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1 ale suitable for studies and applications in materials science.
2 hemistry, catalysis, medicinal chemistry and materials science.
3 tionize chemical biology, radiochemistry and materials science.
4 ety of molecular structures in chemistry and materials science.
5 fusion, proton imaging, cancer therapies and materials science.
6 d advanced applications in biotechnology and materials science.
7 ding multiple functions and methodologies in materials science.
8 ntrast in biomedical imaging, microscopy and materials science.
9 uch schemes, they have not been available in materials science.
10 been one of the most interesting problems in materials science.
11 inorganic and organic chemistry, as well as materials science.
12 are seen throughout biology, chemistry, and materials science.
13 mental study of Weyl fermions in physics and materials science.
14 ccessfully utilized in the life sciences and materials science.
15 y branches of science, including biology and materials science.
16 ttracted increasing attention in physics and materials science.
17 nic chemistry, pharmaceutical chemistry, and materials science.
18 ology, geotechnical engineering and concrete materials science.
19 tifs and intermediates in drug discovery and materials science.
20 such assemblies for use in biomolecular and materials science.
21 pplications in environmental remediation and materials science.
22 ontinues to be a central challenge to modern materials science.
23 plicable across the wide field of perovskite materials science.
24 tical applications in chemistry, biology and materials science.
25 d medicinal chemistry, chemical biology, and materials science.
26 l cycles but also for using viral capsids in materials science.
27 f considerable significance in many areas of materials science.
28 eatly hindered by significant limitations in materials science.
29 rade-off has been a long-standing dilemma in materials science.
30 applications in both medicinal chemistry and materials science.
31 potential for application in biomedicine and materials science.
32 m of applications in crystal engineering and materials science.
33 catalysis represents an exciting frontier in materials science.
34 a wide range of biomedical applications and materials science.
35 on that still remains elusive in polymer and materials science.
36 asingly being applied in polymer science and materials science.
37 ntal sciences, archaeology, biomedicine, and materials science.
38 iences, in chemical-biology, in polymers and materials science.
39 st intensively explored carbon allotropes in materials science.
40 onal materials design is an emerging area of materials science.
41 ities for novel applications from biology to materials science.
42 perties with applications in biomedicine and materials science.
43 ields of supramolecular chemistry as well as materials science.
44 ligand systems in homogeneous catalysis and materials science.
45 ological, and medicinal chemistry as well as materials science.
46 s, isoindoles have found wide application in materials science.
47 interest and have potential applications in materials science.
48 at will open new avenues for applications in materials science.
49 cks remains a challenge and central goal for materials science.
50 the interface of biology, biotechnology, and materials science.
51 us in natural products, pharmaceuticals, and materials science.
52 spread importance in chemistry, biology, and materials science.
53 e important in many phenomena in biology and materials science.
54 -like polymers is a fundamental challenge in materials science.
55 l macromolecular interactions in biology and materials science.
56 from fundamental aspects to applications in materials science.
57 entral role in biology and, increasingly, in materials science.
58 ted with quantum electrodynamics rather than materials science.
59 cal to developments in medicine, biology and materials science.
60 glass or gel, is a long-standing problem of materials science.
61 rtant throughout biology, biotechnology, and materials science.
62 research fields including biotechnology and materials science.
63 action data remains a challenging problem in materials science.
64 and would benefit both the creative arts and materials science.
65 , electronic properties, and applications in materials science.
66 of solid-state compounds is a cornerstone of materials science.
67 such diverse areas as molecular medicine and materials science.
68 and vital to chemistry, biology, physics and materials science.
69 asymmetric particles has great potential for materials science.
70 s, is emerging as one of the major topics in materials science.
71 l and chemical processes and increasingly in materials science.
72 egions is a current area of high interest in materials science.
73 g chemistry, geochemistry, biochemistry, and materials science.
74 throughout chemistry, biology, physics, and materials science.
75 pre)catalysts to heterogeneous catalysis and materials science.
76 or heavy materials for advanced research in materials science.
77 property connections and a key challenge in materials science.
78 en the next frontier of condensed matter and materials science.
79 toward the application of boratriazaroles in materials science.
80 able tool in medical diagnosis, biology, and materials science.
81 he full exploitation of these derivatives in materials science.
82 ttest fields in condensed matter physics and materials science.
83 ntil activated have numerous applications in materials science.
84 roader applications to forensic, energy, and materials science.
85 cted to have a broad impact on chemistry and materials science.
86 ns which are at the forefront of research in materials science.
87 erial properties is one of the challenges in materials science.
88 ging applications in biomedical research and materials science.
89 ering, energy, gas storage and separation or materials science.
90 th many applications in chemical biology and materials science.
91 n patterns, which are abundant in nature and materials science.
92 phene became a rising star on the horizon of materials science.
93 d polymorphism still remains a holy grail of materials sciences.
94 of objects is an invaluable tool in life and materials sciences.
95 mistry and, more broadly, in life as well as materials sciences.
96 single-crystal x-ray studies of chemical and materials sciences.
97 ocesses, which are properties of interest in materials sciences.
98 technique widely used in the biological and materials sciences.
99 ifiers and super-acceptors with relevance in materials sciences.
100 tic properties and promising applications in materials sciences.
101 practical applications in biotechnology and materials sciences.
102 ample preparation across the life, earth and materials sciences.
103 and glasses is fundamental to both Earth and Materials Sciences.
104 cations in synthetic chemistry, biology, and materials sciences.
105 ing medicinal chemistry, total synthesis and materials science, a general, selective and step-efficie
106 espite significant advances in computational materials science, a quantitative, parameter-free predic
108 ic arrangements opens a new research area in materials science and as a result much interest has been
116 Applications in different fields, e.g. in materials science and catalysis including those in small
118 lectronic-structure problems and problems in materials science and condensed matter physics that can
119 he fields of physical and surface chemistry, materials science and condensed matter physics, but they
123 ch of its current development to advances in materials science and creative optical system designs.
124 antum regime, opening up for applications in materials science and device characterization in solid s
125 and opportunities for this emerging field of materials science and engineering are also discussed.
127 s the fields of chemistry, physics, biology, materials science and engineering for over half a centur
132 represents the fusion of the art of origami, materials science and functional energy storage devices,
134 mic force microscope (AFM) is widely used in materials science and has found many applications in bio
135 romises to have wide-ranging applications in materials science and in single-particle biological imag
140 has been used, among others, in the frame of materials science and most importantly has also found ve
141 ive perspectives in chemistry, glycobiology, materials science and nanoscience, with a particular sig
142 ments worldwide at rapid pace in the area of materials science and nanotechnology have made it possib
147 interest in using their aryl derivatives in materials science and supramolecular chemistry has risen
148 anocrystals become increasingly important in materials science and technology, due to their optoelect
149 ities with the aid of case studies that span materials science and the interface between the physical
150 basis for research in structural chemistry, materials science and the life sciences, including drug
151 used ion beams, previously restricted to the materials sciences and semiconductor fields, are rapidly
155 actions and phase changes, are ubiquitous in materials science, and developing a capability to observ
157 borative efforts from the fields of biology, materials science, and engineering are leading to exciti
158 is currently a grand challenge of chemistry, materials science, and engineering to understand and mim
163 new field at the intersection of chemistry, materials science, and information technology: infochemi
167 cally in the areas of molecular engineering, materials science, and nanotechnology because of their m
171 capabilities represent a challenge in modern materials science, and new procedures to quickly assess
177 ing calorimetry (DSC)] is frequently used in materials science applications and is increasingly being
178 to have wide potential for metallurgical and materials science applications where the dynamics of ele
179 profound implications for nanotechnology and materials science applications, offering a previously mi
180 a SL framework that addresses challenges in materials science applications, where datasets are diver
188 as a new paradigm in the field of biological materials science as they can serve as a toolbox for rat
189 Polyfluorinated aromatics are essential to materials science as well as the pharmaceutical and agro
191 ether, these results demonstrate a powerful, materials science-based solution to the problems of stoc
192 tu ball mill setup has been developed at the Materials Science beamline (Swiss Light Source, Paul Sch
193 s a key goal in condensed-matter physics and materials science because it can be used to stabilize st
194 ad applications in biology, nanoscience, and materials science because of its simple optical design,
195 an development, stem cell biology, genetics, materials science, bioengineering, and tissue engineerin
196 al impact across a range of disciplines from materials science, biomaterials, geology, environmental
197 l monitoring, manufacturing quality control, materials science, biotechnology, and metabolomic invest
198 alogue processes promises to strongly impact materials sciences by offering advanced coatings, adhesi
199 technological, and environmental demands of materials science call for focused and efficient expansi
200 rand extension sites, called dislocations in materials science, can mediate the growth of bacterial c
202 gical repercussions in diverse areas such as materials science, catalysis, biotechnology and biomedic
204 e recently attracted much research effort in materials science, chemistry, engineering and physics, i
206 ials, together with partnerships between the materials science community and those entrusted with the
208 A nanostructures represent the confluence of materials science, computer science, biology, and engine
209 egulation of gene suppression, as well as in materials science concerning soft molecular self-assembl
210 ccurately reconstructing textures drawn from materials science, cosmology, and granular media, among
211 een an active area of study in chemistry and materials science dating back to the initial synthesis o
214 ts, which may find potential applications in materials science, drug delivery, and nanoelectronics.
216 t this has been a long-standing challenge in materials science due to the elusive metastable nature o
217 anic chemical vapor deposition) processes in materials science, e.g. for the production of lanthanide
218 scopy is finding increasing applicability in materials science, effectively enabling the dissection o
219 Examples of the function of [S3] (-) in materials science, electrochemistry, analytical chemistr
223 s are interesting because they are useful in materials science (for example to generate thin films) b
225 idely used throughout chemistry, biology and materials science, from in vivo imaging to distance meas
226 r determines aspects of various phenomena in materials science, geology, biology, tribology and nanot
227 ing of cell biology and its integration with materials science has led to technological innovations i
228 articular at its interfaces with biology and materials science, has been recently established through
231 in molecular biology, organic chemistry, and materials science have recently created several new clas
232 rtical stacks, has created a new paradigm in materials science: heterostructures based on 2D crystals
234 iocompatibility make it of great interest to materials science; however, precise control of its biosy
237 red from mammalian cell synthetic biology to materials sciences in order to develop interactive biohy
238 ohelicenes in various disciplines such as in materials science, in nanoscience, in biological chemist
239 ical properties are of central importance to materials sciences, in particular if they depend on exte
240 However, the recent surge in two-dimensional materials science is accompanied by equally great challe
242 cer biology, immunology, bioengineering, and materials science is important to further enhance the th
245 strategies from environmental chemistry and materials science is therefore essential to provide a re
248 ow the convergence of synthetic biology with materials sciences might contribute to the development o
250 have some potential uses in several fields: materials science, nanoscience, chemical biology and sup
251 However, many samples in physics, chemistry, materials science, nanoscience, geology, and biology are
252 s expected to find important applications in materials science, nanoscience, physics, chemistry and b
253 solution is expected to find applications in materials science, nanoscience, solid-state physics and
254 are in the focus of research fields such as materials science, nanotechnology, and biotechnology.
255 In this Review, we discuss the physics and materials science of electrical contacts to carbon nanot
258 tion in fields such as chemical engineering, materials science, or pharmaceutical and life science.
259 of photoprotecting groups can be applied in materials science, organic synthesis and biological syst
263 Organofluorine chemistry plays a key role in materials science, pharmaceuticals, agrochemicals, and m
264 ds is expected to find broad applications in materials science, physics, chemistry and nanoscience.
265 involve interactions among researchers from materials science, physics, chemistry, computer science,
267 fundamental challenge, hindering progress in materials science, porous media, and biomedical imaging.
269 r experiencing high velocity collisions, but materials science regarding the extreme events has been
271 rials behavior are an important component of materials science research, partly because measurements
274 ography is applicable to both biological and materials science specimens, and may be useful for under
275 roteins, and into processes of importance in materials science, such as nanoparticle synthesis and el
276 the past 20 years has had a major impact on materials science, surface science and various areas of
278 e insights across biological, geological and materials science that are impossible using either indiv
279 he "blue fog," are among the rising stars in materials science that can potentially be used to develo
280 tic compounds in the biomedical field and in materials science, the present study further expands the
281 applications in both medicinal chemistry and materials science, there have been limited reports on th
282 pments in communications, nanotechnology and materials sciences, there has been extraordinary growth
285 een applied in various fields of study, from materials science to biological imaging, exploiting the
290 ena and theories in many fields ranging from materials science to early-universe cosmology, and to en
292 search fields such as chemistry, physics, or materials science, to mention a few, arguably as no othe
293 s, novel perspectives have been opened up to materials science towards the development of dynamic mat
294 proposed, being highly challenging from the materials science viewpoint and with the golden thread o
295 sis of thin films is a desideratum of modern materials science where a material's properties depend s
296 enable scientists to explore new regimes in materials science where augmented force, field and displ
298 by combining advances in nanotechnology and materials science with CL, new avenues for basic and app
299 citing new branch of crystal engineering and materials science with important implications to nanotec
300 he areas of chemistry, physics, biology, and materials science, yet this environment is difficult to
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