What are the areas of prohibitive labour that can be sustainably managed by robots? Discuss the initiatives that can propel research in premier research institutes for substantive and gainful innovation.

Introduction

The advent of robotics and automation has revolutionized industries by addressing tasks that are hazardous, repetitive, or beyond human capability. Robots are increasingly being deployed in prohibitive labour areas such as mining, healthcare, and disaster management, ensuring safety, efficiency, and sustainability. With India aiming to become a global hub for Industry 4.0, fostering innovation in robotics through premier research institutes is critical.

Key Areas of Prohibitive Labour Managed by Robots

1. Hazardous Industrial Work

• Mining and Extraction: Robots are used for deep-sea mining, underground drilling, and handling toxic materials, reducing risks to human workers.
  • Example: Autonomous mining robots by companies like Rio Tinto.
• Nuclear Waste Management: Robots handle radioactive materials in nuclear plants, ensuring worker safety.
  • Example: Robots like "Spot" by Boston Dynamics used in nuclear decommissioning.

2. Disaster Response and Recovery

• Search and Rescue Operations: Robots equipped with sensors and cameras assist in locating survivors in collapsed buildings or disaster zones.
  • Example: Drones used in the 2023 Turkey-Syria earthquake rescue efforts.
• Firefighting: Firefighting robots like "Thermite" are deployed in high-temperature environments.

3. Healthcare and Pandemic Management

• Surgical Assistance: Robotic systems like "Da Vinci" enable precision surgeries in inaccessible areas of the human body.
• Infectious Disease Control: Robots are used for disinfection, sample collection, and patient monitoring, as seen during the COVID-19 pandemic.

4. Space Exploration

• Robots like "Perseverance Rover" are deployed for planetary exploration, where human presence is unfeasible due to extreme conditions.

5. Agriculture

• Robots manage tasks like pesticide spraying, harvesting, and soil analysis, reducing human exposure to harmful chemicals and improving efficiency.
  • Example: Autonomous tractors and drones in precision farming.

6. Military and Defense

• Robots are used for bomb disposal, surveillance, and combat in high-risk zones, minimizing human casualties.
  • Example: India's DRDO-developed "Daksh" robot for explosive ordnance disposal.

Value Addition Block — Key Benefits of Robotic Management in Prohibitive Labour

Initiatives to Propel Research in Premier Institutes

1. Government-Led Programs

• National Mission on Interdisciplinary Cyber-Physical Systems (NM-ICPS): Promotes research in robotics and AI through dedicated hubs in premier institutes like IITs.
• PLI Schemes for Robotics: Incentivizes domestic production and innovation in robotics.

2. Industry-Academia Collaboration

• Partnerships between industries and research institutes to develop market-ready robotic solutions.
  • Example: Collaboration between ISRO and IITs for space robotics.

3. Funding and Grants

• Increased funding for robotics research under schemes like IMPRINT and SPARC.
• Establishment of Technology Innovation Hubs (TIHs) in institutes like IIT Madras and IISc Bangalore.

4. Skill Development and Training

• Introduction of robotics and AI courses in premier institutes to build a skilled workforce.
  • Example: AI and robotics programs at IIT Hyderabad.

5. Global Collaborations

• Joint research initiatives with global leaders in robotics like Japan, Germany, and the USA.
  • Example: Indo-Japan collaboration on humanoid robotics.

6. Startup Ecosystem Support

• Incubation centers in premier institutes to support robotics startups.
  • Example: IIT Delhi's incubation of startups like "GreyOrange" in warehouse robotics.

Way Forward

• Policy Support: Formulate a National Robotics Policy to streamline research, funding, and deployment.
• Focus on Indigenous Development: Reduce dependency on imports by promoting Make in India in robotics.
• Ethical and Sustainable Use: Ensure that robotic deployment aligns with ethical standards and environmental sustainability.
• Public-Private Partnerships: Strengthen collaboration between government, academia, and private players for holistic growth.

Conclusion

Robots have the potential to transform prohibitive labour areas by ensuring safety, efficiency, and sustainability. By fostering innovation ecosystems in premier research institutes and leveraging government-industry-academia collaboration, India can emerge as a global leader in robotics. This aligns with SDG 9 (Industry, Innovation, and Infrastructure) and the vision of Atmanirbhar Bharat.