ライフサイエンスコーパス: brain atlas

1 enome-wide expression digital library (Allen Brain Atlas).

2 erature, and lesions were mapped to a common brain atlas.

3 terations in mutants, and to map them onto a brain atlas.

4 mouse protein genes is provided in the Allen Brain Atlas.

5 o a standard Montreal Neurological Institute brain atlas.

6 n transcriptome by using data from the Allen Brain Atlas.

7 e is available as the Allen Developing Mouse Brain Atlas.

8 e regions agreed well with the Paxinos mouse brain atlas.

9 e and those reported in a standardized mouse brain atlas.

10 ion channels in the DR using the Allen Mouse Brain Atlas.

11 m 20 to 60 min were analyzed using a digital brain atlas.

12 and lesion locations were mapped to a common brain atlas.

13 EEG frequency bands according to a Talairach brain atlas.

14 ased on a scale-invariant, interactive mouse brain atlas.

15 ible future directions in the development of brain atlases.

16 information sourced from two published human brain atlases.

17 large ISH image databases such as the Allen Brain Atlas 1 and the Max-Planck Institute 2 using our m

18 based (ISH) expression patterns in the Allen Brain Atlas, a genome-wide survey of 21,000 expression p

19 urce of spatial expression data is the Allen Brain Atlas (ABA), a comprehensive genome-wide in situ h

20 ion data for thousands of genes in the Allen Brain Atlas (ABA).

21 eb application that comprise the Allen Human Brain Atlas, an open online resource that integrates gen

22 oss the atlas with data from the Allen Human Brain atlas and identified receptor- and transporter-spe

23 available resources, such as the Allen Mouse Brain Atlas and microarray data sets, by providing quant

24 ISH data for over 16,000 genes in the Allen Brain Atlas and validate our analysis with RNA sequencin

25 Brain atlases and associated databases have great potent

26 tlined by coregistration with a standard rat brain atlas, and percentage injected dose/cm(3) and bind

27 sk genes were extracted from the Allen Human Brain Atlas, and their average profile across the cortex

28 medius in the Karten and Hodos (1967) pigeon brain atlas, and what was identified as the hypoglossal

29 Brain atlases are a fundamental resource for neuroscienc

30 equently, our data may allow using the Allen Brain Atlas as a source of basal information, which shou

31 in mouse brain tissue, using the Allen Mouse Brain Atlas as the curated anatomical data source that i

32 into genetic subdivisions, creating a human brain atlas based solely on genetically informative data

33 the motor trigeminal nucleus (5TT) in rodent brain atlases, because it was thought to be a subset of

34 Available via the Allen Brain Atlas data portal (www.brain-map.org), the Atlas i

35 resources can be accessed through the Allen Brain Atlas data portal.

36 earches enable users to query multiple Allen Brain Atlas data sets simultaneously.

37 nal and sagittal images from the Allen Mouse Brain Atlas database.

38 nd their expression patterns in a searchable brain atlas database.

39 Here we present a canine brain atlas derived as the diffeomorphic average of a po

40 review the resources available at the Allen Brain Atlas, describing each product and data type [such

41 Furthermore, brain atlases extend analysis of functional magnetic res

42 tial gene expression patterns from the Allen Brain Atlas for the adult mouse with panels of cell type

43 uction of automatically labeled age-specific brain atlases for neonates and the developing brain.

44 The Allen Brain Atlas in particular has utilized this technology t

45 sed a data set of 2,872 genes from the Allen Brain Atlas in the experiments.

46 iscuss the methods involved in making an MRI brain atlas, including registration of multiple data set

47 the transformation of the PET-derived human brain atlas into a protein density map of the serotonin

48 The Allen Human Brain Atlas is a freely available multimodal atlas of ge

49 ex, as demonstrated using a population-based brain atlas method, with a trend toward association with

50 - and magnetic resonance imaging-based human brain atlas of important serotonin receptors and the tra

51 fining the posterior border according to the brain atlas of Talairach and Tournoux and by applying st

52 There is a need for an improved digital brain atlas of the spatiotemporal maturation of the feta

53 For both humans and macaque monkeys, digital brain atlases of many varieties are in widespread use, e

54 Brain atlases play an important role in effectively comm

55 Brain atlases play an increasingly important role in neu

56 The Allen Brain Atlas provides a unique online public resource int

57 The Allen Developing Mouse Brain Atlas provides high-resolution 3-D in situ hybridi

58 All of the Allen Brain Atlas resources can be accessed through the Allen

59 Neuroanatomical data from the Allen Brain Atlas reveal several modules with spatial colocali

60 all 20,737 genes present in the Allen Human Brain Atlas showed the set of top 100 strongest correlat

61 y converted to Montreal Neurologic Institute brain atlas space using an internally developed PET targ

62 General pattern matching of a digital brain atlas to an individual MR image is a mathematicall

63 We present the first digital human brain atlas to incorporate neuroimaging, high-resolution

64 ss this possibility, we used data from Allen Brain Atlas to investigate variability in gene expressio

65 ling by simultaneously warping a pre-labeled brain atlas to the longitudinal brain images.

66 of human connectivity research is the use of brain atlases to compare findings across individuals and

67 Linking different brain atlases to one another and to online databases con

68 The in situ hybridization Allen Mouse Brain Atlas was mined for proteases expressed in the som

69 rencing a bicommissural stereotactic macaque brain atlas, we created a PET brain template using coreg

70 Using the Allen Brain Atlas, we evaluated 159 regions of adult mouse bra

71 t-mortem gene expression data from the Allen Brain Atlas, we investigated the impact of transcription