Higher Education Course Curriculum for a Distance Learning Model Reinforced with Robotics for 3 to7 Years Old Children

The curriculum is organized in five different modules, with different focus. The first module is about Basic Concepts of Computational Thinking, presenting the foundations for the rest of the learning. The second module, on Computational Thinking with Block-Based and Text-Based Coding Environments, and the third module, on the Fundamentals of Physical Programming and CT with Robotic Activities, further expand the learning about computational thinking by providing information on the potential of preschool children for computational thinking and how this can be developed through different environments and tools. The fourth module changes the focus to planning and evaluating activities with children by presenting information on Designing Activities and Learning through Distance Education. This is the module that deals with the challenges and potential of distance education in Early Childhood Education, connecting practice with reflection and further learning for educators through self-evaluation and reflection. Finally, the fifth module, on Building Partnerships for Learning, looks at the development of digital skills for early age as a societal endeavour, supporting practitioners in identifying partners and initiatives as well as building communities that can leverage the educational offer. The whole curriculum was planned to provide knowledge and competences that support the development of a distance learning model reinforced with robotics for 3-7 years old children. But each module is a stand-alone learning opportunity based on the lesson plans, slides presentation and materials available. Interested users are also welcome to combine different modules into unique training experiences.info:eu-repo/semantics/publishedVersio

Lesson Plans from the Higher Education Course Curriculum for a Distance Learning Model Reinforced with Robotics for 3 to 7 Years Old Children

EARLY recognizes the importance of early childhood education and the potential of digital technologies in enhancing learning experiences. By providing teachers, parents, and children with effective strategies and resources, it aims to improve the quality of online education for young children. To ensure that all preschool children have access to a continuous learning process in different circumstances (e.g., pandemics, prolonged illness or other situations), teachers and parents benefit from being prepared for these different circumstances. The materials developed and offered in the Higher Education Course Curriculum for Distance Learning Model Reinforced with Robotics for 3-7 Years Old Children are, therefore, relevant. Besides the Curriculum itself, which can be used for structuring training or for self-learning, EARLY offers some examples of activities and lesson plans for online activities with educational value. The main target group of this curriculum is pre-service preschool educators (undergraduates in most countries), but the material is also suitable and recommended for experienced preschool educators who want to expand their competences and those who are in close contact with an early childhood learner.info:eu-repo/semantics/publishedVersio

Developing Computational Thinking with Educational Technologies for Young Learners

This article aims to provide an overview of the opportunities for developing computational thinking in young learners. It includes a review of empirical studies on the educational technologies used to develop computational thinking in young learners, and analyses and descriptions of a selection of commercially available technologies for developing computational thinking in young learners. The challenges and implications of using these technologies are also discussed

Humanoid Robots Supporting Children’s Learning in an Early Childhood Setting

This qualitative study explored the affordances provided by the integration of the NAO humanoid robot in three preschool classrooms. Using the Head Start Early Learning Outcomes Framework as a lens, the researchers qualitatively analyzed data from focus groups, observations, field notes and student artifacts, using grounded coding to uncover language and communication, physical, cognitive and social–emotional learning experiences for children. The researchers also examined interactions between the robot, children and teachers to identify successes and challenges experienced during the integration. Findings indicate the robot provided opportunities for student development in all learning domains. Students were intellectually curious about the robot; data showed their eagerness to “talk with,” generate questions about, make eye contact with and learn more about the robot. Students viewed these interactions as two-way. The presence of the robot created much enthusiasm and excitement, resulting in the opportunity for students to practice waiting their turn and cooperation. Challenges uncovered show that teachers lacked experience and knowledge in the integration and operation of the robot. Despite these challenges, findings show that teachers welcomed the robot as a tool in the classroom to align with curriculum requirements and meet the developmental needs of children

EDUCATIONAL ROBOTICS AND COMPUTATIONAL THINKING IN EARLY CHILDHOOD - LINKING THEORY TO PRACTICE WITH ST(R)EAM LEARNING SCENARIOS

STEAM enhances critical and computational thinking, problem-solving, algorithmic thinking, decision-making, through Science, Technology, Engineering and Arts, as well as Mathematics. With the contribution of Reading (Reading) and Writing (wRiting) which include recognition and visualisation, pattern formation as well as skills acquired through the use of tools such as pencil and brush, which are proven to be valuable for children's development, STREAM is now also linked to Thinking and Art in its broadest sense. Therefore, in this paper, STREAM Learning Scenarios are proposed that can be implemented within the kindergarten and primary school classroom using the BeeBot robot, highlighting its added pedagogical value and linking the theoretical framework with the playful practical implementation.  Article visualizations

Opening doors: a collective case study of integrating technology in the preschool through 3rd grade classroom in a developmentally appropriate way

Children today are growing up in a technology-saturated world and yet early childhood teachers do not typically include technology in their classrooms, or if they do, they include it inappropriately. The literature states that integrating technology in early education can yield many benefits, but many teachers of young children avoid using technology because they do not know how to incorporate it appropriately. This dissertation is an exploratory observational study of early childhood teachers (preschool through third grade) who integrate technology in their programs in developmentally appropriate ways. This study involved three classroom teachers who were identified as model teachers at integrating technology in their classrooms: a preschool teacher and two kindergarten teachers. The study was guided by the recommendations from the National Association for the Education of Young Children (NAEYC) and the Fred Rogers Center for Early Learning and Children\u27s Media at Saint Vincent College (2012) position statement for early childhood teachers in the appropriate use of technology and digital media in the early childhood classroom. In this exploratory collective case study, visits to the classrooms were conducted several times and observations were performed. Checklists and field notes were used to record the findings. The teachers were interviewed before and after the observations to create a clearer picture of the classroom practices. This resulted in three cases that can serve as examples for teachers on how to integrate technology in the early childhood classroom in a developmentally appropriately way for young children. This study also provides recommendations for teachers who want to provide children with digital learning tools that can extend, enrich, and scaffold their learning. This study contributes four conclusions and five recommendations to guide teachers in integrating technology in a developmentally appropriate way for young children

Averting Robot Eyes

Home robots will cause privacy harms. At the same time, they can provide beneficial services—as long as consumers trust them. This Essay evaluates potential technological solutions that could help home robots keep their promises, avert their eyes, and otherwise mitigate privacy harms. Our goals are to inform regulators of robot-related privacy harms and the available technological tools for mitigating them, and to spur technologists to employ existing tools and develop new ones by articulating principles for avoiding privacy harms. We posit that home robots will raise privacy problems of three basic types: (1) data privacy problems; (2) boundary management problems; and (3) social/relational problems. Technological design can ward off, if not fully prevent, a number of these harms. We propose five principles for home robots and privacy design: data minimization, purpose specifications, use limitations, honest anthropomorphism, and dynamic feedback and participation. We review current research into privacy-sensitive robotics, evaluating what technological solutions are feasible and where the harder problems lie. We close by contemplating legal frameworks that might encourage the implementation of such design, while also recognizing the potential costs of regulation at these early stages of the technology

Boosting children's creativity through creative interactions with social robots

Creativity is an ability with psychological and developmental benefits. Creative levels are dynamic and oscillate throughout life, with a first major decline occurring at the age of 7 years old. However, creativity is an ability that can be nurtured if trained, with evidence suggesting an increase in this ability with the use of validated creativity training. Yet, creativity training for young children (aged between 6-9 years old) appears as scarce. Additionally, existing training interventions resemble test-like formats and lack of playful dynamics that could engage children in creative practices over time. This PhD project aimed at contributing to creativity stimulation in children by proposing to use social robots as intervention tools, thus adding playful and interactive dynamics to the training. Towards this goal, we conducted three studies in schools, summer camps, and museums for children, that contributed to the design, fabrication, and experimental testing of a robot whose purpose was to re-balance creative levels. Study 1 (n = 140) aimed at testing the effect of existing activities with robots in creativity and provided initial evidence of the positive potential of robots for creativity training. Study 2 (n = 134) aimed at including children as co-designers of the robot, ensuring the robot’s design meets children’s needs and requirements. Study 3 (n = 130) investigated the effectiveness of this robot as a tool for creativity training, showing the potential of robots as creativity intervention tools. In sum, this PhD showed that robots can have a positive effect on boosting the creativity of children. This places social robots as promising tools for psychological interventions.Criatividade é uma habilidade com benefícios no desenvolvimento saudável. Os níveis de criatividade são dinâmicos e oscilam durante a vida, sendo que o primeiro maior declínio acontece aos 7 anos de idade. No entanto, a criatividade é uma habilidade que pode ser nutrida se treinada e evidências sugerem um aumento desta habilidade com o uso de programas validados de criatividade. Ainda assim, os programas de criatividade para crianças pequenas (entre os 6-9 anos de idade) são escassos. Adicionalmente, estes programas adquirem o formato parecido ao de testes, faltando-lhes dinâmicas de brincadeira e interatividade que poderão motivar as crianças a envolverem-se em práticas criativas ao longo do tempo. O presente projeto de doutoramento procurou contribuir para a estimulação da criatividade em crianças propondo usar robôs sociais como ferramenta de intervenção, adicionando dinâmicas de brincadeira e interação ao treino. Assim, conduzimos três estudos em escolas, campos de férias, e museus para crianças que contribuíram para o desenho, fabricação, e teste experimental de um robô cujo objetivo é ser uma ferramenta que contribui para aumentar os níveis de criatividade. O Estudo 1 (n = 140) procurou testar o efeito de atividade já existentes com robôs na criatividade e mostrou o potencial positivo do uso de robôs para o treino criativo. O Estudo 2 (n = 134) incluiu crianças como co-designers do robô, assegurando que o desenho do robô correspondeu às necessidades das crianças. O Estudo 2 (n = 130) investigou a eficácia deste robô como ferramenta para a criatividade, demonstrando o seu potencial para o treino da criatividade. Em suma, o presente doutoramento mostrou que os robôs poderão ter um potencial criativo em atividades com crianças. Desta forma, os robôs sociais poderão ser ferramentas promissoras em intervenções na psicologia

COEDU-IN Project: an inclusive co-educational project for teaching computational thinking and digital skills at early ages

Learning to program is the new literacy of the 21st century. Computational thinking, closely related to programming, requires thinking and solving problems with different levels of abstraction and is independent of hardware devices. The early childhood education stage provides teachers with the opportunity to lay the foundations for a comprehensive quality education using innovative tools and technologies. Educational robotics in early childhood education becomes a tool that facilitates the acquisition of knowledge to children, playfully, based on the principles of interactivity, social interrelationships, collaborative work, creativity, constructivist and constructionist learning, and a student-centered didactic approach, allowing in turn that student can acquire digital competencies and develop logical and computational thinking in an underlying way. This project explores the current state of teaching and learning computational thinking and programming in early childhood education in an inclusive manner. Moreover, the lack of diversity and inequality is particularly latent in science, Technology, Engineering, and Mathematics (STEM) fields. Therefore, this work considers this problem and presents an inclusive coeducation approach to this new literacy, eliminating gender stereotypes and extending them to people with Down syndrome and hospitalized minors