New Approaches to Science Learning: Cooperative and Collaborative Learning

2016 ◽  
Vol 10 (1) ◽  
pp. 37-46
Author(s):  
Julie Lindsay

Connected and collaborative learning that leads to co-creation of ideas and solutions is imperative across all levels of education. To make the shift we want to see, we need to understand the pedagogy of online learning in a global context. This commentary shares an understanding of thought leaders who have developed and shared new approaches that take learning beyond the immediate environment sca olded by digital technologies. It also poses the question, "What if we collaborated as a global community?" and starts a conversation about new pedagogical approaches to support " at," connected learning. This is already happening now—the future is now— it’s time to connect the world.


Author(s):  
Alexandros Xafopoulos

This chapter investigates the highly researched and debated key issue of electronic collaboration (e-collaboration) in the learning process, onwards called e-collaborative learning (e-CL), in a holistic overview. The structure of the chapter is as follows. First of all, it clarifies the meaning and context of e-CL, and compares it with analysed relevant notions. Second, the human elements of e-CL and their roles are explored, classified into functional categories. Third, the supportive elements technology, pedagogy, and methodology are extensively visited. Fourth, the framework elements time, space, and society are presented. Fifth, the e-CL process is analysed, following the ADDIE model and analysing its phases. Sixth, significant affordances and challenges of e-CL are identified, and seventh, future directions are considered. Finally, conclusions are reached. Throughout the chapter new approaches, methods, and terms are proposed in the interests of the enrichment or the effectiveness of e-CL.


BIOEDUKASI ◽  
2019 ◽  
Vol 17 (2) ◽  
pp. 82
Author(s):  
Ari Dwi Setya Laksana ◽  
Jekti Prihatin ◽  
Ika Lia Novenda

Agroecosystem plays an important role in the national economy. However, the role of agroecosystem in education in the form of teaching and learning has not been used optimally. It is less in providing opportunities for students to develop their mindset based on their abilities so that the students do not understand the potential requiring the surrounding area. Learning models that can provide opportunities for students to develop are suitable with the 2013 curriculum. Modification of collaborative learning Cells with Brain-Based Learning (BBL LC) model makes the learning appropriate for the 2013 curriculum. The purpose is to obtain a valid, effective, and practical model which is suitable for the junior high school science learning in the agroecosystem area. The research type is development research (R & D) by using the 4-D model but, only use three stages; Define, Design, and Develop stages without using Disseminate stage. This research was conducted at Junior High School 7 Jember. The data collection techniques were filling out the validation sheet, interview, observation, test, and documentation. The data analysis techniques include data analysis from the validation results, model analysis, and model effectiveness analysis. The model validity was the average results of the product validation (85.81%) in a very valid category. The model effectiveness was the average of¬N-gain learning outcomes (0.53) and students' problem-solving skill questionnaires (75.87% ) in a good category. The model practicality was from the teacher and student response questionnaires with an average of about 92.94% and 94% which belongs to a very practical category.


Author(s):  
I Gede Margunayasa ◽  
Ni Nyoman Kusmariyatni ◽  
Ni Luh Sri Surya Wisma Jayanti ◽  
Ni Made Daini Vitra Sinta Sari ◽  
I Made Hendra Sukmayasa

2020 ◽  
Vol 16 (2) ◽  
pp. 234
Author(s):  
Kati Sormunen

The main purpose of this doctoral thesis is to co-design and examine digitally supported inclusive practices in science learning. Inclusive practices aim to provide quality education and quality learning opportunities for all students. Inclusive practices are characterised by process-oriented development that takes into account a student’s personal abilities and needs concerning both knowledge and competencies as well as the classroom context. Since there are very few research-based models for inclusive practices, the longitudinal educational design research (EDR) project aimed to co-design digitally supported inclusive practices at the grassroots level with researchers, teachers and students. The EDR project took place during two years in a medium-sized primary school in the capital region of Finland, where inclusive education was employed as part of teacher collaboration. The participating class (44 students; 10 students with learning difficulties [LD]) had two primary teachers and one special education teacher, the defender of this thesis. The EDR consisted of four macro-cycles, which intended to increase understanding of co-designing and implementing inclusive practices in science learning. The first macro-cycle focused on exploring possibilities for using smartphone technology in a water project. In the second macro-cycle, students used the developed personal solutions and designed collaborative solutions while studying the following science-related themes: forest, human, motions and forces, and space. In the third macro-cycle, students studied Europe and Asia, plants, human and states of matter. The participants developed further both personal solutions and collaborative solutions. Finally, the fourth macro-cycle focused on one science theme, electricity, where solutions were designed for collaborative learning and especially for active participation. The thesis is comprised of four publications that form a holistic picture of the possibilities of digital technology when considering the adaptation, use and benefits for the student both at the personal and group level. Publication I reports the results of the first macro-cycle of the EDR. Publication II discusses the benefits of using a smartphone in science learning from a student’s personal learning perspective, reflecting all four macro-cycles. Publication III describes the EDR project’s final macro-cycle, electricity project, in which students utilised personal strategies that were supported by the teacher through respectful grouping, differentiated learning tasks and a reflective discussion after lessons. Finally, Publication IV evaluates the development and implementation of the inclusive practises throughout the EDR project from the perspective of the LD students. The data was collected through video recordings of ideating sessions, questionnaires, students’ notes from the e-learning environment, the teacher’s memo and interviews; it was analysed via quantitative analysis of frequencies, qualitative content analysis and co-occurrence network analysis. As its theoretical contribution, this thesis weaves together the two frameworks of inclusive practices in science learning. First, the digitally supported inclusive science learning supports a student’s personal learning through the differentiation of content, process and product through the use of multimodality. The teacher employs a student’s personal strategies when preparing a collaborative learning project, especially at the levels of process and product. In light of the objective of inclusion, the teacher’s support during the process should aim at giving intensified support and structured guidance in collaborative activities where students require various competences. Second, such a long-term, reflective, co-designing project supports both the use of digital technology and the development of inclusive practices. LD students benefit from a process-oriented, comprehensive, structured and reflective use of technology in their learning. Differences between students’ digital competencies bring a new element to the classroom alongside academic knowledge, both of which affirm LD students’ social status in the classroom. The thesis emphasises that a long-term co-designing project can both develop teaching practices and engage students to develop their personal learning, and hence, promote inclusive education at the grassroots level.


Sign in / Sign up

Export Citation Format

Share Document