Cookie preferences

HundrED uses cookies to enhance user experiences, to personalise content, and analyse our web traffic. By clicking "Accept all" you agree to the use of all cookies, including marketing cookies that may help us deliver personalised marketing content to users. By selecting "Accept necessary" only essential cookies, such as those needed for basic functionality and internal analytics, will be enabled.
For more details, please review our Cookie Policy.
Accept all
Accept necessary
search
clear

Creating ‘Hooks’ for STEM Education

place India + 7 more

Engaging learners through concepts that connect real-world issues, values, and community experiences

This pedagogy uses eight STEM based “hooks” to spark curiosity and deepen understanding. Through real world problems, ethical scenarios, stories, and data exploration, learners build strong foundations, think critically, and connect STEM with society.

Overview

Information on this page is provided by the innovator and has not been evaluated by HundrED.

Updated December 2025
Web presence

8

Countries
All students
Target group
I hope to see learners view STEM as a tool to understand society, question information, and make ethical choices. Through meaningful hooks, students gain confidence, curiosity, and critical thinking, creating classrooms where STEM supports equity, informed citizenship, and positive social change.

About the innovation

Why did you create this innovation?

During my Fulbright research, I saw that many learners experienced STEM as disconnected formulas rather than a way to understand real issues. In low income and multilingual classrooms in India and in other countries where I have worked, students often struggled because STEM felt abstract and unrelated to their lives. At the same time, challenges such as misinformation, conflict, climate change, and social inequality require young people to think critically and analyse information responsibly.

I created this innovation to address these gaps by designing STEM based “hooks” that make learning meaningful and engaging. These hooks use real world scenarios, ethical questions, community stories, and data investigations to spark curiosity and deepen understanding. Whether students explore nuclear energy through 'Mathematics of Peace', fairness through 'Mathematics of Values', intuitive reasoning through 'Mathematics Without Formulas', or community issues through Data and Society, each hook offers a strong entry point into STEM.

The innovation was also created to support learners who are behind grade level, in fragile contexts, or returning to education as adults. They need accessible ways to reconnect with STEM and build confidence. The hooks help learners see STEM as a tool for understanding their world and contributing to positive social change.

What does your innovation look like in practice?

In practice, the innovation functions as a set of STEM based “hooks” that teachers use to begin lessons with curiosity and relevance. Each hook starts with a real world scenario, ethical question, story, visual, or data set that draws learners into the concept before formal instruction begins.

For example, 'Mathematics of Peace' uses energy data and physics to analyse decisions related to conflict.

'Mathematics of Values' helps quantify fairness and social awareness. 'Mathematics Without Formulas' builds intuition through patterns and visuals. Storytelling through Mathematics makes abstract ideas easier to grasp through narrative.

Role Models in STEM shows students examples of people from similar backgrounds who used STEM for positive change. Data and Society uses charts and statistics to analyse issues such as climate trends or misinformation. Community Connected Tasks link STEM to local problems, and Future Thinking with STEM invites learners to model solutions for challenges they may face in the years ahead.

These hooks are low resource and adaptable. Teachers use a board, simple visuals, and guided questions. The approach works in schools, community spaces, and adult learning environments, especially where learners are behind grade level or learning in multilingual settings. The result is a classroom where STEM feels meaningful, engaging, and connected to life.

How has it been spreading?

The innovation has spread through Fulbright networks, Harvard Graduate School of Education, global teacher communities, and my peer reviewed publication. During my Fulbright Scholarship, the STEM hooks were shared widely across schools in the United States. Mathematics of Peace, published in the Ohio Journal of School Mathematics (October 2024), expanded international access and strengthened academic credibility.

Through Teach For India and the Teach For All network, the hooks have been adapted in India, Nepal, Ethiopia, Nigeria, Uzbekistan, Afghanistan, and Lebanon. In Nepal, Uzbekistan, and Nigeria, they were introduced during Summer Training Institutes. In Ethiopia and Afghanistan, I collaborated with teachers over several months to refine the hooks for multilingual and low resource settings. In Lebanon, they were integrated into training programs supporting learners in fragile contexts.

My selection as a Finalist for the Global Teacher Prize by the Varkey Foundation and UNESCO amplified visibility and enabled me to connect with more than 450 educators across the world who are among the most impactful practitioners in their regions. This network accelerated global interest, especially in crisis affected and underserved communities. The spread continues because the hooks are low cost, adaptable, and easy to integrate into any STEM lesson.

How have you modified or added to your innovation?

The innovation has evolved as it has been adapted across countries, languages, and learner needs. Teacher feedback during my Fulbright research and through networks in India, Nepal, Ethiopia, and the United States strengthened the STEM hooks and made them more adaptable. In Nepal, teachers suggested separating “Knowledge” and “Skill,” which improved clarity and planning.

For multilingual classrooms, I added visual supports, language scaffolds, and stepwise reasoning. 'Mathematics of Peace' expanded to include sustainability and ethical decision making. 'Mathematics of Values' and Data and Society incorporated local issues so learners could analyse community challenges. 'Mathematics Without Formulas' added more intuitive models to support learners behind grade level.

Work with adolescent girls and adult women in Eastern India led to adapting hooks to build confidence, numeracy, and decision making for everyday life. In Ethiopia, teachers requested regular reinforcement, leading to quarterly versions delivered before or after class hours to protect syllabus time.

The hooks now cover themes such as climate resilience, misinformation, and social responsibility. These modifications help the pedagogy stay relevant, flexible, and effective across schools, community settings, and fragile contexts.

If I want to try it, what should I do?

Begin by selecting one of the STEM hooks that matches your learning goal. Start with a short diagnostic to understand gaps in reasoning, comprehension, or foundational skills.

Introduce the hook through a story, visual, ethical prompt, or real world scenario that connects directly to the STEM concept you want to teach. This creates curiosity and provides an accessible entry point for learners.

Use guided questions and simple tasks to help students explore patterns, data, models, or community issues linked to the hook. For example, use Mathematics of Peace for data analysis and physics, Mathematics Without Formulas for intuitive reasoning, Mathematics of Values for fairness and decision making, and Data and Society for real world interpretation.

No technology is required. A board, markers, and simple worksheets are enough. The hooks work in multilingual classrooms, low income schools, community centers, and adult learning spaces. Micro assessments help you check understanding and adjust pacing.

Begin with one hook, try it over one or two lessons, and then expand to others as students grow comfortable. Each hook is flexible and can be adapted to local issues, age groups, or subject areas. Teachers can implement the innovation independently, and sharing experiences within school or network communities helps strengthen practice and spread the approach.

Implementation steps

Understand your learners and define a clear STEM goal
Start by identifying your class context, age group, and main STEM goal. Note where learners struggle most, such as concepts, language, or real life application. Decide whether your main aim is conceptual understanding, critical thinking, ethical reasoning, or connection to community issues. This will guide which hook you choose first.
Select one suitable hook from the STEM hooks
Choose the hook that best matches your goal and context. For example, 'Mathematics of Peace' for data and physics, 'Mathematics of Values' for ethics, science, and concepts like organ donation, 'Mathematics Without Formulas' for intuition, Data and Society for real issues, or Storytelling and Role Models for relevance and identity. Begin with one hook rather than trying all at once.
Design the opening experience for the lesson hook
Plan how you will start the lesson in an engaging way. Use a picture, story, question, short case, chart, or community example that links directly to the STEM idea. Keep this opening concrete and relatable so that learners are curious before any symbols or formulas appear. Write two or three key questions to guide the first discussion.
Map knowledge and skills connected to the chosen hook
List the specific concepts and skills that learners need for this lesson. Separate knowledge such as definitions or facts from skills such as reading graphs, reasoning with numbers, or explaining ideas. This helps you decide what needs quick review and what can be learned through the hook. It prepares you to support learners who are behind or anxious.
Facilitate the hook activity with structured questioning
In class, present the hook and allow time for learners to react, think, and talk. Use open questions that invite explanation and justification, not only short answers. Encourage learners to talk in the language they are most comfortable with, then help them move into the language of instruction. Guide the class gently towards the central STEM idea.
Connect the hook to formal STEM content and practice
Once interest is high, link the discussion to the formal concept, formula, or method. Show how the hook example can be expressed using symbols, diagrams, or calculations. Provide short practice tasks that stay close to the original context before moving to abstract problems. This helps learners see that the method is useful, not separate from life.
Use reflection and quick checks to see what learners gained
End the lesson with a short written or oral reflection where learners explain what they learned, how the hook changed their view, or what questions remain. Add a brief quiz or exit ticket to check understanding. Use these responses to decide whether learners need another session with the same hook or are ready for a new example.
Adapt, document, and share your hook with other teachers
After trying the hook, note what worked well and what you would change next time. Adjust the story, data, numbers, or questions for your context. Share the lesson outline and student work with colleagues in your school or network. This builds a collection of hooks (database) and encourages other teachers to adapt the pedagogy for their own STEM classes.

Spread of the innovation

loading map...