Learning Design and Learning Spaces

How can we use technology and design to nourish spaces (e.g. classrooms, museums, etc) mediating processes between people and people, people and products, people and the environment.

The rapid popularity of social technologies has led to a widespread of research studies conducted in formal and informal contexts demonstrating a wide range of their benefits in teaching and learning. Yet, thethe implementation of Web 2.0 technologies in classroom settings calls for better task-technology alignment. With this in mind, this dissertation brought forward a three-year intervention, employing constructionism as an overarching theoretical framework, and unpacking the potential of social technologies as instructional tools that support social construction of artifacts by groups of language learners. Findings demonstrate the constructionist model that demonstrates the core dimensions of social technologies as social constructionist tools, with actions held for the social construction of an artifact; and a set of instructional design elements that encloses the theoretical understanding of the classroom whilst groups of learners use social technologies for constructing an artifact. 

[e.g., Parmaxi, A., Zaphiris, P., & Ioannou, A. (2016). Enacting artifact-based activities for social technologies in language learning using a design-based research approach. Computers in Human Behavior63, 556-567.
Parmaxi, A., & Zaphiris, P. (2015). Specifying the dynamics of social technologies as social microworlds. Behaviour & Information Technology34(4), 413-424]

Educational robotics as tools for group metacognition and collaborative knowledge construction in STEM education

The affordances of Educational Robotics (ER) for advancing teaching and learning has become a widely researched topic. Our work aims to investigate the mediating role of ER as mindtools in supporting collaborative knowledge construction and metacognitive thinking. Data analysis involves micro-level examination of students’ discourse, interaction with the technology, peers and the facilitator, via analysis of video and audio recordings. Findings show that metacognition, along with questioning and answering, are prevalent elements of collaborative knowledge construction around ER. Also, ER activities can help to significantly improve students’ ability to regulate their own cognition performing actions of metacognitive regulation such as planning, monitoring, and debugging . We support that ER can be used as a learning tool and can be effective in supporting group metacognition through immediate feedback, openly accessible programmability and students’ embodied interaction with the physical robot, within a CSCL setting.

[e.g., Socratous, C., & Ioannou, A. (2019). An empirical study of educational robotics as tools for group metacognition and collaborative knowledge construction. Proceedings of the 13th International Conference on Computer Supported Collaborative Learning.]

Educational Robotics for Computational Thinking 

A few studies have investigated the effectiveness of educational robotics (ER) as technological means which can support the development of CT but, issues of measurement of CT (i.e., using validated instruments) seem to hinder the validity of these investigations. This work addresses students’ CT gains linked to their participation in ER activities. Quantitative results show that the students who participated in the ER interventions demonstrated significant improvement in their CT skills. This work extends the evidence of the potential of using ER to improve students’ CT skills in K-12 contexts.

[e.g.,  Constantinou, V., & Ioannou A. (2018). Development of Computational Thinking Skills through Educational Robotics. EC-TEL 2018. Lecture Notes in Computer Science, Springer.]

Expanding the Curricular Space with Educational Robotics 

While initiatives worldwide continue to place pressure on schools to improve STEM education, the already overcrowded curriculum often leaves little space for the integration of new courses or topics. In the end, most educational robotics activities are done outside the curriculum such as in after-school programs and summer camps. We work on the creative and non-intrusive integration of educational robotics to support the current school curricula. We present examples of expanding the curricular space, by integrating educational robotics in an existing course units.

[e.g., Ioannou A., Socratous, C., Nikolaedou, E. (2018). Expanding the Curricular Space with Educational Robotics : A Creative Course on Road Safety. EC-TEL 2018. Lecture Notes in Computer Science, Springer (in press).]

Learning through Making, Tinkering, Coding and Play

Computational-making-enhanced activities, framed as activities promoting making, tinkering, coding and play in the learning process, have gained a lot of attention during the last decade. Despite the significant interest in this type of activities, the majority of research has focused on implementations in informal learning contexts. Our work takes computational-making into the classroom allowing young learners to engage in projects using arts, crafts, and technological tools such as physical robots. We investigate learners’ knowledge gains and attitudes in the areas of STEAM, as well as their development of 21st-century skills. Our findings suggest that young students can greatly benefit from computational-making-enhanced activities integrated into the school curriculum.

[e.g., Timotheou, S., Ioannou, A. (2019). On a making- & -tinkering STEAM approach to learning Mathematics: Knowledge gains, attitudes, and 21 st century skills. Proceedings of the 13th International Conference on Computer Supported Collaborative Learning.]

A Distributed Cognition Perspective for Collaboration and Coordination

This study focused on the understanding of the interactions evident in an artifact ecology around a design task. The researchers delved into the physical and digital space of several learning groups to obtain a rich understanding of their collaboration around design tasks. Through the rich data set – interviews, focus groups, reflective diaries, online interactions, and video recordings for face-to-face sessions – we constructed a summative description of the group work and extended the methodological framework of Distributed Cognition for Teamwork.

[e.g.,Vasiliou,C., Ioannou, A., & Zaphiris, P. (2019). From behaviour to design: implications for artifact ecologies as shared spaces for design activities, Behaviour & Information Technology, DOI: 10.1080/0144929X.2019.1601258]

Problem-Based Learning in Multimodal Information Spaces

In a  series of studies we enhanced a Problem Based Learning (PBL) environment with affordable, everyday technologies that can be found in most university classrooms (e.g., projectors, tablets, owned smartphones, traditional paper-pencil, and Facebook). The work was conducted over a three-year period, with 60 post-graduate learners in design (HCI) courses, following a PBL approach. We contributed a detailed description of how PBL can be enacted in a multimodal, technology-rich classroom. We also presented evaluation data on learners’ technology adoption experience while engaging in PBL.

[e.g., Ioannou, A., Vasiliou, C., Zaphiris, P., Arh. T., Klobučar, T., & Pipan, M. (2015). Creative multimodal learning environments and blended interaction during problem-based activity in HCI education. TechTrends, 59 (2), 47-56.

Ioannou, A., Vasiliou, C.,& Zaphiris, P. (2016). Problem Based Learning in Multimodal Learning Environments: Learners’ Technology Adoption Experiences. Journal of Educational Computing Research, 54 (7), 1022-1040.]

Multitouch Interactive Tabletops for Collaboration and Peacemaking

In his work, a tabletop application was used to mediate dialog and collaborative construction of a taxonomy of ideas based on the participants’ consensus. The scenarios for discussion concerned the promotion of global peace and the social integration of immigrants in the society.The study contributes a systematically developed coding scheme capturing the cognitive and physical elements of problem-based group collaboration around the interactive tabletop. Also, the consistent themes and ideas contributed across the participating groups highlight a number of areas where research could focus in terms of using technology for peace.

[e.g., Ioannou, A., Zaphiris, P., Loizides, F., & Vasiliou, C. (2013).  Let’s talk about Technology for Peace: A systematic assessment of problem-based group collaboration around an interactive tabletop. Interacting with Computers, doi: 10.1093/iwc/iwt061.]

Collaborative Learning around an Interactive Tabletop in a Museum Space 

This work is concerned with the exploration of an educational tabletop application designed to facilitate collaboration amongst young learners while they learn about the “Plants of Cyprus”. The application was used by third-graders during a scheduled visit at the Cyprus Center of Environmental Research and Education. We report empirical findings concerning the participants’ interactions around the table as well as their attitudes regarding the activity. Findings demonstrated that the students collaborated intensively in completing the task and they were overwhelmingly positive about the experience.

[e.g., Ioannou, A., Christofi, M., & Vasiliou, C. (2013). A Case Study of Interactive Tabletops in Education: Attitudes, Issues of Orientation and Asymmetric Collaboration. In Scaling up Learning for Sustained Impact (pp. 466-471). Springer Berlin Heidelberg.]

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