Quantify the loss

Review downtime, cycle performance, labor demand and equipment consequences.

3

Find the root cause

Use A3-style thinking with operators, maintenance, management and engineering.

4

Model the response

Test an adaptable solution and calculate benefit net of planned costs.

The planned corrective action

Upgrade the bottleneck and put existing assets to better use

A

Expand part-handling automation

Introduce automation capable of clearing and organizing parts at the required rate, reducing jams and allowing the cell to run closer to its intended cycle.

B

Redeploy two team members

Remove the need for two people to continuously sort conveyor output and make that labor available for more valuable, less repetitive work.

C

Reuse viable equipment

Move the displaced automation to an older machine where it could improve performance, preserving useful infrastructure and avoiding unnecessary waste.

What the model included

Net benefit, not gross opportunity

The projection compared the planned future state with the cell's operating losses and explicitly accounted for the investment required to make the change.

  • Reduced unscheduled downtime and jam-related loss
  • Improved cycle performance and part flow
  • Release of two people from manual sorting
  • Planned material and implementation costs
  • Reuse of the prior automation on an older machine

Measurement boundary

Three-month projection with a clearly labeled annualized comparison.

The $233,000 figure is a modeled net benefit for the first three months after planned implementation, net of materials and implementation costs. A simple 12-month run-rate extrapolation—assuming the modeled quarterly benefit remained consistent—equals approximately $932,000 ($233,000 × 4).

Both figures remain projections: neither is a realized result, guaranteed forecast or claim of measured post-implementation performance. The project was handed to engineering after materials were ordered and before post-implementation measurement; $932,000 is provided only to show the annualized scale implied by the three-month model.

Leadership and delivery

Plant-engineering leadership with frontline participation

The plant engineer led the opportunity analysis, root-cause work, solution planning and economic model. Operators, maintenance, managers and engineers contributed the practical knowledge required to make the design credible and executable.

Client identity is intentionally withheld. The operating context and project facts are presented without confidential process specifications.

Cross-functional diagnosis Combined firsthand operating knowledge with technical and business inputs.
A3-style root-cause thinking Separated the recurring symptoms from the system constraint driving them.
Capital stewardship Prioritized net return and equipment reuse rather than unnecessary replacement.
Structured handoff Materials were ordered and the integration plan transferred to engineering.

True North Operations

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