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Background: Research on cognitive effects of educational games in general shows promising results. However, there are large variations in learning outcomes between individual educational games. Research on the design process and different design elements of educational games has led to some interesting directions, but some design aspects remain unclear. Objectives: We examined how an educational game designed on the basis of intrinsic integration theory, based on a strong alignment between game and learning goals, supports the learning of Newtonian mechanics. Methods: This study applied a mixed‐methods approach (N = 223). A pre‐ and post‐test design was used to examine possible learning and transfer effects fostered by playing the educational game, Newton's Race. To examine how players played the game, log data for each player were digitally recorded during gameplay. Results and Conclusions: Our findings demonstrated a significant positive learning effect of Newton's Race (p = 0.003, d = 0.201). This can be explained through the acquired log data. Log data show that players' gameplay mostly matched expected learning during the game, with physically correct game settings occurring more and more as gameplay progressed. The ability to transfer learned knowledge to other situations was shown to be limited to situations closely resembling the game environment. Implications: Similarly, designed intrinsically integrated games on different (physics) subjects could also foster learning in a relative short time. To foster transfer to other situations we propose embedding the game within other instructional activities. Lay Description: What is already known about this topic?: Research on cognitive effects of educational games in general shows promising results.There are large variations in learning outcomes between individual educational games.Some design aspects remain unclear on the design process and different design elements of educational games.Attempting to integrate learning with gameplay, without affecting the enjoyability of the game, is not easily achieved. What this paper adds?: The current study fits within the research body that emphasizes the importance of aligning gameplay with learning in educational games (i.e., intrinsic integration).Evidence for intrinsic integration as a key element in the design process, found by examining players' log data.A better understanding of how an intrinsically integrated game supports the learning of Newtonian mechanics. Implications for practice and/or policy: Similarly, designed intrinsically integrated games on different (physics) subjects could also foster learning in a relative short time.To foster transfer to other situations we propose embedding the game within other instructional activities. [ABSTRACT FROM AUTHOR]

Background Study: Technology‐supported learning environments, act as significant observational and enabling indicators for evaluating and encouraging the digital revolution of education, are of vital importance in current educational research. Keeping track of the dynamics of technology‐supported learning environment research allows for the enrichment of theoretical studies and a prompt innovation of talent‐training environments. Objectives: The present study carried out a bibliometric analysis of the core collection of WoS database over the last two decades. Method: This study is a bibliometric research. We applied CiteSpace and VOSviewer for co‐occurrence and evolution analysis. In addition, we extracted the fundamental ideas and thoughts through reading and analysis. Results: First, the study found that technology‐supported learning environment research is in a growth phase, with core journals such as Interactive Learning Environments or Computers & Education. The findings show that a core research team comprised of such scholars as Hwang Gwo‐Jen, Lester James C. and Wong Lung‐Hsiang. Key nations of publishing and research strength are from China, the United States, the United Kingdom and the Netherlands. Second, the hot topics in research on technology‐supported learning environments were virtual learning environments, technology‐enabled learning environments and interactive learning environments. Nine study specifics were derived from these three topics such as moulding function, generating scenario, stimulating sensation, effect verification, design idea, research reflection, inquiry and research, virtual community, and mixed environment. Lastly, the frontier evolution offers a pattern of development from enhancing performance to changing mode to incorporating experience. Conclusion: Looking ahead, our research recommendations for the field of technology‐supported learning environments include a multifaceted approach. We should aim to enhance research designs and methodologies, develop contemporary guiding theories and strive for a balanced representation across various educational domains, expanding our scope to encompass all academic disciplines. In terms of practical application, it is imperative to focus on the design and implementation of technology‐supported learning environments from three critical perspectives: "change‐demand," "student‐learning" and "online‐offline." These approaches will collectively ensure that technology‐supported learning environments are both innovative and responsive to the diverse needs of the educational landscape. Lay Description: What is already known about this topic: Technology‐supported learning environments are currently a focal and hot research topic in the field of education.Although numerous studies have been conducted on the learning environment of technical support, there has yet to be a systematic and comprehensive review of the related research. What this paper adds: This study provides a comprehensive review of research on the technology‐supported learning environments over the past two decades.This study primarily presents an overview of research on the technology‐supported learning environments over the past two decades, focusing on main literature, research strength, hot topics and frontier evolution. Implications for practice and/or policy: Researchers need to further advance research on technology‐supported learning environments by enriching research designs and methods, constructing up‐to‐date guiding theories and achieving a balance across different educational domains while extending the reach to all disciplines.Educational practitioners need to pay attention to the design and implementation of technology‐supported learning environments from the three viewpoints of "change‐demand," "student‐learning" and "online‐offline." [ABSTRACT FROM AUTHOR]

Background: Reading comprehension is an interactive process. Yet, instructional needs are usually identified with isolated componential tests. This study examined whether a dynamic approach, in which componential abilities are measured within the same text and global text comprehension is facilitated via feedback, can help in understanding variation in children's reading comprehension. Objectives: With a pretest‐posttest control group design, componential abilities before and after feedback were related to growth in global text comprehension within the same text. Methods: At pretest, third to fifth graders read 30 short texts, each followed by one global text comprehension question. This was repeated at posttest, but additional questions were asked with feedback prior to each global text comprehension question. The vocabulary group received two vocabulary questions with feedback (n = 97). The vocabulary plus integration group received two vocabulary questions and one sentence‐integration question with feedback (n = 98). The control group (n = 98) only answered the global text comprehension questions. Results and Conclusion: Participants in the experimental conditions who needed feedback (i.e., lower‐skilled) experienced a decrease in global text comprehension, whereas this was not found for the control group and participants in the experimental groups who did not need feedback (i.e., higher‐skilled). There was also less decrease among those lower‐skilled participants who had profited from the feedback. Implications: It is concluded from explorative analyses that not feedback but the overall design caused the decrease. Conceptually, the dynamic approach is worth further research. Lay Description: What is already known about this topic: Reading comprehension is a complex interaction of several componential abilities at word level, sentence level, and text level (e.g., vocabulary and sentence‐integration).Instruction should adapt to the profile of strengths and weaknesses in componential abilities.Assessing componential abilities with isolated tests does not align with the interactive processes in reading comprehension.Measuring learning ability can help to identify children with low responsiveness to instruction. What this paper adds: Reading comprehension is profiled by asking questions on vocabulary, sentence‐integration, and global text comprehension for the same text in third to fifth graders (8–11 years olds).Feedback is provided after a mistake in a vocabulary and sentence‐integration question, and the feedback effect on global text comprehension is measured with a pretest‐posttest design.Children who receive feedback decrease in global text comprehension but children with higher skills in componential abilities decrease less.Explorative analyses and previous research indicate that the assessment design had a negative impact on performance, for example, via cognitive load, attention, self‐esteem, and motivation. Implications for practice and/or policy: Global text comprehension cannot always be facilitated by providing feedback on vocabulary and sentence‐integration within the same text.The design of the assessment and its influence on performance should be carefully considered by instructional designers, educators, and researchers, especially in case of young learners.It remains unclear from this study if facilitating global text comprehension via feedback with a dynamic approach is useful to understand variation in children's reading comprehension.The dynamic approach with a proper design may potentially still provide a useful insight in individual differences. [ABSTRACT FROM AUTHOR]

Background: Mastering fractions seems among the most critical mathematical skills for students to acquire in school as fraction understanding significantly predicts later mathematic achievements, but also broader academic and vocational prospects. As such, identifying longitudinal predictors of fraction understanding (e.g., mastery of numbers and operations) is highly relevant. However, almost all existing studies identifying more basic numerical skills as predictors of fraction understanding rest on data acquired in face‐to‐face testing—mostly in classrooms. Objectives: In this article, we evaluated whether results obtained in these previous studies generalized to data from the curriculum‐based online learning environment Bettermarks for mathematics used in schools in the Netherlands. Methods: We considered data from more than 5000 students who solved over 1 million mathematical problem sets on basic mathematical skills, fractions, but also algebra. Results and Conclusions: In line with previous findings, we found that fraction understanding was predicted significantly by more basic mathematical skills. Our analyses also indicated that algebra achievement was predicted significantly by fraction understanding beyond influences of more basic mathematical skills. Implications: Together, these findings generalized previous results based on face‐to‐face testing to the context of data from online learning environments and thus, indicate that data from such large‐scale online learning environments may well qualify to provide significant insights into the hierarchical development of mathematical skills. Lay Description: What is already known about this topic: Understanding fractions is one of the most difficult mathematical skill for students to learn in school.Longitudinal studies using face‐to‐face testing indicated that fraction understanding as well as achievements in algebra can robustly be predicted by prior mathematics skills. What this paper adds: We evaluated data from more than 5,000 Dutch students who performed over 1 million curriculum‐based mathematical problem sets in an online learning environment.Our analyses showed that fraction understanding as well as achievements in algebra and can be predicted by prior mathematics skills. Implications for practitioners: These results indicated that previous results from face‐to‐face testing generalize to data obtained from large‐scale online learning environments.Thus, these results open up a new avenue for research using online learning environments on the development of mathematical skills. [ABSTRACT FROM AUTHOR]

Background: Online and blended learning need an appropriate assessment strategy which ensures academic integrity. During the pandemic, many universities have chosen for online proctoring. Although some earlier examples suggest that online proctoring may reduce cheating, the potential side‐effects of proctoring are largely unknown. Objectives: Therefore, this study aims to identify the effects of proctoring on students' self‐reported temptation to cheat and potentially undesirable side‐effects, including test anxiety, perceived exam difficulty, and performance. In addition, we examine which contextual and student characteristics affect test anxiety during online exams. Methods: For this, we collected four waves of survey data throughout a year of teaching during the pandemic at one faculty of a Dutch university, resulting in a total sample of 1760 students within 105 courses. Results and Conclusions: Multi‐level analyses showed that while proctoring had no effect on the temptation to cheat, exam difficulty or performance, students reported higher levels of test anxiety. Some learning strategies, internet literacy, access to a reliable technology and a dedicated study space as well as gender and financial stress affect their test anxiety. To conclude, the decision to use online proctoring needs to consider the undesirable side‐effect on test anxiety. We discuss practical implications for university administrators, educational designers and teachers to reduce test anxiety. Lay Description: What is already known about this topic: Proctoring is often used to ensure academic integrity in online exams.Some evidence shows that proctoring reduces cheating.Little is known about the potential negative side‐effects of proctoring. What this paper adds: The use of proctoring has no effect on the temptation to cheat.The use of proctoring results in increased test anxiety.Several student characteristics and contextual factors reduce text anxiety. Implications for practice: Consider potential negative side‐effects when choosing for proctoring.Time management and internet literacy training might reduce test anxiety.Simulating the exam environment might be used to reduce test anxiety. [ABSTRACT FROM AUTHOR]

Background: Creating concept maps can help students overcome challenges of accurate knowledge monitoring and thus foster learning. However, students' knowledge often contains gaps and misconceptions, even after concept map creation. Theoretically, students could benefit from additional support, but it is unclear whether this might also be the case for (more practical‐oriented) secondary vocational students. Objectives: This study investigated whether the effectiveness of concept maps for learning could be improved by providing students with expert examples and reflection prompts in addition to their self‐generated concept maps. Methods: First‐year secondary vocational students (N = 91, Mage = 17.3 years) participated in this study, which utilized a pretest‐intervention‐posttest design. Regarding the intervention, students worked in two successive online learning environments, in which they had to present their knowledge in concept maps. After creation, students' concept maps were, depending on condition, supplemented with (1) an expert example with comparative feedback (a combined concept map) and related reflection prompts, (2) the combined concept map only, or (3) no combined concept map and no prompts. Results and Conclusions: Analyses based on students' domain knowledge demonstrate that students significantly increased their knowledge in all conditions. Data indicate that there was no significant difference in knowledge gain between conditions. Further analysis showed that students in the experimental conditions demonstrated higher learning gains if they consulted the combined concept map more often than their peers. Implications: Access to an example in addition to students' self‐generated concept maps seems promising in fostering their knowledge acquisition. However, secondary vocational students might need additional ways of support to guarantee higher learning gains. Avenues to increase the effectiveness of support are discussed. Lay Description: What is currently known about the subject matter: Creating a concept map can be an effective means to promote student learning by facilitating their knowledge monitoring.Students' knowledge often contains gaps and misconceptions, even after concept map creation.There is evidence that feedback is needed to realize an effect on students' learning. What is the paper adding to this: Innovative implementation of concept map feedback in a self‐directed online learning environment.Exploration of the added value of support to process concept map feedback.Focus on a generally overlooked and unique target group: secondary vocational students. What are the implications of study findings for practitioners: The adopted unique implementation of concept map feedback seems promising for increasing students' learning.When designing support for secondary vocational students it is necessary to take the unique characteristics of these learners into account. [ABSTRACT FROM AUTHOR]

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Nowadays, students often practice problem‐solving skills in online learning environments with the help of examples and problems. This requires them to self‐regulate their learning. It is questionable how novices self‐regulate their learning from examples and problems and whether they need support. The present study investigated the open questions (1) to what extent students' (novices) task selections align with instructional design principles and (2) whether informing them about these principles would improve their task selections, learning outcomes, and motivation. Higher education students (N = 150) learned a problem‐solving procedure by fixed sequences of examples and problems (FS‐condition), or by self‐regulated learning (SRL). The SRL participants selected tasks from a database, varying in format, complexity, and cover story, either with (ISRL‐condition) or without (SRL‐condition) watching a video detailing the instructional design principles. Students' task‐selection patterns in both SRL conditions largely corresponded to the principles, although tasks were built up in complexity more often in the ISRL‐condition than in the SRL‐condition. Moreover, there was still room for improvement in students' task selections after solving practice problems. The video instruction helped students to better apply certain principles, but did not enhance learning and motivation. Finally, there were no test performance or motivational differences among conditions. Although these findings might suggest it is relatively 'safe' to allow students to independently start learning new problems‐solving tasks using examples and problems, caution is warranted: It is unclear whether these findings generalize to other student populations, as the students participating in this study have had some experience with similar tasks or learning with examples. Moreover, as there was still room for improvement in students' task selections, follow‐up research should investigate how we can further improve self‐regulated learning from examples and practice problems. Lay Description: What is (not) known about the subject matter: Learning new problem‐solving skills online with examples and problems is becoming more commonInstructional design principles (IDP) detail how to sequence tasks to optimize learning and motivationIt is unclear whether students spontaneously adhere to IDP when they select learning tasksNot much is known about how to support students to make better task selections What is the contribution of this paper: Students received a fixed task sequence (FS‐condition) or selected tasks themselves (SRL)Prior to SRL, SRL‐students watched a video about IDP (ISRL‐condition) or not (SRL‐condition)Results showed that (I)SRL‐students' task‐selections matched quite well with IDPThere were no differences among the FS and (I)SRL conditions in performance or motivation What are the implications of the findings: Students were quite capable of self‐regulating their learning from examples and problemsSRL was even as effective, efficient, and motivating as a fixed task sequenceWatching a video on IDP affected students' task‐selections, but did not enhance learning and motivationFuture research should examine how to further support SRL from examples and problems [ABSTRACT FROM AUTHOR]