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As humanity reaches the 5.0 industrial revolution, education plays a critical role in boosting the quality of human resources. This paper reports bibliometric research on emerging TiP during 1993-2022 in the educational field to analyse its development on any level of education during the last three decades. This study employed a Scopus database. The findings are that the trend of TiP publication in educational fields has tended to increase every year during the past three decades and conference paper became the most published document type, the USA is the country which produces the most publications; "Students" being the most occurrences keyword and total link strength. The publication of the TiP is ranked to the Quartile 1, which implies that a publication with the cited performance is a publication with credibility because the publisher has a good reputation. Researchers can find the topics most relevant to other metadata sources such as Web of Science, Publish, and Perish.

Social semiotic discussions about the role played by representations in effective teaching and learning in areas such as physics have led to theoretical proposals that have a strong common thread: in order to acquire an appropriate understanding of a particular object of learning, access to the disciplinary relevance aspects in the representations used calls for the attainment of representational competence across a particular "critical constellation of systematically used semiotic resources (which are referred to as" modes, "see more on this later)." However, an affirming empirical investigation into the relationship between a particular object of learning and different representational formulations, particularly with large numbers of students, is missing in the literature, especially in the context of university-level physics education. To start to address, this research shortfall the positioning for this article is that such studies need to embrace the complexities of student thinking and application of knowledge. To achieve this, both factor and network analyses were used. Even though both approaches are grounded in different frameworks, for the task at hand, both approaches are useful for analyzing clustering dynamics within the responses of a large number of participants. Both also facilitate an exploration of how such clusters may relate to the semiotic resource formulation of a representation. The data were obtained from a questionnaire given to 1,368 students drawn from 12 universities across 7 countries. The questionnaire deals with the refraction of light in introductory-level physics and involves asking students to give their best prediction of the relative visual positioning of images and objects in different semiotically constituted situations. The results of both approaches revealed no one-to-one relationship between a particular representational formulation and a particular cluster of student responses. The factor analysis used correct answer responses to reveal clusters that brought to the fore three different complexity levels in relation to representation formulation. The network analysis used all responses (correct and incorrect) to reveal three structural patterns. What is evident from the results of both analyses is that they confirm two broad conclusions that have emerged from social semiotic explorations dealing with representations in relation to attempting to optimize teaching and learning. The first, which is linked to a facilitating-awareness perspective, is that any given disciplinary visual representation can be expected to evoke a dispersed set of knowledge structures, which is referred to as their "relevance structure." Thus, the network analysis results can be seen as presenting a unique starting point for studies aiming to identify such "relevance structure." The second broad conclusion is that disciplinary visual representation can and often does contain more "disciplinary-relevant aspects" than what may be directly visible in a given representation. These are referred to as the "appresent" aspects that need to become part of the total awareness needed by someone to constitute an intended meaning. The results of the factor analysis can then also be seen to be a way of capturing "all" the disciplinary-relevant aspects (both present and appresent). Educational implications are discussed.

Over the years, there have been various calls to increase and better represent astronomy in curricula. This is motivated by views within the astronomy and astronomy education communities that the awe, wonder, and interdisciplinary nature of astronomy has the potential to engage students in STEM across disciplines. Reviews of curricula have shown that astronomy topics are represented in most mandated curricula around the world and although there is a homogeneity of astronomy topics in most mandated curricula, this representation has its limitations. By using the Australian National Curriculum, the USA-based Next Generation Science Standards (NGSS), and the Swedish National Curriculum as examples, this study unpacks ideas around "How much astronomy is enough?", the mismatches between astronomy topics in curricula and what constitutes astronomical literacy within the context of the Big Ideas in Astronomy document. The results identify that there is a significant gap at the galactic and extragalactic scales when considering the typical progression of astronomy topics when considering the conceptual, spatial, and temporal scales of the topics. Specifically, topics in curricula jump from tangible concepts within the student's immediate and Solar System spatial scales in primary school to cosmological spatial scales in upper high school, without reference to spatial and conceptual connecting topics at galactic scales. Potential sample curriculum statements drawn from the Big Ideas are presented as a suggested curriculum inclusion. This curricula gap is identified as a potential source of a similar gap in education research in these topics at these levels, which in turn perpetuates the problem by there being a lack of research-based evidence for inclusion in the curriculum.

In this paper, we present the results of an investigation into the effects of engaging with robotic telescopes during an Astronomy 101 (Astro101) course in the United States and Canada on the self-efficacy of students. Using an astronomy self-efficacy survey that measures both astronomy personal self-efficacy and instrumental self-efficacy, the authors probed their covariance with the respondents' experience of an Astro101 course that uses robotic telescopes to collect astronomical data. Strong effects on both self-efficacy scales were seen over the period of a semester utilizing a scalable educational design using robotic telescopes. After participation in the course, the results show that the gender gap in self-efficacy between self-identified men and women is largely reduced to statistically insignificant differences compared to the initial large significant difference.

Augmented Reality (AR) & Virtual Reality (VR) are now wide open to all fields. The objectives of this study are to analyze the comparison of trend research on the top 200 cited AR and VR publications in all areas, to identify the comparison of trend mapping visualization on AR and VR publications in Physics learning research, to compare the top 10 most productive author of the AR and VR in Physics learning research, to determine the top-cited author, subject areas and affiliation of the AR and VR in Physics learning research, to analyze the comparison of the distribution of AR and VR publications in Physics learning research. This research analyzes bibliometrics on 'AR' and 'VR' keywords as general fields and specifies it to implement AR and VR in Physics education and compare them. The metadata gathered is from the Scopus database and investigated by VOSViewer. This research shows that the trend of research in AR and VR in all fields is increasing each year. The top keywords used in AR and VR to Physics learning are 'AR' and 'VR', with total link strengths of 479 and 1,882. AR and VR can be integrated into the classroom from toddler to secondary school. Implications of the review of the top 10 cited publications require more improvement and optimization of AR and VR stability.

Science is a collaborative process and electronic means of communication enhance collaborative possibilities. It is an important ability to be able to effectively work with people from different cultures. Our program uses physics activities to bring secondary school girls from different cultures together. Students from a school in the United States and a school in Egypt worked over various media and completed activities designed by their teachers. The program goals are to develop cultural awareness, abilities to work with people who are different, distributed leadership skills, physics skills, and knowledge. This article will explain the overall approach of the program, describe one physics activity, and present evaluation data.

Recently Burkholder "et al." argued that class normalized gains over the entire population of courses is approximated by a Cauchy distribution, not by a normal distribution, and therefore should not be used to compare different classes because means and standard deviations cannot be calculated. They argued that multiple linear regression should be used instead. Burkholder "et al." provided very little data in support of their belief, but instead provided a theoretical argument with certain assumptions. We shall show that these assumptions are unreasonable. We also show explicitly how normalized gains from 114 classes taught by six different instructors are indeed normally distributed and how two other even larger samples are roughly normally distributed and are not remotely like a Cauchy distribution. The continued use of normalized gains by physics instructors is therefore justified.

The study aimed to determine the extent of associations of physics, mathematics, and between physics and mathematics based on the results of the 2007, 2011, and 2015 Trends in Mathematics and Science Survey achievement tests. Utilizing educational data mining and correlational data analysis (significance set at [alpha] = 0.05), this study's findings revealed that there was a significant positive correlation between elementary physics and secondary physics (r = 0.821, [rho] = 0.045), between elementary mathematics and secondary mathematics (r = 0.914, ? = 0.011), between elementary physics and elementary mathematics (r = 0.914, [rho] = 0.011), and between secondary physics and secondary mathematics (r = 0.891, [rho] = 0.017). With these findings, the study concluded that physics and mathematics in elementary and high school are significantly associated that physics is not significantly associated with previous-level mathematics and that advanced courses in physics and mathematics are not associated with the secondary counterparts. Furthermore, implications toward physics education in the Philippines are formulated.

We reviewed 48 articles related to the engineering design process in science education published from 2010 to 2020. There are several previous literature review studies that analyzed the engineering design process in science education. However, we have not found any that investigates projects, discussed topics, as well as the benefits of the implementation of the engineering design process in science education. The research method used was a systematic literature review. This study analyzed the characteristics of the content based on year of publication, type of publications, countries that implement it, research approach, educational stage, and science content. The findings show that the projects used in the implementation of the engineering design processes in science education varied according to the discussed topics. The benefits of the implementation of the engineering design process in science education include cognitive benefits, procedural (skills) benefits, attitudinal benefits, and a combination of the three benefits.

Science and engineering departments face high student attrition due to perceived difficulty of courses in these disciplines. To subdue student attrition, students need to be guided by individual tutors to help them learn, practice and test their understanding of concepts. However, due to the exorbitant cost and time involved, this is not practical. In this article, we argue that computer-based tutors authored by teachers can serve as a useful tool to assist student learning in challenging scientific concepts. About 8,000 fine-grained interactions with our tutor by 72 students in two countries--USA and Philippines--were analysed in the framework of learning curve theory to estimate prior knowledge, learning rate and residual error rate to gauge tutor efficiency. Computer-based tutors accelerate learning and such tutors are viable, effective, and facile options to improve student learning.

What do academics think about their "responsibilities" to the public? This chapter provides a view of "the public intellectual" by examining how academics construct their relationship to the public. Drawing on in-depth interviews with physicists at universities in the United States (US) and the United Kingdom (UK), we illustrate a typological approach that could be applied to understanding the public intellectual in any academic discipline and points to implications for how universities and the academic profession can engage with the public. Academics should view themselves as stewards of the public good and be able to articulate how such a role is manifest in their work.

In this study we compare the titles of scientific letters and those of research papers published in the field of astrophysics in order to identify the possible differences and/or similarities between both genres in terms of several linguistic and extra-linguistic variables (length, lexical density, number of prepositions, number of compound groups, number of authors and number of countries mentioned in the paper bylines). We also carry out a cross-genre and cross-journal analysis of the referred six variables. Our main findings may be summarized as follows: (1) When compared to research paper titles, scientific letter titles are usually shorter, they have a lower lexical density, they include a higher number of prepositions per number of words and a lower number of compound groups per number of words, although they have more up to 4-word compound groups, i.e. the simplest ones. As a consequence, scientific letter titles include less information, which is also less condensed, than research paper titles. (2) The predominance of compound adjectives over compound nouns in the titles of both genres highlights the scientificity of astrophysical discourse. (3) In general terms, our data show a positive correlation between title length and the number of countries mentioned in the bylines for both genres. The positive correlation between title length and number of authors is only met in the case of research papers. In light of these findings, it may be concluded that scientific letters are a clear example of a timeliness and more "immediate" science, whereas research papers are connected to a more timeless and "elaborate" science. It may also be concluded that two different collaboration scenarios are intertwining on the basis of three separate geographic and linguistic publication contexts (Mainland Europe, The United Kingdom and The United States of North America).

For research areas to advance, researchers are required to carry out studies that are in line with the inadequacies in the field and to have a grasp of the studies in the field. One of the most important means of identifying inadequacies in a field is to review studies between certain years. In this sense, it is important to analyze the publications of significant journals in physics education. The purpose of this study is to conduct a thematic review of the literature related to physics education studies in certain journals published within the scope of Social Sciences Citation Index in 2013-2015. The articles obtained from the literature were analyzed using a generated matrix. The matrix consists of general specifications (type of journal, years and demographic properties) and content sections (aims, research methods, variables, samples, physics subjects and results). According to the findings, in terms of physics concepts, the studies were conducted mostly on the concept of energy and included mostly undergraduate student participants. Regarding the results, it is suggested, both in physics and science education studies, that materials that are to be used with approaches, such as context-based learning, inquiry-based leaning, and argumentation-based learning, need to be enhanced and that additional studies that investigate the effects of these approaches on learning environments are needed.

When the coronavirus pandemic hit, most doctoral supervision moved online around the globe. Virtual meetings using videoconferencing technology (VCT) suddenly replaced in person encounters raising the question of whether supervisory interaction has been altered due to changing delivery modes. This article applies a practice-theoretical approach to explore how doctoral advisors and candidates interact in the virtual space and how they experienced the transition to online supervision. Drawing on 11 recorded Zoom meetings and 35 interviews with doctoral advisors and candidates in the social sciences and physics, the study has found that field-specific supervision models fit VCT environments differently. The findings indicate that team-based supervision is more difficult to sustain online than one-on-one supervision where advisors and candidates change little in their usual interaction.

Ishimoto, Davenport, and Wittmann have previously reported analyses of data from student responses to the Force and Motion Conceptual Evaluation (FMCE), in which they used item response curves (IRCs) to make claims about American and Japanese students' relative likelihood to choose certain incorrect responses to some questions. We have used an independent dataset of over 6,500 American students' responses to the FMCE to generate IRCs to test their claims. Converting the IRCs to vectors, we used dot product analysis to compare each response item quantitatively. For most questions, our analyses are consistent with Ishimoto, Davenport, and Wittmann, with some results suggesting more minor differences between American and Japanese students than previously reported. We also highlight the pedagogical advantages of using IRCs to determine the differences in response patterns for different populations to better understand student thinking prior to instruction.

Women continue to be underrepresented in physics in the United States. This is while many Muslim majority (MM) countries have a high representation of women in undergraduate and graduate physics programs. While there is a growing awareness of this trend, little is being done to understand why and how this trend has manifested and how it can be used to inform broadening the participation of women in physics in the U.S. To better understand how cultural experiences can influence the pursuit of physics, this study examines the lived experiences of female physics faculty members in the U.S. who came from MM countries. The study draws on seven phenomenological interviews focusing on how cultural experiences shaped participants' gender and physics identities. The results reveal several possible hypotheses on differences and similarities in how physics and gender identities intersect in MM countries as opposed to what has been found in the West. In particular, expressions of femininity in MM countries can have a more constructive intersection with expressions of physics identity in ways that promote participation and persistence.

Introduction: We report an investigation on collaboration practices in research papers published in the most prestigious English-medium astrophysics journals. Method: We propose an evaluation method based on three numerical indicators to study and compare, in absolute terms, three different types of collaboration (international, national and local) and authors' mobility on the basis of co-authorship. Analysis: We analysed 300 randomly selected research papers in three different time periods and used the student's t-test to determine whether the paired two-sample differences observed were statistically significant or not. Results: International collaboration is more common than national and local collaboration. International, national and local authors' mobility and intra-national collaboration do not seriously affect the indicators of the principal levels of collaboration. International collaboration and authors' mobility are more relevant for authors publishing in European journals, whereas national and intra-national collaboration and national mobility are more important for authors publishing in US journals. Conclusions: We explain the observed differences and patterns in terms of the specific scope of each journal and the socio-economic and political situation in both geographic contexts (Europe and the USA). Our study provides a global picture of collaboration practices in astrophysics and its possible application to many other sciences and fields would undoubtedly help bring into focus the really big issues for overall research management and policy.

Momentum is a foundational concept in physics. Although it is often taught in introductory mechanics courses, there are a limited number of studies on this topic in the literature. The results from these studies have consistently shown that students have difficulties in understanding momentum, especially the connections between net force, time, and change in momentum, which are signs of fragmented knowledge structure and poor knowledge integration. This study adopts the conceptual framework representation to model student understanding and guide the design of an assessment test on momentum. Informed by the previous work on knowledge integration, the conceptual framework maps out the key concepts and their connections within a student's knowledge structure. Recent studies have shown that a conceptual framework can be used as a guide to create assessment items that follow different reasoning pathways, probing various misconceptions and student difficulties. In this study, an assessment of momentum was developed and tested among a large number of U.S. college freshmen and Chinese high school students. Based on testing and interview results, students' understanding is separated into three progression levels of knowledge integration including novice-like, transitional, and expert-like. Furthermore, the comparison between the two countries' curriculum and momentum test results indicates that an emphasis on the central idea of impulse-momentum theorem can be an essential instructional strategy to help students make the necessary connections within their knowledge structure, leading to a deeper conceptual understanding of momentum.

[This paper is part of the Focused Collection on Curriculum Development: Theory into Design.] This manuscript discusses how learning theories have been applied to shape multiple aspects of the design of curricular activities combining interactive computer simulations and University of Washington style tutorials (so-called simulation-tutorials). When considering the curriculum goals (what to teach), we drew on theories of representational competence and learning with multiple representations. When considering how to teach, we drew on theories of constructivism and sketching to learn, leveraging the advantages of sketching as a constructive process that requires students to make their current understanding explicit in visual form, to make specific choices in order to make their ideas concrete, and to organize information to support deep processing. When considering when and why to sketch, we drew upon theories of representational competence, learning with multiple representations and inventing to prepare for future learning to describe six distinct purposes of sketching both prior to and while working with the simulation. This is illustrated by presenting specific sketching tasks to show how theory informed the design and the sequencing of the tasks. We followed a design-based research method, working at two institutions in two countries and with multiple cohorts of students to understand, and where necessary improve, the design of these activities, primarily basing our decisions on the sketches that students had created. The key message of this research is that the design and sequencing of sketching tasks needs to be carefully matched to the pedagogical rationale and that theory can shape these decisions in many ways.

In this study, we carry out a qualitative and quantitative analysis of abbreviations in 300 randomly collected research paper titles published in the most prestigious European and US-based Astrophysics journals written in English. Our main results show that the process of shortening words and groups of words is one of the most characteristic and recurrent features in Astrophysics research paper titling construction. In spite of the convenience of abbreviations as a mechanism for word-formation, some of them may pose certain difficulties of understanding and/or misinterpretation because of their specificity, ambiguity, or overlapping. To overcome these difficulties, we propose a series of options which with no doubt would lead to a better interaction among the different branches of Astrophysics in particular and of science in general and would definitely improve how research is currently performed and communicated.

A large scale survey reveals that the performance of the Indian preuniversity students in internationally standardized physics tests is intermediate to the American and the Chinese but reveals a disturbing bimodality. Scientific reasoning skills, however, are similar to both. The bimodality in physics tests corresponds to two different educational experiences, one in which the school ties up with privately run coaching centers (which we term as the integrated mode) and the other (non-integrated mode) which has no such arrangement. These two modes have an underlying economic connotation and pose equity concerns. The study draws attention to this problematic educational phenomenon, often called "shadow education," widely prevalent in many countries including India and China.

In physics education research (PER), concept inventories (CIs) have become standard instruments for assessing students' learning throughout instruction. To promote widespread use of concept inventories, previous studies have developed an approach to split a full length CI into short versions of CIs. This research extends the existing method to fully utilize the item response theory framework in equating and linking between the short CIs and the full length CIs. Three quantitative studies have been conducted: First, the extended algorithm is applied to divide the Brief Electricity and Magnetism Assessment (BEMA) into two half-length BEMAs (HBEMAs). Through a series of test-equating and validation analysis, the HBEMAs are confirmed to measure the same latent constructs of student understanding of electricity and magnetism to that of the original BEMA at a similar level of reliability. The second study establishes equivalent score conversions among the three versions of BEMA using the Stocking-Lord method, which has the best performance on equating error reduction among several methods explored. It is also confirmed that the equivalent statistical characteristics of the three versions of BEMA are equity and population invariant. In the third study, the extended algorithm is applied to link and compare the BEMA and the Conceptual Survey of Electricity and Magnetism (CSEM). After linking the BEMA and CSEM assessment scales, it becomes possible to directly convert and compare students' performances on the two CIs. It is found that the scales of BEMA and CSEM are almost identical after scale transformation. Based on these studies, it can be suggested that all short and long versions of BEMA and CSEM can be used interchangeably after scale transformation.

The topic of "teacher professionalism" is one of the most crucial ones in quality education research. It has a potential to generate results that could inform and hence enhance the practice in classrooms. Thus, research in this field needs reliable instruments to measure the professional knowledge of our teachers to be able to generate reliable results for our research problems. Not many instruments have been developed with regard to this topic. At the same time, an adequate validation of the instrument developed is often missing (Schilling & Hill, 2007). Hence, in a bigger project "ProwiN" (German acronym for professional knowledge of science teachers), test instruments for measuring science teachers' pedagogical, pedagogical content and content knowledge (PK, PCK, and CK) were developed for the subjects biology, chemistry and physics. The present study tested the validity of some of these items which were used to measure the pedagogical content knowledge (PCK) of biology teachers. These items focused on measuring teachers' professional knowledge by analyzing 1) teachers' "knowledge about student understanding" (or lack of understanding) of several topics in biology and 2) "knowledge about instructional strategies" like the use of models or experiments. The content validity of these instruments was examined by think-aloud interviews with American and German Biology teachers (N = 11). This study shows a high content validity for these items. Furthermore, this paper demonstrates the scope for adapting the conceptual framework of these items to measure biology teachers' PCK in other countries.

Agency is a construct facilitating our examination of when and how young people extend their own learning across contexts. However, little is known about the role played by adolescent learners' sense of agency. This paper reports two cases of students' agentively employing and developing science literacy practices--one in Singapore and the other in the USA. The paper illustrates how these two adolescent learners in different ways creatively accessed, navigated and integrated in-school and out-of-school discourses to support and nurture their learning of physics. Data were gleaned from students' work and interviews with students participating in a physics curricular programme in which they made linkages between their chosen out-of-school texts and several physics concepts learnt in school. The students' agentive moves were identified by means of situational mapping, which involved a relational analysis of the students' chosen artefacts and discourses across time and space. This relational analysis enabled us to address questions of student agency--how it can be effected, realised, construed and examined. It highlights possible ways to intervene in these networked relations to facilitate adolescents' agentive moves in their learning endeavours.

This research aimed at investigating the effectiveness of STEM approach in developing visual reasoning and learning independence for preparatory stage students. To achieve this aim, the researcher designed a program based on STEM approach in light of the principles of nanotechnology. Twenty one preparatory stage students participated in the research. The researcher applied one-group research design through application of the research instruments to the selected group before the program, administration of the program, and post application of the instruments. This research design is appropriate for educational researches which present new processes in the content of programs or curricula that the students have not previously studied and these processes may take the form of new information, skills, or teaching methods. After data collection and application of the appropriate statistical treatments, the researcher reached the following results: there is a statistically significant difference at the 0.01 level between the students' mean scores in the pre and post-application of the achievement and visual reasoning tests in favor of the post-application. The results of the portfolio assessment of students also indicate the development of the students' ability to take responsibility of their learning, their ability to choose, their confidence, and consequently their competency in the aspects of learning independence.

Student views of force and motion reflect the personal experiences and physics education of the student. With a different language, culture, and educational system, we expect that Japanese students' views on force and motion might be different from those of American students. The Force and Motion Conceptual Evaluation (FMCE) is an instrument used to probe student views on force and motion. It was designed using research on American students, and, as such, the items might function differently for Japanese students. Preliminary results from a translated version indicated that Japanese students had similar misconceptions as those of American students. In this study, we used item response curves (IRCs) to make more detailed item-by-item comparisons. IRCs show the functioning of individual items across all levels of performance by plotting the proportion of each response as a function of the total score. Most of the IRCs showed very similar patterns on both correct and incorrect responses; however, a few of the plots indicate differences between the populations. The similar patterns indicate that students tend to interact with FMCE items similarly, despite differences in culture, language, and education. We speculate about the possible causes for the differences in some of the IRCs. This report is intended to show how IRCs can be used as a part of the validation process when making comparisons across languages and nationalities. Differences in IRCs can help to pinpoint artifacts of translation, contextual effects because of differences in culture, and perhaps intrinsic differences in student understanding of Newtonian motion.

In this paper, we present the design and the results of a comparative study that evaluated the success of a transfer of an online-teaching resource between two universities, one in Germany and one in the USA. The teaching resource is an online physics lab that has been used in the physics education of medical students in Germany since 2003. The online lab covers geometrical optics and the optics of the human eye using interactive screen experiments. It was translated and transferred to a university in the USA where it was used and evaluated with a group of pre-health students. In a cross-national study, students' backgrounds (demographic data, selected cognitive abilities, previous knowledge, and self-concept in physics), students' attitudes towards the online lab, and their learning gain were compared. The results show significant differences between the German and the US cohorts with regard to students' backgrounds. Despite these differences, the outcomes are similar, with slightly higher leaning gains for the US students. Students' attitudes towards the online lab are similar in both countries but tend to be more positive among the US students. The results indicate that the transfer of the online lab to another educational system was successful.

This article analyzes masculinity and experimental practices within three different physics communities. This work is premised on the understanding that the discipline of physics is not only dominated by men, but also is laden with masculine connotations on a symbolical level, and that this limited and limiting construction of physics has made it difficult for many women to find a place in the discipline. Consequently, we argue that in order to further the understanding of gender dynamics within physics communities and enrich the current understandings about the lack of women in physics, perspectives from masculinity studies are crucial. The article draws on three different ethnographic case studies dealing with undergraduate students, graduate students, and research scientists. [This paper is part of the Focused Collection on Gender in Physics.]