Parent Awareness Session on AI & Robotics | Robotic Sir | Robotic Sir
event
Parent Awareness Session on AI, Robotics and Electronics
When
Where
Robotic Sir Delhi Centre, Metro Pillar P-95, Metro Station, F-24, near Westside and, above Zevar Mahal, Block F, Preet Vihar, Delhi, Delhi, 110092
On March 4, 2025, Founder Piyush Bafna Jain and the Robotic Sir AI India Private Limited team conducted a Parent Awareness Session focused on Artificial Intelligence, Robotics, Electronics, and practical STEM education. The session was designed to help parents understand how hands-on technology education can complement academic learning while introducing students to emerging engineering and technology careers.
The discussion addressed common parental questions around excessive screen time, future career opportunities, competitive-exam preparation, and the difference between assembling pre-designed kits and understanding the fundamental electronics and engineering principles behind physical technology. Participating parents also received certificates recognising their involvement in the STEM education awareness session.
Key takeaway: Early exposure to robotics becomes more meaningful when students move beyond simply using technology and learn how electronics, sensors, programming, mathematics, physics, and mechanical systems work together to create real-world technology.
Event Highlights
The session focused on five important areas of practical STEM education and how parents can support children in developing long-term technical skills.
Understanding future AI and robotics career opportunities
Moving from passive screen consumption to active technology creation
Developing problem-solving, debugging, patience, and perseverance
Parent participation and STEM education awareness
Certificates for participating parents
Why Early Hardware Education Matters
The session explored why practical exposure to electronics and robotics can complement traditional classroom education.
Future-Proof STEM Skills
The discussion examined how Artificial Intelligence is changing the technology job market and why students can benefit from developing a broader engineering skill set.
Rather than focusing exclusively on software development, students can explore areas such as robotics, mechatronics, electronics, electric vehicles, automation, embedded systems, aerospace technology, and biomedical hardware.
Key learning point: Modern engineering increasingly combines software, electronics, AI, and physical systems.
Application: Robotics, automation, EVs, embedded systems, and intelligent hardware.
Result: Parents gained a broader perspective on technology and engineering career pathways.
From Screen Time to Technology Creation
The session discussed the difference between passively consuming digital content and actively creating technology.
Robotics projects can encourage students to build and program physical systems such as robots, sensors, smart devices, and autonomous machines. This gives learners something tangible to design, test, debug, and improve.
Key learning point: Building physical technology encourages active experimentation.
Application: Robotics projects, electronics experiments, sensors, automation, and programming.
Result: Parents learned how practical projects can provide a constructive alternative to passive digital consumption.
Connecting Robotics with School Academics
Robotics provides an opportunity to apply concepts from school-level Physics and Mathematics to physical systems.
Physics and Electronics in Practice
The session discussed how concepts such as Ohm's Law, voltage division, electromagnetic principles, circuits, and sensors can be experienced through practical experiments.
Students can see how theoretical concepts influence the behaviour of motors, LEDs, sensors, circuits, and other components.
Key learning point: Practical experimentation can make abstract scientific concepts easier to visualise.
Application: Electronics projects, motor control, sensor systems, and robotics.
Result: Parents gained insight into how hands-on STEM activities can complement academic learning.
Mathematics and Robotics
Robotic systems also provide practical applications for mathematical concepts such as geometry, trigonometry, coordinate systems, and kinematics.
For example, robotic-arm movement can demonstrate how mathematical calculations determine the position and movement of physical components.
Key learning point: Mathematics becomes more tangible when applied to physical systems.
Application: Robot navigation, robotic arms, positioning, and motion planning.
Result: Students can develop stronger connections between classroom mathematics and engineering applications.
Beyond Toy Assembly Kits
The session discussed the difference between assembling predefined modules and understanding the fundamental engineering principles behind them.
Learning Core Electronics
Robotic Sir emphasised the educational value of understanding fundamental components and circuits, including resistors, transistors, sensors, switching circuits, and microcontrollers.
Instead of only following predetermined instructions, learners can progressively move toward designing, testing, modifying, and troubleshooting their own circuits.
Key learning point: Understanding fundamental components creates a stronger foundation than simply following assembly instructions.
Application: Custom circuits, embedded systems, robotics controllers, and electronic prototypes.
Result: Parents were introduced to a more engineering-oriented approach to robotics education.
Developing Problem-Solving and Cognitive Skills
The session also highlighted the importance of failure and debugging in practical engineering education.
Learning Through Debugging
Physical projects rarely work perfectly on the first attempt. Students may encounter incorrect wiring, component failures, programming errors, sensor inaccuracies, or mechanical problems.
Finding and fixing these issues encourages systematic troubleshooting and teaches students to analyse problems instead of immediately giving up.
Key learning point: Debugging is an important part of engineering learning.
Application: Electronics, programming, robotics, and technical projects.
Result: Students can develop patience, logical reasoning, experimentation, and perseverance.
Parent Perspective on STEM Education
The session addressed several common concerns parents have when considering robotics and electronics education for their children.
How Robotics Addresses Common Parent Concerns
Parents discussed questions around career readiness, smartphone usage, academic performance, and the practical value of robotics education.
The session presented hands-on robotics and electronics as complementary learning experiences that can help students explore technology while developing practical problem-solving skills.
Career concern: Exposure to multiple engineering disciplines can help students understand emerging technology pathways.
Screen-time concern: Building physical projects provides an active technology-learning activity.
Academic concern: Robotics can connect Physics and Mathematics concepts with real-world applications.
Learning concern: Core electronics provides an opportunity to understand how technology works internally.
Event FAQ
Frequently asked questions
Answers about Parent Awareness Session on AI, Robotics and Electronics.
It was an educational session held on March 4, 2025, led by Founder Piyush Bafna Jain and the Robotic Sir team. The session focused on AI, robotics, electronics, STEM education, career awareness, and the value of practical technology learning.
Parents learned about robotics and AI education, core electronics, practical STEM learning, technology careers, academic applications, responsible technology use, and the benefits of hands-on experimentation.
Core electronics helps students understand the fundamental components and principles behind physical technology. Learning about circuits, sensors, transistors, microcontrollers, and electronic systems can provide a foundation for more advanced robotics and embedded-system projects.
Robotics can connect classroom concepts from Physics, Mathematics, Computer Science, and Electronics with practical experiments. This can help students visualise how theoretical principles are applied in real-world engineering systems.
Instead of only consuming digital content, students can use technology to build, program, test, and troubleshoot physical systems. Robotics projects turn technology use into an active creation and experimentation process.
The session was conducted by Founder Piyush Bafna Jain and the Robotic Sir AI India Private Limited team.
Yes. Participating parents received certificates recognising their participation in the STEM education awareness session.
Conclusion
The Parent Awareness Session on AI, Robotics and Electronics helped parents understand the role of practical STEM education in a rapidly changing technology landscape. The discussion connected robotics and electronics with academic learning, career exploration, responsible technology use, and the development of practical problem-solving skills.
The session reinforced the importance of giving students opportunities to move from simply consuming technology to understanding, building, testing, and improving it.
Robotic Sir continues to promote practical learning experiences that help students and families understand robotics, AI, electronics, and the engineering principles behind modern technology.
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