This document discusses the importance of establishing safety norms for robotics. It emphasizes that safety measures protect both humans and robots, while also building trust in emerging technologies. The document outlines key robot safety norms such as emergency stops, physical barriers, safe programming practices, routine maintenance, and operator training. It also examines compliance standards, case studies on following or neglecting safety protocols, and ensuring safety training remains a priority as the field continues to advance. Overall, the document stresses that prioritizing safety is essential for responsible development and public acceptance of robotics technologies.

1. ROBOT SAFETY NORMS
SUB: Ensuring Safe Robotics Practices

3. Introduction
❯ Brief overview: Why safety in robotics matters
❯ Examples: Simple incidents that emphasize the need for
safety
❯ Importance: How safety norms build trust in robotics
technology

4. Importance of Robot Safety
❯ Protecting People:
- Explain how safety norms keep human operators and bystanders safe.
- Use simple examples to illustrate potential dangers without safety measures.
❯ Preventing Accidents:
- Discuss how safety norms help prevent common accidents in different
industries.
❯ Keeping Robots Healthy:
- Describe how following safety norms ensures robots work efficiently over
time.

5. Key Robot Safety Norms
❯ Physical Safety Measures:
 Emergency Stop:
o Explain the concept of emergency stop buttons for immediate halting.
❯ Barriers and Fencing:
 Describe how physical barriers protect people from robot movements.
❯ Programming and Operational Safety:
 Programming Practices:
o Highlight the importance of error-free programming for safe operations.
❯ Regular Maintenance:
 Emphasize routine checks to catch and fix potential issues early.
❯ Collaboration with Humans:
 Safe Interaction Guidelines:
o Simple rules for people working alongside robots.
❯ Operator Training:
 Explain the need for training to handle robots properly.
Physical Safety Measures:
Programming and Operational Safety:
Collaboration with Humans:
Barriers and Fencing:
Regular Maintenance:
Operator Training:

6. Compliance Standards
❯ International Standards:
- Mention ISO 10218 as an example.
❯ National Regulations:
- Explain how countries have rules for standardized safety.
❯ Importance:
- Briefly explain the significance of following standards for a
safe work environment.

7. Case Studies
❯ Success Stories:
- Share examples where following safety norms prevented accidents.
❯ Lessons Learned:
- Discuss incidents where safety norms were not followed and the
consequences.
❯ Impact on Industries:
– Explain how safety practices affect the reputation and success of
industries.

8. Training and Education
❯ Training Programs:
- Importance of practical safety training for operators.
❯ Continuous Learning:
- Stress the need for ongoing education on safety norms.
❯ Integration into Education:
- Mention how safety education should be part of diploma-
level courses.

9. Future Trends
❯ Emerging Technologies:
- Briefly mention advanced sensors and AI.
❯ Predictive Safety Measures:
- Explain how AI can predict potential safety issues.
❯ Innovation:
- Highlight the role of innovation in shaping safer robotics.

10. Challenges and Solutions
❯ Common Challenges:
- Resistance to change, cost concerns, and technological
limitations.
❯ Solutions:
- Collaboration, sharing best practices, and continuous
improvement.

11. Conclusion
❯ Recap:
- Summarize key safety points.
❯ Encouragement:
- Encourage industries to prioritize safety.
❯ Future Outlook:
- Express optimism about continuous improvement in safety
norms.

12. THANK YOU !!
"Gratitude turns what we have into enough."