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1 lities, which are difficult to obtain by the current methods.
2 ssary: requirements not fulfilled by most of current methods.
3 major sources of confounding not offered by current methods.
4 ronates, which are not readily accessible by current methods.
5 omical production of (15)O compared with the current methods.
6 This is in part due to the limitations of current methods.
7 cryo-EM structures when used in addition to current methods.
8 ercomes some of the bottlenecks limiting the current methods.
9 that, to date, have resisted detection using current methods.
10 However, this is not possible with current methods.
11 ion in side-by-side comparisons with several current methods.
12 ntial to attack problems beyond the reach of current methods.
13 s, demonstrating significant advantages over current methods.
14 ield, while also highlighting limitations of current methods.
15 es at scale and resolution out of reach with current methods.
16 than the reliance on serendipity apparent in current methods.
17 rovide additional survival prediction to the current methods.
18 ure that bypasses the issues associated with current methods.
19 (5) gauss, too low to be detectable by other current methods.
20 ebraic in nature and distinct from all other current methods.
21 t are especially challenging to analyze with current methods.
22 ation of such pulses is still a challenge by current methods.
23 work of the analysis when compared to other current methods.
24 munity vastly exceeds what is feasible using current methods.
30 compare the advantages and disadvantages of current methods and discuss the outstanding challenges a
31 APs is a considerable improvement over other current methods and further facilitates the inference of
34 We discuss the limitations and challenges of current methods applied to apicomplexan noncoding RNA st
35 , genome-wide studies of small RNA; however, current methods are challenged by low sensitivity and hi
36 in research and clinical applications where current methods are either too slow or are destructive.
37 cal diagnosis of reproductive disorders, but current methods are hampered by frequent blood sampling
39 of variability are not well understood, and current methods are ineffective at capturing these detai
42 mportant strategy for their preparation, yet current methods are limited in their alkene-types and to
43 ntal to understanding genomic fragility, but current methods are limited in versatility, sensitivity
46 cal applications involving this pathway, but current methods are nonselective and are not applicable
49 enabled great progress on this problem, but current methods are specialized for images that have lar
50 However, the efficiency and reliability of current methods are still lagging far behind human perfo
52 mes with the analyses of their hard tissues: current methods are time-consuming, destructive, and lar
53 areful monitoring due to their toxicity, yet current methods are too complex or bulky for point-of-ca
59 of ampicillin, which would have failed using current methods because it adopts a high-energy conforme
60 s of routinely practiced therapies and three current methods being explored for BBB/BTB disruption fo
61 s way are similar to those generated via the current methods, but with more than five times higher se
62 variations as causal anchors, which improves current methods by taking into consideration hidden conf
68 to investigate metabolites in single cells, current methods commonly isolate and sacrifice cells, in
72 by covalent tagging of surface glycans, yet current methods do not afford sequencing of intact glyco
80 seful pedigree drawing tool that improves on current methods due to its ease of use and approachabili
82 viding accurate and effective care; however, current methods (e.g., blood draws) are inconvenient and
87 neous samples are promising, but most of the current methods estimate either cell-type proportions or
88 neering can improve aptamer performance, but current methods exhibit inherent bias and variable rates
89 man genes having more than two APA isoforms, current methods fail to capture the entirety of APA chan
90 Furthermore, the limits of detection of the current method for A. baumannii M3237 and 54149 are ~10(
95 hylation data, REPTILE greatly improves upon current methods for annotation of enhancers across a var
96 s for angiosperm phylogenetics projects, but current methods for annotation, alignment and tree estim
97 ne interventions have raised questions about current methods for assessing environmental exposure to
99 decisions across agricultural landscapes but current methods for assessing these benefits may underes
101 ology, nanotechnology and biotechnology, but current methods for autonomously synthesizing arbitrary
106 the potential of the approach to complement current methods for classifying quality attributes in be
108 method represents a marked improvement over current methods for detecting and measuring concentratio
118 ironment is often unclear, in which case the current methods for evaluating persistence can be questi
121 sulin independence in selected patients, yet current methods for extracting islets from their surroun
122 chnique makes it an appealing alternative to current methods for fabricating selective solar absorber
125 x (GCC) thickness may be more sensitive than current methods for glaucoma diagnosis and research.
129 cancer immunotherapy are summarized, and the current methods for imaging evaluations of immune-relate
134 marking tests show that MUscADEL outperforms current methods for lysine PTM characterization, demonst
146 ted peptides identified in recent years, the current methods for peptide database searching cannot ra
149 oal of the present review is to describe the current methods for preparing macroscopic composite film
151 illustrate the unique advantages of MP over current methods for rapid sample characterization, prior
154 ologies can uncover biological insights, but current methods for scRNA-seq data integration are limit
164 d can become an effective alternative to the current methods for the determination of the total hydro
172 -specific regulation of gene expression, but current methods generally require large numbers of cells
173 larly helpful for the hard targets for which current methods have a low accuracy while human-expert k
175 ere is extensive work in this area, however, current methods have difficulty with one or more of the
183 ion factors and show that DeFCoM outperforms current methods in determining bound and unbound motif s
184 imation of the mixture model and outperforms current methods in identifying differentially abundant f
189 atic reactions with MS-based proteomics, the current method is highly effective to globally and site-
190 underdetected, which might indicate that the current method is less than optimal for analyzing this g
192 ion stoichiometries in mammalian cells using current methods is cumbersome, complex, or expensive.
196 have the potential for early detection, but current methods lack sensitivity and/or are time-consumi
197 s at much lower sequencing coverage than the current methods, leading to ~ 80% lower sequencing cost
201 ll as improving on the speed and accuracy of current methods, new analysis tools are provided to clus
204 e a critical discussion of the advantages of current methods of (bio)sensing of creatinine, as well a
206 ransmission of Vibrio cholerae in Haiti with current methods of control is low, and that bolder actio
213 aragraph of the subsection 'A perspective on current methods of ligand identification' was incorrect;
216 i.e., culling infected individuals), whereas current methods of molecular (qPCR) and visual detection
219 1, addresses some of the challenges faced by current methods of nucleic acid-based assays and symptom
220 e a better physiological representation over current methods of patient-derived cell culture and xeno
230 ow to high LETs which is an advantage of the current method over methods previously employed to fit t
236 ar with current assays and, in contrast with current methods, quantitatively scores PPIs with enough
241 titative analysis of histological images but current methods require application-specific algorithm t
244 is approach presents several advantages over current methods.See related article by Ostmeyer et al.,
245 epts involved in computing genetic risk with current methods, strengths and weaknesses of various app
252 opathy disorders and provides an overview of current methods to assess protein misfolding and pathoge
255 t on high-quality adherent cell culture, but current methods to cryopreserve cells in this format can
260 to investigate whether egg CRD could improve current methods to diagnose various egg allergy phenotyp
265 TFs tend to bind the genome in clusters, and current methods to identify these clusters are either li
276 g, and quinary structure in the cell and the current methods to quantify them both in vitro and in vi
279 distinct roles in cortical computation, but current methods to study them in humans are limited.
283 um parsimony reconciliations is NP-complete, current methods use either exact algorithms with exponen
287 t importance that continues to challenge the current methods used in this area, whose difficulty is f
288 laborious nature and low sensitivity of the current methods used to assess transmission intensity.
290 esults provide important improvements to the current methods used to isolate circular RNAs as well as
293 while trapping the target cell, because the current method uses long ultrasound pulses for grabbing
297 ming statistical inference compared to other current methods when missing values are due to a mixture
298 classified as "inactive" or are invisible to current methods which could become the next generation o
300 itical to advance glycoscience research, the current method without any sample restrictions can be wi