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The chapter discusses my response to the urgent need for a pedagogy that would effectively promote Israeli teachers’ meta-representational and particularly Visual Representational competencies in order to prepare new generations of school students to fully and successfully navigate the diverse, rich multimodal information that they encounter in the postmodern visual world. Currently, although VRs widely permeate school curricula, learners’ mass media sources for information gathering, and even matriculation testing, students’ meta-representational competence (MRC) are not intentionally developed to enable their dealing with visually transmitted information and their mindful manipulation of it for achieving their goals. VRs usages have been shown to be superficial, implicit, inadequate to utilize VRs’ potential for promoting knowledge acquisition and understanding, and even frequently erroneous. Following a short discussion of the constructs of Meta-Visual Representational Competencies and pedagogy, and potential institutional obstacles for introducing VRs, I propose core pedagogical guidelines for promoting such competencies in teachers, based on evidence collected continually over a decade of work with teachers at Haifa, Israel, while designing, developing, and refining this pedagogy in preservice teacher training and other programs at the University of Haifa and inservice frameworks. Each guideline is operationalized into tasks and activities designed for achieving its specific purpose, focusing on the application of these suggested guidelines in preservice teacher development program. The MRC-promoting pedagogy was designed and developed while keeping in mind the notion that a pedagogy should be flexible, adaptable to different instructional styles, goals, and contexts, and based on guidelines that are operationalized into detailed instructional plans for achieving specific goals, in accordance with teachers’ preferences.

This scholarly work analyzes the previous 17 chapters in the International Teacher Education: Promising Pedagogies (Part C) volume. The purpose of the analysis is to distill the essence of what constitutes promising international teacher education pedagogies and how those pedagogies can best be shared. The chapters are reviewed according to the sections in which they appeared: pedagogies of working with multimodalities; pedagogies of partnerships and communities; pedagogies of teacher assessment; and vehicles for teacher education research, and dissemination. Key knowledge contributions from each chapter are emphasized. Similarities between the featured pedagogies are also highlighted. Finally, overarching themes are pinpointed.

This chapter describes a successful research-developed representation construction approach to teaching and learning that links student learning and engagement with the epistemic practices of science. This approach involves challenging students to generate and negotiate the representations (text, graphs, models, diagrams) that constitute the discursive practices of science, rather than focusing on the text-based, definitional versions of concepts. The representation construction approach is based on sequences of representational challenges that involve students constructing representations to actively explore and make claims about phenomena. The key principles of the representation construction approach, considered a form of directed inquiry, are outlined with illustrations from case studies of whole topics in forces and astronomy within several middle-years’ science classrooms. This chapter also outlines the manner in which the representation construction approach has been translated into wider scale implementation through a large-scale Professional Development (PD) workshop program. Issues associated with wider scale implementation of the approach are discussed.

Teacher education pedagogies face the complex challenge of attending to standards of professionalism while being sensitive to the local changing needs of professional learning. Encounters between these two aspects of professional work are manifested, for example, through the relations between innovative, “against the grain” pedagogies and standardized criteria and accountability to policy issues and measurement. This chapter characterizes various “contact zones” across participants, contexts and contents, called for by the four categories of pedagogies (working with multimodalities, partnerships and community learning, teacher assessment, and vehicles for dissemination) that comprise this volume of International Teacher Education: Promising Pedagogies (Part C). The four categories of pedagogies join five earlier categories of pedagogies (teacher leadership, diversity, family, social justice, and technology), which are found in International Teacher Education: Promising Pedagogies (Part B). These go in with yet another five categories of pedagogies (teacher selection, reflection, narrative knowing, teacher identity and mediation and mentoring), which are found in International Teacher Education: Promising Pedagogies (Part A).

Student competency in science learning relies on students being able to interpret and use multimodal representations to communicate understandings. Moreover, collaborative learning, in which students may share physiological arousal, can positively affect group performance. This paper aims to observe changes in student attitudes and beliefs, physiology (electrodermal activity; EDA) and content knowledge before and after a multimodal, cooperative inquiry, science teaching intervention to determine associations with productive science learning and increased science knowledge.

A total of 214 students with a mean age of 11 years 6 months from seven primary schools participated in a multimodal, cooperative inquiry, science teaching intervention for eight weeks during a science curriculum unit. Students completed a series of questionnaires pertaining to attitudes and beliefs about science learning and science knowledge before (Time 1) and after (Time 2) the teaching intervention. Empatica E3 wristbands were worn by students during 1 to 3 of their regularly scheduled class sessions both before and after the intervention.

Increases in EDA, science knowledge, self-efficacy and a growth mindset, and decreases in self-esteem, confidence, motivation and use of cognitive strategies, were recorded post-intervention for the cohort. EDA was positively correlated with science knowledge, but negatively correlated with self-efficacy, motivation and use of cognitive strategies. Cluster analysis suggested three main clusters of students with differing physiological and psychological profiles.

First, teachers need to be aware of the importance of helping students to consolidate their current learning strategies as they transition to new learning approaches to counter decreased confidence. Second, teachers need to know that an effective teaching multimodal science intervention can not only be associated with increases in science knowledge but also increases in self-efficacy and movement towards a growth mindset. Finally, while there is evidence that there are positive associations between physiological arousal and science knowledge, physiological arousal was also associated with reductions in self-efficacy, intrinsic motivation and the use of cognitive strategies. This mixed result warrants further investigation.

Overall, this study proposes a need for teachers to counter decreased confidence in students who are learning new strategies, with further research required on the utility of monitoring physiological markers.

This paper aims to address some limitations in existing approaches to the study of mis- and dis-information and offers what the authors propose as a more comprehensive approach to framing and studying these issues, geared toward the undergraduate level of learner. In doing so, the authors prioritize social shaping of technology and critical informatics perspectives as lenses for explicating and understanding complex mis- and dis-information phenomena. One purpose is to offer readers an understanding of the mis- and dis-information studies landscape, and advocate for the merit of taking the given approach the authors outline.

The paper builds upon design-based research (DBR) methods. In this paper, the authors present the actual curriculum that will be empirically researched in 2022 and beyond in a program of iterative DBR.

Findings of this conceptual paper comprise a fully articulated undergraduate syllabus for a course the authors entitled, “Disinformation Detox.” The authors will iterate upon this curriculum development in ongoing situated studies conducted in undergraduate classrooms.

The value and originality of this article is in its contribution of the ontological “innovation” of a way of framing the mis- and dis-information knowledge domain in terms of social shaping and critical informatics theories. The authors argue that the proposed approach offers students the opportunity to cultivate a complex form of what Milner and Phillips describe as “ecological literacy” that is in keeping with the mis- and dis-information problem domain.