The industrial robots have successfully moved to a specialised niche in the default infrastructure of advanced manufacturing. To be precise, the automobile’s infrastructure is advancing at all levels in sync with the robotic system. They believe in automating work so it’s easier for them to achieve results.
The ABB Robotics & Industrial Automation Lab at Lakshya 2047, Parul University, was inaugurated by Union Minister Dr Jitendra Singh on 8th May 2026. It’s designed in a way to provide direct access to industrial robotics and automation for engineering students.
This lab has 25 computer stations, the RAPID programming language and a broader industrial automation ecosystem including control panels, PLC integration, industrial sensors and CNC programming systems. It has smart manufacturing technology that shall amp Industry 4.0’s working environments at all levels!
What is inside the ABB Lab
This lab has everything – from a real-time industrial manufacturing ecosystem to automated technologies –
- ABB industrial robotic system. The epicentre of this lab is an ABB Robot of the IRB series. It’s deployed worldwide in all the working ecosystems of industrial automation & manufacturing. It gives holistic access to industrial systems used in production, robotic arm is configured for movement control, positioning, pick-and-place operations, and automated material handling work. ABB robots in industry can carry up to 272 kilograms of load depending on configuration.
- 25 computer stations. Each computer station supports a student working on robotic simulation programs, automation programming, and industrial manufacturing analysis. The 25-station configuration lets the lab support full-cohort training sessions where each student has their own programming environment while sharing access to the physical robotic system.
- Robotic control panel systems. The control infrastructure that interfaces between the programming environment and the physical robot. Students learn how the control panels translate programmed instructions into physical robot movements.
- Automation software and PLC systems. The lab integrates ABB robots with PLC control systems, mirroring the architecture that production environments actually run on. Students learn to coordinate robotic work with the broader factory automation infrastructure.
- Industrial sensors and CNC programming systems. Sensors detect product position, orientation, and quality on the production line. CNC programming systems handle the precision machining work that robots increasingly coordinate with. The lab provides hands-on access to both layers.
- Sturdy industrial workstations and panel supports. The robotic systems are mounted on industrial-grade workstations and wooden panel supports that provide the stability industrial-scale robotic operation requires. The mounting configuration matters because robot stability under load is one of the operational variables that affects production quality.
What students actually do inside the ABB Lab
The lab’s core training is in industrial robotic operation, programming, and integration into broader manufacturing systems.
- Pick and place operations. The foundational robotic task. Students program robots to lift, shift, position, and handle materials without manual interference. The work covers plastic material handling, divisible plastic material work, copper and plastic combined material handling, tyre demonstration material, and industrial manufacturing material. The breadth of materials students work with reflects the breadth of real industrial pick-and-place applications.
- Automated material handling. Students design and program robotic workflows that move materials through production stages, including transfer between machines, sorting by criteria, and feeding downstream processes. Material handling is one of the highest-volume use cases for industrial robots and one of the most relevant skill sets for production-line work.
- Robotic motion programming in RAPID. RAPID is the programming language that ABB robots run on. Students learn to write RAPID programs that control robot motion paths, define safety zones, integrate sensor inputs into decision-making, and coordinate the robot with broader factory systems. RAPID proficiency is what makes a student employable on ABB-using production floors globally.
- Positioning systems and precision work. Industrial robots are used not just for moving things but for precise positioning of components in assembly, welding, packaging, and quality control work. The lab’s training covers the precision-positioning use cases that modern industries like automotive manufacturing, electronics assembly, and pharmaceutical production depend on.
- Smart manufacturing and Industry 4.0 integration. Beyond individual robot operation, students learn how robotic systems integrate into the smart-manufacturing patterns that define Industry 4.0. This includes the connection to industrial IoT infrastructure, AI-powered manufacturing decision systems, and the broader data-driven production environments that modern factories increasingly operate in.
Industry 4.0 and AI-powered manufacturing: the broader frame
Industrial robotics is not a standalone discipline. It sits inside the broader Industry 4.0 transformation that is rewriting how manufacturing operates globally.
Industries worldwide are deploying Industry 4.0 concepts where automation systems, robotics, artificial intelligence in manufacturing, and intelligent sensors are converting conventional production methods into intelligent production practices. Robots are currently being used for assembly processes, welding operations, quality checking, material handling, packaging processes, and precision manufacturing across automotive, electronics, pharmaceuticals, consumer goods, and other manufacturing sectors. The ABB Lab’s training is built to prepare students for this broader transformation rather than just for traditional industrial robotics work.
The connection to the NVIDIA Lab’s Isaac Sim robotics simulation platform inside Lakshya 2047 is particularly relevant for AI-integrated robotics work where students simulate autonomous systems before deploying them to physical hardware.
Smart manufacturing extends beyond the robot itself to include the data and analytics infrastructure that lets production environments optimise continuously. Robots feed data on their operation back into manufacturing execution systems, which feed insights back to robot programming and process design teams. Students who understand robotics as one component of this broader data-driven manufacturing ecosystem are positioned for the most valuable roles in modern production environments.
The two certifications: ABB Advanced Robotics and ISA CAP
- ABB Advanced Robotics. Issued by ABB, the global leader in industrial robotic systems. The credential demonstrates competence in ABB robot programming, operation, and integration. ABB Advanced Robotics certification is recognised in industries with strong ABB deployment, which include automotive manufacturing, packaging, consumer electronics assembly, and many other production sectors.
- International Society of Automation (ISA) & Certified Automation Professional (CAP). Issued by the ISA, the international standards body for industrial automation. The CAP credential is vendor-neutral and demonstrates broader automation professional competence that applies across vendor platforms. CAP is particularly recognised in process industries and in cross-platform automation engineering work.
The two credentials complement each other. ABB Advanced Robotics demonstrates vendor-specific depth; ISA CAP demonstrates vendor-neutral breadth. Students who hold both are positioned for the widest range of industrial automation careers. Through the Lakshya 2047 Centre’s partnership architecture, both credentials carry NSDC alignment inside India’s National Skills Qualifications Framework alongside the international vendor and standards-body recognition.
Career pathways the ABB Lab opens
- Industrial Robotics Engineer. Designs, programs, and operates industrial robotic systems for manufacturing environments. The ABB Advanced Robotics credential is the entry-point credential for this role, and the hands-on RAPID programming work inside the lab is directly applicable.
- Automation Engineer. Broader role spanning robotics, PLC systems, and the integration work that ties production lines together. The combination of ABB and ISA credentials positions graduates for entry-level Automation Engineer roles across manufacturing sectors.
- Smart Manufacturing Specialist. Specialised role focused on Industry 4.0 implementation. Smart Manufacturing Specialists work on integrating robotics with IoT, AI decision systems, and the broader data infrastructure that modern manufacturing depends on.
- Production Engineer in Automotive, Electronics, or Pharmaceuticals. Sector-specific production roles where industrial robotics is part of the daily operational reality. Graduates with ABB Lab training are positioned for entry-level Production Engineer roles in these sectors.
- Industrial Robotics Trainer and Service Engineer. ABB and other industrial robotics vendors hire trained engineers to support and train customers on their robotic systems. The lab’s training, combined with ABB Advanced Robotics certification, is directly applicable to this trainer and service-engineer pathway.
Why hands-on access to a real industrial robot matters
Most Indian university robotics training is simulation-based. The ABB Lab inside Lakshya 2047 has an actual ABB industrial robot in the room, and the difference in learning outcomes is structural rather than marginal.
A student who has only ever programmed a simulated robot has a theoretical understanding of robotic motion, payload constraints, safety zones, and integration patterns. A student who has programmed an actual ABB robot has worked through the gap between what the simulation predicts and what the physical robot actually does. The gap exists in every robotics deployment, and learning to handle it requires direct hands-on time with physical hardware. The lab’s industrial-grade ABB robot, mounted on sturdy industrial workstations with proper supports, is what makes that hands-on learning possible.
The hands-on access also matters for the safety dimension. Industrial robots can carry hundreds of kilograms and move with substantial force. Working safely around them requires the kind of operational discipline that observation cannot develop. The lab’s training in handling physical industrial robots prepares students for production environments in ways that simulation-only training cannot. The pairing with PLC and SCADA Lab’s Industrial safety discipline and the Industrial Drives and Control Lab’s panel construction training gives students the integrated industrial automation safety foundation that modern manufacturing employers expect.
How the ABB Lab fits the broader Lakshya 2047 ecosystem
The ABB Lab completes the four-lab industrial automation cluster inside Lakshya 2047. The cluster is anchored by the PLC and SCADA Lab for supervisory control, the Industrial Drives and Control Lab for power systems and panel construction, and the Home Automation Lab for building automation. The ABB Lab adds the robotics dimension that completes the industrial automation skill stack. The broader Make in India workforce capacity argument that the cluster contributes to is treated in detail in the AICTE IDEA Lab, plus Make in India, plus NEP 2020 article
The ABB Lab also pairs with the NVIDIA Lab for students working on AI-integrated robotics through Isaac Sim and with the AICTE IDEA Lab Prototyping Zone for students who want to prototype and build robotic systems of their own as part of entrepreneurial ventures.
FAQs
Define the core role of the ABB Robot in the lab?
This lab has an ABB industrial robotic system from the IRB series. Engineering students can perform & program a robot in RAPID (programming language) for picking and placing operations, can automate material management, positioning systems and the core division of manufacturing work as well. The robot's load-handling capacity supports industrial-scale operations: ABB IRB-series robots in industry can carry up to 272 kilograms depending on configuration. Students work with various materials, including plastic, divisible plastic, copper and plastic combinations, tyre demonstration material, and industrial manufacturing material, which mirrors the breadth of real industrial pick-and-place applications.
Define the importance of the RAPID programming language?
RAPID is a programming language that ABB Robots run on. It’s mindfully designed for motion control, sensor integration, and coordination for industrial robots. The lab teaches RAPID because RAPID proficiency is what makes a graduate employable on ABB-using production floors globally. ABB is known for being the top industrial robotic vendor globally, and hence they deploy robots for automotive manufacturing, packaging, pharmaceutical and many such progressive sectors. Engineering students can perform in RAPID and are actively useful in this trending time, wherein it shall give them a competitive edge!
What certifications can students earn through the ABB Lab?
Two globally recognised credentials. ABB Advanced Robotics Programming is issued by ABB and demonstrates competence in ABB robot programming, operation, and integration. International Society of Automation Certified Automation Professional (ISA CAP) is issued by the ISA, the international standards body for industrial automation, and is vendor-neutral. The two credentials complement each other: ABB Advanced Robotics demonstrates vendor-specific depth in the most widely deployed industrial robotics platform, while ISA CAP demonstrates broader vendor-neutral automation professional competence. Both credentials also carry NSDC alignment inside India's National Skills Qualifications Framework through the Lakshya 2047 Centre's partnership architecture.
Which Parul University programmes access the ABB Lab?
Multiple Engineering programmes engage the lab. B.Tech in Robotics and Automation students are the primary users for robotics-focused work. B.Tech in Mechatronics Engineering students engage for the integration of mechanical, electronic, and control systems. B.Tech in Mechanical Engineering students engage in production engineering and the mechanical aspects of robotic systems. B.Tech in Electronics and Communication Engineering students engage in the sensors and control electronics dimensions. B.Tech in Electrical Engineering students engage in the power systems and motor control work that underlies industrial robotics. Diploma, undergraduate, postgraduate, and PhD students access the lab at appropriate technical depth, with research-level postgraduate work focused on AI-integrated robotics and smart manufacturing applications.
How does the ABB Lab support India's Industry 4.0 and Make in India ambitions?
The lab is directly aligned with both frameworks. Industry 4.0 is the integration of automation systems, robotics, artificial intelligence in manufacturing, and intelligent sensors into intelligent production environments. The ABB Lab develops the robotics dimension of this workforce capacity through hands-on training on industrial-grade ABB IRB-series robots, RAPID programming, and smart-manufacturing integration. Make in India depends on India having domestic workforce capacity for advanced manufacturing, including the industrial robotics skills that automotive, electronics, pharmaceuticals, and other strategic manufacturing sectors require. The ABB Lab is one of the operational responses to this workforce-capacity requirement, with graduates positioned for Industrial Robotics Engineer, Automation Engineer, Smart Manufacturing Specialist, and sector-specific Production Engineer roles.
