How One Factory Doubled Its Daily Output With 33% Fewer People — And What You Can Steal From Their Playbook
The Factory That Was Slowly Bleeding Out
Picture this.
A forklift manufacturing plant. Four buildings spread across 9,000 square metres. Seventy-two employees shuffling between welding stations, assembly bays, and paint rooms. Parts travelling 430 metres just to become a single finished frame. Workers spending nearly three-quarters of their day doing things that had absolutely nothing to do with building forklifts.
Nobody was lazy. Nobody was incompetent. The system itself was broken.
Meet Dave, the production supervisor at this plant — a veteran with 18 years on the shop floor. He'd walk through Building 2 every morning, clipboard in hand, watching his team hustle. They were always busy. Always moving. Always behind schedule.
"We were producing 3.7 trucks a day," Dave would later recall. "And it felt like we were killing ourselves to hit that number."
What Dave didn't know yet was that his team was about to embark on a transformation that would nearly double their output, slash their workforce by a third, free up half their factory space, and go 25 consecutive months without a single lost-time injury.
This is the story of how they did it — and the exact framework you can apply to your own operation, whether you run a factory, a service business, or a team of five.
The Uncomfortable Truth Nobody Wanted to Hear
In early 2005, management brought in an outside consulting firm. The consultants didn't arrive with answers. They arrived with stopwatches, notepads, and an uncomfortable question:
"What percentage of your workers' time actually adds value to the product?"
Dave guessed 60%. Maybe 55% on a bad day.
The answer hit like a sledgehammer.
Two independent work sampling studies revealed the truth:
| Activity | % of Worker Time |
| Assembly & Testing (actual value-added work) | 23–28% |
| Walking | 11% |
| Away from station | 17% |
| Talking with others | 11% |
| Getting tools | 9% |
| Getting parts | 8% |
| Idle | 6% |
| Moving materials | 5% |
| Talking with supervisor | 2% |
| Paperwork | 2% |
| Other | 2% |
| Housekeeping | 1% |
Read that again. Only 23–28% of worker time was spent actually building anything. The rest — nearly three-quarters of every shift — was consumed by walking, waiting, searching, fetching, and moving things from Point A to Point B.
And here's what stings: none of this was anyone's fault. The layout was wrong. The flow was wrong. The system forced people to waste time.
Dave stared at the pie chart and felt his stomach drop. "I thought we were efficient," he said. "We weren't even close."
If you're running any kind of operation right now — manufacturing, logistics, service delivery, software development — ask yourself this honest question: Do you actually know what percentage of your team's time creates value for your customer?
Most leaders don't. And the answer, when they find it, is almost always brutal.
The Spaghetti That Changed Everything
The consultants did something beautifully simple. They took a floor plan of the factory and traced the actual path that a single product took from raw material to finished goods.
The result looked like a plate of spaghetti someone had thrown at the wall.
The WR3000 frame fabrication process: Parts zigzagged across the shop floor — from the steel rack to the machine shop, back across the floor to the grinding bay, over to the weld station, across to the paint bay in a different building, then back again for assembly. Total distance: 430 metres per unit.
For the MIH (Made-In-House) products, the situation was even worse. Production was spread across half the entire plant. Flows were so tangled that supervisors couldn't even visually track where a product was in the process.
This is called a spaghetti diagram, and it might be the single most powerful — yet underused — tool in operational improvement.
Here's why it matters to you: distance is a proxy for waste. Every metre a product (or a document, or a data packet, or a customer) travels is a metre that adds cost but not value. When you map the actual flow, the waste becomes impossible to ignore.
The Plan: Kill the Waste, Keep the People
Management didn't fire everyone and start over. They didn't buy millions worth of new equipment. Instead, they followed a disciplined, repeatable process:
The 7-Step Lean Playbook They Used
- Value Stream Map — Measured every form of waste in the current process
- Trained all staff — Used a Lego simulation game and 5S methodology so everyone understood the "why"
- Cross-functional project team — Not just engineers; shopfloor workers, supervisors, planners
- 5S Sort — Cleared out everything that wasn't needed to prepare for the new layout
- Spaghetti diagrams — Mapped actual product flow, then redesigned the layout
- Kanban — Replaced push-based scheduling with pull-based signals
- Repeated the entire cycle three times per year — This was not a one-time project
That last point is critical. This wasn't a "Lean initiative" with a start date and an end date. They repeated the entire process once per year for three consecutive years, each time finding new waste, each time improving the flow.
The Transformation: Year by Year
Year One (2005–2006): Rip Up the Floor Plan
The first move was radical. They consolidated operations that had been spread across four buildings:
| Building | Before (2005) | After (2006) |
| Building 1 | Assembly | Cleared — freed for Refurbishment business |
| Building 2 | Machine shop, weld shop, pre-delivery | All final assembly, machine shop, weld shop, re-laid import pre-delivery |
| Building 3 | Finish paint bay | Unchanged |
| Building 4 | Transport & storage | New floor layout for efficiency and damage reduction |
The concept was the Mixed Model Line (MML) — instead of building each forklift model in its own isolated area, they designed a single production line that could handle all walkie models: IM, M3000, M4000, WR, ST, and SX machines.
This single decision eliminated enormous amounts of "Away" and "Walk" time. When everything you need is within arm's reach, you stop spending 28% of your day fetching things.
The distance a product travelled dropped from 430 metres to 245 metres — a 43% reduction.
Year Two (2007): Install the Infrastructure
Building 2 got a blastroom (repurposed from the company's Galway, Ireland plant) and a new inline paint bay. This put the correct production flow in place for the mixed model line — raw material in one end, finished product out the other, in a straight line.
Building 1 became the refurbishment centre. Building 3 took on final paint and refurb paint bays.
Year Three (2008): Fine-Tune and Optimise
By 2008, the team was operating at an entirely different level:
- Building 1 consolidated all refurbishment processes into a single building — sanding, painting, steam cleaning, assembly, inspection
- Building 2 added a small paint bay at the end of the mixed model line, creating a truly complete production flow
- New CNC mill installed
- Problem button introduced — workers could signal supervisors instantly when issues arose
- Ergonomic lighting upgraded across the shop floor
The refurbishment unit process flow was also transformed:
| Metric | Before Lean | After Lean | Improvement |
| Distance per unit | 627 metres | 322 metres | 49% reduction |
| Process flow | Scattered across multiple areas | Linear, single-building flow | Dramatically simplified |
The Numbers That Made the Board Room Go Silent
Here's where the story gets dramatic. After three years of systematic improvement, the results spoke for themselves:
Headline Results
| Metric | Before (2005) | After (2008) | Change |
| Daily output | 3.7 units/day | 7 units/day | +89% |
| Direct labour | 48 employees | 37 employees | −23% |
| Indirect labour | 24 employees | 11 employees | −54% |
| Total headcount | 72 employees | 48 employees | −33% |
| Production space used | 6,750 m² | 2,250 m² | −67% |
| Free space created | 0 m² | 4,500 m² | Repurposed for growth |
| Monthly space cost savings | — | ~13,000 (local currency)/month | Ongoing |
Space Utilisation Timeline
| Period | Import Storage | Production | Free Space |
| Aug 2005 | 2,250 m² | 6,750 m² | 0 m² |
| Dec 2005 | 2,250 m² | 5,950 m² | 800 m² |
| Jun 2006 | 2,250 m² | 3,600 m² | 3,150 m² |
| Dec 2006 | 2,250 m² | 2,250 m² | 4,500 m² |
In just 16 months, they freed up half the total factory space while maintaining the same import storage and increasing output.
Productivity Trajectory
Shopfloor productivity climbed steadily from roughly 78% in April to approximately 87% by December — a consistent, month-over-month improvement that showed the changes were sticking, not just temporary spikes.
| Month | Productivity |
|---|---|
| April | ~78% |
| May | ~83% |
| June | ~81% |
| July | ~80% |
| August | ~83% |
| September | ~82% |
| October | ~86% |
| November | ~85% |
| December | ~87% |
The Safety Bonus Nobody Expected
Here's the result that surprised everyone: 25 consecutive months with zero lost-time injuries in manufacturing.
When you stop asking people to walk 430 metres per unit through a cluttered, chaotic shop floor, they stop getting hurt. When the flow is clean, the environment is organised, and tools are where they should be, safety improves as a byproduct of efficiency.
This is not a coincidence. This is the pattern. Good operations are safe operations.
The Takt Time Secret: How They Scheduled a Factory Like a Heartbeat
One of the most elegant tools the team used was takt time — the rhythm at which the factory needs to produce to meet customer demand.
Here's the actual calculation:
Monthly production requirement: 71.3 units Working days per month: 19.3 days Daily requirement: 3.7 units/day
Daily operating time: 8.12 hours × 60 minutes × 60 seconds = 29,232 seconds Takt time: 29,232 ÷ 3.7 = 7,920 seconds = 132 minutes = 2 hours, 12 minutes
Every 2 hours and 12 minutes, a finished truck had to roll off the end of the line. This heartbeat governed everything: how work was divided between stations, how parts were delivered, when tools needed to be ready.
Why this matters for you: Takt time isn't just for factories. If you run a service business and need to complete 20 client projects per month with 22 working days, your takt time is roughly 1.1 days per project. That single number tells you whether your process design can keep up with demand — or whether you're structurally set up to fall behind.
The Demand Smoothing Problem (And How They Solved It)
Raw customer demand was lumpy. Some months needed 4.4 units per day; others needed just 2.0. If they chased the peaks, they'd have idle workers during the valleys. If they staffed for the average, they'd miss delivery dates during spikes.
Monthly Demand Variation
| Month | Units/Day |
| April | 2.7 |
| May | 2.0 |
| June | 2.8 |
| July | 3.9 |
| August | 3.6 |
| September | 3.8 |
| October | 4.4 |
| November | 3.9 |
| December | 3.4 |
| January | 4.0 |
| February | 3.2 |
| March | 3.2 |
| Average | 3.7 |
The solution: demand smoothing. They levelled production across time periods, building small amounts of finished goods inventory during slow months to buffer against peak months. This kept the line running at a steady rhythm and prevented the hire-fire-rehire cycle that destroys team morale.
The Pull System: From "Push and Pray" to "Signal and Deliver"
Before the transformation, the factory used what lean practitioners call a push system — parts were manufactured based on a forecast and pushed downstream whether the next station was ready or not. The result: mountains of work-in-process inventory, parts sitting in queues, and constant expediting by supervisors trying to find the right component at the right time.
The team implemented a pull system with four distinct signal types:
| Signal Type | How It Works | Example |
| Push: Paper/Electronic | Production orders triggered by planning schedule | Build orders from ERP system |
| Push: Physical parts movement | Parts physically moved to next station on schedule | Welded frames sent to paint |
| Pull: Empty square | An empty floor square signals the upstream station to produce | Assembly square empty → Weld produces next unit |
| Pull: Two-bin | When one bin empties, it signals a replenishment need | Small parts, fasteners, consumables |
The shift from push to pull didn't just reduce inventory. It made problems visible. When a station couldn't pull because the upstream station hadn't produced, everyone could see the gap immediately. No more hiding behind mountains of WIP.
Five Lessons You Can Apply Monday Morning
You don't need to run a factory to use this playbook. Here's how these principles translate to any operation:
1. Map Your Spaghetti Before You Redesign Anything
Before you reorganise your team, your workflow, or your office layout, trace the actual path that your work takes from start to finish. Don't map the intended process — map the real one.
You'll find your own version of 430-metre journeys. In software teams, it's tickets bouncing between six people before anyone writes code. In service businesses, it's client requests that pass through four departments before someone responds.
Action: Pick one product or service. Follow it from start to finish. Draw every handoff, every wait, every movement. Then measure the total "distance" (physical or temporal). You'll be horrified — and motivated.
2. Measure Value-Added Time Honestly
The 23–28% value-added finding is not unusual. Studies across industries consistently show that most operations spend less than 30% of their total time on activities that customers would pay for.
The rest is searching, waiting, reworking, approving, meeting, emailing, and transporting.
Action: Track what your team actually does for one week. Not what they're supposed to do. What they actually do. Categorise every hour as "value-added" (customer would pay for this) or "non-value-added" (customer would not pay for this). Share the results openly.
3. Train Everyone Before You Change Anything
The factory trained all staff — not just managers — using a Lego simulation game before making a single change. This wasn't soft-hearted niceness. It was strategic.
When people understand why the change is happening, they become co-designers of the solution instead of resistors of it.
Action: Before your next process change, invest time in helping your team understand the problem you're solving. Use a simulation, a demo, or even a whiteboard session. Let them see the waste with their own eyes.
4. Repeat the Cycle — Don't "Finish" the Project
The factory repeated their entire lean cycle three times per year. Each time, they found new waste. Each time, they improved.
Most organisations run a "lean initiative" or a "process improvement project," declare victory, and move on. The gains evaporate within months.
Action: Schedule recurring improvement cycles — quarterly, biannually, or annually. Re-map, re-measure, re-improve. Make it part of how you operate, not a special event.
5. Design for Flow, Not for Departments
The factory's original layout was organised by function: all welding in one area, all machining in another, all assembly in a third. This is how most organisations structure themselves — by department.
The problem is that work doesn't flow by department. It flows by product. The mixed model line reorganised everything around the flow of the product, putting all the steps needed for a single unit in sequence, regardless of which "department" they belonged to.
Action: Look at your organisation chart. Now look at how work actually flows through your business. If the two don't match — and they almost never do — you've found your biggest opportunity.
What Happened to the People?
This is the question everyone asks — and it's the right question.
The headcount dropped from 72 to 48. But here's the nuance the headline misses: the freed-up staff and space were repurposed for a new refurbishment business and redeployed elsewhere in the company.
This is the ethical promise of lean done right. You don't eliminate people. You eliminate waste — and then redeploy the capacity you've freed up to create new value.
The refurbishment operation moved into Building 1 (which had been cleared by consolidation) and became a new revenue stream. Workers who were no longer needed on the production floor found roles in refurbishment, in other facilities, or through natural attrition.
The Uncomfortable Question This Story Asks You
Dave — our production supervisor — eventually stopped carrying a clipboard. The visual management systems, the pull signals, and the problem buttons made the clipboard obsolete.
"I used to spend my day chasing problems," he said. "Now I spend it preventing them."
Here's the uncomfortable question this story asks every leader, every business owner, every team lead:
If only 25% of your team's time is creating value — what are you doing about the other 75%?
The answer isn't to work harder. It's not to add more people. It's not to invest in expensive technology.
It's to see the waste, measure the waste, and then systematically redesign the system so the waste disappears.
The tools are simple: spaghetti diagrams, value stream maps, takt time calculations, pull signals, 5S. None of them require a degree. All of them require discipline.
The factory in this story didn't have any special advantages. They had four buildings, seventy-two people, and a willingness to confront the truth about their own operation.
They nearly doubled their output. They freed up half their space. They went over two years without a serious injury. And they built a new business with the capacity they'd freed up.
Your turn.
Your Next Move
Pick the smallest, most contained process in your operation. Map its actual flow — every step, every handoff, every wait. Calculate the value-added percentage. Then ask your team one question:
"If we were designing this from scratch today, would we design it this way?"
The answer will tell you everything you need to know.
What's the biggest source of hidden waste in your operation? Drop a comment below — I read every one.