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1 nomy, ecology, forensics, food analysis, and environmental science.
2  potential applications in biotechnology and environmental science.
3  organic compounds is a frequent question in environmental science.
4 lication fields ranging from metabolomics to environmental science.
5 h fundamental catalytic research and applied environmental science.
6 lysis, electrochemistry, and atmospheric and environmental science.
7  needed in many areas of geobiochemistry and environmental science.
8 s for better integration of macroecology and environmental science.
9 f fundamental importance in many branches of environmental science.
10 s ranging from medicine and biotechnology to environmental science.
11  such as pharmaceuticals, agrochemicals, and environmental science.
12  breakthrough in traditional agriculture and environmental science.
13  most influential diagrams in the history of environmental sciences.
14 elds, including chemistry, metabolomics, and environmental sciences.
15 thereby enhancing their utility in Earth and environmental sciences.
16 hemistry, nanosciences, green chemistry, and environmental sciences.
17  in biology, food technology, cosmetics, and environmental sciences.
18 al scholar in the physical, data, earth, and environmental sciences.
19 dicine, biotechnology, chemical sciences and environmental sciences.
20 ometers and tracers in earth, planetary, and environmental sciences.
21 t between archaeology and the biological and environmental sciences.
22 numerous fields ranging from biochemistry to environmental sciences.
23 to assess geochemical processes in Earth and environmental sciences.
24 nd, which is a standard sample often used in environmental sciences.
25 ain pivotal for both fundamental and applied environmental sciences.
26 vides a powerful methodology in the field of environmental sciences.
27 reat benefit to medical, pharmaceutical, and environmental sciences.
28 ing gives obvious advantages in forensic and environmental sciences.
29 alignment in purpose between nutritional and environmental sciences.
30  a scholar in the physical, data, earth, and environmental sciences.
31 te scholar in the physical, data, earth, and environmental sciences.
32 ehavioural sciences, physics, chemistry, and environmental sciences.
33 these methods have not been exploited in the environmental sciences.
34  a scholar in the physical, data, earth, and environmental sciences.
35  a scholar in the physical, data, earth, and environmental sciences.
36 plications in physical, pharmacological, and environmental sciences.
37 tigations as well as for applications in the environmental sciences.
38 rs can limit applications, especially in the environmental sciences.
39  a scholar in the physical, data, earth, and environmental sciences.
40 (PTR-MS) has become a reference technique in environmental science allowing for VOC monitoring with l
41 les in various fields, such as neuroscience, environmental science, analytical chemistry, separation,
42  will prove useful for the study of ozone in environmental science and biology, and so possibly provi
43  heterogeneous catalysis, energy conversion, environmental science and biomedicine(1-7).
44 vironmental issues, the current ML models in environmental science and engineering (ES&E) often negle
45 ta analytics frameworks suitable for various Environmental Science and Engineering (ESE) research app
46  modeling and analysis of turbulent flows in environmental science and engineering contexts.
47 ulum itself is built on three primary cores: environmental science and engineering, business and mana
48  Morgan was a leading figure in the field of environmental science and engineering.
49 stallinity, this work is equally relevant to environmental science and environmental technology becau
50 advancing Cl-/Br-compound identification for environmental science and exposomics.
51 e world and representing fields ranging from environmental science and food chemistry to 'omics and t
52 ications in precision medicine, agriculture, environmental science and forensics.
53 (4)) has broad implications in geochemistry, environmental science and materials science.
54      Despite their fundamental importance in environmental science and policy, there has been no syst
55 al analytical information for biological and environmental sciences and industrial waste management.
56 damental challenge in industrial processing, environmental sciences and medical applications.
57  P stands to provide important nuance in the environmental sciences and overlapping fields of agronom
58 verse disciplines including medical science, environmental science, and agriculture.
59 or a number of fields including biomedicine, environmental science, and biosecurity.
60 ncluding public health, veterinary medicine, environmental science, and community engagement are thus
61 ines, underpinning processes in climatology, environmental science, and human health issues.
62 +) is a very important metal ion in biology, environmental science, and industry.
63 of interdisciplinary interactions of energy, environmental science, and nanotechnology in this review
64  great promise in the fields of biomedicine, environmental science, and natural resources.
65 uence applications in agriculture, medicine, environmental science, and synthetic biology.
66 such as photomedicine, photoredox catalysis, environmental science, and the development of sun care p
67 cial for applications in chemistry, biology, environmental sciences, and health monitoring.
68 al roles that have an impact on agriculture, environmental sciences, and human health and disease.
69 molecules across medical, biotechnology, and environmental science applications.
70 nd other fields including physics, earth and environmental sciences, archaeology, biomedicine, and ma
71 C, H, N, and O in proteins is of interest in environmental science, archeology, zoology, medicine, an
72 nalyses in chemistry, materials science, and environmental science are currently performed using tech
73  chemical processes in organic synthesis and environmental science are reported.
74 and processes in the contexts of combustion, environmental science, astrochemistry, and nanomaterials
75  has important applications in areas such as environmental science, biomedical research and medical d
76 owth curves has importance in food sciences, environmental sciences, bioremediation and in understand
77 rucial importance to Earth's climate and the environmental sciences, but it is not understood at the
78 eography, biostatistics, spatial statistics, environmental science, climate change, exposure science,
79  analyses and not fully characterized by the environmental science community, which may enter the env
80 , CAB Direct Global Health, Agricultural and Environmental Science Database, Web of Science, and Scop
81 R applications for atmospheric transport and environmental sciences, detection of fugitive emissions,
82 y (i.e., in both generation and storage) and environmental science (e.g., purification/remediation).
83 ms (e.g. Mechanoreceptor of crayfish) and in environmental sciences (e.g. the periodic occurrence of
84 n processing, catalysis, biomedical science, environmental science, energy conversion and storage, ad
85 nic pollutants is a formidable challenge for environmental sciences, engineering, and regulation.
86 application of advanced LLMs in the emerging environmental science field.
87 commendations of the EAACI Guidelines on the environmental science for allergic diseases and asthma,
88 r of exciting application areas in earth and environmental sciences, for example, natural abundance d
89  applications (SWApps) across biological and environmental sciences has grown exponentially over the
90 ological research, medicine, agriculture and environmental science, has led to unprecedented growth i
91 ral examples for the application of APXPS to environmental science, heterogeneous catalysis, and elec
92 ques in the field of nano(eco)toxicology and environmental sciences, including atomic force microscop
93        This report derives from a Health and Environmental Sciences Institute (HESI) workshop held in
94 a Assay (CiPA) coordinated by the Health and Environmental Sciences Institute (HESI).
95 sembled by a working group of the Health and Environmental Sciences Institute's Technical Committee o
96 umber of metagenomic studies in medicine and environmental sciences is creating increasing demands on
97                         Data availability in environmental sciences is growing rapidly.
98 e in broad fields such as energy conversion, environmental science, life science and chemical synthes
99 icine, tissue engineering, renewable energy, environmental science, nanotechnology and material scien
100 om materials science, biomaterials, geology, environmental science, palaeontology and cultural herita
101 inimally invasive passive sampling method in environmental science, permitting the determination of s
102 IA research across diverse fields, including environmental science, pharmaceuticals, and food chemist
103 hodology offers considerable advances in the environmental sciences, providing a more complete assess
104 ilms on clay particles underlies a number of environmental science questions, from the air quality an
105 and challenges in global change research and environmental science raise the need for replicated expe
106 guided by three emergent hypotheses in human-environmental sciences regarding the relationships among
107                          A current theory in environmental science states that dissolved anxiolytics
108                                              Environmental Science & Technology (ES&T) has served a l
109 Werner Stumm, his role as founding editor of Environmental Science& Technology, his seminal contribut
110 al exposure science represents a frontier of environmental science that is emerging and quickly evolv
111 effect of freeze-thaw cycles is important in environmental science, the built environment and cultura
112 evelopments and applications in the field of environmental sciences, these methods have not been exte
113 es, particularly in medical, veterinary, and environmental sciences, this enabling technology has had
114              By surveying 908 researchers in environmental sciences, this study estimates and compare
115  experts from population, developmental, and environmental science to encourage debate and collaborat
116 xhaled breath with applications ranging from environmental science to medicine.
117 ls structure and dynamics, to geophysics and environmental science, to biophysics and protein crystal
118 uding the scientific enterprise; ecology and environmental science will be no exception.

 
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