Daniel Casasanto
University of Chicago, Psychology, Faculty Member
- Cognitive Science, Cognitive Psychology, Cross-Cultural Psychology, Language Across Culture, Emotion, Cognitive Linguistics, and 15 moreMemory (Psychology), Neuropsychology of Language, Developmental Psychology, Developmental Psycholinguistics, Psychology of Music, Psychology, Psychology Of Learning, Experimental Psychology, Cognitive Neuroscience, Culture, Embodiment, Metaphor, Embodied Cognition, Conceptual Metaphor, and Fluencyedit
Research Interests:
Research Interests:
Research Interests:
In Arabic, as in many languages, the future is “ahead” and the past is “behind.” Yet in the research reported here, we showed that Arabic speakers tend to conceptualize the future as behind and the past as ahead of them, despite using... more
In Arabic, as in many languages, the future is “ahead” and the past is “behind.” Yet in the research reported here, we showed that Arabic speakers tend to conceptualize the future as behind and the past as ahead of them, despite using spoken metaphors that suggest the opposite. We propose a new account of how space-time mappings become activated in individuals’ minds and entrenched in their cultures, the temporal-focus hypothesis: People should conceptualize either the future or the past as in front of them to the extent that their culture (or subculture) is future oriented or past oriented. Results support the temporal-focus hypothesis, demonstrating that the space-time mappings in people’s minds are conditioned by their cultural attitudes toward time, that they depend on attentional focus, and that they can vary independently of the space-time mappings enshrined in language.
Research Interests:
Research Interests:
Research Interests:
Research Interests:
Research Interests:
Research Interests:
Research Interests:
Research Interests: Psychology, Cognitive Science, Experimental Psychology, Semantics, Intelligence, and 28 moreIndividuality, Mental Representation, Cognition, Embodied Cognition, Culture, Body, Handedness, Metaphor, Abstraction, Figurative language, Emotions, Space perception, Thinking, Humans, Judgment, Orientation, Concept Formation, Cognitive Mapping, Hypothesis testing, Comparative Analysis, Cognitive processes, Concept, Abstract Concepts, Physical Environment, Psychological Theory, Choice Behavior, Functional Laterality, and Psychomotor Performance
Research Interests: Psychology, Cognitive Psychology, Cognitive Science, Emotion, Cognition, and 17 moreEmbodiment, Conceptual Metaphor, Body, Abstraction, Fluency, Space, Stroke, Humans, Concept Formation, Hemiplegia, Neuronal Plasticity, Concept, Valence, Abstract Concepts, Psychological Science, Motor Skills, and Functional Laterality
Research Interests:
Research Interests:
Research Interests:
Research Interests: Psychology, Cognitive Science, Decision Making, Semantics, Embodied Cognition, and 23 moreMagnetic Resonance Imaging, Psychology of Unconscious, Reading, Handedness, Imagination, Language Processing, Motor planning, Brain Mapping, Humans, Female, Neuroimage, Male, Reaction Time, Young Adult, Motor Cortex, Lexical Decision, Premotor cortex, Mental Simulation, Adult, Psychological Science, Frontal Lobe, Functional Laterality, and Psychomotor Performance
Research Interests:
Research Interests:
The QWERTY keyboard mediates communication for millions of language users. Here, we investigated whether differences in the way words are typed correspond to differences in their meanings. Some words are spelled with more letters on the... more
The QWERTY keyboard mediates communication for millions of language users. Here, we investigated whether differences in the way words are typed correspond to differences in their meanings. Some words are spelled with more letters on the right side of the keyboard and others with more letters on the left. In three experiments, we tested whether asymmetries in the way people interact with keys on the right and left of the keyboard influence their evaluations of the emotional valence of the words. We found the predicted relationship between emotional valence and QWERTY key position across three languages (English, Spanish, and Dutch). Words with more right-side letters were rated as more positive in valence, on average, than words with more left-side letters: the QWERTY effect. This effect was strongest in new words coined after QWERTY was invented and was also found in pseudowords. Although these data are correlational, the discovery of a similar pattern across languages, which was strongest in neologisms, suggests that the QWERTY keyboard is shaping the meanings of words as people filter language through their fingers. Widespread typing introduces a new mechanism by which semantic changes in language can arise.Electronic supplementary materialThe online version of this article (doi:10.3758/s13423-012-0229-7) contains supplementary material, which is available to authorized users.
Research Interests:
Research Interests: Psychology, Cognitive Science, Emotional Memory, Mental Representation, Cognition, and 14 moreEmbodied Cognition, Imagination, Language, Autobiographical Memory, Language Production, Emotions, Humans, Cues, Memory Retrieval, Adult, Analysis of Variance, Life Change Events, Motor activity, and Neuropsychological Tests
Research Interests: Cognitive Psychology, Psychophysics, Mental Representation, Linguistic Relativity, Language and Thought, and 14 moreLinguistics, Language, Greek, Space, Figurative language, TIME, Language Learning, Cultural Differences, Cognitive Process, Cognitive processes, Experiments, Curriculum and Pedagogy, Time, and Whorfian hypothesis
Research Interests:
Research Interests: Primatology, Cognition, Embodied Cognition, Metaphor, Nonverbal Communication, and 21 moreImagination, Time Perception, Space, Figurative language, Space perception, TIME, Humans, Judgment, Female, Animals, Male, Comparative Analysis, Space Time, Cognitive processes, Adult, Time Dependent, Rhesus Monkey, Odds ratio, Macaca Mulatta, Time, and Mono
Research Interests:
Research Interests:
Research Interests: Psychology, Cognitive Science, Embodied Cognition, Theory of Mind, Magnetic Resonance Imaging, and 15 moreLexical Semantics, Cognitive Neuroscience, Adolescent, Language Comprehension, Speech acts, Humans, Female, Young Adult, Motor Cortex, Conceptual Knowledge, Human Brain Mapping, Neurosciences, Motor activity, Acoustic Stimulation, and Psychomotor Performance
Do people use sensori-motor cortices to understand language? Here we review neurocognitive studies of language comprehension in healthy adults and evaluate their possible contributions to theories of language in the brain. We start by... more
Do people use sensori-motor cortices to understand language? Here we review neurocognitive studies of language comprehension in healthy adults and evaluate their possible contributions to theories of language in the brain. We start by sketching the minimal predictions that an embodied theory of language understanding makes for empirical research, and then survey studies that have been offered as evidence for embodied semantic representations. We explore four debated issues: first, does activation of sensori-motor cortices during action language understanding imply that action semantics relies on mirror neurons? Second, what is the evidence that activity in sensori-motor cortices plays a functional role in understanding language? Third, to what extent do responses in perceptual and motor areas depend on the linguistic and extra-linguistic context? And finally, can embodied theories accommodate language about abstract concepts? Based on the available evidence, we conclude that sensori-motor cortices are activated during a variety of language comprehension tasks, for both concrete and abstract language. Yet, this activity depends on the context in which perception and action words are encountered. Although modality-specific cortical activity is not a sine qua non of language processing even for language about perception and action, sensori-motor regions of the brain appear to make functional contributions to the construction of meaning, and should therefore be incorporated into models of the neurocognitive architecture of language.