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Tan, Aik-Ling
- PublicationOpen AccessDeveloping science teachers’ language awareness to enhance the teaching of disciplinary literacy: A study of teachers’ lesson enactments through the lens of adaptive expertise(National Institute of Education, Nanyang Technological University (NIE NTU), Singapore, 2021)
;Seah, Lay Hoon; ; ; ;Chin, Tan Ying ;Tay, Linda Poh LingChia, Terence Titus Song An47 91 - PublicationOpen AccessSurfacing stressful events during science learningThis project sits at the nexus of pedagogies and human physiological changes during learning. Recent evidences from neuroscience research suggest that there exist intricate relationships between affect and learning. In the proposal, affect include emotions, moods, and emotional climates. Emotions are intense, short lived, and highly conscious affective states that typically have a salient cause and great deal of cognitive content whereas moods are relatively low-intensity, diffuse, and enduring affective states that have no salient antecedent cause and there little cognitive content. (Forgas, 2001, p.15) Emotional climate refers to the collective state of emotional communion among students in a class (Tobin et al. 2013). Stress pertaining to emotions of fear, anger and disgust (Lerner, Gonzalez, Dahl, Hariri, & Taylor, 2007) is one of the affect that is experienced during learning. Stress has been implicated as one of the major contributor to depression, anxiety and heart diseases. An individual's response to stressful situation varies and hence identifying and understanding stressful situations during learning can serve to improve students' learning experiences. Beyond the traditional methods of using self-reported psychometric instruments (such as questionnaires and interviews) to assess stressful situations, technologies can provide critical in-the-moment information about individual physiological changes during learning. Relevant technologies include analysis of facial and/or audio expressions of a person, and biometrics such as oximetry to measure pulse rate and blood oxygen level. These technologies afford both real time analysis of data for instant visualization of information, as well as a record of the information for review after the instructional or learning event.
108 35 - PublicationRestrictedPartnership for change towards science inquiry in elementary science classrooms: Collective responsibility of teachers and students(Office of Education Research, National Institute of Education, Singapore, 2024)
; ;Talaue, FrederickThis report details the three keys aspects of the project ─ (a) the ideas and motivation of teachers to carry out inquiry, (b) students ideas about science learning in school, and (c) factors that could enhance science teacher professional development to carry out inquiry. In elementary science classrooms, we showed that: (1) while teachers express moderate to strong intention to teach science through inquiry they are constrained by numerous components in their classroom context, including goals of instruction, curriculum integration, learning environment, lesson strategies, student disposition and teacher disposition; (2) students value hands-on and collaborative experiences for learning science, suggesting a pedagogy characterized by clear learning goals and valuing a sense of community among learners; and (3) further training should focus on how to, more than why, teach through inquiry, adopting a paradigm that is responsive to different contexts.19 13 - PublicationOpen AccessFostering science teachers’ language awareness: Exploring the impact on teachers’ oral interactions with students to support science writing.(National Institute of Education (Singapore), 2020)
;Seah, Lay Hoon ;Adams, Jonathon; ; Chin, Tan Ying201 141 - PublicationOpen Access
65 96 - PublicationRestrictedEnhancing inquiry-based teaching through collaboration between preservice and in-service teachers(Office of Education Research, National Institute of Education, Singapore, 2024)
; ;Kim, MijungTalaue, Frederick22 25 - PublicationRestrictedLearning to argue and arguing to learn: Developing scientific argumentation skills in pre-service chemistry teachers(Office of Education Research, National Institute of Education, Singapore, 2024)
; The discipline of science is characterized by the evaluation of knowledge claims that are supported by available evidences. As such, one of the key attributes of a scientist is the ability to discern relevant and orthodoxy evidence from those that are irrelevant and outdated, and use these evidences to construct coherent arguments (Osborne, 2010). Translating this characteristic practice of science into science teaching in schools means that a learner of science must also be able to construct plausible and relevant arguments from available evidences in learning science concepts. This has important implications for science teacher educators as there is now a need to teach and equip pre-service teachers with skills, knowledge and strategies to teach their prospective students in schools how to make sense of evidences and how to construct coherent arguments and at the same time, learn the contents of science (Newton, Driver,& Osborne, 1999).
The nature of science and paradigm shift in science teacher education asserts that argumentation should be central in science education. The paradigm shift referred to here is the need to move our attention from focusing on acquisition of content knowledge to understanding and appreciating the process by which scientific knowledge is formed. As such, we argue here that argumentation is one of the key scientific practices to enable this change to take place and hence, to enable learners of science to learn science in an authentic manner, science teachers need to know how to position the content that they are teaching in a manner that will open up a space for students to discuss and argue. Yet, in reality, the opportunity for students to engage in argumentation discourse is rarely seen in science classroom practice (Duschl & Osborne, 2002; Roth, et al., 2006). Thus, we argue that if cultivating students’ involvement in the practice of argumentation is a goal to achieve, then the current culture of science classrooms, which is largely dominated by didactic monologues from the teacher, must be altered. Current research indicates that the teacher plays a fundamental role in any reform effort because curriculum implementation and classroom instruction are often shaped by them (Bybee, 1993; Lotter, Harwood, & Bonner, 2007; Sampson & Blanchard, 2012). As such, one of the key platforms to advocate and promote this kind of curricular and pedagogical reform is through initial teacher education programs.
To facilitate the change process, we need to understand what pre-service teachers know about scientific argumentation and to what extent they value its role in the teaching and learning of science. Current research that focusses on pre-service teachers’ perceptions and ideas about science as a form of inquiry highlighted the difficulties they faced in enacting science as inquiry in classroom (e.g., Biggers & Forbes, 2012; Crawford, 2007; Davis, Petish, & Smithey, 2006; Haefner & Zembal-Saul, 2004). The similarity between practice of science as inquiry and argumentation is likely to be due to the fact that argumentation is a prerequisite skill for learners of science to be engaged in science as inquiry. Despite the wealth of research into practices of science as inquiry, few studies in inquiry classroom examine the embedded argumentation explicitly. By embedded argumentation, we refer to the nature of the tasks that inherently has tenets that are debatable. These would generally be scientific theories and ideas that scientists are still seeking evidences for. The only difference between embedded argumentation and argumentation that stems from socioscientific issues is the reliance of embedded argumentation on empirical evidence rather than affective perspective. There is hence limited research on how pre-service teachers participate in argumentation as well as explore on their knowledge and views of the use of argumentation (Kaya, 2013; Ozdem, Ertepinar, Cakiroglu, & Erduran, 2013; Sadler, 2006). As early as the late 1990s, researchers such as Newton, Driver, and Osborne (1999) were already arguing that argumentation should form part of the pedagogical repertoire of science teachers and hence their knowledge in this area should be developed. McNeil and Knight (2013), in their study of teachers’ pedagogical content knowledge in argumentation highlighted that in-service teachers faced challenges with understanding the structural and dialogic characteristics of argumentation. They also struggled with designing tasks that are argumentation-centric. As such, research into the development of argumentation skills is important not only for students learning science in schools, but also for teachers, both in-service as well as pre-service, engaged in teaching science.
23 6 - PublicationOpen AccessThe multi-timescale, multi-modal and multi-perspectival aspects of classroom discourse analysis in science educationClassroom discourse is an indispensable process through which the teaching and learning of any discipline, including science, takes place. In classroom discourse studies, many researchers use a variety of approaches under the umbrella term of “discourse analysis” to understand the dynamic of interaction and sometimes how learning happens in the classroom. Discourse analysis is recognised and frequently discussed as a methodology in applied linguistics (Rex et al. 2010). Researchers in science education typically borrow several analytical tools from discourse analysis and apply them to study the teaching and learning process in the science classroom (broadly defined as a space of learning in and out of school). For many years, the adoption of methods from discourse analysis developed outside science education was not a major issue. However, in light of the increasing emphasis and contextualisation on the disciplinary nature of science, some unique features of science discourse become more evident: the first characteristic that is overwhelming in this issue is multi-modality. Science discourse in general, and science classroom discourse in particular, is multi-modal in the sense that it needs more than verbal language to make sense. Another feature which appears in several papers in this special issue is that science is related not only to its content but also to the epistemic process of creating scientific knowledge. Science is an inquiry-based enterprise, it values more questions than answers, and it has an empirical base. The language of science itself has some particular features, such as the use of nominalisations, which goes beyond technicality (Fang 2005). Accordingly, it is time to review the methods that were historically adopted from other disciplines and evaluate how they have evolved to take into consideration the unique multi-modal and empirical character of science. There has been little discussion thus far within the science education community on the overarching methodology of discourse analysis, such as its underpinning paradigm and the relative advantages and limitations of various approaches. This special issue dedicated to discourse analysis is therefore the first of its kind within science education. Compilations focusing on discourse analysis have appeared in applied linguistics and language education (e.g. Gee and Handford 2012; Zuengler and Mori 2002). What is different in this special issue is the attention to the conditions, settings and peculiarities of science classrooms. It is also written mainly by science education researchers who use discourse analysis to address issues that are more unique to science education. Through an open call, we initially received 59 abstracts for this special issue from 24 countries across 6 continents. We were encouraged by this overwhelming response, which affirms the central role analytical methods play in science classroom research. As our focus is on the methodology of discourse studies, we asked the authors to highlight the rationale, application, and affordances of their methods, rather than reporting the full results from their study. After an initial selection by the guest editors and double-blind peer review process by the reviewers of Research in Science Education, we are pleased to present 11 original articles and a commentary for this special issue. The 11 papers highlighted similar yet different interpretations and applications of discourse analysis in science classrooms. In this editorial, we offer our perspectives of discourse analysis distilled from the collective ideas in all the papers.
WOS© Citations 12Scopus© Citations 18 93 100 - PublicationOpen Access"We 'own' the teachers": Understanding subcultures of Singapore lower track science classrooms(Office of Education Research, National Institute of Education, Singapore, 2020)
; ; Yeo, Leck WeeSubcultures emerge from within dominant and mainstream cultures, and can exert influence on the outcomes of science teaching and learning. This is an explanatory study about the subcultures of Singapore lower track science classrooms with the aim to understand the sets of understandings, behaviours and artefacts used by lower progress students in the Normal Academic streams, and diffused through interlocking group networks. We want to look for explanations on how: (1) cultural elements in these science classrooms become widespread in a population, (2) local variations in cultural content exists in group settings, and (3) subculture changes dynamically. By applying the theoretical framework of symbolic interaction to generate explanations that provide substantive knowledge on how the lower progress students learn and their science teachers teach science. The methods of data collection in this critical ethnographic study will include lesson videos, intensive student interviews, teacher interviews, observations and conversations with students in informal school settings, and documentation of artefacts. Data analysis including speech act and facework analyses will be used to unpack the performativity of the students and teachers in the science classrooms and illuminate the negotiations of power relationships, collective and individual memberships and space that in turn, affect students' identification with or against the subcultures and their subsequent contributions to it. This study will contribute to the cultural sociology studies of science education, as there are limited (if any) empirical studies that discuss the existence of subcultures in educational contexts. The findings will offer to science teacher insights that illuminate the complex and dynamic forces that interplay with their science teaching, so that they can understand and work with, rather than against them.131 30