AI & ROBOTICS LAB SETUP FOR SCHOOLS

From Empty Classroom to a Future-Ready Innovation Lab.

Transform your school's learning environment with thoughtfully planned AI and Robotics Labs. ANVAYROBO brings together lab design, robotics equipment, STEM resources, curriculum, teacher training, installation and implementation support to help schools introduce practical technology education.

Pan-India Turnkey Delivery
Configurable To Campus Space
Hands-on Project Learning

Direct Institutional Consultation Hotline: +91 90535 79764 / +91 76738 25079

ANVAYROBO Turnkey AI and Robotics Lab Setup with collaborative workstations, robotics kits, and computing equipment
Turnkey Innovation Infrastructure

Institutional Scope

Robotics • AI Coding • IoT • Electronics • Prototyping

01PLAN
Space & Layout Design
02EQUIP
Robotics & IoT Hardware
03CURRICULUM
Grade-Wise Workbooks
04INSTALL
Turnkey Setup & Testing
05TRAIN
Faculty Enablement
06SUPPORT
Long-Term Care & Spares
Classroom Evolution

Your Classroom Can Become a Centre for Innovation.

A thoughtfully designed school laboratory creates space for students to move beyond theoretical learning and explore technology through practical activities, experimentation and project building.

Spatial Transformation Comparison
After Transformation: High-tech ANVAYROBO school innovation lab with dedicated robotics workstations
AFTER TRANSFORMATION

Future-Ready Multidisciplinary Innovation Lab

Designed with power rails, anti-static workbenches, safe component drawers and collaborative student clusters.

Structural Comparison

Organised, Scalable & Purpose-Built

  • Organised Robotics Workstations: Ergonomic bench heights with heavy-duty surfaces and anti-static ESD grounding.
  • Electronics & IoT Stations: Modular breadboard trays, power supplies, sensor bins and testing meters.
  • Computers & Coding Desks: Clean cable conduits, protected network connections, and dual-purpose coding monitors.
  • STEM Project & Assembly Tables: Wide tables for robot testing, rover tracks, and collaborative group fabrication.
  • Lockable Equipment Storage: Transparent partitioned cabinets for microcontrollers, motors, and tools.

Flexible Campus Adaptation: ANVAYROBO does not mandate a single rigid room size. Whether your school has an existing 450 sq. ft. room or an expansive 1,200+ sq. ft. hall, our architects configure workstations, equipment counts, and safety corridors to match your available campus footprint.

Configurable Learning Zones

One Lab. Multiple Technology Learning Experiences.

Create a multidisciplinary innovation environment where students can explore different areas of emerging technology through practical learning.

Robotics & Automation - Mechanics, Microcontrollers & Autonomous Movement
ZONE 01

Mechanics, Microcontrollers & Autonomous Movement

Robotics & Automation

A dedicated prototyping zone where students understand kinetics, motor actuation, sensor integration, and chassis assembly to build intelligent mobile robots and automation mechanisms.

Equipment & Hardware

  • Educational robot car chassis & wheels
  • Multi-axis articulated robotic arms
  • DC geared motors, servos & stepper actuators
  • Ultrasonic, infrared & optical line sensor arrays
  • Motor driver shields & microcontroller motherboards
  • Precision robot assembly tools & test mats

Practical Learning Projects

  • Autonomous obstacle-avoiding rover with ultrasonic sensing
  • High-precision infrared line-following transport robot
  • 4-DOF pick-and-place servo robotic arm
  • Automated industrial sorting conveyor prototype

Customizable to your school's class grades (Grades 1 to 12).

Inquire About This Zone

Configurable Architecture Notice: These five zones represent modular learning areas. ANVAYROBO configures equipment, workstation counts, and zones according to your school's specific room footprint, target student age groups, and curriculum objectives. Not every school lab setup is required to include all five zones.

Institutional Equipment Catalog

Everything Required to Build a Functional Learning Lab.

Choose the equipment and infrastructure according to your school's available space, student age groups, learning objectives and implementation requirements.

Robotics Equipment - Mobile Rovers, Articulated Arms & Motor Systems
CATEGORY A

Mobile Rovers, Articulated Arms & Motor Systems

Robotics Equipment

Core mechanical and robotic hardware designed for iterative student assembly, kinetic motion experiments, and automated navigation tasks.

Indicative Equipment Items

  • Educational robotics starter and explorer kits
  • Multi-chassis mobile robot car platforms
  • Multi-axis articulated robotic arm mechanisms
  • DC geared motors, micro servos & high-torque steppers
  • Motor driver expansion shields & controller boards
  • Ultrasonic, infrared, touch, and optical encoder sensors

Typical Lab Applications

  • Obstacle detection and line following experiments
  • Pick-and-place articulated arm servo programming
  • Autonomous chassis wheel velocity and steering control
  • Robotics competition arena challenge trials

Optional Additions:

Competition arena mat tracks & boundary conesModular metal/acrylic mechanical bracket setsHeavy-duty rechargeable battery packs & smart chargers

Exact brands, models, and quantities are tailored to your school's approved quotation.

Request a Custom Equipment List

* Equipment lists are customized to institutional requirements and approved budget parameters. ANVAYROBO does not publish arbitrary fixed bundles or artificial inventory counters.

Spatial Architecture & Ergonomics

Designed Around Your School's Space and Vision.

Every school has different infrastructure, student capacity and learning goals. Plan your lab around the available space, equipment requirements and intended student activities.

01

Space Assessment

Comprehensive evaluation of room dimensions, floor area (typically 400 to 1,200+ sq. ft.), natural lighting, ventilation, and structural load capacity.

Critical Considerations:

  • ✓Room length, width, ceiling height & pillar locations
  • ✓Door width & emergency egress pathways
  • ✓Adequate ambient airflow and temperature regulation
02

Workstation Planning

Designing ergonomic 2-student to 4-student collaborative clusters that promote peer team learning without crowding robot assembly space.

Critical Considerations:

  • ✓Ergonomic bench heights for target student grades
  • ✓Ample elbow room for dual-student laptop and kit pairing
  • ✓Clear line of sight to teacher demonstration display
03

Equipment Placement

Strategic zoning of high-traffic robot test arenas, quiet coding rows, precision electronics benches, and fabrication equipment.

Critical Considerations:

  • ✓Dedicated unobstructed arena for mobile robot testing
  • ✓Electronics bench separated from liquid or chemical areas
  • ✓3D printer placed in well-ventilated corner location
04

Electrical & Networking

Engineered cable conduits, under-bench raceways, dedicated circuit breakers (MCBs), surge protection, and high-bandwidth school Wi-Fi.

Critical Considerations:

  • ✓No loose trailing extension cords across floor walkways
  • ✓Earth leakage circuit breakers (ELCB) for student safety
  • ✓High-density Wi-Fi access points for ESP32/IoT nodes
05

Safety & Storage

Lockable storage for valuable microcontrollers, dedicated component bins, clear safety signage, and grade-appropriate equipment accessibility.

Critical Considerations:

  • ✓Polycarbonate window cabinets for visual inventory audits
  • ✓First aid kit, dry-chemical fire extinguisher & eye wash
  • ✓Anti-static ESD grounding mats on electronics benches
06

Future Expansion

Modular bench and utility layouts designed to accommodate additional kits, upgraded computers, and emerging AI hardware over 3 to 5 years.

Critical Considerations:

  • ✓Spare electrical breakers and conduit capacity
  • ✓Modular desks easily reconfigured for competition mats
  • ✓Scalable inventory racks for supplemental student batches
Illustrative Concept Floor Plan

Conceptual 30-Student School Innovation Lab (600 - 800 sq. ft.)

Optimised for dual-student collaborative pods, perimeter power distribution, and a central robotics testing arena.

Interactive Layout Zones
MAIN ENTRY (1.2m)TEACHER COMMAND PODInteractive Screen & Demo ConsoleCENTRAL ROBOTICS ARENARover Track, Obstacle Course & Drone RingWORKSTATION POD A4 Students • AI & Python NodesWORKSTATION POD B4 Students • Robotics AssemblyWORKSTATION POD C4 Students • MicrocontrollersWORKSTATION POD D4 Students • IoT & Sensor TraysWORKSTATION POD E4 Students • BreadboardsWORKSTATION POD F4 Students • Robotic Arm Station3D PROTOTYPINGVentilated Filament CornerLOCKABLE INVENTORY CABINETS & TOOL RACKSOrganized Part Bins, Recharge Stations & Component LockersSAFETY STATIONFirst Aid • Fire Ext. • ELCB◄────────── Length: ~9.5m / 31 ft ──────────►◄────── Width: ~7.0m / 23 ft ──────►
Central Arena: Non-slip testing mats for rovers, drone cages and line sensors.
Student Pods: Heavy-duty benches with concealed 230V & 5V USB power rails.
Maker Corner: Rapid prototyping, CAD terminal and 3D printing area.
Safety Core: High-access fire extinguisher, first aid, and master kill switch.

Have an irregular room shape, existing pillars, or a unique room dimension?

Discuss Your Lab Layout
* Floor plan and 3D layout samples are illustrative concepts for planning discussions and do not constitute certified civil architectural blueprints or municipal structural drawings.
Structured Grade Progression

Don't Just Build a Lab. Build a Learning Journey.

Connect your laboratory equipment with structured learning activities, practical projects and age-appropriate technology exploration.

Middle School (Grades 5 – 8)

Sensors, Microcontrollers & Block Coding

Age-Appropriate Competency Framework

Learning Objectives

  • Master electrical circuit theory, resistors, capacitors, and breadboard connections
  • Understand sensor input vs actuator output logic in automated systems
  • Transition from visual block coding to introductory procedural scripts
  • Learn foundational concepts of the Internet of Things (IoT) and telemetry

Suggested Activities

  • Wiring ultrasonic and infrared sensors to educational microcontroller boards
  • Writing condition-response routines: if obstacle detected, reverse motor
  • Calibrating analog soil moisture and ambient temperature sensors
  • Building multi-component chassis rovers with twin-motor differential steering

Example Projects

  • Autonomous obstacle-avoiding rover with ultrasonic distance radar
  • Automated plant watering system with soil probe and miniature pump
  • Smart burglar alarm buzzer triggered by passive infrared (PIR) motion
  • Interactive 2-player digital reaction timer on 16x2 LCD screen

Hardware & Resources

Key Hardware:

  • • Arduino Uno / Nano compatible educational boards & cables
  • • Solderless breadboards, jumper wires & resistor packs
  • • Ultrasonic, LDR light, PIR, and sound sensor modules
  • • 2-wheel drive mobile robot car platforms with motor shields

Resource Formats:

  • • Structured grade-wise student lab workbooks
  • • Educator lesson plans with circuit diagram cheat-sheets
  • • Project challenge cards with tiered hints for fast learners

Need custom curriculum mapping for your academic board (CBSE, ICSE, Cambridge, or State)?

Discuss Curriculum Alignment

Experiential Pedagogy & NEP 2020 Framework Alignment:

ANVAYROBO learning resources are thoughtfully designed to support practical, experiential and competency-based learning approaches. Grade mapping is indicative and fully configurable according to your school's board syllabus, age group, and approved academic timetable. (Note: ANVAYROBO provides independent educational support and does not claim official CBSE endorsement or government affiliation).

Faculty Enablement & Mentorship

Empower Teachers to Lead Practical Learning.

A successful laboratory requires educators who are comfortable using the equipment and guiding students through practical activities.

ANVAYROBO Teacher Enablement: Educators participating in practical hands-on robotics and coding training
Practical Faculty Enablement

Confidence Building for Science & Computer Faculty

Turning theoretical textbook instructors into hands-on innovation mentors.

Equipment Orientation

Hands-on familiarisation with microcontrollers, safe power rails, motor drivers, sensor modules, and storage protocols.

Robotics Kit Demonstrations

Step-by-step mechanical assembly, chassis wiring, servo linkage calibration, and trial testing routines.

Electronics & Coding Fundamentals

Mastering solderless breadboards, block-based logic, and syntax-based Python scripting with educator cheat sheets.

Lesson Planning Support

Structuring 40-to-60-minute practical periods into concept explanation, team building, testing, and clean-up phases.

Student Project Mentoring

Guiding open-ended problem solving, encouraging student experimentation, and preparing projects for science exhibitions.

Troubleshooting Orientation

Rapid diagnostics for common student errors: inverted polarity, loose jumper wires, COM port issues, and syntax bugs.

Methodology

The 5-Stage Educator Development Journey

A structured progression designed so existing school faculty develop authentic classroom comfort.

01STAGE

INTRODUCE

Foundations & Lab Safety

Hardware overview, safety rules & tool handling

02STAGE

DEMONSTRATE

Model Lesson Delivery

Live walkthrough of grade-specific classroom projects

03STAGE

PRACTICE

Educator Hands-On Build

Teachers construct, code and test circuits themselves

04STAGE

IMPLEMENT

Classroom Co-Pilot

First student sessions launched with mentor guidance

05STAGE

IMPROVE

Review & Refinement

Periodic check-ins, troubleshooting & new activity ideas

Training programs are scheduled either on campus or via blended workshops based on your school plan.

Discuss Teacher Training

* Teacher enablement is conducted by experienced STEM educators. ANVAYROBO focuses on practical classroom competencies and does not issue unauthorized or fictional government teaching credentials.

Turnkey Implementation Journey

From Equipment Delivery to a Ready-to-Use Lab.

Plan and coordinate the setup process so that the laboratory is organised, configured and prepared for its intended learning activities.

STEP01
Finalise Approved Scope

Requirement Confirmation

Review and lock in the approved equipment bill of quantities, workstation counts, target student batches, and delivery schedule.

Key Deliverables:

  • Finalized equipment manifest
  • Signed milestone agreement
  • Campus contact alignment
STEP02
Room Readiness Verification

Site Preparation

School prepares designated room: whitewash, primary power supply line, lighting, ventilation, and access clearance for logistics.

Key Deliverables:

  • Civil & electrical readiness checklist
  • Safety compliance check
  • Access clearance
STEP03
Secure Logistics & Staging

Equipment Delivery

Carefully packaged robotics kits, electronic boards, sensors, tools, and furniture are dispatched via insured freight to campus.

Key Deliverables:

  • Insured freight dispatch
  • Consignment tracking
  • On-site package inspection
STEP04
Workstations & Furniture Setup

Installation & Assembly

Field engineering team unpacks, positions and secures workstations, connects cable raceways, mounts safety rails, and organizes bins.

Key Deliverables:

  • Bench assembly & positioning
  • Wire trunking & grounding
  • Cabinet inventory layout
STEP05
Diagnostic Power & Sensor Runs

Configuration & Testing

Every microcontroller board, 3D printer, power socket, Wi-Fi connectivity node, and test arena is powered on and functionally verified.

Key Deliverables:

  • Sample code test burns
  • Power voltage stabilization test
  • Sensor calibration checks
STEP06
Inventory Audit & Manuals

Documentation & Handover

Joint physical inventory verification with school authorities, handing over user manuals, equipment custody forms, and warranty papers.

Key Deliverables:

  • Complete inventory handover dossier
  • Equipment operation cheat sheets
  • Sign-off certificate
STEP07
Faculty Handover & First Sessions

Training & Launch

Conduct on-campus teacher orientation workshops, walk teachers through the first projects, and officially launch student activities.

Key Deliverables:

  • Educator practical orientation
  • Inaugural student demonstration
  • Ongoing support kickoff

Transparent Timeline Planning: Installation timelines vary depending on room civil readiness, equipment customisation, campus location (Tier 1 vs remote districts), and scheduled academic breaks. ANVAYROBO coordinates mutually agreed dates with school management rather than making unrealistic overnight delivery promises.

Practical Learning Outcomes

Where Students Turn Ideas into Working Projects.

Encourage students to experiment, build prototypes, solve problems and apply technology concepts through hands-on innovation activities.

Autonomous Obstacle Avoidance Rover - Ultrasonic Sonar Sensing & Motor Drive
Robotics

Ultrasonic Sonar Sensing & Motor Drive

Autonomous Obstacle Avoidance Rover

A dual-motor wheeled mobile rover that scans forward space with an ultrasonic sensor and autonomously decides evasion steering manoeuvres in real time.

Ultrasonic SensorL298N Motor DriverMicrocontrollerChassis Assembly
4-Axis Articulated Robotic Arm - Kinematic Servo Positioning & Gripper
Robotics

Kinematic Servo Positioning & Gripper

4-Axis Articulated Robotic Arm

A multi-DOF pick-and-place robotic manipulator programmed to replicate industrial manufacturing tasks, sorting objects across spatial coordinates.

Servo KinematicsPotentiometer ControlAcrylic LinksGripper Assembly
Automated Smart Irrigation & Soil Station - Moisture Sensing & Relayed Drip Watering
IoT & Automation

Moisture Sensing & Relayed Drip Watering

Automated Smart Irrigation & Soil Station

An automated agricultural node that reads real-time soil permittivity and triggers localized drip irrigation while broadcasting hydration data to a cloud dashboard.

Soil Moisture SensorSubmersible 5V PumpRelay ModuleWi-Fi Telemetry
Smart Classroom Energy & Lighting Automation - Passive Infrared Occupancy & Lux Sensors
IoT & Automation

Passive Infrared Occupancy & Lux Sensors

Smart Classroom Energy & Lighting Automation

A campus energy conservation system that automatically adjusts lighting levels based on natural daylight and shuts off fixtures during periods of vacancy.

PIR Motion DetectorLDR PhotocellAutomated RelaysEnergy Optimization
Digital Display & Sensor Control Console - Alphanumeric Telemetry & Audible Alarms
Electronics

Alphanumeric Telemetry & Audible Alarms

Digital Display & Sensor Control Console

An interactive environmental dashboard displaying real-time ambient parameters, verifying Ohm's law and signal conditioning principles.

ESP32 PlatformOLED DisplayDHT Temperature/HumidityBuzzer Logic
Image Classification & Object Recognition Node - Edge Vision & Python Model Deployment
AI & Coding

Edge Vision & Python Model Deployment

Image Classification & Object Recognition Node

Students train lightweight computer vision algorithms to recognise geometry, colors, and hand gestures, connecting software intelligence with physical actuation.

Edge AI CameraPython OpenCVTensor InferenceBounding Boxes
Solar Tracking Photovoltaic Generator - Dual-Axis LDR Photocell Orientation
STEM

Dual-Axis LDR Photocell Orientation

Solar Tracking Photovoltaic Generator

An applied science model demonstrating renewable power harvesting, tracking the sun's trajectory across the day to maximise solar generation efficiency.

Solar PV CellDual Servo MotorsLDR QuadrantRenewable Energy
Bionic Prosthetic Hand Model - Biomimetic Tendons & Flex Sensors
STEM

Biomimetic Tendons & Flex Sensors

Bionic Prosthetic Hand Model

An interdisciplinary healthcare engineering model where flex sensors on a student glove actuate mechanical fingers on an articulated prosthetic prototype.

Flex ResistorsMicro Servos3D Printed TendonsErgonomics
Heavy-Duty Terrain Exploration Rover - Rocker-Bogie Suspension & Multi-Wheel Drive
Robotics

Rocker-Bogie Suspension & Multi-Wheel Drive

Heavy-Duty Terrain Exploration Rover

A planetary explorer rover platform demonstrating mechanical load distribution and obstacle clearance over irregular classroom surfaces.

Rocker-Bogie MechanicsHigh-Torque DC MotorsBluetooth ControlRough Terrain

* Representative projects built by students during guided laboratory sessions. ANVAYROBO focuses on authentic educational concepts and does not present fabricated student records or unverified competition claims.

Long-Term Operational Readiness

Keep Your Innovation Lab Ready for Learning.

A laboratory is a long-term educational investment. Plan for equipment care, troubleshooting and future learning requirements.

Standard Handover#01

Handover Inspection & Setup Verification

Rigorous multi-point testing of all workstations, wiring conduits, power feeds, and microcontroller boards during handover.

Standard in Lab Setup Proposal
Standard Support#02

Educator Troubleshooting Guidance

Direct access to our technical support team during school working hours for board flashing, driver issues, and sensor diagnostics.

Standard in Lab Setup Proposal
Standard Service#03

Curriculum & Software Updates

Periodic revisions to student lab workbooks, software libraries, and recommended open-source development tool versions.

Standard in Lab Setup Proposal
Consumables on Request#04

Spares & Consumables Logistics

Fast restocking channels for replacement motors, jumper cables, breadboards, 3D printing filaments, and common electronic parts.

Tailored Add-On Option
Optional AMC Service#05

Periodic On-Campus Preventive Maintenance

Scheduled campus visits to inspect 3D printer nozzles, recalibrate sensors, test safety breakers, and organize component storage.

Tailored Add-On Option
Strategic Consultation#06

Lab Upgrade & Expansion Consultation

Strategic guidance as student strength expands or your institution seeks to add edge AI, quadcopters, or advanced competition kits.

Standard in Lab Setup Proposal
Clear Institutional Service Scope

Transparent Support Boundaries

Standard lab implementations include complete handover diagnostic testing, manufacturer component replacement terms, and scheduled teacher helpdesk access during working hours. Comprehensive Annual Maintenance Contracts (AMC) with dedicated on-site technician visits, replacement spare pools, and expedited physical turnaround are contracted separately based on school location and student volume.

* Support is provided during standard business operating hours. ANVAYROBO does not advertise arbitrary 24/7 response guarantees or blanket lifetime warranties without contractual service level definitions.

Configurable Solution Concepts

Choose a Lab Configuration That Matches Your Vision.

Every school has distinct budgetary parameters, student numbers and space availability. We develop customised proposals rather than forcing one-size-fits-all inventory bundles.

OPTION 01

Foundation Innovation Lab

Ideal for Primary & Middle Campus Introductions

Intended Learning Focus:

  • Introductory STEM principles & spatial construction
  • Safe low-voltage circuits & conductive materials
  • Beginner educational robotics & wheeled mobility
  • Algorithmic sequencing & computational puzzles

Indicative Equipment Categories:

  • Modular mechanical build sets & gear systems
  • Snap-circuit & paper-circuit conductive kits
  • Introductory obstacle/line robot platforms
  • Illustrated student activity workbooks
Space Provision:Standard classroom space (approx. 400 – 600 sq. ft.)
Faculty Development:Educator kit orientation (2 to 3 days)
OPTION 02 — MOST REQUESTED

Integrated AI & Robotics Lab

Complete Hands-On Middle & Secondary Environment

Intended Learning Focus:

  • Comprehensive robotics mechanics & articulated arms
  • Syntax-based Python programming & block coding
  • Microcontroller architecture (ESP32 / Arduino)
  • Internet of Things (IoT) sensors & cloud dashboards

Indicative Equipment Categories:

  • Autonomous robot cars & 4-DOF servo robotic arms
  • Dual-core ESP32 & Arduino development boards
  • Comprehensive sensor packs (ultrasonic, PIR, temp, gas)
  • High-density breadboards & digital multimeters
  • Grade-wise structured student manuals & teacher guides
Space Provision:Dedicated room (approx. 600 – 900 sq. ft.)
Faculty Development:Comprehensive teacher enablement (4 to 5 days)
OPTION 03

Advanced Innovation & Maker Lab

Cutting-Edge Prototyping, Applied AI & Fabrication

Intended Learning Focus:

  • Edge computer vision & beginner artificial intelligence
  • Complex embedded systems & wireless telemetry
  • 3D CAD parametric modeling & rapid fabrication
  • Capstone engineering & national competition rovers

Indicative Equipment Categories:

  • Advanced robotics kits & terrain rover platforms
  • Edge AI camera modules & vision processors
  • Classroom-enclosed 3D printers & filament stations
  • Comprehensive mechanical prototyping hand tools
  • Advanced IoT telemetry gateways & displays
Space Provision:Spacious lab hall (approx. 800 – 1,200+ sq. ft.)
Faculty Development:In-depth multi-week blended faculty mentoring

Customised Institutional Proposals: These tiers represent suggested functional frameworks rather than locked commercial bundles. Actual hardware quantities, student workbooks, furniture dimensions, and educator training hours are customized according to your school's formal requisition and budget plan.

Turnkey Institutional Partnership

One Partner. Every Step of Your Lab Journey.

From initial campus consultation to final teacher handover and long-term project growth, ANVAYROBO coordinates every phase of school innovation lab transformation.

01

CONSULTATION

Understand School Vision

In-depth dialogue with school trustees, principals, and academic coordinators to map learning objectives, student classes, and target outcomes.

02

ASSESSMENT

Evaluate Infrastructure & Budget

Review available campus room dimensions, power capacity, networking provisions, student batch sizes, and budgetary milestones.

03

DESIGN & PLANNING

Prepare Architectural Blueprint

Drafting the proposed lab zoning, workstation layout, electrical raceways, safety placement, and tailored equipment bill of quantities.

04

PROPOSAL & APPROVAL

Formal Scope Agreement

Presenting transparent itemized deliverables, equipment specifications, training modules, implementation schedules, and milestones.

05

EQUIPMENT & INSTALLATION

Turnkey Setup & Verification

Direct delivery of robotics kits, electronics, and furniture, followed by on-site bench assembly, wiring, and diagnostic test runs.

06

TRAINING & LAUNCH

Faculty Enablement & Inauguration

Hands-on training workshops for school science and computer teachers, co-delivering the inaugural student lab sessions.

07

ONGOING SUPPORT

Spares, Upgrades & Competitions

Continued technical helpdesk access, component replenishment channels, competition mentoring, and long-term lab expansion reviews.

Complete Transformation Ecosystem

More Than a Lab Setup. A Complete School Transformation Partner.

ANVAYROBO connects technology infrastructure, practical learning resources and school enablement to help educational institutions build future-ready learning environments.

Institutional Advantage

Everything Your School Needs to Build a Connected Innovation Ecosystem.

Rather than coordinating with disparate hardware vendors, textbook publishers, training institutes, and software providers, schools partner with ANVAYROBO for one cohesive institutional journey.

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AI & Robotics Lab Setup

Infrastructure, Workstations & Safety

Complete turnkey spatial planning, anti-static workbenches, microcontrollers, testing arenas, and equipment storage.

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Hardware Kits

Robotics & STEM Project Kits

Hands-on Hardware for Every Grade

Grade-appropriate starter and explorer kits featuring motors, sensors, microcontrollers, and reusable chassis components.

Academic Resources

Books & Structured Curriculum

NEP 2020 Aligned Student Workbooks

Comprehensive activity workbooks and computational thinking guides mapped to experiential learning frameworks.

Faculty Enablement

Teacher Training & Enablement

Practical Mentorship for School Faculty

On-campus workshops and diagnostic troubleshooting to empower existing science and computer teachers to lead practical labs.

Student Outcomes

Student Projects & Innovation

Hackathons, Science Expos & Olympiads

Mentoring student teams to design autonomous rovers, prosthetic hands, and IoT solutions for national science competitions.

Campus Operations

SchoolIQ Digital CRM & ERP

Admissions, Records & Fee Management

Unified administrative software streamlining school enquiry pipelines, attendance logs, student dossiers, and fee ledgers.

* While ANVAYROBO offers a complete school transformation ecosystem, schools can select standalone modular components (such as an isolated Robotics Lab setup or standalone School CRM software) without being mandated to adopt every service.

Institutional Consultation

Let's Plan Your School's AI & Robotics Lab.

Tell us about your institution and lab requirements. Our team can discuss a suitable lab configuration and implementation approach.

What Happens After You Submit:

1
Dedicated Specialist AssignmentOur Education Technology Consultant connects with your principal or trustees.
2
Room & Equipment MappingWe assess your available space and customize the equipment bill of quantities.
3
Comprehensive Itemized ProposalReceive a clear layout schematic, hardware specs, and milestone schedule.

Prefer Direct Communication?

+91 90535 79764 / +91 76738 25079
support@anvayrobo.com

Institutional consultation lines are open Monday through Saturday (9:00 AM – 6:30 PM IST).

STEP 01 OF 04School Details
Institutional Queries

Frequently Asked Questions for School Decision-Makers

Clear, practical answers regarding laboratory architecture, grade coverage, teacher enablement, budgeting and implementation across India.

An AI and Robotics Lab is a dedicated institutional learning space equipped with robotics platforms, microcontroller boards (such as ESP32 and Arduino), sensors, electronic components, coding computers, and prototyping tools. It provides students with a hands-on environment to move beyond theoretical textbooks and apply science, technology, engineering, and mathematics (STEM) principles by designing working prototypes, coding algorithms, and exploring artificial intelligence.

Have a specific question not addressed above?

Our education technology consultants are available for institutional walkthroughs.

Ask Our Team
PAN-INDIA SCHOOL TRANSFORMATION PARTNER

Your School's Innovation Journey Starts Here.

Let's create a practical learning environment where students can explore technology, build projects and develop future-ready skills with ANVAYROBO.

Email Consultation Desk: support@anvayrobo.com