Educational Neuroscience provides an overview of a wide range of recent initiatives in educational neuroscience implicating and pertaining to mind, brain, and education. Contributions from top researchers in the field examine a variety of concerns, issues, and directions pertaining and relating to educational neuroscience and mind, brain, and education more generally, focusing on three main areas: motivations, aims, and prospects theories, methods, and collaborations challenges, results, and implications Chapters promote interdisciplinary perspectives and further establishment (...) of theoretical and empirical bases for research and scholarship bridging Education and the Neurosciences. Though not exhaustive, these chapters identify various parties, agencies, organizations, and initiatives involved in facilitating and furthering development in the field, providing a compendium of on-going efforts to help establish theories, models, methods, ethics, and common language. (shrink)

‘What does the brain have to do with learning?’Prima facie, this may seem like a strange thing for anyone to say, especially educational scholars, researchers, practitioners, and policy makers. There are, however, valid objections to injecting various and sundry neuroscientific considerations piecemeal into the vast field of education. These objections exist in a variety of dimensions. After providing a working definition for educational neuroscience, identifying the ‘mindbrain’ as the proper object of study thereof, I discuss, dispel or (...) dismiss some of these objections prior to presenting my motivations, aims, and prospects for this new area of educational research. I then briefly outline a positive case for educational neuroscience in terms of theories, methods, and collaborations, and conclude with a brief discussion of some challenges, results, and implications thereof. Naturally, the following considerations are but my own, some of which may be shared to some extent by others working in this area, as the case may be. (shrink)

The emerging discipline of educational neuroscience stands at a crossroads between those who see great promise in integrating neuroscience and education and those who see the disciplinary divide as insurmountable. However, such tension is at least partly due to the hitherto predominance of philosophy and theory over the establishment of concrete mechanisms and agents of change. If educational neuroscience is to move forward and emerge as a distinct discipline in its own right, the traditional boundaries (...) and methods must be bridged, and an infrastructure must be in place that allows for collaborative and productive exchange. In the present paper, we argue that school psychologists have the potential to fulfill this need and represent important agents of change in establishing better connections between research and practice. More specifically, we use the National Association of School Psychologists Domains of Practice to highlight several areas where school psychology can actively support forging connections between neuroscience and educational practice. School psychologists represent untapped potential in their knowledge, skillset, and placement to serve a vital role in building the bridge between neuroscience and education. (shrink)

_Educational Neuroscience_ provides an overview of the wide range of recent initiatives in educational neuroscience, examining a variety of methodological concerns, issues, and directions. Encourages interdisciplinary perspectives in educational neuroscience Contributions from leading researchers examine key issues relating to educational neuroscience and mind, brain, and education more generally Promotes a theoretical and empirical base for the subject area Explores a range of methods available to researchers Identifies agencies, organizations, and associations facilitating development in the (...) field Reveals a variety of on-going efforts to establish theories, models, methods, ethics, and a common language. (shrink)

This chapter presents emotion as a function of brain‐body interaction, as a vital part of a multi‐tiered phylogenetic set of neural mechanisms, evoked by both instinctive processes and learned appraisal systems, and argues to establish the primacy of emotion in relation to cognition. Primarily based on Damasio's somatic marker hypothesis, but also incorporating elements of Lazarus' appraisal theory, this paper presents a neuropedagogical model of emotion, the somatic appraisal model of affect. SAMA identifies quintessential components, facets, and functions of affect (...) necessary to provide a new domain, namely educational neuroscience, with a basis on which to build a dynamic model of affect serving to critique traditional cognitivist‐oriented curricula and instruction, and to inform an alternative: neuropedagogy. (shrink)

‘What does the brain have to do with learning?’Prima facie, this may seem like a strange thing for anyone to say, especially educational scholars, researchers, practitioners, and policy makers. There are, however, valid objections to injecting various and sundry neuroscientific considerations piecemeal into the vast field of education. These objections exist in a variety of dimensions. After providing a working definition for educational neuroscience, identifying the ‘mindbrain’ as the proper object of study thereof, I discuss, dispel or (...) dismiss some of these objections prior to presenting my motivations, aims, and prospects for this new area of educational research. I then briefly outline a positive case for educational neuroscience in terms of theories, methods, and collaborations, and conclude with a brief discussion of some challenges, results, and implications thereof. Naturally, the following considerations are but my own, some of which may be shared to some extent by others working in this area, as the case may be. (shrink)

Differing worldviews give interdisciplinary work value. However, these same differences are the primary hurdle to productive communication between disciplines. Here, we argue that philosophical issues of metaphysics and epistemology subserve many of the differences in language, methods and motivation that plague interdisciplinary fields like educational neuroscience. Researchers attempting interdisciplinary work may be unaware that issues of philosophy are intimately tied to the way research is performed and evaluated in different fields. As such, a lack of explicit discussion about (...) these assumptions leads to many conflicts in interdisciplinary work that masquerade as more superficial issues. To illustrate, we investigate how philosophical assumptions about the mind may influence researchers in educational neuroscience. The methods employed by researchers in this field are shaped by their metaphysical beliefs, and arguments around these issues can threaten accepted disciplinary ontologies. Additionally, how a researcher understands reduction in the special sciences and how they place their colleagues in this ontology constrains the scope of interdisciplinary projects. In encouraging researchers to explicitly discuss the philosophical assumptions underlying their research we hope to alleviate some of the conflict and establish realistic expectations for collaborative projects. (shrink)

In its origins educational neuroscience has started as an endeavor to discuss implications of neuroscience studies for education. However, it is now on its way to become a transdisciplinary field, incorporating findings, theoretical frameworks and methodologies from education, and cognitive and brain sciences. Given the differences and diversity in the originating disciplines, it has been a challenge for educational neuroscience to integrate both theoretical and methodological perspective in education and neuroscience in a coherent way. (...) We present a multi-level framework for educational neuroscience, which argues for integration of multiple levels of analysis, some originating in brain and cognitive sciences, others in education, as a roadmap for the future of educational neuroscience with concrete examples in moral education. (shrink)

This chapter presents emotion as a function of brain-body interaction, as a vital part of a multi-tiered phylogenetic set of neural mechanisms, evoked by both instinctive processes and learned appraisal systems, and argues to establish the primacy of emotion in relation to cognition. Primarily based on Damasio's somatic marker hypothesis, but also incorporating elements of Lazarus' appraisal theory, this paper presents a neuropedagogical model of emotion, the somatic appraisal model of affect (SAMA). SAMA identifies quintessential components, facets, and functions of (...) affect necessary to provide a new domain, namely educational neuroscience, with a basis on which to build a dynamic model of affect serving to critique traditional cognitivist-oriented curricula and instruction, and to inform an alternative: neuropedagogy. (shrink)

In this position statement it is argued that educational neuroscience must necessarily be relevant to, and therefore have implications for, both educational theory and practice. Consequently, educational neuroscientific research necessarily must embrace educational research questions in its remit.

This chapter presents emotion as a function of brain‐body interaction, as a vital part of a multi‐tiered phylogenetic set of neural mechanisms, evoked by both instinctive processes and learned appraisal systems, and argues to establish the primacy of emotion in relation to cognition. Primarily based on Damasio's somatic marker hypothesis, but also incorporating elements of Lazarus' appraisal theory, this paper presents a neuropedagogical model of emotion, the somatic appraisal model of affect (SAMA). SAMA identifies quintessential components, facets, and functions of (...) affect necessary to provide a new domain, namely educational neuroscience, with a basis on which to build a dynamic model of affect serving to critique traditional cognitivist‐oriented curricula and instruction, and to inform an alternative: neuropedagogy. (shrink)

What can neuroscience offer to educators? Much of the debate has focused on whether basic research on the brain can translate into direct applications within the classroom. Accompanying ethical concern has centered on whether neuroeducation has made empty promises to educators. Relatively little investigation has been made into educators’ expectations regarding neuroscience research and how they might find it professionally useful. In order to address this question, we conducted semi-structured interviews with 13 educators who were repeat attendees of (...) the Learning & the Brain conferences. Responses suggest that ‘brain based’ pedagogical strategies are not all that is sought; indeed, respondents were more often drawn to the conference out of curiosity about the brain than a desire to gain new teaching methods. Of those who reported that research had influenced their classroom practice, most did not distinguish between neuroscience and cognitive psychology. Responses indicated that learning about neuroscience can help educators maintain patience, optimism and professionalism with their students, increase their credibility with colleagues and parents, and renew their sense of professional purpose. While not necessarily representative of the entire population, these themes indicate that current research in neuroscience can have real relevance to educators’ work. Future ethical discussions of neuroeducation should take into account this broader range of motivations and benefits. (shrink)

Neuroscience, brain based learning and education -- Collaborative reports in neuroscience and education -- A local paradigmatic example, founded on an international research phenomenon -- The mereological fallacy -- First-person/third-person asymmetry -- Neuroscience and irreducible uncertainty -- Inner and outer : the epistemology of the mind -- Inner and outer : the challenges of crypto-cartesianism, materialism and reductionism -- Intrinsic and relational models of education -- Education, psychology and physics -- Bohr's philosophy of physics and its application (...) to psychology and education -- A new educational philosophy based on Bohr's interpretation of quantum physics -- Conclusions : wittgenstein-bohr model of education. (shrink)

The aim of this paper is to reconstruct and critically assess the evidential relationship between neuroscience and educational practice. To do this, I reconstruct a standard way in which evidence from neuroscience is used to support recommendations about educational practice, that is, testing pedagogical interventions using neuroimaging methods, and discuss and critically assess the inference behind this approach. I argue that this inference rests on problematic assumptions, and, therefore, that neuroimaging intervention studies have no special evidential (...) status for basing educational practice. I conclude arguing that these limitations could be resolved by integrating evidence from neurocognitive and educational science. (shrink)

In recent years there have been growing calls for forging greater connections between education and cognitive neuroscience. As a consequence great hopes for the application of empirical research on the human brain to educational problems have been raised. In this article we contend that the expectation that results from cognitive neuroscience research will have a direct and immediate impact on educational practice are shortsighted and unrealistic. Instead, we argue that an infrastructure needs to be created, principally (...) through interdisciplinary training, funding and research programs that allow for bidirectional collaborations between cognitive neuroscientists, educators and educational researchers to grow. We outline several pathways for scaffolding such a basis for the emerging field of ‘Mind, Brain and Education’ to flourish as well as the obstacles that are likely to be encountered along the path. (shrink)

Neuroscience, brain based learning and education -- Collaborative reports in neuroscience and education -- A local paradigmatic example, founded on an international research phenomenon -- The mereological fallacy -- First-person/third-person asymmetry -- Neuroscience and irreducible uncertainty -- Inner and outer : the epistemology of the mind -- Inner and outer : the challenges of crypto-cartesianism, materialism and reductionism -- Intrinsic and relational models of education -- Education, psychology and physics -- Bohr's philosophy of physics and its application (...) to psychology and education -- A new educational philosophy based on Bohr's interpretation of quantum physics -- Conclusions : wittgenstein-bohr model of education. (shrink)

This volume makes a philosophical contribution to the application of neuroscience in education. It frames neuroscience research in novel ways around educational conceptualizing and practices, while also taking a critical look at conceptual problems in neuroeducation and at the economic reasons driving the mind-brain education movement. It offers alternative approaches for situating neuroscience in educational research and practice, including non-reductionist models drawing from Dewey and phenomenological philosophers such as Martin Heidegger and Merleau-Ponty. The volume gathers (...) together an international bevy of leading philosophers of education who are in a unique position to contribute conceptually rich and theoretically framed insight on these new developments. The essays form an emerging dialogue to be used within philosophy of education as well as neuroeducation, educational psychology, teacher education and curriculum studies. (shrink)

Given that teachers become primary fundamental exemplars and models for their students and the students are likely to emulate the presented teachers’ behaviors, it is necessary to consider how to promote teachers’ abilities as potential moral educators during the course of teacher education. To achieve this ultimate aim in teacher education, as argued by moral philosophers, psychologists, and educators, teachers should be able to well understand the mechanisms of moral functioning and how to effectively promote moral development based on evidence. (...) Recent findings in the fields of social sciences that have examined how morality is functioning among human beings, moral psychology in particular, provide us with the evidence through experiments and observations. Furthermore, thanks to the development of scientific research methods that enable researchers to investigate the neural-level nature of human behavior, the researchers now can examine neural correlates of moral functioning that constitutes the basis of moral behavior and development. To facilitate the understanding of the field of neuroscience of morality and its educational implications within the context of teacher education, first, the recent trend in the field will be reviewed, and second, how it can provide useful insights to teachers and teacher educations will be discussed. (shrink)

The Mathematics Education and Neurosciences project is an interdisciplinary research program that bridges mathematics education research with neuroscientific research. The bidirectional collaboration will provide greater insight into young children's (aged four to six years) mathematical abilities. Specifically, by combining qualitative ‘design research’ with quantitative ‘experimental research’, we aim to come to a more thorough understanding of prerequisites that are involved in the development of early spatial and number sense. The mathematics education researchers are concerned with kindergartner's spatial structuring ability, while (...) the neuroscientists are studying kindergartner's automatic quantity processing and its effect on mathematical development. The outcomes of these investigations should contribute to practical ways of fostering and supporting young children's mathematical thinking and learning. (shrink)

In this review essay, Francis Schrag focuses on two recent anthologies dealing completely or in part with the role of neuroscience in learning and education: The Jossey-Bass Reader on the Brain and Learning, edited by Jossey-Bass Publishers, and New Philosophies of Learning, edited by Ruth Cigman and Andrew Davis. Schrag argues that philosophers of education do have a distinctive role in the conversation about neuroscience. He contends that the impact of neuroscience is likely to be substantial, though (...) not in the way its advocates imagine. It has the potential to enhance education by way of interventions that successfully alter the fundamental neural mechanisms of learning, but neuroscience is unlikely to affect classroom teaching substantially. (shrink)

This article—mainly referring to the situation in Germany—consists of three parts. In a first section the current presence of neurosciences in the public discourse will be described in order to illuminate the background which is relevant for contemporary educational thinking. The prefix ‘neuro-’ is ubiquitous today and therefore concepts like ‘neuropedagogy’ or ‘neurodidactics’ seem to be in the mainstream of modern thinking. In the second part of the article the perspective changes from the public discourse to the disciplinary discourse; (...) a brief excursus into developmental psychiatry, neuropsychology and modern psychoanalysis will be made in order to demonstrate how the results of neuroscientific research are integrated in their theoretical frameworks. These three disciplines have no difficulty in integrating neuroscientific findings because each of them possesses a systematic core composed of ‘native concepts’. In contrast to them, educational theory has much more difficulty with such integration, as will be shown in the third part of the essay. On the one hand, neuroscientific thinking seems to be able to dominate education rather easily and without great resistance, especially in the fields of early childhood education, instruction and learning—mainly by simplifying educational processes and by reducing the complexity of the educational task to a mere ‘relationship problem’. On the other hand, this attraction of neuroscience in education might be understood as the reflection of a theoretical deficit in educational theory itself, with the significance of affect and emotion not receiving proper attention. (shrink)

Neuroscience and education is a developing area which has come in for some serious philosophical scrutiny. One of the biggest and most intractable problems concerns the bridging of the ‘is-ought’ gap between the descriptive claims of neuroscience and the prescriptive aims of education. A distinction needs to be drawn between learning and education. Advances in neuroscience might tell us more about learning as a neural process such as where in the brain particular learnings might take place and (...) how such learnings take place. But from this nothing follows about what we ought to do to improve learning until such time as judgements are made about what is to be learned. Education, as a normative activity about what is worthwhile and what it is to be an educated person, cannot be reduced to learning even though learning is required in order to become educated. Neuroscience has a very limited role in education which amounts to no more than providing some empirical evidence which can be drawn upon to inform normative decisions about the educational worth of learning. (shrink)

This short note takes two quotations from Snooks’ recent editorial on neuroeducation and teases out some further details on the philosophy of neuroscience and neurophilosophy along with consideration of the implications of both for philosophy of education.

In this response, I agree with much of what Schrag says about the principled limits of neuroscience to inform educators' decisions about approaches to learning. However, I also raise questions about the extent to which discoveries about ‘deficits’ in brain function could possibly help teachers. I dispute Schrag's view that externalism/internalism debates in the philosophy of mind are relatively arcane and lack implications for the importance or otherwise for education of discoveries about the brain.

Educational neuroscience promises to incorporate emerging insights from neuroscience into education, and is an exiting renovation of cognitive science in education. But unlike cognitive neuroscience—which aims to explain how the mind is embodied—educational neuroscience necessarily incorporates values that reflect the kind of citizen and the kind of society we aspire to create. Neuroscience can help fulfill the mandate of public education, but only as a tool that is part of a broader conversation about (...) what schools should strive to achieve for the millions of students who attend them. I propose that educational neuroscience must advance our understanding of how knowledge is embodied in light of efforts to promote personal learning and development. (shrink)

The present essay discusses the relationship between moral philosophy, psychology and education based on virtue ethics, contemporary neuroscience, and how neuroscientific methods can contribute to studies of moral virtue and character. First, the present essay considers whether the mechanism of moral motivation and developmental model of virtue and character are well supported by neuroscientific evidence. Particularly, it examines whether the evidence provided by neuroscientific studies can support the core argument of virtue ethics, that is, motivational externalism. Second, it discusses (...) how experimental methods of neuroscience can be applied to studies in human morality. Particularly, the present essay examines how functional and structural neuroimaging methods can contribute to the development of the fields by reviewing the findings of recent social and developmental neuroimaging experiments. Meanwhile, the present essay also considers some limitations embedded in such discussions regarding the relationship between the fields and suggests directions for future studies to address these limitations. (shrink)

Increasingly, connections are being made between neuroscience and education. At their interface is the attempt to ‘bridge the gap between conscious minds and living brains’. All too often, the two sides pursue a reductionist strategy of excluding the other. A middle way, promoted by Sankey in the context of values education, is emergentism: our conscious mental states are the product of brain processes but are not reducible to them. This paper outlines Sankey’s emergentist position and raises two objections: What (...) are emergent properties and What is the process of emergence? Sankey accepts neuroscience but rejects an eliminative materialist version on three grounds: materialism, reduction and determinism. All three are rebutted. His account of the neuronal, synaptic self is considered and found wanting. Finally, some positive remarks are made about the contribution eliminativism might make to values education. The conclusion reached is this: attempts to bridge the gap between mind and brain have not been successful and Sankey’s emergentism is no exception. This is one divide in education which will not be crossed. (shrink)

If the new and rapidly expanding discipline of neuroethics is to have a signii cant impact on patient care, the neuroscience clinicians must become familiar with the discipline, and be competent and comfortable in applying its cognitive base and principles to clinical decisionmaking. Familiarity with and practical experience in the application of basic biomedical knowledge and principles to clinical decision- making in the neurosciences becomes the essential foundation on which to begin to integrate neuroethics into medical education. The place (...) where the building of this foundation and the initial exposure to neuroethics must begin is in the residency program. This article describes the approach developed in the neurology residency education program at the University of Calgary to move toward achieving this goal. The key elements for the development and successful implementation of the program are outlined and a brief overview of the topics covered in the sessions is described. (shrink)

Phineas Gage is one of the most famous neurological patients. His case is still described in psychology textbooks and in scientific journal articles. A controversy has been going on about the possible consequences of his accident, destroying part of his prefrontal cortex, particularly with respect to behavioral and personality changes. Earlier studies investigated the accuracy of descriptions in psychology textbooks. This is, to my knowledge, the first analysis of journal articles in this respect. These were investigated with regard to four (...) criteria: Description of personality changes, psychopathy-like behavior, alternative explanations besides the immediate brain damage, and Gage’s recovery. 92% of articles described personality changes, 52% of a psychopathy-like kind; only 4% mentioned alternative explanations and 16% described Gage’s recovery. The results are discussed in the light of the available historical evidence. The article closes with several suggestions on improving science communication about the famous case. (shrink)