Management · Systems Thinking · Performance Measurement
The Measurement Trap
Why Smart Organizations Fail — and How Metrics, Incentives, and Systems Distort Performance
Ngoc Son Nguyen (James Nguyen)
DBA Candidate, University of Otago · Technology Entrepreneur
3
Core Distortions
10
Chapters
9
Practical Tools
A Note from the Author
Why I Wrote This Book
I spent more than twenty years building and advising technology companies across Australia, New Zealand, and Vietnam. In that time, I watched smart people — people who genuinely cared about their organizations — make the same mistake over and over again. They measured more. They added KPIs. They tightened incentives. And things got worse.
At first I thought it was an execution problem. Then I thought it was a culture problem. It took me years of both practice and research to understand that it was neither. It was a design problem. And it was everywhere.
This book is my attempt to name the problem clearly, show where it comes from, and give you the tools to design your way out of it. It is not a collection of best practices. It is a framework for thinking differently about how measurement, incentives, and organizational structure interact — and how that interaction produces outcomes no one intended.
The ideas in this book are grounded in my doctoral research at the University of Otago, where I am developing what I call Evaluation Governance and Distortion Theory — a framework that reconceptualizes evaluation not as a neutral input to decision systems, but as a governed process that can itself become a source of systemic distortion.
But theory without practice is incomplete. Every framework in this book has been tested against real organizations. Every tool in the appendix has been used in the field. The case studies are real. The failures are real. And the path out of them is real too — if you are willing to stop optimizing the wrong things.
Ngoc Son Nguyen (James Nguyen) DBA Candidate, University of Otago, New Zealand Dunedin, New Zealand · 2025
Part I
The Problem
Why measurement fails in complex systems
Chapter 01
Introduction – The Measurement Trap
1. The Paradox at the Heart of Modern Management
Most organizations believe that more measurement leads to better performance. In reality, the opposite is often true.
The more you measure, the worse your system becomes.
You have seen it happen. You may even be managing it right now.
A KPI is introduced. People hit the target. Yet somehow, the business does not improve. Sometimes it gets worse. Customers complain more. Employees burn out. Decisions get dumber.
This is not a mystery. It is a system. And once you see it, you cannot unsee it.
2. A Strange Thing Happened at a Software Company
A mid-sized B2B software company in Ho Chi Minh City, Vietnam was proud of its sales team. Every day, each salesperson made at least 20 new calls. The logic seemed unassailable: more calls → more meetings → more deals. Management tracked this KPI religiously. They rewarded the top callers.
After six months, the numbers looked great. Call volume was up 40%. Quotes sent to clients were up 25%. But revenue? Flat. Worse, the conversion rate from quote to closed deal had dropped by 15%.
What happened? The sales team did exactly what they were asked. They made the calls. But they made them fast — often under a minute. They called numbers that had already rejected them three times. They even called during office hours when decision-makers were least available.
They optimized the metric. Not the goal. And the system rewarded them for it.
This is not a story about lazy or dishonest employees. This is a story about a system that designed the wrong behavior. And it happens every day. In every industry. In every country.
3. The Birth of The Distortion Framework
Over time, I began to see the same pattern everywhere. Different industries. Different countries. The same failure. I call this pattern The Distortion Framework.
The framework argues that organizational failure is not primarily caused by bad people, bad luck, or bad markets. It is caused by three interconnected distortions that feed on each other in a self-reinforcing loop:
These three do not operate in isolation. They form a loop. Measurement distortion creates behavioral distortion. Behavioral distortion hardens into structural distortion. Structural distortion then generates even more misleading signals, reinforcing the original measurement distortion.
System inefficiency Cultural erosion Customer value destruction Strategic drift
Distortion Loop
"The more you measure, the worse it gets"
Distortion reinforces flawed measurement
(loop back to top)
Reinforced Measurement Distortion
The system now produces even more misleading data
→ The trap deepens
System Redesign
✦ Redesign what you measure — not just add more KPIs
✦ Align incentives with system goals, not local targets
✦ Optimize flow, not local efficiency
✦ Build learning loops (PDSA) to detect distortion early
4. Why This Framework Is Different
Most management books assume that the problem is execution. That if people just tried harder, followed the process, or used better tools, performance would improve.
This book takes a different view. The problem is not execution. The problem is design.
The book is structured in three parts:
Part I – The Problem: Why measurement fails in complex systems (Measurement Distortion, Behavioral Distortion, Structural Distortion)
Part II – Seeing the System: Tools to understand your organization as a flow (Value Stream Mapping, House of Quality, Root Cause Analysis)
Part III – Redesigning Management: How to design KPIs, incentives, and learning loops that actually work
5. Where This Book Stands
The management literature is not short of books about measurement and performance. So it is worth being specific about what this book does — and does not — attempt to do.
Positioning · This Book vs. the Field
How The Measurement Trap Is Different
Measure What Matters — Doerr
Focus: OKR implementation and goal-setting
The Balanced Scorecard — Kaplan & Norton
Focus: Multi-dimensional KPI design
The Fifth Discipline — Senge
Focus: Systems thinking as organizational philosophy
Thinking in Systems — Meadows
Focus: Theoretical foundations of system dynamics
The Measurement Trap — This Book
Focus: Why measurement itself becomes a source of systemic distortion — and the governance principles needed to redesign it. Grounded in Evaluation Governance and Distortion Theory (EGDT).
Throughout this book, we will follow a real case: the collapse of Iceland's national cremation system. A 1948-era facility. A PM₂.₅ breach on 52 days per year. Families waiting 18 days. A governance system that knew what was wrong — and kept doing it anyway. It is, in miniature, every organization's story.
Case source: Nguyen, N.S. (2025). Case Study Workbook: Reykjavík Crematorium Reform. University of Otago DBA Program. Used with permission.
Most of those books assume measurement is neutral — that the challenge is choosing the right metrics and executing them well. This book challenges that assumption at its root. Measurement is not neutral. The act of measuring changes what is being measured, the people doing the measuring, and the system around them. That is the trap.
6. Who This Book Is For
This book is for anyone who has ever felt trapped by their own dashboard. If you are a CEO, a senior manager, a consultant, or a team leader — and you have ever asked yourself, "Why do my numbers look good while my business feels bad?" — this book is for you.
Footnotes
¹Goodhart's Law: Named after Charles Goodhart, a British economist and former Bank of England advisor, who observed in 1975 that once a statistical regularity is used for control, it collapses. The popular version — "When a measure becomes a target, it ceases to be a good measure" — was later popularized by anthropologist Marilyn Strathern.
²W. Edwards Deming: American statistician and management consultant (1900–1993), widely credited with Japan's post-WWII quality revolution. His famous quote: "A bad system will beat a good person every time."
Chapter 02
The Local Optimization Fallacy
1. The Fallacy That Destroys Performance
Here is a belief embedded in almost every organization: if every department does its job well, the whole company will succeed. It sounds reasonable. Even obvious. But it is wrong.
This belief is one of the most damaging assumptions in modern management. In fact, optimizing each part separately is one of the fastest ways to destroy the performance of the whole. This is not a paradox. It is how complex systems work.
2. Three Trucks and a Bridge
Imagine a small delivery company with three trucks. Each truck can carry 10 tons. Each can make eight trips per day. On paper, the maximum daily capacity is 240 tons (3 trucks × 10 tons × 8 trips). But there is a problem. All three trucks share a single bridge. The bridge allows only one truck to cross at a time.
If each truck driver optimizes their own performance — leaving the depot at 8 AM fully loaded — they will all queue at the bridge. Instead of 24 trips per day, they might manage 15. The system is worse than the sum of its parts.
Now imagine a different approach. The drivers stagger their departures. One leaves at 8 AM, another at 10 AM, another at noon. The bridge stays busy, but no one waits. Total trips increase — even though each individual driver does "worse" by waiting longer to start.
This is local optimization. And it is everywhere in modern organizations.
3. Local Optimization in Real Organizations
Department
What it optimizes
System consequence
Sales
Number of calls
Call volume up, conversion rate down
Production
Machine utilization
Machines run 24/7, inventory piles up, half becomes obsolete
Customer Service
Average handling time
Calls end quickly, customers call back — nothing was resolved
Procurement
Unit price
Cheaper materials, quality drops, rework increases, total cost rises
"A bad system will beat a good person every time."
— W. Edwards Deming
4. Why Local Optimization Is So Tempting
If local optimization is so destructive, why do almost all organizations reward it? There are at least three reasons:
It is easy to measure. You can set a target for each department. You cannot easily set a target for "how well three departments collaborate."
It creates the illusion of accountability. You can say "The sales manager owns revenue." But when something goes wrong, no one takes responsibility for the gap between departments.
It makes leaders feel in control. When you look at a dashboard full of green indicators, you feel good. Only later — when customers leave or profits drop — do you see the cost.
Diagnostic Exercise
Diagnose Local Optimization
Look at your own organization — or a department you manage.
Identify three KPIs that are used for rewards or punishments.
For each KPI, ask: What behavior does this KPI encourage — even the behavior I do not want?
Which department or person is optimizing their own performance at the expense of others?
Who in this organization is responsible for seeing the whole system — not just their part?
If the answer to question 4 is "no one" or "I am not sure" — then your organization is almost certainly suffering from local optimization. That is not your fault. It is a design flaw. But it is your responsibility to redesign it.
Chapter 03
The Activity–Outcome Confusion
1. The Most Expensive Mistake in Management
Organizations measure what is easy, not what matters. They reward motion, not progress. They confuse being busy with creating value. And the more you reward it, the worse it becomes.
2. Two Stories, One Pattern
Story one: A software company in Ho Chi Minh City, Vietnam. The sales team had a KPI: 20 new calls per day. After six months, call volume was up 40%. Quotes sent were up 25%. But revenue was flat. The conversion rate from quote to deal had dropped by 15%. They optimized the activity. Not the outcome.
Story two: A manufacturing plant in Binh Duong, Vietnam — an industrial province approximately 30 km north of Ho Chi Minh City. The production team had a KPI: machine utilization above 90%. After six months, utilization was up from 72% to 91%. But finished goods inventory had doubled. Storage costs were up 35%. When the market shifted, half the inventory became obsolete. They optimized the activity. Not the outcome.
Two different industries. Two different countries. The same failure.
3. The Activity–Outcome Stack
To understand this failure, you need a simple but powerful framework — The Activity–Outcome Stack¹. It distinguishes four layers of performance:
Input
Resources you investHours worked, training budget, headcount
Activity
What you doCalls made, machine hours, reports written
Output
What you produce directlyQuotes sent, units produced, tickets closed
Outcome
The actual value createdRevenue, profit, customer loyalty, patient health
Most organizations measure inputs and activities. Some measure outputs. Very few measure outcomes. And here is the problem: activities and outcomes are not the same thing. Sometimes they are not even related.
4. Why Organizations Confuse Activity with Outcome
Activity is easy to measure. Outcome is hard. You can count calls. You cannot easily measure "quality of customer relationship."
Activity can be controlled immediately. Outcome is delayed. You can tell someone to make 20 calls today. You cannot tell them to close a deal today.
Activity creates the feeling of progress. Over time, activity replaces outcome as the definition of performance.
Diagnostic Exercise
Test Your Organization's KPIs
Look at the three most important KPIs in your organization. For each KPI, ask:
Is this measuring an input, an activity, an output, or an outcome?
If it is not an outcome, do you have evidence that this activity actually leads to the outcome you want?
What behavior is this KPI encouraging — even the behavior you do not want?
If you cannot answer question 2 with real data — not assumptions — then you are managing based on a belief, not a fact.
If you confuse activity with outcome, everything else will look like progress — until it is too late.
Footnotes
¹The Activity–Outcome Stack: This distinction has been developed by many authors in performance measurement. A widely cited source is Paul Niven's work on Balanced Scorecards. The key insight is that activities and outcomes are causally connected but not identical — and the link must be tested, not assumed.
Part II
Seeing the System
Tools to understand your organization as a flow
Chapter 04
Value Stream Mapping
1. The Most Important Question No One Asks
Pick any process in your organization. A customer order. A product return. A hiring request. A budget approval. Now answer three questions:
How long does it take from start to finish — not the ideal time, but the actual time you can measure?
How much of that time is spent creating value versus waiting?
Who in your organization can draw the exact path this process takes — not the theory, but what actually happens every day?
If you cannot answer these questions, you are not alone. Most organizations cannot. And yet, they manage these processes every day.
Most organizations do not have a process problem. They have a visibility problem. Because you cannot fix what you cannot see.
2. The Birth of Value Stream Thinking
In the 1980s, researchers studying Toyota's production system¹ discovered something surprising. Toyota did not just optimize machines or workers. They mapped the entire flow of a product — from raw material to customer — and asked a single question at every step: Does this step create value, or is it waste?
The insight was radical. Most organizations manage by departments. Each department optimizes its own piece. But value does not flow vertically through departments. It flows horizontally — across functions, across buildings, across systems. The gaps between departments — where no one is responsible — are where most value is lost.
3. A Simple Example: The Consulting Firm
Imagine a small consulting firm. A client requests a quote. Here is what actually happens:
Day
Event
Time Type
1
Sales receives the request. They are busy. They leave it for tomorrow.
⏳ Waiting
2
Sales forwards to technical for estimation. Technical promises an answer in three days.
⏳ Waiting
5
Technical sends estimate — missing personnel costs. Forwarded to HR.
✅ Processing
7
HR responds. Request goes back to technical.
⏳ Waiting
8
Technical completes. Sales prepares quote. Manager approves — next day.
✅ Processing
10
Quote sent to client.
✅ Done
Total time: 10 days. Actual processing time: about 2 days. Eight days were waiting². Every department met its KPIs. But the system took ten days. No one was responsible for the eight days in between.
4. What Becomes Visible When You Map the Flow
When you actually map the flow for the first time, three things become visible:
You see the steps. Every handoff. Every approval. Every wait. Most people are surprised by how many steps exist — and how many add no value.
You see the gap between processing time and waiting time. Actual work usually takes minutes or hours. Waiting takes days or weeks. The ratio is often 1:10 or worse.
You see the information flow. Who signals whom? Where do delays enter the system?
Practical Application
See Your System
Pick one regular process. Follow one unit of work from start to finish. Record: when it starts, every handoff, every time it sits idle, when it ends. Then calculate: total time, actual processing time, ratio of waiting to total time.
Then ask: Where is the longest wait? Which handoff creates the most confusion? Who is responsible for the gap between departments? If the answer is "no one" — you have found a design flaw.
Footnotes
¹Value stream mapping: Developed within the Toyota Production System by Taiichi Ohno (1912–1990) and Shigeo Shingo (1909–1990). Popularized globally by James Womack and Daniel Jones in Lean Thinking (1996), and by Mike Rother and John Shook in Learning to See (1998).
²Seven wastes (muda): Taiichi Ohno originally identified seven types: overproduction, waiting, transport, overprocessing, inventory, motion, and defects. An eighth waste — underutilized human potential — is often added in modern lean practice.
Chapter 05
The House of Quality
1. The Most Expensive Question You Never Ask
Here is a question I rarely hear in boardrooms: "Are we building the right thing?" Instead, I hear: "Are we building it right?"
Efficiency. Speed. Cost reduction. These matter. But they are useless if you are building the wrong thing. You can have a perfectly smooth, efficient flow — and still create something customers do not want. You can hit every internal KPI — and still lose market share.
2. Two Stories of Misalignment
Story one: A software company launched a new feature. They worked hard. Met the deadline. Stayed under budget. The code was clean. Customers did not use it. When asked, they said: "It is fine. But it is not what we need."
Story two: A logistics company reduced delivery time by 30%. Costs dropped by 15%. Customer satisfaction did not move. When they investigated, they discovered customers had never complained about speed. They complained about accuracy — wrong items, wrong addresses, missing pieces. The organization optimized the wrong thing. Not because they were lazy. Because they never asked the right question.
3. A Tool That Translates
In the late 1960s, Japanese quality experts Yoji Akao and Shigeru Mizuno developed a tool to solve exactly this problem. They called it Quality Function Deployment. Its centerpiece became known as the House of Quality.
The insight was simple but powerful: Do not design anything until you know which customer needs matter most — and which technical specifications actually affect those needs.
Part
What it does
Customer requirements
What customers say they want (in their own words)
Importance weighting
How much each requirement matters (1–5 scale)
Technical specifications
Measurable design parameters you can control
Relationship matrix
How each technical spec affects each customer requirement
Correlation matrix
Which technical specs help or conflict with each other
Technical assessment
How you currently perform on each spec
4. A Real Example: Reykjavík, Iceland — Crematorium Reform
The following House of Quality comes from an actual policy design case involving Iceland's national cremation infrastructure. Iceland (population approximately 370,000) has a single national crematorium located in Reykjavík, the capital. This facility — a 1948-era installation — was breaching PM₂.₅ air quality limits on 52 days per year while also failing to meet service capacity for a growing population. The question was: which engineering interventions would create the most value for stakeholders?
What makes this example powerful is that it is not a commercial product. It is a governance problem — and the House of Quality applies with equal force. Stakeholder needs include clean air, short waiting times, affordable pricing, multi-faith flexibility, low noise impact, and transparent emissions data. Engineering capabilities range from stack height and emission filters to digital booking systems and modular plant layout.
House of Quality · Reykjavík Crematorium, Iceland — Stakeholder Needs vs. Engineering Capabilities
Customer / Stakeholder Requirement
Importance (1–5)
Stack Height >40m
PM₂.₅ Filter 95%
Hg Filter ≤1 kg/yr
Electric Throughput 16/day
Redundant Retort
Uptime ≥99%
Acoustic Shielding ≤45dB
Digital Booking ≥98%
Waste-Heat Recovery
Modular Layout
Capital Cost ≤ISK 1.2bn
Energy Use ≤180 kWh
Clean & odour-free neighbourhood air
5
9
3
1
1
0
0
1
0
1
0
1
1
Short, predictable wait times
4
0
0
0
9
9
3
0
3
0
1
1
1
Affordable & transparent pricing
4
0
1
1
3
1
1
0
1
1
1
9
3
Multi-faith / secular ceremony flexibility
3
0
0
0
3
3
3
0
3
0
9
3
0
Low noise & traffic impact
3
9
1
0
0
0
0
9
0
0
0
1
0
Real-time emissions data online
3
0
3
3
0
0
0
0
1
1
0
1
0
Backup capacity during outages
5
0
0
0
3
9
9
0
0
0
1
1
0
Reduced carbon footprint
3
1
3
1
1
0
0
0
0
9
1
3
9
Transparent contingency for mass-fatality events
4
0
0
0
3
9
9
0
0
0
1
1
0
Importance Score
—
75
39
16
147
199
147
27
22
42
42
56
39
Importance %
—
7.6%
3.9%
1.6%
14.8%
20.1% ★
14.8%
2.7%
2.2%
4.2%
4.2%
5.7%
3.9%
What the matrix reveals: Redundant retort capacity (20.1%) and electric throughput (14.8%) have by far the highest leverage — they address multiple high-priority stakeholder needs simultaneously, including the critical backup capacity requirement (importance 5) and short wait times. Stack height ranks third at 7.6%, primarily driven by clean air and low noise.
But here is the insight that pure engineering analysis misses: the two highest-leverage interventions are also the most capital-intensive. Capital cost and energy use score low on importance — meaning stakeholders want high performance at low cost. This is not a technical trade-off. It is a governance trade-off. The technically optimal solution may be politically undeliverable.
This is precisely why the House of Quality matters. It does not just tell you what to build. It tells you where the real constraints are — and forces you to design for them.
Alignment Check
A Simple Test for Your Organization
Step 1: List the three most important things your customers actually need (based on data, not assumptions).
Step 2: List the three most important KPIs your organization uses to measure performance.
Step 3: Draw a 3×3 grid. For each cell, ask: Does this KPI directly affect this customer need?
If a customer need has no KPI connected to it — you are ignoring something customers care about. If a KPI has no customer need connected to it — you are measuring something that does not matter to customers.
If you build the wrong thing, no system can save you.
Chapter 06
Finding the Root Cause
1. The Story of the Broken Machine
Most problems do not start where they appear.
A factory had a problem. An important machine kept stopping. Each time, the fuse was blown. Each time, maintenance replaced it. The machine ran again. Then it stopped again. One engineer did something different — he asked why.
Round
Question
Answer
1
Why did the machine stop?
The fuse blew
2
Why did the fuse blow?
The circuit overloaded
3
Why did the circuit overload?
The fuel pump seized
4
Why did the fuel pump seize?
There was contamination in the fuel
5
Why was there contamination?
The fuel filter had not been maintained for 18 months
6
Why was the filter not maintained?
No one was responsible for it
The fuse was not the problem. It was a symptom. The root cause was a missing job description. This is the difference between fixing symptoms — and solving problems. Most organizations do the first. Almost none do the second consistently.
2. The 5 Why — The Most Underused Question in Management
When something goes wrong, ask "why?" Then ask it again. And again. Until you reach something you can change. This is called 5 Why.
The rule is simple: do not stop until you find a process, a design, or a responsibility — not a person. If your answer blames an individual, you have not gone deep enough.
— The Distortion Framework Operating Principle
3. When Causes Have Many Branches — The Ishikawa Diagram
Some problems have not one cause but many. For these, you need the Ishikawa (fishbone) diagram. You write the problem at the "head" of the fish (on the right). Then you draw "bones" for each category of potential causes:
People (skills, training, fatigue)
Machines (calibration, age, maintenance)
Materials (quality, consistency, storage)
Methods (procedures, standards, documentation)
Measurement (accuracy, frequency, feedback)
Environment (temperature, lighting, noise)
Most organizations blame people. The fishbone diagram forces them to blame the system.
4. Two Learning Loops: PDSA vs DMAIC
PDSA
DMAIC
Speed
Fast (days to weeks)
Slow (months)
Scale
Small tests
Large projects
Data
Qualitative + simple metrics
Heavy quantitative analysis
Best for
Testing hypotheses, daily improvements
Solving chronic, complex problems
Risk
Low (failure is contained)
High (needs careful planning)
In a healthy organization, PDSA runs every week. DMAIC runs a few times a year. They are not alternatives — they are complements.
5. The Hidden Prerequisite: Gemba
None of these tools work if you stay in the boardroom. Gemba is a Japanese word meaning "the real place" — where value is created. On the factory floor. At the customer service desk. In the warehouse. You cannot find root causes from a dashboard. You cannot see waste from a spreadsheet. You have to go and see. There is no shortcut.
Practical Application
Find One Root Cause
Pick a problem that keeps coming back. A complaint. A delay. A defect.
Ask "why?" five times. Write down each answer.
If your last answer blames a person, ask "why?" one more time.
When you reach a process, a design, or a responsibility gap — stop. That is your root cause.
And that is not a person to blame. It is a system to redesign.
You cannot redesign what you do not understand.
Part III
Redesigning Management
How to design KPIs, incentives, and learning loops that actually work
Chapter 07
Designing KPIs as Control Tools
1. The Dashboard That Lied
Most KPI systems fail quietly — until they fail completely.
Imagine you are flying a plane. Your cockpit has one instrument: a fuel gauge. It reads full. You take off. Halfway through the flight, the engine sputters. You look at the gauge. Still full. You ignore the sputter. The engine stops. You crash. The gauge was not broken. It was measuring the wrong thing. This is how most organizations manage.
2. The Difference Between Reporting and Controlling
Reporting
Controlling
Purpose
Record the past
Shape the future
Frequency
Monthly, quarterly
Daily, weekly
Who sees it
Bosses judging subordinates
Everyone adjusting their own work
Response to red
Find someone to blame
Find the root cause
Result
Gaming, distortion
Learning, improvement
3. Three Layers Most Managers Miss
Layer 1: Measure — raw data. 1,247 calls. 42 minutes. 15 defects. Alone, it means nothing.
Layer 2: Metric — data with a time frame. 124.7 calls per day. Still means nothing without context.
Layer 3: Indicator — a metric with a target, a threshold, and a strategic purpose. "Customer satisfaction ≥ 85%" is an indicator. It tells you whether you are winning or losing.
A dashboard full of metrics is not a management system. It is a noise generator. And noise cannot guide decisions.
4. Leading vs. Lagging: The Two Eyes of the System
Lagging indicators measure outcomes. Revenue. Profit. Customer retention. They are accurate. But by the time you see them, it is too late to change.
Leading indicators measure drivers. Sales calls. Training hours. Production rate. They let you act early. But they are not guarantees of results.
You need both. Rule of thumb: every lagging indicator needs at least one leading indicator.
5. The Counter-Metric: Protection Against Gaming
Here is a law of management physics: Any metric that is rewarded will be gamed. The solution is not to stop measuring. It is to add counter-metrics.
Primary Metric
How it can be gamed
Counter-Metric
Calls per day
Call fast, call fake numbers
Conversion rate (calls → quotes)
Machine utilization
Run machines with no demand
Inventory turns
Customer service speed
Close tickets without solving
Repeat call rate
Unit cost
Buy cheaper materials
Defect rate
Never have a single metric. Always have a pair. Because every metric creates a blind spot.
— Distortion Framework Principle, Chapter 7
KPI Audit
Five Questions to Audit Your Most Important KPI
Is this a measure, a metric, or an indicator? (If no target — it is not an indicator.)
Is it leading or lagging? If lagging, what leading indicator is paired with it?
What is its counter-metric? (If none — expect gaming.)
Who sees it first? Can they act on it?
What is the decision process when it goes red?
If you cannot answer all five, your KPI is not a control tool. It is a reporting tool.
A dashboard without a decision process is not management. It is theatre. And theatre does not improve performance.
Chapter 08
Designing Incentives
1. The Cobra That Ate the Solution
In colonial India, the British government was worried about cobras. They offered a reward for every dead cobra. It worked — at first. Dead cobras poured in. Then something strange happened. The cobra population did not fall. It rose. People started farming cobras. When the government cancelled the reward, the farmers released their now-worthless snakes. The result? More cobras than before.
This is called the Cobra Effect. A solution makes the problem worse. And it happens in organizations every single day. You just call it performance management.
2. Three Real Examples
Incentive
Intended behavior
Actual behavior
Consequence
Revenue bonuses
Increase monthly revenue
Heavy discounting near month-end, pushing customers to buy early
Month 1 great, month 2 terrible; customers learn to wait
Defect detection
Improve quality
Find more defects — not prevent them
Defect rate never drops
Project deadlines
On-time delivery
Pad estimates — 3 months becomes 6
No one is ever late. Everything takes twice as long.
3. Goodhart and Campbell: The Laws of Distortion
"When a measure becomes a target, it ceases to be a good measure."
— Goodhart's Law
"The more you attach consequences to a metric, the more it will be gamed."
— Campbell's Law
4. Five Principles for Incentive Design
Never have a single metric. Always pair a primary metric with a counter-metric. Revenue with customer retention. Speed with quality. Cost with defect rate.
Reward outcomes, not activities — but be careful. Use a blend. Outcomes are what you want but they are delayed and noisy. Activities are immediate but easily gamed.
Test on a small scale first. Run a PDSA cycle with one team. Watch for gaming. Adjust before you scale.
Build a feedback loop from the people being measured. They will spot the loopholes before you do. Give them a safe way to report them.
Assume the incentive will be gamed. Design for it. Ask before launch: "How would a smart, slightly selfish person game this?"
Stress-Test Your Incentive
Five Questions Before Any Incentive Launch
What is the primary metric?
What is the counter-metric? (If none — expect gaming.)
How would a smart, slightly selfish person game this?
Have you tested it on a small scale?
Is there a safe feedback channel for people to report loopholes?
If the answer to question 3 makes you uncomfortable, you are probably getting closer to the truth.
The only safe assumption is that your incentive will be gamed. And in most organizations, it already is.
Chapter 09
Building Learning Systems
1. Two Organizations, Two Responses
Failure is inevitable. Learning is not.
Organization A calls an emergency meeting. They find someone to blame. They change the process — or pretend to. Next time, no one proposes new ideas. Silence spreads.
Organization B calls a normal meeting. They do not look for someone to blame. They ask: What in our system caused this? What can we learn? Next time, people still propose ideas. They are not afraid.
These two organizations are not different in skill. They are different in how they learn. One has a blame culture. The other has a learning culture. And the difference determines everything.
2. The Fifth Discipline — Peter Senge's Learning Organization
Discipline
What it means
Personal mastery
People continuously develop their own capability
Mental models
People surface and challenge their hidden assumptions
Shared vision
People agree on a picture of the future they want to create
Team learning
People learn together, not just individually
Systems thinking
People see the loops, delays, and interdependencies — not just events
3. PDSA: The Engine of Learning
P
Plan
Make a hypothesis. "If we do X, then Y will happen." Define scope, duration, and how you will measure.
D
Do
Run a small test. One team. One week. One customer segment. Record everything that happens.
S
Study
Compare actual results to your prediction. What happened? What surprised you? Why was there a gap?
A
Act
Decide: adopt (if it worked), adapt (if partly worked), or abandon (if it failed). Then start the next loop.
A PDSA cycle without Study is not learning. It is activity.
4. The Three Conditions for Experimentation
Psychological safety. People must feel safe to speak up, ask questions, and admit mistakes. Without this, PDSA dies. No one will report what actually happened.
Small scale. Experiments must be contained. A failed two-week test with five people is a lesson. A failed company-wide rollout is a disaster.
Mandatory learning. After every experiment — success or failure — there is a mandatory After-Action Review: What did we plan? What happened? Why was there a difference? What will we do differently next time?
5. What Leaders Actually Do
In a learning organization, leaders act like question-askers, not answer-givers. Three specific actions:
Ask questions, do not give answers. When a problem occurs, say: "What have we learned? What hypotheses can we test next week?"
Model vulnerability. Share a recent failure of your own. Analyze it publicly — to show that failure is data, not shame.
Protect the experimenters. When a well-designed experiment fails, defend the team. Ask "What did we learn?" — not "Who caused this?"
Practical Application
Run One PDSA Cycle
Pick a small, recurring problem. A meeting that runs too long. An approval that takes too many steps.
Plan: "If we shorten the meeting to 30 minutes, we will still cover all key topics."
Do: Run the experiment for one week.
Study: Compare actual results to your prediction. What happened?
Act: Adopt, adapt, or abandon. Then plan the next cycle.
If you do not learn from the experiment, you did not do PDSA. You just did activity.
Without learning, the Distortion Loop runs forever. PDSA breaks the loop. It is the only thing that does.
Chapter 10
From Driver to System Architect
1. Two Models of Management
After nine chapters, we return to the question that started this book. Why do smart, well-intentioned managers keep getting the same results — no matter how hard they try?
The answer is not that you are not working hard enough. The answer is that you have been operating under the wrong model of management.
Model A: The Driver. The Driver sits in the boardroom. They look at dashboards. They set targets. They measure gaps. They give orders. They believe that tighter control leads to better results. When something goes wrong, they ask: "Who made the mistake?" Model A treats the organization as a machine. The manager is the operator.
Model B: The System Architect. The System Architect walks to the Gemba. They observe flow. They design conditions. They ask questions. They believe that behavior emerges from structure. When something goes wrong, they ask: "What in the design caused this?" Model B treats the organization as a living system. The manager is the gardener — creating conditions, not pulling levers.
These two models are not different styles of the same job. They are different jobs entirely.
2. Five Shifts You Must Make
Shift 1: From Measuring → Understanding
Set KPIs, compare actual to plan, reward or punish
→
Distinguish measure–metric–indicator. Ask: "What behavior is this KPI creating?"
Shift 2: From Optimizing Parts → Optimizing the Whole
Each department optimizes its own metrics
→
Map the value stream. Ask: "Where are the gaps between departments?"
Shift 3: From Managing by Reports → Managing by Observation
Sit in meetings, look at dashboards
→
Go to Gemba. Draw Ohno circles. Ask: "What is the data hiding?"
Shift 4: From Punishing Failure → Learning from Failure
Find someone to blame
→
Find the root cause. Ask: "What in the system created this?"
Shift 5: From Having Answers → Asking Questions
Tell people what to do
→
Ask: "What is our hypothesis? How will we test it? What did we learn?"
3. The Five Daily Tasks of a System Architect
Design and adjust indicators. Not just KPIs — indicators with targets, thresholds, counter-metrics, and leading-lagging pairs. Review quarterly. Retire those that no longer serve.
Design and stress-test incentives. Before launching any incentive, ask: "How would a smart, slightly selfish person game this?"
Create and protect PDSA cycles. Every team should run at least one PDSA cycle per month. When they fail, defend them. When they learn, celebrate them.
Build psychological safety. Model vulnerability. Share your own failures. Never ask "Who caused this?" Ask "What in the system allowed this to happen?"
Walk the Gemba. Regularly. At least two hours per week. Not to check on people. To see the flow. To bring what you see back to the boardroom.
Starting Point
Choose One of Three — And Begin
Option 1 — Audit a KPI: Pick the most important metric in your organization. Ask the five questions from Chapter 7. If you cannot answer them, you have found your first redesign.
Option 2 — Stress-test an incentive: Pick a bonus, a promotion criterion, or a penalty. Ask: "How would a smart, slightly selfish person game this?" If you can imagine a way, you have found your first redesign.
Option 3 — Run a PDSA cycle: Pick a small, recurring problem. State your hypothesis. Run a short test cycle. Study what happened. Act on what you learned.
Do not try all three. Choose one. And remember: That is not a task to complete. It is a loop to start.
The Distortion Loop is not fate. It is design. And you are the designer.
4. When This Framework Does Not Work
Every framework has limits. This one is no exception. There are at least three conditions under which The Distortion Framework provides less value — and you should know them before you apply it.
When the organization is very young. In a startup with five people and no formal measurement system, the distortions described in this book have not yet crystallized. The risk is not too much measurement — it is too little. In that context, adding basic KPIs may help more than redesigning them.
When the problem is genuinely a people problem. Not every failure is a systems failure. Sometimes a leader has fundamentally misaligned values, or a team has a capability gap that no redesign can fix. The framework helps you avoid over-attributing problems to systems when a direct human intervention is needed.
When your organization does not have the psychological safety to experiment. PDSA cycles require people to run experiments, report honestly when things fail, and learn publicly. In organizations where failure is punished at the individual level, the tools in this book will be adopted in name only. The prerequisite is cultural, not technical.
Knowing the limits of a framework is not a weakness. It is a sign that the framework is honest.
5. A Final Word
Most managers will go back to what they have always done. They will measure more. Push harder. Control tighter. And they will get the same results. Just faster.
You have the tools. You have the framework. You have the choice.
The system you have is the system you designed. The system you will have is the system you choose to design next.
The only question left is: will you start today?
Now go redesign.
Appendix
The Distortion Framework Operating Manual
This is not a toolkit. It is an operating system. Use it as a system, or it will not work.
Appendix
Practical Tools
A1. Quick Diagnostic — Is Your System Distorted?
Check ✅ for each statement that is true for your organization:
1Is there a KPI that looks good on paper but business results are not improving?
2Do employees "game" the metrics — make numbers look better than reality?
3Does one department hit its targets while making life harder for another department?
4Can you predict the distorted behavior a KPI will create before you launch it?
5Do you feel that the more you measure, the less you actually understand?
6When a problem occurs, is the first reaction to find someone to blame?
7Are there metrics tracked religiously but no one uses them to make decisions?
8Have you ever asked: "What behavior is this KPI encouraging?" (If never — check ✅)
Score
Status
Recommended starting tool
0–2 ✅
Healthy
Go directly to PDSA (A6)
3–4 ✅
Mild distortion
Start with KPI Checklist (A8)
5–6 ✅
Clear distortion
Start with Value Stream Map (A2)
7–8 ✅
Severe distortion
Stop. Start with Gemba (Chapter 6) before any tool
A2. Value Stream Map — How To
⚠️ Distortion Warning: If you cannot see the gaps between departments, you will keep optimizing the parts and breaking the whole. This tool makes the invisible visible.
Use when: You suspect waiting is your biggest waste. The process feels slow but no one knows why.
Choose a specific process (e.g., order to payment).
Walk the actual flow. Record every step.
For each step, record processing time and waiting time.
Calculate total time and waiting ratio.
Identify gaps between departments — where no one is responsible.
Three questions after mapping: Which step has the longest wait? Which handoff creates the most delay? Which steps add no value to the customer?
Tool A2 · Value Stream Map — Blank Template
Tool A1 · Quick Diagnostic — How to Score and Act
A3. House of Quality — How To
⚠️ Distortion Warning: If you build the wrong thing efficiently, no system can save you. This tool forces you to start with what customers actually need.
Identify Customer Requirements (include all key stakeholders).
Assign Importance (1–5 scale) to each requirement.
Fill the relationship matrix: 0, 1, 3, 9 (9 = strongest impact).
Calculate raw score for each EC = SUMPRODUCT(importance × relationship).
Calculate importance % = raw score / sum of all raw scores.
Tool A3 · House of Quality — Blank Template with Formulas
Input → Calculation → Output
① Raw Importance Score (per Spec)
Sj = Σ i=1 to n ( wi × rij )
wi = Importance rating of requirement i (1–5) rij = Relationship score of spec j for req. i Values: 9 (strong) · 3 (medium) · 1 (weak) · 0 (none)
② Importance % (per Spec)
Pj = Sj ÷ Σ k=1 to m Sk × 100
Sj = Raw score of spec j (from formula ①) Σ Sk = Sum of all spec raw scores Higher % = higher leverage on customer needs
Correlation roof (spec vs spec):
⊕Strong positive○Positive✕Negative⊗Strong negativeFill only when two specs affect each other
Customer Requirement (voice of customer)
wi Importance 1–5
Spec A ri1
Spec B ri2
Spec C ri3
Spec D ri4
Spec E ri5
Competitor Research (optional)
Requirement 1
w1
—
—
—
—
—
—
Requirement 2
w2
—
—
—
—
—
—
Requirement 3
w3
—
—
—
—
—
—
Requirement 4
w4
—
—
—
—
—
—
Requirement 5
w5
—
—
—
—
—
—
Requirement 6
w6
—
—
—
—
—
—
Sj = Σ ( wi × rij )
S1
S2
S3
S4
S5
Pj = Sj ÷ Σ Sk × 100
P1 %
P2 %
P3 %
P4 %
P5 %
rij values:9Strong — high leverage3Medium1Weak0No relationship★ Highest Pj% = spec to prioritize first
A4. 5 Why — Root Cause Analysis Template
⚠️ Distortion Warning: If your last "why" blames a person, you have not found the root cause. The root cause is always a process, a design, or a responsibility gap.
Tool A4 · 5 Why — Blank Template
A5. PDSA Experiment Plan
⚠️ Distortion Warning: A PDSA cycle without Study is not learning. It is activity. If you skip "Study," you are just doing random change.
Tool A5 · PDSA Experiment Plan — Blank Template
A6. After-Action Review (AAR)
⚠️ Distortion Warning: If you skip this meeting, the same failure will happen again. And you will blame the same people. And nothing will change.
Duration: 15–30 minutes maximum. Rule: No blame. Only learning.
Tool A6 · After-Action Review (AAR) — Template
A7. KPI Design Checklist — 8 Questions
⚠️ Distortion Warning: If you cannot answer question 3 clearly, this KPI will be gamed. Add a counter-metric before launching.
01Does this indicator measure an outcome or just an activity?
02If it measures an activity, is the causal link to the outcome validated?
03What distorted behavior might this KPI encourage?
04What counter-metric will detect that distorted behavior?
05Is this a leading or lagging indicator?
06If lagging, what leading indicator is paired with it for early action?
07Who sees this indicator first? Can they act on it?
08Is there a clear process for analysis and action when the indicator goes red?
Decision: If any answer is "no" or "not sure" — redesign the KPI before launching.
Tool A7 · KPI Design Checklist — How to Read the Result
A8. Incentive Design Checklist — 6 Questions
⚠️ Distortion Warning: If you have not imagined how this incentive can be gamed, someone else already has.
01What is the primary metric of this incentive?
02What distorted behavior could emerge from optimizing this metric? (Think like a smart, slightly selfish employee.)
03What counter-metric would detect that distorted behavior?
04Have you tested this incentive on a small scale? What were the results?
05Is there a safe feedback channel for those affected to report issues?
06Does this incentive encourage good behavior for the whole system, or just for a part?
A9. Role Shift Matrix — Driver to System Architect
⚠️ Distortion Warning: Most managers are trained for Model A but need Model B. If you score below 20, you are running a Driver system — and you are probably exhausted.
Rate yourself on each dimension (1 = fully Driver, 5 = fully System Architect):
Dimension
Driver (1)
System Architect (5)
View of organization
Machine to be controlled
Living complex system
Role of manager
Command, control, evaluate
Design conditions, model learning
When problem occurs
"Who made the mistake?"
"What in the design caused this?"
How KPIs are used
Judge and reward/punish
Learn and adjust the system
Primary information source
Reports, dashboards
Gemba observation + data
Decision method
Experience + available data
Experiments (PDSA) + evidence
Attitude toward failure
Shame, hide, punish
Learning opportunity (if controlled)
Type of questions asked
"Who? When? How many?"
"Why? What if? What did we learn?"
Total Score
Status
< 20
Driver system. Start with Gemba (Chapter 6).
20–30
Transition. Start with KPI checklist (A7).
> 30
System Architect emerging. Keep going. Run a PDSA cycle this week.
Tool A9 · Role Shift Matrix — Driver vs. System Architect
If You Only Do One Thing From This Book
Final Choice
☐ Audit one KPI — use A7. Ask the 8 questions. If you cannot answer question 3, you have found your first redesign.
☐ Run one PDSA cycle — use A5. Pick a small problem. Test for one cycle. Study what happened. Act.
☐ Walk one Gemba — go to where the work happens. Stay for two hours. Do not judge. Just watch. Then ask: "What surprised me?"
Do not try all three. Choose one.
A Final Note
→Tools do not replace thinking. But good tools can turn good thinking into habit.
→Systems do not change because you understand them. They change because you redesign them.
→The Distortion Framework gives you the map. This Appendix gives you the tools. Most people will read this and do nothing. The rest is up to you.
JN
About the Author
Ngoc Son Nguyen
James Nguyen
DBA Candidate · University of Otago, NZTechnology Entrepreneur · 20+ YearsAustralia · New Zealand · Vietnam
Ngoc Son Nguyen (James Nguyen) is a Doctor of Business Administration candidate at the University of Otago, New Zealand. His research develops a governance-oriented perspective on performance and evaluation systems, focusing on how measurement, incentives, and relational structures shape behaviour and generate systemic distortion.
His work advances an integrated research program addressing a critical but under-theorized problem: the breakdown of evaluation validity in socio-technical systems — examining how performance measurement, digital endorsement, and organizational evaluation processes generate distortion when the legitimacy of evaluation is not properly governed.
Three Interconnected Research Contributions
Performance-Induced System Distortion (PISD) — explains how performance systems recursively shape behaviour and generate systemic distortion
Evaluative Entitlement — identifies how evaluation legitimacy breaks down when authority, epistemic access, and domain alignment are misaligned
Verified Relational Endorsement Framework (VREF) — a governance model that restores evaluation credibility through relational and contextual constraints
Theoretical Framework
This research is organized toward the development of a unified theoretical framework — Evaluation Governance and Distortion Theory (EGDT) — which reconceptualises evaluation as a governed process rather than a neutral input to decision systems. This work contributes to human resource management, digital labour markets, Responsible AI, and socio-technical systems research by reframing evaluation as a structured, governable, and theoretically grounded mechanism.
Beyond academia, Nguyen has over 20 years of experience as a technology entrepreneur across Australia, New Zealand, and Vietnam, working in SaaS, digital systems, and organizational design.