| Edelman; Remembered Present | |||||
| Book | Page | Topic | |||
| Edelman; Remembered Present | 10 | Theory of Neuronal Group Selection (TNGS) | |||
| Edelman; Remembered Present | 37 | Neural Darwinism | 27 | ||
| Edelman; Remembered Present | 41 | Rich nervous systems like those of vertebrates cannot have precise, prespecified, point-to-point wiring. | 4 | ||
| Edelman; Remembered Present | 43 | Theory of Neuronal Group Selection (TNGS) - (1) Developmental selection, (2) Experimental selection, (3) Reentry | 2 | ||
| Edelman; Remembered Present | 45 | Three fundamental mechanisms in neuronal group selection - (diagram) | 2 | ||
| Edelman; Remembered Present | 49 | Perception is the adaptive discrimination of an object or event from background. | 4 | ||
| Edelman; Remembered Present | 51 | Although single neurons could occasionally serve as units of selection, in general, only collections of neurons in groups provide a sufficient basis for mapping interactions. | 2 | ||
| Edelman; Remembered Present | 64 | Primary consciousness is supposed to arise as a result of reentrant circuits connecting special memory functions to those mediating current perceptual categorizations. | 13 | ||
| Edelman; Remembered Present | 67 | Some anatomical patterns showing reentrant connectivity. - (diagram) | 3 | ||
| Edelman; Remembered Present | 72 | Reentrant integration obviates the need for a higher-level command center. | 5 | ||
| Edelman; Remembered Present | 91 | Consciousness is a process; it depends upon the particular organization of certain parts of the brain, and not upon the whole brain. | 19 | ||
| Edelman; Remembered Present | 92 | Proposed adaptive functions of consciousness - (table) | 1 | ||
| Edelman; Remembered Present | 93 | Memory is a process of continual recategorization. | 1 | ||
| Edelman; Remembered Present | 93 | Learning involves relating perceptual categorization and memory to a definite set of values. | 0 | ||
| Edelman; Remembered Present | 101 | Mental image - reentrant connection of the value-category memory to cortical systems carrying out perceptual categorizations. | 8 | ||
| Edelman; Remembered Present | 109 | Memory arises from alterations of synaptic efficacies in global mappings as a result of facilitation of particular categorizations or of motor patterns. | 8 | ||
| Edelman; Remembered Present | 120 | Brain deals mainly with patterns of movement, more specifically with gestures. [FAPs] | 11 | ||
| Edelman; Remembered Present | 121 | Synergy - a class of related gestures. | 1 | ||
| Edelman; Remembered Present | 121 | Perceptual categorization depends upon global mappings that relate gestural movements to sensory signals. | 0 | ||
| Edelman; Remembered Present | 121 | Global mappings are dynamic systems consisting of multiple reentrant local maps that correlate sensory input with motor activity. [Fuster's perception-action cycle] | 0 | ||
| Edelman; Remembered Present | 121 | Cerebellum, motor cortex, spinal cord, contribute to global mappings that allow smooth succession of movements. | 0 | ||
| Edelman; Remembered Present | 121 | Categorization of motion, particularly in novel tasks and situations; categorization of gestures. | 0 | ||
| Edelman; Remembered Present | 122 | Cerebellum has a very large sensory input. Mossy fiber inputs come from spinal cord tracts serving somatosensory roles as well as from vestibular nuclei and the pons. | 1 | ||
| Edelman; Remembered Present | 122 | Cerebellum receives climbing fiber inputs arising in the inferior olive. | 0 | ||
| Edelman; Remembered Present | 122 | Simplified diagram of basic features of working of cerebellum with brain stem area and cerebral cortex. Pons, mossy fiber projection, granular cell layer of cerebellar cortex; Inferior Olive, climbing fibers to Purkinje cells. | 0 | ||
| Edelman; Remembered Present | 124 | Motor cortex signals initiating a movement is relayed via climbing fibers to Purkinje cell. Connections with the inferior olive are involved in sequencing these signals. | 2 | ||
| Edelman; Remembered Present | 126 | Cerebellum - rapid response to successive sensory inputs; "sculpt" a series of cortical or spinal outputs for gestures. | 2 | ||
| Edelman; Remembered Present | 126 | Cerebellum acts to carry out synchronization and reflex gain control in motor programs, but it is not likely to initiate motor sequences. | 0 | ||
| Edelman; Remembered Present | 126 | Cerebellum is a modulating device, working with the cortex to categorize together the smooth succession of motions in gestures and the succession of gestures in synergies. | 0 | ||
| Edelman; Remembered Present | 126 | Selection of spontaneous gestures during motor learning. [FAPs] | 0 | ||
| Edelman; Remembered Present | 126 | Rapid, parallel sensory activity engaging many parts of the cerebellum in different successions that yields the basis of the smoothing of motor activity that is essential to the categorical perceptions leading to consciousness. | 0 | ||
| Edelman; Remembered Present | 126 | Motor activity is rapid and reflexive and is carried out in global mappings without conscious intervention. [FAPs] | 0 | ||
| Edelman; Remembered Present | 126 | Cerebellum is essential in early motor learning that relates the categorization of gestures to perceptual categorizations. | 0 | ||
| Edelman; Remembered Present | 126 | Cerebellum contributes to feature correlation and is an indispensable early component in forming the basis of memory and ultimately of primary consciousness. | 0 | ||
| Edelman; Remembered Present | 126 | Cerebellum has no direct role in consciousness. | 0 | ||
| Edelman; Remembered Present | 127 | Succession of such perceptual categorizations yielding a short-term memory, critical to consciousness; hippocampus as an organ of succession. | 1 | ||
| Edelman; Remembered Present | 127 | Structure of the cortex suggests that it has no direct role in linking categorizations that are successive in time. | 0 | ||
| Edelman; Remembered Present | 128 | Hippocampus anatomy and principal connections | 1 | ||
| Edelman; Remembered Present | 128 | Major efferents of the hippocampal formation travel in a massive fiber bundle, the fornix. | 0 | ||
| Edelman; Remembered Present | 128 | Another portion of the fornix contains fibers traveling to the mammillary bodies, which in turn connect to the anterior ventral nucleus of the thalamus, then to the cingulate gyrus, and other regions of the limbic such as the entorhinal cortex itself. | 0 | ||
| Edelman; Remembered Present | 128 | Route from the hippocampus via mammillary bodies and thalamus to the cingulate gyrus makes up the outer loop of the limbic system sometimes called the Papez loop. | 0 | ||
| Edelman; Remembered Present | 129 | Hippocampus is one of the regions engaged in matching perceptually significant input from sensory stimuli with subcortical signals arising from centers mediating adaptive internal values and hedonic states. | 1 | ||
| Edelman; Remembered Present | 129 | Septal inputs and other subcortical inputs can influence the structure of firing patterns in the hippocampus and alter the efficiency of global mappings. | 0 | ||
| Edelman; Remembered Present | 129 | Hippocampus role in attention states and in laying down long-term value-category memory in the cortex. | 0 | ||
| Edelman; Remembered Present | 129 | Hippocampus inner-loop structure links the entorhinal area to the hippocampal subfields and the subiculum. | 0 | ||
| Edelman; Remembered Present | 129 | Extrinsic connections that link the entorhinal area and the cingulate to a large variety of secondary or tertiary areas in the temporal, frontal and parietal cortices are strongly reentrant. | 0 | ||
| Edelman; Remembered Present | 130 | Entorhinal area is small in comparison with the various input and output areas, suggesting extensive convergence and divergence in the circuitry. | 1 | ||
| Edelman; Remembered Present | 130 | Within the hippocampus, main input from the entorhinal area proceeds into the dentate fascia via granule cell mossy fibers to the pyramidal cells of subfield CA3. | 0 | ||
| Edelman; Remembered Present | 130 | CA3 cells send Schaffer collaterals to the pyramidal cells of subfield CA1, which in turn connect to the subiculum. | 0 | ||
| Edelman; Remembered Present | 130 | Subiculum connects back to the entorhinal area to close the loop. Edelman calls this the inner loop. | 0 | ||
| Edelman; Remembered Present | 130 | Laminar structure of the subfields is essentially made of a single layer of principal cells in CA1, CA3, and dentate fascia. | 0 | ||
| Edelman; Remembered Present | 130 | Fornical-thalamocortical path | 0 | ||
| Edelman; Remembered Present | 130 | Fornical connections terminating in the cingulate cortex originate exclusively in the subiculum. Reentry from the subiculum to the entorhinal area. Edelman calls this the outer loop. | 0 | ||
| Edelman; Remembered Present | 130 | Brain stem and hypothalamic inputs enter the septum, which sends reentrant connections to the entorhinal area. | 0 | ||
| Edelman; Remembered Present | 130 | Fornical outputs connect to the mammillary bodies, then to the thalamus, and then to the cingulate gyrus. | 0 | ||
| Edelman; Remembered Present | 130 | Edelman's outer loop including the fornix connecting the hippocampus and cingulate gyrus is important for primary consciousness. | 0 | ||
| Edelman; Remembered Present | 131 | Cortical areas involving different modalities terminate on a given portion of the entorhinal area. | 1 | ||
| Edelman; Remembered Present | 131 | Excitation in a particular part of the entorhinal area passes through the inner hippocampal loop and finds its way back roughly into the cortical region where it started 10-20 msec earlier. | 0 | ||
| Edelman; Remembered Present | 131 | Through reentry, a number of the hippocampal groups would be repeatedly activated, allowing synaptic change involving long-term potentiation and an integrated response to perceptual input. | 0 | ||
| Edelman; Remembered Present | 132 | Hippocampal anatomy; convergent-divergent reentrant loop to the cortex; synaptic change by LTP; fornical connections related to value; temporal ordering of perceptual categorizations; short-term memory over seconds to minutes; initiation of long-term memory. | 1 | ||
| Edelman; Remembered Present | 133 | Succession of motor and sensory components of perceptual categorization may be related to a special long-term memory system. | 1 | ||
| Edelman; Remembered Present | 133 | Long-term memory links past value-category associations to present categorized input in a way to yield the basis of primary consciousness. | 0 | ||
| Edelman; Remembered Present | 133 | Succession, planning, and choice; the Basal Ganglia | 0 | ||
| Edelman; Remembered Present | 133 | Motor programs are sets of muscle commands put together before the beginning of a movement sequence. [Stereotyped motor programs, hierarchies of FAPs] | 0 | ||
| Edelman; Remembered Present | 133 | Motor programs permit the movement sequence to be carried out without peripheral feedback and are linked by the motor system into complexes. [Stereotyped motor programs, hierarchies of FAPs] | 0 | ||
| Edelman; Remembered Present | 134 | Parallel organization of the functionally segregated circuits going to and from cortex to basal ganglia to thalamus and back to cortex. | 1 | ||
| Edelman; Remembered Present | 135 | Main anatomical connections of the basal ganglia and their relation to the cerebral cortex. - (diagram) | 1 | ||
| Edelman; Remembered Present | 136 | Parkinson's disease, nigral dopaminergic neurons are destroyed; central role of the basal ganglia in motion and in the construction of motor plans. [Stereotyped motor programs, hierarchies of FAPs] | 1 | ||
| Edelman; Remembered Present | 137 | Cerebellum, signaling of errors in movement control, 300 msec intervals or less, timing and synchronization of smooth movements. | 1 | ||
| Edelman; Remembered Present | 138 | Organs of Succession - (table) | 1 | ||
| Edelman; Remembered Present | 138 | Hippocampus is important in connecting perceptual responses to the flux of external events, its responses extend over time periods longer than the cerebellum. | 0 | ||
| Edelman; Remembered Present | 139 | Hippocampus is necessary for long-term memory, but does not subserve it. Changes in cortical synapses subserve long-term memory. | 1 | ||
| Edelman; Remembered Present | 139 | Successions directly controlled by the hippocampus concern events in reentrant systems related to short-term memory, act in time periods up to minutes. | 0 | ||
| Edelman; Remembered Present | 139 | Basal ganglia may be involved in choices and initiations of output during planning of successions of motor programs, main activity is in short time periods, between 300 msec and several seconds. | 0 | ||
| Edelman; Remembered Present | 139 | Basal ganglia are among the major areas to increase in size during evolution of the mammalian brain in the therapsid-mammalian transition and during primate evolution. | 0 | ||
| Edelman; Remembered Present | 139 | Cortex has the major correlative role in perceptual categorization. Perceptual experience and memory of any duration require the interactive ensemble of the cortex and its appendages. | 0 | ||
| Edelman; Remembered Present | 140 | Primary consciousness links immediate perceptual categorization to memory. | 1 | ||
| Edelman; Remembered Present | 140 | Value-category memory, essential for primary consciousness. | 0 | ||
| Edelman; Remembered Present | 140 | Animals without true linguistic abilities, such as chimpanzees, have concepts. | 0 | ||
| Edelman; Remembered Present | 140 | Ability to have concepts is acquired prior to language. | 0 | ||
| Edelman; Remembered Present | 141 | An animal capable of concepts is able to identify a particular thing or action and control its future behavior on the basis of that identification. | 1 | ||
| Edelman; Remembered Present | 142 | Perceptual categorization, long-term memory, and learning are all necessary capacities for concept formation. | 1 | ||
| Edelman; Remembered Present | 143 | Frontal, prefrontal, and temporal cortex and the basal ganglia; together are good candidates to mediate the formation of concepts. | 1 | ||
| Edelman; Remembered Present | 143 | Lobsters and perhaps even birds do not have concepts; dogs might. | 0 | ||
| Edelman; Remembered Present | 143 | Brain areas for concept formation include frontal (and possibly temporal and parietal) neocortex and basal ganglia. | 0 | ||
| Edelman; Remembered Present | 143 | Global mappings are dynamic metastable patterns of activity involving mapped classification couples and nonmapped regions. | 0 | ||
| Edelman; Remembered Present | 143 | Global mappings involve large parts of the brain and various combinations of local maps for different modalities. | 0 | ||
| Edelman; Remembered Present | 143 | Global mappings involve both spatial and temporal relations. | 0 | ||
| Edelman; Remembered Present | 144 | Concept formation: categorize, discriminate, and recombine patterns of activity in different kinds of global mappings. | 1 | ||
| Edelman; Remembered Present | 144 | Brain structures responsible for concept formation: mainly frontal, temporal and parietal cortex and basal ganglia. | 0 | ||
| Edelman; Remembered Present | 144 | Prelinguistic infants appear to be able to construct concepts. | 0 | ||
| Edelman; Remembered Present | 145 | Connections via the basal ganglia could provide the necessary pathway for concepts of action. | 1 | ||
| Edelman; Remembered Present | 145 | Relate limbic activities to particular comparator functions of the cortical regions including cingulate cortex. | 0 | ||
| Edelman; Remembered Present | 145 | Through reentry, the frontal, parietal and temporal cortex may compare the activities of different combinations of brain regions, composing portions of global mappings. | 0 | ||
| Edelman; Remembered Present | 145 | Cortical areas could give rise to classifications of global mappings. | 0 | ||
| Edelman; Remembered Present | 145 | Frontal cortex ability to recombine or compare different portions of global mappings. | 0 | ||
| Edelman; Remembered Present | 145 | Frontal cortex connections to basal ganglia and limbic system, establish relations among values and categorizations of sensory experience. | 0 | ||
| Edelman; Remembered Present | 145 | In the proposed model for concepts, brain categorizes its own activities. | 0 | ||
| Edelman; Remembered Present | 146 | Long-term memories used in concept formation. | 1 | ||
| Edelman; Remembered Present | 146 | Concept formation essential for primary consciousness. | 0 | ||
| Edelman; Remembered Present | 147 | Concept formation is not the same as thinking, deducing, or inducing. | 1 | ||
| Edelman; Remembered Present | 148 | Thought - the building of conceptual theories about the world. | 1 | ||
| Edelman; Remembered Present | 151 | Perceptual categorization occurs through disjunctive sampling sensorimotor systems yielding signals to local reentrant maps, which interact to give global mappings that are continually modified by behavior and particularly by movements. | 3 | ||
| Edelman; Remembered Present | 151 | Cerebellum and cortex provide a basis for smooth movement patterns or synergies. [Stereotyped motor programs, hierarchies of FAPs] | 0 | ||
| Edelman; Remembered Present | 152 | Short-term memory emerges in terms of successions of categories that depend upon cyclic reentry between various cortical regions and the hippocampus. | 1 | ||
| Edelman; Remembered Present | 152 | Portions of the cortex become adapted to classifying different types of global mappings leading to a conceptual memory. | 0 | ||
| Edelman; Remembered Present | 152 | Learning arises as a specific linkage between category and value in terms of adaptive responses that lead to changes in behavior. | 0 | ||
| Edelman; Remembered Present | 152 | Patterns of internal value and hedonic responses are based on evolutionary selection for homeostatic and endocrine functions mediated by brain-stem and limbic structures in particular phenotypes. | 0 | ||
| Edelman; Remembered Present | 152 | Matching or linking between category and value is based on two very different kinds of nervous structures and functions: (1) the limbic and brain-stem system, (2) the thalamocortical system. | 0 | ||
| Edelman; Remembered Present | 152 | Limbic and brain-stem system; appetitive, consummatory, and defensive behavior; includes the hypothalamus, brain-stem reticular formation, amygdala, hippocampus, and septum; receives much interoceptive input from many different organ systems and the autonomic nervous system. | 0 | ||
| Edelman; Remembered Present | 152 | Limbic and brain-stem system; temporal responses occur in slow cycles. Loops depend extensively on biochemical as well as neural circuits. Appeared in evolution well before the cortex and its thalamic connections. | 0 | ||
| Edelman; Remembered Present | 152 | Thalamocortical system; strongly linked to exteroceptors; consists of thalamocortical reentrant system, primary and secondary sensory areas, and association areas; strongly linked to the main cortical appendages, cerebellum, hippocampus, and basal ganglia. | 0 | ||
| Edelman; Remembered Present | 152 | Thalamocortical system main functions are correlated with perceptual and conceptual categorization, memory, and learning. | 0 | ||
| Edelman; Remembered Present | 152 | Thalamocortical system is highly interconnected, reentrant, and layered local synaptic structure. Appeared as a later evolutionary development permitting increasingly sophisticated motor behavior. | 0 | ||
| Edelman; Remembered Present | 152 | Cortical systems served to extend the range of adaptive behavior in increasingly complex environments both to reduce threat and to serve appetitive needs. | 0 | ||
| Edelman; Remembered Present | 153 | Matching of the two disparate neural systems, limbic and thalamocortical, with the emergence of connective patterns. | 1 | ||
| Edelman; Remembered Present | 153 | Loci candidates for matching between the two systems: fornix and septal systems, hippocampus, temporal cortex, forebrain, and cingulate gyrus. | 0 | ||
| Edelman; Remembered Present | 153 | Value is mainly self-determined; evolutionary and ethological constraints related to the phenotype. | 0 | ||
| Edelman; Remembered Present | 154 | Categorized exteroceptive signals and interoceptive signals reflect homeostatic needs. | 1 | ||
| Edelman; Remembered Present | 154 | Primary consciousness arises as a discriminative comparison of previous "self categories" with the current or immediately categorized exteroceptive input. | 0 | ||
| Edelman; Remembered Present | 155 | Perceptual experience arises from the correlation by a conceptual memory of an ongoing set of perceptual categorizations. | 1 | ||
| Edelman; Remembered Present | 155 | Categorizations perforce involve motor acts, so actions and responses are a key part of the consciousness model. | 0 | ||
| Edelman; Remembered Present | 155 | Discriminative comparison between a value-dominated memory involving the conceptual system and current ongoing perceptual categorization that generates primary consciousness of objects and events. | 0 | ||
| Edelman; Remembered Present | 155 | Primary consciousness results from the interaction in real time between memories of past value-category correlations and present world input as it is categorized by global mappings. | 0 | ||
| Edelman; Remembered Present | 155 | Consciousness is an outcome of a recursively comparative memory in which previous self-nonself categorizations are continually related to ongoing present perceptual categorizations and their short-term succession. | 0 | ||
| Edelman; Remembered Present | 156 | Edelman's Primary Consciousness Model - (diagram) | 1 | ||
| Edelman; Remembered Present | 157 | Primary consciousness depends on the difference in the workings of two different neural orders -- (1) regulatory changes that are relatively slow, and (2) highly dense, rapidly changing exteroceptive input. | 1 | ||
| Edelman; Remembered Present | 157 | Memory as recategorization plays a major role in all neural processes leading to primary consciousness. | 0 | ||
| Edelman; Remembered Present | 158 | Reentry has a strong temporal and rhythmic character. | 1 | ||
| Edelman; Remembered Present | 160 | Prefrontal cortex -- formation of motor plans and their conversion via the basal ganglia and motor cortex to motor programs. | 2 | ||
| Edelman; Remembered Present | 160 | Prefrontal cortex is concerned with recognition of novelty; with foresight, choice and attention. | 0 | ||
| Edelman; Remembered Present | 160 | Orbital and mediolateral portions of the prefrontal lobe are functionally correlated with emotional alterations and disinhibition of behavior. | 0 | ||
| Edelman; Remembered Present | 161 | Prefrontal area is important in short-term memory, anticipatory set, formation of concepts, presyntax, and attentional suppression of interference. | 1 | ||
| Edelman; Remembered Present | 162 | Prefrontal cortex is an example of an area carrying out C[C(W) C(I)]. [see Sidebars - Consciousness - "Edelman's Core Consciousness Diagram"] | 1 | ||
| Edelman; Remembered Present | 162 | C(I) takes place at the midbrain level through the mesencephalic reticular formation and the diencephalic level through hypothalamic responses. It receives input from autonomic and visceral systems. [see Sidebars - Consciousness - "Edelman's Core Consciousness Diagram"] | 0 | ||
| Edelman; Remembered Present | 163 | C(W) occurs via the thalamocortical systems leading to primary and secondary cortex for each modality and via loops involving the motor cortex. Smoothing of responses by the cerebellum. [see Sidebars - Consciousness - "Edelman's Core Consciousness Diagram"] | 1 | ||
| Edelman; Remembered Present | 163 | [C(W) C(I)] occurs in the amygdala, septum, and hippocampal formation, along with the basal ganglia. [see Sidebars - Consciousness - "Edelman's Core Consciousness Diagram"] | 0 | ||
| Edelman; Remembered Present | 163 | C[C(W) C(I)] is likely to occur as a result of global mappings (involving all cortical appendages at one time or another) in frontal, parietal, temporal, and cingulate cortex. [see Sidebars - Consciousness - "Edelman's Core Consciousness Diagram"] | 0 | ||
| Edelman; Remembered Present | 163 | Reentrant process between C(W) and C[C(W) C(I)] that leads to primary consciousness. [see Sidebars - Consciousness - "Edelman's Core Consciousness Diagram"] | 0 | ||
| Edelman; Remembered Present | 166 | Reentrant model of primary consciousness implies that considerable neural processing is required before registration of a percept. | 3 | ||
| Edelman; Remembered Present | 201 | Input to the motor cortex leads to output to the spinal cord, which causes particular movements in accordance with motor plans. | 35 | ||
| Edelman; Remembered Present | 201 | Output from the motor cortex is routed to the basal ganglia, which disinhibits the thalamus; this leads to anticipatory arousal of specific cortical areas, resulting in enhanced sensitivity to the cerebral cortex. | 0 | ||
| Edelman; Remembered Present | 202 | Attention and consciousness - neuronal connections in the vertebrate central nervous system that may mediate attention and motor programming. | 1 | ||
| Edelman; Remembered Present | 202 | Motor and premotor cortices project to inhibitory neurons in the striatum. These then prevent the spontaneous firing of pallidal and nigral neurons, which send inhibitory signals to VM, VA, and intralaminar thalamic nuclei. | 0 | ||
| Edelman; Remembered Present | 202 | Distribution of thalamocortical neurons may enhance the sensitivity of neurons in primary and sensory cortical areas. | 0 | ||
| Edelman; Remembered Present | 202 | All components of the attention and consciousness system are innervated by diffuse ascending monoaminergic and cholinergic neurons in the brain stem. | 0 | ||
| Edelman; Remembered Present | 202 | Neuroanatomical connections in the mammalian cortex may underlie the reentrant neuronal circuits involved in motor programs, attention, and consciousness. - (diagram) | 0 | ||
| Edelman; Remembered Present | 202 | Subcortical structures that may be involved in attention and consciousness: globus pallidus/substantia nigra; thalamic nuclei; brain stem nuclei. | 0 | ||
| Edelman; Remembered Present | 202 | Brain stem structures: LC, locus ceruleus; PPT, pedunculopontine tegmental nucleus; RN, raphe nucleus; VTA, vertical tegmental area. | 0 | ||
| Edelman; Remembered Present | 204 | Basal ganglia serve to specify which cortical areas will be reinforced. | 2 | ||
| Edelman; Remembered Present | 204 | Anticipatory sustained enhancement of neuronal sensitivity may have been the chief contribution of the attention system in early vertebrates, leading to the subsequent evolution of higher brain functions. | 0 | ||
| Edelman; Remembered Present | 204 | Frontal and prefrontal areas are necessary for the formation of concepts related to motor plans. | 0 | ||
| Edelman; Remembered Present | 206 | Hippocampus and basal ganglia, both organs of succession, may be required to maintain focal attention. | 2 | ||
| Edelman; Remembered Present | 206 | Recovery of a particular episode of attention requires short-term memory. | 0 | ||
| Edelman; Remembered Present | 207 | Machinery of perceptual categorization - classification couples and global mappings. | 1 | ||
| Edelman; Remembered Present | 207 | Conceptual categorization is recombinational and relational. | 0 | ||
| Edelman; Remembered Present | 211 | Memory is an ability -- the ability to recategorize. | 4 | ||
| Edelman; Remembered Present | 211 | Veridicality of what is remembered cannot be described in terms of information theory, because a given memory is not replicative. | 0 | ||
| Edelman; Remembered Present | 211 | Dream states represent a state of consciousness in which there is a sharp decrease in world (W) input. | 0 | ||
| Edelman; Remembered Present | |||||