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1                                     Improved personalized adjustment of primary therapy to the percei
2          The studies underscore the need for personalized administration of RvE1 based on genetic/met
3 duration and efficiency which can help guide personalized advice on sleep length and preventive pract
4  Exacerbation) examined the performance of a personalized analytical platform using continuous data s
5 ramatically along with the demand for easily personalized and customizable genome browsers for effect
6           Analyzing epigenomic datasets with personalized and graph genomes allows the recovery of ne
7 e identified the intronic CRISPR repair as a personalized and in our view clinically translatable the
8  information could aid in the development of personalized and more effective brain stimulation therap
9 e results of this study clearly suggest that personalized and population-based approaches considering
10 ed nanoparticle designs utilized in both non-personalized and precision applications that could be ap
11 s well as translational science by informing personalized and timely models of intervention delivery.
12 ign of implants and biomaterials that can be personalized, and exhibit enhanced osseointegration pote
13 rly treatment (pharmacogenomically informed, personalized, and preventive).
14                            This is a simple, personalized, and scalable platform for effective topica
15 romes has relevant implications to seek new, personalized, and timely treatments for Group 2 PH.
16 ent a proof-of-concept of a new algorithm of personalized anti-tumor therapy based on highly innovati
17 ts with a high MV score could benefit from a personalized antiplatelet therapy.
18                        As we progress toward personalized applications of therapeutic and genomic dev
19                                 Although the personalized approach draws on long-standing influences
20 on, could facilitate the implementation of a personalized approach for mood stabilization.
21  of 236 (9.7%) participants reported SSTI in Personalized Approach households; difference in proporti
22 etworks that may eventually be targeted in a personalized approach of chronic low-grade inflammation.
23 and results of genetic testing can provide a personalized approach to cancer screening and prevention
24 nset and may ultimately contribute to a more personalized approach to classification of seizure types
25 ponses to increasing mean glycemia support a personalized approach to glucose control practices in th
26 DO or TDO targeting agents and constitutes a personalized approach to immunotherapy, particularly in
27                                          The personalized approach to psychopathology conceptualizes
28                                          The personalized approach to psychopathology holds promise t
29                          We utilized a novel personalized approach to treating APOE4 susceptible mice
30                       Non-inferiority of the Personalized Approach was established for the primary ou
31                                          The Personalized Approach was non-inferior to the Household
32  design of new interventional trials and for personalized approaches to neuropathy prevention.
33 ng case to provide the public with practical personalized approaches to reduce the health effects of
34 ent may require a paradigm shift toward more personalized approaches.
35 ed with poor fungal immunity could lead to a personalized assessment for the continued need for antif
36                 Our results demonstrate that personalized, automated electronic alerts increase scree
37 discharge, the analytical platform derived a personalized baseline model of expected physiological va
38  measure any surgical changes against such a personalized benchmark.
39                 This technology might enable personalized bioelectronics for neuroprosthetic applicat
40           A powerful approach to examine the personalized biology of liver cancers and the influence
41 ve medicine applications including those for personalized bone repair.
42 italizations related to stress, more so when personalized by gender and diagnosis.
43 of patient samples, and phenotypic assays in personalized cancer avatars.
44 t PK variability, a step towards precise and personalized cancer chronotherapy.
45  that can be used to develop multiantigenic, personalized cancer immunotherapies.
46 en prediction which eventually contribute to personalized cancer immunotherapy.
47 rapy and prolong the survival of T cells for personalized cancer immunotherapy.
48 marker and as a future therapeutic target in personalized cancer medicine.
49                                    Tailoring personalized cancer nanomedicines demands detailed under
50 rget p53 mutations for widely applicable yet personalized cancer therapies.
51 ve the potential of accelerating the pace of personalized cancer treatment.
52 late the suppressive TME, and enable in situ personalized cancer vaccination.
53                                              Personalized cancer vaccines are a promising approach fo
54                                              Personalized cancer vaccines are emerging as one of the
55  the cancer cell surface, the development of personalized cancer vaccines based on IR-derived neoepit
56 lity can present challenges to manufacturing personalized cancer vaccines in an optimal format for in
57                                              Personalized cancer vaccines targeting patient-specific
58 errant IR may aid in the development of such personalized cancer vaccines.
59 nd increase the number of patients receiving personalized care and counselling on prognosis and recur
60     Results are important considerations for personalized care and risk stratification.
61                            As a consequence, personalized care has become a critical part of developi
62  account can potentially change the field of personalized care in these neurotropic cancers.
63 tions of genome sequencing for diagnosis and personalized care.
64 ore effective and safe therapies that enable personalized care.
65 idant capacity, with potentially distinctive personalized clinical consequences.
66 t attributes simultaneously, to support more personalized clinical decision making than can be made o
67 ation for DGF prevention clinical trials and personalized clinical decision making.
68 ta and provide new insights that might guide personalized clinical decisions for PTEN-variant carrier
69 F-fluordeoxyglucose (18F-FDG) uptake after a personalized cold exposure with energy intake and appeti
70  chemotherapies are attractive components of personalized combination regimens for combatting aggress
71 orts pave the path for the implementation of personalized combinatorial cancer therapy.
72                                       ML and personalized computational modeling can be used together
73 logy that combines machine learning (ML) and personalized computational modeling to predict, before P
74 nt and user-friendly toolbox for large-scale personalized constraint-based metabolic modeling.
75 ogical findings of the affected organs for a personalized decision-making process for each patient.
76        Households were randomized 1:1 to the Personalized (decolonization performed only by household
77             This can be used clinically as a personalized descemetorrhexis zone for Descemet strippin
78 anding of the tumor microenvironment and the personalized design of upconversion nanoparticles will r
79 nagement does not take full advantage of the personalized diagnostic and treatment modalities availab
80 e findings may be informative for developing personalized diet strategies.
81 n data, could enable more effective and more personalized dietary planning.
82  approaches to new nutraceuticals as well as personalized dietary planning.
83 results provide mechanistic insight into how personalized differences in microbial communities influe
84  Because of challenges in performing routine personalized dosimetry in radiopharmaceutical therapies,
85                                   Simplified personalized dosimetry in the clinic continues to be cha
86 suggestions and recommendations for improved personalized dosimetry using simplified imaging schemes.
87 f oxycodone blood concentration would enable personalized dosing and monitoring of the analgesic as w
88 osensing microneedle patches associated with personalized drug therapy and selective toxicity toward
89                The European Collaborative on Personalized Early Detection and Prevention of Breast Ca
90 onsortia working on different aspects of the personalized early detection and prevention of breast ca
91              Patients expressed a desire for personalized education to be a standard part of glaucoma
92 P) group (n = 3,436) received a JADE report, personalized empowerment, and annual telephone reminder
93  advancing methods designed to generate more personalized evidence.
94 ing early stages, raising the possibility of personalized eye care.
95 aimed to develop a system to provide monthly personalized feedback and healthier swaps based on nutri
96        Polygenic risk scores (PRS) provide a personalized genetic susceptibility profile that may be
97                   We show that using a graph personalized genome represents a reasonable compromise b
98 nal change (38 participants, 157 citations), personalized glaucoma education (38 participants, 149 ci
99 EGgamma-proteasome as a potential target for personalized HCC therapy.
100  strategies encompassing diet and nutrition, personalized health monitoring, and performance optimiza
101                   With the rising demand for personalized healthcare and health management tools, ele
102 sensors, have limited their feasibility as a personalized healthcare device.
103 ors in applications spanning from remote and personalized healthcare to wellness.
104 ant contributions to diagnostics and derived personalized healthcare.
105  genes have been linked to various diseases, personalized immunogenomics focuses on finding alleles o
106 totoxic T lymphocyte biology and to optimize personalized immunotherapy in cancer treatment.
107 njectable defect fillers (cements) and allow personalized implants to be rapidly prototyped by 3D bio
108 ntrast, more differentiated B-cells are more personalized in terms of CDR structure usage.
109                         FSA scores provide a personalized index of striatal dysfunction, ranging from
110 aluated the rapid-pacing-induced VTs in each personalized inFAT-based substrate.
111 hed through precision therapeutics, in which personalized interventions have enhanced therapeutic eff
112 n, and they may help lay the foundations for personalized interventions in the future.
113 quiring development to enable evidence-based personalized interventions that might improve the benefi
114 progress in the discovery and application of personalized interventions to optimize brain and cogniti
115 agnosis in clinical practice will facilitate personalized interventions.
116 sing schizophrenia heterogeneity and guiding personalized interventions.
117  on rsFC-SP change and pave the road to more personalized interventions.
118 sponse with the goal of developing targeted, personalized interventions; (2) optimizing pre-clinical
119 arget efficiency and off-target events using personalized iPSC-RPE model systems is warranted.
120                                  In summary, personalized iPSC-RPE models can be used to select among
121 tocol to guide data collection for issuing a personalized JADE report including risk categories (1-4,
122 y-affiliated diabetes center (UDC), the JADE-Personalized (JADE-P) group (n = 3,436) received a JADE
123 information in synthetic DNA, protected with personalized keys.
124 tion based on kidney biopsy findings towards personalized management based on clinical, morphological
125 sion can limit unnecessary PPI use and guide personalized management.
126  to be optimized for drug delivery in a more personalized manner, entering the era of precision medic
127 escribe and analyze the outcomes of AIT in a personalized manner.
128   For patient-level predictions, we computed personalized MAP scores as the proportion of MAP beats p
129        These findings may guide selection of personalized mechanical ventilation settings.
130 f great clinical utility and contribute to a personalized medical approach with the possibility of to
131 g of therapeutic response-paving the way for personalized medical care.
132                                              Personalized medical therapies that target the precise n
133 marker assays may allow for more precise and personalized medical treatments in CRS.
134 ogies at diagnosis could open up avenues for personalized medicine and allow clinical resources to be
135                                              Personalized medicine and therapies represent the goal o
136 and analyzing patient derived samples toward personalized medicine applications.
137 in drug efficacy linked to DNAJA1 suggests a personalized medicine approach where tumor DNAJA1 status
138 psilocybin and may therefore contribute to a personalized medicine approach within the potential fram
139 g on target selection, polypharmacology, and personalized medicine approaches, are discussed as a pat
140 nt of the treatment strategy by implementing personalized medicine are warranted to achieve optimal d
141 ughput screening, cardiotoxicity testing and personalized medicine assays, and long-term (aspirationa
142  moving forward toward future preventive and personalized medicine devices are also discussed.
143 re (1) criteria for specimen adequacy in the personalized medicine era, (2) team-based approaches to
144 n starkly underrepresented in the pursuit of personalized medicine for brain illnesses.
145 ange these circumstances and build access to personalized medicine for disadvantaged populations.
146                       Robust developments of personalized medicine for next-generation healthcare hig
147 ne sequencing capability and a shift towards personalized medicine holds significant promise for p53
148 ant parameters could provide a framework for personalized medicine in diabetes.
149 outcome to treatment responses thus enabling personalized medicine in the selection of specific treat
150                                              Personalized medicine offers great potential benefits fo
151 al relevance as a platform for precision and personalized medicine research.
152 d acquired resistance and the development of personalized medicine strategies for UTUC patients.
153 mework of brain IR in further development of personalized medicine strategies to effectively treat MD
154          These findings offer a platform for personalized medicine with the concurrent discovery of f
155 omplexity of clinical research, a demand for personalized medicine, an increasing value of diversity,
156                 With the growing emphasis on personalized medicine, cell therapies hold great potenti
157                    To achieve the mission of personalized medicine, centering on delivering the right
158  enabled rapid identification of targets for personalized medicine, including cancer vaccines.
159                        In the current era of personalized medicine, national and international regist
160 ealth status and diseases states, and enable personalized medicine, sensitive and rapid detection of
161 y important therapeutic class, especially in personalized medicine, their development and optimizatio
162 netic architecture and predictive aspects of personalized medicine.
163 ion plays an essential role in precision and personalized medicine.
164  paradigm, for the future of health care and personalized medicine.
165   The zebrafish xenograft assay is ideal for personalized medicine.
166 ithin specific subgroups, guiding the way to personalized medicine.
167 ce have a catalytic impact towards precision/personalized medicine.
168  major challenge to the evolving paradigm of personalized medicine.
169 cer drugs for clinical applications toward a personalized medicine.
170 s the synthesis of high-quality peptides for personalized medicine.
171 ogically coherent subgroups is important for personalized medicine.
172 toward a new generation of tissue models for personalized medicine.
173 elated complications as we move towards more personalized medicine.
174 cy at early stages of drug development or in personalized medicine.
175 ion models as tools for drug development and personalized medicine.
176 y to the development of targeted therapy for personalized medicine.
177 nd the challenges for the imminent future of personalized medicine.
178 c systems biology, laying the foundation for personalized medicine.
179 rugs and therapeutic strategies, and promote personalized medicine.
180 g to continuous manufacturing processes, and personalized medicine.
181  applications in precision prevention and in personalized medicine.
182  drug release with different applications in personalized medicine.
183 endency, LHM may also be used in studies for personalized medicine.
184 sed, with an emphasis on their potential for personalized medicine.
185 ening, drug discovery, disease modeling, and personalized medicine.
186 logical disorders, and to the development of personalized medicines for them.
187                                              Personalized medicines require understanding the molecul
188 type one command in Matlab/Octave to perform personalized metabolic modeling.
189          This showcases how neuroimaging and personalized models can quantify individual-differences
190 n of refractive error and the development of personalized myopia prevention strategies in the future.
191 er therapies, and support the development of personalized nanomedicine in the longer term.
192 rmulation in order to make widespread use of personalized nanoparticle vaccines feasible.
193 t the results of a phase 1B study in which a personalized neoantigen vaccine was combined with progra
194 rst open-label, phase Ib clinical trial of a personalized neoantigen-based vaccine, NEO-PV-01, in com
195 ve useful for other disorders and facilitate personalized neuromodulation therapy.
196 rder to achieve robust biomarkers for use in personalized nutrition.
197 sive precision nutrition recommendations and personalized obesity management.
198 tative modeling and prediction of outcome in personalized oncology.
199 e individual not the "average patient." This personalized or precision approach to health care involv
200                                              Personalized, or precision, medicine in type 2 diabetes
201 exion/extension of joints, which may benefit personalized orthopedic recuperation.
202 ng network theoretical tools, we can suggest personalized, out-of-the-box ideas by identifying pairs
203  assign related odour cues to common and yet personalized percepts.
204 trated that HT-DBP could be used to generate personalized pharmacotypes.
205         Different techniques exist to select personalized positive end-expiratory pressure in patient
206                                              Personalized positive end-expiratory pressure levels sel
207 resentation, an important step for designing personalized, precise treatments.
208              Dentistry has entered an era of personalized/precision care in which targeting care to g
209 hey offer possible clinical perspectives for personalized prediction of the age of a tumor from limit
210 typic, and environmental information for the personalized prescription of energy-restricted diets wit
211 models into a decision algorithm allowed the personalized prescription of the MHP and LF diets.
212  creates a framework for using wearables for personalized prevention.
213 ficient algorithm for the rational design of personalized probiotic cocktails to decolonize pathogens
214     Here we introduce improvements to cancer personalized profiling by deep sequencing (CAPP-Seq)(5),
215         We performed deep sequencing (CAncer Personalized Profiling by deep Sequencing, [CAPP-Seq]) a
216        To this end, we harnessed ML to build personalized prognostic models to predict DGF.
217      We tested whether ESBL-PE screening and personalized prophylaxis with ertapenem reduces SSI risk
218 of gene and/or stress, thereby suggesting a 'personalized', rather than general, subset of histone re
219 medical treatment recommendations, including personalized recommendations, which can deviate from sta
220  molecule counts of the HLA genes based on a personalized reference constructed from the sample's HLA
221 tokines in a tuned spatiotemporal manner for personalized regenerative medicine.
222 vital role in robotics, machine control, and personalized rehabilitation.
223                Shopping feedback comprised a personalized report on the SFA content of grocery purcha
224 infection (LTBI), but validated estimates of personalized risk are lacking.
225 e genetic factors that are currently used in personalized risk assessment of breast cancer.
226 ices and plaque characterization may provide personalized risk assessment, affect disease detection,
227 ct surgeons to perform a useful preoperative personalized risk assessment.
228  patients' knowledge and providing them with personalized risk estimates.
229 redictions through uncertainty estimates and personalized risk factors.
230                    Therefore, we developed a personalized risk predictor for incident TB (PERISKOPE-T
231 the use of ML as a viable strategy to enable personalized risk quantification for medical application
232 IUKALL as a continuous variable that assigns personalized risk scores.
233 further risk assessment may result in a more personalized, safer allocation of aspirin in primary pre
234 uction of large bone defects with 3D-printed personalized scaffolds.
235 e cancer, and will foster the development of personalized screening and therapeutic strategies for pr
236 patients with Barrett's esophagus for a more personalized screening design.
237 al utility and optimal method to communicate personalized screening recommendations that incorporate
238 these findings can eventually translate into personalized spray usage instructions and hence merit a
239 ion of PPGL is being utilized to enable more personalized strategies for investigation, surveillance
240 lized as therapeutic targets contributing to personalized T2D treatment strategies.
241 r for the future of diagnostic subtyping and personalized tailoring of interventions for sleep impair
242 r use in all patients and potentially even a personalized target for each individual patient.
243 ular subtypes, supporting the development of personalized targeted-therapies.
244 s variation could lead to the development of personalized therapeutic approaches and improve treatmen
245 n phenotype, and emphasize the potential for personalized therapeutic approaches for slowing clinical
246 ions; these patients might therefore require personalized therapeutic interventions.
247 machine learning algorithms in diagnosis and personalized therapeutics in solid organ transplantation
248  the clinic, there is an increasing push for personalized therapeutics, where plans for medical care
249 y during development and suggest advances in personalized therapeutics.
250 each patient's tumor in real time and select personalized therapies based on these detailed portraits
251 ther demonstrate the utility of GBOs to test personalized therapies by correlating GBO mutational pro
252 de versus antiangiogenics alone, and develop personalized therapies in RCC and other indications.
253  to the development of early diagnostics and personalized therapies.
254 ystem to facilitate preclinical research and personalized therapies.
255 tanding of the disease and the nomination of personalized therapies.
256 ar subtypes to facilitate the development of personalized therapies.
257  great importance in finding better and more personalized therapies.
258 all cell lung cancer (NSCLC) are assigned to personalized therapy based on the results of a 28-gene n
259 These initial results support the utility of personalized therapy in amblyopia and may have broader r
260 ealthcare, we hypothesized that an engaging, personalized therapy may improve adherence and treatment
261 produce antigen-specific T cell immunity for personalized therapy of cancer.
262       Predictive biomarkers aid selection of personalized therapy targeted to molecular alterations w
263 ds enables early diagnostics, genotyping and personalized therapy, but is challenged by the low conce
264 and survival make them promising targets for personalized therapy.
265  on medical scans that enables more precise, personalized therapy; however, significant barriers must
266 s a complex disease, and treatment should be personalized to address the underlying pathogenetic mech
267 on of elective segmental resection should be personalized to consider severity of disease, patient pr
268 offer (eg, developing vaccines that are more personalized to different individual factors).
269 rowser supports direct Javascript coding for personalized tracks, providing a whole new level of cust
270 oural interventions: non-cash incentives and personalized travel plans.
271 radiation response, which would help develop personalized treatment and ideally targeted therapies.
272 lopment, is crucial for developing novel and personalized treatment approaches.
273                                              Personalized treatment decisions decreased early mortali
274 maceuticals in vivo in humans is crucial for personalized treatment management and understanding of t
275 ize bleeding and thrombosis is important for personalized treatment of NOACs.
276 enetic variability is a major confounder for personalized treatment of patients with prostate cancer.
277 approach and offer suggestions toward a more personalized treatment regime that integrates insights i
278 idly predict SaB patient responses and guide personalized treatment regimens could reduce mortality.
279       However, translating genomic data into personalized treatment regimens has been hampered partly
280                                              Personalized treatment requires established dose thresho
281 daptive treatment strategy (ATS) consists of personalized treatment rules to be applied through the c
282                                    Designing personalized treatment strategies for AD is challenging,
283 ystems biology approaches, should enable new personalized treatment strategies for primary brain mali
284                    Thus, we increasingly use personalized treatment strategies for the recipient of a
285 ves for clinical trials to test genome-based personalized treatment strategies in PSC-BTC.
286 ividual level and could inform the design of personalized treatment strategies that can be tested in
287  influence drug response in order to develop personalized treatment strategies that maximize therapeu
288 ase activity of UC is vital for developing a personalized treatment.
289  cavernomas and provide a road map for their personalized treatment.
290 n advancing precision medicine and providing personalized treatments and other types of interventions
291 icrobiome science toward microbiome-targeted personalized treatments for FGIDs.
292       Integrating precision diagnostics into personalized treatments requires understanding how bioma
293 ts in individuals will aid in development of personalized treatments.
294 cation of biomarkers that would allow a more personalized use of PV-based therapies.
295 low not only population-based, but also more personalized vaccination strategies ('precision vaccinat
296 a specific and highly immunogenic target for personalized vaccination.METHODSWe recently developed a
297 of functional T cell reactivity screens from personalized vaccine studies shows direct evidence of fs
298 a key step in reaching the full potential of personalized vaccines for the treatment of cancer and ot
299                      Finally, I suggest that personalized vaccines targeting dormancy-associated neoa
300 ontribute to weight and could be targeted in personalized workplace wellness programs in the future.

 
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