Abstract:Professional knowledge is an important source of science teachers' actions in the classroom (e.g., personal professional content knowledge [pedagogical content knowledge, PCK] is the source of enacted PCK in the refined consensus model [RCM] for PCK). However, the evidence for this claim is ambiguous at best. This study applied a cross‐lagged panel design to examine the relationship between professional knowledge and actions in one particular instructional situation: explaining physics. Pre‐ and post a field e… Show more
“…There is also evidence that, after receiving feedback from their mentor during teaching placements, prospective teachers' explanations improved in later lessons (Borko et al 1992;Eisenhart et al 1993). In respect of field placements, Kulgemeyer et al (2020) showed that professional knowledge prior to the teaching placement (pre-test) influenced explaining skills after the teaching placement (post-test). In fact, only teacher candidates entering the school internship with high professional knowledge showed significant development in explaining skills after a 5-month placement.…”
Section: Empirical Evidence On Teacher Candidates' Explaining Skillsmentioning
Providing instructional explanations is a core component of effective instruction and an important teaching skill. Teaching skills are generally regarded as learnable, and teacher education programs aim to improve teachers' professional competences. In this study, we analyze to what extent explaining skills can be fostered during teacher education at university by means of a specific training module. We designed a training (university module) for prospective economics teachers at vocational schools (candidates in a Master's teaching program). By means of videotaped simulated interactions at two measurement points, we analyzed the development of teacher candidates' explaining skills. Teacher candidates were asked to explain the neoclassical supply and demand model (treatment group: n = 48; control group: n = 30) to an actor playing the role of a school student. The quality of the explanations was operationalized in respect of five aspects of successful explanations, which were derived from a literature review: (1) Content, (2) Studentteacher interaction, (3) Process structure, (4) Representation, and (5) Language. The results show that there was a treatment effect on the development of the Process structure aspect, while Student-teacher interaction appeared to develop "naturally" through experience, regardless of participation in the training. The quality aspects Content, Representation, and Language appeared stable over time. Hence, the findings show that some aspects of explaining skills are learnable even in a short training module. Learning effects are attributable partly to the instructional input received and partly to repeated practice. Both imply the importance of further opportunities to practice instructional explanation in teacher education.
“…There is also evidence that, after receiving feedback from their mentor during teaching placements, prospective teachers' explanations improved in later lessons (Borko et al 1992;Eisenhart et al 1993). In respect of field placements, Kulgemeyer et al (2020) showed that professional knowledge prior to the teaching placement (pre-test) influenced explaining skills after the teaching placement (post-test). In fact, only teacher candidates entering the school internship with high professional knowledge showed significant development in explaining skills after a 5-month placement.…”
Section: Empirical Evidence On Teacher Candidates' Explaining Skillsmentioning
Providing instructional explanations is a core component of effective instruction and an important teaching skill. Teaching skills are generally regarded as learnable, and teacher education programs aim to improve teachers' professional competences. In this study, we analyze to what extent explaining skills can be fostered during teacher education at university by means of a specific training module. We designed a training (university module) for prospective economics teachers at vocational schools (candidates in a Master's teaching program). By means of videotaped simulated interactions at two measurement points, we analyzed the development of teacher candidates' explaining skills. Teacher candidates were asked to explain the neoclassical supply and demand model (treatment group: n = 48; control group: n = 30) to an actor playing the role of a school student. The quality of the explanations was operationalized in respect of five aspects of successful explanations, which were derived from a literature review: (1) Content, (2) Studentteacher interaction, (3) Process structure, (4) Representation, and (5) Language. The results show that there was a treatment effect on the development of the Process structure aspect, while Student-teacher interaction appeared to develop "naturally" through experience, regardless of participation in the training. The quality aspects Content, Representation, and Language appeared stable over time. Hence, the findings show that some aspects of explaining skills are learnable even in a short training module. Learning effects are attributable partly to the instructional input received and partly to repeated practice. Both imply the importance of further opportunities to practice instructional explanation in teacher education.
“…PSTs encounter learning opportunities during university teacher education addressing different components of PCK. Explicit instruction in science method courses supports preservice teachers' knowledge exchange between cPCK and pPCK (Sorge, Stender et al, 2019), and field experiences provide opportunities for preservice teachers to enrich their pPCK (van Driel et al, 2002) and develop their ePCK for planning, teaching and reflecting Kulgemeyer et al, 2020).…”
Recent research and reform efforts in science education have consistently stressed the importance of coherent science instruction, in which learning opportunities are connected and contextualized by meaningful phenomena, focus on a small set of core ideas over time, and generate a need-to-know about new ideas through a set of connected lessons. Yet, this type of instruction remains uncommon in schools. We argue that science teacher education has the potential to play a powerful role in promoting coherent science instruction in schools, but to reach this potential, science teacher education programs themselves must be coherent. Based on existing literature and our work in an international collaboration focused on effective practices in science teacher education, we identify key features of coherent science teacher education programs and present a new model that we refer to as the Science Teacher Education Programmatic Coherence (STEP-C) model. The STEP-C model illustrates how key elements of science teacher education are situated relative to each other, potentially serving as a powerful tool for program design.
KEYWORDS
Coherence; program design; teacher knowledgeDecades of science education research have contributed to a broad consensus that high quality science teaching includes situating student learning within collaborative investigations of meaningful phenomena and problems embedded within relevant contexts (e.g., Furtak & Penuel, 2019;Lee & Songer, 2003), leveraging these contexts to motivate within students a need to know about new science ideas (e.g., Schneider et al., 2020), and building a relatively small set of core science ideas and practices over a long period of time (e.g.,
“…Recently, the connections between pre-service teachers' explanations and PCK have been empirically supported. We know now that science pre-service teachers' PCK is a mediator of their explaining performance; then, PCK affects their enacted knowledge to explain (Kulgemeyer & Riese, 2018;Kulgemeyer et al, 2020).…”
Section: Introductionmentioning
confidence: 99%
“…The construct of such an explanatory framework enriched the idea of explanation as an answer to a why-question, highlighting how teachers use analogy, metaphor, examples, axioms and concepts, linking them together into a coherent whole for the classroom (Geelan, 2003). However, constructing explanations is a complicated process, and many teachers struggle to transform academic knowledge into explanations for the school (Cabello, Real, & Impedovo, 2019;Charalambous, Hill, & Ball, 2011;Gobierno de Chile, 2013;Hadzidaki, 2008;Kulgemeyer, et al, 2020;Inoue, 2009;Wittwer & Renkl, 2008). Indeed, this is even more critical for beginner teachers (Leinhardt, 2001;Ospina-Quintero & Bonan, 2011;Marzabal et al, 2019), and practical experience without reflection is unlikely to automatically lead to better results in explaining.…”
Section: Introductionmentioning
confidence: 99%
“…Moreover, the research regarding studentteacher explanations is still not as developed as the studies focused on student explanations (e.g., Besson, 2010;Herman et al, 2019;Kampourakis & Zogza, 2008). Hence, the intersection of explanation construction and the factors affecting its development in teacher education is still an under-researched field of inquiry (Charalambous et al, 2011;Geelan, 2012;Kulgemeyer & Riese, 2018;Kulgemeyer et al, 2020;Marzabal et al, 2019). Therefore, there is little knowledge about the development of pre-service explanations and relevance for future classroom practice.…”
This study explored student-teacher conceptions of explanations for the science classroom during teacher education programs through peer-assessments of 20 pre-service teachers from three universities. The peer-assessments were reciprocal and focused on the explanation of scientific concepts during microteaching episodes. Student-teacher conceptions about the quality of scientific explanations were obtained by analysing their assessment-feedback comments to peers and by focus groups. The results showed that student-teacher conceptions about the quality of explanations for the science classroom were related to constructivist theory applied to science teaching, for instance, the participants noticed that better explanations were those that connected the concepts with the students' ideas and experiences. A follow-up with a sub-sample of six participants during a practicum in schools explored through interviews the perceived enablers and obstacles that affected their explanation construction in real settings leading to reframing their conceptions. This study revealed that peer assessment and feedback could play a significant role in teacher education by eliciting student-teacher conceptions about essential teaching practices and the challenges of explaining in real teaching, which might enhance and empower their skill development. We discuss implications for research and practice, with emphasis on peer assessment as a tool for internalising assessment criteria for fruitful science teaching.
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