I think IBL fits really well in Psychological Medicine for Year 4 students. We can start with real-life psychiatric cases and let students ask their own questions, like what might be going on, what more they need to know, and how they would manage the case.

Using tools like the FILA table helps them organize their thoughts and learning.

Instead of giving answers, I would guide their thinking and encourage self-directed learning. They can look up resources, share findings, and connect it to real clinical practice.

I also like the idea of having a "Wonderday" where students pick a mental health topic they’re curious about and explore it creatively.

Inquiry-Based Learning (IBL) is a teaching approach that puts students at the center of their own learning. Instead of just listening to lectures or memorizing facts, postgraduate medical students (doctors in advanced training) explore real-life medical problems, ask important questions, and search for answers using scientific research.

When teaching about stroke rehabilitation (the process of helping a person recover after a stroke), the IBL method often begins with a realistic case. For example, students might be given a case about a patient who has hemiparesis, which means weakness on one side of the body caused by brain damage from a stroke.

Students are then asked to identify what they need to learn. They might ask: What types of treatment can help this patient move better? What treatment works best at this stage of recovery? How do we measure improvement?

They find answers by reading research articles, looking at clinical guidelines (official advice for treating patients), and reviewing recovery tools. Then, they create a plan for the patient’s recovery that is specific, practical, and based on evidence. This includes therapies like physical exercises, walking training, or using technology to assist movement.

This way of learning helps future doctors think carefully about each patient’s needs. It improves their ability to make decisions, work with other healthcare professionals like therapists and nurses, and become more independent and confident in managing real patients. Most importantly, it helps them understand the human side of care—not just the disease, but the person behind it.

Revision to specifically reflect the phases:

Inquiry-Based Learning (IBL) is a teaching approach that encourages postgraduate medical students to take an active role in their learning. Instead of passively receiving information, students explore real clinical problems and search for answers through guided inquiry.

The learning process begins with the Orientation phase, where students are introduced to a realistic clinical case—such as a patient with hemiparesis, meaning weakness on one side of the body due to a stroke. This phase raises curiosity and provides a meaningful context for learning.

Next is the Conceptualization phase. Students formulate key clinical questions such as, What rehabilitation strategies are effective for this patient? or How do we measure progress? These questions form the basis for deeper investigation.

During the Investigation phase, students explore the answers by reviewing research articles, clinical practice guidelines, and functional recovery tools. They critically evaluate different treatment options and gather data to support evidence-based decisions.

Then comes the Conclusion phase, where students develop a practical, individualized rehabilitation plan. This plan may include interventions like physical therapy, gait training, or assistive technologies, depending on the patient's condition and goals.

Finally, in the Discussion phase, students reflect on what they have learned, share insights with peers, and receive feedback. This phase promotes deeper understanding and enhances clinical reasoning and empathy.

By going through all these IBL phases, students not only gain knowledge but also develop the skills to think critically, collaborate with healthcare teams, and care for patients in a more holistic and human-centered way.

2) For CLO2 (Evaluate concrete durability issues), implement a case-based inquiry during weeks 8–10. Students can investigate real-world durability failures (e.g., chloride penetration or ASR) using provided case studies or local examples. Working in groups, they will identify causes, propose solutions and present their findings, replacing a standard assignment.

3) To address CLO3 (Apply integrity tests to concrete buildings), introduce a field-based inquiry project in weeks 12–13. Students will assess a real structure (e.g., a campus building) using non-destructive testing methods (e.g., rebound hammer, ultrasonic pulse velocity) and compare results with industry standards. They will compile their findings into a report, which can replace part of the final exam or an assignment.

After watching the video provided in eLEAP and reading the article given, I would like to emphasize few things:

The phases of Inquiry-Based Learning (IBL) outlined in the article and the video are (1) Orientation, (2) Conceptualization, (3) Investigation, (4) Data Interpretation, (5) Conclusion and (6) Discussion, which are indeed reflected in my earlier suggestions for my course KNS4533 Concrete Technology, but the article’s framework provides a clearer structure for refinement.

For CLO1, the guided lab activity aligns with the Investigation and Data Interpretation phases, where students explore mix designs and analyze results, but could better incorporate Orientation (e.g., introducing real-world concrete failures to contextualize the lab) and Discussion (e.g., peer reviews of lab reports).

For CLO2, the durability case study mirrors Conceptualization (posing questions about failures) and Conclusion (proposing repairs), but could explicitly add Reflection (e.g., comparing solutions to industry standards post-presentation).

For CLO3, the field-based integrity assessment follows Experimentation and Data Interpretation, but could strengthen Hypothesis Generation (e.g., predicting building defects before testing) and Communication (e.g., presenting findings to peers for critique).

The revised approach would emphasize cyclical progression (e.g., revisiting hypotheses after data collection) and meta-cognitive practices (e.g., reflection journals after each phase), ensuring alignment with the article’s flexible, non-linear inquiry cycle. This tighter integration of phases would deepen inquiry rigor while maintaining the course’s practical focus.

Revisions for Alignment:

• CLO1 (Lab): Add Orientation (case study intro) and Discussion (peer review of reports).

• CLO2 (Durability): Include Conceptualization (structured Q&A session) and iterative Investigation (revise hypotheses after initial data).

• CLO3 (Field Test): Embed Discussion throughout (e.g., weekly group debriefs) and Conclusion (written reflection linking results to predictions).

I've been exploring how Inquiry-Based Learning (IBL) can enhance our Instrumental, Vocal, and Ensemble course GKM1053).

My specific prompt to the AI was: "How can I use IBL in my instrumental vocal and ensemble course to illustrate knowledge and understanding of musical aspects during performance of major and minor instruments studies?"

The AI's suggestions highlight inquiring through performance as a core strategy. Key ideas include:

• Performance-as-Inquiry Projects: Students would pose their own musical questions about a piece (e.g., "How does harmony affect mood?") and then use performance to explore answers, directly linking theory to practice.

• Ensemble Problem-Solving: Presenting collaborative challenges where students collectively inquire during rehearsals to find solutions for complex musical issues.

• Reflective Performance Journals: Students document their questions, experimental approaches, and how theoretical insights shaped their performance choices.

My role would shift to a guide, facilitating their musical discoveries. This approach aims for deeper understanding and empowers students to own their learning in a practical context.

To effectively apply Inquiry-Based Learning (IBL) in my Forest Science and Management course at Bachelor degree level (C4 – Analyze), I can design inquiry-driven activities that require students to engage in data collection, interpretation, synthesis, and real-world application of forest science concepts. Below is a structured guide tailored to my course learning areas and Bloom’s C4 level:

CLO1. Analyze Tree Diameter, Height, and Other Parameters

IBL Activity Example:
Inquiry Question: "How do different forest stand types influence tree growth parameters such as DBH, height, and basal area?"

Approach:

• Students work in groups to select plots in different forest conditions (e.g., logged vs. unlogged, bamboo vs. secondary forest).

• They collect and analyze DBH, total height, and crown spread using standard tools (clinometers, diameter tape).

• Students formulate hypotheses (e.g., “Tree height is lower in degraded forests”), analyze their data, and compare findings with scientific literature.

Outcome (C4):
Students will analyze collected field data, identify patterns, and evaluate forest health or growth dynamics based on tree metrics.

CLO2. Analyze Forest Succession, Ecosystem, and Stand Dynamics

IBL Activity Example:
Inquiry Question: "What are the indicators of succession stages in tropical forests, and how do they affect ecosystem functions?"

Approach:

• Students examine forest plots at different successional stages (e.g., early, mid, late).

• They identify plant species composition, canopy layers, light availability, and understory structure.

• They use this information to infer successional stage and evaluate ecosystem resilience and biodiversity.

Outcome (C4):
Students will compare succession patterns, analyze ecological interactions, and explain their implications on forest structure and dynamics.

CLO3. Analyze Sustainable Forest Management and Timber Certification

IBL Activity Example:
Inquiry Question: "What are the critical components of sustainable forest management (SFM), and how does timber certification reflect these principles?"

Approach:

• Assign students to investigate FSC or MTCS-certified forests.

• Students conduct document analysis (audit reports, certification criteria), interview stakeholders (if possible), and assess compliance indicators.

• They simulate a mock certification audit, presenting findings on sustainability practices (e.g., biodiversity conservation, community engagement).

Outcome (C4):
Students will evaluate forest practices against sustainability standards, analyze gaps, and explain how certification promotes responsible management.

Suggested Enhancements to Include the Affective Domain

1. Include value-based reflection prompts, e.g.,
   “What did this investigation teach you about your role in sustainable forestry?”

2. Incorporate personal or community engagement, e.g.,
   Interviewing local forest users, indigenous communities, or certification stakeholders.

3. Embed ethical dilemmas or debates, e.g.,
   “Should commercial logging be allowed in secondary forests? Why or why not?”

There are some structured for bridge and dam projects for students Year 2 as following:

1. Engaging Questions/Scenarios

• Present students with real-world scenarios or questions related to bridge and dam projects. E.g. A local community needs a new bridge to connect two areas separated by a river. What are the key considerations for its design and construction?

2. Exploration and Research

• Students, working individually or in groups, explore these questions through various resources. This could include textbooks and academic materials, case studies of existing bridge and dam projects (successes and failures), online resources, videos, and simulations, and potentially, guest lectures from civil engineers or site visits (if feasible)

3. Developing Hypotheses and Plans

• Based on their initial research, students develop hypotheses or proposed solutions related to the components, construction methods, and sustainability aspects of the projects.

• They then create plans for how they would approach the design and construction, considering different factors.

4. Investigation and Data Collection

• This stage might involve 1.) Designing a model bridge or dam (physical or digital), 2.) Analyzing different construction techniques and their implications (e.g., cost, time, environmental impact), 3.) Researching various materials and their sustainability credentials, 4.) Investigating the environmental regulations and sustainability guidelines relevant to such projects.

5. Analysis and Interpretation

• Students analyze the data they have collected, evaluate the outcomes of their models or simulations, and interpret their findings in relation to their initial questions and hypotheses.

6. Communication and Reflection

• Students communicate their findings through presentations, reports, or discussions.

• They reflect on the learning process, the challenges they faced, and the insights they gained.

Applying IBL to Bridge and Dam Projects

There have some components, methods of construction, and sustainability can be integrated into the IBL framework such as

A. Components

• Bridges

  • Inquiry. What are the essential parts of a bridge, and what are their functions? How do different types of bridges (e.g., beam, arch, suspension, cable-stayed) differ in their components and suitability for various terrains and loads?

  • Exploration. Research the different structural elements like the deck, girders, piers, abutments, cables, and foundations.

  • Construction. How are these components fabricated and assembled on-site?

• Dams

  • Inquiry. What are the main components of a dam, and how do they work together to impound water and potentially generate power? What are the different types of dams (e.g., gravity, arch, embankment)?

  • Exploration. Investigate the functions of the dam body, spillways, intake structures, penstocks (for hydropower), and outlet works.

  • Construction. How are these massive structures built, considering the materials and the surrounding environment?

    
    

B. Methods of Construction

• Inquiry. What are the common methods used to construct bridges and dams? What factors influence the choice of construction techniques?

• Exploration. Research methods such as:

  • Bridge Construction. Incremental launching, balanced cantilever method, precast segmental construction, in-situ casting.

  • Dam Construction. Roller-compacted concrete (RCC), earthfill construction, rockfill construction, conventional concrete placement.

• Analysis. Compare the advantages and disadvantages of different methods in terms of time, cost, labor, equipment, and environmental impact.

  
  

C. Sustainability.

• Inquiry. How can bridge and dam projects be designed and constructed in a sustainable manner? What are the key environmental, economic, and social considerations?

• Exploration. Investigate aspects such as:

  • Material Selection. Use of low-impact materials, recycled content, locally sourced materials.

  • Waste Reduction. Efficient use of materials, minimizing construction waste, recycling and reuse of demolition debris.

  • Energy Efficiency. Reducing energy consumption during construction and operation.

  • Environmental Impact Assessment. Understanding and mitigating the effects on ecosystems, water resources, and local communities.

  • Life Cycle Assessment (LCA). Evaluating the environmental impacts throughout the entire life cycle of the project.

  • Green Construction Techniques. Exploring innovative and sustainable construction practices.

    
    

By using IBL, second-year civil engineering students can actively engage with these complex topics, develop critical thinking and problem-solving skills, and gain a deeper understanding of the multifaceted nature of bridge and dam projects, including their crucial sustainability implications.

💡 IBL Strategy Overview for Solubility Topic

IBL involves students posing questions, investigating problems, and constructing their own understanding, guided by the instructor. For Chemistry, especially solubility, this can be highly effective in developing conceptual and calculation skills.

✅ Your Course Learning Objectives:

1. Define solubility, molar solubility, and solubility product.

2. Understand the solubility product constant, Ksp.

3. Calculate the Ksp using solubility and vice versa.

4. Understand the common ion effect and its impact on solubility.

5. Predict precipitation from the mixing of soluble salts.

🧪 Sample IBL Activities Mapped to Your Objectives

🔍 IBL Phase 1: Engagement with a Real-World Scenario (Hook)

Example Scenario: "A factory is disposing of wastewater containing calcium and fluoride ions. Will calcium fluoride precipitate and cause pipe scaling?"

• Ask students to identify what concepts (e.g., solubility, Ksp) they need to understand to solve this problem.

📘 IBL Phase 2: Student Questions and Investigation

Break students into small groups and give them guided but open-ended tasks:

1. Define solubility, molar solubility, and Ksp

IBL Activity:

• Give students experimental data (e.g., mass of salt dissolved in a volume of water).

• Ask: “How can we describe and quantify how much salt dissolves?”

• Students define solubility and molar solubility through guided research and discussion.

• Provide data for several salts and let them discover patterns that lead to the concept of Ksp.

2. Understand Ksp

IBL Activity:

• Provide a table of salts and their solubility data.

• Students deduce the relationship between molar solubility and Ksp.

• Let them compare salts and realise some are more/less soluble due to lower/higher Ksp.

3. Calculate Ksp and vice versa

IBL Task:

• “You are given that 0.01 mol of AgCl dissolves in 1L of water at 25°C. What is its Ksp?”

• Provide hints, scaffolding, and allow students to research equilibrium expressions.

• Then reverse the task: give Ksp, ask students to find solubility.

4. Understand common ion effect

IBL Simulation/Lab:

• Use a simulation (like PhET Solubility or ChemCollective) or virtual lab setup.

• Investigate how adding NaCl affects the solubility of AgCl.

• Ask: “Why did solubility decrease when we added NaCl?”

Guiding questions:

• What common ions are present?

• How do equilibrium and Le Chatelier’s principle apply here?

5. Predict precipitation

IBL Problem-Solving Activity:

• Provide pairs of ionic solutions (e.g., Ba(NO₃)₂ + Na₂SO₄).

• Students calculate Q (reaction quotient) and compare with Ksp to predict precipitation.

Extension: “Design an experiment to determine which combinations of salts will produce a precipitate.”

🧠 Assessment through Inquiry

• Have students present their findings to the class (peer teaching).

• Include reflective questions:

  • “What did you find surprising about solubility and Ksp?”

  • “How did our initial predictions compare to experimental/simulated results?”

🎯 Summary Table (IBL Mapping)

ObjectiveIBL Task ExampleDefine solubility, molar solubility, KspData interpretation and pattern recognitionUnderstand KspCompare solubilities, write Ksp expressionsCalculate Ksp and vice versaProblem-solving with real dataUnderstand common ion effectSimulation/lab analysis and predictionsPredict precipitationsGroup activity using Q vs Ksp

🧰 Tools & Resources

• PhET Solubility Simulation (https://phet.colorado.edu)

• ChemCollective virtual labs

• Google Docs for collaborative inquiry journaling

• Padlet or Jamboard for group brainstorming

Course Name: Engineering Organic Chemistry (KNC1063)

Credit Hours: 3

Course Type: Core

Student Level: First-year undergraduate chemical engineering students

Learning Area: Organic reaction mechanisms, synthesis, biomolecules (carbohydrates, lipids, amino acids, proteins)

Relevant Learning Domains: Cognitive (C), Affective (A)

Course Outcomes:

CO1 (C3): Classify reaction mechanisms of organic compounds.

CO2 (C5): Synthesize organic compounds by substitution and electrophilic addition.

CO3 (A2): Identify carbohydrates, amino acids, proteins, and lipids effectively.

✅ How to Implement IBL for Each CO

🔬 CO1: Classify Reaction Mechanisms (C3 – PO1/WA1)

IBL Strategy: Case-Based Reaction Exploration

Activity: Present unknown organic reactions in a “reaction mystery” format.

Student Task: Analyze provided clues (reagents, products, intermediates) to classify the type of reaction (e.g., SN1, SN2, E1, E2, addition).

Why IBL? Students practice analytical skills by reasoning through reaction pathways, not memorizing.

⚗️ CO2: Synthesis via Substitution & Electrophilic Addition (C5 – PO2/WA2)

IBL Strategy: Synthesis Design Challenge

Activity: Provide a target compound and ask students to propose multiple synthesis routes using learned mechanisms (e.g., synthesizing alcohols from alkenes).

Student Task: Compare routes based on yield, atom economy, and safety. Use retrosynthesis to justify their design.

Tools: Molecule model kits, drawing software, simulation videos.

Why IBL? Encourages deeper understanding of mechanism-based synthesis, critical for future chemical engineering design work.

🧬 CO3: Identify Biomolecules (A2 – PO10/WA4)

IBL Strategy: Interactive Biomolecule Hunt

Activity: Give students unknown samples (or case descriptions, spectra, or molecular structures).

Student Task: Work in teams to identify whether they are lipids, proteins, amino acids, or carbohydrates using test results, structural clues, or reaction behavior.

Extension: Explore their biological functions or industrial relevance (e.g., bio-based polymers, health supplements).

Why IBL? Fosters inquiry, teamwork, and relevance to real-world biochemical applications.

🧠 Why IBL Works for This Course

It mirrors how organic chemists and engineers solve problems: by asking questions, testing hypotheses, and interpreting outcomes.

Builds foundational critical thinking, problem-solving, and collaborative learning skills essential in engineering practice.

Supports WA1 (knowledge), WA2 (problem analysis), and WA4 (communication & teamwork) development.

1. Define Clear Learning Outcomes

Design outcomes that align with IBL principles, such as:

- Apply chemical knowledge to analyze and manage solid waste and toxic substances.

- Investigate real-world environmental issues using scientific inquiry.

- Propose evidence-based solutions to solid waste and toxicology challenges.

2. Choose Appropriate IBL Models

Depending on the students' level and time constraints, I can use:

- Structured Inquiry: Provide the problem and procedure; students analyze data and draw conclusions.

- Guided Inquiry: Provide the problem; students design the method.

- Open Inquiry: Students formulate the problem and investigation plan themselves.

3. Integrate IBL into Course Components

A. Case Studies and Real-World Problems

- Present real cases (e.g., e-waste in developing countries, heavy metal contamination from landfills based on the news worldwide).

- Ask students to formulate investigative questions:

“How do different waste management strategies affect leachate composition?”

“What are the chemical risks of microplastics in landfills?”

B. Laboratory/Field Investigations

- Have students analyze samples of soil, water, or synthetic leachate for toxic substances.

- Guide them to:

- Develop hypotheses (e.g., how pH affects heavy metal solubility),

- Plan procedures,

- Interpret results with chemical reasoning.

C. Project-Based Inquiries

- Students can explore topics such as:

- Designing a sustainable composting system and analyzing its chemical safety.

- Assessing the toxicity of household waste-derived materials.

- Proposing a chemical treatment process for hazardous waste.

D. Collaborative Inquiry and Peer Review

- Group students to investigate different waste types or toxicants.

- Use peer review to encourage reflection and improvement of research methods and findings.

4. Support documents

- Provide:

- Inquiry templates,

- Sample research questions,

- Rubrics for assessing inquiry skills (not just content),

- Resources to access relevant environmental data and chemical databases.

5. Assessment Integration

- Use a mix of:

- Reflective journals on inquiry processes,

- Oral presentations of findings,

- Reports structured like research papers,

- Group discussions to assess reasoning and collaboration.

Example IBL Activity

Topic: Toxicity of Leachate from Municipal Solid Waste

IBL Prompt:

“Investigate how different factors (e.g., temperature, pH, organic matter) influence the toxicity and chemical composition of leachate.”

Steps:

1. Formulate hypotheses.

2. Design leachate simulation experiments.

3. Analyze results with respect to heavy metal solubility or organic toxicity.

4. Conclude and propose environmentally safe management strategies.

Performs a comprehensive assessment (history, physical examination, and investigations) with basic medical knowledge application to identify possible diagnoses common in the primary care setting,

you can structure your teaching around real clinical problems that students must actively explore and solve.

Here's a breakdown of how to implement IBL with strategies aligned to your goal:

🌟 Why Use IBL for This CLO?

IBL fosters critical thinking, clinical reasoning, and autonomous learning—key for developing the ability to conduct comprehensive assessments and apply knowledge in real-world settings.

🧩 Core Components of IBL in MDP40408

1. Start with Authentic Clinical Questions

Provide students with realistic, open-ended clinical scenarios from the primary care setting. For example:

“A 35-year-old woman presents with fatigue, weight gain, and dry skin. What do you need to know and do to arrive at a likely diagnosis?” (Orientation)

These prompts require students to:

• Elicit relevant history. (Conceptualization)

• Identify focused physical exams. (Conceptualization)

• Decide on appropriate investigations. (Conceptualization)

• Justify possible diagnoses using basic medical knowledge. (Conclusion)

  
  

2. Structure a Progressive Inquiry Cycle

Guide students through a cycle:

• Ask: What do we need to find out? (Conceptualization)

• Investigate: Gather data from history, PE, labs. (Investigation)

• Create: Formulate differential diagnoses. (Conclusion)

• Discuss/Argue: Defend diagnostic reasoning. (Discussion)

• Reflect: What did we learn? What gaps remain? (Reflection/discussion)

  
  

3. Implement in a Clinical Skills Workshop or Bedside Teaching

Use IBL in small-group bedside teaching or simulation labs:

• Assign each group a real patient or standardized patient. (Orientation and conceptualization)

• Each group:

  • Conducts a history and physical. (Investigation)

  • Proposes investigations. (Investigation)

  • Presents findings and possible diagnoses in a structured format. (Conclusion)

• Faculty facilitates by prompting deeper inquiry (e.g., “What might you be missing if you only focus on this symptom?”) (Discussion)

  
  

4. Use IBL in Case-Based Portfolios or Learning Logs

Have students:

• Choose 2–3 real patient cases from their district hospital rotation. (Conceptualization)

• Document: (Investigation and conclusion)

  • History, PE, investigation findings.

  • Clinical questions they explored.

  • Diagnostic reasoning pathway.

• Reflect on mistakes, uncertainties, and how they resolved them. (Reflection/discussion)

  
  

5. Facilitate Peer Inquiry via eLEAP

Use eLEAP forums for peer discussion of inquiry cases:

• Post a weekly primary care case prompt. (Orientation)

• Ask students to:

  • Pose relevant clinical questions. (Conceptualization)

  • Research and respond using evidence-based reasoning. (Investigation and conclusion)

  • Engage with peers’ reasoning critically. (Discussion)

    
    

6. Assessment Integration

Assess inquiry process as well as outcomes:

• Use a rubric that evaluates:

  • Depth of inquiry questions.

  • Logic of diagnostic reasoning.

  • Clinical application (history/PE/investigations).

  • Justification of diagnosis.

• Consider using OSCE or mini-CEX to evaluate real-time performance based on IBL learning.

The video by Fedrik Portin and the article highlight IBL as students learning like scientists, solving problems through active participation.

The 5 Key phases

Orientation, Conceptualization, Investigation, Conclusion,  Discussion. 

These aren't rigid; IBL is a flexible, cyclical process, with discussion and reflection continuous.

Are the phases reflected in what you have done?

Yes, my course plans directly reflect the IBL phases:

• Orientation & Conceptualization: My AI prompt (how to illustrate musical understanding in performance) serves as our initial problem. Students then select pieces and form their own musical questions (e.g., "How does harmony influence emotion?").

• Investigation: "Performance-as-Inquiry Projects" and "Ensemble Problem-Solving" are our investigation. Students will experiment through performance and collaborate to find solutions, interpreting the sonic "data."

• Conclusion: Deeper "understanding of musical aspects" implies students will synthesize findings and draw conclusions.

• Discussion: "Reflective Performance Journals" directly align with the reflection component, documenting their inquiry and how theory shaped performance.

CLO1: Distinguish Major Weeds and Their Economic Importance (C4, PLO2)

Activity Name: Weed Identification and Economic Impact Analysis
Scenario: Students conduct a field survey to identify common and noxious weeds in their local environment.
Steps:

1. Observation: Visit a local agricultural field or campus garden to collect weed samples.

2. Identification: Use guides and field manuals to classify weeds based on physical characteristics.

3. Economic Analysis: Research the economic impact of these weeds on crop yield, agricultural costs, and biodiversity.

4. Presentation: Prepare a report or presentation detailing the most economically significant weeds in the region.

5. Assessment: Practical report and mid-term examination as per course outline.

   
   

CLO2: Analyze Weed Control Strategies (C4, PLO2)

Activity Name: Designing a Weed Management Plan
Scenario: Students take on the role of agronomists tasked with developing an integrated weed management plan for a small farm.
Steps:

1. Research: Review methods like cultural, biological, mechanical, and chemical controls.

2. Field Assessment: Visit a farm or use a case study to identify prevalent weeds and their life cycles.

3. Plan Development: Create a comprehensive weed control strategy, balancing cost, effectiveness, and environmental impact.

4. Peer Review: Present the plan for feedback from classmates and refine based on critiques.

5. Assessment: Final examination and mid-term as outlined in the course plan.

   
   

CLO3: Explain Different Types of Herbicide Application (A3)

Activity Name: Herbicide Application Workshop
Scenario: Students conduct a hands-on laboratory session to explore different herbicide formulations and application methods.
Steps:

1. Lab Setup: Prepare different herbicide types (e.g., contact, systemic, selective, non-selective).

2. Testing: Apply herbicides to different weed species under controlled conditions.

3. Data Analysis: Observe herbicide uptake, movement, and efficacy over time.

4. Reflection: Write a practical report discussing findings and the advantages of various herbicide types.

5. Assessment: Practical report and mid-term examination.

CLO4: Demonstrate Different Weed Management Strategies (A3, PLO4)

Activity Name: Future of Weed Management Debate
Scenario: Students explore emerging weed management technologies and practices.
Steps:

1. Literature Review: Research recent innovations in weed management, including precision agriculture and biocontrol.

2. Debate Preparation: Form teams to advocate for different management strategies (e.g., organic vs. chemical approaches).

3. Presentation: Host a class debate on the pros and cons of each strategy.

4. Critical Reflection: Submit a reflection on the debate, evaluating the strengths and weaknesses of the strategies discussed.

5. Assessment: Assignment and group work as per the course outline.

Summary By ChatGPT Consensus

Using the FILA table helps students organize their thoughts and plan investigations (Investigation Phase). They’ll identify learning needs, explore resources, and propose management strategies (Exploration phase).

By connecting textbook knowledge to real clinical practice students will going through the Conclusion phase.

Each of these activities maps onto the key IBL phases, helping students develop critical thinking, empathy, and clinical reasoning.

1. Clarify the C4 learning outcome

Learners will be able to analyse the historical development of Industrial Relations and Human Resource Management, demonstrate where the two fields intersect, and justify why both deserve status as academic disciplines.

Design every activity, resource and assessment around this outcome so the inquiry stays focused.

2. Choose an authentic “trigger” problem

IBL works best when students confront a messy, real-world situation that cannot be solved by memorising definitions. Examples:

Possible Trigger: Plant closure after union wage dispute that prompts HR to redesign its people strategy

Why it works: Forces learners to trace both the collective-bargaining (IR) angle and individual HR policy responses

Possible Trigger: Gig-economy platform accused of unfair dismissal

Why it works: Highlights new legal grey zones where IR law and HR tech policy collide

Possible Trigger: Merger of two companies with different works-council traditions

Why it works: Shows how IR institutions shape strategic HR integration

3. Map the IBL cycle to IR/HR analysis

IBL Stage: Ask / Problem-posing

Example activities (C4 focus): Students frame inquiry questions such as “How did the decline of closed-shop unionism shift the balance toward internal HR grievance systems?”

IBL Stage: Investigate

Example activities (C4 focus):

• Collect primary sources (collective agreements, HR manuals, legal judgments)

• Interview HR & union reps

• Build a timeline of legislative reforms (e.g., Wagner Act → Taft-Hartley → enterprise bargaining)

IBL Stage: Analyse

Example activities (C4 focus):

• Code evidence under “IR-dominant”, “HR-dominant”, “overlap”

• Use concept-mapping software to visualise linkages

• Apply a root-cause analysis (fish-bone) to the trigger problem

IBL Stage: Construct / Explain

Example activities (C4 focus): Teams draft a position paper or podcast explaining exactly how IR forces shaped HR policy and vice-versa

IBL Stage: Reflect / Discuss

Example activities (C4 focus): Structured debrief: “Where did our IR lens miss an HR implication?” “What gaps in HR analytics ignore collective voice?”

IBL’s emphasis on student-generated questions and evidence-based argument is what pushes them into true analytical (C4) territory rather than rote description. (franklinpierce.edu, ERIC)

4. Scaffold from structured to open inquiry

Level of inquiry: Structured (Week 1–2)

Scaffolding you provide: Give the key question and curated data sets

Student autonomy: Focus on analysing, not searching

Level of inquiry: Guided (Week 3–4)

Scaffolding you provide: Supply only the trigger; teams decide sub-questions & sources

Student autonomy: Moderate research freedom

Level of inquiry: Open (Capstone)

Scaffolding you provide: Students choose any contemporary IR/HR convergence issue

Student autonomy: Full inquiry ownership

Research shows that beginning with structured inquiry raises confidence before moving into deeper, student-directed analysis. (Oxford Academic)

5. Build C4-aligned assessment

Artefact: Comparative timeline of IR legislation vs. HR strategy milestones

C4 evidence: Demonstrates ability to identify patterns and connections

Artefact: Concept map linking dispute-resolution mechanisms to HR policy

C4 evidence: Shows deconstruction of complex systems

Artefact: Reflective essay or viva defending why IR & HRM merit separate yet linked fields

C4 evidence: Requires justification with evidence

Use a rubric that weighs (a) depth of analysis (b) quality of evidence (c) clarity of the IR/HR interrelationship.

6. Learning resources & tools

• Digital repository of union contracts, HR policy handbooks, labour-law cases

• Concept-mapping apps (Coggle, MindMeister)

• Mixed-method research briefs on recent workplace disputes

• Short readings on IBL pedagogy for self-reflection (e.g., Shanlax Int. J. Education article on inquiry methods; linked above) (ERIC)

7. Translating to workplace or executive education

1. Mini-inquiries (1-day sprints): Managers analyse their own grievance or performance-management data alongside IR obligations.

2. Action-learning sets: Cross-functional teams test solutions in live cases, then reconvene for evidence-based reflection.

3. Peer-consulting panels: Participants present an IR/HR challenge and invite probing questions—a microcosm of the IBL “ask–investigate–explain” loop.

Key take-aways

• IBL’s questioning, data-gathering and sense-making stages align perfectly with Bloom’s C4 aims.

• By anchoring the inquiry in authentic IR/HR dilemmas, you ensure students must treat the two disciplines as interconnected.

• Structured-to-open scaffolding lets novices gain confidence before tackling complex, contemporary issues.

• Assessment artefacts (timelines, concept maps, reflective defenses) surface exactly the analytical competence your learning outcome demands.

Adopt, adapt and iterate—IBL is itself an inquiry process. As both IR and HRM continue to evolve (think AI scheduling algorithms, transnational union networks), the same framework will keep your course or training program current and intellectually rigorous.

Revise after watching ther video:

I believe what have been suggested in the above AI generated answer, does reflect a suitable Inquiry-Based Learning (IBL) for my subject. This is because the suggested IBL seems to be able to enhance students’ ability to critically analyse the historical development of Industrial Relations (IR) and Human Resource Management (HRM). At the same time, by giving students tasks that explore real-world working issues scenarios, such as gig worker disputes or union negotiations, I believe students should be able to move beyond memorisation in their process to evaluate how IR and HRM intersect. The structured phases, from posing questions to data interpretation, could allow students to develop informed perspectives grounded in evidence. Reflection activities further promote awareness of gaps in both policy and practice. Thus, I believe that this method aligns with Bloom’s C4 learning outcomes, in which it could foster analytical thinking and justification among students. Through this IBL approach, students will not only understand both fields as academic disciplines but will also appreciate their practical relevance in shaping equitable and strategic workplace practices for their post-graduate employment.

AI-Generated Summary (from ChatGPT):

To implement IBL in an undergraduate Group Dynamics course aimed at enhancing students' understanding of group processes, roles, and collaboration, you can follow these strategies:

1. Design Real-World Group Scenarios

Present students with a case such as a dysfunctional workgroup, student committee, or project team. Ask them to identify group roles, sources of conflict, leadership dynamics, and propose strategies for improvement. This encourages inquiry into group behavior through observation and analysis.

2. Student-Led Inquiry Projects

Students can form their own small groups, select a real or hypothetical team scenario, and investigate a specific question (e.g., “How does groupthink affect decision-making in high-stress environments?”). They collect data (interviews, observations, simulations), analyze it, and present findings.

3. Use Guiding Questions

Frame the learning around key inquiry questions:

What factors influence group cohesion?

How do group norms develop?

Why do some teams succeed while others fail?

4. Role-Playing and Reflection

Encourage students to take on group roles (e.g., leader, mediator, observer) during simulations. Afterward, they reflect on their experience, linking it to theoretical frameworks.

5. Facilitator’s Role

As the educator, your role is to:

Guide students through the inquiry cycle (Ask → Investigate → Create → Discuss → Reflect)

Provide frameworks and tools

Encourage critical thinking without giving direct answers

1. Use of Driving Questions:

   • Pose open-ended, inquiry-based questions such as:

     • “How do electoral systems influence political fairness?”

     • “What role does social media play in shaping youth political engagement?”

   • These questions foster analytical thinking and prompt students to investigate deeply.

2. Real-World Inquiry Activities:

   • Assign students to explore real political cases, like Malaysia’s 15th General Election (GE15), conduct interviews with local politicians, or analyze voter turnout data from the Election Commission (SPR).

   • This approach links political theories to practical realities.

3. Collaborative Projects and Simulations:

   • Students can engage in group activities like simulating parliamentary debates, drafting alternative policy proposals, or organizing mock elections.

   • These projects build skills in communication, teamwork, negotiation, and decision-making.

4. Reflective Practices and Process-Based Assessment:

   • Encourage weekly learning journals where students reflect on what they’ve discovered and how their perspectives have evolved.

   • Use rubrics that emphasize research depth, critical analysis, and theory-to-practice application instead of just factual recall.

5. Technology Integration:

   • Use digital tools such as Padlet, Google Forms, Canva, and even AI platforms like ChatGPT to brainstorm inquiry questions, conduct surveys, visualize data, and explore political concepts interactively.

   • These tools promote engagement, creativity, and critical thinking.

IBL Implementation Suggestion in Political Science Course:

• Course Title: Political Institutions and Democratic Processes

• Learning Objective: To enable students to evaluate the functions of political institutions and investigate the dynamic relationship between voters, political parties, and media.

• Student Level: Undergraduate, Year 2 or 3

• IBL Methodology: Real-world research projects, peer presentations, theory-application papers, and simulations of political environments.

AI can make Inquiry-Based Learning (IBL) easier and more engaging in political science classes. It helps students generate good questions by providing ideas and guiding the start of their research. AI also assists in finding and explaining information, offering simple summaries and clarifying complex topics. In terms of research, AI tools can help students locate real data, academic articles, or analyze opinions from social media. Additionally, AI improves writing and presentations by offering grammar support, generating ideas, and even helping with slide design. It also encourages reflection by prompting thoughtful questions that help students think about what they’ve learned. Finally, AI supports lecturers by helping create quizzes, lesson plans, and providing quick feedback. In short, AI makes learning more effective for students and teaching more efficient for lecturers, especially when dealing with real-world political issues.

Use guided inquiry where students are given a scenario or problem, and they must identify OOP principles required to design a solution.

Example :

• Scenario: “Design a simple inventory system for a bookstore.” [Orientation]

• Task: In groups, students investigate how to use objects, classes, inheritance, encapsulation, and polymorphism in modeling the problem. [Conceptialization + Investigate]

• Inquiry Questions:

  • What objects can be identified in this scenario?

  • How do these objects relate (inheritance)?

  • What properties and behaviors will each object have?

  • How can encapsulation be applied for data hiding?

• Outcome: Students present a UML class diagram and explanation . [Conclusion + Discussion]

CLO2: Construct C++ programs using different types of data structures (P4)

Use structured inquiry for labs and hands-on tasks, where students are asked to build solutions, but must explore and choose appropriate data structures.

Example:

• Task: “Build a contact management system.”

• Inquiry Prompt: Students decide which data structure (array, linked list, hash map, tree) is most suitable and implement it. [Orientation]

• Challenge: Each group uses a different data structure, and then they compare results. [Orientation]

• Support: Provide documentation, some skeleton code, and debugging checklists. [Conceptualization]

• Outcome: C++ code, a brief reflection on the data structure chosen, and demonstration. [Conclusion + Discussion]

CLO3: Analyze the impact of data structures and algorithm design on performance (C4)

Use open inquiry or comparative analysis where students must evaluate and compare performance.

Example:

• Experiment: “Compare the efficiency of linear search vs binary search, or linked list vs array for insertion.”

• Inquiry Questions: [Orientation+ Conceptualization]

  • How does time/space complexity change with input size?

  • What trade-offs exist between different data structures?

  • Can we improve performance with another data structure?

• Tools: Use simple benchmarking in C++ (chrono library), or visual algorithm simulators. [Investigate]

• Outcome: Analytical report with code snippets, charts, and conclusions. [Conclusion +Discussion]

1. Structure the Course Around Key Mathematical Questions

IBL encourages students to ask and investigate questions. You can design learning modules that begin with real-world or computer science-related problems, such as:

• “How can we predict traffic on a website using matrices?” (Linear Algebra)

• “How do we use data to make decisions about user behavior in an app?” (Statistics)

Let students explore these questions using guided activities.

2. Design IBL Activities Aligned with CLOs

CLO1: Demonstrate understanding (C2)

Use exploratory tasks and group investigations to help students develop their understanding.

• Activity Idea: Provide a dataset (e.g., user login data, sensor data) and ask students to explore it to find patterns using mean, median, mode, standard deviation.

• Linear Algebra Task: Let students manipulate simple systems of equations or matrices to find patterns (e.g., solving systems to understand linear independence).

IBL Strategy: Use worksheets with minimal guidance, promoting exploration before any formal instruction.

CLO2: Apply techniques (C3)

Have students work on project-based tasks or case studies that simulate computing problems.

• Example: "Design a basic recommender system using user-rating data and matrix operations."

• Statistical Application: Analyze performance data from an app to determine improvements using hypothesis testing or regression.

IBL Strategy: Students work in teams to propose solutions, test techniques, and present findings.

3. Incorporate Scaffolding and Reflection

Because these are foundation students, you’ll need to support their inquiry:

• Use question prompts to guide thinking (e.g., “What happens when you change one variable?”).

• After an activity, have students reflect: “What technique did you use? Why did it work (or not)?”

4. Sample IBL Session Flow

Phase Activity Outcome Launch Present a real-world computing problem (e.g., data compression using matrix transformations) Sparks curiosity Explore Students experiment with methods to model the problem Develop conceptual understanding (CLO1) Discuss Class discusses findings, connects to formal techniques Deepens understanding Apply Students use techniques in new but related problems Practice application (CLO2)

5. Tools & Resources

• Jupyter Notebooks or Google Colab for hands-on computation.

• Desmos or GeoGebra for visualizing matrices and statistical distributions.

• Online datasets from Kaggle or UCI Machine Learning Repository.

CLO1 Interpret text types in understanding their content. [C2]

CLO2 Produce texts in the genres covered. [A2]

CLO3 Present viewpoints using appropriate structures and language features.

[A2]

CLO4 Respond to given topics using creative use of language. [P2]

in reading, listening, speaking and writing for foundation level students.

CLO1: Interpret text types in understanding their content. [C2]

Skill focus: Reading & Listening

IBL Approach:

Inquiry Question: “What makes a text informative, persuasive, or narrative?”

Activity:

Give students a variety of authentic texts (articles, letters, scripts, blogs).

In groups, they identify features (e.g., structure, tone, vocabulary).

They create a comparison chart and present their findings.

They form their own definitions of text types based on patterns they observe.

Role of Educator: Guide them with probing questions, provide text samples, and facilitate group analysis.

---

CLO2: Produce texts in the genres covered. [A2]

Skill focus: Writing

IBL Approach:

Inquiry Question: “How do writers create texts that suit different purposes?”

Activity:

After analyzing text types (from CLO1), students research a real-world scenario (e.g., writing a blog post to inform teenagers about cyberbullying).

They work in pairs to plan and draft a piece in the required genre.

Use peer feedback rounds to revise and improve.

Role of Educator: Offer scaffolding, checklists, and targeted feedback.

---

CLO3: Present viewpoints using appropriate structures and language features. [A2]

Skill focus: Speaking & Writing

IBL Approach:

Inquiry Question: “How can we present opinions effectively?”

Activity:

Introduce students to debates or opinion articles/videos.

Students analyze persuasive techniques.

In small groups, they research a current issue (e.g., “Should AI be allowed in classrooms?”) and prepare a structured argument.

They then present a mini debate or a recorded podcast episode.

Role of Educator: Model good opinion statements, provide speaking frameworks, and mediate the debate.

---

CLO4: Respond to given topics using creative use of language. [P2]

Skill focus: Speaking, Writing, Listening, Reading

IBL Approach: Drama Presentation:

Inquiry Question: “How can we express ourselves creatively through characters and stories?”

Activity:

Students read or listen to a short story/scene and analyze character motivations and themes.

Then they create their own short drama script responding to a theme (e.g., "belonging", "choices", or "freedom").

Groups perform the skit with a focus on tone, dialogue, and creativity in language.

Allow reflection: “How did we make language choices to express emotion or conflict?”

Role of Educator: Provide drama scaffolds, monitor group dynamics, encourage risk-taking in language use.

Here is a revised version of my IBL activities to align with these phases:

CLO1: Distinguish Major Weeds and Their Economic Importance (C4, PLO2)

Activity Name: Weed Identification and Economic Impact Analysis
Phases of Inquiry:

1. Orientation: Introduce students to the importance of weed identification and economic impact in agriculture. Use real-world examples of how weeds reduce crop yield and increase production costs.

2. Conceptualization: Formulate guiding questions like, "What are the most economically significant weeds in our region?" and "How do these weeds impact agricultural productivity?"

3. Investigation: Conduct a field survey to identify common and noxious weeds in the local environment. Use field guides and classification manuals to identify collected samples.

4. Conclusion: Analyze findings to identify the most economically impactful weeds and their characteristics.

5. Discussion: Share findings in class, comparing economic impacts across different weed species. Reflect on the identification process and possible improvements.

6. Assessment: Practical report and mid-term examination as per course outline.

CLO2: Analyze Weed Control Strategies (C4, PLO2)

Activity Name: Designing a Weed Management Plan
Phases of Inquiry:

1. Orientation: Introduce different weed control methods (cultural, biological, mechanical, chemical) and their importance.

2. Conceptualization: Guide students to develop research questions like, "What combination of control methods is most effective for specific weed species?"

3. Investigation: Use field visits or case studies to assess weed problems and evaluate control strategies.

4. Conclusion: Create a comprehensive weed management plan, balancing cost, effectiveness, and environmental impact.

5. Discussion: Present the plan for peer review and refine based on feedback. Reflect on the strengths and weaknesses of the proposed strategies.

6. Assessment: Final examination and mid-term as outlined in the course plan.

   
   

CLO3: Explain Different Types of Herbicide Application (A3)

Activity Name: Herbicide Application Workshop
Phases of Inquiry:

1. Orientation: Introduce the principles of herbicide application, including contact vs. systemic and selective vs. non-selective formulations.

2. Conceptualization: Formulate guiding questions like, "How do different herbicide formulations affect weed control efficacy?"

3. Investigation: Conduct a hands-on laboratory session, testing different herbicide types on various weed species.

4. Conclusion: Analyze herbicide effectiveness based on uptake, movement, and overall plant response.

5. Discussion: Share lab results in small groups, discussing the pros and cons of each application method. Reflect on potential improvements for future trials.

6. Assessment: Practical report and mid-term examination.

   
   

CLO4: Demonstrate Different Weed Management Strategies (A3, PLO4)

Activity Name: Future of Weed Management Debate
Phases of Inquiry:

1. Orientation: Present emerging weed management technologies, including precision agriculture, biocontrol, and integrated weed management.

2. Conceptualization: Encourage students to formulate research questions like, "Which future weed management strategy is most sustainable?"

3. Investigation: Review recent literature and case studies on innovative weed management strategies.

4. Conclusion: Summarize findings and prepare for a structured debate.

5. Discussion: Host a class debate, encouraging critical evaluation of each strategy. Reflect on the debate outcomes in a follow-up assignment.

6. Assessment: Assignment and group work as per the course outline.

Summary

Inquiry-Based Learning (IBL) empowers students to frame questions, investigate issues, and construct knowledge through active exploration. Integrating IBL in a Mobile Computing course can deepen understanding of mobile concepts (C2), foster design skills in application development (C4), and enhance hands-on implementation abilities with SDKs (P5). By leveraging mobile inquiry platforms like SMILE, field data collection tools such as Research Buddy, and collaborative frameworks like MEIBL, instructors can align activities directly to each learning objective. Well-designed rubrics, peer review mechanisms, and reflective practices ensure rigorous assessment of both process and product.

What Is Inquiry-Based Learning?

Inquiry-Based Learning centers student‐driven questioning and exploration rather than passive reception of information (Coursera). It involves these core phases:

1. Questioning: Students generate researchable questions from observations (Academic Technologies).

2. Investigation: Learners gather data via experiments, mobile sensing, or literature reviews (Coursera).

3. Collaboration: Teams analyze findings, share insights, and co‐construct understanding (Academic Technologies).

4. Reflection: Students evaluate methods, synthesize results, and articulate conclusions (Coursera).

Benefits of Mobile-Enhanced IBL

• Contextualized Learning: Mobile devices allow real‐time data collection in authentic environments, boosting engagement (EDUCAUSE Review).

• Multimedia Inquiry: Tools like Stanford’s SMILE enable students to capture images and craft multimedia questions, fostering deeper conceptualization (GSE IT).

• Scalable Peer Assessment: Mobile apps can distribute peer-rated quizzes generated by students themselves, promoting metacognition and critical evaluation (GSE IT).

Aligning IBL with Course Objectives

Objective 1: Describe Mobile Computing Concepts [C2]

• Activity: Use SMILE for students to photograph mobile app interfaces or network diagrams and formulate descriptive questions (e.g., “How does HTTP differ from HTTPS in mobile browsers?”) (GSE IT).

• Outcome: Students articulate core concepts in their own words, reinforcing comprehension through teaching-through-questioning.

Objective 2: Apply Concepts in Mobile Application Design [C4]

• Activity: In small teams, learners engage in MEIBL-style labs where they identify a real‐world problem (e.g., campus navigation), propose a mobile solution, and create wireframes (EDUCAUSE Review).

• Outcome: Students map theoretical principles (e.g., UX constraints, sensor APIs) to concrete design decisions, evidencing applied understanding.

Objective 3: Implement with an SDK [P5]

• Activity: Employ Research Buddy (a mobile data‐collection SDK) for a mini project; learners develop an Android prototype that logs environmental sensor data and visualizes it in real time (OhioLINK ETD Center).

• Outcome: Hands-on coding solidifies SDK usage patterns (e.g., permission handling, asynchronous callbacks) and problem-solving benchmarks.

Strategies and Activities

1. Student-Generated Inquiry via SMILE

• Platform Setup: Install SMILE or a similar open-source mobile inquiry app.

• Workflow: After each module, students capture artifacts (screenshots, code snippets) and craft multiple‐choice or short‐answer questions. Peers rate questions for clarity and relevance. (GSE IT).

2. Mobile Field Data Collection with Research Buddy

• Scenario: Cognitive science undergraduates investigate human mobility patterns on campus.

• Implementation: Students customize Research Buddy’s SDK to record GPS and accelerometer data, then analyze correlation between device movement patterns and cognitive load. (OhioLINK ETD Center).

3. Collaborative MEIBL Projects

• Design Sprint: In teams, learners follow MEIBL’s iterative cycle—ideation, prototyping, testing—using mobile devices as both research and development tools (EDUCAUSE Review).

• Peer Review: Teams exchange prototypes for usability testing on-device, gathering qualitative feedback.

4. Reflection and Metacognition

• Journaling: After each inquiry phase, students submit brief reflections on challenges faced, strategies used, and conceptual connections.

• Rubrics: Use rubrics that assess question quality, technical implementation, and reflection depth.

Assessment and Evaluation

• Formative: Peer-rated inquiry questions via SMILE establish ongoing feedback loops (GSE IT).

• Summative: Final projects assessed on design rationale (C4) and code functionality (P5) using clear rubrics aligned with IBL stages.

• Self-Assessment: Reflection logs graded for metacognitive growth.

Tools and Resources

Tool Purpose Citation SMILE Student-generated question platform (GSE IT) Research Buddy SDK Mobile data collection and analysis (OhioLINK ETD Center) MEIBL framework Collaborative inquiry cycle (EDUCAUSE Review) University of Miami IBL Guide Pedagogical best practices (Academic Technologies)

Conclusion

By weaving IBL practices into mobile computing pedagogy—through student-crafted questions, real-world data gathering, and collaborative prototyping—undergraduates in Cognitive Science can achieve deeper conceptual understanding (C2), robust design skills (C4), and proficient SDK-based development (P5). Rigorous assessment, reflective exercises, and suitable mobile platforms transform the classroom into an active research environment that primes students for both academic inquiry and professional innovation.

• Course Name: Soft Soil Engineering (KNS6163)

• Student Level: Master of Eng. in Civil Engineering, Semester 2, Year 1

• Learning Outcomes (CLOs): The course aims to enable students to:

  CLO1: Formulate soft soil types based on shear strength and consolidation parameters.

  CLO2: Estimate settlements and design foundation systems on soft soils.

  CLO3: Evaluate ground improvement techniques.

  CLO4: Relate technical knowledge on ground improvement and stability, and justify findings in presentations.

• Learning Areas: The course covers soft soil identification, classification, shear strength, consolidation, deep foundations, and ground improvement techniques.

2. IBL Implementation Strategies

Here are a few ways to implement IBL, linking them to specific CLOs and course content:

• IBL for Ground Improvement Techniques (CLO3):

  Inquiry Question: "How do different ground improvement techniques perform under varying soft soil conditions and loading scenarios in Sarawak?"

  IBL Activity:

  • Students are given case studies of infrastructure projects in Sarawak involving soft soils (e.g., coastal road construction on peat, building foundations on Kuching's deltaic deposits). They investigate the soil conditions, the challenges faced, and the ground improvement techniques used.

  • Students, working in groups, research and compare different ground improvement methods (preloading, vertical drains, stone columns, etc.) and evaluate their suitability for the given case studies.

  • They might use software to model different solutions.

  • Finally, they present their findings, justifying their recommended ground improvement strategy for each case.

    
    

  • Contextualization: This activity directly relates to the local Sarawak context, making it more engaging and relevant. It also aligns with CLO3 by requiring students to evaluate and select appropriate ground improvement methods.

• IBL for Settlement and Foundation Design (CLO2):

  • Inquiry Question: "How can we design a stable foundation for a proposed structure on a specific soft soil site, considering long-term settlement and potential risks?"

  • IBL Activity:

    • Provide students with a hypothetical scenario: designing the foundation for a building or bridge on a site with known soft soil properties.

    • Students must investigate site investigation methods, analyze soil test data, predict settlement using different methods, and design a suitable foundation system (shallow or deep foundations).

    • They explore the factors influencing foundation design choices and consider potential challenges.

    • Students present their design, justifying their choices with calculations and considering safety and economic factors.

  • Contextualization: You can make this more relevant by using local soil data or a real-world project site (with appropriate permissions and anonymization if needed). This activity aligns with CLO2, focusing on settlement estimation and foundation design.

• IBL for Soft Soil Classification (CLO1):

  • Inquiry Question: "How do the index properties of different soft soil samples influence their engineering behavior and classification?"

  • IBL Activity:

    • Students are given different soft soil samples (or data from lab tests).

    • They conduct experiments (or analyze provided data) to determine index properties like moisture content, Atterberg limits, specific gravity, etc.

    • students classify the soils based on standard classification systems.

    • They then investigate how these index properties relate to shear strength, consolidation characteristics, and potential engineering problems.

    • Students present their findings, discussing the implications of soil classification for construction.

  • Contextualization: If possible, use soil samples from local construction sites or areas with known soft soil issues. This activity supports CLO1 by focusing on the classification of soft soils.

3. Assessment in IBL

• The assessment methods in the document (Assignments, Projects, Quizzes) can be adapted to IBL.

• For IBL projects, assess not only the final product (e.g., design report, presentation) but also the inquiry process itself:

  • Quality of research questions

  • Evidence of critical thinking and problem-solving

  • Collaboration and teamwork (if applicable)

  • Effective communication of findings

By integrating IBL with a local context, I can make the Soft Soil Engineering course more engaging, relevant, and effective in achieving its learning outcomes.

(For Final-Year Strategic Management Class)

Objective: Help students understand and apply Porter’s Five Generic Strategies through real-world inquiry and analysis.

IBL Steps:

1. Trigger a Real-World Problem
   Scenario: “You’re the new strategic lead of a Malaysian company facing disruption. Which strategy should you choose to stay competitive?”

2. Student Inquiry
   Students ask open-ended questions like:

   • “How does digital change affect cost leadership?”

   • “Can a company shift from cost leadership to differentiation?”

3. Investigation Phase
   In groups, students:

   • Choose a real Malaysian company

   • Identify its current strategy

   • Analyze how it’s transforming (or needs to)

4. Application & Strategy Pitch
   Students present:

   • The current strategy

   • A recommended shift in strategy (if needed)

   • Strategic justification with data

5. Reflection & Discussion
   Class reflects on patterns and key takeaways from group findings.

✅ Benefits:

• Enhances critical thinking

• Encourages real-world application

• Promotes collaboration and ownership of learning

The process begins with an open-ended inquiry prompt that invites students to think beyond memorizing lines or staging scenes. For example, students might explore questions such as “How can drama give voice to marginalized experiences?” or “In what ways does body language communicate more than dialogue?” These questions not only shape their dramatic content but also encourage deeper thematic exploration. In groups, students research social issues, character development, and dramatic techniques, using AI tools to enhance their creative process. This task aligns with CLO4: Respond to given topics using creative use of language [P2], as students must demonstrate originality and expressiveness in how they craft and perform their scenes.

AI-assisted platforms like ChatGPT can help students brainstorm ideas, explore character motivations, or even generate dialogue options based on different tones or emotions. Tools such as text-to-speech converters or voice modulation apps allow students to experiment with vocal delivery, while AI-powered video or design tools (like Runway ML or Canva) help visualize set designs, costumes, or lighting, making their presentation more engaging and thoughtful.

Throughout the preparation process, the teacher facilitates rather than directs, guiding students with questions, suggesting resources, and helping them reflect on their creative decisions. For instance, students can be prompted to consider: “How does your performance align with the message you want to convey?” or “What effect do your staging and sound choices have on the audience?” AI tools can also assist with rehearsal reflections whereby students might record their run-throughs, use transcription software to analyze their dialogue pacing, or get AI-generated feedback on their body language or tone.

When students present their 15-minute drama, it becomes more than just a performance, it is the culmination of a rich, inquiry-driven process where AI served as a supportive tool rather than a replacement for creativity. Their ability to creatively respond to the topic through language, movement, and dramatic expression directly demonstrates the achievement of CLO4. After the performance, students engage in reflection, discussing how their choices addressed the initial inquiry and how the use of AI tools enhanced their planning and execution.

In conclusion, combining Inquiry-Based Learning with AI in a 15-minute drama presentation task not only makes the assignment more meaningful but also equips students with critical skills for both artistic expression and digital literacy. It transforms the classroom into a collaborative space of exploration, innovation, and self-directed learning; key elements of 21st-century education and a strong foundation for fulfilling course learning outcomes like CLO4.

• Prompt: “You’ve been hired to design a campus wayfinding app that must run for 24 hours on a single charge. What challenges might you face?”

• Goal: Engage curiosity about real‐world trade‐offs (battery vs. sampling, network vs. local processing) and surface background knowledge of mobile‐computing concepts (Objective 1: C2).

Conceptualization
Students formulate the key inquiry focus via one of two sub-paths:

1. Questioning (Data-driven)

   • Activity: In small teams, examine sample GPS logs from a tutorial app and ask open questions (e.g., “How does sampling interval affect accuracy and power?”).

   • Objective Mapping: C2—articulate concepts in their own words; C4—begin sketching design constraints.

2. Hypothesis Generation (Theory-driven)

   • Activity: Based on readings about Android’s LocationManager, propose hypotheses such as “Reducing sampling from 1 Hz to 0.1 Hz will extend battery life by at least 20 %.”

   • Objective Mapping: C2—link concept definitions to measurable outcomes; C4—plan design features before prototyping.

Investigation
Students carry out hands-on exploration and experimentation, then interpret their data:

1. Exploration

   • Activity: Use a bare‐bones Android template to log GPS at different intervals (e.g. 1 Hz, 0.5 Hz, 0.067 Hz).

   • SKDs & Tools: Android Studio; Research-Buddy SDK for sensor access.

   • Objective Mapping: P5—gain familiarity with SDK setup and asynchronous callbacks.

2. Experimentation

   • Activity: Run each sampling regime on a test device for a fixed duration, recording battery percentage and timestamp.

   • Data Collection: CSV logs of battery drain vs. time and sampling rate.

3. Data Interpretation

   • Activity: Plot battery remaining over time for each rate and compute average drain per hour.

   • Objective Mapping: P5—analyze real data; C4—derive design guidelines (e.g., recommended sampling rates).

Conclusion
Students synthesize and communicate their findings:

• Deliverable: A brief report or presentation answering “What sampling rate balances location accuracy with battery life for a 24 h deployment?”

• Assessment: Rubric evaluates clarity of conclusion (C2), soundness of design recommendation (C4), and correctness of data‐driven implementation (P5).

Communication & Reflection
Embedded throughout:

• In‐action Communication: Peer review of questions and hypotheses during Conceptualization and Investigation.

• In‐action Reflection: Short “minute papers” after Exploration and Experimentation: What surprised you? What would you change?

• On‐action Communication: Final group presentations with Q&A.

• On‐action Reflection: End‐of‐project journal: How did your initial questions or hypotheses evolve? What did you learn about mobile‐app design constraints?

By following these phases—Orientation → Conceptualization (Questioning / Hypothesis) → Investigation (Exploration → Experimentation → Data Interpretation) → Conclusion, with ongoing Communication & Reflection—students will discover firsthand how implementation choices (sampling rate, sensor use, SDK patterns) impact mobile‐app performance, rather than simply being told abstract principles.

• Engaging students with real-world scenarios and posing overarching inquiry questions.

• Facilitating student-led exploration of different valuation methods (DCF, comparable, precedent transactions, asset-based) through group work, guiding questions, and resources.

• Encouraging critical evaluation of the assumptions, advantages, and limitations of each method.

• Providing opportunities for students to share their findings, compare different approaches, and synthesize their understanding through presentations and discussions.

• Deepening their learning through application in advanced case studies, negotiation simulations, guest speakers, and research projects.

All these involve a 4 Phase of Setting the stage, Exploration, Sharing and Synthesis as well as Application & Extension. In setting the stage, students being introduce to M&A valuation challenge which lead to exploration of investigating valuation methods. From that, students able to present and compare the valuation methods and apply in a real-world situation to deepen their understanding.

1. Redesign Learning Units with IBL Approaches

LU2: Speaking (Group Discussion)

• IBL Activity: Replace passive mock discussions with student-led inquiry debates.

  • Assign controversial topics (e.g., "Social media harms interpersonal communication") and have students research, gather evidence, and formulate arguments before the discussion.

  • Use the "Think-Pair-Share" model: Students research individually → discuss in pairs → present to the group.

  • Assessment: Evaluate based on quality of evidence, logical reasoning, and responsiveness (aligns with CLO3 and CLO4).

LU3: Writing (Email/Letter)

• IBL Activity: Real-world inquiry tasks.

  • Have students investigate a local issue (e.g., campus sustainability) and write a formal email/letter to a stakeholder (e.g., university administration) proposing solutions.

  • Students must research the issue, interview peers, and cite sources.

  • Assessment: Grade for research depth, persuasive language, and structure (aligns with CLO2).

LU5: Listening & LU4: Reading

• IBL Activity: Critical analysis of multimedia texts.

  • Provide podcasts/news clips (listening) or articles (reading) on current events. Students identify biases, summarize key points, and pose follow-up questions for further inquiry.

  • Example: Compare two news sources on the same event and analyze differences in viewpoints.

  • Assessment: Quizzes can include reflective questions (e.g., "What evidence supports the speaker’s claim?").

LU6: Literature (Final Project)

• IBL Activity: Student-driven literary analysis.

  • Instead of prescribing texts, let groups choose a short story/poem and investigate its themes/historical context.

  • Guide them to ask: How does this reflect societal values? or Why did the author use this symbolism?

  • Final Project: Adapt their analysis into a script, justifying creative choices (e.g., "We modernized the setting because...").

    
    

2. Adjust Assessments for IBL

·         Speaking (25%): Include a rubric criterion for "evidence-based arguments" (e.g., 5 points for using researched data).

·         Writing (25%): Add a "research and citation" component (e.g., 10% of the grade).

·         Final Project (30%): Require a reflective report explaining how inquiry shaped their dramatization (e.g., "We changed the protagonist’s gender after researching gender stereotypes in literature").

3. Instructor Role in IBL

·         Facilitate, not lecture:

o    During OBL sessions, pose open-ended questions (e.g., "What strategies could make your letter more persuasive?").

o    Provide curated resources (e.g., databases for LU3 research) but let students explore independently.

·         Feedback: Focus on process over product (e.g., "How might you verify this source’s credibility?").

4. Timeline Integration

·         Weeks 1–3 (LU2): Introduce IBL with guided inquiry (e.g., provide starter sources).

·         Weeks 4–6 (LU3): Scaffold research skills (e.g., library workshop).

·         Weeks 15–18 (LU6): Let students design their own inquiry questions for the final project.

5. Resources for IBL

·         Tools: Google Scholar, Padlet (for collaborative inquiry), or Flipgrid (for peer feedback).

Expected Outcomes

·         Deeper engagement: Students connect lessons to real-world problems.

·         Critical thinking: Evidence-based discussions replace rote memorization.

·         Alignment with CLOs: Especially CLO3 (presenting viewpoints) and CLO4 (creative language use).

1. Connect Entrepreneurship with Public Interest (Curiosity as a Starting Point)

Since your students are from a politics and government program, they might not see themselves as future business owners. So, reframe entrepreneurship as social innovation or civic entrepreneurship—using creative ideas to solve public or community issues.

Sample Framing Questions:

• What is a small but meaningful problem in your community or campus?

• Who in your society is underserved or facing challenges?

• How can we improve access, fairness, or opportunity through a project?

This helps spark relevance and ownership, they start with a cause they care about.

2. Use Guiding Inquiry Questions (Driving the Learning Process)

Students should lead their own learning by asking and exploring open-ended questions. You’ll facilitate and scaffold the process.

Sample Inquiry Framework:

• Ask: What issue do I see in my community?

• Investigate: What are others doing about this? What are the gaps?

• Create: What could I do differently? How could I turn this into a service or campaign?

• Act: How will I plan and test my idea?

• Reflect: What did I learn and what could I improve?

Encourage group collaboration so they learn from each other’s viewpoints.

3. Encourage Ideation Through Tools & Activities (Creative Thinking)

Begin with activities that encourage divergent thinking and creativity, even if their ideas seem small at first.

Suggested Tools:

• SCAMPER (Substitute, Combine, Adapt, Modify, Put to another use, Eliminate, Reverse)

• Mind Mapping for problem exploration

• Persona Creation: Have students imagine who they’re helping and build a simple profile (age, needs, situation)

Example:

Students identify a lack of political awareness among youth in their area. They brainstorm ideas like:

• A mobile quiz game app about local government

• A street booth giving out simple pamphlets

• Hosting a small podcast or YouTube video series

4. Project Execution (Hands-on Activity)

Once an idea is chosen, help them break it into small actionable steps. Keep it simple, low-cost, and doable within a short time frame.

👉 Project Planning Template:

• Name of project

• Goal/purpose

• Target audience

• Key activities

• Resources needed (even basic ones like poster paper, phones)

• Timeline (1–2 weeks)

Encourage teamwork and give each group a role (planner, researcher, promoter, etc.).

5. Showcase and Reflect (Critical Thinking & Growth)

End the project with a showcase day or mini-presentation. Let students explain:

• What was the problem?

• What did they do?

• What impact did they make?

• What would they do differently next time?

• 
  

Use reflective journals or short video logs to support this.

Role of the Educator: Guide, Not Boss

• Motivate curiosity by asking guiding questions rather than giving solutions.

• Support team collaboration by helping students manage conflict or divide tasks.

• Give feedback throughout—especially to encourage risk-taking, not just polished results.

Example:

Project: "My First Voter" Campaign

Problem: Low youth voter registration.
Solution: Students create a simple info kit or Instagram page explaining how to register, who can vote, and why it matters.

Skills gained: Research, teamwork, digital communication, planning, civic awareness.

Final Thoughts:

IBL makes entrepreneurship real and personal. Instead of just teaching theories, it empowers students to create value with purpose. Even small projects can build confidence, curiosity, and creativity, skills they can take into their future roles in government or public service.

1. Formulate a Trigger/Problem (Ignite Curiosity)

Pose a clinical scenario to spark student inquiry. For example:

"A 45-year-old man with a sedentary lifestyle presents with chest pain. His lipid profile reveals elevated LDL and low HDL. How might his lipoprotein profile contribute to his cardiovascular symptoms?"

This gives the context and pushes students to ask why and how lipoproteins and cholesterol impact CVS.

2. Guide Students to Formulate Questions

Ask students to brainstorm questions such as:

• What are lipoproteins, and what are their types?

• What roles do LDL and HDL play in cholesterol transport?

• How does cholesterol metabolism relate to atherosclerosis or coronary artery disease?

Let them categorize questions under biochemical mechanisms, clinical relevance, and diagnostic markers.

3. Investigate (Self-directed Research)

Assign them to small groups to explore:

• Biochemical structure and function of lipoproteins

• Enzymes involved (e.g., LCAT, CETP, HMG-CoA reductase)

• Pathophysiology of cholesterol imbalance in CVS

• Biomarkers and clinical tests (e.g., LDL-c, HDL-c, triglycerides)

They can use lecture notes, review articles, videos, or curated case-based resources.

4. Facilitate and Scaffold

Your role:

• Clarify misconceptions

• Provide guiding questions if students are stuck

• Suggest relevant biochemical pathways or animations

5. Presentation and Discussion

Each group presents their findings using:

• Infographics, concept maps, or short presentations

• Highlight biochemical connections to clinical signs and symptoms

• Discuss diagnostic and therapeutic implications (e.g., statins targeting HMG-CoA reductase)

6. Reflect and Consolidate

Wrap up with a summary lecture or quiz tying student findings to your learning outcome. Ask:

• How does understanding HDL/LDL inform patient care?

• What lifestyle or pharmacological interventions relate to this biochemistry?

Assessment Ideas

• Formative: Group presentation rubric, participation

• Summative: Case-based SAQ/BAQ (e.g., “Explain how high LDL levels contribute to atherosclerosis and mention two biochemical pathways involved.”)

🔍 INQUIRY-BASED TEACHING & LEARNING PLAN

Topic: Clinical Psychology
Syllabus: CAIE A-Level Psychology (9990)
Key Areas Covered:

• Definitions and diagnosis of disorders

• Schizophrenia & depression

• Treatments (biological, cognitive, behavioural)

• Ethics and cultural considerations

🌟 OVERARCHING INQUIRY QUESTION

“How do we define, diagnose, and treat mental health disorders in an ethical, effective, and culturally aware way?”

🔄 5-PHASE IBL CYCLE + Activities

1. ORIENTING INQUIRY – “What Is Mental Illness?”

Activity: Case Study Starter: Is This Abnormal?

• Present 3–4 short fictional scenarios of individuals showing different behaviours (e.g., severe anxiety, hallucinations, cultural grief rituals).

• Students debate: “Is this person mentally ill?” and justify their opinions.

• Students write down their own questions: “What defines abnormality?”, “Are cultural factors considered?”, etc.

Learning Outcome Link: Definitions of abnormality, diagnosis reliability and validity.

2. FORMING QUESTIONS – “What Do We Need to Know?”

Activity: Build a Diagnostic Tool

• In groups, students investigate the DSM-5 and ICD-11 criteria for schizophrenia and depression.

• Then, they attempt to create their own diagnostic checklist based on symptoms they feel are essential.

• Compare with actual DSM/ICD.

• Each group shares one “I wonder…” question that arises (e.g., “Why do men and women present depression differently?”).

Learning Outcome Link: Classification systems, gender and cultural bias.

3. INVESTIGATING – “How Is It Treated and Why?”

Activity: Therapy Comparison Inquiry

• Assign each group a treatment: e.g., antipsychotic drugs, CBT, token economy, REBT.

• Provide research tasks:

  • How does it work?

  • Success rates?

  • Strengths and limitations?

  • Case example?

• Students design a client profile and recommend a treatment, justifying their decision using empirical evidence.

Learning Outcome Link: Treatments of disorders, effectiveness of therapies.

4. CREATING AND DISCUSSING – “What Would We Do in Practice?”

Activity: Ethics Roundtable: “What Should a Psychologist Do?”

• Groups receive a real-world dilemma (e.g., involuntary medication, misdiagnosis, therapy refusal).

• They act as different stakeholders (psychologist, patient, family member, legal advisor) and debate the best course of action using ethical principles (e.g., autonomy, beneficence, justice).

• Whole-class vote on most ethical action.

Learning Outcome Link: Ethical considerations in treatment and diagnosis.

5. REFLECTING & EXTENDING – “How Does This Apply to the Real World?”

Activity: Culture & Stigma Mini-Research

• Students investigate: “How is mental illness perceived in different cultures or communities?”

• Conduct a brief survey/interview or use media examples.

• Present findings in poster or presentation format.

• Reflection: “What can be done to reduce stigma and increase access to treatment?”

Learning Outcome Link: Cultural differences, social implications, labelling and stigma.

Are the phases reflected in what you have done?

I have realized that I often use IBL in my teaching, especially because students today are constantly on their gadgets, they tend to believe they already know more than us. To engage them meaningfully, I usually introduce a new learning unit by giving them a topic and asking them to prepare a set of questions, conduct their own research, and then share their findings with the class.

For example, I used IBL with my A-level (Year 13) students during the Clinical Psychology unit. They explored the topic independently and presented their research in class. While some of the information shared included stereotypical views of mental disorders which are often influenced by what they see on TikTok, the presentations sparked questions and led to class discussions. Through this process, students became more actively engaged and learned not only from the content, but also from one another’s perspectives.

Why IBL?

Inquiry-Based Learning promotes real-world problem-solving, critical thinking, and independent learning — vital for advanced-level students preparing for administrative leadership roles.

IBL Phase 1: Engagement (Realistic Scenario as Hook)

A medium-sized company is facing rising complaints due to task delays and poor team coordination. The General Manager suspects that office manpower is either insufficient or poorly allocated. You are tasked to reassess the current staffing and propose an effective manpower management plan to optimise office performance.

Students are encouraged to pose questions such as:

• How many staff are truly needed for each department?

• Are current roles and tasks aligned?

• What methods can we use to determine workload distribution?

IBL Phase 2: Student Inquiry & Tasks

Students begin by analysing the current workforce setup. They are given documents such as organisational charts, job descriptions, and staff performance records. In groups, students explore whether the existing manpower aligns with task volume, job scope, and departmental output. They identify overlaps, redundancies, or overloads that signal ineffective staffing.

Next, students redesign a new manpower plan. They decide on role adjustments, propose transfers, or recommend new hires. Justification must be based on workload data, departmental priorities, and company objectives. This step simulates real HR decision-making and strategic planning.

To evaluate their plan, students compare it to the original setup using basic KPIs such as task completion rate, absenteeism trends, and staff feedback. They critically assess if their plan improves productivity, balance, and efficiency.

Finally, students document their process and outcomes in a professional format. Each group produces an official manpower management report which includes their analysis, staffing plan, and evaluation. This hones their administrative writing and reporting skills.

IBL Phase 3: Reflection & Assessment

Each group presents their proposed manpower strategy to the class, simulating a pitch to HR or top management. This is followed by Q&A to defend their decisions.

Reflection questions may include:

• What data was most useful in guiding your staffing decisions?

• How did your team resolve conflicting opinions on role changes?

• What challenges would you face if budget or policy constraints were stricter?

Assessment will involve a rubric-based evaluation of reports and presentations, peer feedback, and instructor input on their decision-making process.

Tools & Resources

• Google Docs or Canva for collaborative reporting

• Sample HR data and organisational structures

• Real SOP and policy documents

• Padlet or Jamboard for idea sharing and group feedback

Why This Works

This IBL model builds core competencies in HR analysis, planning, and documentation. It mirrors real office scenarios, encourages team-based problem solving, and prepares students for workplace-level decision making with confidence and clarity.

Summary: Inquiry-Based Learning (IBL) – Office Manpower Management

Scenario (Engagement):
Students are asked to solve a staffing issue in a company facing delays and poor coordination due to manpower imbalance.

Inquiry Process (Phase 2):
Students explore actual HR data (org charts, job scopes, performance records) to analyse workload distribution. They identify staffing problems, redesign a manpower plan, and evaluate its effectiveness using basic performance indicators. Finally, they produce a professional report outlining their decisions and justifications.

Reflection & Assessment:
Students present their plans, answer peer and instructor questions, and reflect on data use, team decisions, and real-world challenges.

Tools: Google Docs, HR data samples, Padlet/Jamboard.

This IBL strategy promotes:

• Critical thinking: Students must analyse real issues and justify decisions.

• Collaboration: Group work simulates HR team settings.

• Practical skills: Report writing and presentation mirror office documentation and communication.

• Realism: The scenario reflects common workplace problems, enhancing relevance and engagement.

This approach helps students not only understand manpower theories but also apply them effectively in practical, dynamic office settings.

Inquiry-Based Learning (IBL) Reflection – Office Manpower Management

In my classroom, I implemented IBL by giving students a realistic case study related to office manpower planning. This reflects the IBL phases as follows:

1. Orientation (Engage):
   Students were introduced to a scenario involving staff planning challenges in an administrative department. This sparked curiosity and connected the topic to real workplace contexts.

2. Conceptualization (Ask & Investigate):
   Students identified issues in the scenario (e.g., understaffing, workload imbalance) and raised questions like “How do we ensure efficient manpower without overstaffing?” They explored relevant company SOPs and policies.

3. Investigation (Explore):
   In groups, students analysed the case, examined job roles, task frequency, and operational needs. They proposed manpower structures based on guidelines and justifications.

4. Conclusion (Create & Reflect):
   Each group developed a manpower plan and shared their solutions, showing understanding of effective staffing strategies and accuracy.

5. Discussion (Reflect & Share):
   A class discussion followed where students compared ideas, reflected on decision-making processes, and linked their findings to industry practices.

This IBL approach enhanced engagement, promoted problem-solving, and aligned well with learning outcomes such as analysing, performing, evaluating, and recording office manpower management.

Students explore this question by investigating real cases like:

• The U.S. invasion of Iraq in 2003,

• Russia’s annexation of Crimea,

• Israel’s actions in Gaza.

They research how international laws (like the UN Charter or Geneva Conventions) apply, look at reactions from the United Nations and other countries, and analyze whether any legal action was taken. Students may compare how international law is enforced differently depending on a country's power and alliances.

They work in groups, gather evidence from legal texts, news, and academic sources, and then present their conclusions. This lets them discover how international law works in practice not just in theory and how politics often affects enforcement.

Role-Play Session Plan: "UN Security Council Emergency Meeting"

Scenario (trigger question)

“How should the international community respond to a violation of international law by a major power?”

Example Case: Invasion of a sovereign state without UN approval.

Steps for inquiry-based role play

1. Form diplomatic teams

   • Assign or let students choose to represent a country (e.g. US, China, France, Russia, India, Brazil) or international organizations (e.g. UN, NATO, ASEAN).

   • Each team researches their country's foreign policy, stance on international law, and past voting patterns.

2. Inquiry & research phase

   • Use news, treaties (e.g. UN Charter, Geneva Conventions), and official statements to prepare.

   • Inquiry question: “How would our country respond to this crisis at the UN?”

3. Position paper / brief

   • Each team writes a 1-page position paper outlining:

     • Their country’s view of the issue

     • Legal arguments

     • Proposed action or resolution

4. Role-play session

   • Simulate a UN Security Council or General Assembly meeting.

   • Each country delivers a 1-2 minute opening statement.

   • Follow with debate, negotiation, and resolution drafting.

   • Use tools like Google Docs to co-write a draft resolution.

5. Voting & reflection

   • Use Mentimeter or a live vote for resolution adoption.

   • Reflect: Did power politics affect the outcome? Was international law respected?

 Learning Outcomes

• Understand real-world application of international law.

• Practice diplomacy, public speaking, and negotiation.

• Develop critical thinking by comparing legal norms vs political reality.

i. Discover Basic Concepts of Media and Politics

IBL Strategy: Guided Inquiry + Case Investigation

Implementation:

• Activity: Ask students to investigate “How does media shape public opinion in an election?”
  Provide starter materials (e.g., selected news coverage from Malaysian GE15, political ads, or viral social media posts) and ask students to identify underlying concepts like agenda-setting, framing, propaganda, or media bias.

• Driving Questions:

  • What is political communication?

  • How do media channels influence political discourse?

  • What patterns emerge in how political messages are delivered?

Student Outcome: Through guided inquiry and group discussion, students discover concepts like media framing, political ideology, and communication strategies through real-life data.

ii. Distinguish the Political Behavior of Groups and Individuals

IBL Strategy: Comparative Inquiry + Data-Driven Analysis

Implementation:

• Activity: Assign groups to analyze voter behavior using available data sets or past election reports. Let one group explore youth voters, another rural voters, and another ethnic or religious group dynamics in Malaysia or abroad.

• Driving Questions:

  • What motivates different voter groups?

  • How does identity (e.g., race, age, religion) shape political engagement?

  • Are individuals more influenced by media, family, or peer groups?

Student Outcome: By drawing comparisons and making inferences based on their inquiry, students distinguish patterns and differences in political behavior among individuals and groups.

iii. Discuss the Roles of Media in Regulating the State, Government, Political Parties and Interest Groups

IBL Strategy: Critical Inquiry + Simulation

Implementation:

• Activity: Run a political simulation or media watchdog project:

  • Assign students roles (e.g., journalist, politician, interest group leader, activist).

  • Present a political issue (e.g., environmental policy, press freedom bill).

  • Students must examine how different media outlets report the issue and how these actors respond or influence policy.

• Driving Questions:

  • What are the media’s roles in checking power?

  • How do media enable or constrain interest groups and parties?

  • How does media regulation impact democracy?

Student Outcome: Through inquiry and role-play, students discuss the power dynamics between media and political actors and critically assess its regulatory role.

General Tips for Applying IBL in Political Communication:

• Start with a provocative question (e.g., “Is social media empowering or polarizing democracy?”)

• Use real-world materials: news articles, political debates, press statements, election manifestos, etc.

• Promote group work and peer teaching using jigsaw or gallery walk formats.

• Encourage reflective journaling where students document their evolving understanding of political communication.

1. Start with a Question or Problem

• Pose an open-ended question related to verbal communication, such as: "What makes verbal communication effective?" or "How can we improve clarity and engagement in spoken communication?"

• This encourages students to take ownership of their learning by exploring the concept actively rather than passively receiving information.

  
  

2. Guide Students Through Inquiry Levels

• Begin with structured inquiry where students investigate a teacher-provided question with a step-by-step process, for example, analyzing examples of effective vs. ineffective verbal communication.

• Progress to guided inquiry where students design their own methods to study aspects like tone, clarity, body language, or feedback in verbal communication.

• Finally, encourage open inquiry where students formulate their own questions about verbal communication, conduct investigations (e.g., interviews, presentations), and share findings.

  
  

3. Foster Critical Thinking and Collaboration

• Use group work to have students discuss and negotiate ideas about effective verbal communication, such as how to give and receive meaningful feedback or how intercultural understanding affects communication.

• Collaboration supports deeper inquiry and helps develop interpersonal communication skills essential for verbal communication.

  
  

4. Emphasize Key Verbal Communication Skills

• Encourage students to explore and practice:

  • Clarity and conciseness in speech

  • Active listening and responding

  • Use of appropriate speaking techniques for different audiences

  • Giving and receiving constructive feedback

  • Interpreting non-verbal cues alongside verbal messages.

    
    

5. Use Reflection and Presentation

• Have students present their inquiry findings orally, which builds confidence and speaking skills.

• Reflect on what makes communication effective, including factors like message clarity, audience engagement, and cultural sensitivity.

  
  

6. Connect to Real-Life Contexts

• Link verbal communication skills to academic success and future career readiness, highlighting how employers value good communication skills such as listening, persuasion, and interpersonal interaction.

I can integrate IBL by allowing students to explore real social phenomena such as prejudice, conformity, aggression, and prosocial behavior through open-ended questions. For instance, students might investigate:

👉 “Why do people conform in group settings?” or

👉 “What psychological factors lead to online hate comments?”

Students would formulate questions, gather and analyze data (e.g., interviews, news articles, social media trends), and present findings that connect theory to real life. This approach promotes deep understanding of social psychological concepts while encouraging active learning.

As an instructor, my role is to guide inquiry, facilitate discussion, and scaffold critical thinking, helping students take ownership of their learning. This makes the learning process more meaningful and aligned with the student-centered philosophy of IBL.

Yes, the phases of Inquiry-Based Learning (IBL) are reflected in how I’ve used AI and IBL in my KMC1033 Social Psychology course. Below is how each phase maps onto my teaching approach:

1. Orientation
   I introduced students to real-world social issues (e.g., prejudice, conformity) through video clips, media cases, or personal experiences to spark curiosity.

2. Conceptualization
   Students formulated their own questions such as “What factors influence prosocial behavior on campus?” or “How does social media affect aggression?” They developed hypotheses or focus areas based on course theories.

3. Investigation
   Using AI tools (e.g., ChatGPT) and resources, students explored relevant studies, conducted mini-interviews, or reflected on case examples to gather data.

4. Conclusion
   Students synthesized findings and presented them, linking theoretical concepts with real-life applications, often in forums or group presentations.

5. Discussion
   I facilitated peer feedback sessions and reflective journaling. Students also discussed their insights with me, using reflections to deepen self-awareness. This is especially important in the counseling context where self-reflection is essential.

🧩 Example Activities:

1. Scenario-Based Exploration:

   • I present students with workplace dilemmas such as high employee turnover, poor performance appraisal systems, or ineffective training outcomes.

   • Students work in groups to identify root causes, formulate research questions, and propose HR strategies supported by scholarly evidence.

2. Mini-Research Projects:

   • Students select a topic such as "Improving employee engagement through flexible work arrangements".

   • They conduct inquiries using employee surveys or interviews, analyze the findings, and present actionable HRD plans.

3. Reflective Inquiry Journals:

   • Students maintain journals where they pose weekly questions about HR practices (e.g., "Why do some training programs fail to change behavior?") and document their evolving understanding through literature and observations.

🔍 1. Start with a Real-World Engineering Problem

Frame your content around an open-ended engineering scenario. For example:

"You are part of a team designing a smart solar energy system. You need to model and predict energy output over time using numerical solutions to differential equations, taking into account system non-linearities and noisy data."

This immediately contextualizes why Numerical Methods matter.

🧠 2. Encourage Student Inquiry

Pose driving questions like:

• Which numerical method is most suitable for solving this type of equation?

• How do method accuracy and computational efficiency compare?

• What happens when you increase the step size in Euler’s method?

Let students choose and justify the method they want to explore (e.g., Runge-Kutta, Gauss-Seidel, LU Factorization).

🔧 3. Scaffold with Guided Investigations

Provide datasets or systems to model (e.g., an RLC circuit, temperature change in a component, or load distribution in a power grid). Ask them to:

• Set up the governing equations.

• Select an appropriate numerical method.

• Implement in MATLAB or Python.

• Analyze accuracy and convergence.

Example mini-inquiry task:

"Compare the performance of Gauss-Seidel vs LU Factorization for solving the node voltages in a resistive network with 5 or more nodes. When would one method be preferred over the other?"

🤝 4. Promote Group Collaboration

Put students in small teams, where each member contributes different skills:

• Math modeling

• Coding

• Technical writing

• Presentation

Encourage peer teaching and discussion around different methods and results.

📊 5. Emphasize Reflection and Metacognition

Ask students to reflect on:

• Why they chose a particular method

• What went wrong or was difficult

• How numerical errors emerged

• What could be improved

You can even use simple prompts like:

“What did this method reveal that you didn’t expect?”

📁 6. Assessment Ideas (IBL-Aligned)

• Process Journals: Track decision-making and method selection.

• Group Reports: Explain the inquiry, method used, and results.

• Oral Presentations: Defend their chosen method and outcomes.

• Peer Reviews: Evaluate another group’s solution and suggest improvements.

🌟 Example Project That Stands Out

Scenario: "Design a low-cost microgrid for a rural clinic. The power demand varies by time. You must model power availability using numerical methods to solve the load flow equations and predict battery storage behavior over time."

Students explore numerical ODE solvers, apply matrix methods, and learn their real engineering relevance.