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1 in developing systems-level perspectives in molecular biology.
2 enzymes essential for the development of XNA molecular biology.
3 choice in microbiology, bioengineering, and molecular biology.
4 omplicate even the simplest of procedures in molecular biology.
5 cal diagnostics, food safety monitoring, and molecular biology.
6 actors, which remains a central challenge in molecular biology.
7 l chemistry, biotechnology, biomedicine, and molecular biology.
8 the 20th century revolutions in genetics and molecular biology.
9 ns in clinical proteomics, microbiology, and molecular biology.
10 and manipulation of phosphate monoesters in molecular biology.
11 rgely ignored following the advent of modern molecular biology.
12 x PTM code is one of the great challenges in molecular biology.
13 ar recognition by proteins is fundamental to molecular biology.
14 ific regions in a genome is a cornerstone of molecular biology.
15 ulation has become a major research topic in molecular biology.
16 hereby uncovering fundamental aspects of its molecular biology.
17 Database Issue contains 148 papers spanning molecular biology.
18 ng a new way to look at the central dogma of molecular biology.
19 contributions to research in physiology and molecular biology.
20 elf-assembly to pharmaceutical chemistry and molecular biology.
21 iding principle by which scientists approach molecular biology.
22 enance can be traced to the earliest days of molecular biology.
23 isis" that currently challenges experimental molecular biology.
24 o was one of the most unexpected findings in molecular biology.
25 ot yet provided firm leads to its underlying molecular biology.
26 recent additions from the powerful tools of molecular biology.
27 the basis of numerous classic experiments in molecular biology.
28 able structural insights into many facets of molecular biology.
29 ent distinct aspects of the central dogma of molecular biology.
30 y genes and then mining them to discover new molecular biology.
31 tance for understanding protein function and molecular biology.
32 g new possibilities for studies of pegivirus molecular biology.
33 word function has many different meanings in molecular biology.
34 be aided by an improved understanding of IBV molecular biology.
35 s become one of the major research topics in molecular biology.
36 Database Issue contains 168 papers spanning molecular biology.
37 olution optical mapping, patch clamping, and molecular biology.
38 is among the best-characterized subjects in molecular biology(1-10), but much less is known about it
43 evealed new information regarding underlying molecular biology and associated regulatory mechanisms.
44 iptomic and epigenomic analyses, and classic molecular biology and biochemical approaches to understa
46 gely a result of the spectacular advances in molecular biology and biotechnology achieved in the past
48 iegens is an attractive microbial system for molecular biology and biotechnology due to its remarkabl
51 rovided visualization tools for genetics and molecular biology and continues to add new data and feat
53 have resulted in growing knowledge about the molecular biology and ecology of these plants and functi
54 rating evolutionary biology with mechanistic molecular biology and ecology, promising applications in
56 While the use of RNA interference (RNAi) in molecular biology and functional genomics is a well-esta
59 ribe a shift in my research focus to combine molecular biology and genetics for a comprehensive under
61 on, which hampered detailed insight into the molecular biology and genetics of this unique group of l
65 iology, Deputy Chairman of the Laboratory of Molecular Biology and Head of its Division of Structural
66 e leveraged recent technological advances in molecular biology and herein report an increased number
68 id Baltimore and Howard Temin revolutionized molecular biology and laid the foundations for retroviro
69 Several applications in materials science, molecular biology and mechanobiology illustrate the scop
70 ound many diverse applications, ranging from molecular biology and medicine to social science and fin
71 inhibition was examined using cell culture, molecular biology and mouse models; and the relevance of
74 These methodologies range from classical molecular biology and optical approaches, such as bisulf
76 recent advances in our understanding of the molecular biology and pathogenesis of this unique urogen
79 ural variation) from the perspective of both molecular biology and population genetics in an ecologic
82 nts in our understanding of its genetics and molecular biology and their translational relevance.
85 iciting factors, natural history, underlying molecular biology, and clinical management of asthma var
87 ents current tospovirus taxonomy, diversity, molecular biology, and cytopathology as an introduction
89 ations of computational modeling technology, molecular biology, and in vitro reconstitution biochemis
90 action, two open and fundamental problems in molecular biology, and it may have significant potential
92 esis is one of the most common techniques in molecular biology, and reference molecular weight marker
93 s is enabled by recent advances in genomics, molecular biology, and systems biology, and will continu
95 urther developments in Earth system science, molecular biology, and trait data for islands hold conti
96 ause of their large, complex genomes, unique molecular biology, and unresolved in-group relationships
97 combination of cutting-edge techniques from molecular biology, animal research, and imaging technolo
101 IV-1/SIV-infected cells we employed cell and molecular biology approaches to investigate the effect o
104 abolism and highlight how recent advances in molecular biology are deepening our knowledge of CAM evo
105 y carry, the fields of bat virus ecology and molecular biology are still nascent, with many questions
106 different fields, such as developmental and molecular biology, as well as technologies, such as micr
107 nd the American Society for Biochemistry and Molecular Biology (ASBMB), I endeavor to provide an over
108 hnologies have allowed many gene locus-level molecular biology assays to become genome-wide profiling
109 tuation/dishabituation behavioural task with molecular biology assays to start investigating the neur
111 ent of Microbiology and in the Department of Molecular Biology at Albert Einstein College of Medicine
112 ng a combination of biochemical and cell and molecular biology-based approaches, we studied whether R
113 iratory pathogen panel (RP panel) is a novel molecular biology-based assay, developed by GenMark Diag
114 e fields, including cardiology, cellular and molecular biology, biochemistry and chemistry, and mecha
115 rs or isolated neutrophils were utilized for molecular biology, biochemistry and pathology analysis.
116 troviruses, my use of the tools of genetics, molecular biology, biochemistry, and biophysics has span
118 air-liquid interface and examined them using molecular biology, biochemistry, and live-cell imaging.
119 that virtually all contemporary research in molecular biology, biochemistry, and other biosciences u
120 ry biology across fields including genomics, molecular biology, biochemistry, systems biology and bio
122 in the American Society for Biochemistry and Molecular Biology, brought together many threads in the
123 has revolutionized how we study genomics and molecular biology by generating genome-wide molecular ma
124 be readily adopted by researchers with basic molecular biology, cell culture, and animal work experie
125 ial design, based on collective knowledge of molecular biology combined with limited transposon mutag
127 om limited observable data is significant in molecular biology, communication and many other areas.
128 has become an indispensable resource for the molecular biology community for investigating functional
131 ed in this work show that our combination of molecular biology, computational biology, and mathematic
132 tein interactions (PPIs) is at the center of molecular biology considering the unquestionable role of
134 rovides an effective approach for exploiting molecular biology data to simulate pesticide degradation
138 and first Editor-in-Chief of the Journal of Molecular Biology, Deputy Chairman of the Laboratory of
139 otypes of breast cancer and their underlying molecular biology derived from gene expression data.
145 established their importance to medicine and molecular biology, elucidating their role in various dis
147 rophysiological recordings, optogenetics and molecular biology experiments were performed to investig
148 K-12 with decades of knowledge from classic molecular biology experiments, and recently also from hi
152 e last 30 years in immunology, cytogenetics, molecular biology, gene expression profiling, mass spect
157 ophysiology, biochemistry, optogenetics, and molecular biology, have dramatically increased our under
158 In a recent issue of Nature Structural & Molecular Biology, Heuer et al. (2017) present a 3.9-A c
159 ancer, organized around the central dogma of molecular biology (i) at the DNA level with genomic and
161 his postdoctoral fellow at the Laboratory of Molecular Biology in 1967 and as his biographer 45 years
164 otyping, modeling, physiology, genetics, and molecular biology in the context of classical theoretica
166 ender segregation in some sub-disciplines in molecular biology, in particular in genomics where we fi
167 enterica are models for many experiments in molecular biology including chemotaxis, and most of the
172 e with white patterning, retinal anatomy and molecular biology, its symbiosis with anemones and seque
174 ypes of experiments reported in cellular and molecular biology journals such as Molecular Biology of
176 Here we show that academic biochemistry and molecular biology laboratories equipped with appropriate
180 pre-analyzed sequence data from the European Molecular Biology Laboratory European Nucleotide Archive
182 ere followed by 6 years in Germany (European Molecular Biology Laboratory), 16 years in the United St
183 tion, first Director-General of the European Molecular Biology Laboratory, and 33rd President of St.
184 e-trainer collaboration between the European Molecular Biology Laboratory-European Bioinformatics Ins
188 s brought nanometer-precision fabrication to molecular biology labs, offering myriads of potential ap
191 l takes approximately 6 h and requires basic molecular biology, mammalian cell culture and fluorescen
194 dapts and combines previous well-established molecular biology methods to provide a streamlined strat
195 cterization of the effect using conventional molecular biology methods; and (4) verification of chemi
197 , we propose perspectives on how advances in molecular biology, microscopy, and nucleotide sequencing
198 dictating that programs in biochemistry and molecular biology must be transformative and use new ped
199 vances have accompanied the breakthroughs in molecular biology, nanomaterial sciences, and most impor
202 results provide the first insights into the molecular biology of a unique coordinated gene expressio
205 nces in genomics, genetics, and cellular and molecular biology of C. neoformans have dramatically imp
206 ly understood, there is heterogeneity in the molecular biology of cancer across race and ethnicities.
207 stem is built with a particular focus on the molecular biology of cancer using state-of-the-art machi
208 though model systems offer a window into the molecular biology of cell fate and tissue shape, mechani
211 evalence and impact of cat allergies and the molecular biology of Fel d 1, the major cat allergen.
213 ensive computational work characterizing the molecular biology of gene fusions; (ii) development rese
215 hlight recent discoveries that elucidate the molecular biology of infant leukemia and suggest novel t
217 we have gained significant insights into the molecular biology of long-term memory storage at the lev
218 Herein, we review relevant aspects of the molecular biology of metastatic RCC, with an emphasis on
219 tutive JAK-STAT activation, the cellular and molecular biology of myeloproliferative neoplasms (MPN)
220 ly focused primarily on the biochemistry and molecular biology of PARP-1 in DNA damage detection and
222 ons for our understanding of the fundamental molecular biology of Picornavirales and opens the door t
223 Welcome to this Fourth Special Issue of Molecular Biology of the Cell on Forces on and within Ce
227 dings shed further light on the cellular and molecular biology of the post-IL-12 regulatory rebound a
231 tructural Studies, a Founder of the European Molecular Biology Organization, first Director-General o
232 ysis of DNA have revolutionized genetics and molecular biology over the past two decades (Kosuri and
233 be conducted by a user who is familiar with molecular biology procedures and has basic engineering s
234 e indispensable for the study of fundamental molecular biology processes due to their relatively simp
238 rizing and quantifying trace contaminants in molecular biology reagents and instruments in cases wher
239 John Kendrew's birth in 1917, the Journal of Molecular Biology recognizes his seminal contributions t
241 today's advanced techniques with decades of molecular biology research has yielded huge amounts of p
252 eachers in K-12 schools, nonbiochemistry and molecular biology students, and other stakeholders.
253 e quantitative information in biomedical and molecular biology studies but relies on complex data-fit
256 t atherosclerosis-associated cell types from molecular biology studies, animal models, and clinical o
257 high throughput screening, diagnostics, and molecular biology studies, are usually addressed by bett
259 ways, these databases cover a broad range of molecular biology subjects, including genome structure,
260 driven great strides in our understanding of molecular biology such that now we are able to study at
263 e-seq takes only 2 d, requires only standard molecular biology techniques and does not require sophis
267 orters with continuous improvements in other molecular biology techniques may enhance and expedite ta
269 PKSs, thereby augmenting the contribution of molecular biology techniques to the acceleration of natu
271 and scanning ion conductance microscopy with molecular biology techniques, it is shown that porous si
272 y integrating microfabrication with cell and molecular biology techniques, we provide a quantitative
273 bioinformatics algorithms, biochemical, and molecular biology techniques, we show that Etv2 binds to
276 se data may advance our understanding of the molecular biology that drives GC as well as provide pote
277 breakthroughs in epidemiology, genetics, and molecular biology that have brought reactivation of feta
279 ervations are well known in microbiology and molecular biology, the mathematical models generally use
281 of microengineering, surface chemistry, and molecular biology to address the major limitations of st
283 biological research, across the spectrum of molecular biology to cellular biology, involving fields
284 a combination of taxonomy, biochemistry and molecular biology to characterize the tetrasporophytes a
285 ing from electrophysiological recordings and molecular biology to confocal microscopy in primary cort
286 nt effort utilizing multiple approaches from molecular biology to genome-wide association studies, th
287 y has brought improved tools of cellular and molecular biology to the study of phagocytosis and its c
288 -protein reporters that harness the power of molecular biology to visualize specific molecular proces
291 efforts has focused on the establishment of molecular biology tools in this fascinating organism, no
292 sed on various nanotechnology approaches and molecular biology tools including miRNA biosensors.
293 analysis with cell biology, microscopy, and molecular biology tools to characterize a novel ACTC1 (c
294 unprecedented progress in understanding the molecular biology underlying pediatric gliomas, fueling
295 ce to the research community to explore ZIKV molecular biology, vaccine development, antiviral develo