Welcome to Inquiry that
begins with Curiosity
A systematic and purposeful exploration of the dynamic relationship between Theory of Inquiry and Theory of Knowledge.

The module helps learners understand the powerful relationship between Inquiry and Knowledge through the lens of Theory of Inquiry (TOI) and Theory of Knowledge (TOK). Students explore how meaningful learning does not begin with memorising answers, but with consciously questioning, investigating, interpreting, evaluating evidence, and constructing understanding responsibly. The mentor guides learners through how curiosity, perspectives, assumptions, emotions, ethics, interpretation, and evidence continuously shape the way human beings build knowledge. Through guided cognitive exploration and real-world examples, students begin recognising the difference between simply collecting information and becoming reflective Mindgleian Inquirers capable of designing meaningful inquiry and critically examining how knowledge itself is constructed, challenged, and refined in an AI-driven world.

The illustration contrasts two fundamentally different ways of learning in the age of Artificial Intelligence. The Cliché Path represents the increasingly common habit of immediately typing a question into AI or a search engine, retrieving an answer, and moving on. While this approach is fast, it often bypasses curiosity, reflection, critical thinking, and meaningful inquiry, resulting in information acquisition without genuine understanding. The Mindgleian Path follows a different philosophy. It begins by activating the learner’s Natural Intelligence through the Theory of Inquiry (TOI), where wonder is transformed into a refined inquiry question using metacognitive thinking. Artificial Intelligence is then used as an investigation partner through Epistemic Inquiry to construct an Initial Knowledge Claim, which is subsequently subjected to Theory of Knowledge (TOK) and Epistemic Validation to test its evidence, credibility, perspectives, certainty, and ethical implications. The outcome is not merely an answer, but a Refined Knowledge Claim that is inquiry-driven, evidence-informed, critically validated, and ready to be applied responsibly. The difference between the two paths is not the technology itself—it is the quality of human thinking that guides it.
Unit 1 develops learners’ ability to transform wonder into a Refined Inquiry Question (RIQ) through Natural Intelligence Prompt Orchestration. Instead of searching for answers immediately, learners first activate Mentelix to examine their curiosity, identify meaningful knowledge gaps, recognise contradictions and stakeholders, explore multiple perspectives, clarify the purpose of their inquiry, and systematically refine their thinking. By cultivating epistemic agency, learners become architects of inquiry who learn to think before they search, creating focused, purposeful, and researchable questions that provide the intellectual foundation for all subsequent knowledge construction.
Unit 2 transforms a Refined Inquiry Question (RIQ) into an Initial Knowledge Claim (IKC) through systematic investigation. At this stage, Artificial Intelligence is activated not to generate the inquiry, but to deepen it. Learners use AI as an investigation partner to explore existing knowledge, key concepts, theories, evidence, real-world examples, assumptions, contradictions, alternative explanations, and multiple perspectives. Rather than accepting the first answer, they learn to organise information into coherent understanding and construct an evidence-informed explanation. By the end of this unit, learners produce an Initial Knowledge Claim (IKC)—their best current explanation based on available knowledge, while recognising that it remains provisional and open to further testing and refinement.
Unit 3 teaches learners that constructing knowledge is only the beginning; trustworthy knowledge must also withstand challenge. The Initial Knowledge Claim (IKC) developed in Unit 2 is subjected to Knowledge Stress Tolerance, where it is rigorously examined through the lens of the Theory of Knowledge (TOK) and Epistemic Validation. Learners evaluate the reliability of evidence, the credibility of sources, the influence of bias, competing perspectives, the degree of certainty, the possibility of falsification, and the ethical implications of their conclusions. Rather than accepting knowledge at face value, they learn to challenge, justify, and refine it until it can withstand intellectual scrutiny. By the end of this unit, learners produce a Refined Knowledge Claim (RKC)—one that is evidence-informed, critically validated, ethically grounded, and resilient enough to survive rigorous questioning in a limited time.

The Six Thinking Hats is a thinking framework conceptualised by Dr. Edward de Bono, a Maltese physician, psychologist, author, and pioneer of creative and lateral thinking. Introduced in 1985, the framework helps individuals deliberately switch between different modes of thinking rather than trying to think about everything at once. Each coloured hat represents a distinct cognitive perspective, enabling learners to examine problems systematically, reduce confusion, and make more balanced decisions. In Mindgle, the Six Thinking Hats become the learner’s cognitive architecture, helping them select the appropriate mode of thinking based on the command term and the demands of inquiry.
White Hat — Facts, Evidence, and Information
The White Hat represents objective thinking focused on facts, evidence, data, definitions, and reliable information. When wearing this hat, learners temporarily set aside opinions and emotions to ask what is already known, what evidence exists, what information is missing, and what additional data is required. The White Hat builds factual clarity and serves as the foundation for evidence-based inquiry.
Red Hat — Feelings, Intuition, and Emotional Insight
The Red Hat represents emotions, intuition, empathy, instincts, and human feelings. It gives learners permission to acknowledge emotional reactions without needing to justify them logically. By recognising how people feel about an issue, learners develop empathy, emotional awareness, and a deeper appreciation of the human dimensions of knowledge, especially in ethical and social inquiries.
Black Hat — Critical Thinking, Caution, and Judgement
The Black Hat represents critical evaluation, caution, limitations, risks, weaknesses, and logical scrutiny. Learners wearing this hat deliberately search for flaws, assumptions, biases, contradictions, and potential problems before accepting a conclusion. Rather than being negative, the Black Hat strengthens knowledge by ensuring that ideas survive rigorous intellectual challenge.
Yellow Hat — Benefits, Value, and Constructive Thinking
The Yellow Hat represents optimism, strengths, opportunities, benefits, and positive possibilities. Learners focus on what works well, the potential value of an idea, and the constructive outcomes that may emerge. This mode of thinking encourages learners to identify advantages and appreciate how knowledge can contribute to meaningful solutions and future progress.
Green Hat — Creativity, Innovation, and Possibility Thinking
The Green Hat represents creativity, imagination, innovation, divergent thinking, and alternative possibilities. Learners explore new ideas, generate original solutions, challenge conventional thinking, and imagine different ways of approaching a problem. The Green Hat encourages curiosity, experimentation, and the willingness to think beyond existing frameworks.
Blue Hat — Metacognition, Organisation, and Thinking Management
The Blue Hat represents metacognition—thinking about thinking. It is responsible for organising, planning, monitoring, and regulating the entire thinking process. Learners wearing the Blue Hat ask what kind of thinking is required, which command term is being addressed, which thinking hat should be activated next, and whether the inquiry remains focused and logically organised. In Mindgle, the Blue Hat functions as the cognitive conductor that orchestrates all other thinking hats throughout the inquiry journey.

Command terms are not just exam words. They are cognitive instructions. A Mindgleian first decodes the command term, then selects the right thinking hat, and only then begins answering.
Why Thinking Hats Are Connected to Command Terms
Command terms are not simply examination keywords; they are cognitive instructions that tell the learner how to think before deciding what to write. Each command term activates a different intellectual process, requiring learners to approach the task through an appropriate thinking architecture. Edward de Bono’s Six Thinking Hats provide this architecture by representing six distinct modes of cognition—facts, emotions, critical judgement, optimism, creativity, and metacognitive regulation. Rather than using the same style of thinking for every question, a Mindgleian first decodes the command term and consciously selects the thinking hat—or combination of hats—that best aligns with the intellectual demand of the task. This deliberate alignment improves clarity, depth, reasoning, and problem-solving because learners are no longer reacting instinctively to questions; they are intentionally orchestrating the most appropriate mode of thinking before constructing a response.
Assessment Objectives, Thinking Hats, and Command Terms
Mindgle connects assessment objectives, command terms, and De Bono’s Six Thinking Hats because every command term represents a particular way of thinking rather than simply an instruction in an examination. Understanding the thinking behind a command term enables learners to respond more accurately, choose appropriate strategies, and develop deeper reasoning across disciplines.
AO1 — Knowledge and Understanding primarily engages the White Hat, which focuses on facts, information, definitions, observations, and objective knowledge. When learners are asked to define, state, describe, identify, or outline, they are expected to accurately recall and communicate knowledge rather than interpret or judge it. Some command terms, such as outline, also require the Blue Hat because learners must organise information into a logical structure.
AO2 — Application and Analysis requires learners to move beyond recalling information and begin using, connecting, and examining knowledge. Here, the Blue Hat regulates and organises thinking, ensuring that reasoning follows a logical sequence, while the Black Hat critically analyses relationships, assumptions, and evidence. The Green Hat becomes important when learners apply knowledge creatively to unfamiliar contexts, and the Red Hat supports interpretation by recognising context, meaning, and human experience. Consequently, command terms such as apply, explain, analyse, interpret, distinguish, demonstrate, and suggest activate combinations of these thinking modes depending on the cognitive demand.
AO3 — Synthesis and Evaluation represents the highest level of thinking because learners must integrate ideas, consider multiple perspectives, weigh evidence, and reach justified conclusions. This requires several Thinking Hats working together. The Yellow Hat identifies strengths, possibilities, and value; the Black Hat evaluates limitations, weaknesses, and risks; the Green Hat generates alternative ideas and solutions; the White Hat contributes relevant evidence; the Red Hat recognises human values and perspectives where appropriate; and the Blue Hat coordinates the overall reasoning process. Therefore, command terms such as compare, discuss, examine, evaluate, justify, recommend, and to what extent require learners to balance evidence, consider different viewpoints, and construct well-reasoned judgements rather than simply express opinions.
AO4 — Subject-Specific Skills emphasises the accurate application of disciplinary techniques and procedures. The White Hat ensures precision, factual accuracy, and correct use of methods, while the Blue Hat helps learners plan, organise, and execute tasks systematically. Accordingly, command terms such as annotate, calculate, construct, determine, draw, label, plot, prepare, and complete require learners to demonstrate competence in applying the specific skills, conventions, and techniques of a subject.
Together, the Assessment Objectives, command terms, and Thinking Hats provide learners with a powerful metacognitive framework. Rather than viewing command terms as isolated examination words, learners understand them as signals for the type of thinking required. This enables them to consciously select the most appropriate cognitive strategy, respond with greater precision, and become more flexible, reflective, and effective thinkers across all disciplines.
The Assessment Objectives move learners from objective knowledge towards increasingly interpretive, analytical, evaluative, and justified thinking. Learners begin by acquiring and communicating factual knowledge, then learn to apply and analyse it, and finally integrate evidence, compare perspectives, and justify well-reasoned conclusions. As the cognitive demand increases, more Thinking Hats are activated, reflecting the growing complexity of the thinking required. This enables learners to consciously select the most appropriate mode of thinking for each command term rather than treating examination questions as isolated tasks.
Designing thinkers before answer seekers
Module Duration and Structure
Module 1 is designed as an approximately 10-hour learning experience. Approximately 2 hours are allocated to each of the three core units, enabling learners to progressively develop capabilities in Inquiry Design, Knowledge Construction, and Knowledge Validation. The remaining 4 hours are reserved for guided application, during which subject mentors contextualise the Mindgle framework through discipline-specific command terms, authentic examples, assessment tasks, and inquiry contexts. This flexible component allows the framework to be meaningfully integrated across different subjects and curricula while reinforcing transfer of learning.
If you want a section called Scope, then it should describe what the module covers, for example:
Scope of Module 1
Module 1 is designed as an approximately 10-hour learning experience. Around 2 hours are allocated to each of the three core units, enabling learners to progressively develop skills in Inquiry Design, Knowledge Construction, and Knowledge Validation. The remaining 4 hours are intentionally reserved for guided application, where learners apply the complete Mindgle inquiry cycle to discipline-specific contexts, command terms, and authentic learning tasks. This component is deliberately flexible, allowing subject mentors to contextualise Mindgle within their own disciplines, curriculum requirements, assessment objectives, and real-world examples, thereby strengthening transfer of learning across diverse subject areas.
Stage Theoretical Foundation Core Process Signature Capability Input Output Unit 1 Metacognition and Mindgle’s Theory of Inquiry (TOI) Natural Intelligence Prompt Orchestration (Inquiry Design) Epistemic Agency Wonder / Stimulus Refined Inquiry Question (RIQ) Unit 2 Mindgle’s Theory of Knowledge Construction (TKC) AI Prompt Orchestration (Knowledge Construction through Epistemic Inquiry) Knowledge Construction Refined Inquiry Question (RIQ) (output of Unit 1) Initial Knowledge Claim (IKC) Unit 3 Mindgle’s Theory of Knowledge Validation (TKV) AI Prompt Orchestration (Knowledge Validation & Stress Testing) Epistemic Validation → Epistemic Resilience Initial Knowledge Claim (IKC) (output of Unit 2) Robust Knowledge Claim (RKC)
Because information is abundant, but thoughtful inquiry needs a mindful architecture
In today’s AI-driven and information-saturated world, access to information is no longer the greatest educational challenge. The greater challenge is helping learners determine what is worth investigating, distinguish trustworthy knowledge from misinformation, evaluate evidence critically, recognise bias, and make ethically responsible judgments. Without these capabilities, learners risk becoming passive consumers of information and increasingly dependent on automated systems for thinking. This module addresses that challenge by equipping learners with metacognitive, epistemic, and reflective capabilities that strengthen critical thinking, research, decision-making, interdisciplinary learning, leadership, and innovation. It prepares students not only to succeed academically but also to navigate complexity, uncertainty, and Artificial Intelligence responsibly in higher education, professional environments, and everyday life.
"Artificial Intelligence can generate information. Only human inquiry can transform it into meaningful knowledge."
Scope of Module 1
Learning Objectives
(What you will develop during the module)
- Metacognitive thinking
- Inquiry design
- Epistemic inquiry
- Evidence evaluation
- Critical thinking
- Ethical reasoning
- Responsible AI use
↓
Learning Outcomes
(What you will be able to do by the end of the module)
- Design a Refined Inquiry Question
- Construct an Initial Knowledge Claim
- Validate knowledge through TOK
- Produce a Refined Knowledge Claim
- Think before searching
- Use AI as an inquiry partner
↓
Future Readiness
(Where these capabilities will help you)
- Research
- Innovation
- Leadership
- Decision-making
- Higher education
- Real-world problem solving
"The purpose of education is not to fill minds with information, but to awaken minds that inquire."
Why Thinking Hats are connected to Command Terms
TOI and TOK: The Two Engines of Meaningful Inquiry

Illustration: The Mindgle Journey
Wonder!!
A learner observes that not all plants have the same kind of leaves. Some are broad, some are needle-like, some are thick and fleshy, while others are long and narrow. This sparks the question:
“Why are leaves different shapes?”
A Typical Student
The learner immediately searches Google or asks AI:
“Why are leaves different shapes?”
After reading the first explanation, the learner writes:
Final response of the student
Leaves are different shapes because different plants live in different environments. Their shapes help plants capture sunlight, reduce water loss, regulate temperature, and survive in different climates. For example, desert plants usually have small or needle-like leaves to conserve water, while rainforest plants often have broad leaves to capture more sunlight. Therefore, leaf shape is an adaptation that helps plants survive.
The answer is correct, but it largely reproduces existing information without questioning its completeness, examining alternative explanations, or evaluating how well the explanation is justified.
A Mindgleian Learner
Instead of searching immediately, the learner first activates Natural Intelligence.
Unit 1: From Wonder to a Refined Inquiry Question
The learner asks:
- What exactly am I trying to understand?
- Is this only about adaptation?
- Could genetics also influence leaf shape?
- Do all plants living in similar environments have identical leaves?
- What makes this inquiry worth investigating?
After refining the thinking, the learner constructs a Refined Inquiry Question (RIQ):
“To what extent is leaf shape determined by environmental adaptation compared with genetic and evolutionary factors?”
Unit 2: From a Refined Inquiry Question to an Initial Knowledge Claim
Artificial Intelligence is now activated as an investigation partner.
The learner explores:
- What do botanists currently know?
- Which biological concepts explain leaf shape?
- What evidence supports adaptation?
- What role do genetics play?
- What examples support different explanations?
- Are there competing theories?
After investigating concepts, evidence, and multiple perspectives, the learner constructs an Initial Knowledge Claim (IKC):
Leaf shape appears to be influenced primarily by adaptation to environmental conditions, but genetics and evolutionary history also contribute to determining the final shape of leaves.
Unit 3: From an Initial Knowledge Claim to a Robust Knowledge Claim
Artificial Intelligence now becomes a critical thinking partner.
The learner deliberately challenges the explanation by asking:
- Is the evidence reliable?
- Are my sources credible?
- What assumptions am I making?
- What evidence contradicts my explanation?
- Are there alternative perspectives?
- What are the limitations of this explanation?
- Does my conclusion logically follow from the evidence?
- Can I justify this claim ethically and scientifically?
After systematic validation and refinement, the learner develops a Robust Knowledge Claim (RKC):
Final response of the Mindgleian learner
Leaf shape is influenced by the interaction of evolutionary adaptation, genetics, environmental conditions, and ecological pressures rather than by a single factor alone. Different leaf shapes help plants optimise sunlight capture, regulate water loss and temperature, resist wind and physical damage, and survive within specific habitats. However, adaptation alone cannot explain every variation in leaf shape; genetic inheritance, developmental processes, and evolutionary history also contribute. Therefore, leaf shape is best understood as the result of multiple interacting factors, and this explanation remains open to refinement as new scientific evidence emerges.

By successfully completing Module 1: The Pulse of Knowing, you get to earned the Mentelix Badge—the first milestone in your Mindgle journey.
This badge recognises that you have developed the foundational habits of a Mindgleian Inquiry and Knowledge Architect. You LEARN to transform wonder into purposeful inquiry, construct evidence-informed knowledge, and validate your thinking through critical evaluation. More importantly, you attain a level to demonstrate epistemic agency by taking ownership of your inquiry, knowledge construction by building justified explanations, and epistemic resilience by refining your understanding through evidence and reflection.
The Mentelix Badge signifies that you no longer rely on AI simply to provide answers. Instead, you know how to think before you search, construct before you conclude, and validate before you believe.
