Computational Thinking and Robotics

This chapter explores a unique framework that expresses freshness and innovation within revolutionary learning experiences. The chapter focuses on the implementation of computational thinking skills as an essential element of a robotics education program that was driven by hands-on activities instilling the notion of imagination through innovative projects. Engineering design applications with robotics created an atmosphere in which students applied abstract mathematics and science concepts. The robot and its technology imploding in the field of education created excitement in the minds of students with renewed, revitalized interest, and curiosity stretching across the areas of science, technology, engineering, and mathematics (STEM). Robotics education along with computational thinking skills are primary keys for unlocking the unlimited creative and innovative potential with engaging hands-on activities. Robots, a fascinating learning instrument, rejuvenate, animate, and revive 21st century skills in tech-savvy language familiar with today's students.

Is Robotics Education and Training Gender Dependent? A Suggestive Robotics Syllabus for Teacher Training

Application of robotics is rapidly increasing in all fields of life. Though robotics education became popular in the 21st century, its teaching and training has not gained much importance across the world, especially in developing and low-income countries. There are various reasons for its neglect and one of them could be gender-science stereotypes. Research studies are yet to explore the reasons for its slow emergence. The present study explores the need and training for educational robotics considering the role of students, teachers, teacher-educators and parents, determining whether it is gender-dependent or not. The study also proposes to come up with a syllabus for robotics training. The study employs exploratory, sequential, qualitative-quantitative mixed-method research design and applies purposive sampling techniques. Researchers conducted semi-structured interviews, including five science teacher-educators, five science teachers, and five trainee teachers majoring in sciences to understand the need, scope and benefits of robotics education. They recruited 100 high school students, 50 teacher-educators, and 100 parents to test whether their interest in robotics is gender-dependent through Chi-square analysis. The study revealed the need for robotics education under four themes and seven subthemes. It has been found that the interest of students and parents and the readiness of teacher-educators for robotics education is gender-dependent. The study came up with a suggestive syllabus for robotics training. It recommends that future researchers should focus on the implementation of robotics teaching for teacher and school education.

Emerging Aspects of Artificial Intelligence for Smart Life

Nowadays Artificial intelligence makes our life easy and comfortable that is hard to imagine that to survive our life without AI technology. We all know that Artificial Intelligence (AI) is a precious gift to human being. Recently it is used in robotics, education, agriculture, computer vision, cyber security, face recognition, speech recognition, self driving cars, medical image processing, biometrics, bioinformatics, satellite control, disease detection, drugs development, network developments, manufacturing, business, healthcare and medicine. In the digital era AI provides the best results in all most all the domains. This article helps to understand the emerging aspects of AI in various fields.

Technologies for an inclusive robotics education

The H2020 project “INBOTS: Inclusive Robotics for a Better Society” (2018­–21) has worked in different disciplines involved in the acceptance and uptake of interactive robotics, including the promotion of accessible and multidisciplinary education programs. In INBOTS, educational robotics is considered as a learning tool that can bring robotics into school classrooms and benefit all children regardless of their future educational or professional orientation. Aiming to make robotics education inclusive, INBOTS has introduced a paradigm shift inspired by sound pedagogies (Papert’s constructionism) and emerging educational trends (the maker movement) and focused on creativity and other 21st-century skills. However, the realisation of this new paradigm requires appropriate curricula and technologies at both hardware and software levels. This paper addresses several questions and dilemmas related to the technologies currently in use in robotics education and the kind of technologies that can best support the proposed paradigm. This discussion results in specific criteria that robotics technologies must fulfil to foster the new paradigm. Based on these criteria, we review some representative technologies in both hardware and software. Then, we identify and discuss some technological solutions that exemplify the kind of technologies that can best support inclusive robotics education and make the proposed paradigm feasible. Finally, we show how some of these technologies can be combined to design a creative and inclusive project consistent with the criteria set in this paper.