Children’s engagement in science, technology, engineering, and mathematics (STEM) is fundamental to developing scientific literacy. Informal learning environments, such as children’s museums, are a ...robust setting for fostering STEM engagement, particularly through parent-child interaction. Although the role of STEM learning has been frequently documented in informal learning environments, how children are engaged by STEM topics and STEM’s relation to children’s everyday lives has not been equally well studied. In this article, I suggest that there are ways that parent-child interaction during informal learning opportunities can relate to children’s engagement in STEM activities. A fundamental mechanism underlying this relation is how parents support children’s autonomy as they play together. Parent-child interaction relates to children’s STEM engagement not only in situ but also in how they generalize that behavior to their everyday activities, which opens up promising new lines of research.
The unexpected contents task is a well-established measure for studying young children's developing theory of mind. The task measures whether children understand that others have a false belief about ...a deceptive container and whether children can track the representational change in their own beliefs about the container's contents. Performance on both questions improves between the ages of 3 and 4. A previous meta-analysis (Wellman, Cross, & Watson, 2001) found little evidence for a difference in children's responses on these questions, but did not investigate the weak effect size that was reported for the interaction between age and question type. The two meta-analyses reported here update the literature review, and find a more robust interaction between question type and age. Three-year-olds showed better performance on questions about their own representational change than others' false belief, while older children showed the reverse pattern. A mega-analysis of a sample of over 1200 children between the ages of 36–60 months then showed the same result. This response pattern requires novel theoretical interpretations, which include reframing the development of children's understanding of false belief.
Children's causal learning has been characterized as a rational process, in which children appropriately evaluate evidence from their observations and actions in light of their existing conceptual ...knowledge. We propose a similar framework for children's selective social learning, concentrating on information learned from others' testimony. We examine how children use their existing conceptual knowledge of the physical and social world to determine the reliability of testimony. We describe existing studies that offer both direct and indirect support for selective trust as rational inference and discuss how this framework may resolve some of the conflicting evidence surrounding cases of indiscriminate trust. Importantly, this framework emphasizes that children are active in selecting evidence (both social and experiential), rather than being passive recipients of knowledge, and motivates further studies that more systematically examine the process of learning from social information.
Phillips et al. present a number of arguments for the premise that knowledge is more basic than belief. Although their arguments are coherent and sound, they do not directly address numerous cases in ...which belief appears to be a developmental precursor to knowledge. I describe several examples, not necessarily as a direct challenge, but rather to better understand their framework.
Many studies have examined children's understanding of playing and learning as separate concepts, but the ways that children relate playing and learning to one another remain relatively unexplored. ...The current study asked 5- to 8-year-olds (N = 92) to define playing and learning, and examined whether children defined them as abstract processes or merely as labels for particular types of activities. We also asked children to state whether playing and learning can occur simultaneously, and examined whether they could give examples of playing and learning with attributes either congruent or incongruent with those activities. Older children were more likely to define both playing and learning in terms of abstract processes, rather than by describing particular topics or activities. Children who defined both playing and learning in this way were able to generate more examples of situations where they were simultaneously playing and learning, and were better able to generate examples of learning with characteristics of play, and examples of playing with characteristics of learning. These data suggest that children develop an understanding that learning and playing can coincide. These results are critical to researchers and educators who seek to integrate play and learning, as children's beliefs about these concepts can influence how they reflect on playful learning opportunities.
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Dostopno za:
DOBA, IZUM, KILJ, NUK, PILJ, PNG, SAZU, SIK, UILJ, UKNU, UL, UM, UPUK
Across two eye-tracking experiments, we showed that infants are sensitive to the statistical reliability of informative cues and selective in their use of information generated by such cues. We ...familiarized 8-month-olds with faces (Experiment 1) or arrows (Experiment 2) that cued the locations of animated animals with different degrees of reliability. The reliable cue always cued a box containing an animation, whereas the unreliable cue cued a box that contained an animation only 25% of the time. At test, infants searched longer in the boxes that were reliably cued, but did not search longer in the boxes that were unreliably cued. At generalization, when boxes were cued that never contained animations before, only infants in the face experiment followed the reliable cue. These results provide the first evidence that even young infants can track the reliability of potential informants and use this information judiciously to modify their future behavior.
•Children of guiding parents explored the novel machine and blocks for longer.•Children of directive parents learned the causal system best.•Children who played independently explored and potentially ...learned the least.•Specific behaviors (e.g. categorizing the blocks) were not related to learning.
The current study investigated the relation between the ways in which caregivers and children interact in a learning environment and children’s learning outcomes and engagement with the learning task. We assessed caregiver–child interaction in a structured play environment in which 3- and 4-year-olds and a caregiver were tasked with learning a causal system. Children whose caregivers were more directive during their interaction learned the causal system the best and better than children whose caregivers were more hands off and allowed children to engage in unstructured exploration. These two groups of children explored for the same amount of time, indicating similar levels of engagement with the task. Children whose caregivers were more guiding, but not directive, played significantly longer than either of the other groups, suggesting deeper engagement. We discuss these findings in relation to how children engage in causal learning and how caregivers might contribute to children’s learning and engagement with the learning process.
We examined correlations between a home-based STEM activity illustrating the importance of soap use during handwashing and children’s (4-to 7-year-olds,
N
= 81, 42 girls, 39 boys) use of soap when ...washing their hands. Parents and children either participated in or watched the activity. Children reflected on the activity immediately afterward and a week later. Parent–child interaction during participation related to the frequency of unprompted soap use during handwashing, controlling for performance on other, related cognitive measures. Children whose parents were more goal-directed, and set goals for the interaction, were less likely to use soap spontaneously when handwashing in the subsequent week. The amount of causal knowledge children generated when they reflected on the experience immediately afterward also influenced whether children used soap when washing their hands. Reducing the autonomy children believe they have during a STEM-based activity potentially leads them to not engage in a behavior related to the activity on their own. Overall, these data suggest that parent–child interaction during STEM activities can influence the ways children encode and engage with those activities in their everyday lives. Given that the ways children wash their hands might mitigate the spread of disease, interventions that focus on providing children with the belief that STEM activities are for them might be broadly beneficial to society.
How do young children develop a concept of equity? Infants prefer dividing resources equally and expect others to make such distributions. Between the ages of 3-8, children begin to exhibit ...preferences to avoid inequitable outcomes in their distributions, dividing resources unequally if the result of that distribution is a more equitable outcome. Four studies investigated children's developing preferences for generating equitable distributions, focusing on the mechanisms for this development. Children were presented with two characters with different amount of resources, and then a third character who will distribute more resources to them. Three- to 8-year-olds were asked whether the third character should give an equal number of resources to the recipients, preserving the inequity, or an unequal number to them, creating an equitable outcome. Starting at age 7, children showed a preference for equitable distributions (Study 1, N = 144). Studies 2a (N = 72) and 2b (N = 48) suggest that this development is independent of children's numerical competence. When asked to take the perspective of the recipient with fewer resources, 3- to 6-year-olds were more likely to make an equitable distribution (Study 3, N = 122). These data suggest that social perspective taking underlies children's prosocial actions, and supports the hypothesis that their spontaneous capacity to take others' perspectives develops during the early elementary-school years.
Constructing Science Weisberg, Deena Skolnick; Sobel, David M
2022, 2022-09-20
eBook
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An examination of children's causal reasoning capacities and how those capacities serve as the foundation of their scientific thinking. Young children have remarkable capacities for causal reasoning, ...which are part of the foundation of their scientific thinking abilities. In Constructing Science, Deena Weisberg and David Sobel trace the ways that young children's sophisticated causal reasoning abilities combine with other cognitive, metacognitive, and social factors to develop into a more mature set of scientific thinking abilities. Conceptualizing scientific thinking as the suite of skills that allows people to generate hypotheses, solve problems, and explain aspects of the world, Weisberg and Sobel argue that understanding how this capacity develops can offer insights into how we can become a more scientifically literate society. Investigating the development of causal reasoning and how it sets the stage for scientific thinking in the elementary school years and beyond, Weisberg and Sobel outline a framework for understanding how children represent and learn causal knowledge and identify key variables that differ between causal reasoning and scientific thinking. They present empirical studies suggesting ways to bridge the gap between causal reasoning and scientific thinking, focusing on two factors: contextualization and metacognitive thinking abilities. Finally, they examine children's explicit understanding of such concepts as science, learning, play, and teaching.