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1 ve method for STR analysis that utilizes DNA microarray technology.
2 lity to initiate gene transcription by using microarray technology.
3 FLSPC) versus AL by complementary DNA (cDNA) microarray technology.
4 sion profiling was performed with Affymetrix microarray technology.
5 markers measured by a novel high-throughput microarray technology.
6 th glycan structural information from glycan microarray technology.
7 nnotate, analyze and share data generated by microarray technology.
8 nes the advantages of mass spectrometry with microarray technology.
9 d glucose-6-phosphatase was determined using microarray technology.
10 er p 21, and rDer p 23) by means of allergen microarray technology.
11 nts and 40 healthy individuals using protein microarray technology.
12 on profiles were generated by analyses using microarray technology.
13 gene expression was examined with using cDNA microarray technology.
14 ed rabbits were determined by the use of DNA microarray technology.
15 ence of the food allergens in breast milk by microarray technology.
16 transcriptome of ovarian cancer cells using microarray technology.
17 ip arrays are currently the most widely used microarray technology.
18 rect genomic assay would extend the reach of microarray technology.
19 ls and fertilized control embryos using cDNA microarray technology.
20 nalyzed using the reversely transfected cell microarray technology.
21 ed in murine bone marrow-derived HSCs, using microarray technology.
22 and the results paralleled those found with microarray technology.
23 an monocytes infected with C. albicans using microarray technology.
24 ainst 40 other Salmonella isolates using DNA microarray technology.
25 amount could expand the applicability of DNA microarray technology.
26 em and the random factors resulting from the microarray technology.
27 eruginosa biofilms were studied by using DNA microarray technology.
28 ing clinical applications of gene expression microarray technology.
29 as labeling for gene profiling based on DNA microarray technology.
30 ransfer and Affymetrix oligonucleotide-based microarray technology.
31 mining is crucial for studies using the cDNA microarray technology.
32 , RNA extraction, and preparation and use of microarray technology.
33 onous blood-stage P. falciparum parasites by microarray technology.
34 ofiling of splenocytes using high throughput microarray technology.
35 yonic fibroblasts with or without Pak1 using microarray technology.
36 xanthine oxidase) was performed using SNPlex microarray technology.
37 alysis was performed in triplicate using RNA microarray technology.
38 ript abundances not previously observed with microarray technology.
39 r interaction screen) assay by using protein microarray technology.
40 velopment of highly sensitive biosensors and microarray technology.
41 multiple mutation detections offered by the microarray technology.
42 s in green) was investigated by using glycan microarray technology.
43 ites could be mapped by combining DamID with microarray technology.
44 put gene expression data generated mostly by microarray technology.
45 es targeted by protein kinases using protein microarray technology.
46 ridization is currently a major concern with microarray technology.
47 ttern of gene expression was evaluated using microarray technology.
48 of messenger RNA (mRNA), genome-wide, using microarray technologies.
49 specific protein capture reagents in protein microarray technologies.
50 int of breast cancer in Lebanese women using microarray technologies.
51 fordetecting spatial artefacts than do other microarray technologies.
52 ing and quality control different from other microarray technologies.
54 ith polycythemia vera, using oligonucleotide microarray technology after correcting for potential con
56 n of whole-genome sequencing and genome-wide microarray technologies, allowing the investigation of a
62 objectives of expression profiling using DNA microarray technologies and it requires the development
63 o influenza virus pathogenesis by using cDNA microarray technology and a reverse genetics approach.
66 ual genes using high-density oligonucleotide microarray technology and by performing biological assay
71 nt insights into the molecular mechanisms of microarray technology and have implications for microarr
72 his area suggests potential opportunities in microarray technology and high-throughput drug screening
73 ces for many human pathogens, development of microarray technology and high-throughput proteomics, an
74 used reverse-phase signaling pathway protein microarray technology and identified three signaling pro
75 al biotechnology, just as they are improving microarray technology and imaging in biology and medicin
80 en determined by using the widely accessible microarray technology and the simple single-base extensi
81 e and 2 normal skeletal muscle tissues using microarray technology and/or small RNA cloning approache
82 tions, messenger RNA abundances, measured by microarray technology, and more recently by deep sequenc
83 roaches combining transposon mutagenesis and microarray technology, and through the expression of lib
84 thesis using a high throughput, SNP-specific microarray technology applied to seed trichomes (cotton)
85 immunoprecipitation assay coupled to genomic microarray technology approach, we identified numerous p
86 ere to (i) establish high-throughput protein microarray technology as a method to investigate traditi
88 robes on microarray slides, there is another microarray technology based on bundles of optical fibers
90 ng, quantitative real time PCR (qRT-PCR) and microarray technology besides novel techniques based on
91 In this review of recent applications of DNA microarray technology by developmental biologists, we su
92 her show this methodology is compatible with microarray technology by printing rhodamine-oxyamine in
96 r show how combined use of cell cultures and microarray technology can guide future in vivo work on d
97 th chromatin immunoprecipitation (ChIP) with microarray technology (ChIP-chip) assays for specific ch
99 looked by chromatin immunoprecipitation with microarray technology (ChIP-on-chip) for histone modific
103 oreover, we found that deoxyribonucleic acid microarray technology could distinguish, in a blind mann
105 allow further development of the label-free microarray technology demonstrated previously for gene e
106 tein TLS, and compared the result to current microarray technology, demonstrating the ability of MAPS
107 argets for chemotherapy-induced HF damage by microarray technology (eg, interleukin-8, fibroblast gro
113 the potential of integrated microfluidic and microarray technology for multiple virus detection.
115 tive, high-throughput, and convenient glycan microarray technology for the simultaneous determination
116 We have designed a chip-based assay, using microarray technology, for determining the relative bind
117 ines genomic mismatch scanning (GMS) and DNA microarray technology, for mapping regions shared IBD be
120 This is an interesting case study in how DNA microarray technology has advanced the molecular underst
134 ds to millions of features at the same time, microarray technology has fundamentally changed how biol
136 Over the last decade, the introduction of microarray technology has had a profound impact on gene
137 increasing availability and maturity of DNA microarray technology has led to an explosion of cancer
142 e increasing availability of gene expression microarray technology has resulted in the publication of
145 of gene expression in postmortem brain using microarray technology has the potential to elucidate mol
146 Most previously reported evaluations of microarray technologies have focused on expression measu
147 next-generation sequencing and phylogenetic microarray technologies have identified diverse, niche-s
153 dern approaches such as reverse genetics and microarray technology have revealed novel receptors for
154 ed old-fashioned genetics versus new-fangled microarray technology, have now identified the same tran
155 f the confluence of low-cost DNA sequencing, microarray technology, high-throughput proteomics, and e
157 ng the potential diagnostic added value of a microarray technology (ImmunoCAP ISAC, Phadia AB [at pre
158 ers can all contribute to make better use of microarray technologies in research and medical practice
159 nstrates the applicability of custom-focused microarray technology in addressing hypothesis-driven qu
160 lizing bead array cytokine determination and microarray technology in an effort to determine the immu
165 icle will review the current applications of microarray technology in the field of organ transplantat
167 s, the rapid development and expanded use of microarray technologies, including oligonucleotide array
178 With these results, high-density peptide microarray technology is for the first time introduced i
180 of the critical problems in the short oligo microarray technology is how to deal with cross-hybridiz
185 ng tabulated by the various genome projects, microarray technology is setting the stage for the task
195 er, biases inherent to short oligonucleotide microarray technology may account for some of the tissue
196 hus likely involved in disease pathogenesis; microarray technology may also be used to distinguish de
197 are not completely understood; however, cDNA microarray technology may enable rapid and accurate exam
199 tremely low levels of aquatic pathogens, and microarray technologies offer a new dimension to multipl
200 measurements were performed using Flow-Thru microarray technology on the Ziplex System, which has po
206 dising data format, content and description, microarray technologies present major challenges in mana
211 throughput nature of hybridization-based DNA microarray technology provides an ideal platform for suc
212 TGFbeta responses in lung fibroblasts, using microarray technology, real-time polymerase chain reacti
213 -expression measurements on a genomic scale, microarray technology remains at the forefront of post-g
214 mes by mass spectrometry (MS) and expression microarray technologies, respectively, revealed many sim
215 ssinus were tested by means of ImmunoCAP and microarray technology, respectively, in sera collected a
216 s coupled with chromatin immunoprecipitation/microarray technology revealed a putative binding site i
217 iles and on Wnt signaling pathways using DNA microarray technology, reverse transcriptase-PCR, Wester
220 -intensity relationship for various types of microarray technologies, such as single-color arrays and
222 iation studies are typically performed using microarray technologies that only assay a very small fra
223 s melanoma, has benefited significantly from microarray technology that can facilitate the classifica
224 asy-to-use de novo synthesis oligonucleotide microarray technology that draws on the inherent flexibi
233 gle oocytes and embryos for analysis by cDNA microarray technology, thus lending credence to addition
238 stis to a mammalian environment, we used DNA microarray technology to analyze the transcriptional res
241 on during the PPD response we have used cDNA microarray technology to carry out a large-scale analysi
245 oma Molecular Profiling Project (LLMPP) used microarray technology to define a molecular profile for
249 t panel OLED display technology with protein microarray technology to enable high-density fluorescent
254 es, we developed and applied a novel antigen microarray technology to identify distinct serum antibod
258 f laser-capture microdissection coupled with microarray technology to identify nucleus-specific trans
259 s of signature-tagged mutagenesis (STM) with microarray technology to identify potentially important
267 clinical manifestations, we first used cDNA microarray technology to measure METH-induced transcript
268 dy Mu transposition preferences, we used DNA microarray technology to measure the abundance of >4,000
269 recent explosion of publications that employ microarray technology to monitor genome-wide expression
270 e most recent advances in the application of microarray technology to pancreatic cancer research are
271 Array painting is a technique that uses microarray technology to rapidly map chromosome transloc
272 bacterial gene expression are shifting from microarray technology to second generation sequencing pl
273 Here, we review the use of complementary DNA microarray technology to study gene expression patterns
275 global scale by coupling flow cytometry with microarray technology to track the stability of individu
276 ionation methodology coupled to glycoprotein microarray technology using a multiple lectin-based, bio
289 riations in the human genome and advances in microarray technology which together have changed the cl
290 s paper describes a new development based on microarray technology which uses ultraviolet light induc
291 s increased rapidly in recent years owing to microarray technology, which allows measurement of thous
293 It is anticipated that the application of microarray technology will continue to better our unders
298 ant emerging applications of gene expression microarray technology with several molecular signatures
300 lity and reliability of data generated using microarray technology would be enhanced by use of a comm
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