The GIREP-EPEC 2023 conference will be held 3-7 July 2023 in Košice, Slovakia. It is organized by the International Research Group on Physics Teaching – GIREP (Groupe International de Recherche sur l’Enseignement de la Physique), the Physics Education Division of European Physical Society (EPS-PED), Faculty of Science, Pavol Jozef Šafárik University in Košice and the Slovak Physical Society. It is currently planned in the blended form: on-site at the Faculty of Science UPJS and online.
The theme of the conference is "Physics learning promoting culture and addressing societal issues". The programme is planned from Monday morning till Thursday afternoon with excursions on Friday and will consists of plenary talks, parallel oral sessions, symposia, workshops and poster sessions.
Conference partners:
Two of the major challenges facing physics education internationally is the shortage of qualified physics teachers and an increased focus on the use of integrated STEM learning experiences at primary and second level.Firstly, this talk discusses the design and influence of a professional learning programme to upskill second-level teachers of mathematics, chemistry, biology to become qualified as physics teachers. The programme design includes principles that are fundamental to effective physics teacher education, i.e., strong physics knowledge is essential for good teaching, and teachers carrying out a practitioner inquiry (PI) on their own practice as part of a professional learning community (PLC) will enhance their content knowledge for teaching physics. Secondly, this talk shares the experiences and influences of a STEM Teacher Internship (STInt) programme that has provided paid summer placements for over 250 pre-service and novice in-service STEM teachers across 60 host organizations across Ireland. The influence on teachers’ personal and professional learning, awareness of equity and societal issues, use of ‘real world ‘contexts and integrated STEM learning approaches, inspired by their own immersive learning experiences in industry, is discussed. This talk shares recommendations for the design and implementation of immersive and collaborative learning experiences for enhancing physics teacher professional learning and influencing classroom practice.
Artificial Intelligence (AI) is one of the fastest-growing fields dealing with understanding and building intelligent machines that can compute how to act effectively and safely in a diversity of novel challenges. Today, generative AI is applied in a varied collection of applications, from creating art to helping in education and improving healthcare. Generative AI has the potential to bridge the gap between the current state of knowledge and the knowledge of graduates by generating educational content that is tailored to the needs and interests of individual learners. Generative AI can form personalized learning paths for students on their learning history and preferences, can generate simulations and scenarios that simulate real-world situations, or can help to analyze big data and identify patterns and hidden information that are difficult to detect by humans. Automated AI assessment, machine learning, or learning analytics can boost the learning and instruction quality in STEM education. Several types of AI applications in STEM education were investigated, for example, educational programming or social robots, intelligent tutoring systems, student behavior detection, learning prediction, automation, or AI textbooks. The applications of AI in innovative physics education can enhance the experience for both students and teachers. For example, the visualization and evaluation techniques can help to find hidden patterns in the students’ solutions which allow to prevent student mistakes or misconceptions. We present an example of the application of AI in innovative physics education with the help of several machine learning methods and algorithms.
This research aims at designing a teaching approach to understand CO2 influence on temperature, as accessible as possible. We first analyse the most common approaches, which led us to question the relevance of some experiments on radiative properties of solids, then extrapolated to gases. We show that this generalisation is not obvious at all for students, and thus deserves empirical evidence. A new experiment with CO2 balloons viewed with an infrared camera is presented. The results, applied to the Earth system, enable to understand the temperature increase, without using the absorption spectrum of CO2, inaccessible to most non-physicist people.
Abstract. In this poster, few school projects are presented which helps to combine theoretical knowledge and students’ creative and innovative skills in STEM activities. The topic is applied in Physics classroom and in practical outdoor activities with the Science Club students. The activities are based on taking and analysis of astrophotos, designing of simple rovers and measuring devices controlled by an Arduino microcontroller. The goal is to develop students’ competencies in a way that is interesting and stimulating to them.
A Teaching-Learning Sequence, designed to promote scientific practices in high school students, is presented. The TLS included laboratory experiences on linear motion using low-cost tools, as Arduino, which were easy to replicate in other schools. The focus was on the process of laboratory work, the use of different representations and the development of arguments based on evidence. Collaborative working methods were used; the TLS was modified to fit the teaching method of the teachers involved. The TLS was tested in three classes and replicated in two more. Preliminary results suggest that the TLS helped students to achieve the intended goals.
CUR: Innovative curricula for physics teaching, learning and assessment
Physics textbooks are viewed as primary resources for the implementation of curricula throughout the world. Scientific literacy (SL) skills are a core goal of physics education in many curriculum documents, in which four aspects of SL are recognized: Science as (1) a body of knowledge, (2) a way of investigation, (3) a way of thinking, and (4) the interaction amongst science, technology,and society. This paper, which forms part of a broader review, highlights a gap between curriculum and content and concludes that most physics textbooks cover aspect (1) of SL adequately, but that they significantly understate the other three aspects.
Objective evaluation of learning outcomes is a major part of teaching. Choosing an appropriate test analysis method is crucial. Item response curve analysis, as part of item response theory, and the Rasch method effectively analyse test scores and indicate the possibilities of improving the selection of questions or the offered answers, in terms of identifying students’ preconceptions. In the contribution, we will present the results of both methods on selected physics knowledge tests including multiple-choice questions, in order to indicate the method of analysing knowledge tests for the purpose of evaluating physics conceptual knowledge and understanding.
The central topic of the paper is the specialized physics test in which the Czech Republic participated in TIMSS Advanced 1995. We briefly recall the methodology of the TIMSS study and the test results of Czech students in the final-year of upper-secondary school. We present the repetition of the TIMSS Advanced physics test in the Czech Republic in 2023. We discuss future outputs of the currently running testing, its limits, and possible benefits.
UNI: Innovative strategies and pathways to improve physics education at university
In complex thermal systems in which the heat capacity varies with temperature, such as a typical Debye solid like silicon, the effective number of active degrees of freedom at any temperature can be defined from the internal energy in combination with equipartition. This allows for a conceptual picture of thermal equilibrium as well as elucidation of the link between the Boltzmann and thermodynamic entropies. It is shown that, in general, thermodynamic entropy is not the same as the Boltzmann entropy but there are clear circumstances under which they are identical. The instructional benefits of this approach are emphasized.
Problem solving is an integral part of teaching and learning physics, however, the research shows that by solving traditional problems students do not develop coherent knowledge. In the technological era there is a high demand for professionals of different areas with higher level thinking skills and scientific abilities characteristic for physicists. To help the students to learn to act and think like the physicists do, new type of problems have to be designed. We show how scientific papers can be used in the process and how such problems are seen by traditional physics educators.
In this research a model of teaching and learning within the University introductory physics course was designed implementing selected interactive engagement (IE) methods within the original course format. This model has been used for 10 years within the study programme of future physicists and physics teachers and compared with the traditional lecture and problem solving methods. The results show higher impact on conceptual understanding of kinematics and dynamics concepts in favour of students that experienced IE methods.
Making substantiated decisions is an important critical thinking skill. In this study we look at students substantiating their choice of apparatus for experiments. Students’ choices were registered and they were asked about the reasoning behind their choice. About three quarters of our population reasoned only by intuition. However, having students choose from similar apparatus that differ only in technical details stimulated about a fifth of our students to come up with valid (technical) reasons for their preference. This is therefore recommended for other lab courses.
SCH: Innovative strategies and pathways to improve physics education at school
Awakening, recognizing, and fostering gifted students is a challenge in science education, that teachers should address for the purpose of a comprehensive STEM support. A number of models and strategies are known for promoting giftedness. In this talk, we will discuss to what extent a format such as the Physics Olympiad is at all suitable to meet the desiderata of educating the gifted. Moreover, we focus on tasks to promote gifted students which have been developed within pre-service teacher courses at the University of Vienna. The tasks as well as results on the students’ learning processes will be presented.
We are surrounded by a lot of information and some of it is not based on truth. In physics classes, we should teach students how to identify information in scientific articles that are not scientifically correct – develop their critical reading skills. Activity will be presented using two newspaper articles, which were implemented by primary and secondary school pupils. After reading the text, they were supposed to answer the prepared questions. We evaluated these using the evaluation rubric that we created for this purpose. Arguing conclusions based on evidence, best reflects critical reading skills, causing them the biggest problems.
Learning about Electricity suffers from the fundamental concepts being difficult to understand for students. The multimedia application “PUMA : Spannungslabor” was developed to support students by visualizing didactic analogies for electricity. The application uses Augmented Reality-technology to place a digital representation atop a real-world circuit. It is connected to the real-world circuit by camera and via Bluetooth, which enables the measurement and presentation of real-life data via the app. An additional mode was implemented, enabling the use of the application as a simulation. This contribution presents the application and gives examples on how it can support learning about electricity.
Two curricula of introducing measurement uncertainties for high school students have been developed. The central design principle was “trustworthiness of experiments and data” following the GUM recommendations of Type-A and Type-B methods. A time-delayed post-test showed the long term acceptance of the key ideas.
SEK-1 starts with an experiment that leads them to measurement uncertainties. Sources for uncertainties and the trustworthiness are discussed and data is analysed by simple statistical means. In SEK-2, students first build a measuring instrument by themselves for introducing Type-B uncertainties. Both curricula together provide a complete introduction in how to deal with uncertainties of measurement.
UNI: Innovative strategies and pathways to improve physics education at university
An active-learning workshop is offered to provide an example of a collaborative group-learning pedagogical environment for introductory physics at the university level. Participants will engage in various hands-on and minds-on exercises to illustrate how such a dynamic classroom can transform the strategy for teaching physics in university classes. A discussion about the benefits and challenges of this innovative approach will help guide the participants in adopting this teaching methodology in their own physics classes. We are working to establish a network of pedagogical innovators among the participants so that this type of approach can be more widely disseminated.
DIG: Digital technologies in physics education
The current data-driven era is rapidly transforming the world around us, including physics education research (PER) and education. Modern statistical, data science, and artificial intelligence (AI) methodologies enhance data processing, analysis, and visualization, enabling optimal data-driven decision-making. As PER increasingly adopts advanced methods and tools, there is still a lack of full openness, which provides a unifying framework connecting research practices, methods, data, and code for everyone in the PER community. Our key aim is to share our experience with open data science, encouraging broader adoption within the field. We also underscore the potential benefits of data science and AI in helping teachers adopt more effective blended learning.
Our increasingly data-driven societies put pressure on the students’ skillsets while schools struggle to fit the demands of global digitalisation into their curricula. Promoting data-based literacy skills in the students’ upbringing requires their committed long-term application in meaningful contexts, in which open data from “the real world” of scientific experiments and governmental institutions serves a valuable purpose of increasing the authenticity of the learning experience. We present the case for educational use of open data and integrated programming in developing the students’ cross-disciplinary thinking and appreciation of data-analysis. Feedback from teachers and students between 2016-2023 has been very positive.
In this presentation we describe how we incorporated data analysis with Python in the first year laboratory course at the University of Potsdam. This transformation was implemented without considerably altering the course structure. We carefully designed Jupyter Notebooks with exercises and applied physics examples. We use these Notebooks to guide students through the fundamentals of data handling and analysis in Python while performing simple experiments. We present our approach and the developed materials. Finally, we discuss the effectiveness of our intervention based on quantitative empirical studies in the lab class.
Lab reports form an important part of learning experimental physics in undergraduate courses. Advances in natural language processing give us new tools that allow for the large-scale qualitative analysis of lab reports to understand how students demonstrate their skills and knowledge. Hence, we compare natural language processing techniques to understand whether it is possible to reliably extract information about student argumentation from lab reports on two different spectroscopy experiments. We find that the transformer model BERT results in the highest accuracy of $84\pm5\%$ and is the only model to show improved accuracy when analysing both experiments simultaneously.
This presentation describes the results of design and implementation of an educational laboratory on Old Quantum Theory (OQT), consisting of 5 afternoon meetings with 36 high-school students and 9 teachers, held in early 2023. The course was aimed to propose an approach to the OQT which is coherent, meaningful, and historically correct, without radically changing the physics contents, the mathematical formalism and the prerequisites actually used in Italy. A first evaluation of the activity’s effectiveness was assessed by means of questionnaires – comparing the answers obtained with those provided by an external sample – and individual interviews.
In this presentation we showcase a novel approach to interdisciplinary education in Responsible Research and Innovation (RRI), grounded in the field of Quantum Technologies (QT). We present the findings from a workshop undertaken with 40 PhD students, structured through the culturo-scientific storytelling. Using the interactive Quantum Decide Game, in which students debate the possible futures of a society enriched with QT, we demonstrate an original methodology for interactive design of educational material. By having participants grapple with deciding the future of QT, they are empowered with awareness of RRI, whilst simultaneously creating engaging storylines to engender the same in others.
Recent studies on astronomy teaching, considering the Brazilian context, have pointed out problems that make it impossible for students to learn. Among those, the area of teacher training stands out above all, and its real difficulties in developing the teaching of Astronomy. In this way, we seek in this paper to present a study developed in a Brazilian school about the implementation of a project aimed at the study of astronomical concepts for children. To do so, we start with theoretical-methodological assumptions and present some of the results obtained in the three-year period of the project.
Algebra has a special and fundamental feature in the teaching of kinematics. The study was conducted with high school teachers teaching physical science from different types of schools and with different backgrounds. An open-ended questionnaire was distributed to them, and they voluntarily participated in the study. The study investigated their perceptions of their pedagogy of teaching kinematics and whether their learners are able to use their prior knowledge of algebra to solve kinematics graphs. The teachers were adamant that the majority of their learners are unable to use prior knowledge of and skills learned in algebra to solve kinematics problems.
UNI: Innovative strategies and pathways to improve physics education at university
We present a characterization of undergraduate physics teachers' approaches to the pedagogy of derivations. Six teachers were interviewed and to analyze the data, we are developing an analytical framework, comprising three categories: Algorithmic approach b) Representational approach and c) Model building approach. Analysis shows evidence of cohering clusters of practices and value systems. Based on this, we characterize teachers’ approaches as leaning primarily towards one of the posited categories. This study is part of a larger project aimed at making the learning of derivations more meaningful and creating a smooth transition from physics derivations to computational modeling and machine learning.
The students’ difficulties around dialectical argumentation in Physics problem-solving tasks are studied through acoustic, interaction, and argumentative analyses. Our case study with teacher students shows that they struggle with their conceptual understanding – leading to uncertainty and therefore no debate – but also with the social norms of not challenging the other learners’ ideas. We will show rich descriptions of these conversations and offer suggestions to ease the found difficulties.
The development and trial of a laboratory exercise dealing with rotational motion using vector quantities such as angular momentum, torque, and moment of inertia have been evaluated through interviews with students. The lab consists of two parts, rolling cylinders down a slope, and exploring a rotating bicycle wheel. The second part allows the students to determine the wheel's moment of inertia in two ways. The results suggest that while the exercise works well as a learning opportunity for students who fluently use vector quantities, it needs to be revised for many students who cling to content learnt in high school.
INF: Informal learning and non-formal learning of physics
Increasing popularity of the escape rooms leads to using escape games in educational process. Attendants of the workshop will experience the game PhysLab Break – escape game designed for physics education. The game will be followed by discussion focused on potentials and obstacles of using escape games in physics education, and criteria for selecting physics tasks suitable for escape games.
UNI: Innovative strategies and pathways to improve physics education at university
The nature of concepts and conceptual understanding is discussed in relation to approaches to teaching which enhance conceptual understanding. The role of qualitative relationships, mental models, discussion, team work and the use of different kinds of representations are all discussed with reference to their use in scientific reasoning and, by extension, learning to reason in science. Participants will have the opportunity to put these ideas into practice by, first, explaining or discussing difficult concepts and then bringing the ideas together in the design of teaching sequences that emphasize the conceptual approach. Both university and school teachers are welcome.
Laboratory instruction in physics is often justified with the claim "physics is an experimental subject." While this claim is certainly true, we can make much better and--one hopes--more convincing arguments for laboratory instruction in physics. This discussion is particularly important for many reasons. Among the reasons is that students are often unclear on why they have to spend time in the lab and thus feel the time would be more optimally used doing other course activities. A convincing argument for why we include "labs" in our curriculum could be helpful in obtaining student buy-in. Another reason is that there is little hard evidence that laboratory work helps students understand the subject, at least to the extent that end-of-term exams measure understanding. Finally, in many educational institutions, labs are under budgetary pressure since they often require a larger investment in both equipment and time. In this talk, I will give my views on why hands-on experience in the lab is important and how laboratory work can be tuned to give students meaningful educational experiences in the laboratory.
Creating the conditions to foster the development of children’s scientific thinking in early childhood education services is a very stimulating cultural project based on the most recent psychological research findings. According to these findings, we present a brief theoretical overview of the reference framework we used to promote the growth of scientific thinking in some Italian kindergartens. We engaged a group of early childhood teachers and educators in a training program focusing on the theoretical framework and guiding them to involve children in educational activities to improve scientific thinking. An example of these activities is reported here.
Effective and high-quality science teaching involves complex practices that depend on teachers' professional knowledge. Researchers have investigated the nature of pedagogical content knowledge (PCK) predominantly in the in-service secondary school teachers’ context. This research project aims to investigate the PCK construct through video analysis focusing on pre-service primary teachers and examining one of the PCK components: teachers’ knowledge of students’ understanding. Fifty-nine participants, attending a degree programme in Primary Education, attempted two video-based tasks and their responses were analysed qualitatively. This study points out the need for primary teachers to extend learning opportunities to notice students' scientific thinking.
In Physics Education Research (PER), Hake’s learning gain is widely used to measure students’ improvements. As learning gain tries to emphasise students’ progression in learning, in the same manner, we used teaching gain to measure the trend in changing teaching practices. To define teaching gain, we referred to teachers’ development of new habits of mind and practices when they start to adopt the ISLE approach in their classrooms. We report the results from the analysis of case studies of eight Physics teachers involved in an in-service training program which guided them to reflect on and change their tasks of teaching.
Peer Instruction is an effective lecturing method in physics but introduces a high demand on student preparedness. Some of the existing methods of increasing student preparedness have problems concerning learning effectiveness, student usage, and alignment with knowledge needs. We made introductory videos to address these problems and used a survey and interviews to investigate its success. The findings indicate that the videos were helpful in increasing student learning during Peer Instruction and that students gradually became aware of this. This type of introductory video may elevate the struggling students especially, leveling the playing field during peer discussions.
SCH: Innovative strategies and pathways to improve physics education at school
Much research has shown that students’ misconceptions of radioactivity and ionizing radiation are common and have a significant impact on their learning process and their ability to act as responsible citizens. The use of MiniPIX cameras, based on the Timepix hybrid pixel detectors read out designed at CERN, is bringing experimental particle physics and radioactivity into secondary education. An analysis of the effectiveness of the MiniPIX as a learning tool to dispel these misconceptions is presented.
Motion simulation programs can be key components in learning mechanics due to their sandbox approach and intuitive use. In our research we focus on examining, whether students who use a motion simulation program while learning mechanics learn the curriculum more effectively. To measure this, we conducted an experiment that involved 700 students. The data shows, that the students who learned dynamics with the help of motion simulation software mastered the course material better than those who learned it in a traditional way. We also proved that this effect is especially significant for students from weaker and medium-strength schools.
This contribution reports the findings of a study with approximately 400 secondary school students in Germany. These students were introduced to a physics problem and had different opportunities to handle hypotheses, before analysing measurement data. First results indicate that if students have high data competencies, then the hypothesis does not influence students’ data-based conclusions. However, this is not the case if students have weak data competencies. Students’ confidence in their hypotheses does not seem to influence their data-based conclusions.
A central goal of PER is to improve the quality of physics instruction. Therefore, researchers develop and disseminate teaching-learning solutions, like course formats, teacher guides, or student materials to support teachers in practice. The paradigm of Design-Based-Research (DBR) is one framework used to develop such teaching-solutions systematically. DBR also aims to contribute to local theories about teaching-learning processes and to knowledge about how to design and implement these processes. Our project analyses DBR contributions to German-speaking PER-conferences of the last 20 years to shed light on the theory- and research-led design processes and theoretical and practical output of DBR projects.
Several research-based suggestions have been made on how concepts from particle physics can be taught to high school students. A frequently used subject-related representation within particle physics is the so-called Feynman diagram. However, very little is known about how this form of representation is perceived by students.
This project aims to design learning materials for 16-19-year-olds on Feynman diagrams so that they are conducive to learning concepts of elementary particle physics. We used an eye-tracking study to test the materials. The results give insights into the strategy development process of students when using this form of representation.
LAB: Lab work and experiments in physics education.
These days, teachers face an increasing challenge in motivating students, especially in physics. Classical experiments are often difficult to carry out with outdated experimental equipment and cannot compete with the stimulating environment. These circumstances have led to a significant change in the attitude of students towards physics. Increasingly popular, low-cost and widely available microcontrollers can be used to solve these problems in physics class. In this presentation, we aim to introduce some of our home-made experimental devices controlled by Arduino, which contribute to the action-oriented education of students, provide a deeper understanding of physical phenomena and improve their attitudes.
The contribution focuses on exploring upper secondary students’ intrinsic motivation and its predictors in relation to different student engagement in experimental activities. The data were collected via a questionnaire based on the Intrinsic Motivation Inventory and analysed using Welch’s one-way ANOVA. Three experimental activities were compared: (1) lecture demonstrations with low student engagement, (2) science show with higher student engagement and (3) students’ hands-on experimentation. Respondents’ perception of these activities is as follows: (1) lowest interest, lowest effort, medium value, (2) highest interest, medium effort, lowest value and (3) medium interest, highest effort, highest value.
The purpose of this activity is the measurement of the average speed of the comet C/2019 Y4 in the course of the observations of 2 April, made through SVAS. We provide 12 centered and aligned images of the same celestial field: the comet is visible in the foreground. The average speed will be measured in relation to a reference system attached to the observation point. In the course of the activity, we will also detect the trajectory of the comet in the interval of observation. Eventually, we will discuss limitations and approximations of the measurement made.
The Kibble balance is an instrument used for determining mass in the new definition of the SI system. The fact that this is a rather complex device may complicate students’ understanding of how the unit of mass is now defined. A simple model (showing just the “electromagnetic part” of the Kibble balance, not the relation of a kilogram to Planck's constant) can help understand the principle of this device. The paper will present the construction of such a simple model, show how to use it in both velocity and force modes, and discuss the results of measurements.
SCH: Innovative strategies and pathways to improve physics education at school
The workshop is an illustration for my plenary lecture, where the mode of working in professional learning community of in-service teachers in Ljubljana, Slovenia, within the STAMPEd project is also described. Here, the participants will carry out one of the activties developed in the project and discuss a plethory of possibilities for inquiry a very simple task offers when considered to more details.
REM: Teaching and Learning in remote and online environments
Is it possible to maintain elements of active learning for introductory university and secondary physics students working at home? I have adapted Interactive Lecture Demonstrations (ILDs) for home use, using the wealth of multimedia materials currently available (videos, simulations, photos, computer-based laboratory graphs, etc.) for experimental observations. While small-group discussions have not been included because of potential difficulties in implementation, these Home Adapted ILDs retain predictions as an essential element in engaging students in the learning process. Participants will have the opportunity to work with examples from the 26 sets that are available.
By teaching measurement uncertainties students in middle school should gain competences in critical thinking, conducting experiments and analysing results in a proper way. In the first author’s master thesis, a teaching concept for the beginning of natural science classes was developed and evaluated in a middle school in Vienna. The concept was evaluated and improved in three cycles using the design-based research method. Students are performing an experiment that leads them to measurement uncertainties. Sources for uncertainties and the trustworthiness of the experiment are discussed. Using simple methods of statistics such as the arithmetic mean, the experiment will be analysed.
In this research we intend to present Ausubel's Significant Learning (1980) as a central theme, linked to the construction of PET bottle rockets for teaching Newton's Third Law in a first-year high school class, with 32 students, from a public school in the state of Paraná, Brazil. Based on the empirical knowledge of the students on the subject, educational activities were planned and implemented with the aim of building reflection and generating learning of the physical concepts presented.
Prospective Primary Teachers (PPT) education requires activities to produce competence, crucially in producing conceptual change, from common sense ideas to a scientific vision of phenomena. Test -in/out and research-based proposals as formative tools seem useful to identify the learning knots of specific topics and to support professional development of PPT. An in-out test on electric phenomena was developed using the research outcomes on conceptual knots, administered to a group of PPT before and after a formative module. The learning gain of the formative module emerged in data analysis, offering guidelines for PPT pre-service education.
One of the basic concepts to understand several topics of optics is the reflexion of light. The design of experiment related to reflection of light contribute to understand the physics in a specific case the study and construction of a kaleidoscope is a funny, interesting and easy activity for the students in basic levels or high school. In this contribution we can understand the process of the construction and the analysis of the variety of patterns that will produces with every movement of the kaleidoscope. This experiment is one of a serie of experiment related with the topic.
The aim of this action research was to improve the mastery of pre-service science teachers in designing and implementing inquiry-based physics experiments. The implementation had three phases; i.theoretical information for inquiry, ii.implementation of teacher-prepared experiments, and iii.design and implementation of the participants’ own experiments. Data was gathered through reflection papers, self-evaluation forms, peer observations, and interviews. Pre-service science teachers had difficulty in deciding about the variables to control and manipulate while designing their own experiments. Peer observation and interviews revealed that the main reason behind the difficulties they have was the lack of content knowledge for teaching physics.
SCH: Innovative strategies and pathways to improve physics education at school
Learners tend to perceive electric circuits as abstract and uninteresting, and often fail to achieve a basic conceptual understanding. Therefore, we have developed a teaching concept for simple circuits with real-world contexts which is based on findings from research on students' interests and includes contexts that appeal to different interest types. Controlling for various covariates in an empirical evaluation, we find no significant differences between the conventionally taught group (n = 24 classes) and the context-based taught group (n = 11 classes) based on the preliminary data in terms of the development of conceptual understanding and affective variables.
As part of the AT-NE-ST project, which aims to bring children closer to complexity and sensors, we designed and tested an educational path for middle schools concerning the development of the concepts of heat and temperature. It is based on a narrative approach and the exploitation of basic mental schemes. A series of measurements are carried out using appropriate sensors on model buildings in which parameters can be varied. Results show that pupils are able to describe these experiments, but still struggle when it comes to developing a coherent abstract model for even the simplest thermal phenomena.
The advancement of space exploration is an important socio-scientific and political issue in Sweden. This study attempts to understand secondary school students’ awareness about this national “space ethos” and roles of space technology in their everyday life. Methodologically, this research draws on a sociocultural framework and examines the reflections of 69 grade 9 students in a questionnaire about space exploration consisting of a total of nine multiple choice, short answers and open questions. Students shared awareness and high expectations about space contribution to monitoring climate and environmental problems, providing satnav and telecommunication services, but showed limited understanding about satellite technology.
Electrical concepts are difficult to grasp for secondary school students. According to multimedia learning theories, multimedia technology can be used to support the learning of didactic models and the collection of data in experiments. A study was conducted with 200 secondary school students, investigating the effects of using multimedia applications on students’ conceptual knowledge gain and experienced cognitive load while learning. The multimedia applications used are an Augmented Reality (AR)-Application and a Simulation. This contribution presents the design, method and material of the student lab study and shares early results of the currently ongoing study.
Assessment plays an important role in teaching and learning. Within the assessment, teachers and students interact to obtain the information needed to improve learning. As the learning can be supported by the quality assessment, the survey was conducted at the lower and upper-secondary schools to investigate the assessment and feedback students were given. The paper describes the results of the preliminary survey on the students’ perceptions of the assessment in physics lessons and compared them to the teachers’ ideas about how the students experience the assessment. The results will be used to conduct deeper research into the topic.
INT: Interdisciplinary approaches and physics in STEM education
This study examines students' conceptions about the greenhouse effect using multiple-choice questions and analyses student’s answers from two perspectives: the "knowledge as theory" and "knowledge in pieces" perspectives. The former emphasizes coherence and stability, while the latter highlights context-dependency and fragmentation. Findings reveal that 30% of the 501 German A-level students chose an answer based on a reflection-based misconception, which correlated with other misconceptions concerning the greenhouse effect and increased in likelihood by holding those misconceptions. The study suggests that both perspectives may have validity, but coherence in students' ideas is less often present than it is.
The project “FisicaMente al Liceo” aims at strengthening students’ mathematization skills and their understanding of physics. After a trial in a pilot school, in 2022 we started an experimentation with twelve teachers belonging to five high schools in the network of the “Licei Matematici” in our region in Italy. The creation of a community of practice of teachers allowed co-designing pathways to enhance mathematics-to-physics transfer and representational fluency. In this way, teachers are contributing to increasing data on the effectiveness of the FisicaMente al Liceo project and to improving it, extending its applicability.
We present a project called ATENA – Asiago Teachers’ Network on Astrophysics. Based on authentic collaboration and action research, a teacher learning community was set up around the common research question of how Astronomy can be integrated into the secondary school curriculum to foster a coherent comprehension of the physics of the Universe. Four physics topics across the different grades were selected, and teaching-learning sequences informed by Physics and Astronomy Education Research were collaboratively developed. The experimentation of the teaching-learning sequences is ongoing and will be the basis for the development of pathways to be shared with more schools.
The talk presents the central elements of and thoughts behind the two-day student laboratory Labs4Future. This extracurricular offer for 15-year-old high school students tries to manage the linking of knowledge about climate change with effective individual and societal action. Based on a newly developed theoretical framework Lessons4Future, which integrates environmental psychology, sociology and science education, the talk showcases how we try to transfer the theory into experiments and activities.
Among the presented elements are the Carbon Credits, an area visualization of daily personal and societal emissions, and a Mystery that addresses responsibility for the problem and solutions of climate change.
PTE: Physics teacher education and professional learning communities
Elixir to Schools started 10 years ago as a project aimed at improving physics education in the Czech Republic. Five years later it became an independent non-profit organisation. Nowadays it organizes more than 50 regional centres in the whole country for teachers of mainly physics and computer science but also from primary schools and kindergartens. Currently, over 3,000 teachers are involved in Elixir to Schools. The paper will describe support provided to leaders of the centres, annual conferences of Elixir and specific experience from the project as well as teachers' feedback gathered through the annual evaluation.
In this paper we focus on education aimed at developing students' skills and competencies by building scientific literacy, which requires teachers to implement innovative teaching methods. Digital technologies and the wide availability of information make it possible to combine formal education with self-study at home. We strive for teachers to gain a personal conviction in the suitability and effectiveness of blended learning and to gain confidence in its implementation. We present a mapping of the current state of teachers' attitudes towards the introduction of innovative teaching methods and the needs for their connection to the learning environment.
Argumentation in solving physics problems is among the important aspects of teaching that contribute to the development of the students´ personality. In the paper we gave a definition of argumentation in teaching of physics, and criteria for evaluating students’ responses in terms of argumentation. As part of the research, we dealt with argumentation of students in solving physics problems in terms of the number of years of experience of their teachers. We found that students of more experienced teachers were not more successful in solving tasks focused on argumentation.
We present the results of our research on the teachers’ ability to interpret student explanations and respond to them effectively. Students were solving a non-traditional problem involving momentum and energy. Teachers took the survey that contained the text of the problem and students’ written explanations of their answer choice. Teachers were asked to comment on the student’s strengths/weaknesses, and describe their hypothetical response to the student. To analyse teachers’ responses, we used the Tasks of Teaching from the content knowledge for teaching energy (CKT-E) framework.
SCH: Innovative strategies and pathways to improve physics education at school
ARPHYMEDES Erasmus Project Educational Tool
for Increasing Attractivity of Learning Physics Using Augmented Reality and 3D Models
As long as physics has been taught at elementary and secondary schools, it has been one of the least preferred subjects of students. In general students have perception that physics involves complex concepts, the resulting insights of which they do not understand, and this makes solving problems for them a challenge. This sets the students on a path of failure, keeping them away from this subject. To avoid this path, we can make physics more accessible also with the use of IT technology.
Our group, in Athens and Thessaloniki, is researching issues related to the interconnection between Physics and society. We are also aiming at operating regularly the corresponding GIREP Thematic Group. Therefore, we call for such a Workshop Discussion, within the GIREP 2023 Conference. There, contributors who are interested in this field are asked to share their ideas, results, as well as to propose relative initiatives in the Context of GIREP. The outcomes of this Discussion Workshop would be of importance, we believe, towards the crucial scope of relating Physics’ instruction to social issues and social problems, in all levels of education.
Single-particle entanglement requires at least two degrees of freedom for the particle that is used to make a nonfactorizable superposition. Using a two-slit experiment with horizontal and vertical polarizers over each slit, respectively, we illustrate how one measures at the slits to create an entangled state, followed by a delayed-choice placement of a second polarizer (before the photons hit the screen) to control the particle-like, or wave-like nature of the final observed pattern. This approach is used to teach (both non-scientists and undergraduates) the subtleties of entanglement and how delayed-choice experiments actually work.
In Europe, there is a strong push for the development of an industry around Quantum Technologies (QT). To this end, it is crucial to develop a workforce consisting not only of Physicists, but also those able to create and market companies and products: engineers and businesspeople. We report on a novel course designed using the Quantum Competence Framework to provide transparency between learning outcomes and job requirements. We demonstrate how an interactive visualisation tool, the Quantum Composer, can be used to provide accessible education for both the Physics and non-Physics demographic, those who will compose the future Quantum industry.
This work summarizes a project-based learning experience around electricity and magnetism at the university level. The challenge for students was to build a mechanical balance with the capacity of measure the mass of different objects using a relationship between voltage and mass without using a microprocessor. The typical solution of this project must be relied on mechanical and electromagnetic calculations and experimental tests to verify the data. The balance prototype was built using a solenoid enable to generate a magnetic force at one end of the balance arm, while the mass to be measured is placed on the other arm.
INF: Informal learning and non-formal learning of physics
We present a study of colloquial knowledge in understanding concepts in the field of thermodynamics.The TCE test was adapted to local specificities [1]. Approximately 400 people were surveyed. The aim of the study was to find out how the understanding of concepts: heat, temperature and energy evolve with the age of the respondents, and whether education significantly changes the perception of these concepts. The conclusions we were able to draw from the collected results, when compared with publications and research in other countries, may have a impact on how we should structure the didactic process in our education system.
Quantum boom has brought quantum physics to everyday life, e.g., to movies or newspaper articles. But do Finnish university students with different majors notice it? Here, we explore their perceptions about the presence of quantum physics in their lives (past), its importance (present), and a possible interest to study it (future). We find that noticing the word “quantum” in their free time and considering quantum physics being relevant to society and everyday life is independent of study major. In addition, if study credits can be provided, students express interest in studying different topics related to QP.
Covering the most exciting results that push the limits of our knowledge about the Universe is a challenge for school education. Several complications hinder the direct implementation of such content into school curricula. This gap can be bridged by outreach activities. We report on outreach activities in particle physics that are organised in the Czech Republic and Slovakia, most notably the International Particle Physics Masterclasses, coordinated globally by the International Particle Physics Outreach Group (IPPOG). Based on surveys that we have collected over several years of Masterclasses, we examined their long-term impact on the participants.
LAB: Lab work and experiments in physics education.
According to researchers in the Nature of Science (NoS), it is desirable that students are directly exposed to the process of building of scientific knowledge, in particular concerning the role of models and theories. In this contribution, a few experimental activities, aimed at explicitly showing several aspects of the role of models in science, are described. In order to set the stage, the role of models and theories in science is reviewed, and the views of both experienced researchers and non-experts are investigated and compared.
We offer a workshop for high school physics teachers to share good practices of using Arduino for teaching electromagnetism. Arduino-based classroom experimentation gives the opportunity to students to work in groups and conduct experiments with the application of modern devices. It involves students completely in the work processes and in their own learning processes, and develops those skills and competences that are essential for a successful member of the society. The method and the project-based lesson plan we will share with colleagues encourage students to participate actively in classes and acquire practical knowledge by observing, measuring and analysing different phenomena.
Extended reality (XR) technology blends the physical and virtual worlds, and has significant potential to transform education. Augmented and virtual reality (AR and VR) provide an interactive learning experience that allows students to visualize and explore complex concepts. AR technology is particularly useful for physics as it can provide an immersive and interactive learning experience, making the invisible visible. This proof-of-principle project developed AR simulations for a virtual optical table and introductory electromagnetism. The simulations were evaluated by undergraduate students and academic staff members who found the tools to provide an engaging and immersive learning experience with great potential.
We present a new kit designed to perform an educational study of several common devices that exhibit opto-electronic phenomena: LEDs, solar cells, photodiodes.
The Devices Under Test (DUT) are studied using a cheap datalogger, controlled by a common smartphone, and a board with plugs (where the DUTs may be mounted) and potentiometers that allow to obtain characteristic I-V curves and other interesting graphs.
The kit fosters the students to measure the energy conversion of sustainable devices, such as photovoltaic panels and LED illumination, at miniature scale, allowing to introduce them to the working principles of widespread renewable energy technologies as well as to teach fundamental principles in a new way. Our experimental set up is also designed to enhance digital skills and competences while experimenting with physics.
DIG: Digital technologies in physics education
This workshop aims to make participants familiar with the power of tools like Measurement with sensors, video measurement and modelling (computational science) to enable more realistic and challenging Physics Education. With these tools students can experience the Modelling Cycle and carry-out authentic projects. The Coach Authoring and Learning environment is unique because it offers these tools in one environment, enabling combining these tools and making the learning curve for as well teachers as students very efficient. A number of projects will be introduced to inspire participants who will receive a free 1-year license and these examples to continue the experience.
This talk will explore a diverse set of trajectories into higher education physics, zooming in on what has made physics studies possible for minoritised students. In doing so, mechanisms of in/exclusion will be highlighted, with a focus on how gender and social class are made relevant in students’ stories about their trajectories to higher education physics. The talk will also zoom out to explore how cultural traits of the discipline of physics contribute to in/exclusion of students, demonstrating how an analytical perspective focused on gender, identity, and culture can nuance and deepen the understanding of students’ physics learning experiences.
Plenary lecture;
Marked as oral presentation.
It was impossible to choose the target level, as the content extends from lower secondary to university level and in service teachers.
UNI: Innovative strategies and pathways to improve physics education at university
Students’ being active in their approach to learning and learning from each other has been shown to lead to good learning outcomes. Several approaches use multiple-choice questions (MCQs) to achieve this. However, the discussions often proceed in ways unanticipated by the teacher, and we still do not understand how these discussions work in many contexts. Therefore, we videotaped discussions between students in a third-semester intermediate mechanics course while they answered MCQs and studied what happened when they got feedback that they answered incorrectly and had to try again.
Radio waves are essential part of communication technologies as well as basic physics education. Understanding electromagnetic waves requires skills in mathematics and knowledge of the phenomena. Still, data from radio technology may pleasantly surprise an inexperienced or mainly solution-oriented student. The research considers the effect of two different teaching approaches at BA-level. We observed the relationship between the formalism of physics according to didactics and engineering-like solution-oriented pragmatism. This study presents empirical observations on how the parallelism of contents can be managed with exercises.
. As the COVID-19 pandemic spread through the world, universities switched overnight from in-person to remote teaching and learning. This immediate switch to remote teaching caused a negative impact on laboratory components of physics courses. Remote laboratory delivery illustrated the widespread need for high quality virtual science laboratory resources and served as the catalyst for developing new approaches and methods. Today it is clear that effective materials developed for remote laboratories during the pandemic will continue to support post-COVID teaching and learning. This presentation will focus on some successful approaches to online, remote undergraduate physics lab offerings.
Continuous Professional Development (CPD) of school teachers is promoted worldwide and broadly researched. At the same time, academic teachers’ CPD is rarely addressed. Usually, science faculty members prove themselves to be high-level researchers, but at the same time, their interpersonal skills, pedagogical knowledge, and attitude of self-reflection on teaching are very limited. To address these issues, we designed the course Introduction to Academic Didactics for first-year PhDs. The results of the course development as well as students’ engagement and their perception of the current teaching formats, and their view of necessary changes, will be reported in a case study.
SCH: Innovative strategies and pathways to improve physics education at school
Despite its relevance in secondary science education, measurement uncertainty is a topic that is largely neglected in classroom practice and for which hardly any suitable (evaluated) teaching material exists. Consequently, it is a topic that many students have conceptual difficulties with. To investigate how this topic can be introduced, we developed a digital learning environment and report on its evaluation with 154 students from grade levels 8 to 11.
The research focuses on the effectiveness of classical dynamics teaching methods. A group working with a frontal teaching method was compared with two groups working with a learning activity-based method, one of which used a model rocket project to learn the subject. We investigated whether there were differences between the groups in the occurrence of conceptual changes related to dynamics and the impact on students' attitudes towards physics and their career choice plans.
Nowadays in teaching physics in high school, one of the biggest problems is attracting and maintaining students' attention. Gamification can be a very easy and exciting way to get students involved in the class. In my research, I used an RPG (role-playing game) based online platform (Classcraft), where the students can have their own character that they can personalize and level up as they receive XP (experience points) if they turn in assignments or participate in class. This platform has several tools too to gamify each lesson. At the end of the chapter, I compared their results.
IDE: Students’ identity, inclusion and wellbeing in physics learning
Physics education research has shown that attitudes and beliefs influence students' in-class performance. The study examined changes in undergraduate molecular biology and genetics (MBG) students' attitudes toward physics before and after their introductory physics course. A total of 24 first-year MBGE students (Female:18, Male:6) enrolled in the General Physics I course during the Fall Semester of 2019-2020 participated in the study. This study's findings indicate positive and negative changes in certain sub-dimensions of attitudes toward physics. Nevertheless, the current practices in introductory physics courses are not generally effective in positively changing life science students' attitudes.
Traditional ways of teaching and learning Physics are usually led only by teachers. Students study historical discoveries. There is almost no space for creativity and interaction among students. How is it possible to raise a new generation of inventors and innovators that are able to work collaboratively, as they will be expected to do in the future society? This is the story of a high school STEM program run collaboratively with MIT Edgerton Center. Students are actively engaged in their learning process by creating, researching, designing, building collaboratively with peers their own STEM projects and by developing lifelong learning skills.
CMP: Contemporary physics and modern physics at school
One of the central features of quantum mechanics is entanglement. It is crucial for understanding the theory, and its applications, especially in quantum technologies. At the 2023 GIREP meeting, an activity of the GTG "Teaching and learning in quantum physics" will address questions about this fundamental principle. The workshop organizers have invited interested parties to participate with their contribution to shed light on the specific challenges and solutions to address this aspect of quantum mechanics.
PTE: Physics teacher education and professional learning communities
Abstract. The International Handbook of Physics Education Research is a comprehensive review of the literature that spans learning, teaching and special topics, such as research methodology. The IHPER is the first such resource for the field and is intended to serve newcomers, as well as established researchers entering new areas. The development of the Handbook also served as an opportunity for contributors to reflect on major themes, to develop new insights, and to speculate about the future. In this session, contributors will discuss the process of preparing chapters, as well as major findings and notable gaps in the literature.
It is a challenge to engage and develop the talents of lower secondary school students who have minimal knowledge of physics but are interested in why and how the world around them works. By making physical toys and conducting simple experiments with readily available materials, students are introduced to selected physical phenomena through play. In the physics club, we discuss physical principle and look for answers to curious questions. A great advantage for the pupils is that they can present their own toys and explain their physical nature to their parents and siblings. Every year, new exhibits are added to the physics club gallery, which motivates the followers.
An annual STEM career information day, organized by students for their classmates, was transformed into a digital congress format during the Corona pandemic. The face-to-face presentations were replaced by video conferences using the school’s digital platforms. This subsequently allowed to invite foreign speakers, a German YouTube influencer as well as several HGV alumni, who shared their experiences from their first semesters at University. In the contribution we will give an overview of the activities of our Humboldt Academy for Science and Engineering course and show in particular the procedure of our digital STEM career information day.
Our aim is to showcase the creation of inquiry-based experiment units used in laboratory environment. These units are focused on qualitative and quantitative optics experiments for upper secondary students. Worksheets guiding the students through each unit were created and tested several times to ensure quality using students’ feedback. This contribution presents these worksheets for experimental sets in Interactive Physics Laboratory operated by the Faculty of Mathematics and Physics, Charles University as well as review of worksheets based on students’ feedback.
Abstract. In the contribution we present i-learning materials for physics aimed at pupils in primary school. The material takes into account the guidelines for creating i-learning materials and recommendations for accessibility for pupils with special educational needs. Also, the results of the evaluation of the i-learning material on a group of pupils will be added and suggestions for optimization will be given.
The understanding of the anthropic greenhouse effect (GHE) rests on two key concepts, namely thermal emission and the interaction of different kinds of electromagnetic radiation with different kinds of matter. A survey of the existing Physics Education research concerning the GHE and climate change shows that students have in general a poor understanding of such concepts. In this work, we present some experiments designed to foster their learning. We shall moreover show how the learning outcomes of the students have improved after the incorporation of these experiments in a pre-existing teaching-learning sequence focused on the physical bases of the GHE.
In the last years, the use of smartphones as laboratory tools for school physics experiments has received attention for the possibility of carrying out a wide variety of didactic experiences with low-cost experimental equipment. In this contribution, we describe an experimental activity that can be carried out by using smartphones to investigate the oscillations of a damped oscillator made of an elastic rubber loop and a mass. This system allows one to obtain information on the viscoelastic properties of the rubber material.
In the field of education, in addition to the evaluation of the learning process, the examination of the effectiveness of teaching plays an important role. Teachers are often hopeless to see what prior knowledge and competencies the student is coming from and thus what the ideal developmental task is in the given lesson. In this research topic, our goal is to create a computer program that can learn what practice task a student should solve for the most optimal development based on his/her knowledge and competencies.
Introduction
The spreadsheet is widely used in practice, not excluding the teaching of physics. One of the possibilities is to use it in the experimental activity of pupils. The aim of the paper is to show how to use quantitative simulated experiments created in a spreadsheet during the teaching of periodic motion at secondary school. Quantitative simulations make it possible to explore periodic phenomena from a different perspective and to analyze events with changed input conditions through graphs.
In recent years, the use of STEM educational methodology in the classroom has been increasingly promoted, but due to the heterogeneity of approaches and the lack of knowledge on the part of teachers, it is necessary to accompany this process through the design and implementation of research-based STEM projects. This study presents the design of a STEM project for secondary school that integrates the disciplines of physics and robotics with a PBL approach and its implementation and evaluation with future secondary school trainee teachers.
Fidget spinner is a cheap toy which can be used as a teaching tool to demonstrate rotational motion. The goal of our study is to present simple fidget spinner experiment and a Java applet developed for theoretical investigation of the problem.
The Olmicomics is a laboratory designed for the last year of lower secondary school. The students are challenged in representing the linear distances within of the Solar System, using a purely numeric one and some simple material as a long string and some pegs. At the end of the laboratory, we provide also a visual for comparison. The mixing of abstract and concrete reasoning results in a series of interesting methods to solve the posed questions. This activity allows them to take a step forward in their awareness of complex concepts as approximation, error, precision and simplicity.
The paper aims to show one of the possibilities of how simple devices based on microcontrollers and inexpensive electronic components can be used in the framework of pupils' exploration of the thematic unit of Periodic Motion. The experimental set-up designed at the authors' workplace has a modular design and contains a digital oscilloscope supplemented with suitable sensors. An optional component is the Arduino microcontroller used for direct digital sound synthesis and a function signal generator XR2206. The kit will be used at the authors' workplace in the framework of further education of teachers in the implementation of inquiry-based experiments.
The STEAM-ACTIVE project (KA2-Erasmus+) aims to contribute to higher education innovation to train university students to produce meaningful learning, and to develop multiple competencies according to an interdisciplinary approach to solve socio-scientific-technical problems. As a result, a Protocol has been developed for Teachers to illustrate the STEAM project design methodology framework with active teaching methodologies, part of the project presented in this work. Moreover, an E-learning-based training course for engineering teachers is been designed. As a final result, a collection of STEAM-based Teaching-Learning Sequences (TLS) will be designed.
The COVID pandemic presented public education with overwhelming challenges but also unprecedented opportunities. Online educational platforms came to the forefront, they offered alternative methods to convey traditional teaching materials to students. In this work we present, experiments aimed at understanding wave propagation phenomena, which can also be performed in an online setting. Using the digital version of the infinite mirror effect, with the active involvement of experimenting students, we demonstrate that the infrastructure built for teleconferences is excellent for demonstrating concepts such as period time and face shift in the online classroom.
The article is devoted to the investigation of impact of the non-formal physics related activities on the target group of Lower and Upper-Secondary school students. Research was conducted on the basis of physics competitions, that run in Slovakia during the period 2022 – 2023 with the application of the questionnaires based on the Informal Education and Outreach Framework.
The development of scientific thinking is one of the objectives that is established through the teaching of Natural Sciences and Technology, during elementary education in Mexico. The objective of this study is to analyze the relationship between the use of experimental activities related to the optical phenomena of reflection and refraction of light as a didactic resource to promote the development of scientific thinking. The method is based on design-based research, carried out in three phases: a) preliminary research, b) prototype design, and c) prototype evaluation. The participants were 60 students from 8 to 10 years old.
In this contribution, we focus on physics play as a stimulus for experimental activity. Games and physical ones are already a common part of teaching. We conducted a survey in which we observed classrooms using a physics game we created and a standard-assigned experiment to judge whether the physics game is a suitable stimulus for experimental activity. The survey showed that the physics game is a suitable stimulus, even if the implementation of experiments without a procedure is difficult for the pupils.
The biggest challenge for teachers nowadays is to raise students’ motivation for learning. In this contribution the novel technology, augmented reality (AR), in teaching physics will be presented. In the workshop participants will be actively engaged, testing teaching materials from teachers' perspective. Materials including AR has been previously tested among pupils, students and teachers within the Arphymedes project. The results will be discussed and compared with impressions of workshop participants. which were developed during the Erasmus project ARphymedes.
Over a decade International Particle Physics Outreach Group (IPPOG) has been offering to scientific community, teachers and educators an online collection of high-quality engaging education and outreach materials in particle physics (PP) and related sciences, the Resource Database (RDB). After major revamp and curation a brand new RDB has been published as part of the newly developed IPPOG website, more open to students, teachers and general public. New RDB aims to offer a primary source of PP outreach material bringing PP closer to society. Important part “Talking to Society” helps to build bridge between science and society and its challenges.
We present a preservice teacher development program called Virtual School, which was established at our university in Italy on the model of an Australian partner experience. Within the framework of a virtual community of practice, participants co-designed and co-taught online physics classes for secondary school students. The program entailed opportunities for reflection and feedback from different perspectives, and the design of lesson cycles was informed by physics education research. We describe the impact of the program in terms of the ways pre-service physics teachers conceptualize themselves, and we discuss possible evolutions of the experience and implications for initial teacher education.
CMP: Contemporary physics and modern physics at school
We present an overview of demonstration material used in quantum physics education. Our study categorises over 400 articles, covering experiments and demonstrations for quantum education from 1970 to now. Common research questions or goals of studies on demonstration material are identified, together with the number of studies per quantum physics topic. We share insights from studies regarding the use of demonstration materials to teach quantum physics to secondary school and undergraduate students and share considerations reported in these studies. Understanding choices and considerations made in previous studies can contribute to the development of new demonstration materials for quantum physics.
This study examines the conceptual understanding of the scientific principles of climate change of German A-level students using the CCCI-422 climate change concept inventory. The sample under investigation consists of 501 A-level students of five German upper-level secondary schools (Gymnasium) representing the complete A-level student body in their schools. Results show that the CCCI-422 seems difficult for the A-level students, because less than half the items were answered correctly. Alternative conceptions known from literature (e.g. ozone hole explanation) can be approved with this instrument and this sample. The self-assessment drops from pre to post strongly and becomes more realistic.
Wave-particle duality is included in many high school physics curricula as a concept central to quantum physics. However, whether wave-particle duality can be taught effectively depends on the students’ notions of the classical concepts of waves and particles and the ability to apply these concepts in modelling the physical world. Using a questionnaire on these concepts, we investigate the development of the mental models of waves and particles from novice to expert. The outline of this study as well as the results will be presented at the GIREP conference.
One of the key points for understanding quantum physics is the measuring process. In the context of modern approaches to quantum physics via two-state systems, the question of tools for assessing students’ understanding and identifying learning difficulties in quantum physics arises anew. As a first step towards a comprehensive concept inventory, a questionnaire to inquire the student’s perspective and reasoning about the measurement process as a key concept in quantum physics is developed and presented. This contribution will describe first results of its evaluation.
SCH: Innovative strategies and pathways to improve physics education at school
This study aimed to investigate the practices, and perspectives of in-service elementary and middle school teachers in Italy (N=74) and Turkey (N=56) regarding the properties of matter. A new questionnaire was created and used to collect data. Results showed that teachers in both countries mainly focused on the temperature in change of state. Their least concern was on magnetic susceptibility and latent heat. In teaching Turkish teachers preferred giving examples, while Italian teachers preferred argumentation. The Likert-type questionnaire showed that Turkish teachers had a higher average score than Italian teachers on both their opinions and practices regarding teaching the subject.
Scientific education needs to be started early, with explorative experiences of the physical world. This contribution presents the implementation of a Teaching Intervention Module (TIM) on magnetic phenomena, using integrated strategies of active learning and arts. A theatrical performance is designed, prepared and implemented by children, during and for their own learning of the main basic concepts on the magnetic phenomena, explored by an Inquiry Based Learning approach. This research, with 12 4th-5th grade children, uses in/out tests, tutorials and an observation grid to guide and monitor the children’s learning through both the scientific inquiry and the theatrical activities.
Elixir to Schools started ten years ago as a project aimed at improving physics education in the Czech Republic. It soon became apparent that it was sensible to support teachers from the primary school, and over time the support was extended to preschool teachers as well. Therefore, for the last five years, Elixir to schools has also targeted these teachers. This contribution has two main aims. To introduce the structure of support Elixir offers to the teachers of the young children and to present in details some of the physics activities used.
As a school-university collaboration, the Eszterhazy University Eger in Hungary has launched the Physics from the suitcase project in 2019, i.e. it established a lending library of classroom-sized experimental kits. Pre-service teachers designed inquiry-based activity sheets for the optics and the electricity kits, covering 12-14 weeks of teaching. The two, one-semester-long modules have been implemented among 7’th and 8’th graders in two controlled pilot experiments that demonstrated significant enhancement of the students’ content knowledge, progressively improving inquiry skills, and a more positive study attitude in the members of the experimental group.
This symposium addresses four aspects of Physics education research from Latin American perspective. Research outcomes, experiences and projects that are representative from the diverse lines of work in this multicultural region are presented here. The use of digital technologies, the critical challenges for the social and historical curricular design, the promotion of community participation and some training experiences of in-service teachers are presented and reflected in this work. In this way, this symposium will offer a clear vision of the efforts linked to the research and development of Physics education which are being made in this region of the world.
INT: Interdisciplinary approaches and physics in STEM education
Interest of youth in physics and engineering is declining, even though new generation of specialists is needed to ensure the continuation of cutting-edge research, primordial for innovation, economic progress and sustainable development (SD) [ ]. While SD becomes ever more popular and even obligatory subject in schools, because of lack of teaching resources compatible with curriculum, high-school students situate SD outside of physics / STEM. Workshop aims to invite different stakeholders from science / academia, physics education and industry to brainstorm on how to tackle the issue of bridging the gap between science education and SD in the classroom.
PTE: Physics teacher education and professional learning communities
In this interactive workshop, participants will experience physics card games ("Phys-Cards") designed as a summative activity to help students organize what they have learned and make connections between externally different scenarios and underlying physics principles. The Phys-Card games have been implemented in a national network of Professional Learning Communities (PLCs) for high school physics teachers (~300 teachers). The design principles, pedagogical rationale, benefits, and potential challenges will be discussed. We will share results from two years of experience with Phys-Card games in the PLCs and in teachers' classrooms, as well as insights into teachers' attitudes toward gamification in physics instruction.
Starting November 2022, Physical Review Physics Education Research, the flagship journal in physics education research community, has announced the establishment of a Statistical Modeling Review Committee to assess the quality of statistical modeling techniques in submitted papers. The establishment of this committee reflects the increasing number of submissions that exploit techniques such as structural equation modeling, linear regression and Rasch analysis. While the declared aim of this committee is to relieve the reviewers’ burden to delve into technical details of papers, it also clearly signals that the physics education research community is increasingly acknowledging the need to support its claims through suitable quantitative methods, going beyond the old-fashioned motto Education is not Measurement. In the first part of this talk, I will briefly review the main statistical techniques used nowadays in physics education research and call for a better interaction with the statistical and educational psychology communities. Lack of such an integration, I will argue, is the main impediment to finding consensus about the obtained results even within the physics education research community itself. In the second part of the talk, I will try to envisage possible new research avenues for physics education research building on the possibilities offered by advanced statistical methods.
The present communication aims at proving the benefit of an open inquiry approach of physics instruction for college students, as compared to traditional lecture-based teaching strategies. The challenges presented by the emergence of Artificial Intelligence, are major societal issues to the academic culture. We propose to demonstrate that higher levels of thinking abilities can be achieved by “driving” the students to personally experience the world and struggle for finding solutions to real problems. We have proven it can be done by involving them in highly interesting learning projects and strongly motivating them to actively participate in the scientific endeavour.
We present a possible route to introduce the key concepts of quantum superposition and entanglement to secondary school students and to the general public avoiding mathematical difficulties. Our narrative is based on the description of key experimental findings, starting from Stern-Gerlach and Feynman double-slit experiments to the experimental proof of the violation of Bell’s inequalities by 2022 Nobel prize winners. Furthermore, we exploit carefully chosen analogies and custom-made models to help visualisation and understanding. The narrative and the models have been successfully exploited in a public exhibition.
Visualizing multi-qubit systems is challenging due to their high complexity. We present the dimensional circle notation (DCN) as an extension of the so-called circle notation that is used in introductory quantum computing courses to reduce mathematical hurdles. By doing so, we reveal entanglement properties of such systems and make measurements and unitary operations in multi-qubit systems more intuitive. DCN can therefore be used in education and research alike. In this workshop, we discuss the possibilities and limitations of DCN as compared to other visualizations and show how to use our publicly available DCN python/web-tool.
Teaching and learning Quantum Mechanics in secondary school is a unique challenge, at once requiring creativity, experimental, and mathematical literacies. Educating students to quantum science and technologies can therefore also be an opportunity to empower them with new ways of thinking, and the skills needed to navigate uncertain futures. However, engaging storytelling and interactive tools are required to complement or substitute limited experimental and mathematical competences. Here we present a didactic experiment offered to secondary-school students accompanied by their teachers which uses the interactive art-science installation Quantum Jungle within the Culturo-Scientific Storytelling framework, offering a model for fellow educators.
In this work we report on the results of the first refinement cycle of a teaching learning sequence based on the educational reconstruction of quantum information and computation at the level of secondary school. The results will serve as the base for refinements and improvements of the sequence, in view of a new testing cycle bound to start in late spring 2023.
Active learning experiences can be significantly enhanced by the use of appropriate methods and technological tools. Interactive videos, collaborative learning platforms, interactive simulations, real-time data collection and analysis tools, modeling environments, adaptive learning technologies, and learning management systems are all examples of tools that can promote engagement, collaboration, and personalized learning. By incorporating these tools into their teaching, educators can create more engaging and effective learning experiences for their students. In this symposium, the use of some of the aforementioned tools in an active-learning environment and the necessary planning of pedagogical activities based on them will be discussed.
Although nowadays sciences are viewed by most people to be extremely important for society, their human, profound aspect – the one that allows touching, in a way similar to Art, the strings of the human soul – is still missing. Sciences are, in fact, deemed mainly for their utilitarian aspects. If we want science, and more specifically physics, to be truly considered cultural heritage of humanity in its most general sense, we must bring a deep, cultural vision of physics to all school levels, starting with university, highlighting connections and promoting synergies with other areas of human knowledge.
This symposium is proposed by the GIREP Thematic Group “Physics Preparation of Teachers in Grades K-6” and consists of a discussion on physics education in kindergarten from two interlaced perspectives: children teaching/learning and teacher training in physics. The three contributions suggest ideas to start a discussion on these challenging and multifaceted topics in view of the identification of innovative ways of teaching and learning physics in kindergarten.
CMP: Contemporary physics and modern physics at school
In this research, we focus on undergraduate physics students’ hybrid views in two specific cross-cutting concepts in quantum physics, namely, wave function and measurement, and examined them in an international context, Italy and Türkiye. Our results indicate a weak association with the country of origin, whereas hybrid views are independent of the targeted concepts.
One amazing characteristics of quantum algorithms is how they can deliver results with 100% certainty despite their structure being based on the probabilistic interpretation of quantum mechanics. This type of algorithm requires a different way of thinking and sets a challenge for science educators. Two routines to emulate quantum cryptography protocols (BB84 and EK91) are proposed in this work. The educational procedure uses a tool we have developed and called MACROBIT as a mean to mimic algorithms of quantum key distribution. The MACROBITS are useful to illustrate quantum mechanics concepts such as superposition, change of basis, quantum measurements and entanglement.
There is an effort on introducing quantum computation into education. In the last years, these were mainly addressed in advanced master’s degree courses for physicist and computer scientist, but the experiences in secondary schools are quite few. I am presenting here a pilot project regarding teaching/learning quantum mechanics via polarisation approach extended with the basics of quantum information science. This project uses only real numbers and avoids the formalism of matrices and the time development of state, not exceeding secondary school mathematics.
Multi-representations are fundamental to improve the conceptual learning of abstract topics (such as mathematical aspects), allowing students to actively manipulate concepts and instruments which would otherwise be difficult and little accessible. In this presentation we will show different (and interconnected) representations for the acquisition of the basic mathematical formalism of Quantum Mechanics, that can be used to provide a conceptual introduction and construction of quantum formalism in high schools.
Using models in the physics classroom allows students to explore phenomena in ways that could help facilitate learning. A laboratory exercise was developed where upper secondary school students worked with a mechanical Paul trap and a simulation to understand how a real Paul trap works to investigate the usefulness of ideal models in the physics laboratory for learning. A design-based research approach guided by variation theory was adopted for the mixed-method study. The results identified successful patterns of variations and how models in the physics classroom can be both a blessing and a curse for conceptual understanding.
We report the result of a collaboration among Universities, Schools, and Institutions to increase interest in new tools and learning environments. To address this issue, we provide scientific and didactic support to teachers through different kinds of training sessions to introduce innovative didactic methodologies for teaching and learning. The project involved a training course both in streaming and in carried out sessions with university staff as well as secondary school teachers. The five meetings focused on new technologies, weather data processing, space missions, image processing, and modern physics, with applications that can be integrated into civic education and dual training.
This research focuses on the educational experiment of Interdisciplinary Lesson Study, carried out with 15-year-old students in Italy on the energy transformations. The teaching was carried out following the IBSE model of 5E and involving teachers from several disciplines. The theoretical lens used to read the data is the Lotman’s idea of Semiophere revisited in the educational context. It seems that collaborative teaching processes make teachers aware that asymmetry between disciplines can be an engine of knowledge. Moreover, these processes can also improve the teaching disciplinary actions.
This work presents the photoelectric effect and the electromagnetic spectrum topic from a Physics course in High School learned through the study of the implementation of spectroscopy techniques in Art analysis. In general, students have difficulties with Physics, especially when the topics are within the framework of contemporary Physics, either due to the complications inherent to the concepts involved or due to the difficulties involved in carrying out experiments that show the theory. In this way, we exposed the relation between Physics and spectroscopy techniques in Art analysis, showing them implementations of spectroscopy.
An interdisciplinary teaching activity in the Physics laboratory is described here using the hands-on methodology to experiment with high school students, an interdisciplinary learning crunch focused on the Fibonacci sequence. Students were involved in the equivalent resistance calculation of an infinite two-dimensional electrical circuit. In the laboratory, they built a system of resistances and, analogically, a system of springs, and they verified the same symmetric properties by rediscovering the gold number. The students developed content knowledge, critical thinking, collaboration, creativity, and communication skills. The hands-on experience increased students' motivation and participation, making them more involved in the educational process.
Empowering young learners to create a sustainable future is critical in educating future responsible citizens. Green education can also act as a vehicle to inspire the next generation of students to pursue a career in science. Under the umbrella of green education, difficult physics concepts can be introduced and explained within a more interesting context, relevant to the everyday (and future) life of the students. The EU GREEN-EDU project supported the development of new interdisciplinary approaches and teaching practices in science classrooms, enhancing the efficacy of teaching/learning physics through novel fields such as sustainable engineering, robotics and green biotechnology.
UNI: Innovative strategies and pathways to improve physics education at university
The aim of this work is to detect university students' difficulties in kinematics with variable acceleration in relation to different representation systems (graphical and algebraic) in order to define the Learning Demands. Thus, design bases of a TLS (Teaching-Learning Sequence) are laid. An open-ended questionnaire has been designed and validated in relation to the epistemological keys and the learning objectives to be achieved with the future TLS. In answering, the questionnaire students have to identify, relate, compare and analyse different systems of representation through verbal/written reasoning when elaborating explanations. The analysis of the questionnaire was carried out using phenomenography methodology.
This paper presents a preliminary reflection on the Physics with Elements of Biophysics course taught at the Department of Physics and Astronomy at the University of Wroclaw for biology students. Preliminary research on biology students' motivation and attitude towards learning physics, as well as the results of the course evaluation are included. The analysis of the obtained results will help to propose a teaching strategy that addresses the emerging problems and challenges.
Vector fields, differential operators, and the integral theorems of Gauss and Stokes are a central part of Maxwell's equations to describe electric and magnetic fields. For physics applications, a conceptual understanding is of particular importance, which often causes difficulties for students. Therefore, previous research emphasizes the need to foster conceptual knowledge by multi-representational approaches. For that purpose, this contribution presents a vector field simulation that addresses empirical findings on student difficulties and aims to promote a visual understanding of vector fields and differential operators. Additionally, findings of an implementation study integrating the simulation in recitation-based learning tasks are presented.
UNI: Innovative strategies and pathways to improve physics education at university
Active Learning in Optics and Photonics (ALOP) is a program to improve the secondary and university learning environment. A full 5-day intensive, hands-on-minds-on ALOP workshop updates participants on introductory optics and photonics and introduces them to strategies that have been demonstrated to be more effective than traditional instruction. These are characterized by use of predictions, discussions, and inexpensive equipment. This is a very short introduction to the ALOP strategies, with sample activities from some of the five ALOP modules. Participants will receive an electronic version of the ALOP Manual including all activities. More information on ALOP is at: https://pages.uoregon.edu/sokoloff/ALOPwebpage.html
LAB: Lab work and experiments in physics education.
The following work concentrates on implementing building block sets in Physics Education in combination with smartphones’ applications. The description of the sets and their possibilities are presented. The list of possible implementations in different Physics fields is given based on the available hardware tools. The paper also provides advantages and disadvantages of using aforementioned systems in the classroom. One particular example of activity on visualizing the sound waves propagation is under closer investigation in terms of a pilot project and a series of further experiments is in development stage.
A Teaching Intervention Module (TIM) on optical spectroscopy was designed in the theoretical framework of the Model of Educational Reconstruction. This study illustrates a proposal for a conceptual survey related to the TIM implemented in three classes of N = 50 high school students (17-18 years old). We focused the survey on the mechanism of colours’ formation and the interpretation of spectra. The answers’ categorization will provide the students' conceptual understanding of these topics, as well as the distractors for the reformulation with multiple-choice items. Data analysis is currently in progress, and the results will be presented at the congress.
Multiple choice questions are a common teaching and evaluation tool in large-enrolment introductory physics classes across North-American universities. Unfortunately, they do not provide students with the opportunity to formulate their own ideas. Case studies developed for this project allow the students to collaborate on more open-ended scenarios that cover the most fundamental concepts of a first-year physics curriculum. Examples of the case studies activities will be demonstrated. The effect of the case studies intervention on students’ conceptual learning and effectiveness evaluation methodology will be discussed.
To face the current environmental and technological challenges, it is necessary to support and reform teacher training (for primary and lower secondary school teachers) at academic institutions in matters concerning energy. In this context we present the Erasmus project 'eˆ4', which aims to (1) create a higher education course with innovative resources for teacher training in the field of energy technologies, (2) establish a network of academic institutions and partners from (energy) industry, agriculture and public institutions dealing practically with these matters (from hereon called stakeholders). Lastly, we want to make these results available on a (3) web platform.
We present examples of lesson materials on quantum technology, currently under development, to be used as an introduction to quantum physics in upper secondary school aimed at students with a general STEM background. We expect that introducing students to quantum technology and how its applications impact their daily environment can be a fruitful starting point for developing some intuition about quantum phenomena. Thus, the materials contain hands-on activities and demonstrations with a predict-observe-explain approach. Additionally, we wish to explicitly connect quantum physics to other fields of scientific study such as chemistry and biology.
Energy is both a concept of everyday life linked with strong societal issues and an abstract scientific concept particularly complex to teach. Teaching energy requires the use of scientific school models and is facilitated by the use of energy chains. Through guided interviews, models and associated chains proposed by academic trainers (in-service education) have been clarified. These models and their representations are diverse and often diverge from those promoted by research in didactics. In particular, they generally do not take into account the degradation of energy, a property which is nevertheless fundamental to talk about energy in a societal context.
Pre-service physics teachers should be prepared for diagnosing students’ conceptions within the physics classroom. This demand is met by a seminar implemented in the teacher training program at the University College of Teacher Education Styria. Within this seminar, participants work with video vignettes and conduct micro-teaching sessions. The focus of this study is to investigate the impact of the seminar on pre-service physics teachers’ professionalization. To this end, participants were surveyed after each session of the seminar via a self-assessment questionnaire. Our data analysis revealed both positive and negative changes in the pre-service teachers’ self-assessed diagnostic skills and readiness.
This project aims to promote gender inclusion in STEM education at the University of Padova, Italy. The project has examined the level of awareness among secondary education students regarding gender disparities in STEM fields and attempts to develop new initiatives to improve academic guidance and challenge stereotypes and biases that may discourage students from pursuing Physics and other STEM fields. The project was initiated with an on-site questionnaire and a focus group gathering preliminary results and identifying needs and deficiencies that may prevent enrollment in STEM degree courses.
Despite a growing number of research on different types of non-classical learning methods and widely known benefits, implementation in the common school system is still rare.
Although there are studies identifying challenges, many of the learning methods seem to assume a specialized school system and they are not simply transferable to practice. Method “Learning using mentors” was designed to be easily implemented and to help teachers bridge the gap between the common school system and the benefits of modern learning methods. This paper summarizes results of two years of experimental use of the method at the high school in physics.
Environmental, societal and economic trends due to climate change require the promotion of socioscientific decision-making (SSDM) in physics education. However, teachers have different attitudes and perceive multiple challenges about its implementation in their classroom. Goal of this project is the research-based development of an in-service teacher training module to change hindering beliefs and increase teachers’ intentions to promote SSDM in their physics lessons.
Although the weather accompanies our students every day and the technical basics are taught in various subjects, their understanding of weather phenomena is poorly developed. The difficulties students have in applying their knowledge of mathematics and physics to weather are complex. We would like to explore these difficulties and the reasons for this lack of understanding through various studies. For this purpose, we conducted two studies on students’ learning difficulties related to the foehn weather phenomenon. The results show that despite thematic teaching in geography, mathematics, and physics, basic concepts are not known, and interpretive strategies are lacking.
This contribution describes an analysis of student drawings concerning the topic of the greenhouse effect. We examined drawings from students at different levels of education before exposing them to a dedicated teaching-learning sequence. We also explored effective methods for analysing the drawings and looked for connections with the drawings and diagrams found in school textbooks and images available on the internet.
The shortage of physics teachers is nowadays reality in many countries. It leads to the need for changes in pre-service teacher education. To support professional identity and building a professional community, a new experiential camp is offered to pre-service teachers. The contribution presents initial research focused on identifying students' expectations, relevance of content and applied methods, as well as on satisfaction of participants. Building a sense of belonging to the professional community is a long-term process, nevertheless first effect was observed.
The aim of our activity is to enhance courses of Physical Engineering at FEI STU with digital educational materials and problems that require numerical solution and/or processing of results using smartphones, tablets and/or laptop computers. This will engage students’ creative approach to learning using practically oriented problems. The outcome of our activity consists of educational electronic materials, tutorials for usage of open source programs and libraries, templates for input files for these programs and spreadsheet programs relevant for the designed problems. All educational materials are freely available at a dedicated web page.
Learning outcomes in engineering education, in addition to practical knowledge, include understanding concepts from natural sciences and mathematics as an important factor in strengthening engineering competencies and skills. The research was conducted using standardized conceptual tests in mechanics and electromagnetism among first-year undergraduate electrical and computer engineering students during several years. The data analysis of tests was performed by statistical methods (Classical test theory, Item response theory). The common "distractors" and levels of confidence in problematic tasks are discussed. The results indicate better understanding of concepts from mechanics, and difficulties in application of Newton's laws in the context of electromagnetism.
ChatGPT, a recently released revolutionary AI chatbot based on deep learning and artificial neural networks, enables highly proficient human-like conversations, translations, and reasoning. Our ongoing research aims to investigate ChatGPT's potential in physics education, including its capabilities, limitations, and impact on students in real conditions. Employing an exploratory sequential mixed-methods design, our preliminary results from the first phase reveal, for example, that while GPT-3.5 acts as an Aristotelian thinker with respect to FCI, GPT-4 achieves a Newtonian thinking level. The study will also present ChatGPT's performance in various physics tasks and its implications for enhancing students' physics understanding and engagement.
We used the Lawson test of scientific reasoning to check the level of operational reasoning for 660 students entering the Faculty of Science of Palacký University in Olomouc. Besides the standard item and test characteristics, we also identified possible factors affecting the scores. Our results confirm there was a statistically significant difference between the women's and men's scores, but no difference between future science teachers and students of technical programs. The scores correlate with the probability of completing at least the 2nd year of the bachelor’s degree. The eye-tracking analysis showed a gender difference in problem-solving process.
To enable students to take responsible action in the context of anthropogenic climate change, learning about scientific concepts underlying its mechanisms is essential. In general, the progression of learning processes is influenced by learners’ conceptions. Students’ conceptions of the scientific underpinnings of climate change have been investigated in various studies. To provide a broad overview and profound insights into research findings, we conduct a systematic review following PRISMA-guidelines. The review includes literature published in peer-reviewed journals in English between 2013 and 2023 about the conceptions of the scientific underpinnings of climate change held by students aged six to 18.
Several studies have explored students' perspectives on understanding physics equations. This paper focuses on students' epistemological changes as they deal with the meaning of the wave equation. Prior to interventions, we assessed students' intuition about the wave equation and identified three epistemological beliefs related to this equation. We then designed tutorials that targeted specific aspects of the wave equation to aid students in making sense of it. While a few persistent views remained evident in the post-test, some students demonstrated an elevated level of understanding with regards to the wave equation.
Neurosciences significantly influence shifts in knowledge in many different fields nowadays. Results of neuroscientific studies help elucidate many phenomena, especially the ones occurring during the learning process. Neuroscientific subfield that transdisciplinary studies cognitive development is called educational neuroscience. Many theories proposing to promote education, in general, have been published. The theory of Five Pillars of the Mind, formulated by Tokuhama-Espinosa, is one of them. This article proposes an example of applying this theory to Physics education. We aim to enhance Physics education to be more brain-friendly by proposing redesigning a series of educational activities concerning inclined plane.
We report on the results of a series of interviews conducted with some experts on quantum physics concerning aspects of its teaching at the secondary school level, specifically the overall appropriateness of this teaching, the historical approach, the needed mathematical background and the topics that should be included. Some foundational and controversial aspects of quantum physics, which concern potentially includable topics, are addressed as well.