Build Your First Drone. Design Your First PCB. Pitch Your First Product.
A 45-day advanced drone course for school students in Grades 9–12, where you'll assemble a real quadcopter, fly autonomous missions, design a custom PCB in KiCAD, and present your prototype like a startup founder.
Trusted by 5,000+ students across India
Mapped to DGCA awareness and Industry 4.0 frameworks
Hands-on F450 drone kit + custom PCB design tools included
Mentor-led labs with industry-grade safety protocols
Portfolio-ready GitHub repo + pitch deck on completion
Program Highlights
Start Your Learning Journey With Confidence
- Course Overview
- Course Objective
- Learning Outcomes
- Who This Course Is For
- Course Features
- Industry & Job Connect
Introduction
Drones are no longer just toys. They survey farmland, inspect bridges, patrol perimeters, deliver medical supplies, and capture cinema-grade footage from the sky. Module 4 of the Electrobot Senior program is built to introduce school students to the full lifecycle of building, flying, and productizing a drone — without skipping the hard parts. Across 45 carefully structured days, students move from identifying components to soldering ESCs, mounting flight controllers, calibrating sensors in Mission Planner, executing autonomous waypoint missions, and finally designing their own 2-layer PCB in KiCAD. The course closes with a startup-style product pitch that combines engineering rigor with business thinking.
Why This Course Matters
Most school-level drone programs stop at flying a pre-assembled kit. This course doesn't. By the end of Module 4, every student will have built a working drone from individual components, fixed real-world calibration issues, designed and routed a printed circuit board, and packaged the entire experience into a portfolio they can defend in front of mentors, recruiters, or college admission panels.
Industry Relevance
Module 4 maps directly to four high-growth sectors: agriculture (precision spraying, NDVI surveying), defense (reconnaissance and patrol UAVs), transport (last-mile delivery and infrastructure inspection), and manufacturing (warehouse aerial scans and embedded product engineering). The skills you build here are the same skills entry-level drone engineers, embedded product designers, and UAV operators use on the job.
Real-World Use Cases Covered
• Agricultural survey drones for crop scouting and field mapping
• Defense reconnaissance UAVs with encrypted telemetry links • Last-mile drone delivery prototypes with GPS-based release mechanisms • Embedded sensor PCBs for IoT products • Aerial photography and FPV cinematography setups • Infrastructure inspection drones for buildings and solar farmsYour Journey: Beginner-Friendly to Industry-Grade
You don't need a drone background to start — only completion of Module 3 (Robotics, AI Vision & Autonomous Systems) or equivalent foundations. The first week handles drone fundamentals from scratch. By Week 3 you're flying a real quadcopter. By Week 5 you're designing PCBs. By Week 6 you're pitching a product. The progression is steep, but the structure makes it survivable for any motivated school student.
By the end of this drone technology course, students will be able to:
Technical Skills
- Build a working quadcopter using an F450 frame, 1000KV BLDC motors, 30A ESCs, and an F4 or F7 flight controller.
- Calibrate IMU, magnetometer, RC inputs, and ESCs to flight-ready standards.
- Program waypoint missions and configure failsafes in Mission Planner and ArduPilot.
- Design and route 2-layer PCBs in KiCAD with proper power, ground, and decoupling considerations.
- Generate manufacturing-ready Gerber files and read PCB fabrication quotes.
- Wire FPV camera systems with video transmitters and ground receivers.
Practical Skills
Industry Readiness
Speak the language of drone professionals — telemetry, gimbal stability, PID tuning, geo-fencing, payload CG.
Read and write technical documentation at industry-internship level.
Apply DGCA awareness and basic regulatory thinking to every flight plan.
Pitch a product concept clearly in five slides — problem, solution, market, traction, ask.
This drone course is purposefully built for ambitious school students who want to graduate beyond toy kits and into real engineering.
| Audience Segment | What This Course Delivers for Them |
|---|---|
| School Students (Grades 9–12) | Students who have completed Electrobot Junior, Module 1–3, or possess equivalent embedded foundations and want a structured pathway into drones and product engineering. |
| Atal Tinkering Lab Members | ATL students working on real innovation projects who need formal exposure to drones, PCB design, and product pitching. |
| Robotics Club Members | Hobbyist robotics builders ready to take the leap from ground-based robots into aerial systems. |
| Future Engineering Aspirants | Students aiming for engineering colleges, scholarships, or hackathons who need a strong, demonstrable portfolio to stand out. |
| Young Entrepreneurs | Teenagers with startup ambitions who want hands-on exposure to product development, BOM costing, and investor pitching. |
| STEM Olympiad Competitors | Students preparing for national-level robotics, drone, and innovation competitions where prototype quality is a major scoring factor. |
| Pre-College Internship Seekers | Class 11–12 students looking for summer internships at drone startups, agritech firms, and embedded product companies. |
Every feature of this drone course has been engineered to maximize learning quality, safety, and career readiness.
| Feature | What It Means for You |
|---|---|
| Real Hands-On Drone Build | Students assemble a complete F450-class quadcopter from individual parts — not pre-built kits. Every solder joint, every calibration step, is done by the student. |
| Live Flight Sessions | Tethered hover tests, stabilize mode flights, and autonomous waypoint missions executed under expert supervision in designated safe zones. |
| Custom PCB Design | Students design, route, and prepare for manufacturing a real 2-layer PCB in KiCAD or EasyEDA — a skill rare even among engineering graduates. |
| Capstone Product Pitch | The course culminates in a 5-slide startup-style pitch presented to a panel of mentors, with feedback on engineering, market fit, and storytelling. |
| Industry-Recognized Certification | Graduates receive the Certified Drone & Embedded Product Engineer certificate from Elysium Embedded School, mapped to the Electrobot Senior credential ladder. |
| Mentor-Led Labs | Every lab is supervised by trainers with minimum two years of embedded and drone industry experience. |
| LMS & Resource Access | Lifetime access to course recordings, lab manuals, schematic libraries, and project starter repositories. |
| Downloadable Resources | Datasheets, BOM templates, KiCAD libraries, Mission Planner config files, and pitch deck templates. |
| Internship Referral Network | Top performers gain referrals to drone startups and agritech companies via Elysium's Industry Partner Network. |
| Interview & Pitch Coaching | Structured sessions on technical viva, portfolio storytelling, and investor pitch preparation. |
| Community Access | Private student community for peer support, project sharing, and ongoing mentorship beyond the course. |
| Safety-First Infrastructure | LiPo safety bags, ESD straps, fire safety, designated flight zones, and tethering equipment — non-negotiable across every lab. |
Market Demand
India's drone industry is on a steep growth curve. Liberalized Drone Rules 2021, the PLI scheme for drones and drone components, and rising private investment have created a structural shortage of trained drone professionals across the country. Globally, agricultural drones, last-mile delivery, infrastructure inspection, and defense UAVs are scaling rapidly — and every one of these segments needs engineers who understand both flight systems and embedded product design.
Salary Insights (Indicative)
| Role | Indicative Salary Range | Career Stage |
|---|---|---|
| Drone Pilot / Operator | ₹3.5 – 7 LPA | Entry-level to mid |
| UAV / Drone Engineer | ₹6 – 14 LPA | Mid-level, technical |
| Embedded Drone Firmware Engineer | ₹8 – 18 LPA | Specialist |
| PCB Design Engineer | ₹5 – 12 LPA | Entry to mid |
| AgriTech Drone Specialist | ₹6 – 12 LPA | Sector specialist |
| Drone Startup Co-Founder | Variable / Equity-driven | Entrepreneurial |
Hiring Industries (Long Horizon)
- Agriculture & AgriTech (precision farming, drone spraying, NDVI mapping)
- Defense & Aerospace (reconnaissance UAVs, tactical drones)
- Logistics & Transport (last-mile delivery, warehouse mapping)
- Construction & Real Estate (site survey, progress tracking)
- Energy (solar farm and powerline inspection)
- Public Safety & Disaster Response (search-and-rescue, mapping)
- Mining (stockpile measurement, tailings monitoring)
- Telecommunications (tower inspection)
- Smart Cities & Government (traffic monitoring, public health)
Global & Freelance Opportunities
Drone skills travel well. Trained operators and engineers find freelance work in aerial photography, site survey for construction firms, inspection contracts for energy companies, and remote support for drone software platforms. Marketplaces like Upwork and DroneBase regularly list short-term drone engagements for skilled operators worldwide.
Career Pathway
Module 4 doesn't end your learning — it positions you at the start of a structured, multi-year career ladder
| Stage | What You Do | Where You Stand |
|---|---|---|
| Beginner (Now) | Module 4 completion — working drone, PCB, and pitch portfolio | School student with industry-grade prototype |
| Intermediate (Grade 11–12) | National hackathons, ATL competitions, robotics olympiads, internship trials | Competition-ready student innovator |
| Advanced (College Year 1–2) | Elysium Embedron college program + part-time on real product modules | Hands-on undergraduate engineer |
| Specialist (College Year 3–4) | Embedron+ specialization + EmbedX industry program + research projects | Industry-ready embedded / drone engineer |
| Professional (Post-Graduation) | Drone engineer, embedded product engineer, or hardware startup founder | Career-launched engineer |
Role Transition Opportunities
• From Drone Operator → Drone Engineer: deeper firmware and PCB skills. • From Embedded Engineer → Robotics Engineer: vision and ROS integration. • From Hardware Engineer → Product Manager: business and pitch fluency built into the capstone. • From Student → Founder: capstone pitch becomes the seed of a real startup idea.
| Stage | Credential |
|---|---|
| Module 4 Completion | Certified Drone & Embedded Product Engineer |
| Full Electrobot Senior | Elysium Advanced Embedded Innovator |
| Distinction (A+ Grade) | Elysium Innovator's Medal |
| Next Step | Embedron — Elysium College Embedded Program |
Future Technology Roadmap
The drone and embedded industry is moving fast. This course is built to give you a foundation that scales — and the roadmap below shows what's next.
Recommended Advanced Certifications
- Elysium Embedron — College-level embedded systems program
- Elysium Embedron+ — Specialization track in drones, robotics, or IoT
- DGCA Remote Pilot Certificate — for commercial drone operation in India (age-permitting)
- ArduPilot Developer track — for advanced flight controller customization
- Edge Impulse Expert certification — for embedded ML deployment
Emerging Technologies You'll Touch
| Theme | Industry Direction |
|---|---|
| Drone Swarms | Coordinated multi-drone missions for agriculture, defense, and entertainment. |
| BVLOS Operations | Beyond Visual Line of Sight flights for long-range delivery and inspection. |
| AI on the Edge (TinyML) | Onboard image classification and target detection without cloud dependency. |
| Urban Air Mobility | eVTOL aircraft and air taxis — the next frontier of drone evolution. |
| Drone Cybersecurity | Securing GPS, telemetry links, and flight controllers against spoofing and hijack. |
| Sustainable Drone Engineering | Solar-augmented drones, recyclable materials, low-energy firmware. |
| Generative AI for Engineering | Using AI tools to accelerate schematic generation, firmware writing, and documentation. |
| Drone-as-a-Service Platforms | Cloud-managed fleets for inspection, mapping, and security businesses. |
Detailed Syllabus — Week-by-Week
The 45-day syllabus is delivered across six progressive weeks plus a showcase week. Every week balances theory (30%) with hands-on labs (70%).
Weekly Curriculum Map
| Week | Days | Theme | Concepts Covered | Key Practical Activity |
|---|---|---|---|---|
| 1 | 1–7 | Drone Fundamentals | Aerodynamics, components, regulations, DGCA basics | Component identification & frame build |
| 2 | 8–14 | Build & Wire | Frame, motors, ESCs, FC, receiver, power distribution | Drone assembly and pre-flight checks |
| 3 | 15–21 | Calibration & First Flight | Mission Planner, Betaflight, PID, failsafe, hover test | Tethered hover and stabilize-mode flight |
| 4 | 22–28 | Advanced Drone Features | Waypoints, GPS missions, FPV intro, payload attachment | Autonomous waypoint mission flight |
| 5 | 29–35 | PCB & Productization | KiCAD basics, schematic, layout, BOM, cost engineering | Custom PCB design for a sensor module |
| 6 | 36–42 | Product Capstone Build | End-to-end industrial drone prototype + pitch | Custom Industrial Drone Prototype |
| 7 | 43–45 | Showcase, Pitch & Assessment | Final demo, investor-style pitch, portfolio review | Demo day + complete portfolio |
Theory Components (30%)
- Quadcopter aerodynamics — lift, drag, motor pairing, rotation directions.
- Drone components: frame, motors, ESCs, FC, propellers, battery, receiver, GPS.
- Flight controller firmware: ArduPilot, Betaflight, PX4 — when to use which.
- PID control in drones, flight modes, and failsafe behaviors.
- Drone regulations (DGCA in India, similar global frameworks), categories, no-fly zones.
- Aerial photography basics, gimbals, FPV concepts.
- PCB design principles: schematic, layout, routing, design rules, manufacturing flow.
- Product development lifecycle: idea → MVP → prototype → product → market.
- Business model basics, customer discovery, and pitch structure.
- Cybersecurity for drones: GPS spoofing, link encryption, and geo-fencing.
Practical Components (70%)
- Identifying and inspecting every drone component for quality and safety.
- Soldering ESCs to motors and the power distribution board cleanly.
- Wiring flight controllers to receivers, ESCs, and telemetry modules.
- Running full calibration sequences in Mission Planner and Betaflight.
- Conducting tethered hover tests under instructor supervision.
- Conducting tethered hover tests under instructor supervision.
- Configuring waypoint missions and flying them autonomously in open ground.
- Designing a 2-layer PCB schematic and layout in KiCAD or EasyEDA.
- Generating Gerber files and a BOM for PCB manufacturing.
- Writing a 5-slide investor-style pitch deck.
- Presenting prototypes, demoing live behavior, and fielding panel Q&A.
Week 1 — Drone Fundamentals & Aerodynamics
Module Overview
Week 1 lays the conceptual and regulatory foundation for everything that follows. Students learn how a quadcopter actually flies, identify every component on a real F450 kit, and understand the legal and safety boundaries within which drones operate in India and globally.
Topics Covered
• Quadcopter aerodynamics: lift, drag, thrust, and yaw mechanics
• Frame geometry and motor rotation pairing (CW / CCW)
• Drone components: frame, motors, ESCs, FC, propellers, battery, receiver, GPS
• DGCA Drone Rules 2021 — categories, no-fly zones, DigitalSky
• LiPo battery chemistry and safety protocols
• Pre-flight checklist culture in commercial drone operations
• Frame geometry and motor rotation pairing (CW / CCW)
• Drone components: frame, motors, ESCs, FC, propellers, battery, receiver, GPS
• DGCA Drone Rules 2021 — categories, no-fly zones, DigitalSky
• LiPo battery chemistry and safety protocols
• Pre-flight checklist culture in commercial drone operations
Practical Exercises
• Lay out and identify every component in the drone kit
• Inspect each component for quality, damage, and authenticity
• Build the F450 frame mechanically with correct screw torque
• Run a battery safety drill including charge, store, and dispose procedures
• Map a sample no-fly zone using DigitalSky portal
• Inspect each component for quality, damage, and authenticity
• Build the F450 frame mechanically with correct screw torque
• Run a battery safety drill including charge, store, and dispose procedures
• Map a sample no-fly zone using DigitalSky portal
Mini Project / Assignment
Submit a one-page 'My Drone Build Spec Sheet' listing every component, its function, and any safety considerations.
Learning Outcome
Students gain fluency in drone vocabulary, understand the legal landscape, and complete the mechanical chassis of their flying machine.
Industry Application
Direct mapping to drone manufacturing QC roles where component inspection and frame assembly precede every electrical step.
Week 2 — Build, Wire & Power
Module Overview
Week 2 is where the drone starts looking like a drone. Students solder ESCs to motors and the power distribution board, mount the flight controller, and wire the radio receiver. Every joint is inspected for cold solders, shorts, and stress points.
Topics Covered
• Soldering techniques for ESC-to-motor and ESC-to-PDB joints
• Power distribution board layout and current ratings
• Flight controller mounting with vibration damping
• Radio receiver wiring and channel mapping
• Cable management and CG (center-of-gravity) considerations
• Power distribution board layout and current ratings
• Flight controller mounting with vibration damping
• Radio receiver wiring and channel mapping
• Cable management and CG (center-of-gravity) considerations
Practical Exercises
• Solder all four ESCs to motors with heat-shrink protection
• Wire the PDB to the LiPo connector with smoke stopper for first power-up
• Mount the flight controller on vibration-damping pads
• Bind the FrSky receiver to the transmitter
• Perform a no-prop power-up test with multimeter verification
• Wire the PDB to the LiPo connector with smoke stopper for first power-up
• Mount the flight controller on vibration-damping pads
• Bind the FrSky receiver to the transmitter
• Perform a no-prop power-up test with multimeter verification
Mini Project / Assignment
Document the build with five labeled photographs and a one-paragraph reflection on what was hardest.
Learning Outcome
Students complete a fully wired, electrically-safe drone ready for sensor calibration. They internalize the discipline of pre-power inspection.
Industry Application
Mirrors drone manufacturing assembly-line workflows in commercial drone factories where soldering quality is the largest source of field failures.
Week 3 — Calibration & First Flight
Module Overview
Week 3 is the most thrilling — students fly. But only after every sensor is calibrated, every failsafe is verified, and every safety protocol is observed. The first hover happens on a tether, in a safety-netted area, with two trainers present.
Topics Covered
• Mission Planner installation and FC firmware updating
• Accelerometer (6-position) and magnetometer (rotation) calibration
• Radio calibration and stick travel verification
• ESC calibration and motor direction confirmation
• PID basics and stabilize-mode tuning
• Failsafe configuration (RC loss, low battery, geofence)
• Accelerometer (6-position) and magnetometer (rotation) calibration
• Radio calibration and stick travel verification
• ESC calibration and motor direction confirmation
• PID basics and stabilize-mode tuning
• Failsafe configuration (RC loss, low battery, geofence)
Practical Exercises
• Run the full calibration sequence in Mission Planner
• Verify motor direction with low-throttle prop-off test
• Configure failsafe to RTL on signal loss
• Perform a tethered hover at 1m altitude under supervision
• Review log files and identify any anomalies
• Verify motor direction with low-throttle prop-off test
• Configure failsafe to RTL on signal loss
• Perform a tethered hover at 1m altitude under supervision
• Review log files and identify any anomalies
Mini Project / Assignment
Record a 60-second tethered hover video and annotate the log file showing battery voltage and attitude data across the flight.
Learning Outcome
Students achieve their first stable hover and learn that 'safe flight' is a process, not an event.
Industry Application
Pre-deployment calibration is exactly how commercial drone fleets prepare every airframe before customer delivery or critical mission.
Autonomous Missions & Advanced Features
Module Overview
Week 4 unlocks the magic — the drone flies itself. Students program GPS waypoint missions, observe RTL behaviors, attach FPV cameras, and even attempt a light payload drop.
Topics Covered
• GPS lock, satellite count, and HDOP fundamentals
• Waypoint mission planning in Mission Planner
• AltHold, Loiter, Auto, and RTL flight modes
• FPV camera + VTX integration with goggles or smartphone
• Payload mounting and CG re-balancing
• Geo-fencing and altitude limits
• Waypoint mission planning in Mission Planner
• AltHold, Loiter, Auto, and RTL flight modes
• FPV camera + VTX integration with goggles or smartphone
• Payload mounting and CG re-balancing
• Geo-fencing and altitude limits
Practical Exercises
• Plan and upload a 4-waypoint mission
• Fly the mission autonomously in an open field
• Mount an FPV camera and view live feed on a ground monitor
• Attach a 100g payload and re-verify CG
• Test geofence breach behavior under controlled conditions
• Fly the mission autonomously in an open field
• Mount an FPV camera and view live feed on a ground monitor
• Attach a 100g payload and re-verify CG
• Test geofence breach behavior under controlled conditions
Mini Project / Assignment
Execute a successful autonomous mission and submit the mission file, flight log, and a 2-minute aerial video.
Learning Outcome
Students transition from drone pilot to drone operator — capable of designing and executing missions without manual stick input.
Industry Application
Mirrors the workflows of commercial drone operators in agriculture mapping, infrastructure inspection, and delivery pilots.
Week 5 — PCB Design & Productization
Module Overview
Week 5 is where many students realize they're becoming engineers, not just builders. They open KiCAD, draw their first schematic, route a real PCB, generate Gerber files, and learn to read a manufacturing quote.
Topics Covered
• Introduction to KiCAD / EasyEDA workflow
• Schematic capture: symbols, footprints, and netlists
• Component placement strategy and design rules
• Two-layer routing, ground planes, and decoupling
• BOM generation and component sourcing
• Gerber file export and PCB manufacturing economics
• Schematic capture: symbols, footprints, and netlists
• Component placement strategy and design rules
• Two-layer routing, ground planes, and decoupling
• BOM generation and component sourcing
• Gerber file export and PCB manufacturing economics
Practical Exercises
• Design a sensor PCB hosting an ESP32 + chosen sensor
• Place components considering signal flow and thermal zones
• Route the PCB on two layers with proper ground pour
• Run design rule checks (DRC) and electrical rule checks (ERC)
• Export Gerbers, generate BOM, and obtain a manufacturing quote
• Place components considering signal flow and thermal zones
• Route the PCB on two layers with proper ground pour
• Run design rule checks (DRC) and electrical rule checks (ERC)
• Export Gerbers, generate BOM, and obtain a manufacturing quote
Mini Project / Assignment
Submit a complete PCB project folder: schematic PDF, layout image, Gerber zip, BOM CSV, and a 200-word design rationale.
Learning Outcome
Students gain a skill — PCB design — that is rare even at the engineering-graduate level. This is their first true product engineering deliverable.
Industry Application
Foundational to careers in embedded product engineering, IoT hardware design, and electronics startups.
Week 6 — Capstone — Industrial Drone Prototype + Pitch
Module Overview
Week 6 is the integration sprint. Students choose an industry (agriculture, manufacturing, defense, or transport), define a real use case, integrate their PCB payload onto their drone, execute a demonstration mission, and prepare a startup-style pitch.
Topics Covered
• Use-case scoping and target customer identification
• Drone + custom PCB integration
• End-to-end mission rehearsal
• Pitch deck structure: problem, solution, market, traction, ask
• Business model canvas basics
• Demo day rehearsal and Q&A handling
• Drone + custom PCB integration
• End-to-end mission rehearsal
• Pitch deck structure: problem, solution, market, traction, ask
• Business model canvas basics
• Demo day rehearsal and Q&A handling
Practical Exercises
• Integrate the custom PCB payload onto the drone
• Run a complete mission simulating the chosen industry use case
• Draft a 5-slide pitch deck
• Rehearse the pitch with peers and refine based on feedback
• Prepare a polished demo video
• Run a complete mission simulating the chosen industry use case
• Draft a 5-slide pitch deck
• Rehearse the pitch with peers and refine based on feedback
• Prepare a polished demo video
Mini Project / Assignment
Deliver a working industrial drone prototype, a 5-minute live or video demo, a 5-slide pitch deck, and a complete GitHub repo.
Learning Outcome
Students consolidate every skill from Module 1 to Module 4 into a single, defensible product story.
Industry Application
Mimics the cadence and discipline of hardware startups, product accelerators, and corporate hackathons.
Week 7 — Showcase, Pitch & Assessment
Module Overview
The final three days are dedicated to demo day. Students present to mentors, peers, parents, and (where available) external industry panelists. The portfolio is finalized, certifications are awarded, and reflections are recorded.
Topics Covered
• Portfolio finalization checklist
• Public demo etiquette and live troubleshooting
• Investor Q&A handling
• Self-reflection and growth-area identification
• Career roadmap session
• Public demo etiquette and live troubleshooting
• Investor Q&A handling
• Self-reflection and growth-area identification
• Career roadmap session
Practical Exercises
• Run a final dress-rehearsal demo
• Present the live pitch to the panel
• Capture audience and panel feedback
• Polish the GitHub repo and add a professional README
• Submit the final reflection report
• Present the live pitch to the panel
• Capture audience and panel feedback
• Polish the GitHub repo and add a professional README
• Submit the final reflection report
Mini Project / Assignment
Complete the final demo day successfully and submit all portfolio deliverables.
Learning Outcome
Students leave with a portfolio, a credential, and the confidence that comes from defending real work in front of a real audience.
Industry Application
Demo days are the closest school-level analog to product launches, investor pitches, and engineering review boards.
Module-Wise Document Breakdown
Each week of Module 4 is a self-contained learning unit. Below is the standalone documentation for every week, ready to be lifted directly into module pages, brochures, or LMS course descriptions.
Curriculum Framework
Learning Stages
| Stage | Description | Outcome |
|---|---|---|
| Discover | Concept introduction through demonstrations, videos, and real industry examples. | Curiosity & context |
| Design | Block diagrams, mission plans, schematic planning, and system thinking. | Engineering mindset |
| Develop | Hands-on building, calibration, coding, and PCB routing. | Technical skill |
| Deploy | Working prototype flights, demonstrations, and field tests. | Product mindset |
| Disrupt | Innovation, business pitching, and product iteration. | Entrepreneurial thinking |
Skill Progression Map
| Week | Skill Layer Added |
|---|---|
| Week 1 | Component fluency, regulations awareness |
| Week 2 | Soldering, wiring, mechanical assembly |
| Week 3 | Sensor calibration, safe first flight |
| Week 4 | Autonomous mission planning, payload integration |
| Week 5 | PCB design, BOM creation, manufacturing literacy |
| Week 6 | Product integration, business storytelling |
| Week 7 | Demo execution, portfolio polish, reflection |
Theory vs Practical Breakdown
| Component | Daily Allocation | Activities |
|---|---|---|
| Theory (30%) | ~27 minutes per day | Concepts, standards, regulations, design principles, business basics |
| Practical (70%) | ~63 minutes per day | Build, solder, calibrate, fly, route PCBs, document, pitch |
Assessment Structure
| Component | Weightage | What is Evaluated |
|---|---|---|
| Practical Lab Assessment | 25% | Daily lab logbook, drone-build skills, calibration, safe operation |
| Capstone Project Evaluation | 30% | Working drone + custom PCB + executed mission + pitch |
| PCB Design Submission | 10% | Quality of schematic, layout, BOM, manufacturing-readiness |
| Viva-Voce | 10% | Theory on drones, PCB design, regulations, product engineering |
| Assignments & Quizzes | 10% | Concept checks and mission planning tasks |
| Attendance & Participation | 10% | Engagement and peer support |
| Innovation & Pitch Score | 5% | Originality of product idea and pitch quality |
Project-Based Learning Structure
- Every concept is taught through a working build.
- Every week ends with a demonstrable artifact.
- Every mini-project follows the cycle: problem → design → build → test → demo.
- Capstone is mandatory and panel-evaluated.
- Documentation discipline is enforced from day one.
Frequently Asked Questions
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