Introducing Our 2026 Smart City Hackathon
Designing Future Water-Resilient Cities for Gaza, Sudan, and Vulnerable Communities Around the World.
Introducing Our 2026 Smart City Hackathon
Designing Future Water-Resilient Cities for Gaza, Sudan, and Vulnerable Communities Around the World.
The Smart City Hackathon is a hands-on, inquiry-based learning experience where students work in teams to solve real-world challenges using the engineering design process and design thinking framework. Over the course of six weeks, students move from identifying problems in their community to researching, designing, building, and testing innovative solutions—often focused on themes such as clean water, sustainability, and urban living.
What makes this project unique is that it blends STEM learning with creativity, collaboration, and critical thinking. Students don’t just learn concepts—they apply them to meaningful challenges, build prototypes, collect data using the scientific method, and present their solutions as if they were real engineers and innovators.
The program is differentiated across grade levels and is designed to align with curriculum expectations while also fostering future-ready skills like problem-solving, communication, and teamwork. It culminates in a final showcase or expo where students present their work to peers, educators, and community members.
Across the world, millions of people lack reliable access to clean water.
In regions affected by conflict, climate change, and damaged infrastructure, water systems are often the first to collapse.
Our students will ask:
How can cities recycle and protect water during a crisis?
How can infrastructure remain resilient during conflict or disaster?
How can engineers serve humanity?
This program connects STEM learning to real global responsibility.
At the heart of this challenge is a simple belief:
Water is a trust.
From an Islamic perspective, sustainability is not only scientific — it is moral. Students explore principles of:
Stewardship (Khilafah)
Responsibility (Amanah)
Balance (Mizan)
Justice in resource distribution
Engineering becomes an act of service.
What Students Will Do
Students will:
Design future water-resilient smart cities
Build 3D scale models of sustainable infrastructure
Develop engineering project plans
Present solutions to real-world water crises
Reflect on how innovation creates impact
This is not just a competition.
It is a mission-driven learning experience where students discover that every drop truly matters.
PROGRAM FRAMEWORK
The Smart City competition is built on four interconnected strands:
1️⃣ Engineering Design
2️⃣ Scientific Research
3️⃣ Project Management
4️⃣ Competition Deliverables
Each strand supports the others. Together, they simulate real-world professional engineering and research environments.
Smart City introduces students to the engineering design process—the structured method engineers use to solve real-world problems.
Students will:
Identify and define the water crisis problem
Research constraints and conditions
Brainstorm multiple solution ideas
Design and model a system
Test and refine their design
Improve based on evidence
Through this process, students learn to think like engineers and develop confidence as problem solvers. Once mastered, this process can be applied to future scientific, technical, and global challenges.
In addition to engineering design, Smart City includes a scientific investigation track.
Scientific research strengthens the project by requiring:
• Hypothesis development
• Controlled experimentation
• Data collection and measurement
• Statistical analysis
• Evidence-based conclusions
Students learn to think like scientists — testing ideas, analyzing data, and drawing conclusions supported by measurable evidence.
Engineering answers:
"How can we build it?”
Science answers:
"Does it work? Why?”
Together, they create stronger solutions.
In professional engineering and research environments, success depends on a structured organization.
Students will practice project management by:
• Setting timelines and milestones
• Assigning team roles
• Managing research tasks
• Documenting progress
• Adjusting plans as challenges arise
Project management teaches leadership, accountability, communication, and responsibility — skills that extend beyond the competition into academic and professional futures
The Smart City is expressed through five major deliverables:
• Technical or Scientific Report
• System Diagram or 3D Prototype
• Display Board
• Oral Presentation & Interview
These deliverables demonstrate how research, design, and teamwork come together in a cohesive solution.
• 3–5 students per team
• One teacher mentor
• Optional technical advisor
Teams may choose ONE track:
🔬 Scientific Investigation Track
Focus: Experimental testing, data collection, hypothesis development.
⚙ Engineering Innovation Track
Focus: System design, infrastructure planning, modeling, and resilience strategy.
Each team must submit:
✔ Technical or Scientific Report
✔ 250–300 Word Abstract
✔ System Diagram or Prototype Model
✔ Display Board
✔ Oral Interview Presentation
Projects will be evaluated based on:
• Research depth and accuracy
• Engineering feasibility
• Data and statistical thinking
• Innovation and resilience
• Ethical integration
• Professional communication
(Detailed rubric provided in Section 21)