Neuroscientist

A neuroscientist studies the nervous system, connecting its structure, activity, development or evolution to function. Experiments can address processes from ion channels to animal behaviour; an explanation at one scale need not replace measurements at another.

A computational neuroscientist develops or analyzes quantitative models of the nervous system. A model can connect a proposed mechanism to measurable neuron activity or animal behaviour, making its assumptions and predictions explicit.

A computational neuroscientist whose work includes statistical models of neural trajectories.^[ref]

A neuroanatomist studies the structure and connections of the nervous system. Mapping a pathway establishes possible routes for communication; experiments are still needed to determine when and how those routes contribute to function.

A neuroanatomist associated with the historical Papez circuit.^[ref]

A neuroanatomist whose historical observations helped associate left frontal injury with impaired articulate speech. Their interpretation is reassessed by modern lesion imaging.^[ref]

His drawings of neurons made their branching structure visible with extraordinary clarity. The historical illustration under Purkinje cell shows how different neurons can occupy the same part of the cerebellum while having strikingly different shapes.

A cognitive neuroscientist investigates how the nervous system supports cognition, including memory retention, attention and perception. Combining behavioral measurements with recordings or perturbations helps distinguish association from a causal contribution.

A researcher who coauthored single-neuron recordings during viewing and later free recall of cinematic episodes. Reactivation in the hippocampus connected remembered content with internally generated neural activity rather than ongoing visual stimulation.^[ref]

A researcher who developed a relational account of declarative memory. The proposal connected the hippocampus with organization and flexible expression of relationships among remembered events, distinguishing a theoretical account from one isolated recognition task.^[ref]

A researcher who coauthored experiments manipulating feature ambiguity in visual discrimination. Comparing overlapping features tested a role for the perirhinal cortex in representing combinations, beyond describing it solely as a memory store.^[ref]

A researcher who coauthored comparisons of visual discrimination after perirhinal cortex ablation. Simultaneous oddity tasks and feature controls helped distinguish perceptual demands from a delay-dependent memory explanation.^[ref]

A researcher who coauthored functional-imaging experiments separating later memory for an item from memory for its source. Contrasting encoding tasks helped identify different routes to successful remembering.^[ref]

A researcher who coauthored recordings of hippocampal time cells during event sequences separated by a delay. Changing temporal structure tested how firing tracked position within an interval.^[ref]

A researcher who coauthored experiments combining odor, location and temporal information in a hippocampus-dependent memory task. Cue-combination probes tested memory for relationships rather than mere detection of one cue.^[ref]

A researcher who coauthored a comparison of event-sequence judgments and item recognition after hippocampal lesions. The contrast tested the contribution of the hippocampus to temporal organization of remembered events.^[ref]

A researcher who coauthored behavioral comparisons of action representation and social understanding in autistic children. The study tested predictions of a mirror-system deficit account without directly recording individual mirror neurons.^[ref]

A researcher who coauthored first-impression experiments comparing audiovisual, auditory, image and transcript information about autistic people. Separating presentation formats tested which information contributed to judgments about social interaction.^[ref]

A researcher who coauthored experiments passing story information along groups with different neurotype compositions. The design investigated communication as an interaction between participants rather than a fixed capacity measured in one person alone.^[ref]

A researcher who coauthored brain-imaging comparisons of spontaneous and explicitly instructed responses to others’ experiences in a selected offender sample. Separating conditions helped distinguish a spontaneous response from capacity under instruction.^[ref]

A researcher who coauthored measurement analyses of heartbeat-counting scores. Examining how the score relates to the counted and actual rates helped expose limitations in treating it as a pure measure of interoception.^[ref]

A researcher who coauthored studies separating associations of alexithymia and autism with heartbeat-counting performance. The diagnostic comparison and the validity of the physiological task are distinct parts of the inference.^[ref]

A researcher who coauthored experiments distinguishing objective interoceptive accuracy, subjective sensibility and metacognitive awareness. Separating performance from confidence clarified why one questionnaire or task cannot stand for every aspect of interoception.^[ref]

A researcher who coauthored experiments comparing compatibility between observed and executed finger movements. Symbolic, spatial and action-identity controls helped distinguish automatic imitation from other response-compatibility effects.^[ref]

A researcher who coauthored intracranial recordings during execution and observation of actions in a clinical sample. Single-neuron measurements connected individual responses with both conditions, while clinically determined electrode placement constrained the sampled regions.^[ref]

A researcher who coauthored macaque action-observation experiments including partly hidden object interactions. Occlusion conditions tested the information required for responses beyond a fully visible movement.^[ref]

A researcher who coauthored single-neuron recordings in macaque premotor cortex during action execution and observation. Comparing the two conditions established a cellular response pattern, which is distinct from demonstrating every proposed social function of a mirror system.^[ref]

A researcher who coauthored neuroimaging studies separating alexithymia from autism in responses to another person’s pain. Measuring both characteristics helped distinguish a diagnostic-group difference from a correlated individual trait.^[ref]

A researcher who coauthored comparisons of emotional and cognitive empathy after focal brain lesions. Different lesion groups and task demands were used to test whether these capacities could be dissociated.^[ref]

A cognitive neuroscientist investigating language, literacy and related cognitive processes.^[ref]

A researcher who coauthored investigations of picture naming in chronic aphasia after targeted transcranial magnetic stimulation. A change following stimulation tested a possible contribution of a region to performance rather than only its activation during a task.^[ref]

A researcher who coauthored direct comparisons of spoken and sign language processing. Comparing sensory and motor modalities helped distinguish linguistic organization from the physical form of the input or response.^[ref]

A researcher who coauthored studies of phonological processing in deaf signers with different ages of first-language acquisition. The comparison linked language experience with neural organization while distinguishing age of acquisition from the sensory modality of language.^[ref]

A researcher who coauthored studies relating syntactic processing to damage of dorsal language tracts. Mapping behavioral deficits against pathway anatomy tested a network contribution to sentence comprehension.^[ref]

A researcher who coauthored comparisons of neural-network connectivity in children who stutter. The work related developmental speech differences to interacting pathways rather than assigning fluency to one isolated brain location.^[ref]

A researcher who coauthored structural brain-imaging studies of an inherited speech and language disorder. Comparing affected and unaffected individuals connected a familial phenotype with anatomical variation.^[ref]

A researcher who coauthored a stimulation experiment on judgments about observed actions. Person-lifting, bouncing-ball and duration controls tested the specificity of a contribution from left inferior frontal cortex.^[ref]

A researcher who coauthored comparisons of phonetic and pitch discrimination in language processing. Contrasting tasks on related sounds helped distinguish linguistic analysis from other auditory computations.^[ref]

A cognitive neuroscientist whose patient studies investigated decision-making across immediate and future consequences.

A cognitive neuroscientist whose research includes the relationship between incentives and physical effort after basal ganglia injury.

A cognitive neuroscientist whose brain lesion studies examine working memory, executive functions and intelligence.

A cognitive neuroscientist whose research includes patient and experimental studies of action stopping.

A cognitive neuroscientist whose research distinguishes semantic representations from the control of their use, including comparisons between stroke aphasia and semantic dementia.

A researcher in language and cognitive neuropsychology whose case-series work investigated acoustic–phonological and semantic control impairments in Wernicke's aphasia.

A researcher who coauthored multivariate analyses of autonomic and reported emotional responses. Classification tested patterns distributed across measurements rather than assuming that one bodily variable uniquely identifies one emotion.^[ref]

A researcher who coauthored investigations of impaired fear recognition after amygdala damage. Testing how participants sampled facial information helped connect a recognition deficit with a more specific perceptual mechanism.^[ref]

A researcher who coauthored studies using the Salience Attribution Test in schizophrenia. The task separated adaptive and irrelevant cue associations, providing an operational test of one part of an aberrant-salience account.^[ref]

A researcher who coauthored symptom-capture imaging studies of auditory hallucinations in psychotic and nonpsychotic groups. Comparing episode-related activation distinguished a measured neural response from the broader clinical significance of the experience.^[ref]

A researcher who coauthored imaging experiments comparing belief stories with other representations. Matched nonmental controls tested a contribution of temporoparietal regions to reasoning about other minds.^[ref]

A researcher who coauthored experiments combining placebo analgesia, pain ratings and opioid antagonism. The interventions tested shared contributions to experienced and vicarious pain without assuming that every aspect of the two experiences is identical.^[ref]

A researcher who coauthored multivariate comparisons of experienced and vicarious pain. Specificity and cross-prediction analyses tested whether patterns predicting one response also predicted the other.^[ref]

A researcher who coauthored imaging comparisons between receiving pain and observing a partner’s pain. Contrasting conditions tested shared and distinct components rather than equating empathy with direct sensory experience.^[ref]