
TL;DR
- Phase the lab by grade. Use pre-built, app-controlled kits in Grades 3–5, a programmable board with block coding and Python from Grade 6, and IoT and competition projects in Grades 9–12.
- Size it to one section. Plan one kit per team of three or four students, in a room that seats your largest section (25–40 students) with surge-protected power and two exits.
- Know the CBSE deadline. Existing CBSE schools must have a Composite Skill Lab (CSL) by 22 August 2027. A robotics lab covers its electronics and mechatronics sector, not the whole CSL.
- Budget realistically. CBSE's ₹3–6 lakh estimate covers a complete multi-sector lab. One class set of 10 kits for a single grade costs ₹14,500–₹1,05,990 (worked example below).
To set up a robotics lab in your school, start with one room that seats your largest section, buy pre-built kits for Grades 3–5, and add programmable boards from Grade 6. Matching the kit to the grade keeps younger students building, lets older students code, and spares you hardware that a class cannot use yet.
This guide covers room and power needs, CBSE requirements, kits by grade, class-set costs and a phased rollout. It draws on CBSE's published Composite Skill Lab guidelines and on Avishkaar's work with 6,000+ schools across 30+ countries.
What does it take to set up a robotics lab in a school?
A school robotics lab needs four things: a room that seats one full section, safe electrical power, storage for kits, and a trained teacher. CBSE's Composite Skill Lab guidelines give the best baseline to plan against, even when your robotics lab is smaller than a full CSL.
| Item | What CBSE's CSL guidelines say | Our practical recommendation |
|---|---|---|
| Room | One room of at least 600 sq. ft. (Classes VI–XII) or two rooms of at least 400 sq. ft. each | A dedicated room with one table per team of three or four |
| Batch size | 25–40 students | Plan for your largest section |
| Power | A mix of 15-ampere and 5-ampere wall sockets, surge protectors, insulated cords | One surge-protected power strip per table and a labelled master switch |
| Safety | Two wide exit doors, fire extinguishers, emergency stop buttons on machines | A first-aid box and a "no food or drinks at the tables" rule |
| Storage | Not specified for robotics | One labelled bin per kit with a parts checklist |
Does CBSE require a robotics lab in schools?
CBSE requires a Composite Skill Lab, not a robotics lab, and electronics and mechatronics is one sector that lab can include. Circular Skill-75/2024 (23 August 2024) set the requirement, and Skill-13/2026 (20 March 2026) repeats it: schools seeking fresh affiliation need a CSL now, and existing schools have until 22 August 2027.
Three points matter before you budget:
- A robotics lab covers one sector. The CSL's Electronics/Mechatronics tool list names Arduino UNO, ESP32, sensors, motors and relays, with four sets for a class of 40. A compliant CSL also needs other skill sectors, which robotics kits do not supply.
- CBSE's cost figure is a whole-lab estimate. The guidelines say a CSL "may cost about Rs. 3-6 lakhs" and call the figure suggestive.
- CBSE names no approved brand. The tool lists are suggestive, and some entries allow "equivalent or better" substitutes.
ICSE and state-board schools do not fall under CBSE circulars. NEP 2020 still encourages hands-on skill education nationally, so the same grade-wise plan works. Check your own board's vocational requirements, and read the latest CBSE circulars at cbseacademic.nic.in before you commit funds, because CBSE can revise dates.
Which robotics kits suit which grade?
Match the kit to the student's stage: pre-built kits for Grades 3–5, programmable boards for Grades 6–8, and IoT projects for Grades 9–12.
| Grades | Learning focus | Kits to consider |
|---|---|---|
| 3–5 (ages 8–11) | Mechanical design, motors, first coding | ABot Advanced, Robotics Starter Kit, Robotics Classroom Bundle |
| 6–8 | Sensors, logic, first Python | Maker Board 3.0, Robotics Advanced Kit (ER Series) |
| 9–12 | IoT, automation, competition projects | IoT Starter Kit, Maker Board 3.0 |
Avishkaar's school program also lists Tweak for Grades 1–2.
Grades 3–5: pre-built, app-controlled kits
Students aged 8–11 learn mechanical design first, so choose kits that arrive with motors, a programmable brain and a printed manual. The kit (60+ parts, ages 8+) builds up to 10 app-controlled robots, such as a piano bot and a table cleaner, and pairs app control with block coding. The Robotics Starter Kit (100+ parts, ages 8+) builds over 100 models, including a smart fan, boom barrier and catapult, with the same block-coding software. We recommend the Starter Kit for Grade 3 first builds and ABot Advanced for Grades 4–5, when students begin programming.
Grades 6–8: programmable boards
Grade 6 is where students move from using a robot to programming one. Maker Board 3.0 puts servo and DC motor drivers, a buzzer, an LED matrix and a button on one board. It connects over Bluetooth and USB Type-C and runs block coding and Python, so the first lesson covers logic instead of wiring. In Avishkaar's school deployments, Grade 6 students who meet open breadboard wiring in their first session often lose momentum before they reach programming.
CBSE's Electronics list names Arduino UNO with "equivalent or better" wording. Ask any vendor, including us, for a side-by-side spec comparison before you buy.
The ER Series, listed for Grades 5–8 in Avishkaar's school program, adds structure. Its Robotics Advanced Kit (ER Series) suits ages 10+ and brings 150+ parts, block coding and Python. The ER Advanced Robotics Grade 6 course runs 32 weekly sessions with 25 projects, including AI-driven builds. For Classes VI–VIII, CBSE's Kaushal Bodh circular (Skill-81/2025) adds project-based skill education, and robotics projects fit its machines-and-materials work.
Grades 9–12: IoT and competitions
Senior students need open-ended problems. Add the IoT Starter Kit, which Avishkaar's school program lists for Grades 9–12. It has 40+ parts and 100+ projects, with rain, smoke, IR and light sensors, and it runs on Maker Board hardware with block coding and Python. Reuse Maker Board 3.0 for further sensor and automation projects. Competitions such as Avishkaar's IRC League and Makeathon give senior teams a deadline and an audience.
How many kits does a school robotics lab need?
Buy for your largest section, not your whole grade, because one section uses the lab at a time and sections share kits. Our rule of thumb is one kit per team of three or four students.
Worked example for 40 students per section, using prices listed on shop.avishkaar.cc (confirm current prices before budgeting):
| Section | Teams of four | Kit | Listed price | Kit cost |
|---|---|---|---|---|
| Grade 3 | 10 | Robotics Starter Kit | ₹7,299 | ₹72,990 |
| Grade 4 or 5 | 10 | ABot Advanced | ₹5,799 | ₹57,990 |
| Grade 7 | 10 | Maker Board 3.0 | ₹1,450 | ₹14,500 |
| Grade 8 | 10 | Robotics Advanced Kit (ER Series) | ₹10,599 | ₹1,05,990 |
| Grade 10 | 10 | IoT Starter Kit | ₹4,299 | ₹42,990 |
| Total | ₹2,94,460 |
This total covers kits only. Sensors for Grade 7, tablets or computers for app and desktop software, tables, storage, power fittings and teacher training come on top. CBSE's own electronics list assumes four sets per class of 40, with students rotating between stations, so ten teams gives each student more hands-on time.
If you prefer one purchase over several kit types, the Robotics Classroom Bundle (₹39,499, ages 8+) packs 400+ parts and the Avishkaar FULL 2.0 programmable brain, and its parts can build 500+ robots. The page does not say how many teams one bundle serves, so ask for team capacity before you compare it with the per-kit costs above.
How should you phase your school robotics lab?
Phase the rollout across three stages so each stage funds the next and teachers gain confidence before the kits get harder:
- Months 1–3: build the base. Prepare the room (power, storage, safety), buy one Grade 3–5 class set, and train two teachers.
- Months 4–6: add programming. Buy a Grade 6–8 class set of Maker Board 3.0 and timetable one lab period per class each week.
- Months 7–12: add depth. Add the IoT Starter Kit for Grades 9–12, form a competition team, and, if you are a CBSE school, map the remaining CSL sectors.
CBSE schools should count back from 22 August 2027 and compress these stages to fit.
What mistakes do schools make when they set up a robotics lab?
Most problems come from sequencing, not from the kits. These are the five we see most often (our observation, not a board finding):
- One advanced kit for every grade. Younger students stall on wiring, and older students outgrow pre-built models.
- Equipping the room before fixing the timetable. Confirm periods per week for each section before you buy, because an idle lab teaches nothing.
- Training teachers after the kits arrive. Train first, so the first lesson runs on delivery day.
- Treating the lab as a compliance tick-box. Robotics covers one CSL sector, so keep a plan for the others.
- Forgetting devices. ABot Advanced's mobile app needs iOS 11+ or Android 10+, and its desktop software needs Windows 10+ or macOS 10.15+, so budget for tablets or computers.
Who runs the robotics lab, and what training do teachers need?
A trained teacher with a ready curriculum matters more than the kit count. Avishkaar's Tech Innovation Labs program bundles kits, a Grades I–XII curriculum, the Maker Studio cloud platform (block coding to Python), and teacher training with a Certified Trainer program. Ask any vendor to state in writing how many training days, which curriculum hours and what support window your fee includes.
Ready to size your lab?
Explore classroom-ready kits at shop.avishkaar.cc, or contact Avishkaar for a school lab consultation at home.avishkaar.cc. Share your board, grades and class strength, and the team will map a phased plan to your room and budget.
Frequently Asked Questions