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1 ed actin structures with low mobility (actin blobs).
2 l area (MT) and their relationship to the CO blobs.
3 ompared to the positions of the overlying CO blobs.
4 on of MT-projecting cells with the overlying blobs.
5 elation between the cell distribution and CO blobs.
6 labeled cells that were aligned with the CO blobs.
7 coincided with cytochrome oxidase (CO)-rich blobs.
8 V2 at 4 weeks of age labeled neurons around blobs.
9 ose relation between pinwheel centers and CO blobs.
10 ation pinwheels, and cytochrome oxidase (CO) blobs.
11 approximately twice as many pinwheels as CO blobs.
12 labeled cells partially overlapped with the blobs.
13 fically, our results show that within the CO blobs: 1) all K cell axons contain glutamate, and the va
14 ors in equal proportions, as were the random blobs; (4) 'anti-symmetric' - symmetric blobs were of op
15 l precursors (gem, zic2) requires the Acidic blob (AB) region in the N-terminal portion of the protei
16 data as pictures and clusters the pixels as blobs according to the brightness of each pixel to gener
18 cts content complexity to simple moving grey blobs, allowing objective mechanistic investigation.
20 : First, the guest molecules concentrate in "blobs", amorphous clusters involving multiple guest mole
21 inance and local-contrast "gain control", a "blob analysis" step to differentiate between cells, vess
24 color-activated regions (cytochrome oxidase blobs and bridges) of primary visual cortex (V1), wherea
26 ionship to the pattern of cytochrome oxidase blobs and interblobs in a manner suggesting a heterogene
34 the first and second retention times of two blobs and the Pearson's correlation coefficient of the t
35 vious report of specific connections between blobs and thin stripes, which is parallel to the connect
37 the STM tip) the images changed to pairs of "blobs," apparently reflecting the attachment points of t
38 45, the same age at which cytochrome oxidase blobs appear, presumably signaling the differentiation o
46 led cells was more than twice as high in the blobs as that in the interblobs, and most of the cluster
49 by layers IIIa/b and Cytochrome Oxidase (CO)-blobs boundaries in the human primary visual cortex.
54 roject to thin stripes while neurons outside blob columns project to thick and pale stripes, suggesti
55 idase (CO) stripes in area V2: neurons in CO blob columns project to thin stripes while neurons outsi
56 blob, and blob/interblob borders showed that blob columns tended to have about 1.5 times more MT-proj
57 in which thin stripes receive V1 inputs from blob columns, and thick and pale stripes receive common
58 tem by demonstrating four V1-to-V2 pathways: blob columns-to-thin stripes, blob/interblob border colu
59 ubpopulation to reside predominantly outside blob columns; however, unlike previous descriptions of l
60 n both normal and strabismic monkeys: (1) CO-blob compartment neurons showed a more pronounced bias f
61 We outline the important properties of the blob complex and sketch the proof of a generalization of
62 e "blob complex." Fixing an n-category , the blob complex associates a chain complex B(*)(W;C) to any
64 oms for higher categories, and describe the "blob complex." Fixing an n-category , the blob complex a
66 ese animals, ocular dominance stripes and CO blobs corresponding to the nasal retina stained more int
68 ualization, detection and removal of various blob defects from the .CEL files of different types of A
69 rrays, MAT), we found that even the smallest blob defects significantly decreased the sensitivity and
72 sumably signaling the differentiation of the blob-dominated and interblob-dominated streams in the pr
73 was characterized by the formation of small blobs for the short insert (60 bp) and clear loops and o
76 hed as an assembly of densely packed fractal blobs, i.e., regions of size xi, where the fiber concent
77 V1, such as the cytochrome oxidase (CO) rich blobs in cortical layer III, synthesize new output pathw
78 romatic processing given reports that the CO blobs in diurnal primates contain cells selective for co
79 lob columns, as projecting selectively to CO blobs in L2/3, suggesting convergence of blob/interblob
80 yer 4Calpha project axons to layer 4B and CO blobs in layer 2/3, thus relaying M input to these regio
84 al whether the cytochrome oxidase (CO)-dense blobs in primate primary visual cortex (V1) and CO-dense
87 diabetes, 51% (31) observed dark "spots" or "blobs" in the entoptic field corresponding to retinal de
88 preferentially underneath cytochrome oxidase blobs, indicating that MT-projecting neurons of both typ
90 surface equally divided into compartments of blob, interblob, and blob/interblob borders showed that
92 o-V2 pathways: blob columns-to-thin stripes, blob/interblob border columns-to-thick stripes, interblo
93 interblob projecting to pale stripes and the blob/interblob border region projecting to thick stripes
94 ed into compartments of blob, interblob, and blob/interblob borders showed that blob columns tended t
95 CO blobs in L2/3, suggesting convergence of blob/interblob information in L2/3 blobs and, possibly,
97 etrix oligonucleotide microarrays often have blob-like image defects that will require investigators
100 d by Cu(2+) and Ni(2+) with the fluorescence blob model showed that d(blob) was equal to the Debye le
104 ls send axons to the cytochrome oxidase (CO) blobs of layer III and to layer I of primary visual cort
106 ntration of cytochrome oxidase in patches or blobs of primate striate cortex has never been explained
107 t-wavelength cones to the cytochrome-oxidase blobs of primay visual cortex (V1), the dorsal-most pair
108 - symmetric blobs were of one color, random blobs of the other color(s); (2) 'random-segregated' - a
109 ities between K axon circuitry within the CO blobs of the three primate species examined also could i
110 uitry related to the K pathway within the CO blobs of two diurnal primates (macaque monkeys and squir
112 y projections to the cytochrome oxidase (CO) blobs of V1 suggest involvement in chromatic processing
113 f labeled neurons were in cytochrome oxidase blobs of V1, many labeled neurons were located in interb
114 regime characteristic of a chain of swollen blobs on long length scales and a high-force, salt-valen
115 s had an asymmetric loop, a large asymmetric blob or a spur-like projection at the appropriate positi
116 eurons, regardless of their soma location in blob or interblob columns, as projecting selectively to
117 entation domains and cytochrome oxidase (CO) blobs or interblobs, CO blobs tended to prefer lower SFs
118 mature pattern of CO patches (also known as blobs or puffs) was visible, aligned with the ocular dom
119 the percentage of plasmids containing loops, blobs or spurs, consistent with the known effects of mon
120 ack any obvious modular arrangement, such as blobs or stripes, which are found in some primates and c
121 O-compartment as the injection site (blob-to-blob, or interblob-to-interblob) was moderately strong (
123 on resulted in large, irregularly shaped oil blobs over time, the deformation of which without fragme
124 lar ruler to measure the average distance (d(blob)) over which electron transfer takes place between
126 e processing workflow of GC(2)MS consists of blob/peak detection, baseline correction, and blob align
129 of V1 contributed equally to DM, whereas the blob regions provided most of the projections to V1 in o
130 troduced a new software tool, the microarray blob remover (MBR), which allows rapid visualization, de
132 d to partially molten asthenosphere, fertile blobs, small-scale convection and upwellings driven by c
133 k nurse cell nuclear transitions at the five-blob stage and activate checkpoint controls in the oocyt
134 e cell chromosome reorganization at the five-blob stage and delay production or processing of Grk pro
137 e optical imaging of orientation domains and blob structures, approximately 100-200 micrometer in siz
140 hey have a greater impact on postsynaptic CO blob targets than signals arriving via layer IV from the
143 e same CO-compartment as the injection site (blob-to-blob, or interblob-to-interblob) was moderately
144 ts suggest that each input pathway to the CO blobs uses a different strategy to contribute to the pro
147 attern of cytochrome oxidase loss within the blob was uniform, suggesting that all sources of afferen
148 field of view, and the number of coexisting blobs was on average 5.9+/-2.1 (n=8 hearts) as they appe
151 presynaptic and postsynaptic profiles in CO blobs were identified with post-embedding immunocytochem
152 each trial; (3) 'non-segregated' - symmetric blobs were of all colors in equal proportions, as were t
153 r arrangements: (1) 'segregated' - symmetric blobs were of one color, random blobs of the other color
154 ndom blobs; (4) 'anti-symmetric' - symmetric blobs were of opposite-color across the symmetry axis.
155 V axons (indirect P and M pathways to the CO-blobs) were labeled by iontophoretic injections of Phase
157 F consists of dynamically changing frequency blobs, which have a short life span and can be modified
158 oxidase reactivity was uniformly reduced in blobs with input from the glaucomatous eye in a manner c
159 s strong Lyman alpha emission from extended 'blobs' with little or no associated apparent ionizing co
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