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James insisted on the existence and importance of consciousness and, unlike so many explorers in the new field of psychology, he resisted any idea of the unconscious or of intelligent automatisms, like “unconscious cerebration.” But his “stream of consciousness” included not only definite images, but also the “free water of consciousness” that flows around them, which he would call a “halo,” “penumbra,” or most often, a “fringe.” This was the elusive, transitory territory of “the vague” and evanescent, the peripheral and unarticulated, of feelings, recognitions, meaningfulness. Not unconscious, but on the margin, it provided the necessary context for the focus of attention. This essay extends James’s conception (more fully than he did) to aesthetic experience, which is also nondiscursive, unarticulable, ineffable – but not unconscious. And it draws James’s “fringe” into the twenty-first century by nudging it toward the nonconscious cognitive processing that has captured the interest of so much contemporary psychology.
A major programme of research on cognition has been built around the idea that human beings are frequently intuitive thinkers and that human intuition is imperfect. The modern marketing of politics and the time‐poor position of many citizens suggests that ‘fast’, intuitive, thinking in many contemporary democracies is ubiquitous. This article explores the consequences that such fast thinking might have for the democratic practice of contemporary politics. Using focus groups with a range of demographic profiles, fast thinking about how politics works is stimulated and followed by a more reflective and collectively deliberative form of slow thinking among the same participants. A strong trajectory emerges consistently in all groups in that in fast thinking mode participants are noticeably more negative and dismissive about the workings of politics than when in slow thinking mode. A fast thinking focus among citizens may be good enough to underwrite mainstream political exchange, but at the cost of supporting a general negativity about politics and the way it works. Yet breaking the cycle of fast thinking – as advocated by deliberation theorists – might not be straightforward because of the grip of fast thinking. The fast/slow thinking distinction, if carefully used, offers valuable new insight into political science.
The target article (Pater 2019) proposes to use neural networks to model learning within existing grammatical frameworks. This is easier said than done. There is a fundamental gap to be bridged that does not receive attention in the article: how can we use neural networks to examine whether it is possible to learn some linguistic representation (a tree, for example) when, after learning is finished, we cannot even tell if this is the type of representation that has been learned (all we see is a sequence of numbers)? Drawing a correspondence between an abstract linguistic representational system and an opaque parameter vector that can (or perhaps cannot) be seen as an instance of such a representation is an implementational mapping problem. Rather than relying on existing frameworks that propose partial solutions to this problem, such as harmonic grammar, I suggest that fusional research of the kind proposed needs to directly address how to ‘find’ linguistic representations in neural network representations.
Constructions are long-term pairings in memory of form and meaning. How are they created and learned, how do they change, and how do they combine into new utterances (constructs, communicative performances) in working memory? Drawing on evidence from word-formation (blending, Noun-Noun-compounds) over idioms and argument structure constructions to multimodal communication, we argue that computational metaphors such as 'unification' or 'constraint-satisfaction' do not constitute a cognitively adequate explanation. Instead, we put forward the idea that construction combination is performed by Conceptual Blending – a domain-general process of higher cognition that has been used to explain complex human behavior such as, inter alia, scientific discovery, reasoning, art, music, dance, math, social cognition, and religion. This title is also available as Open Access on Cambridge Core.
In this introductory chapter, I will outline what this book is about and aims to achieve, which is to continue what I started in a prequel book, A Mind for Language: An Introduction to the Innateness Debate (ML). Both books share the same central theme, namely the so-called Innateness Hypothesis for language, which is the conjecture proposed by the linguist Noam Chomsky many decades ago that children acquire language guided by an innate, genetically based mental system that is specifically dedicated to this task. Both ML and this book critically examine the arguments that have been used, or could be used, to support this idea. Where ML considered arguments coming from linguistics proper, the present book delves into arguments from neighboring fields that overlap with linguistics in various ways, including cognitive science and neurolinguistics. The chapter concludes with a review of the linguistic arguments in support of Chomsky’s innateness hypothesis that formed the focus of ML.
Legal outcomes often depend on whether conduct is reasonable. But how do we judge what is reasonable? What are the relevant criteria? Legal theorists have long debated these questions. This chapter outlines some of the leading theories. It then describes recent experimental work probing whether those theories align with lay judgments of what is reasonable. The findings indicate that reasonableness is best understood as a hybrid concept – a product of multiple inputs. Working from this perspective, the chapter raises important additional questions about reasonableness – questions that experimental jurisprudence is well suited to explore.
This final chapter returns to the issues that the cognitive neuroscience of autoscopy raise for the philosophy of mind. The neuroscience project is to develop a detailed understanding and explanation of the relation between the physical and mental. I appeal to the works of Paul Schilder, Antonio Damasio, and Mohed Constandi to forge a tentative way of understanding how multiple perceptual modalities such as proprioception, vision, touch, and somatic perception are integrated to form a unified sense of the self and the body.
The concept of doppelgänger, or 'double' – a conceived exact but sometimes invisible replica of a living person – has fascinated and intrigued people for centuries. This notion has a long history and is a widespread belief among cultural groups around the world. Doppelgängers have influenced literature and cinema, with writers such as Fyodor Dostoyevsky and Robert Louis Stevenson, and directors like Alfred Hitchcock exploring the phenomenon to great effect. This book brings together the literary and cinematic with empirical scientific literature to raise fundamental questions about the nature of the self and the human mind. It aims to establish the experience of the self and unravel the brain processes that determine bodily representation and the errors that make possible the experience of the doppelgänger phenomenon. This book will appeal to psychiatrists, neurologists, and neuroscientists, as well as interested general readers.
Philosophers and psychologists acclaim Edward C. Tolman's “Cognitive Maps in Rats and Men” as an early, transformative instance of representationalist explanation. The article is said to mark a move by Tolman to renounce his behaviorism and to herald a new, cognitivist psychology. I argue, opposingly, that framing the text with reference to later psychology badly distorts its meaning. The text is better understood with respect to the contexts of its age and deeper currents in the history of psychology. Tolman is not upturning behaviorism; he is re-litigating an intramural debate between behaviorists pertaining to the place of physiology in psychology.
Traditionally the search for extraterrestrial intelligence (SETI) has been mostly a kind of engineering task, based on two assumptions: the existence of other technological culture somewhere in our Galaxy and that this culture is using radiotechnology that can be detected with our receivers. However, SETI endeavors could benefit more by expanding its scope into two-folded interdisciplinary research program, one exploring the nature of human, other animals, and artificial cognition, and the another exploring all possible and hypothetical ways and channels that potential ETI could use to manifest itself. This kind of new research program could be named cognitive astrobiology in order to better describe its research areas.
Behavioral Network Science explains how and why structure matters in the behavioral sciences. Exploring open questions in language evolution, child language learning, memory search, age-related cognitive decline, creativity, group problem solving, opinion dynamics, conspiracies, and conflict, readers will learn essential behavioral science theory alongside novel network science applications. This book also contains an introductory guide to network science, demonstrating how to turn data into networks, quantify network structure across scales, and hone one's intuition for how structure arises and evolves. Online R code allows readers to explore the data and reproduce all the visualizations and simulations for themselves, empowering them to make contributions of their own. For data scientists interested in gaining a professional understanding of how the behavioral sciences inform network science, or behavioral scientists interested in learning how to apply network science from the ground up, this book is an essential guide.
Artificial intelligence and cognitive science are two core research areas in design. Artificial intelligence shows the capability of analysing massive amounts of data which supports making predictions, uncovering patterns and generating insights in varying design activities, while cognitive science provides the advantage of revealing the inherent mental processes and mechanisms of humans in design. Both artificial intelligence and cognitive science in design research are focused on delivering more innovative and efficient design outcomes and processes. Therefore, this thematic collection on “Applications of Artificial Intelligence and Cognitive Science in Design” brings together state-of-the-art research in artificial intelligence and cognitive science to showcase the emerging trend of applying artificial intelligence techniques and neurophysiological and biometric measures in design research. Three promising future research directions: 1) human-in-the-loop AI for design, 2) multimodal measures for design, and 3) AI for design cognitive data analysis and interpretation, are suggested by analysing the research papers collected. A framework for integration of artificial intelligence and cognitive science in design, incorporating the three research directions, is proposed to inspire and guide design researchers in exploring human-centred design methods, strategies, solutions, tools and systems.
In this chapter, the remit of theoretical linguistics is located within the background of a set of theoretical questions. These questions pertain to issues of ontology, methodology, acquisition, communication, and evolution. The overarching field is distinguished from other pursuits within applied linguistics that have a more practical focus but are argued to subsume certain experimental approaches. The first part of the chapter discusses the role of grammaticality and formal grammars in linguistic theory. Here, the issue of whether the rules of language have normative force is introduced as well as whether the target of scientific linguistics is individual languages or some universal core of human language generally. The question of what a grammar is, a theory, model, or some other device, is presented based on a brief literature review on the topic with a nudge towards a certain scientific instrumentalism about these matters. Next, the chapter asks whether linguistics is best viewed as an empirical social or cognitive science. Arguments are presented on both sides. Naturalism and normativity figure prominently in this debate. Finally, an outline of each chapter of the book is provided with an aim to either precisify or reflect on the philosophical issues presented in this opening chapter.
What is the remit of theoretical linguistics? How are human languages different from animal calls or artificial languages? What philosophical insights about language can be gleaned from phonology, pragmatics, probabilistic linguistics, and deep learning? This book addresses the current philosophical issues at the heart of theoretical linguistics, which are widely debated not only by linguists, but also philosophers, psychologists, and computer scientists. It delves into hitherto uncharted territory, putting philosophy in direct conversation with phonology, sign language studies, supersemantics, computational linguistics, and language evolution. A range of theoretical positions are covered, from optimality theory and autosegmental phonology to generative syntax, dynamic semantics, and natural language processing with deep learning techniques. By both unwinding the complexities of natural language and delving into the nature of the science that studies it, this book ultimately improves our tools of discovery aimed at one of the most essential features of our humanity, our language.
What if formularity, meter, and Kunstsprache in Homer weren't abstract, mechanical systems that constrained the poet's freedom, but rather adaptive technologies that helped poets to sustain feats of great creativity? This book explores this hypothesis by reassessing the key formal features of Homer's poetic technique through the lenses of contemporary linguistics and the cognitive sciences, as well as by drawing some unexpected parallels from the contemporary world (from the dialects of English used in popular music, to the prosodic strategies employed in live sports commentary, to the neuroscience of jazz improvisation). Aimed at Classics students and specialists alike, this book provides thorough and accessible introductions to the main debates in Homeric poetics, along with new and thought-provoking ways of understanding Homeric creativity.
This introductory chapter delves into the inception of developmental cognitive neuroscience, a field shaped by historical inquiries into brain development, childhood learning, and the nature–nurture debate. We trace the origins of this interdisciplinary endeavor, revealing how it has emerged as a pioneering approach to comprehending human development. In this chapter, we dissect the core components of developmental cognitive neuroscience: development, cognition, and neuroscience. We elucidate their interconnectedness, underpinning theories, and evolving methodologies, spotlighting the transformative impact of recent technological strides. Throughout the book, our emphasis remains on the synthesis of these elements, illustrating their collective role in advancing our comprehension of human development. This chapter establishes the groundwork for an engaging exploration of the intricate interplay between brain maturation, cognitive processes, and the unfolding of human potential.
How does human language arise in the mind? To what extent is it innate, or something that is learned? How do these factors interact? The questions surrounding how we acquire language are some of the most fundamental about what it means to be human and have long been at the heart of linguistic theory. This book provides a comprehensive introduction to this fascinating debate, unravelling the arguments for the roles of nature and nurture in the knowledge that allows humans to learn and use language. An interdisciplinary approach is used throughout, allowing the debate to be examined from philosophical and cognitive perspectives. It is illustrated with real-life examples and the theory is explained in a clear, easy-to-read way, making it accessible for students, and other readers, without a background in linguistics. An accompanying website contains a glossary, questions for reflection, discussion themes and project suggestions, to further deepen students understanding of the material.
This chapter provides an introduction and an overview of computational cognitive sciences. Computational cognitive sciences explore the essence of cognition and various cognitive functionalities through developing mechanistic, process-based understanding by specifying corresponding computational models. These models impute computational processes onto cognitive functions and thereby produce runnable programs. Detailed simulations and other operations can then be conducted. Understanding the human mind strictly from observations of, and experiments with, human behavior is ultimately untenable. Computational modeling is therefore both useful and necessary. Computational cognitive models are theoretically important because they represent detailed cognitive theories in a unique, indispensable way. Computational cognitive modeling has thus far deepened the understanding of the processes and the mechanisms of the mind in a variety of ways.
The Cambridge Handbook of Computational Cognitive Sciences is a comprehensive reference for this rapidly developing and highly interdisciplinary field. Written with both newcomers and experts in mind, it provides an accessible introduction of paradigms, methodologies, approaches, and models, with ample detail and illustrated by examples. It should appeal to researchers and students working within the computational cognitive sciences, as well as those working in adjacent fields including philosophy, psychology, linguistics, anthropology, education, neuroscience, artificial intelligence, computer science, and more.
The search for the 'furniture of the mind' has acquired added impetus with the rise of new technologies to study the brain and identify its main structures and processes. Philosophers and scientists are increasingly concerned to understand the ways in which psychological functions relate to brain structures. Meanwhile, the taxonomic practices of cognitive scientists are coming under increased scrutiny, as researchers ask which of them identify the real kinds of cognition and which are mere vestiges of folk psychology. Muhammad Ali Khalidi present a naturalistic account of 'real kinds' to validate some central taxonomic categories in the cognitive domain, including concepts, episodic memory, innateness, domain specificity, and cognitive bias. He argues that cognitive kinds are often individuated relationally, with reference to the environment and etiology of the thinking subject, whereas neural kinds tend to be individuated intrinsically, resulting in crosscutting relationships among cognitive and neural categories.