Curiosity starts the lesson.
Students begin with a real question, a surprising observation or a challenge worth exploring.
Arduino Certified Inspiration Lab · Grades 1–12
Turn curiosity into questions—and questions into working solutions.
A complete school innovation environment where students learn to observe closely, think critically, test ideas, learn from failure and solve problems through coding, electronics, robotics, science, IoT and engineering.
CuriosityAsk better questions
Critical ThinkingCompare evidence and choices
Problem SolvingDesign, test and improve
The proposed solution is aligned to the Arduino Education Inspiration Lab framework. Final co-branding or official lab recognition is subject to Arduino Education approval and authorized-partner requirements.
From Grade 1 to Grade 12One progressive innovation journeyExplore → Build → Investigate → Engineer → Innovate
Thinking guides the build.
Learners predict, compare, reason and choose—not simply follow instructions.
Failure becomes useful evidence.
Every test helps students diagnose what happened and decide what to improve next.
Solutions connect to real life.
Projects address school, community, sustainability and everyday human needs.
More than a robotics room
A learning ecosystem designed for inquiry, invention and impact.
An Arduino Inspiration Lab is not a room full of boxes. It is a structured environment where tools, curriculum, space, teacher capability and student challenges work together.
- Students investigate before they build.
- Teams explain the reasoning behind every design choice.
- Projects become progressively more open-ended across grades.
- Teachers act as facilitators, coaches and project managers.
- Every year ends with demonstrations, reflection and public showcase.
Designed around the learnerNot around the equipment
Grade 1–12 learning pathway
One lab. A different level of challenge at every stage.
The pathway grows from curiosity and cause-and-effect to data, connected systems, advanced engineering and student-led innovation.
Grades 1–2
Curious Explorers
Build confidence through sequencing, cause-and-effect, simple machines, patterns and teacher-guided robotics demonstrations.
Learning emphasis
- Ask, observe and describe
- Predict what will happen
- Block-based logic and physical play
- Shared Arduino Alvik demonstrations when appropriate
Example challengeMake a robot follow a safe path and explain why it turns.
Grades 3–5
Creative Builders
Move from guided exploration to hands-on robotics, sensors, measurement and simple design challenges.
Recommended ecosystem
- Arduino Alvik robotics platform
- Block coding to MicroPython bridge
- Movement, color, line and distance sensing
- Simple sustainability and school-life projects
Example challengeBuild a robot that sorts routes using color and distance clues.
Grades 6–8
Scientific Problem Solvers
Connect electronics, programming and scientific inquiry to measurable real-world questions.
Recommended kits
- Arduino Student Kit
- Arduino Education Starter Kit
- Arduino Science Kit R3
- Alvik advanced robotics challenges
Example challengeMeasure classroom conditions and recommend evidence-based improvements.
Grades 9–10
Connected-System Designers
Design systems that sense, communicate, automate and respond to community or environmental needs.
Recommended kits
- CTC GO!
- Plug and Make Kit
- Arduino Greenhouse Kit
- Explore IoT Kit and cloud dashboards
Example challengeCreate a smart greenhouse that protects plants while using water responsibly.
Grades 11–12
Engineering & Innovation Leaders
Apply engineering design, data, control systems, IoT and capstone methodology to complex open-ended challenges.
Recommended kits
- Arduino Engineering Kit
- Explore IoT Kit Rev2
- PLC Starter Kit and industrial-control concepts
- Advanced Greenhouse, smart city and robotics systems
Capstone expectations
- Problem research and user interviews
- Prototype architecture and testing plan
- Data-supported design decisions
- Public demonstration and project portfolio
Example challengeDevelop a connected system that improves safety, energy use, agriculture or accessibility.
Grade mapping is a recommended implementation pathway. Exact kit use should be confirmed after a school audit, teacher-readiness review and assessment of student age, curriculum and safety requirements.
Complete Arduino ecosystem
Kits selected for progression—not purchased as disconnected products.
Each kit supports a defined learning stage and remains part of the lab’s reusable project ecosystem.
Robotics discovery
Arduino Alvik
Movement, sensing and progression from visual coding to text-based control.
Electronics foundations
Student Kit
Individual learning in circuits, coding and open-ended project creation.
Collaborative classroom
Education Starter Kit
Reusable hardware and structured lessons for small-group learning.
Scientific inquiry
Science Kit R3
Measure phenomena, analyze data and explain evidence through physics investigations.
Creative technology
CTC GO!
High-school electronics and programming through structured invention challenges.
Rapid prototyping
Plug and Make Kit
Reduce wiring complexity and let students focus on ideas, logic and fast testing.
IoT & sustainability
Greenhouse Kit
Monitor the environment, automate responses and investigate smart agriculture.
Connected systems
Explore IoT Kit
Collect data, create dashboards and design connected solutions.
Advanced engineering
Engineering Kit
Apply modelling, controls and mechatronics to complex working systems.
Industrial automation
PLC Starter Kit
Introduce senior learners to programmable control, automation logic and industry-facing systems.
Ideate
Build
Test
Showcase
Lab design & infrastructureExplore & Ideate ZoneWritable surfaces, challenge prompts, design-thinking templates and team discussion space. Electronics & Prototyping ZoneDurable workbenches, protected power, tool access, component trays and anti-static practices. Robotics Test ArenaOpen floor or table arena for navigation, line following, object interaction and competitions. IoT & Data ZoneConnected devices, displays and dashboards for live data, automation and cloud projects. Storage & Maintenance ZoneNumbered kits, labelled bins, charging area, repair station and issue-return workflow. Showcase & Reflection ZoneProject display shelves, student stories, iteration notes and a presentation screen.
A space that quietly teaches students how innovators work.
The room is planned around movement, collaboration, visibility, safety and fast access to tools—not rows of fixed computers.
Wall decoration & learning identity
Every wall should invite a question, explain a process or celebrate an idea.
Young Scientist develops a coordinated blue-and-orange visual system aligned with the school brand and Arduino learning journey.
The Curiosity Wall
“What do you notice?”, “What might happen?” and rotating mystery challenges.
Design Thinking Cycle
Ask → Imagine → Plan → Build → Test → Improve → Share.
Arduino Ecosystem Wall
Boards, sensors, actuators, data flow and how code connects the physical world.
Problem-Solving Prompts
Diagnose, compare, isolate, test and document before asking for the answer.
SDG Challenge Wall
Water, energy, health, climate, cities, agriculture and inclusive design themes.
Young Innovator Gallery
Student prototypes, iteration stories, certificates and competition achievements.
Safety & Tool Use
Clear visual guidance for electricity, soldering, batteries, tools and shared responsibility.
Career & Possibility Map
How coding, electronics and design connect to science, engineering and entrepreneurship.
Teacher training & lab operationPhase 1 Phase 2 Phase 3 Phase 4
A great lab needs confident teachers—not permanent dependence on outside trainers.
The implementation includes a structured teacher-readiness program so school educators can operate the lab, facilitate inquiry, maintain equipment and mentor projects.
Technical Foundations
Arduino boards, sensors, actuators, coding environments, cloud tools and troubleshooting.
Inquiry Facilitation
How to ask productive questions, resist giving answers too early and guide evidence-based reasoning.
Lab Management
Inventory, charging, component control, safety routines, maintenance and session preparation.
Project Mentoring
Challenge framing, design reviews, testing protocols, documentation and showcase preparation.
Recommended delivery: 30-hour initial implementation training, supported lesson rehearsals, launch mentoring and periodic refresher sessions.
Teacher roleFacilitator · Coach · Project manager · Safety leader
Curriculum, assessment & student evidence
Measure how students think—not only whether the circuit works.
The lab can be implemented as a weekly curriculum, club, project block, competition pathway or blended school program.
Annual learning plans
Grade-wise session plans with concepts, challenges, projects, reflections and extension tasks.
Design journals
Students document questions, predictions, diagrams, tests, failures, evidence and improvements.
Thinking-focused rubrics
Assessment of reasoning, collaboration, testing discipline, creativity and communication.
Project portfolios
Photos, code, data, videos and presentations that show growth over time.
Exhibitions & competitions
Internal demo days, parent showcases, innovation leagues and national participation pathways.
Certification pathways
Arduino learning and certification opportunities for eligible teachers and students.
Implementation roadmap
From empty room to an active innovation culture.
Dursikshya manages the complete setup so the school receives a functioning program—not only equipment delivery.
School Discovery
Goals, grades, timetable, room, teacher readiness and expected student capacity.
Design & BOQ
Room plan, kit mix, furniture, electrical points, storage, graphics and implementation scope.
Installation
Lab furnishing, equipment setup, labelling, safety systems, testing and handover.
Teacher Readiness
Technical training, curriculum practice, lab operation and project facilitation.
Student Launch
Orientation challenge, baseline assessment, first build and parent/school communication.
Ongoing Growth
Mentoring, maintenance, project reviews, exhibitions, competitions and annual upgrade planning.
Static Lab Scope Planner
See what your school’s lab could look like.
Share a few details. The scope planner will propose a starting lab model, grade pathway, recommended zones, teacher plan and rollout approach.
Checking AI connection…
This is an initial planning guide. Final kit quantities, infrastructure and certification status require an on-site audit and formal proposal.Official framework reference
Explore Arduino Labs ↗Part of a global movement toward hands-on learning.
Arduino Education describes Inspiration Labs as K–12 environments that can be customized to a school, supported with courses, certification opportunities, teacher training and professional development.
Plan your school lab
Give students a place where ideas are expected to become real.
Request a school audit and receive a customized lab concept, kit plan, interior scope, teacher-training plan and implementation proposal.