scholarly journals A Call for a Humanistic Stance Toward K–12 Data Science Education

2021 ◽  
pp. 0013189X2110488
Author(s):  
Victor R. Lee ◽  
Michelle Hoda Wilkerson ◽  
Kathryn Lanouette

There is growing interest in how to better prepare K–12 students to work with data. In this article, we assert that these discussions of teaching and learning must attend to the human dimensions of data work. Specifically, we draw from several established lines of research to argue that practices involving the creation and manipulation of data are shaped by a combination of personal experiences, cultural tools and practices, and political concerns. We demonstrate through two examples how our proposed humanistic stance highlights ways that efforts to make data personally relevant for youth also necessarily implicate cultural and sociopolitical dimensions that affect the design and learning opportunities in data-rich learning environments. We offer an interdisciplinary framework based on literature from multiple bodies of educational research to inform design, teaching and research for more effective, responsible, and inclusive student learning experiences with and about data.

Author(s):  
İlke Çalışkan ◽  
Kaan Batı

This chapter starts by focusing on the multicultural education needs in Turkey and tries to define and discuss these needs. Then the features of multicultural science education are described using examples from practices given in the literature. In this context, multicultural science education is discussed under the headings of learning strategies, learning opportunities, and cooperative learning, followed by presenting examples of multicultural science education. As a result, the framework of multicultural science education presented in this chapter aims to shed light on multicultural education practices in Turkey and other countries around the world.


Author(s):  
Gina Tovine ◽  
April Fleetwood ◽  
Andrew Shepherd ◽  
Colton J. Tapoler ◽  
Richard Hartshorne ◽  
...  

While the growth of blended learning environments in higher education and non-educational settings has continued to increase in recent years, this has not been the case in K-12 settings. Recently, in an effort to explore the viability and effectiveness of K-12 blended learning environments, Florida Virtual School (FLVS) has been piloting blended learning communities in a number of their schools, providing opportunities to explore factors that influence the effectiveness of K-12 blended learning communities. Thus, the purpose of this chapter is to report the results of a study designed to assess conditions that influence the effectiveness of K-12 blended learning communities, and to explore learner, instructor, course, and other factors important to successful blended learning communities. Findings will inform the design, development, and implementation of future K-12 blended teaching and learning environments in an effort to support and strengthen student achievement, the preparation of teachers to facilitate effective blended learning environments.


Author(s):  
Karen L. Rasmussen

Reusable Learning Object technology offers K-12 teachers and students the opportunity to access resources that can be used and reused in classroom teaching and learning environments. A support tool for teachers, QuickScience™, was developed to help teachers and students improve performance in science standards; resources in QuickScience™ are built upon RLO technologies. Six types of RLOs, including five types of instructional resources aligned to Bloom’s taxonomy, are used by teachers to help students improve their performance in science. QuickScience™ offers teachers a model for improving performance, including steps of diagnose, plan, teach, and assess.


2019 ◽  
Vol 12 (1) ◽  
pp. 58-71
Author(s):  
Taylor Downes ◽  
Dr. Candace Figg

As the educational world becomes more technologically inclusive, the need for teacher candidates to become proficient at integrating technology into their practice is crucial. Teacher Education programming in Ontario needs to reflect the current climate of K-12 teaching. In order to improve the learning environments for our teaching candidates, Teaching and Learning with Technology instructors decided to incorporate the concept of Genius Hour within our courses. Using this strategy, we hoped the teacher candidates would become more passionate within their learning, while developing the necessary technological, pedagogical, and content knowledge and skills. This study sought to understand the ways in which Teacher Candidate participation in Genius Hour influences their perceived participation within the course, as well as their opinions on the benefits of teaching with Genius Hour. According to teacher candidates, Genius Hour allowed for the time to focus on something of personal interest, with 2/3 of the participants seeing personal improvements in creativity and participation in their overall program.


2021 ◽  
Vol 13 (24) ◽  
pp. 13922
Author(s):  
Ming-Min Cheng ◽  
Aurora V. Lacaste ◽  
Cris Saranza ◽  
Hsueh-Hua Chuang

This study examined and evaluated how culturally responsive teaching in technology-supported learning environments for preservice teachers was practiced and modeled using experiential learning theory as a guiding framework. Results from qualitative analysis of observational data and outputs of 19 preservice teachers showed that the latter were able to include cultural values and harness technology in their teaching. It was also found that cultural scaffolding enhanced by technology is the most practiced culturally responsive teaching construct during teaching demonstrations. However, technology was used as teachers’ instructional tools—in the form of visual aids that illustrate abstract multicultural concepts—instead of students’ learning tools. Our findings could be used to develop a K-12 curriculum progression that provides a culturally responsive and contextualized teaching and learning environment for sustainable development.


Education ◽  
2020 ◽  
Author(s):  
Andrea H. Parrish

In Toward a New Learning Ecology: Teaching and Learning in 1:1 Environments (cited under General Overviews), one-to-one learning environments are described as classrooms in which every student has access to a personal computing device (such as a laptop or a tablet) and continuous access to the Internet. This model for student computing was first discussed in educational research beginning in the 1980s, most notably in the Apple Classrooms of Tomorrow (ACOT) project, a research collaborative among public schools, universities, and research teams funded by Apple and outlined in The Evolution of Teachers’ Instructional Beliefs and Practices in High-Access-to-Technology Classroom: First-fourth Year Findings (cited under Origins of One-to-One Technology: Apple Classrooms of Tomorrow [ACOT]). The original premise, based on the work of computer scientist and mathematician Seymour Papert, is rooted in the idea that ubiquitous access to technology can create more dynamic learning environments. In recent years, the proliferation of mobile technology has caused a renewed interest in one-to-one computing, as the improved portability and functionality of technology tools coupled with advances in wireless Internet capability makes one-to-one computing attainable for many schools and districts. Despite the continued debate about the impact of technology on learning, the U.S. Department of Education elevated the concept of a one-to-one technology ratio from unique innovation to moral imperative in its document, Reimagining the Role of Technology in Education: 2017 National Education Technology Plan Update (cited under Resources). Even before this, the prevalence of one-to-one computing initiatives increased, both in the United States is discussed in The New Digital Learning Playbook: Understanding the Spectrum of Students’ Activities and Aspirations (cited under General Overviews) and around the world in Large-Scale 1:1 Computing Initiatives: An Open Access Database (cited under International Perspectives on One-to-One Technology). The growth of these initiatives has been accompanied by an increase in peer-reviewed research and evaluation reports that document the impact of one-to-one technology on teaching and learning. A topic that was once dominated by white papers and evaluation reports now boasts a growing body of peer-reviewed studies, research syntheses, and government reports. The references cited in this article provide a cross-section of these various forms of literature that depict the use of one-to-one technology in K-12 classrooms, including implementation resources for districts and key empirical findings.


2021 ◽  
Vol 114 (6) ◽  
pp. 424-435
Author(s):  
Anna Bargagliotti ◽  
Pip Arnold ◽  
Christine Franklin

The authors introduce the Pre-K–12 Guidelines for Assessment and Instruction in Statistics Education II (GAISE II): A Framework for Statistics and Data Science Education report.


2020 ◽  
pp. 1-24
Author(s):  
Jennifer D. Adams

Abstract In order to advance authentic equity in science education, it is salient to have frameworks that allow educators and researchers to design learning environments, activities, and research agendas that centers students’ strengths in order for them to achieve full participation in science. As such it is important to consider the social identities of science education stakeholders—teachers and students—in teacher education. However, as identity is complex, it requires research approaches that elucidate not only the nuances of teacher identity but also the complexities of science teaching and learning environments. This article describes a collaborative research project that aimed to unpack the relationship between teacher identity and learning to teach. It outlines the collaborative process of theory building that includes teacher participants and the research team and how the framework for teacher education emerged that considers the various aspects of designing equitable and liberatory science learning.


2021 ◽  
Vol 103 (1) ◽  
pp. 49-53
Author(s):  
Tanya LaMar ◽  
Jo Boaler

The COVID-19 global pandemic has required everyone to make sense of data about community spread, levels of risk, and vaccine efficacy. Yet research shows that students are underprepared in data literacy. Tanya LaMar and Jo Boaler argue that data science education provides an opportunity to address this problem while providing much needed updates to the current mathematics curriculum. The integration of data science can provide a more equitable mathematics pipeline than the calculus-focused pathway that has excluded most students from a future in mathematics. Through data science, students can learn to answer questions that are relevant to their lives and communities, to be critical consumers of the data that surround them every day, and to wield the power of data analysis.


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