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1 for either diagnosis or to guide treatment ("personalized medicine").
2 ug" (as is well understood in biology and in personalized medicine).
3 elated complications as we move towards more personalized medicine.
4 heir therapeutic potential for effective and personalized medicine.
5 may ultimately facilitate the development of personalized medicine.
6 dynamic treatment monitoring in this era of personalized medicine.
7 spects ranging from point-of-care devices to personalized medicine.
8 ional and implementation research that drive personalized medicine.
9 very problem in the area of human health and personalized medicine.
10 ividual tumors is a significant challenge in personalized medicine.
11 in predictive analytics and treatment toward personalized medicine.
12 ers, and advances drug screening, as well as personalized medicine.
13 tion of individual brains, a key feature for personalized medicine.
14 encourage the shift from population-based to personalized medicine.
15 l-based therapies an attractive strategy for personalized medicine.
16 populations, with immediate implications for personalized medicine.
17 rug resistance mechanisms for advancement of personalized medicine.
18 netic architecture and predictive aspects of personalized medicine.
19 atient-specific cells for drug discovery and personalized medicine.
20 ed drug delivery), opening new dimensions in personalized medicine.
21 cular systems biology, clinical research and personalized medicine.
22 thy human proteome baseline is essential for personalized medicine.
23 advantages in point-of-care diagnostics and personalized medicine.
24 py to further the clinical implementation of personalized medicine.
25 tanding of physiology and the development of personalized medicine.
26 ion plays an essential role in precision and personalized medicine.
27 ior to human trials, within the framework of personalized medicine.
28 aterial for clinical risk stratification and personalized medicine.
29 llenges privacy and data deidentification in personalized medicine.
30 nses in patients, thereby paving the way for personalized medicine.
31 gy technology, dentistry, drug delivery, and personalized medicine.
32 ct in tissue engineering, cancer therapy and personalized medicine.
33 ht us to the doorstep of widespread usage of personalized medicine.
34 e designed to facilitate cancer research and personalized medicine.
35 even more important from the perspective of personalized medicine.
36 adults because of the growing importance of personalized medicine.
37 es", holds promise for drastically improving personalized medicine.
38 and could be conducive to the development of personalized medicine.
39 applications within functional genomics and personalized medicine.
40 release has a pivotal role in the future of personalized medicine.
41 ic and will be a powerful tool in the era of personalized medicine.
42 (without pretreatment) in a single step for personalized medicine.
43 Biomarkers are rapidly gaining importance in personalized medicine.
44 om a one-size-fits-all approach to an era of personalized medicine.
45 paradigm, for the future of health care and personalized medicine.
46 , genes, and disease states, while advancing personalized medicine.
47 ponse, therefore paving the way towards more personalized medicine.
48 anisms of disease pathogenesis and promoting personalized medicine.
49 al for effective practical implementation of personalized medicine.
50 rating new hypotheses in cancer research and personalized medicine.
51 ion models as tools for drug development and personalized medicine.
52 y and dysregulated elements is now informing personalized medicine.
53 ay be utilized in both genomics research and personalized medicine.
54 ity, which presents an important step toward personalized medicine.
55 The zebrafish xenograft assay is ideal for personalized medicine.
56 olomics in the drug discovery process and in personalized medicine.
57 ease as we enter a new era of biomarkers and personalized medicine.
58 in biosensors as a result of the demand for personalized medicine.
59 ies in each child as a step toward achieving personalized medicine.
60 variation is a prerequisite for implementing personalized medicine.
61 typing, with transformative implications for personalized medicine.
62 n emerge as a powerful platform for enabling personalized medicine.
63 mismatched tissues and lack the advantage of personalized medicine.
64 ithin specific subgroups, guiding the way to personalized medicine.
65 ns, and so may be a viable option for future personalized medicine.
66 notypes to phenotypes for the development of personalized medicine.
67 tions for diagnostics and the development of personalized medicine.
68 selected features for various tasks such as personalized medicine.
69 ave myriad applications for regenerative and personalized medicine.
70 iologics can be tested and paves the way for personalized medicine.
71 plex diseases to make predictions useful for personalized medicine.
72 ch, and may provide critical information for personalized medicine.
73 turally important animals and crops, and for personalized medicine.
74 ce have a catalytic impact towards precision/personalized medicine.
75 responsiveness are also important aspects of personalized medicine.
76 l for understanding phenotypic diversity and personalized medicine.
77 ncer biology, with potential applications to personalized medicine.
78 including antibiotic or cancer treatment in personalized medicine.
79 major challenge to the evolving paradigm of personalized medicine.
80 rovide cost-effective mobile health care and personalized medicine.
81 ome important clinical tools in the field of personalized medicine.
82 ce, and is important in applied breeding and personalized medicine.
83 ated clinical tests and the growing field of personalized medicine.
84 cer drugs for clinical applications toward a personalized medicine.
85 ronmental monitoring, disease screening, and personalized medicine.
86 for the diagnosis of SNP-based diseases and personalized medicine.
87 l barriers to the wider potential success of personalized medicine.
88 esenting privileged tools for integrin-based personalized medicine.
89 eralized to other cancer types in the era of personalized medicine.
90 networks (from genomic sequences alone) for personalized medicine.
91 jor obstacle to effective cancer therapy and personalized medicine.
92 r new therapeutic targets and biomarkers for personalized medicine.
93 which is an unmet medical need in the era of personalized medicine.
94 ing of drug efficacy is highly desirable for personalized medicine.
95 tunities for early diagnosis of diseases and personalized medicine.
96 at the interface of chemistry, biology, and personalized medicine.
97 ing to the development of therapies based on personalized medicine.
98 s the synthesis of high-quality peptides for personalized medicine.
99 ogically coherent subgroups is important for personalized medicine.
100 toward a new generation of tissue models for personalized medicine.
101 cy at early stages of drug development or in personalized medicine.
102 y to the development of targeted therapy for personalized medicine.
103 nd the challenges for the imminent future of personalized medicine.
104 drug release with different applications in personalized medicine.
105 c systems biology, laying the foundation for personalized medicine.
106 rugs and therapeutic strategies, and promote personalized medicine.
107 endency, LHM may also be used in studies for personalized medicine.
108 g to continuous manufacturing processes, and personalized medicine.
109 applications in precision prevention and in personalized medicine.
110 dly becoming a highly promising strategy for personalized medicine.
111 ology and provide an alternative approach in personalized medicine.
112 sed, with an emphasis on their potential for personalized medicine.
113 a major bottleneck in targeting kinases for personalized medicine.
114 , thus constituting an important step toward personalized medicine.
115 nsensitive populations and form the basis of personalized medicine.
116 obiome might be used in drug development and personalized medicine.
117 f diseases and facilitate the development of personalized medicine.
118 ening, drug discovery, disease modeling, and personalized medicine.
119 tential for future point-of-care devices and personalized medicine.
120 g paths for the widespread implementation of personalized medicine.
121 ions, and the promise of breath analysis for personalized medicine.
122 drug developers and clinicians interested in personalized medicine.
123 broaden the application of proteogenomics in personalized medicine.
124 y of complex diseases and ultimately achieve personalized medicine.
125 pplication, providing additional avenues for personalized medicine.
126 ill pave the way towards the coveted goal of personalized medicine.
127 their potential application for research and personalized medicine.
128 is, and disease and might be used to develop personalized medicines.
129 plex genetic diseases and the development of personalized medicines.
131 omplexity of clinical research, a demand for personalized medicine, an increasing value of diversity,
132 ogies at diagnosis could open up avenues for personalized medicine and allow clinical resources to be
134 that dynamic risk assessment will facilitate personalized medicine and enable innovative therapeutic
136 may help in the application of principles of personalized medicine and in decision making for targete
138 vel, which will be an important step towards personalized medicine and infectious disease management.
139 t microbial xenobiotic metabolism will guide personalized medicine and nutrition, inform toxicology r
141 ts reported in this work are significant for personalized medicine and point-of-care chemical treatme
142 elopment, help patient care planning through personalized medicine and support drug discovery program
143 medicine interventions as a key component of personalized medicine and tailored-made health care are
146 individual's brain is a crucial step toward personalized medicine and understanding the neural basis
148 maceuticals across different patients (i.e., personalized medicine), and enabling cell-based therapie
149 drug resistance, combinatorial drug therapy, personalized medicine, and cancer metastasis are also re
154 er Genome Atlas database indicated that this personalized medicine approach could also be applied to
155 nts offer predictions to be considered for a personalized medicine approach in treating pediatric UC.
156 ness of TSPO V(T) on symptom reduction, this personalized medicine approach of matching a marker of g
160 genotype-phenotype relations that support a personalized medicine approach to the diverse titinopath
161 r hormone replacement therapies as part of a personalized medicine approach to treating a variety of
163 in drug efficacy linked to DNAJA1 suggests a personalized medicine approach where tumor DNAJA1 status
164 psilocybin and may therefore contribute to a personalized medicine approach within the potential fram
165 support these developments and facilitate a personalized medicine approach, PET imaging and quantifi
169 o have a large effect on systems biology and personalized medicine approaches that investigate the dy
170 lectric characterization are becoming viable personalized medicine approaches to treat a notoriously
171 including non-druggable targets facilitates personalized medicine approaches with less adverse effec
172 g on target selection, polypharmacology, and personalized medicine approaches, are discussed as a pat
173 vity provide a powerful framework to develop personalized medicine approaches, by helping to identify
178 ants underlying disease risk and adoption of personalized medicine are currently limited by the chall
180 nt of the treatment strategy by implementing personalized medicine are warranted to achieve optimal d
181 ocesses for funding new medicines, including personalized medicines, are both robust and fit for purp
182 search with the potential of applications in personalized medicine as well as in drug development.
183 enotype data is important for preventive and personalized medicine as well as plant and animal breedi
184 ughput screening, cardiotoxicity testing and personalized medicine assays, and long-term (aspirationa
185 therapy and highlights the possible role for personalized medicine based on deiodinase polymorphisms.
186 tratified according to risk of IA, providing personalized medicine based on strategic evidence for th
187 drugs are emerging as promising avenues for personalized medicine because of the differential respon
189 valuation of Tdp2 status may be an important personalized medicine biomarker informing on individual
190 versity, enabling not just basic research in personalized medicine but also accurate diagnostics and
191 odels are becoming popular in the context of personalized medicine, but a new study shows that these
193 linical outcomes, has the potential to drive personalized medicine by enabling individualized risk st
194 fundamentally change clinical proteomics and personalized medicine by facilitating large-scale studie
195 pand the range of translational research and personalized medicine by identification of clinically-re
198 chniques in cell culture, microfluidics, and personalized medicine concomitantly improve, the potenti
200 oth the epithelial and stromal compartments, personalized medicine efforts to integrate molecular inf
201 re (1) criteria for specimen adequacy in the personalized medicine era, (2) team-based approaches to
205 specific drugs, creating the possibility of personalized medicine for autism spectrum disorders.
208 platform that has the potential to transform personalized medicine for cancer recurrence monitoring.
210 ange these circumstances and build access to personalized medicine for disadvantaged populations.
211 otype for different forms of CKD, supporting personalized medicine for individuals with kidney diseas
213 rker tests are critical to implementation of personalized medicine for patients at risk for or affect
214 therapeutic benefit to usher in a new era of personalized medicine for patients with ABCB4-dependent
223 ne sequencing capability and a shift towards personalized medicine holds significant promise for p53
224 ing have enormous potential to revolutionize personalized medicine, however distinguishing disease-ca
228 development of biomarker-based approaches to personalized medicine in cardiovascular disease has been
230 to biological treatment and can be used for personalized medicine in Crohn's disease and autoimmune
233 n genomic polymorphism data is important for personalized medicine in humans, plant and animal breedi
235 h EHRs to predict GDM, which will facilitate personalized medicine in maternal health management in t
238 principle has acquired greater importance in personalized medicine in recent years, particularly in o
241 outcome to treatment responses thus enabling personalized medicine in the selection of specific treat
244 n recently because of their potential use in personalized medicine, including cancer-targeting treatm
248 nships, and the relative potential impact on personalized medicine, is the challenge of future resear
249 rstand the cancer resistance and move toward personalized medicine, it is essential to consider signa
253 patient's immune system herald a new era of personalized medicine, offering hope for curative respon
255 d feasibility and patient enthusiasm for the personalized medicine paradigm, but have yet to demonstr
256 f genome-wide association studies (GWAS) and personalized medicine, predicting the impact of single n
258 ogenomic data set to clinical application in personalized medicine programs is now the main challenge
261 of TZD drugs, providing proof of concept for personalized medicine related to nuclear receptor genomi
269 ealth status and diseases states, and enable personalized medicine, sensitive and rapid detection of
271 variants on mTOR activity levels and support personalized medicine strategies based on patient varian
272 y levels in clinical assessments and support personalized medicine strategies based on patient varian
273 d acquired resistance and the development of personalized medicine strategies for UTUC patients.
274 m cells (iPSCs) from human tissue for use in personalized medicine strategies or therapeutic testing
275 mework of brain IR in further development of personalized medicine strategies to effectively treat MD
277 pproach constitutes a potential strategy for personalized medicine that enhances inference from stati
280 y important therapeutic class, especially in personalized medicine, their development and optimizatio
281 nologies are essential to the realization of personalized medicine through continuously monitoring an
283 ore their importance for topics ranging from personalized medicine to theories of the evolution of ho
284 int, which will enable clinicians to deliver personalized medicine to TMD patients and eventually pro
285 peptides are a promising next generation of personalized medicines to reinstate biological harmony.
286 provide a framework for developing tools for personalized medicine toward the precise prediction, pre
287 in cell biology with future applications in personalized medicine, tumor identification as well as t
289 athophysiological functional tone and enable personalized medicine when a causative target-to-disease
290 chnique has significant utility in precision/personalized medicine, wherein this phenotypic screen ca
292 ifts, market changes, and patient demand for personalized medicine will require physicians to embrace
294 Success in designing clinical trials for personalized medicine will require the selection of pati
296 The future of oncological treatment lies in personalized medicine with the combination of technologi
298 ofiles, suggesting a possible way to realize personalized medicine with this noninvasive, fast, and a
299 can underpin metabotyping in the scenario of personalized medicine, with the aim of improving clinica
300 This novel machine-learning approach brings personalized medicine within reach, directly supporting