Setting Up a School Robotics Lab: Budget, Space, Kits

The short answer: start from the curriculum, not the equipment list. Decide which grades will use the lab and what they will build, then size the room, furniture, power, kits, 3D printers and drone area to fit. Budget for consumables, repairs and teacher training every year, not just the first purchase. A lab without a weekly timetable and a trained person to run it becomes a showroom.

Many schools buy robotics equipment first and work out how to use it later. The better order is: curriculum, then timetable, then people, then space, then equipment. This guide walks through each step and ends with a planning checklist. If you are a CBSE school, the same plan can form the Machines & Materials section of a Composite Skill Lab.

Step 1: Decide what the lab is for

Which grades? Young grades need open tables and enclosed kits; seniors need workbenches, tools and printers.
What will they build? Write down two or three projects per grade (see our curriculum by grade guide).
How often? One period a week per section is a common starting point. Count sections to see how many hours the lab will be in use.
Composite Skill Lab? CBSE's Composite Skill Lab guidelines expect one flexible space for several skill areas across three forms of work. Decide early if robotics is one section of a wider lab.

Step 2: Space and layout

Tables for group work: groups of four to five students around a table work better than rows.
Power: sockets spread around the room for soldering stations, printers and charging, with a master switch the teacher can reach.
Storage: labelled, lockable storage per class or per kit, so components don't mix between sections.
3D printing corner: a stable surface, away from students' faces, with good ventilation.
Drone area: an indoor netted space or a clear hall for supervised flights of small training drones.
Display wall: a place to show finished projects. It is the part visiting parents notice.

Step 3: Kits and equipment by grade

Grades	Core kit	Shared equipment
1–2	Building blocks, wheels and gears, enclosed low-voltage light, sound and motor modules	Floor robot for direction games
3–5	LEDs, buzzers, sensors, motors, breadboards, introductory Arduino	Shared screen for Scratch, intro CAD
6–8	Arduino boards, sensors, motor drivers, robot chassis	3D printer, CAD and slicing software, training drones
9–12	ESP32 or similar boards, actuators, soldering tools, PCB materials	3D printers, drone platforms, measurement tools

Buy kits that are repairable and sold with spare parts. Ask suppliers for the replacement cost of each component before you buy.

Step 4: What drives the budget

Prices change and vary by supplier, so this guide does not quote figures. Instead, list these lines and get written quotes for each:

One-time: furniture and storage, electrical work, 3D printers, drone platforms and nets, tools, a shared display screen.
Per student or per kit: kits for each grade band, project workbooks.
Every year: consumables (filament, batteries, components), repairs and replacements, software licences, teacher training, trainer fees if you use a provider.
Optional: events, competitions and exhibitions.

The yearly lines are the ones schools forget. A lab with no consumables budget stops being used by the second term.

Step 5: Safety

Enclosed, low-voltage modules only for young grades; no mains power at student tables.
Soldering only for older students, with stands, eye protection and supervision.
3D printers behind a barrier or in a corner, never left running unattended with students in the room.
Lithium batteries charged and stored in a fire-safe container, never left charging overnight.
Drones flown only in a netted or cleared indoor area, under supervision. For outdoor flying, check India's current Drone Rules and the airspace map on DGCA's Digital Sky platform first.
A first-aid kit and a written lab rules poster.

Step 6: People and teacher training

The lab needs a named person who runs it, timetables it and looks after inventory. Options are training your own teachers, bringing in trainers from a provider, or a mix where a provider's trainer teaches while your teachers learn alongside. Whatever you choose, plan time for training before the year starts and refreshers during it.

Step 7: Running it all year

Keep an inventory list and check kits at the end of each class.
Schedule a maintenance check every term.
End each term with a showcase where students demonstrate their projects.
Track what each grade built and share it with parents.

Planning checklist

☐ Grades and projects per grade decided
☐ Lab periods placed in the timetable
☐ Named lab in-charge and training plan
☐ Room, power, storage and ventilation checked
☐ Drone flying area identified
☐ Kit list per grade, with spare-part prices
☐ Written quotes for one-time and yearly costs
☐ Safety rules written and posted
☐ Inventory and maintenance routine agreed
☐ First showcase date set

How GNR Robotics can help

GNR Robotics, a program of SRS EduTech in Bengaluru, provides the curriculum, kits, project workbooks, LMS access and trained mentors for 26 in-person classes a year, with drone hardware and faculty training backed by our MOU with Dronacharya Tech Hub. Our School Curriculum & Composite Skill Lab Proposal sets out a lab framework aligned to CBSE's three forms of work. See how a partnership works or request a proposal.

Sources and notes

National Education Policy 2020, Ministry of Education, Government of India: education.gov.in.
CBSE skill education and Composite Skill Lab guidance: cbseacademic.nic.in.
Drone Rules, 2021 (as amended) and the Digital Sky platform, Directorate General of Civil Aviation: digitalsky.dgca.gov.in.
Safety points are general good practice for school makerspaces, not a substitute for your school's own risk assessment.

Setting up a school robotics lab: budget, space, kits and teacher training.