ライフサイエンスコーパス: spatial processing

1 ctivation being postulated to interfere with spatial processing.

2 most powerfully observed for face memory and spatial processing.

3 pocampus, an area of the brain involved with spatial processing.

4 rmance, most consistently in face memory and spatial processing.

5 ciptal areas further suggested impairment in spatial processing.

6 as that are typically associated with visual-spatial processing.

7 portance of the superior temporal sulcus for spatial processing.

8 Aged mPFC neurons showed normal spatial processing.

9 ion-dependent processes drive this change in spatial processing.

10 ) that may deliver vibrissal cues to PPC for spatial processing.

11 ty-independent circuits specialized for fine spatial processing.

12 ntrolateral prefrontal cortex is involved in spatial processing.

13 ecrease in a behavioral measure of selective spatial processing.

14 es in noise filtering, intensity coding, and spatial processing.

15 d prefrontal regions specialized in auditory spatial processing.

16 ria with LOD scores >2.2 were identified for spatial processing (2p25 and 16q23), sensorimotor dexter

17 We investigated how auditory spatial processing adapts to stimulus statistics by pres

18 e corticostriatal-thalamic network mediating spatial processing and directed attention.

19 ical components of the circuitry involved in spatial processing and directed attention.

20 d extensively with brain regions involved in spatial processing and eye movement control.

21 memory component, but depends more on visuo-spatial processing and is most sensitive to dysfunction

22 campal CA fields directly and, thus, informs spatial processing and memory.

23 ion of neurogenesis in the face of increased spatial processing and physical activity demands.

24 nd another that emphasizes the importance of spatial processing and scene construction.

25 Thus, in addition to their role in spatial processing and sensorimotor integration, posteri

26 structures might be especially important for spatial processing and spatial memory.

27 The first explores auditory spatial processing and the role of the auditory cortex i

28 ion/flexibility, verbal memory, face memory, spatial processing, and emotion processing and for speed

29 d monkeys can lead to behavioral deficits in spatial processing, and many parietal neurons, such as i

30 ub region within a brain network involved in spatial processing, and necessary for episodic memory.

31 cutive function, learning and memory, visual-spatial processing, and psychomotor function.

32 object detection, coordinate and categorical spatial processing, and temporal ordering for visual obj

33 in most sensory and motor tasks, timing and spatial processing are intrinsic properties of neural fu

34 er, the results reveal strong differences in spatial processing between hippocampal area CA1 and VS,

35 We conclude that spatial processing bias following pulvinar damage can be

36 lucidating this process illuminates not only spatial processing but also, more generally, how the bra

37 ical and lesion studies implicate the OFC in spatial processing, but there is little direct evidence

38 ween the two states, such as most aspects of spatial processing, but there were significant differenc

39 nal organization, they also demonstrate that spatial processing co-localizes with visual processing a

40 These findings delineate auditory spatial processing deficits in typical and posterior Alz

41 tral stimuli and controlled for mnemonic and spatial processing demands, both important issues given

42 define ventrolateral object and dorsolateral spatial processing domains in the prefrontal cortex of n

43 lly coupled with hippocampal place cells for spatial processing during natural behavior.

44 erolateral temporal cortex involved in visuo-spatial processing during the RPM.

45 the establishment of modules with different spatial processing emphasis.

46 tative role for vision in restoring auditory spatial processing following potential cross-modal reorg

47 It is widely held that the spatial processing functions underlying rodent navigatio

48 This offers a novel means for investigating spatial-processing impairments in hemispatial neglect.

49 A recent study of spatial processing in amusia makes a controversial claim

50 ocused on visual working memory and auditory spatial processing in dorsolateral prefrontal cortex (PF

51 a virtual space paradigm to assess auditory spatial processing in patient cohorts with clinically ty

52 iolation, suggesting a unique involvement of spatial processing in signed syntax.

53 varying degrees to understand the genesis of spatial processing in the amygdala.

54 endent on structures in this region, such as spatial processing in the case of the hippocampus.

55 ctivation being postulated to interfere with spatial processing in the hippocampal circuit.

56 functional homologues correlated with better spatial processing in the neglected hemispace during bot

57 Visual and somesthetic cues are used for spatial processing in the posterior parietal cortex (PPC

58 visual inputs to auditory cortex can enhance spatial processing in the presence of multisensory cues

59 the parietal lobe activation associated with spatial processing in the undisturbed driving task decre

60 Spatial processing is a core component of auditory scene

61 ive computation, but rather that hippocampal spatial processing is an active process likely regulated

62 iscrimination performance, for example, when spatial processing is required and the stimuli have a hi

63 regions that participate in both object and spatial processing may be specialized for flexible exper

64 te that hippocampal-dependent impairments in spatial processing may occur prior to parietal cortex-de

65 We propose that the spatial processing mode is complemented by a temporal on

66 early theories of PPA emphasized its role in spatial processing, more recent reports of its function

67 zation--e.g., right brain specialization for spatial processing--necessitating a convergence of infor

68 lationship between preparatory activation of spatial processing networks and efficient conflict resol

69 mice, we find surprising asymmetries in the spatial processing of eye-specific visual input in binoc

70 onments, we examined the effects on auditory spatial processing of rearing ferrets with localization

71 impacts the brain circuits dedicated to the spatial processing of touch.

72 However, the spatial processing properties of individual SBCs and the

73 attention; verbal, face, and spatial memory; spatial processing; sensorimotor processing; and emotion

74 uous performance test (CPT-AC), and CVc with spatial processing (SPD-CVc).

75 stem are crucial for aspects of temporal and spatial processing, such as theta oscillations and grid

76 al regions involved in visual, auditory, and spatial processing that supported stimulus-specific repr

77 Activity specific for spatial processing was isolated by contrasting discrimin

78 eto-occipital activity, possibly involved in spatial processing, was also revealed in children with C

79 Neuroanatomical correlates of auditory spatial processing were assessed using voxel-based morph

80 ortex thought to be concerned primarily with spatial processing, whereas the posterior pseudosylvian