Edition 1·Updated 2026-08-19·23 min read
Sources
About this book
An overview of the book, with source information for further reading.
Reinventing Jobs cuts through the hype and fear about AI and robotics to give leaders a disciplined, actionable method for applying automation.
Instead of the dead-end question 'which jobs will automation replace?', Jesuthasan and Boudreau show that the real payoff comes from deconstructing jobs into their component tasks, understanding the value of improved performance on each task (return on improved performance, or ROIP), matching each task to the right type of automation (robotic process automation, cognitive automation, or social robotics), and then optimally recombining human and automated work into reinvented jobs. Drawing on decades of consulting and research across banking, oil and gas, healthcare, insurance, manufacturing, and retail, the book extends this logic to the organization, to leadership, and to individuals' own careers, offering a language and framework for the constant, nuanced work of perpetual reinvention.
Movement I
Orient
What this book claims, and who wrote it.
- — The book's one-line promise
- — The author and where the book stands
A practical four-step framework for leaders to deconstruct jobs into tasks and optimally combine human and automated work rather than asking which jobs robots will replace.
The need-to-know
Deconstruct jobs into tasks before deciding anything about automation. Different tasks have different ROIP curves (reduce mistakes, reduce variance, incremental value, exponential value), which determine the automation payoff. Three automation types—RPA, cognitive automation, social robotics—each fit different task characteristics and converge in real applications.
About this guide
The guide describes these challenges, steps and possible outcomes.
Who it is for
You are building a real capability: Reinventing Jobs.
Challenges
- In practice · Strategic Outcomes (Cost, Risk, Quality, Speed, Innovation) erodes when it is left to instinct instead of method.
- For the reader · You were taught the moves piecemeal, never the whole model.
Steps to consider
- 1Master job deconstruction.
- 2Master task characteristics (repetitive/variable, independent/interactive, physical/mental).
- 3Master return on improved performance (roip).
Risks
You stay dependent on instinct, and it fails you when the stakes are highest.
Intended result
Strategic Outcomes (Cost, Risk, Quality, Speed, Innovation) becomes something you produce by design, not by luck.
Set the record straight
What this book sets straight
The common beliefs this book pushes back on.
Automation replaces whole human jobs, so the question is 'how many workers will robots replace?'
Jobs are bundles of tasks with different automation compatibility and payoff; the real pattern is only visible when you deconstruct jobs into tasks and optimize human-automation combinations.
Automating means cheaply substituting machines for humans to cut labor cost.
Automation can substitute, augment, or create new human work; generic cost-cutting substitution is often wasteful or harmful, and the biggest gains come from augmentation and new work.
Automation only matters to future generations or to other people's jobs.
Automation reinvents virtually all jobs, including your own, and everyone must treat work as a constant process of deconstruction and reinvention.
Choosing automation starts with imagining what technology is available.
You can only choose automation options well after deconstructing jobs and analyzing the return on improved performance for each task.
Movement II
Map
The book's main ideas and how they connect.
Reinventing Jobs's own model — and how it sits inside its field.
- — 10 constructs the book works with
- — Where it agrees with the field, exceeds it, or fills a gap
The constructs
How they connect (11)
- Job Deconstruction → predicts → Task Characteristics (Repetitive/Variable, Independent/Interactive, Physical/Mental)
- Job Deconstruction → predicts → Return on Improved Performance (ROIP)
- Task Characteristics (Repetitive/Variable, Independent/Interactive, Physical/Mental) → influences → Automation Type Selection
- Return on Improved Performance (ROIP) → influences → Automation Role (Substitute, Augment, Create)
- Automation Type Selection → predicts → Optimized Human-Automation Work Combination
- Automation Role (Substitute, Augment, Create) → predicts → Optimized Human-Automation Work Combination
- Optimized Human-Automation Work Combination → predicts → Strategic Outcomes (Cost, Risk, Quality, Speed, Innovation)
- Organizational Alignment (Structure, Power, Rewards, Culture, Information) → moderates → Strategic Outcomes (Cost, Risk, Quality, Speed, Innovation)
- Leadership Practices for Perpetual Reinvention → predicts → Worker Trust and Transparency
- Worker Trust and Transparency → influences → Optimized Human-Automation Work Combination
- Leadership Practices for Perpetual Reinvention → moderates → Strategic Outcomes (Cost, Risk, Quality, Speed, Innovation)
Where this book diverges from the corpus
- fills gap Job Deconstruction — fills gap
- fills gap Task Characteristics (Repetitive/Variable, Independent/Interactive, Physical/Mental) — fills gap
- fills gap Return on Improved Performance (ROIP) — fills gap
- fills gap Automation Type Selection — fills gap
- fills gap Automation Role (Substitute, Augment, Create) — fills gap
- fills gap Leadership Practices for Perpetual Reinvention — fills gap
Movement III
Master
Explore the book's ideas, examples and practical tools.
How the author makes the case — section by section, with the book's own tools.
- — 10 sections, in the book's order
- — The book's frameworks, checklists, and worked cases
strong · 1 source
- Reinventing Jobs
This section shows you how to assemble deconstructed tasks, automation types, and human roles into a single reinvented work design rather than a bolt-on tool. You leave with the logic for deciding what stays human, what gets automated, and how the two interlock.
Optimized Human-Automation Work Combination
The reinvented job or process resulting from combining deconstructed tasks, ROIP analysis, automation type, and automation role into the optimal balance of human and automated work.
Why it matters. Get the combination wrong and you either automate the wrong tasks—stranding cost in human labor that adds no value—or hollow out the human contribution that actually drove the outcome.
Myth
Practitioners believe the optimal combination is whatever maximizes the percentage of work automated.
Reality
The optimal combination is task-by-task, not job-by-job: some tasks warrant full substitution, others only augmentation, and a few justify creating entirely new human work—the right mix minimizes total risk-adjusted cost per unit of value, not headcount.
- A Checklist to Help Leaders Implement AutomationChecklist — 5 checkpoints
- The Insurance Claims ProcessCase study — The traditionally slow and error-prone process of filing and settling an auto insurance claim.
- The Four-Step Work-Automation Optimization ProcessProcess — To systematically analyze work and determine the optimal combination of human and automated labor to achieve strategic goals.
- Optimize at the task level: a single job can contain substituted, augmented, and newly created work simultaneously.
- ROIP—not automatability—decides where automation belongs; automate constant-value tasks, keep humans on tasks where performance variance drives outcomes.
- The combination is a designed workflow with explicit human-machine handoffs, not a collection of tools dropped into an existing process.
The deep drill-down: 7 operational steps, a worked example from the source, 5 decision rules, 5 failure modes, and the “Human-Automation Combination Worksheet” tool. Included when you buy this guide.
The rest of this section
the full written section · 4 how-to steps · 2 pitfalls to watch for · 3 tools for this section. Included when you buy this guide.
Grounded in: Reinventing Jobs
strong · 1 source
- Reinventing Jobs
This section tells you which organizational elements—reporting structure, decision rights, information flow, rewards, culture—must be redesigned so the reinvented work actually delivers. It frames alignment as the moderator that determines whether your work design converts into results.
Organizational Alignment (Structure, Power, Rewards, Culture, Information)
The degree to which organizational elements such as structure, decision rights, accountability, information sharing, rewards, and culture are redesigned to support reinvented human-automation work.
Why it matters. A technically sound human-automation design will underdeliver if reward systems still pay for the tasks you automated away and decision rights still sit with roles the reinvention dissolved.
Myth
Practitioners assume that once the work is redesigned, the surrounding organization will adapt on its own.
Reality
Organizational elements are sticky and actively resist reinvented work; unchanged incentives, accountability lines, and information silos will quietly pull the new design back toward the old one unless deliberately rebuilt.
- The Star Model of Organization DesignFramework — A model used to analyze the organizational implications of reinventing jobs.
- Alignment is a moderator: strong work design plus misaligned rewards and decision rights yields weak outcomes.
- Retire obsolete metrics explicitly—people optimize for what they are measured on, not for the new design.
- Assign clear accountability for automated outputs, including who intervenes when the machine is wrong.
The deep drill-down: 7 operational steps, a worked example from the source, 5 decision rules, 5 failure modes, and the “Organizational Alignment Ripple Map” tool. Included when you buy this guide.
The rest of this section
the full written section · 4 how-to steps · 2 pitfalls to watch for · 1 tool for this section. Included when you buy this guide.
Grounded in: Reinventing Jobs
strong · 1 source
- Reinventing Jobs
This section defines the leader behaviors that keep work continuously reinventable rather than reinvented once. You get the practices that build the trust and enabling skills perpetual reinvention requires.
Leadership Practices for Perpetual Reinvention
Leader behaviors that orchestrate constantly reinvented work, including transparency, trust-building, continuous reskilling mindset, deployment via work architecture, and enabling-skill development.
Why it matters. Without leaders who orchestrate reinvention as an ongoing discipline, each automation wave triggers fear and information-hiding that make the next redesign slower and less accurate.
Myth
Leaders think their job is to announce the automation decision and manage the workforce reduction that follows.
Reality
Reinvention is perpetual, not an event; the leader's job is to build an organization where workers continuously surface where their own work could be automated—which only happens when reskilling and redeployment are credible, not threats.
- Leaders moderate whether reinvention produces results: the same work design succeeds or fails on leadership credibility.
- Announce the redeployment path before the automation decision—safety must precede disclosure.
- Build enabling skills over task skills so the workforce stays reinventable across successive automation waves.
The deep drill-down: 8 operational steps, a worked example from the source, 5 decision rules, 5 failure modes, and the “Perpetual Reinvention Leadership Worksheet” tool. Included when you buy this guide.
The rest of this section
the full written section · 4 how-to steps · 2 pitfalls to watch for. Included when you buy this guide.
Grounded in: Reinventing Jobs
strong · 1 source
- Reinventing Jobs
This section explains why worker trust is a live input to the quality of your work design, not a soft afterthought. It shows what trust buys you: honest information about where automation could actually help.
Worker Trust and Transparency
The extent to which workers trust leaders and the organization enough to openly share how their work is evolving and where automation could replace or augment their tasks.
Why it matters. When workers don't trust the organization, they conceal exactly the task-level knowledge you need to find the right automation targets, so distrust degrades the design itself—not just morale.
Myth
Practitioners believe worker trust is a change-management concern that follows the technical work, useful for adoption but irrelevant to design quality.
Reality
Frontline workers hold the most accurate picture of which of their tasks are routine, high-variability, or value-critical; without trust they hide it, and your ROIP analysis is built on incomplete data.
- Trust is a data-quality issue: distrustful workers give you a false task map and a flawed automation design.
- The people doing the work know best which tasks are automatable—make it safe and worthwhile for them to say so.
- Trust is built by leadership practice upstream; you cannot extract honesty from a workforce that expects to be harmed by it.
The deep drill-down: 8 operational steps, a worked example from the source, 5 decision rules, 5 failure modes, and the “Work Reinvention Transparency Canvas” tool. Included when you buy this guide.
The rest of this section
the full written section · 3 how-to steps · 2 pitfalls to watch for. Included when you buy this guide.
Grounded in: Reinventing Jobs
strong · 1 source
- Reinventing Jobs
This section clarifies the results automation is meant to produce—cost, risk, quality, speed, innovation—and warns against pursuing them as a single number. You get the discipline of naming the specific outcome each reinvention is designed to move.
Strategic Outcomes (Cost, Risk, Quality, Speed, Innovation)
The organizational results sought from automation, including reduced cost and risk, improved quality and speed, greater agility, customer responsiveness, and innovation.
Why it matters. Chasing cost reduction as the default outcome routinely destroys the quality, speed, or innovation that the automation could have unlocked, leaving you cheaper but worse.
Myth
Practitioners assume automation's primary payoff is labor-cost savings and evaluate every project on that basis.
Reality
Cost is only one of several outcomes, and often not the largest; automation that eliminates risk, accelerates cycle time, or frees humans for innovation frequently creates more value than the payroll it removes—and these outcomes require different work designs.
- Different strategic outcomes demand different work designs—decide the target before selecting automation.
- Cost savings are frequently the smallest available prize; risk, speed, and innovation gains often dominate.
- Outcomes are moderated by alignment and leadership; a good design in a misaligned organization still misses its target.
The deep drill-down: 7 operational steps, a worked example from the source, 5 decision rules, 5 failure modes, and the “Strategic Outcome-to-Automation Alignment Worksheet” tool. Included when you buy this guide.
The rest of this section
the full written section · 3 how-to steps · 2 pitfalls to watch for. Included when you buy this guide.
Grounded in: Reinventing Jobs
strong · 1 source
- Reinventing Jobs
This section shows you how to split a job into discrete work tasks so you can evaluate each one for automation potential and value, rather than deciding the fate of a whole role at once.
Job Deconstruction
The practice of breaking a job into its component work tasks so that automation compatibility and payoff can be assessed at the task level rather than treating the whole job as an indivisible unit.
Why it matters. Skip this and you either automate an entire job you should have kept human or preserve a role that is mostly automatable, both of which destroy value and trust.
Myth
Practitioners assume the natural unit of analysis is the job title, so they ask 'can this job be automated?' as a yes/no question.
Reality
Automation almost never replaces a whole job; it replaces specific tasks within it. A single role typically contains a mix of tasks with wildly different automation payoffs, so the job is the wrong altitude for the decision.
- Ask 'which tasks in this job can be automated?' — never 'can this job be automated?'
- The task list must reflect observed work, not the official job description, because the two rarely match.
- Deconstruction is the gateway step: task characteristics and ROIP can only be assessed once the job is disassembled.
The deep drill-down: 7 operational steps, a worked example from the source, 5 decision rules, 5 failure modes, and the “Task Deconstruction Grid” tool. Included when you buy this guide.
The rest of this section
the full written section · 4 how-to steps · 2 pitfalls to watch for. Included when you buy this guide.
Grounded in: Reinventing Jobs
strong · 1 source
- Reinventing Jobs
This section gives you the three-axis diagnostic — repetitive/variable, independent/interactive, physical/mental — for profiling each deconstructed task and reading off which automation types fit.
Task Characteristics (Repetitive/Variable, Independent/Interactive, Physical/Mental)
The three-dimensional profile of a work task describing how repetitive versus variable, independent versus interactive, and physical versus mental it is, which together determine its compatibility with different automation types.
Why it matters. Misreading a task's profile leads you to buy the wrong automation — robotic process automation where cognitive AI was needed, or a physical robot for work that is actually interactive — wasting capital on tools that cannot do the job.
Myth
Practitioners treat these dimensions as a single 'complexity' scale, assuming a task is simply easy or hard to automate.
Reality
The three axes are independent and each maps to a different automation family: repetitive work suits RPA, physical work suits robotics, and cognitive-variable work suits AI. A task can be trivially automatable on one axis and impossible on another, so the profile is a vector, not a score.
- The Four-Step Work-Automation FrameworkFramework — The book's central framework for leaders to systematically deconstruct, analyze, and reconfigure work to find the optimal combination of humans and automation.
- Reinventing the Oil DrillerCase study — The natural resources industry facing cost pressures and safety concerns on oil rigs.
- Work-Automation Combinations GridTemplate — To serve as a rubric for understanding the optimal combinations of work characteristics, ROIP, and automation type and role.
- Profile each task on three independent axes; a low score on one does not predict the others.
- Repetitive maps to RPA, physical to robotics, variable-mental to AI — the profile names the tool.
- Highly interactive tasks are augmentation candidates, and a repetitive mental task is often more automatable than a variable physical one.
The deep drill-down: 7 operational steps, a worked example from the source, 5 decision rules, 5 failure modes, and the “Three-Dimension Task Profile Card” tool. Included when you buy this guide.
The rest of this section
the full written section · 3 how-to steps · 2 pitfalls to watch for · 3 tools for this section. Included when you buy this guide.
Grounded in: Reinventing Jobs
strong · 1 source
- Reinventing Jobs
This section gives you a diagnostic for asking what kind of return each work task actually produces when someone does it better, sorted into four value curves. You learn to plot performance against strategic value before you touch technology or job design.
Return on Improved Performance (ROIP)
The relationship between the level of performance on a work task and the strategic value it creates, expressed as one of four prototype curves: reduce mistakes, reduce variance, incremental value, or exponential value.
Why it matters. Getting ROIP right tells you where a marginal improvement is worth nothing and where it is worth everything — which is the difference between spending automation dollars on tasks that only need to be error-free and starving the tasks where breakaway performance compounds.
Myth
Practitioners assume better performance is always more valuable, so improving any task is a defensible investment.
Reality
Value does not rise smoothly with performance; on a 'reduce mistakes' task, moving from good to excellent adds almost nothing because the only thing that matters is avoiding failure, while on an 'exponential value' task the top performers create disproportionate, non-linear returns that ordinary competence never touches.
- On reduce-mistakes and reduce-variance tasks, the payoff comes from consistency and error prevention, so pay for reliability, not for star performance.
- On exponential-value tasks, the gap between average and elite performers dominates outcomes, justifying concentrated investment in the few who reach the top of the curve.
- Assign a curve to each task before deciding how to reinvent it, because the curve shape—not job title or effort—determines where improvement is worth funding.
The deep drill-down: 6 operational steps, a worked example from the source, 5 decision rules, 5 failure modes, and the “Task-Level ROIP Scoring Grid” tool. Included when you buy this guide.
The rest of this section
the full written section · 3 how-to steps · 2 pitfalls to watch for. Included when you buy this guide.
Grounded in: Reinventing Jobs
strong · 1 source
- Reinventing Jobs
This section gives you a decision framework for matching one of three automation families — RPA, cognitive automation, or collaborative robotics — to the task in front of you. You learn to read task characteristics and expected payoff before you commit to a technology.
Automation Type Selection
The choice among robotic process automation, cognitive automation, and social/collaborative robotics for a given task, based on task characteristics and the required payoff, recognizing that types often converge.
Why it matters. Pick the wrong automation type and you either overspend on cognitive tooling for a rules-based task or strand a variable, judgment-heavy task inside brittle rule-based scripts that break the first time reality deviates.
Myth
Practitioners treat the three types as a maturity ladder — assuming cognitive automation and collaborative robotics are simply more advanced versions of RPA that you graduate to.
Reality
The three types map to different task structures, not different levels of sophistication; RPA fits repetitive digital rules, cognitive automation fits variable pattern-recognition, and collaborative robotics fits interactive physical work — and increasingly a single deployment blends all three.
- Automation of Oncology TreatmentCase study — The process of diagnosing and treating cancer in a modern hospital setting.
- Classify the task on three axes first; the automation type follows from the classification, not from what's newest.
- RPA, cognitive automation, and collaborative robotics converge in practice — architect for their combination rather than choosing one exclusively.
- A type is only correct if its payoff clears its lifecycle cost, so run the volume math before piloting.
The deep drill-down: 7 operational steps, a worked example from the source, 5 decision rules, 5 failure modes, and the “Task-to-Automation-Type Selector” tool. Included when you buy this guide.
The rest of this section
the full written section · 4 how-to steps · 2 pitfalls to watch for · 1 tool for this section. Included when you buy this guide.
Grounded in: Reinventing Jobs
strong · 1 source
- Reinventing Jobs
This section clarifies the three fundamentally different jobs automation can do — replace human work, amplify it, or invent work that neither humans nor machines could perform alone. You learn to decide which role fits each task and why the choice reshapes the entire redesign.
Automation Role (Substitute, Augment, Create)
Whether automation substitutes for human work, augments human capability, or creates entirely new work that could not exist without combining humans and machines.
Why it matters. Defaulting every deployment to 'substitute' when the task's real payoff comes from higher performance leaves the biggest value — augmentation and net-new work — permanently unclaimed.
Myth
Practitioners equate automation with substitution and measure success mainly by headcount removed and labor cost saved.
Reality
Substitution is only the right role when performance is bounded and consistent; where performance can scale, augmentation captures more value, and creation opens work — new services, new insights, new products — that generates revenue no cost-cutting frame will ever surface.
- Let ROIP decide the role: flat performance curves justify substitution, steep ones demand augmentation or creation.
- Augmentation and creation are where automation earns revenue, not just avoids cost — evaluate them with performance and growth metrics, not savings.
- The 'create' role is invisible unless you deliberately ask what new work the combination of humans and machines makes possible.
The deep drill-down: 7 operational steps, a worked example from the source, 5 decision rules, 5 failure modes, and the “Task Automation Role Mapper” tool. Included when you buy this guide.
The rest of this section
the full written section · 4 how-to steps · 2 pitfalls to watch for. Included when you buy this guide.
Grounded in: Reinventing Jobs
The playbook — the whole process
Beneath the model sits the practical spine — the end-to-end process the source books lay out. Here it is, in sequence, each broken into the steps you actually run.
The sequence — high level first
Illumination of the parts
Process 1 · named in the source
The Four-Step Work-Automation Optimization Process
To systematically analyze work and determine the optimal combination of human and automated labor to achieve strategic goals.
- 1
Deconstruct the job(s) into component work tasks, analyzing each task's characteristics (e.g., repetitive vs. variable).
- 2
Assess the strategic value of performance for each task by identifying its Return on Improved Performance (ROIP) profile (e.g., avoid mistakes, incremental value).
- 3
Identify all possible automation options, classifying them as Robotic Process Automation, Cognitive Automation, or Social Robotics.
- 4
Synthesize the findings to optimize work, deciding for each task whether automation should substitute for, augment, or create new work for humans, and then reconstruct the work into new, reinvented jobs.
What's underneath
What the field takes for granted
Every field runs on assumptions it rarely says out loud — the beliefs its advice quietly depends on. We surface the load-bearing ones, where they hide, and when they break. Most guides never tell you this.
Placing the idea
How it compares — and where else it applies
We don't just explain the idea in isolation. We place it: against the alternative it replaces, and beyond the domain it was born in. That's the difference between knowing a method and knowing when to reach for it.
How it compares
vs The common narrative of 'robots replacing jobs'.
Both acknowledge that automation will have a significant impact on the workforce and will perform tasks previously done by humans.
The common narrative is a simplistic, binary view of substitution at the job level. This book argues the impact is at the task level, leading to a more complex outcome where work is reconfigured, human roles are augmented, and new tasks are created, not just wholesale job elimination.
Its distinctive contribution is the practical, four-step framework that moves leaders beyond the simplistic debate to a nuanced, actionable strategy for optimizing human-automation collaboration.
vs Business Process Reengineering (BPR) of the 1990s.
Both methodologies rely on the fundamental deconstruction of work processes and the challenging of traditional job definitions to achieve dramatic improvements in performance.
BPR was driven by earlier, more rudimentary information technology like shared databases and PCs. The current wave of reinvention is powered by far more advanced tools like AI, RPA, and social robotics, enabling more sophisticated forms of augmentation and substitution.
This book updates the core idea of deconstruction for the age of AI, providing a modern framework that accounts for a much wider and more intelligent set of automation tools.
Where else it applies
The model, taken beyond its home domain
Personal Career Management
Chapter 7 is explicitly dedicated to this application. Individuals can use the four-step framework to deconstruct their own job, assess which of their skills create the most value (ROIP), anticipate which tasks will be automated, and proactively reskill themselves for the augmented or newly created human work of the future.
Public Policy and Education
Governments and educational institutions can use the framework to move beyond generic calls for 'STEM skills.' They can analyze industries task-by-task to predict more accurately where displacement will occur and what new 'human-centric' skills (e.g., collaboration, empathy, critical thinking) will be most valuable, allowing for the design of more targeted and effective workforce transition and education programs.
Startup and New Venture Design
Entrepreneurs can use the framework to design 'automation-native' businesses from the ground up. Instead of starting with traditional job descriptions, they can map out the necessary work tasks and then decide on the optimal blend of human talent (employees, freelancers) and automation technologies to build a lean, efficient, and scalable organization.
Movement III · The run-it-now depth
The Playbook
Practical tools and examples from this guide.
Frameworks
The Four-Step Work-Automation Framework
The book's central framework for leaders to systematically deconstruct, analyze, and reconfigure work to find the optimal combination of humans and automation.
Start hereSelect a job, role, or process that is a candidate for automation or performance improvement.
PathMove sequentially through the four steps, using the output of each step as the input for the next, culminating in a blueprint for a reinvented job or process.
- 1Step 1: Deconstruct the Job (Analyze tasks based on repetitive/variable, independent/interactive, physical/mental characteristics).
- 2Step 2: Assess Performance and Strategic Value (Analyze tasks using the four ROIP curves: negative, constant, incremental, exponential value).
- 3Step 3: Identify Automation Options (Categorize potential solutions as RPA, cognitive automation, or social robotics).
- 4Step 4: Optimize Work (Decide if automation will substitute, augment, or create new work, then reconstruct the job).
The Star Model of Organization Design
A model used to analyze the organizational implications of reinventing jobs. It helps leaders ensure that changes to work are supported by corresponding changes in other organizational components.
Start hereAfter designing a new, automation-optimized job or process (using the four-step framework).
◆ The full 5-step framework — included with this guide purchase
Checklists
A Checklist to Help Leaders Implement Automation
◆ All 5 checkpoints — included with this guide purchase
Case studies — including what didn't work
The ATM and the Bank Teller
The introduction of Automated Teller Machines (ATMs) into the retail banking industry starting in the 1970s.
Instead of simply replacing human tellers, ATMs automated routine cash-handling tasks. This made it cheaper for banks to open more branches, and the remaining human tellers shifted their focus to more complex, value-added tasks like sales and customer service.
Contrary to initial predictions, the total number of bank teller jobs actually increased for decades after the ATM's introduction, demonstrating that automation changes work rather than just eliminating it.
Reinventing the Oil Driller
The natural resources industry facing cost pressures and safety concerns on oil rigs.
◆ What happened, and the outcome — included with this guide purchase
Automation of Oncology Treatment
The process of diagnosing and treating cancer in a modern hospital setting.
◆ What happened, and the outcome — included with this guide purchase
Haier's Organizational Transformation
Chinese appliance manufacturer Haier seeking to become more agile and customer-focused in the age of IoT.
◆ What happened, and the outcome — included with this guide purchase
The Insurance Claims Process
The traditionally slow and error-prone process of filing and settling an auto insurance claim.
◆ What happened, and the outcome — included with this guide purchase
Templates
Work-Automation Combinations Grid
To serve as a rubric for understanding the optimal combinations of work characteristics, ROIP, and automation type and role.
Grid with columns: Work Characteristics (Repetitive/Variable, Independent/Interactive, Physical/Mental), ROIP (Negative, Constant, Incremental, Exponential), Role of Automation (Substitute, Augment, Create), Type of Automation (RPA, Cognitive, Social Robotics). Rows represent feasible combinations. For example: A 'Repetitive, Independent, Physical' task with 'Negative ROIP' optimally maps to 'Substitution' using 'Social Robotics'.
JD Workforce Weather Forecast
A 2x2 matrix to prioritize workforce transition investments based on the speed and impact of technological change on jobs.
◆ The fillable template — included with this guide purchase
Items marked Paid are included when you buy this guide.
Reading well
How the author makes the case
Reading well means seeing how an argument is built, not just what it claims. Here are the moves this author uses to persuade you — the technique, where it shows up, and what it's doing to you. See the machinery, and you read everything more sharply.
simplification_of_complexity
The entire book is structured around a simple, memorable 'four-step framework' to tackle the immensely complex and chaotic topic of the future of work.
To make an overwhelming problem feel manageable and to provide leaders with a clear, actionable path forward, turning abstract anxieties into a concrete analytical process.
pattern_repetition
The ATM/bank teller anecdote is introduced at the beginning and then revisited at the start of each of the first four chapters to illustrate each successive step of the framework.
To create a consistent, easy-to-follow narrative thread that reinforces the logic and cumulative nature of the framework. It acts as a familiar case study that the reader can build upon.
storytelling
Using vivid anecdotes like the automated oncology surgical team, drones detecting methane leaks for PG&E, or stylists at Stitch Fix collaborating with AI.
To make the abstract concepts of automation and job reinvention tangible and relatable. The stories provide concrete illustrations of what the 'optimal combination of human and machine' actually looks like in practice.
metaphor
Comparing traditional organizational structures to a 'Jenga tower' where changing one job (pulling one block) can destabilize the entire system.
To create a powerful mental image that explains the interconnectedness of jobs within an organization and the systemic risks of making isolated changes without considering the whole.
Movement IV
Reflect
Consider the book's evidence, limitations and how it compares with other sources.
How good is it — where the book stands against the field, what it leaves open, and when to trust it.
- — Its positioning, its critique, its blind spots
- — When to apply it — and when not
- — The evidence behind the advice
Book profile · in the corpus
This book’s model, against the corpus
3 of 10 constructs align with the field · 7 the book adds · 0 where it diverges · the field spans 38 constructs across 40 books
Shared with the corpus — corroborated by other sources
This book's own emphasis — where it's the authority
The corpus adds — from 39 other sources this book doesn't cover
The full field guide folds in ideas this book doesn’t reach — drawn from 39 further sources and cited in the full model.
This book’s place in the corpus
Why the corpus guide, not just this book
This book is a primary voice in field defining hr; the reconciled field-guide adds the 35 constructs and cross-book reconciliation a single book can't provide.
This guide stands on the shoulders of this book and 39 other sources — every claim cited, the disagreements named.
Read it closely
The book, examined
Not a summary — a close analytical reading: how the book is built, what it leaves open, and where it falls short.
How it’s built — the argument in order
- 01Introduction: AI and Robotics Are Here. Now What? — Reframes the debate away from 'which jobs will automation replace?' using the ATM parable to show that simplistic replacement thinking fails to predict how work actually evolves, and positions the book's four-step framework as the leader's tool for optimizing human-automation combinations.
- 02Part One / Step One — Deconstruct the Job — Breaks whole jobs into component tasks and classifies them by characteristics (repetitive/variable, independent/interactive, physical/mental) to identify which tasks—not jobs—are candidates for automation.
- 03Step Two — Assess Job Performance vs. Strategic Value (ROIP) — Introduces Return on Improved Performance to determine the automation payoff, distinguishing tasks where value comes from reducing mistakes/variance versus incremental or exponential value creation.
- 04Step Three — Identify Options — Surveys the three automation types (robotic process automation, cognitive automation, social robotics) and matches each to task characteristics, noting they converge in real applications.
- 05Step Four — Optimize Work — Combines task characteristics, ROIP, automation role (substitute/augment/create), and automation type to design the optimal human-automation work combination against strategic outcomes.
- 06Part Two — Redefining the Organization, Leadership, and Workers — Extends the work-level logic upward: the new organization (agile, boundaryless, work-centric), the new leadership (democratic, social, perpetually upgraded, requiring trust and transparency), and applying the framework to one's own career via enabling over perishable skills.
What it leaves unsolved
How does a leader actually measure ROIP for a given task in practice?
The book asserts different tasks have different ROIP curves that determine payoff, but the passages describe this as a conceptual lens without specifying the data, metrics, or methods to quantify it reliably.
What happens to workers whose tasks are substituted rather than augmented?
The framework acknowledges automation can substitute work and stresses trust and transparency, yet it centers on the leader's optimization decision and leaves the displacement outcomes for affected individuals largely unaddressed beyond 'reinvent your own career.'
How are conflicts between work-level optimization and organization-level effects resolved?
The book says reinventing jobs ripples through structure, power, rewards, and culture and must be 'checked' against organization-level effects, but it does not specify how to adjudicate when the optimal task combination clashes with existing power or reward structures.
How stable is the 'optimal' combination given perpetual reinvention?
If work must be perpetually reinvented, any optimum is temporary; the book does not clarify how often to re-run the four steps or how to avoid perpetual churn and change fatigue.
Where it falls short — a fair critique
The framework is presented as systematic and 'takes the guesswork out,' but the source material offers the four-step scaffolding and industry examples without demonstrating the granular measurement tools (especially for ROIP) that would let a leader execute it without substantial judgment or consulting help.
The book insists automation is 'not a simple rip and replace' yet retains 'substitute' as one of three automation roles; the promise of nuance can obscure that a large share of real decisions still reduce to substitution, which the reframing partly rhetorically softens.
Drawing on decades of consulting engagements, the evidence base appears skewed toward large firms across a handful of industries; the passages give no indication the framework was tested for small organizations, the public sector, or contexts lacking the analytic capacity to deconstruct jobs and model ROIP.
Worker trust and transparency are named as leadership requirements, but the book's stated audience and framing ('for leaders, because leaders must decide where, why, and how') treats workers primarily as objects of optimization, leaving worker agency, consent, and collective response underdeveloped.
The heavy front-matter of C-suite endorsements frames automation as almost uniformly reward-yielding ('reap enormous rewards'), which risks understating documented risks—bias in cognitive automation, error propagation, and the possibility that recombined jobs degrade rather than enrich work.
Before you apply it
Using it well
Where the method fits, who it’s for, and the honest case for and against — so you apply it where it works.
Is this book for you?
For you if
- You lead workforce or automation strategy across a C-suite
- You need a language to move past 'robots take jobs' fear
- You must coordinate CIO, CHRO, and functional leaders
Skip it if
- You want hands-on technical automation instructions
- You seek empirical proof of automation's labor effects
- Your work doesn't decompose into discrete tasks
Need first
- A clear map of your organization's strategic outcomes
- Willingness to break jobs into component tasks
- Cross-functional buy-in to act on the analysis
When it applies — and when it doesn’t
- Deciding where to deploy automation across a workforce — the task-level deconstruction method is exactly what it's built for
- Redesigning jobs after introducing RPA or cognitive tools — the recombination step guides optimal human-machine mixes
- Individuals planning career resilience against automation — chapter seven extends the framework to personal work evolution
- Choosing specific automation vendors or technical architectures — the book is strategy-side, not a technical implementation guide
- Quantifying ROIP curves with rigorous data — ROIP is a conceptual lens, not a validated measurement model
- Small teams with few standardized tasks to deconstruct — framework overhead may exceed benefit at low scale
- Organizations wanting fast headcount cuts — the thesis explicitly rejects 'rip and replace' shortcuts
The honest case
Strongest case for
- Task-level analysis is more accurate than whole-job predictions about automation
- The ATM parable shows jobs evolve rather than simply disappear, validating recombination logic
- Broad industry examples suggest the framework generalizes across sectors
- It links automation choices to strategic value via ROIP rather than technology hype
Strongest objection
- Deconstructing every job into tasks is labor-intensive and may not scale in practice
- ROIP curves and optimal combinations rely on judgment that can rationalize predetermined decisions
- Endorsements from executives suggest a management-friendly bias that underweights worker displacement costs
Tensions — choices to make, not settled answers
The model's constructs are drawn from the source element(s); load-bearing constructs are corroborated across the shelf, emerging ones are flagged.
Ideas covered by the source notes
- Job Deconstruction
- Task Characteristics (Repetitive/Variable, Independent/Interactive, Physical/Mental)
- Return on Improved Performance (ROIP)
- Automation Type Selection
- Automation Role (Substitute, Augment, Create)
- Optimized Human-Automation Work Combination
Movement IV · Measure · The evidence
The evidence behind the advice
We don’t just assert — we show the research the ideas rest on: the study, its key finding, what it means for you, and the citation to chase it yourself. Then a curated path to go deeper. Grounded, not hand-waved.
Go deeper
A curated reading ladder — not a dump. Each with why it’s worth your time.
- Beyond HR · John W. Boudreau and Peter M. Ramstad
Introduces the concept of 'Return on Improved Performance' (ROIP), a foundational element of Step 2 of this book's framework.
- Lead the Work · John W. Boudreau, Ravin Jesuthasan, and David Creelman
Expands on the idea of deconstructing work beyond traditional jobs, which is the starting point (Step 1) of the framework presented in this book.
- Reengineering Work: Don’t Automate, Obliterate · Michael Hammer
The book cites this classic HBR article to show that the idea of deconstructing work for process improvement has a long history, providing a historical parallel to the current automation challenge.
- The Inevitable: Understanding the 12 Technological Forces That Will Shape Our Future · Kevin Kelly
Cited to support the concept of 'becoming,' where products and work are in a state of perpetual upgrade, framing the necessity for the book's agile approach to jobs.
Movement V
Measure
Use available assessments to reflect on what you have learned.
A way to gauge yourself against the book's model, and the instruments it gives you.
- — A self-check built from the book
- — Instruments and what you'd measure next
Learning curriculum
After this book, you can…
The book's learning objectives, classified by Bloom's taxonomy and ordered so each builds on the ones before it.
- explainAfter this book you can explain why the task, not the whole job, is the correct unit of analysis for automation decisions and reframe 'which jobs will automation replace?' into a task-level question.Check: Ask the learner to critique the 'jobs replaced by robots' framing and restate it as a task-level inquiry in a short written response.
- describeAfter this book you can describe the shift in leadership from managing jobs to orchestrating perpetually reinvented human-machine work.Check: Have learners contrast traditional job-management with perpetual-reinvention leadership practices in a written comparison.
- explainAfter this book you can explain how transparency and trust between leaders and workers enable proactive, humane automation transitions.Check: Ask learners to identify leader behaviors that build worker trust and explain why they enable open sharing of how work is evolving.
- deconstructAfter this book you can deconstruct a given job into its component work tasks suitable for automation analysis.Check: Give learners a real job description and have them produce a list of discrete tasks with justification for the breakdown.
- classifyAfter this book you can profile each task along the three characteristic dimensions—repetitive/variable, independent/interactive, physical/mental.Check: Provide a set of tasks and have learners plot each on the three-dimensional profile with rationale.
- selectAfter this book you can select the appropriate automation type—RPA, cognitive automation, or social/collaborative robotics—for a task based on its characteristics.Check: Present tasks with defined characteristics and have learners choose and justify the fitting automation type.
- applyAfter this book you can apply the four-step framework to your own career, prioritizing durable enabling skills over perishable technical skills.Check: Have learners deconstruct their own role, assess ROIP and automation exposure, and produce a personal reinvention plan.
- analyzeAfter this book you can identify which of the four ROIP curves (reduce mistakes, reduce variance, incremental value, exponential value) applies to a task and interpret its automation payoff.Check: Give performance-value scenarios and have learners match each to the correct ROIP prototype curve and explain the implication for automation payoff.
- differentiateAfter this book you can determine whether automation should substitute for, augment, or create human work for a given task.Check: Have learners assign a substitute/augment/create role to sample tasks and defend the choice against alternatives.
- assessAfter this book you can assess how reinventing jobs ripples through organizational structure, power, rewards, culture, and information, and check work-level decisions against organization-level effects.Check: Give a reinvented-job scenario and have learners map its consequences across the five organizational alignment elements.
- designAfter this book you can combine task characteristics, ROIP, automation type, and automation role into an optimized human-automation reinvented job or process.Check: Give a full job case and have learners produce a reinvented job design integrating all four framework elements with justification.
- advocateAfter this book you can advocate for a continuous mindset of perpetual reinvention in which work is repeatedly deconstructed, reoptimized, and reinvented.Check: Have learners make a persuasive case to a leadership team for adopting perpetual reinvention over a one-time automation project.
- evaluateAfter this book you can evaluate whether an automation decision maximizes strategic outcomes (cost, risk, quality, speed, innovation) by targeting the most pivotal tasks.Check: Provide an automation proposal and have learners judge whether it is applied where payoff is most pivotal to strategic goals.
How to measure it
Turning each idea into a measure
For each construct: how to operationalize it, the observable signals to look for, and how well it holds up.
Presence and completeness of a task-level inventory for a job, derived from job descriptions, competency lists, performance goals, or task databases such as O*Net.
- documented task lists
- task-level workflow maps
- use of task libraries like O*Net
Feasibly assessed as a categorical/archival indicator of whether and how thoroughly a job has been decomposed.
Strong face validity as the book's explicit first step; risk of superficial decomposition that misses connective tissue between tasks. · Reliability depends on consistent task-definition conventions across analysts.
Ratings of each task along three continua: repetitive-variable, independent-interactive, and physical-mental.
- predictability of routines
- degree of collaboration/communication
- reliance on manual dexterity vs cognition
Feasibly rated on bipolar continua per task via expert judgment and observation; no scoring rules prescribed.
Grounded directly in the book's stated dimensions; validity depends on rater understanding of each continuum. · Inter-rater agreement may vary for tasks that mix characteristics.
Classification of each task's payoff curve as one of four prototypes: reduce mistakes (negative value), reduce variance (constant value), incremental value, or exponential value.
- value lost from below-standard performance
- value added per performance increment
- presence of breakthrough payoff opportunities
Feasibly assessed by mapping value against performance level; archival and judgmental inputs only, no survey scoring.
Conceptually strong link to strategic value; challenge is estimating value functions where data is proprietary or absent. · Estimates may vary across analysts absent shared value data.
Categorical assignment of each task to RPA, cognitive automation, social robotics, or a converged combination.
- technology deployed against task
- learning/interaction requirements
- physical vs data-handling nature
Feasibly documented as categorical selections in automation planning records.
Directly aligned with the book's Appendix grid mapping task characteristics to types. · High when guided by the grid; convergence of types can blur single-type classification.
Categorization of each automated task by whether automation substitutes for, augments, or creates human work, often quantified by time reallocation.
- minutes shifted/eliminated/augmented/created
- new tasks generated by automation
- human tasks eliminated
Feasibly measured via before/after task time analyses as in the oil driller example.
Strong operational grounding via time-shift tables; validity depends on accurate task timing. · Reliable where task timing is systematically tracked.
The revised job/process design specifying which tasks are human, automated, or hybrid and how they interconnect.
- revised job descriptions
- workflow diagrams
- documented human-automation handoffs
Feasibly represented as a design artifact; assessed qualitatively against the framework's four steps.
Central construct of the book; validity depends on faithfully integrating all prior steps. · Reliability improves when the four-step process is applied consistently.
Assessment across star-model dimensions (strategy, structure, processes, rewards, people practices) of fit with reinvented work.
- shifts in decision rights
- changed reward structures
- new lateral collaboration
- cultural and trust adjustments
Feasibly assessed via perceptual and archival evidence of organizational redesign; no scoring rules.
Grounded in the star model; validity depends on capturing genuine structural change vs cosmetic change. · Perceptual dimensions require consistent respondent framing.
Presence of leader behaviors such as transparent communication, continuous reskilling support, work-architecture deployment, and enabling-skill focus.
- transparency of communication
- reskilling pathways offered
- task-based deployment
- emphasis on enabling skills
Feasibly assessed via worker and leader perceptions and program artifacts.
Grounded in Chapter 6's five transformative changes; validity depends on distinguishing stated intent from enacted behavior. · Perceptual measures need consistent behavioral anchors.
Worker-reported psychological safety and willingness to disclose automation opportunities affecting their own tasks.
- frequency of candid work-evolution conversations
- worker-initiated automation ideas
- perceived job-transition support
Highly suitable for perceptual self-report; feasibility limited to perceptions.
Consistent with book's emphasis on transparency; risk of social desirability bias. · Standard perceptual reliability considerations apply.
Archival operational and financial metrics such as cost per process, error/defect rates, cycle time, ROI, and innovation output.
- processing time reductions
- error rate reductions
- cost savings
- wells drilled per employee
- claim throughput
Feasibly measured via archival business metrics; not self-report.
Strong external validity via case metrics; attributing outcomes solely to automation requires controlling confounds. · Archival metrics are generally reliable where consistently recorded.
Self-assessment
Where would you like to improve?
This is a structured self-diagnostic built from the model — a mirror for reflection, not a validated psychometric scale. For validated measurement, see the instruments below.
1 = Strongly Disagree · 7 = Strongly Agree
Proposed measures — starter instruments where no validated one was found
Task-Level Decomposition Index
proposed · not validatedRate each observable statement on the scale below.
- Every role targeted for automation review has a documented task list broken out into discrete, nameable components before analysis begins.
- Each listed task is accompanied by time-allocation or frequency estimates showing what share of the job it represents.
- Task breakdowns are reviewed and validated by someone who actually performs or supervises the work before being used for automation decisions.
Scale: 1–7 (Strongly Disagree → Strongly Agree). Average the item ratings. This proposed index has no validated cutoff.
Task Profile Rating Protocol
proposed · not validatedRate each observable statement on the scale below.
- Each decomposed task is explicitly rated on a repetitive-to-variable scale using defined criteria or examples.
- Each decomposed task is explicitly rated on an independent-to-interactive scale reflecting how much it requires coordination with others.
- Each decomposed task is explicitly rated on a physical-to-mental scale reflecting the nature of the effort involved.
Scale: 1–7 (Strongly Disagree → Strongly Agree). Average the item ratings. This proposed index has no validated cutoff.
Performance-Value Curve Mapping Tool
proposed · not validatedRate each observable statement on the scale below.
- Each task or role has an assigned performance-value curve (e.g., threshold, linear, diminishing, exponential) based on documented rationale rather than assumption.
- The chosen curve for each task is cross-checked against historical performance and outcome data before being finalized.
- Investment or automation decisions reference the assigned curve type to justify where improved performance would or would not create strategic value.
Scale: 1–7 (Strongly Disagree → Strongly Agree). Average the item ratings. This proposed index has no validated cutoff.
Sources
- Reinventing Jobs — Ravin Jesuthasan & John Boudreau
The cheat sheet
Everything, on one page
One key takeaway from each section, with links to read more.
- Job DeconstructionAsk 'which tasks in this job can be automated?' — never 'can this job be automated?'
- Task Characteristics (Repetitive/Variable, Independent/Interactive, Physical/Mental)Profile each task on three independent axes; a low score on one does not predict the others.
- Return on Improved Performance (ROIP)On reduce-mistakes and reduce-variance tasks, the payoff comes from consistency and error prevention, so pay for reliability, not for star performance.
- Automation Type SelectionClassify the task on three axes first; the automation type follows from the classification, not from what's newest.
- Automation Role (Substitute, Augment, Create)Let ROIP decide the role: flat performance curves justify substitution, steep ones demand augmentation or creation.
- Optimized Human-Automation Work CombinationOptimize at the task level: a single job can contain substituted, augmented, and newly created work simultaneously.
- Organizational Alignment (Structure, Power, Rewards, Culture, Information)Alignment is a moderator: strong work design plus misaligned rewards and decision rights yields weak outcomes.
- Leadership Practices for Perpetual ReinventionLeaders moderate whether reinvention produces results: the same work design succeeds or fails on leadership credibility.
- Worker Trust and TransparencyTrust is a data-quality issue: distrustful workers give you a false task map and a flawed automation design.
- Strategic Outcomes (Cost, Risk, Quality, Speed, Innovation)Different strategic outcomes demand different work designs—decide the target before selecting automation.
Publication details
Consult the sources listed in this guide for further reading. Edition 1 · Updated 2026-08-19.