School Robotics Lab

Space, power and layout

Start with the room. India's Atal Innovation Mission, in its guidelines for setting up Atal Tinkering Laboratories, asks applicant schools to provide at least 1,500 square feet of built-up space, or at least 1,000 square feet in hilly or Himalayan states and island states. Your own lab may be smaller, but the same planning questions apply. Leave a clear floor area for testing robots, separate from benches used for building and soldering. Put power sockets along the benches rather than across walkways, decide where charging will happen, and keep a sink or cleaning station nearby if you will use glue, paint or 3D printing resin.

Budget lines beyond the robots

Kits are only one line in a lab budget. The Atal Tinkering Lab guidelines group equipment into four packages: electronics, robotics, IoT and sensors; rapid prototyping tools such as 3D printers; tools for mechanical work, electrical work and measurement; and construction kits, power supplies and safety equipment. Use similar headings in your own plan, then add consumables, spare parts, software licences, furniture, storage, staff training and a replacement fund. When you price kits, compare a class set of a low-cost robot such as the Makeblock mBot2, listed at $120 in October 2026, with a few advanced units such as the TurtleBot 4, listed at $1,200, and decide which suits your teaching.

Risk assessment and safety guidance

In England, the Department for Education's guidance Health and safety: responsibilities and duties for schools says that the employer, or the proprietor in an independent school, is accountable for the health and safety of staff and pupils, and that risk assessments should set proportionate control measures and be treated as living documents. For a robotics lab, cover battery charging, soldering fumes, hot glue, 3D printers, sharp tools and robots moving at speed in the test area. The same guidance points schools to CLEAPSS and the Design and Technology Association for subject-specific advice. Review the assessment whenever you add new equipment, such as a laser cutter, a robot arm or larger competition robots.

Storage, charging and running the room

A tidy system saves more lessons than any single piece of kit. Give every robot set a numbered tray or box with a contents list, so missing parts are spotted at the end of a lesson rather than weeks later. Charge batteries in one supervised place, ideally a metal cabinet or fire-resistant bags, and keep a log of damaged packs. The Atal Tinkering Lab guidelines expect schools to appoint faculty members to manage the lab's day-to-day operations, and that habit works anywhere: name a lab lead, agree who can book the room and train a few pupils as technicians to help with setting up and tidying away.

Sources and further reading

• Guidelines for setting up Atal Tinkering Laboratories — Atal Innovation Mission, NITI Aayog (Government of India).
  Official ATL guidelines: grant amounts and phasing, school eligibility, lab space and the four equipment packages.
• Health and safety: responsibilities and duties for schools — Department for Education (GOV.UK).
  Who is accountable for health and safety in each type of school, and how risk assessments should work.

Common questions

Can a robotics lab share a room with design and technology?

Often, yes, since both need benches, tools and power. Agree a timetable, separate storage for each subject's equipment and a joint risk assessment, and make sure dust and fumes from machining do not reach robots, laptops or charging batteries.

Do we need a 3D printer in a school robotics lab?

It helps but is not essential at the start. A printer lets students make brackets, sensor mounts and replacement parts, though it adds running costs, ventilation needs and supervision. Consider adding one once the basic kits are in regular use and a member of staff can look after it.