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Showing posts with label PO Thinking. Show all posts
Showing posts with label PO Thinking. Show all posts

Friday, November 13, 2026

Meta Skills #001 — Apply Before You Learn: The New Learning Skill in the AI Age

AIYING | META SKILLS SERIES #001

Apply Before You Learn: The New Learning Skill in the Age of AI

How lateral thinking and generative AI can transform learning from preparation for action into learning through action.


Series: Meta Skills in the Age of AI & Lateral Thinking


1. The Learning Assumption We Rarely Question

For generations, education and professional development have followed a familiar sequence:

LEARN → PRACTISE → APPLY

First, acquire knowledge. Then develop proficiency through practice. Finally, apply what you have learned to solve a real problem.

This sequence has served us well. In many disciplines, particularly those involving safety, complex foundations, or professional responsibility, it remains essential.

But is it the only possible sequence?

Consider a graduate who wants to create an AI-powered application. The conventional route may begin with programming fundamentals, databases, APIs, machine learning, and software engineering.

Months later, the graduate might attempt to build an application.

Yet the desire to build something meaningful was present from the beginning.

Why must application always wait until learning is complete?

2. Enter Lateral Thinking: Challenge the Sequence

Edward de Bono's lateral thinking encourages us to examine established patterns rather than merely improve our performance within them.

One of its important devices is PO, a deliberate provocation that allows us to explore an idea without immediately judging whether it is correct or practical.

Let us apply this to learning.

PO: APPLY BEFORE YOU LEARN.

What if application were the starting point of learning rather than its final destination?

This is not a recommendation to abandon knowledge, foundations, or preparation.

It is a deliberate reversal intended to produce new possibilities.

Instead of asking:

"What must I learn before I can begin?"

We ask:

"What can I begin doing, and what must I learn to make progress?"

The change appears small. Its implications can be substantial.

3. Movement: From Curriculum-Driven to Accomplishment-Driven Learning

In lateral thinking, provocation is followed by movement. We do not stop at the unusual statement. We use it to discover a workable concept.

The principle emerging from our provocation is simple:

A desired accomplishment can help determine the learning journey.

Consider two approaches.

Conventional Sequence Application-First Sequence
Choose a subject Choose an accomplishment
Follow a predefined syllabus Identify the knowledge needed
Practise selected exercises Attempt a real task
Apply after preparation Learn, test, and improve during application
Demonstrate acquired knowledge Demonstrate both understanding and accomplishment

The second approach does not eliminate structured learning. It changes how learning needs are discovered and prioritized.

4. Generative AI Changes What Is Possible

Application-first learning is not entirely new. Apprenticeships, project-based education, experiential learning, and learning by doing have long demonstrated the value of practical experience.

What is new is the accessibility of generative AI as an interactive learning assistant.

AI can help a learner:

  • Clarify the desired accomplishment.
  • Identify missing knowledge and prerequisites.
  • Break a complex task into manageable steps.
  • Explain unfamiliar concepts when they become relevant.
  • Generate examples and practice exercises.
  • Review work and suggest improvements.
  • Explore alternative approaches.
  • Reflect on what has actually been learned.

Previously, a learner might have needed a teacher, mentor, textbook, and multiple resources to coordinate this process.

Generative AI can help bring many of these functions into one interactive workflow.

However, AI explanations and generated solutions can be incorrect. Learners must still verify important information, test results, and develop independent understanding.

5. A Practical Example: The Graduate Who Wanted to Build a Chatbot

Imagine a graduate with no programming experience who wants to build a chatbot that answers questions about a college course.

The conventional response might be:

"Learn Python, APIs, databases, and AI engineering first."

Our application-first response is different.

Begin with the smallest useful version of the chatbot.

Step 1: Define the accomplishment

The chatbot should answer five frequently asked questions using a small set of approved course information.

Step 2: Discover the learning requirements

Ask AI to identify the minimum concepts, tools, and skills required to build a simple prototype.

Step 3: Build a small version

Begin with a no-code prototype or a simple program, depending on the learner's starting capability.

Step 4: Learn at the point of need

When the learner encounters an unfamiliar concept, such as an API, the immediate task creates a reason to understand it.

Step 5: Verify understanding

The learner must explain how the chatbot works, what information it uses, where errors can occur, and what limitations remain.

Step 6: Improve the accomplishment

Test the chatbot with real questions, identify failures, and improve its responses.

The outcome is not merely a prototype.

The learner has also developed a process for discovering, acquiring, and applying knowledge.

That process is the meta skill.

6. The Deeper Meta Skill: Learning to Learn

Learning to learn is not simply the ability to remember information quickly.

It includes the ability to:

  • Recognize what one does not know.
  • Identify what is worth learning.
  • Choose an effective learning strategy.
  • Seek and evaluate appropriate assistance.
  • Monitor progress and understanding.
  • Transfer knowledge to unfamiliar situations.
  • Revise the learning approach when circumstances change.

In the AI age, this capability becomes especially important because people may encounter unfamiliar tools, tasks, and disciplines more frequently.

Instead of preparing once for a fixed professional role, learners may need to develop new capabilities repeatedly throughout their careers.

We can describe this shift as:

FROM LEARNING A SKILL

↓

TO LEARNING HOW TO BECOME SKILLED

7. An AI Prompt You Can Use Today

Try this prompt with a small project you have wanted to undertake but have postponed because you believe you lack the necessary skills.

AIYING META SKILLS PROMPT #001

I want to accomplish the following:

[Describe your desired outcome]

My current knowledge and experience are:

[Describe your starting point]

Act as my application-first learning coach.

  1. Help me define the smallest meaningful accomplishment.
  2. Identify the essential prerequisites and any safety or foundational knowledge I must acquire before starting.
  3. Break the accomplishment into five manageable steps.
  4. For each step, identify only the knowledge and skills needed at that stage.
  5. Explain unfamiliar concepts with simple examples.
  6. Give me a practical task before providing a complete solution.
  7. Ask me to explain what I have understood.
  8. Help me test the result and identify mistakes.
  9. At the end, summarize the skills I acquired and the gaps that remain.

Do not simply complete the task for me. Help me become capable of completing and explaining it.

8. A Five-Minute Meta Skill Experiment

You do not need to begin with a complex technical project.

Choose something small:

  • Create a personal expense tracker.
  • Build a simple web page.
  • Analyse a small dataset.
  • Prepare a presentation on an unfamiliar topic.
  • Automate one repetitive spreadsheet task.

Spend five minutes defining the accomplishment and asking AI for the first practical step.

Then complete that first step, which may take longer.

Record three observations:

  1. What did I discover that I needed to learn?
  2. What did I accomplish?
  3. What can I now do or explain without AI assistance?

The third question is especially important.

AI-assisted completion is not automatically evidence of learning.

The learner must demonstrate some increase in independent capability.

9. Judgment: When Application-First Learning Is Not Enough

A lateral provocation is useful because it opens possibilities, not because it must always be adopted literally.

Application-first learning works particularly well for exploratory projects, prototypes, familiar low-risk tasks, and situations where immediate feedback is available.

But there are important limits.

In medicine, aviation, electrical safety, cybersecurity, and other high-stakes fields, essential foundations and supervised training cannot simply be bypassed.

Even in software engineering, learners who rely entirely on AI-generated code without understanding its behavior may create unreliable or insecure systems.

The practical conclusion is therefore not:

"Never learn before applying."

It is:

"Do not assume that all learning must precede all application."

A more flexible learning model may alternate between preparation, application, reflection, and deeper study.

10. From Learning to Operacy

Edward de Bono introduced the concept of operacy to emphasize the capacity to make things happen through effective thinking and action.

In his work, thinking is not limited to analysis, criticism, or demonstrating that an answer is correct. It also involves designing possibilities, choosing courses of action, and accomplishing useful results.

This provides an important connection to our series.

Generative AI may help people access information and attempt tasks that previously required substantial preparation.

But the human challenge remains:

Can we define worthwhile outcomes, develop the necessary understanding, make sound judgments, and turn possibilities into responsible action?

Application-first learning can become one practical route toward developing that capacity.

11. The Meta Skill Advantage

Individual skills remain valuable. Deep expertise remains important. Foundational knowledge does not become irrelevant because AI can generate an answer.

What changes is the relationship between skills and the ability to acquire them.

Someone who knows one tool can perform tasks using that tool.

Someone who has learned how to learn can approach unfamiliar tools and develop new capabilities.

Someone who combines learning agility, lateral thinking, sound judgment, and AI assistance may be better equipped to move across changing professional situations.

This is the larger opportunity of meta skills.

THE META SKILL TAKEAWAY

Do not wait until you know everything before beginning something meaningful.

Begin with a suitable accomplishment. Discover what you need to know. Learn deliberately. Test your understanding. Improve through action.

The ultimate outcome is not merely completing the task. It is becoming more capable.

12. One Question to Carry Forward

Consider something you have been postponing because you believe you are not yet sufficiently prepared.

What is the smallest safe and meaningful part of it that you could begin today?

That question may reveal a new learning path.


Coming Next: Meta Skills #002

Thinking About Thinking: Who Is Managing Your Thinking When AI Does the Thinking?

When AI can generate explanations, recommendations, and solutions, an important human capability is knowing when to question, redirect, or change the thinking process itself.

The next episode explores metacognition, deliberate thinking, and the role of human direction in AI-assisted work.


About the Series

Meta Skills in the Age of AI & Lateral Thinking is an AIYING learning and thought-leadership series exploring the transferable human capabilities needed to learn, think, create, decide, and accomplish in an AI-enabled world.

The series draws inspiration from Edward de Bono's thinking methods and develops contemporary applications involving generative AI.

Original de Bono concepts and new AI-age interpretations are distinguished throughout the series.

AIYING
Think Differently. Accomplish More.

Conceptual References

  • Edward de Bono — Lateral Thinking: A Textbook of Creativity.
  • Edward de Bono — Serious Creativity.
  • Edward de Bono — De Bono's Thinking Course.
  • Edward de Bono — Po: Beyond Yes and No.

Editorial note: The application-first learning framework and its generative AI applications are contemporary interpretations developed for this series, not methods attributed directly to Edward de Bono.

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Learnability Is the New Mobility — What Happens When Anyone Can Start Learning Anything?

AIYING | LATERAL AI THINKING | PO SERIES

PO: Learnability Is the New Mobility

What Happens When Anyone Can Start Learning Anything?

Physical mobility changed where people could go. Could AI-enabled learnability change what people can become capable of doing?




1. The Provocation

For centuries, mobility has shaped human opportunity.

Where people lived influenced where they could work, study, trade, and build their futures.

Roads, railways, automobiles, and aviation expanded the geographical reach of opportunity.

More recently, ride-hailing platforms changed how people access transportation.

Now consider a different kind of mobility.

What if the next important frontier is not simply moving people between places, but helping people move between capabilities?

PO: Learnability Is the New Mobility.

What if the ability to acquire new capabilities became as accessible and convenient as requesting a ride?

This is a lateral thinking provocation, not a prediction that learning will become effortless or universally accessible.

Its purpose is to help us discover new ways to organise learning, work, and opportunity.

2. From Physical Mobility to Capability Mobility

Physical mobility helps people move between geographical locations.

Learnability helps people acquire new knowledge, skills, and capabilities.

The two are different, but the analogy reveals an interesting possibility.

Physical Mobility Capability Mobility
Current location Current capability
Desired destination Desired capability
Transport route Learning pathway
Navigation Learning guidance
Rerouting Adaptive learning
Arrival Demonstrated accomplishment
Mobility expands the places we can reach.
Learnability expands the capabilities we can develop.

This suggests a useful new concept: Capability Mobility.

Capability mobility is the practical ability to move from an existing set of knowledge and skills to a new, demonstrable set of capabilities.

It is not merely the ability to consume educational content.

It is the ability to develop and demonstrate something new.

3. The Hidden Assumption

Traditional education often assumes that learning should follow a predetermined sequence of subjects, lessons, and assessments.

The learner enters the educational system and follows the route designed by the institution.

This approach can provide important foundations, quality assurance, and recognised qualifications.

But must every learner follow the same route?

Must everyone begin at Chapter One?

Must application always come after extensive preparation?

Must the curriculum determine the destination, or could the destination help determine the curriculum?

These questions reveal the assumption we want to challenge.

Learning is often organised around the content to be delivered, rather than the capability the learner wants to develop.

4. The Lateral Thinking Movement

Edward de Bono's lateral thinking approach uses provocation and movement to explore possibilities beyond established patterns.

A PO statement is a deliberate provocation. It is not required to be true. Its value lies in the ideas generated by moving forward from it.

Our provocation is:

PO: Learnability Is the New Mobility.

Movement 1: Extract the Principle

Transportation systems increase access to places by reducing some barriers to physical movement.

Could GenAI-supported learning systems reduce some barriers to developing new capabilities?

For example, learners may receive on-demand explanations, examples, practice exercises, and feedback.

The principle is not effortless learning. It is more accessible learning support.

Movement 2: Focus on the Difference

A person can reach a physical destination without learning how to navigate.

But reaching a learning destination requires genuine change in the learner.

An AI-generated project is not proof that the learner has acquired the capability to create it independently.

Therefore, capability mobility must be measured through understanding, practice, independent performance, and transfer of learning.

Movement 3: Generate a Possibility

What if learning systems were organised around the movement of learners between capability states?

Instead of asking only which courses have been completed, we could ask:

  • What could the learner do before?
  • What can the learner do now?
  • What new problems can they solve?
  • How independently can they perform?
  • What destination could they pursue next?

This changes the focus from content consumption to capability development.

5. GenAI as a Capability Mobility Enabler

GenAI can potentially support capability mobility in several ways.

Personalised Starting Points

Different learners bring different knowledge, experience, and confidence.

An AI learning navigator can ask questions and suggest practical tasks to help identify a learner's current capability.

Destination-Driven Learning

Instead of beginning with a long list of topics, the learner defines a meaningful outcome.

For example:

I want to build a working AI assistant that can answer questions from documents.

The learning pathway can then be organised around the knowledge and skills required for that outcome.

Learning Through Application

GenAI can help learners attempt manageable tasks before they have mastered every underlying concept.

The attempt reveals knowledge gaps, which create reasons to learn.

Adaptive Guidance

If the learner struggles, the system can offer additional explanations, examples, and practice.

If the learner demonstrates understanding, the pathway can progress.

Continuous Capability Development

Learning does not have to end with graduation or certification.

Individuals can identify new destinations as their interests, careers, and technologies change.

6. Possibility One: From Educational Access to Capability Access

Access to educational content has expanded dramatically.

Books, videos, open courses, and online learning platforms make enormous amounts of information available.

But information availability does not automatically produce capability.

Learners still need motivation, practice, feedback, resources, and opportunities to apply what they have learned.

GenAI could help bridge some of these gaps.

The central question becomes:

How do we move from access to learning content toward access to meaningful capability development?

This is an important distinction.

The objective is not simply to make more information available.

It is to help more people turn information into usable capability.

7. Possibility Two: From Fixed Careers to Capability Mobility

Consider an accountant who wants to automate financial reporting.

Or a teacher who wants to design AI-supported learning activities.

Or a graduate who wants to become an AI application developer.

Each already possesses some relevant knowledge and experience.

They may not need to begin their education entirely from scratch.

An AI-guided learning journey could help identify transferable skills, knowledge gaps, and practical next steps.

The learner develops additional capabilities that may support new professional opportunities.

This suggests a shift:

Traditional Career Model

Qualification → Job → Experience

↓

Capability Mobility Model

Existing Capability → New Learning → Demonstrated Capability → New Opportunities

This does not mean qualifications become irrelevant.

Professional standards, credentials, and employer requirements will continue to matter.

But the ability to acquire and demonstrate new capabilities could become increasingly important alongside existing qualifications.

8. Possibility Three: From Skill Gaps to Capability Transitions

Technological change creates new demands for knowledge and skills.

Workers may discover that their existing capabilities no longer match emerging workplace requirements.

Traditional reskilling programmes can be expensive, time-consuming, or difficult to access.

Could GenAI help individuals identify adjacent capabilities and develop them through targeted learning journeys?

Imagine a professional who understands business processes but has limited programming experience.

With appropriate guidance, they might learn to prototype simple automations, evaluate AI-generated outputs, and work more effectively with technical teams.

The objective is not to replace professional education or experience.

It is to make capability transitions more practical and accessible.

Employment outcomes will still depend on economic demand, opportunity, credentials, and many other factors.

9. Possibility Four: Educational Institutions as Capability Mobility Platforms

Imagine a college where every student begins a learning journey with two questions:

Where are you now?

Where do you want to become capable of going?

The institution helps students define realistic destinations.

Teachers, mentors, courses, laboratories, projects, and AI guidance are combined into structured learning journeys.

Students receive appropriate foundational instruction and opportunities for application.

Their progress is assessed through evidence of understanding and independent accomplishment.

In this model, the educational institution does not disappear.

Its role may become even more important in designing meaningful learning experiences, ensuring quality, providing mentorship, and validating capability.

The institution evolves from primarily organising content toward also supporting capability mobility.

10. Learnability as a Service

The previous AIYING provocation, "Uber Gives Mobility. GenAI Gives Learnability," introduced the possibility of Learnability as a Service (LaaS).

LaaS can be understood as a proposed AI-supported model for helping individuals move from their current capabilities to desired capabilities.

A practical model could follow seven stages:

1. Locate
Establish the learner's current capability.

2. Specify
Define the desired capability and success criteria.

3. Navigate
Create a realistic learning pathway.

4. Activate
Begin with a meaningful application.

5. Support
Provide explanations, practice, and feedback.

6. Reroute
Adapt the pathway as learning progresses.

7. Validate
Demonstrate independent capability.

This framework is a design proposal. Its effectiveness would need to be tested in real learning environments.

11. The AIYING 30-Day Capability Mobility Experiment

Can we measure capability mobility?

Consider a simple 30-day experiment.

The learner chooses one meaningful capability destination.

For example:

Build a small AI-powered application that solves a real problem.

Day 1: Locate

Assess existing knowledge, skills, and experience.

Days 2–5: Activate

Attempt a simple working prototype with AI guidance.

Days 6–15: Learn and Improve

Identify knowledge gaps. Learn necessary concepts. Improve the application.

Days 16–25: Extend

Add functionality, test reliability, and solve increasingly difficult problems.

Days 26–30: Validate

Explain the application, troubleshoot failures, and complete a related task without relying on AI to supply every step.

The experiment should assess:

  • Practical task performance
  • Conceptual understanding
  • Independent problem-solving
  • Ability to explain decisions
  • Transfer of learning
  • Confidence grounded in demonstrated skill

The central question is:

How far can a learner move in capability within 30 days, and what evidence demonstrates that movement?

A short experiment cannot prove long-term learning effectiveness. Follow-up assessments would be needed to evaluate retention and transfer.

12. Access Is Not the Same as Accomplishment

There is an important danger in the learnability proposition.

GenAI can make it easier to produce sophisticated outputs.

But producing an output with AI does not necessarily mean the user has developed the underlying capability.

A student may generate code without understanding it.

A professional may produce a report without being able to evaluate its accuracy.

A learner may complete an exercise without being able to repeat the process independently.

Therefore, capability mobility must be judged by more than AI-assisted task completion.

It must include evidence that the learner has genuinely developed new abilities.

AI systems can also provide incorrect explanations, misleading feedback, or inappropriate learning routes.

Human oversight, reliable resources, and appropriate assessment remain essential.

13. The Economic Possibility

Physical mobility can expand access to employment, education, and markets.

Capability mobility could expand the range of opportunities individuals are prepared to pursue.

The implications may extend beyond education.

Organisations could support continuous workforce development.

Small businesses could help employees acquire new skills.

Professionals could adapt to changing technologies.

Graduates could develop portfolio evidence of practical capabilities.

But broader economic benefits would depend on equitable access, effective learning design, job availability, and recognition of acquired skills.

The promise is significant. The outcome is not automatic.

14. A New Measure of Educational Progress

Education often measures progress through attendance, course completion, examination scores, and qualifications.

These measures serve important purposes.

But what if we also measured capability movement?

Consider three questions:

  1. What could the learner do at the beginning?
  2. What can the learner do independently now?
  3. What new problems can the learner tackle?

This could provide an additional perspective on educational effectiveness.

Rather than focusing only on content covered, we would also examine capability developed.

15. The Next PO: Qualifications

The idea of capability mobility leads to another provocative question.

Qualifications typically represent knowledge and skills demonstrated at a particular point in time.

But technologies, professions, and workplace requirements change.

What if the ability to acquire new qualifications became an important qualification in its own right?

PO: Your Qualification Is Your Ability to Become Qualified Again.

Could future education assess not only what learners know today, but also their demonstrated ability to develop new capabilities tomorrow?

This is the next possibility worth exploring.

Final Thought

Mobility has helped people reach new places.

Learnability could help people develop the capabilities needed to pursue new opportunities.

GenAI introduces the possibility of making learning guidance, practice, and feedback more accessible.

But the real measure of success is not how much content AI generates.

It is how much independent human capability develops.

PO: Learnability Is the New Mobility.

Physical mobility changes where you can go.

Capability mobility changes what you can do.

GenAI could help make the journey between capabilities more accessible, personalised, and continuous.

AIYING | Choose Work That Matters

Join the Conversation

If you could begin developing any new capability today, what would you choose?

What is your current capability?

What is your desired destination?

And what is the first meaningful application you could attempt?

Share your thoughts.

Perhaps the future of learning begins not with a course catalogue, but with a destination.

AIYING | Lateral AI Thinking
Exploring the confluence of lateral thinking, generative AI, and human capability.

#LateralAI #POThinking #AIYING #GenAI #Learnability #CapabilityMobility #FutureOfLearning #AIFluency #EducationInnovation #LifelongLearning

PO: Uber Gives Mobility. GenAI Gives Learnability — The Rise of Learnability as a Service

AIYING | LATERAL AI THINKING | PO SERIES

PO: Uber Gives Mobility. GenAI Gives Learnability.

From Mobility as a Service to Learnability as a Service

What if GenAI's most important contribution to education is not generating answers, but making the ability to learn more accessible?


1. The Provocation

Uber did not invent transportation.

It changed how people access transportation.

You do not necessarily need to own a car, employ a driver, or know the roads to arrange a journey.

You specify your current location and destination. A ride-hailing service connects you with transportation.

Now consider GenAI.

GenAI did not invent learning.

But could it fundamentally change how people access the means to learn?

PO: Uber Gives Mobility.
GenAI Gives Learnability.

This is a deliberate lateral thinking provocation. It invites us to explore possibilities rather than claim that the analogy is literally or universally true.

2. Mobility and Learnability

Mobility is the ability to move from one place to another.

Learnability, in this discussion, means the practical ability to acquire and develop new knowledge, skills, and capabilities.

The two share an interesting structural similarity.

Uber GenAI Learning
Mobility Learnability
Pickup location Current capability
Destination Desired capability
Route planning Learning pathway
Navigation AI guidance
Rerouting Adaptive learning
Arrival Demonstrated accomplishment

Uber helps people move between physical locations.

GenAI can help people move between states of capability.

Mobility moves people between places.
Learnability moves people between capabilities.

3. The Hidden Assumption

Learning has traditionally been organised around institutions, courses, teachers, textbooks, and predefined curricula.

These remain valuable.

But an implicit assumption often persists:

To develop a capability, you must first enter a prescribed learning process.

The process may require completing lessons, following a syllabus, and passing assessments before applying the knowledge.

What if we reversed the starting point?

Instead of asking:

Which course should I study?

We ask:

What do I want to become capable of doing?

And then:

Where am I now? What is the next useful step? What must I learn to accomplish it?

4. The Lateral Thinking Movement

Edward de Bono's lateral thinking approach uses provocation and movement to escape established patterns and generate alternative possibilities.

Our PO statement is:

PO: GenAI gives learnability.

We can move from this provocation in several ways.

Movement 1: Extract the Principle

Uber separates access to transportation from the necessity of owning a vehicle.

Can GenAI help separate access to learning support from the necessity of enrolling in a complete formal course?

A learner may still need structured education, but could begin exploring a capability immediately.

Movement 2: Focus on the Difference

Transportation moves the passenger. Learning must transform the learner.

An Uber passenger can arrive without knowing the route. A learner cannot demonstrate competence merely because AI completed the task.

Therefore, an AI learning service must provide more than answers or finished outputs.

It must support practice, understanding, feedback, reflection, and independent performance.

Movement 3: Generate a New Possibility

What if learnability itself could be offered as an accessible, personalised service?

Not a catalogue of courses. Not merely a chatbot answering questions.

A system organised around helping people move from current capability to desired capability.

5. Learnability as a Service (LaaS)

We can call this emerging possibility:

Learnability as a Service

LaaS

An AI-supported learning model that helps individuals identify their current capabilities, define desired outcomes, follow adaptive learning pathways, practise relevant tasks, and demonstrate new capabilities.

This is a proposed conceptual model, not a claim that all existing GenAI tools already deliver a complete, validated learning service.

A useful LaaS system would include seven functions.

  1. Locate: Establish what the learner already knows and can independently do.
  2. Specify: Define the desired capability and observable evidence of success.
  3. Navigate: Recommend a realistic learning route.
  4. Activate: Begin with a meaningful, manageable application.
  5. Support: Provide explanations, practice opportunities, and feedback.
  6. Reroute: Adapt based on errors, progress, and changing requirements.
  7. Validate: Test whether the learner can demonstrate the capability independently.

The final function is essential.

Generating a successful answer is not the same as developing the capability to produce, evaluate, and improve that answer.

6. Apply Before Learn

This proposition connects to another AIYING lateral thinking provocation:

PO: Apply Before Learn.

The conventional sequence is:

Learn → Practise → Apply

The provocative alternative is:

Attempt → Discover → Learn → Improve → Accomplish

The learner attempts something useful.

The attempt reveals gaps.

Those gaps create questions.

Questions create a purpose for learning.

GenAI helps the learner investigate, practise, and improve.

In this model, learning is not eliminated. It is activated by the pursuit of a meaningful outcome.

7. Example: The Aspiring AI Engineer

Consider a graduate who wants to become an AI application developer.

Current Capability

I know basic computing. I have used ChatGPT. I have very little programming experience.

Desired Capability

I want to build an AI assistant that answers questions from documents, checks its responses, and can be demonstrated to an employer.

An AI learning navigator might begin with a small prototype rather than an extensive sequence of lectures.

The learner attempts the application with AI assistance.

During development, the learner encounters new concepts:

  • Python and APIs
  • Document processing
  • Chunking and embeddings
  • Retrieval-augmented generation
  • Evaluation and hallucination
  • Security and responsible AI
  • Testing and deployment

Each concept becomes meaningful because it contributes to the desired accomplishment.

The learning navigator helps determine which concepts require immediate attention and which can be studied later.

At the destination, the learner should be able to explain the application, troubleshoot failures, evaluate outputs, and complete a comparable task independently.

The objective is capability, not merely an AI-generated project.

8. What Could Change in Education?

If learnability becomes more accessible through GenAI, educational institutions could experiment with new models.

From Courses to Capability Journeys

Courses remain useful, but learners may also follow pathways organised around specific accomplishments.

From Standard Routes to Adaptive Routes

Learners with different starting capabilities may receive different sequences of tasks, explanations, and practice.

From Content Completion to Capability Evidence

Progress could be measured not only by lessons completed but by what learners can independently demonstrate.

From One-Time Education to Continuous Learnability

Professionals could repeatedly define new destinations as technologies, jobs, and workplace requirements change.

From AI Answering to AI Guiding

AI systems could be designed to ask questions, identify misconceptions, recommend exercises, and encourage independent reasoning, rather than immediately completing every task.

9. A Necessary Caution

The analogy is powerful, but it has limits.

Uber provides a transportation service. It does not necessarily develop the passenger's ability to drive.

GenAI, by contrast, must help develop the learner's own capability.

If learners become dependent on AI for every decision, explanation, and action, the system may increase task completion without increasing learnability.

Therefore, a credible LaaS model must include independent practice, assessment, feedback quality, and safeguards against incorrect or misleading AI guidance.

Some disciplines also require formal instruction, supervised experience, professional accreditation, and rigorous foundational preparation.

Learnability as a Service should complement these requirements rather than bypass them.

10. An AIYING Experiment

Can we test the idea?

Consider a small experiment with learners who have comparable starting skills.

Give both groups the same capability goal.

One group follows a conventional content-first pathway.

The other uses an AI-guided, application-first pathway.

Compare:

  • Time to first useful application
  • Conceptual understanding
  • Ability to work independently
  • Retention after several weeks
  • Ability to transfer skills to new problems
  • Confidence and motivation

The results may reveal where destination-driven learning works well, where it needs additional structure, and where traditional instruction remains essential.

That would move the provocation from an interesting idea toward an evidence-informed educational practice.

11. Try Learnability as a Service

Here is a practical prompt you can use with a GenAI assistant.

MY LEARNABILITY NAVIGATOR

Act as my AI Learning Navigator.

Treat my learning journey like an Uber ride, but remember that your goal is to help me develop independent capability.

Pickup location:
[What I currently know and can do]

Destination:
[What I want to become capable of doing]

Constraints:
[Time, tools, resources, and deadlines]

Please:

  1. Assess my starting capability.
  2. Clarify my desired outcome.
  3. Define measurable arrival criteria.
  4. Recommend a practical route.
  5. Start with one small application.
  6. Explain concepts when they become necessary.
  7. Review my attempts and identify mistakes.
  8. Adapt the route as I progress.
  9. Test my independent capability.
  10. Recommend the next destination.

Do not simply complete tasks for me. Help me become capable of completing and evaluating them myself.

12. The Larger Possibility

Mobility changed how people access places.

Could learnability change how people access opportunities?

A graduate seeking employment, an employee adapting to new technology, an entrepreneur developing a product, or a teacher exploring new methods may all have different learning destinations.

GenAI could help each person discover a practical route from their current capability to a desired outcome.

This leads to a larger proposition:

The next important innovation in AI education may not be more content generation. It may be better capability navigation.

The challenge is to design systems that make people more capable, not merely more dependent on AI assistance.

13. The Next PO

The idea of Learnability as a Service opens another provocative possibility.

PO: The learner owns the destination. The curriculum follows.

What if the learner's desired accomplishment became the organising principle, and the curriculum became a dynamically constructed route?

What would happen to course design, assessment, teaching, certification, and lifelong learning?

These questions deserve exploration.

Final Thought

Uber gives people access to mobility.

GenAI offers the possibility of making learnability more accessible.

The distinction matters.

The goal is not simply to transport a learner to an answer.

The goal is to develop the learner's ability to reach new destinations with increasing independence.

PO: Uber Gives Mobility.
GenAI Gives Learnability.

Mobility moves people between places.
Learnability moves people between capabilities.

Tell GenAI where you are.
Tell it where you want to go.
Begin with application.
Learn along the way.
Demonstrate your accomplishment.

AIYING | Choose Work That Matters

Join the Conversation

If GenAI could help you navigate one learning journey today, what would your destination be?

Would you choose a new technical skill, a professional capability, or something you have always wanted to create?

Share your pickup location and destination.

Perhaps the future of learning begins with those two simple questions.

AIYING | Lateral AI Thinking
Exploring the confluence of lateral thinking, generative AI, and human capability.

#LateralAI #POThinking #AIYING #GenAI #Learnability #AIFluency #FutureOfLearning #EducationInnovation #LifelongLearning

PO: GenAI Is the Uber of Learning — From Current Capability to Accomplishment

AIYING | LATERAL AI THINKING | PO SERIES

PO: GenAI Is the Uber of Learning

Tell It Where You Are. Tell It Where You Want to Go.

What if learning began not with a syllabus, but with a pickup location and a destination?




1. The Provocation

Imagine opening Uber.

Before booking your ride, does Uber ask you to study the road network? Does it insist that you learn traffic rules, understand every junction, memorise alternative routes, and pass an examination in navigation?

No.

It asks two simple questions:

Where are you now?

Where do you want to go?

The system identifies a route, estimates the journey, and helps you reach your destination.

Now apply this idea to learning.

PO: Treat GenAI like Uber for learning.

Tell GenAI your current location in learning. Tell it your desired destination in capability. Let it help you discover and navigate the route.

2. The Hidden Assumption in Education

Traditional education commonly follows a predefined sequence:

Syllabus → Lessons → Practice → Examination → Application

The assumption is that learners must first acquire a body of knowledge before they can meaningfully apply it.

This approach has strengths. Foundational knowledge matters. Some subjects require careful sequencing, supervision, and extensive practice.

But does every learner need the same route? Must every learner begin at Chapter One? Must application always come last?

These are the assumptions worth challenging.

3. The PO Movement: From Curriculum to Navigation

Edward de Bono's lateral thinking approach uses provocation to move beyond established patterns of thinking. A PO statement is not a factual claim that must be defended. It is a deliberate stepping stone toward new possibilities.

Our provocation is:

PO: Learning is a journey booked by the learner, not a route prescribed entirely in advance.

The movement from this provocation produces an interesting idea:

Instead of organising learning primarily around content to be covered, organise it around capability to be achieved.

The syllabus becomes a flexible route rather than the starting point of every learning experience.

4. The Uber Model of AI Learning

Consider seven components of a learning journey.

📍 Pickup Location — Current State

What does the learner already know? What can they actually do? What tools and experience do they possess?

🏁 Destination — Desired Capability

What does the learner want to accomplish? Not merely what topic they want to study, but what they want to become capable of doing.

🗺️ Route — Personalised Learning Path

GenAI proposes a practical sequence of tasks, concepts, resources, and milestones appropriate to the learner's starting point.

🚀 Pickup — Begin with Application

The learner starts with a manageable real task. Learning begins through attempting something useful.

🔄 Navigation — Guidance and Feedback

GenAI explains concepts, answers questions, reviews attempts, and helps identify mistakes.

↪️ Rerouting — Adapt to Progress

If the learner struggles, the route changes. If the learner progresses quickly, unnecessary repetition can be reduced.

✅ Arrival — Demonstrated Accomplishment

The journey is complete only when the learner demonstrates the intended capability.

5. A Real Example: Becoming an AI Engineer

Consider a graduate who wants to enter AI engineering.

Pickup location:

I understand basic computing. I have used ChatGPT. I have very limited Python knowledge. I have never built an AI application.

Destination:

I want to build a working AI assistant that answers questions from documents, evaluates its answers, and can be demonstrated to an employer.

A conventional route might begin with a lengthy sequence of programming, mathematics, machine learning, and software engineering lessons.

The destination-driven approach begins differently.

  1. Attempt a simple document-question-answering prototype.
  2. Use GenAI to understand the generated code.
  3. Discover why document extraction and chunking matter.
  4. Learn about embeddings and retrieval when the application needs them.
  5. Introduce evaluation to check answer quality.
  6. Improve reliability, security, and user experience.
  7. Demonstrate and explain the completed application.

The learner does not avoid foundational concepts. The learner encounters them in the context of a meaningful destination.

The result is not guaranteed to be the shortest path for every learner. It is a route that can make learning more purposeful and responsive.

6. Apply Before Learn

This model connects directly to another lateral thinking provocation:

PO: Apply Before Learn.

The conventional sequence is:

Learn → Understand → Practise → Apply

The provocative alternative is:

Attempt → Discover Gaps → Learn → Improve → Apply Again

Here, application is not simply the final reward for completing a curriculum.

Application becomes a mechanism for discovering what needs to be learned.

GenAI can help by reducing some of the initial barriers to experimentation, providing explanations, and suggesting manageable next steps.

7. The Learner Is Not a Passive Passenger

Every analogy has limitations.

In an Uber ride, a passenger can reach the destination without understanding the journey.

Learning is different.

A learner cannot claim competence simply because an AI system produced a successful result.

The learner must understand, practise, evaluate, make decisions, and eventually perform independently.

Therefore, the analogy needs one important refinement:

GenAI navigates the learning journey. The learner must develop the capability to drive independently.

For professional, technical, medical, and other high-stakes capabilities, appropriate foundational preparation, qualified supervision, and independent assessment remain essential.

8. From Learning Management to Learning Navigation

Consider the implications for educational institutions.

Learning Management Systems traditionally help organise courses, distribute content, manage activities, and record assessment.

What if an AI-enabled learning environment added a navigation layer?

A student could declare:

Here is what I can do today. Here is what I want to accomplish. Here is how much time I have. Help me reach that capability.

The system could then recommend a route, provide practical assignments, diagnose gaps, and adjust the sequence using evidence of progress.

Teachers would remain important as mentors, designers of meaningful challenges, assessors of competence, and guides for responsible practice.

This suggests a possible evolution:

Learning Management → Learning Navigation

It is a design proposition, not a claim that existing AI systems can already perform every aspect reliably or autonomously.

9. Try It: Book Your First Learning Ride

Here is a reusable prompt for students, professionals, and lifelong learners.

AI LEARNING NAVIGATOR PROMPT

Act as my personal AI Learning Navigator. Treat my learning journey like booking an Uber ride.

My pickup location:
[What I know and can currently do]

My destination:
[The specific capability I want to demonstrate]

My constraints:
[Time, resources, experience, tools, and deadlines]

Your responsibilities:

  1. Verify my current capability through practical questions.
  2. Define clear evidence of successful arrival.
  3. Propose a realistic learning route.
  4. Begin with a small, meaningful application.
  5. Teach the necessary concepts along the way.
  6. Give me one actionable step at a time.
  7. Review my work and identify gaps.
  8. Reroute when needed.
  9. Test my independent capability before declaring arrival.

Start by asking for my pickup location and destination.

10. The AIYING Learning Experiment

This idea can be tested through a simple experiment.

Select two groups of learners with comparable starting capabilities and the same destination.

One group follows a structured, content-first learning path.

The other follows a destination-driven, AI-guided application-first path.

Compare their outcomes using:

  • Time to first working application.
  • Conceptual understanding.
  • Independent task performance.
  • Ability to explain and troubleshoot the solution.
  • Retention after several weeks.
  • Ability to transfer learning to a new problem.

The important question is not whether one group produces an impressive AI-generated output faster.

It is whether the learners develop genuine, transferable capability.

11. The Larger Possibility

If learning can be organised around pickup locations and destinations, several new possibilities emerge.

A college student may begin with a career destination. An employee may begin with a workplace challenge. A teacher may begin with a classroom improvement goal. An entrepreneur may begin with a business problem.

Their routes will differ because their starting points and desired outcomes differ.

GenAI could become a flexible navigation layer connecting current capability to desired capability.

This changes the central question from:

What course should I study?

To:

What do I want to become capable of doing, and what is my next useful step?

12. A New Provocation

The Uber analogy leads to a further challenge.

If GenAI can help create a personalised route, perhaps the curriculum need not always be fixed before the learner begins.

Perhaps it can emerge, within appropriate educational standards and safeguards, from the learner's destination, progress, and demonstrated needs.

PO: The curriculum is not the road. The curriculum is the route.

And that route can change as learning progresses.

13. From Awareness to Accomplishment

The AIYING approach to AI fluency emphasises moving beyond awareness toward meaningful application and accomplishment.

The learning navigator idea provides a practical way to think about that journey:

Know Your Starting Point

↓

Choose Your Destination

↓

Attempt Something Useful

↓

Learn, Practise, and Reroute

↓

Demonstrate Accomplishment

The ultimate objective is not simply to consume more learning content.

It is to become capable of doing something that matters.

Final Thought

For generations, learners have been told:

First complete the course. Then apply what you learned.

The GenAI age invites us to explore a different possibility:

Tell me where you are. Tell me where you want to go. Let us begin the journey through application.

The route can be discovered, tested, and improved along the way.

PO: GenAI Is the Uber of Learning.

Your current capability is the pickup location. Your desired capability is the destination. Application starts the journey. Learning happens along the way. Accomplishment confirms arrival.

AIYING | Choose Work That Matters

Join the Conversation

If you could book a learning journey today, what would be your pickup location and destination?

Share them in the comments. Perhaps your next learning experience should begin with that simple declaration.

AIYING — Lateral AI Thinking
Exploring the confluence of Edward de Bono's lateral thinking and the possibilities of generative AI.

#LateralAI #POThinking #AIYING #GenAI #AIFluency #FutureOfLearning #LearningInnovation #AIEngineering #PersonalizedLearning

PO: Every Problem Is an Employer — Let Problems Recruit AI-Generated Possibilities

LATERAL AI | PO THINKING | AIYING | #004

PO: Every Problem Is an Employer

From Generating More Ideas to Recruiting the Right Possibilities

What if problems could recruit ideas instead of waiting for people to discover solutions?

By Ravindra Dastikop | AIYING



1. The Provocation: Every Problem Is an Employer

Organizations are surrounded by problems.

Some are visible: rising costs, dissatisfied customers, delayed projects, and declining productivity.

Others remain hidden in routine work, outdated assumptions, and processes that nobody has questioned for years.

Meanwhile, Generative AI makes it increasingly easy to generate candidate ideas.

Yet having more ideas does not automatically mean solving more problems.

What if we reverse the familiar relationship?

Instead of people continually generating ideas and then searching for applications, imagine that problems themselves could recruit the ideas they need.

PO: Every Problem Is an Employer.

A problem cannot literally employ anyone.

It cannot advertise a vacancy, conduct interviews, or offer a salary.

That deliberate impossibility is the starting point of the provocation.

Rather than rejecting the statement as absurd, we use it to move toward new possibilities.

What would an organization look like if its problems actively recruited solutions?

2. The Fourth Step in the Lateral AI Series

This proposition follows three earlier provocations.

PO #001: GenAI Is Data-Borne

Data becomes a foundation from which AI systems can generate new possibilities.

PO #002: GenAI Generates a Possibility Dividend

The growing supply of candidate ideas creates potential value, but realizing that value requires productive opportunities.

PO #003: Ideas Need Employment

Ideas need meaningful problems, human sponsors, experiments, and opportunities to contribute.

PO #004: Every Problem Is an Employer

Now the perspective changes.

Instead of asking how to find work for ideas, we ask how problems can attract, select, and test ideas.

DATA-BORNE
Where possibilities originate

↓

POSSIBILITY DIVIDEND
Why possibilities matter

↓

IDEAS NEED EMPLOYMENT
How possibilities find productive work

↓

EVERY PROBLEM IS AN EMPLOYER
How problems recruit possibilities

Together, these provocations suggest a broader innovation architecture connecting data, possibilities, problems, experiments, and accomplishment.

3. The Hidden Assumption: Innovation Begins with Ideas

Many innovation programmes begin by inviting people to submit ideas.

Organizations run brainstorming sessions, hackathons, innovation competitions, and suggestion campaigns.

The resulting ideas are collected, evaluated, and sometimes implemented.

These activities can be valuable.

But they often assume that the most important starting point is idea generation.

Innovation begins when people generate ideas.

What if we challenge that assumption?

What if innovation begins when an organization makes its unsolved problems visible, specific, and available for exploration?

Instead of asking employees to contribute more ideas, it could invite them to help solve carefully described problems.

Instead of maintaining only an idea repository, it could maintain a living inventory of problems seeking solutions.

The shift is from a supply-led model of innovation toward a problem-led model.

4. Authentic Lateral Thinking: Provocation and Movement

Edward de Bono's lateral thinking uses deliberate provocation to escape established patterns of thinking.

A PO statement is not a claim that must be proved true.

Its purpose is to create movement toward possibilities that conventional reasoning might overlook.

Let us apply that approach.

PO: Every Problem Is an Employer.

Movement 1: Problems Advertise Vacancies

Employers advertise positions when they need work performed.

What if organizations advertised unsolved problems in the same way?

A problem vacancy might describe:

  • The problem and its context
  • The outcome required
  • The constraints that must be respected
  • The people affected
  • The evidence needed to demonstrate improvement

Emerging possibility: A Problem Vacancy Board.

Movement 2: Problems Write Job Descriptions

A job description explains what a successful candidate must accomplish.

What if every important problem had an equivalent description?

For example, instead of stating:

We need innovative customer service ideas.

The organization could state:

We need to reduce repeated customer contacts without compromising service quality, privacy, or customer satisfaction.

The second statement creates a more useful opportunity for candidate ideas.

Emerging possibility: A Problem Job Description.

Movement 3: Problems Interview Ideas

Employers interview candidates to evaluate their suitability.

What if problems interviewed ideas?

A candidate idea would be asked:

  • Which part of this problem can you address?
  • What assumptions must hold for you to work?
  • What resources do you require?
  • What risks might you introduce?
  • How could your contribution be tested?

Emerging possibility: An Idea–Problem Fit Interview.

Movement 4: Problems Offer Probation

Employment sometimes begins with a probationary period.

What if ideas were offered limited trials before full adoption?

An idea could receive a small experiment, prototype, simulation, or controlled pilot.

Its suitability would be judged using evidence.

Emerging possibility: A Solution Probation Programme.

Movement 5: Problems Recruit Across Boundaries

Employers may recruit people from different industries and disciplines.

What if problems could recruit ideas from unrelated fields?

A hospital scheduling problem might learn from airline operations.

A software reliability problem might learn from manufacturing quality control.

A classroom engagement problem might learn from game design.

These are analogies to explore, not ready-made solutions.

Emerging possibility: A Cross-Domain Idea Recruitment System.

The Discovery

The provocation has moved us from a conventional brainstorming exercise toward a different organizational mechanism.

What if organizations created recruitment platforms where problems attract ideas?

5. The Problem Recruitment Platform

A Problem Recruitment Platform is a proposed system that connects well-defined problems with candidate ideas, relevant expertise, responsible sponsors, and structured experiments.

The name is a deliberate extension of the employment metaphor.

It is not presented here as an established industry standard or a proven product category.

The platform would organize innovation around the demand for solutions.

How It Could Work

  1. Publish the Problem
    A team describes an unsolved problem and the outcome it needs.
  2. Define the Vacancy
    The team specifies constraints, available evidence, resources, and success criteria.
  3. Recruit Candidate Ideas
    Employees, experts, and GenAI-assisted workflows propose alternative approaches.
  4. Interview the Candidates
    Human reviewers assess relevance, feasibility, novelty, risk, and expected value.
  5. Offer a Trial Assignment
    Promising ideas receive small, controlled experiments.
  6. Hire, Adapt, or Reject
    The team adopts validated ideas, modifies promising candidates, or discontinues unsuitable approaches.

PROBLEM VACANCY

↓

CANDIDATE IDEAS

↓

IDEA–PROBLEM MATCHING

↓

HUMAN EVALUATION

↓

CONTROLLED EXPERIMENT

↓

VALIDATED ACCOMPLISHMENT

The important change is not merely using AI to produce more suggestions.

It is creating a disciplined mechanism through which real problems can discover and test useful possibilities.

6. The Problem Vacancy: A New Unit of Innovation

An organization might describe a vacancy for an employee using a job description.

A Problem Recruitment Platform could describe an innovation opportunity using a Problem Vacancy Card.

Problem Vacancy Card

Problem ID: PR-001

Problem Title: Reduce Repeated Customer Contacts

Problem Owner: Customer Service Manager

Current Situation: Customers frequently contact support more than once for the same issue.

Desired Outcome: Reduce avoidable repeat contacts while maintaining service quality.

Constraints: Privacy, accessibility, accuracy, cost, and customer satisfaction.

Evidence Available: Appropriately anonymized service records and customer feedback.

Candidate Ideas Wanted: Workflow improvements, communication changes, self-service tools, and process redesign.

Trial Opportunity: Limited pilot involving a suitable customer segment.

Success Measures: Repeat contact rate, resolution quality, satisfaction, and cost.

The card does not prescribe a solution.

It creates a meaningful opportunity for different kinds of ideas to compete and collaborate.

That distinction matters.

A problem described too narrowly may recruit only familiar solutions.

A problem described too vaguely may attract suggestions that cannot be tested.

The quality of the problem description influences the quality and diversity of the possibilities explored.

7. The AI Engineering Example: Recruiting Ideas to Reduce Inference Cost

Consider an AI engineering team operating an application that uses a large language model.

The team faces increasing inference costs.

A conventional approach might be to ask:

How can we reduce LLM inference costs?

GenAI could generate a list of suggestions.

But the Problem Recruitment approach begins with a vacancy.

Problem Vacancy: AI Inference Cost Reduction

Recruit ideas that can reduce cost per successful request while maintaining acceptable response quality, latency, privacy, reliability, and user experience.

Candidate Ideas

  • Cache suitable repeated responses
  • Route simpler requests to smaller models
  • Reduce unnecessary prompt context
  • Batch compatible requests where latency permits
  • Eliminate redundant model calls
  • Use deterministic software for tasks that do not require an LLM

Each candidate has a different profile.

Caching may be unsuitable for highly personalized or rapidly changing information.

Model routing requires quality evaluation across request types.

Prompt reduction may remove useful context.

Batching can affect latency.

Replacing model calls with deterministic logic may work well for some tasks but not others.

The Interview

The team evaluates each candidate against:

  • Cost per successful task
  • Task quality
  • Response latency
  • Operational complexity
  • Security and privacy
  • Reliability under realistic workloads

The Probation

The strongest candidates receive controlled experiments using representative workloads and agreed evaluation criteria.

The team measures whether savings are real and whether unacceptable regressions occur.

The Accomplishment

Only validated improvements are adopted.

The outcome is not a longer list of optimization ideas.

It is an evidence-based engineering improvement.

PO: The inference cost problem has recruited its own solutions.

8. The Surprising Possibility: Problems as AI Agents

The metaphor suggests a more experimental possibility.

What if a problem were represented by a software agent?

Such an agent would not literally possess intentions or independent organizational authority.

It would be a software workflow acting on a problem definition supplied and governed by people.

A Problem Agent might:

  • Maintain a structured description of an unsolved problem
  • Identify missing information and assumptions
  • Search approved knowledge sources for relevant approaches
  • Generate candidate ideas with an AI model
  • Suggest cross-domain analogies
  • Compare ideas against predefined constraints
  • Prepare experiment proposals for human review
  • Track evidence from approved experiments

The agent could support problem owners, but should not independently authorize consequential deployments or bypass required oversight.

The architecture might include a problem registry, a retrieval system, a candidate generation workflow, an evaluation component, and a human approval process.

PROBLEM AGENT

Under human-defined goals and controls

↓

SEARCH + GENERATE + COMPARE

↓

HUMAN REVIEW

↓

APPROVED EXPERIMENT

↓

MEASURED OUTCOME

This is a design possibility to explore, not evidence that autonomous problem-solving agents are universally effective.

The real value would depend on data quality, evaluation methods, system reliability, costs, and human accountability.

9. The Role of Lateral Thinking in Recruitment

A recruitment platform could easily become a system that matches problems only with familiar solutions.

That would improve organization but might not produce much creative movement.

Lateral thinking introduces a different capability.

It challenges the assumptions defining the vacancy itself.

Example: A Hospital Waiting-Time Problem

A conventional problem statement might be:

How can we reduce waiting time?

A typical solution search may focus on staffing, scheduling, and queue management.

Now introduce a provocation:

PO: The Patient Never Waits.

This is not a claim that waiting can literally be eliminated.

We use it to explore movement.

What if the patient's experience began before arrival?

What if certain administrative steps were completed in advance?

What if waiting became predictable rather than uncertain?

What if some visits could be handled through appropriate remote services?

What if the organization measured unnecessary waiting separately from clinically necessary time?

These possibilities would require clinical, operational, accessibility, and safety review.

The key point is that the provocation changes which kinds of ideas the problem can recruit.

The recruitment platform supplies structure.

Lateral thinking expands the range of candidates.

10. Five Applications Beyond AI Engineering

Application 1: Education

A college publishes a problem vacancy:

Improve students' ability to apply AI engineering concepts in practical projects.

Candidate ideas may include peer learning, guided labs, case studies, short project challenges, or industry mentoring.

Faculty and students test promising approaches and assess actual learning outcomes.

Application 2: Manufacturing

A production team publishes a vacancy for ideas that can reduce avoidable equipment downtime.

AI-assisted exploration may suggest maintenance scheduling improvements, better monitoring, or workflow changes.

Engineers evaluate technical feasibility and safety before controlled trials.

Application 3: Customer Experience

A company publishes customer problems instead of broad calls for innovative ideas.

Teams propose approaches targeted at specific customer frustrations.

The strongest candidates are tested against customer outcomes.

Application 4: Public Services

A public service organization describes a problem such as reducing avoidable delays in processing applications.

Candidate ideas might involve clearer instructions, better workflow design, or appropriate digital assistance.

Any implementation would need to respect accessibility, fairness, privacy, and applicable public-sector requirements.

Application 5: Entrepreneurship

An entrepreneur begins with a portfolio of validated customer problems rather than a portfolio of product ideas.

AI helps generate alternative approaches to each problem.

Customer research and small experiments determine which possibilities merit further investment.

The emphasis moves from enthusiasm for a concept toward evidence of a problem worth solving.

11. The Lateral AI Framework: FOCUS to ACCOMPLISH

The established AIYING six-stage framework can be adapted to Problem Recruitment.

FOCUS — Publish the Vacancy

Identify a meaningful problem, its context, and the outcome required.

PROVOKE — Challenge the Vacancy

Identify assumptions that restrict how the problem is understood.

Introduce a deliberate PO statement.

MOVE — Discover Unexpected Qualifications

Explore what the provocation suggests about alternative approaches.

Look for new principles, differences, and possible applications.

GENERATE — Recruit Candidate Ideas

Use GenAI and human expertise to produce genuinely different approaches.

JUDGE — Interview for Fit

Evaluate candidates against evidence, constraints, feasibility, risk, and expected value.

ACCOMPLISH — Offer a Trial and Measure Results

Assign a responsible owner, run an appropriate experiment, and decide whether to adopt, adapt, or reject the candidate.

FOCUS → PROVOKE → MOVE → GENERATE → JUDGE → ACCOMPLISH

The framework ensures that the provocation is not reduced to an unusual slogan.

It becomes a method for discovering and testing new possibilities.

12. Reusable GenAI Prompt: The Problem Recruitment Officer

Use the following prompt to explore a real organizational challenge.

Prompt: Act as a Problem Recruitment Officer

You are an innovation facilitator combining Edward de Bono's lateral thinking principles with Generative AI.

Treat the following problem metaphorically as an employer recruiting ideas.

Problem: [Describe the problem]

Context: [Describe the organization or situation]

Desired outcome: [Define the improvement needed]

Constraints: [List cost, safety, time, quality, privacy, or other constraints]

Follow this process:

  1. Create a clear Problem Vacancy Card describing the problem, expected outcome, constraints, owner, and success measures.
  2. Identify five assumptions that may be limiting how the problem is understood.
  3. Generate three deliberate PO provocations that challenge those assumptions.
  4. Demonstrate movement from each provocation. Do not merely explain why it is unusual.
  5. Recruit ten genuinely different candidate ideas, including at least three cross-domain approaches.
  6. Conduct an Idea–Problem Fit Interview for each promising candidate.
  7. Select three candidates for small, low-risk experiments.
  8. Define the evidence required to judge each experiment.
  9. Identify the human sponsor, risks, dependencies, and implementation requirements.
  10. Recommend whether each candidate should be adopted, adapted, tested further, or rejected, based on available evidence.

Distinguish facts from assumptions. Do not fabricate evidence or claim that proposed experiments have already succeeded. Seek human approval before consequential action.

13. Student Project: Build a Problem Recruitment Platform

This provocation can become a practical AI engineering project for students and early-career developers.

Project Title

Problem Recruitment Platform — An AI-Assisted Innovation Matching System

Project Objective

Build a prototype that allows users to publish problems, generate candidate ideas, evaluate matches, and prepare small experiments.

Suggested Minimum Features

  1. Problem Registry: Store problem descriptions, context, constraints, and desired outcomes.
  2. Problem Clarifier: Use GenAI to suggest questions that make a problem more precise.
  3. PO Generator: Generate deliberate provocations for exploring hidden assumptions.
  4. Movement Explorer: Help users derive alternative directions from provocations.
  5. Candidate Recruiter: Generate or retrieve possible approaches.
  6. Fit Evaluator: Compare candidates against defined criteria.
  7. Experiment Planner: Create small, reviewable test plans.
  8. Outcome Tracker: Record human-reviewed results and decisions.

Possible Technical Architecture

USER INTERFACE

↓

PROBLEM REGISTRY

↓

LLM-ASSISTED CLARIFICATION AND IDEATION

↓

OPTIONAL RETRIEVAL / SEMANTIC SEARCH

↓

CANDIDATE EVALUATION WORKFLOW

↓

HUMAN REVIEW

↓

EXPERIMENT AND OUTCOME TRACKER

A student prototype could use Python, a lightweight web interface, a relational database, and an LLM API.

Embeddings and vector search could be added when there is a meaningful collection of existing ideas or problem descriptions to retrieve.

A multi-agent architecture is optional, not a prerequisite.

Evaluation Criteria

  • Clarity of problem descriptions
  • Relevance of candidate ideas
  • Diversity of generated alternatives
  • Quality of the proposed experiments
  • Traceability from problem to recommendation
  • Human oversight and error handling
  • Usefulness compared with a simple brainstorming baseline

The project succeeds if it helps users move from vague problems to clearer, testable solution candidates.

It does not need to demonstrate autonomous innovation.

14. Measuring the Effectiveness of Problem Recruitment

An organization should not measure success simply by the number of problems posted or ideas generated.

More useful measures may include:

Measure Purpose
Problem clarity Whether vacancies specify meaningful outcomes and constraints
Candidate relevance Whether proposed ideas address the actual problem
Idea diversity Whether candidates represent substantively different approaches
Time to experiment How quickly promising ideas receive appropriate testing
Validated adoption Whether experiments lead to evidence-supported improvements
Net value realized Benefits after accounting for relevant costs and risks

These are proposed evaluation dimensions rather than established benchmarks.

The most important question is whether the approach produces better decisions and outcomes than the organization's existing innovation process.

15. Risks and Limitations

Poorly Defined Problems

A vague or misleading problem description may attract irrelevant solutions.

Premature Solution Bias

A vacancy may unintentionally prescribe a favored solution before alternatives are explored.

AI Hallucinations

GenAI may generate plausible but incorrect claims about feasibility, evidence, or expected benefits.

False Diversity

A long list of candidate ideas may contain only superficial variations of the same approach.

Evaluation Bias

Human and automated reviewers may favor familiar ideas and overlook unconventional candidates.

Implementation Risk

Promising ideas may fail when deployed in real environments.

Privacy, Security, and Accountability

Problem descriptions may contain sensitive business, personal, or operational information.

Appropriate access controls, data handling, review, and accountability are essential.

The recruitment metaphor should never imply that an AI system has independent authority to make consequential organizational decisions.

16. Five Questions for Executive Leadership

  1. Do we know which problems most urgently need solutions?

    Is there a visible, prioritized inventory of meaningful unsolved problems?

  2. Are our innovation programmes driven by problems or by idea volume?

    Do we reward the generation of suggestions or the resolution of valuable challenges?

  3. Can problems recruit ideas across organizational boundaries?

    Are teams able to discover relevant approaches outside their own departments?

  4. Can GenAI help us discover unexpected matches?

    Are we using AI only to brainstorm, or also to connect problems with diverse candidate solutions?

  5. Do we provide opportunities for responsible experimentation?

    Can promising ideas move quickly into small, measurable, human-supervised tests?

17. The New Human Work: Becoming a Problem Recruiter

The growing capability of GenAI changes the economics of generating candidate ideas.

But valuable innovation still requires people who can recognize meaningful problems.

It requires people who can frame challenges without prematurely narrowing the solution space.

It requires people who can recognize unconventional possibilities, evaluate evidence, manage risks, and coordinate implementation.

The Problem Recruitment metaphor suggests a useful description of emerging human work:

The human role is not only to generate ideas, but to create the conditions in which the right ideas can solve the right problems.

This does not eliminate the importance of human creativity.

It expands the range of activities through which creativity creates value.

Problem discovery, problem framing, lateral exploration, judgment, and accomplishment become central capabilities.

18. The Next Provocation Emerges

The recruitment metaphor leads to another unexpected question.

If problems are employers, what happens when a problem cannot find a suitable idea?

An employer might change the job description.

It might develop candidates.

It might redesign the work.

Or it might discover that the position itself is unnecessary.

This leads to a new provocation:

PO: Problems Need Career Counselling.

What if some problems are difficult to solve because they are framed incorrectly?

What if the most useful intervention is not a better solution, but a better understanding of the problem?

That possibility opens the next stage of lateral exploration.

19. Conclusion: Let Problems Recruit Possibilities

Generative AI has expanded our ability to generate candidate solutions.

But idea abundance does not automatically create innovation.

Organizations still need mechanisms that connect possibilities with meaningful problems.

The provocation PO: Every Problem Is an Employer invites us to reverse the conventional innovation process.

Instead of starting only with idea generation, we can make unsolved problems visible, define their needs, recruit diverse approaches, and evaluate candidates through responsible experimentation.

The proposed Problem Recruitment Platform offers one way to explore that shift.

PO: Every Problem Is an Employer.

Problems create demand.
GenAI expands the candidate pool.
Lateral thinking discovers unconventional matches.
Human judgment selects and tests.
Accomplishment creates value.


Stop asking only for more ideas. Start helping problems recruit possibilities.

20. Your Turn: Publish a Problem Vacancy

Choose one meaningful problem from your organization, classroom, business, or community.

Write a Problem Vacancy Card.

Describe the outcome required without prescribing a solution.

Use GenAI to recruit ten diverse candidate ideas.

Apply one deliberate PO provocation to challenge the original problem framing.

Select one promising candidate for a small, appropriate experiment.

Record what you discover.

The goal is not to prove that AI can generate answers.

It is to discover whether a problem-led approach produces more useful possibilities and better outcomes.

What problem in your organization would you advertise first?

Further Reading and Conceptual Foundations

The Problem Recruitment Platform is an original exploratory design concept developed through the PO metaphor in this article. It is not presented as an established or empirically validated innovation framework.

  • Edward de Bono, Serious Creativity (1992) — provocation, movement, and deliberate creative thinking.
  • ISO 56002:2019 — Innovation management system guidance. Explore
  • NIST AI Risk Management Framework — responsible management of AI risks. Explore
  • UNFPA — Demographic dividend, the economic analogy explored earlier in this series. Explore

About Lateral AI | AIYING

Lateral AI explores the confluence of Edward de Bono's lateral thinking methods and modern Generative AI.

The series moves beyond generating answers toward challenging assumptions, discovering possibilities, and accomplishing meaningful outcomes.

AIYING — Think Differently. Accomplish More.

© Ravindra Dastikop | AIYING

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