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1 mensional explicit mixing parcel model (EMPM-Chem).
2 n atmospheric chemical transport model (GEOS-Chem).
3 n atmospheric chemical transport model (GEOS-Chem).
4 arch and Foresting model with Chemistry (WRF-Chem).
5 Carter-Fenk and Herbert (Chem.
6 tric electrocatalysis' by Jonas Rein et al., Chem.
7 origami nano-mechanics' by Jiahao Ji et al., Chem.
8 l review' by Ramkrishna Das Adhikari et al., Chem.
9 iation applications' by Saba Daliran et al., Chem.
10 hemical reactions' by Yorrick Boeije et al., Chem.
11 to-thermal catalysis' by Diego Mateo et al., Chem.
12 isation catalysts' by Eszter Fazekas et al., Chem.
13 or polymer materials' by Yinjun Chen et al., Chem.
14 alization reactions' by Saba Daliran et al., Chem.
15 ysical understanding' by Guancen Liu et al., Chem.
16 olefins production' by Matteo Monai et al., Chem.
17 ir utility' by Kaustav Bhattacharjee et al., Chem.
18 and future directions' by Bee Ha Gan et al., Chem.
19 ling challenges' by Antonio Vilanova et al., Chem.
20 tial applications' by Romy Ettlinger et al., Chem.
21 ion for MOFtronics' by Mingchao Wang et al., Chem.
22 echanistic aspects' by Jagrit Grover et al., Chem.
23 he atmospheric chemical transport model GEOS-Chem.
24 within chemistry' by Manuel Hertzog et al., Chem.
25 )(dark)/IC(50)(light)) [Rubbiani, R. et al., Chem.
26 e and modulated emotional behavior [Mock Nat Chem.
27 an update to our first review of this topic (Chem.
28 e excellent treatment by Dugave and Demange (Chem.
29 vey of this broad field in Chemical Reviews (Chem.
30 ew approach reported by Struntz et al. (Cell Chem.
31 fur-based batteries' by Ralf Steudel et al., Chem.
32 nanomaterials' by Sayak Subhra Panda et al., Chem.
33 Antonio et al., Chem.
34 cial receptors' by Stefano Tommasone et al., Chem.
35 catalysis' by Daniel Janssen-Muller et al., Chem.
36 reactors' by Juan Carlos Colmenares et al., Chem.
37 etection using SERS' by Stacey Laing et al., Chem.
38 and chemical sensors' by Ivo Stassen et al., Chem.
39 f drug-like molecules' by Tim Cernak et al., Chem.
40 atile photochrome' by Luuk Kortekaas et al., Chem.
41 e global-scale chemical transport model GEOS-Chem.
42 ions using the chemical transport model GEOS-Chem.
43 based on the SMR, and 60 ppbv, based on WRF-Chem.
44 constant catalyzed by wild type GGTase I (k(chem) = 0.18 +/- 0.02 s(-1)) is not dependent on Mg(II),
45 cs software (NAMD (Phillips et al., J Comput Chem 26(16):1781-802, 2005), VMD (Humphrey et al., J Mol
49 Finally, we incorporate results into GEOS-Chem, a global chemical transport model, to compute the
54 Using two atmospheric chemistry models, CAM-chem and GEOS-Chem, our findings reveal that anthropogen
56 g two chemical transport models (CTMs): GEOS-Chem and the Community Multiscale Air Quality (CMAQ) and
60 sition from a chemical transport model (GEOS-Chem) and satellite observations of aerosol optical dept
61 odel coupled with Chemistry version 3.5 (WRF-Chem)-and three emission scenarios, we assessed the impa
63 satellite data, and a mechanistic model [WRF-Chem]), approaches to model building (e.g., one model fo
64 ons of both C(3)H(8) and C(2)H(6) using GEOS-Chem are in reasonable agreement with ATom and HIPPO obs
65 -dimensional chemistry-transport model (GEOS-Chem) are used to relate the OMI NO2 columns to ground-l
66 ospheric Emission Spectrometer with the GEOS-Chem atmospheric model to better quantify the HCOOH sour
67 IS MAIAC) was combined with simulation (GEOS-Chem) based upon their relative uncertainties as determi
68 uding camouflage soldier fabrics/apparel for chem-bio warfare, color morphing soft robots, rewritable
69 and biocatalytic-chemical-biocatalytic (bio-chem-bio) cascades starting from commercially available
70 eved the same penetration in waveguide-based chem/bio sensing compared to related sensing schemes ope
72 ing schemes will readily complement existing chem/bio sensor technologies in applications ranging fro
73 his review, current advances in mid-infrared chem/bio sensor technology will be highlighted and contr
75 hich inspires us to develop highly selective chem/(bio)sensors for in vivo analysis by precisely engi
76 ents a great challenge in the development of chem/(bio)sensors that are capable of directly and selec
77 f U35 in the tRNA anticodon loop decreases k(chem) by 30-fold and weakens glutamine binding affinity
78 pth (AOD) and chemical transport model (GEOS-Chem) calculations of the relationship between AOD and P
80 In contrast, the design of the ELIXYS FLEX/CHEM cassette-based synthesizer supports higher temperat
82 based smoke plume estimates and (2) the GEOS-Chem chemical transport model (CTM), we identify recent
83 different sensitivity regimes using the GEOS-Chem chemical transport model and apply the method to sa
84 We implement this mechanism into the GEOS-Chem chemical transport model and investigate its impact
86 emble of aircraft measurements with the GEOS-Chem chemical transport model to constrain present-day N
89 ion system based on modern PPLs and the GEOS-Chem chemical transport model, simulating atmospheric CO
91 in the Goddard Earth Observing System (GEOS)-Chem chemical transport model, we find that global surfa
92 ion of HMS chemistry in the nested-grid GEOS-Chem chemical transport model, whose simulations provide
97 al cross-linking and isolation by pull-down (Chem-CLIP) to identify and map the binding sites of low
98 al Cross-Linking and Isolation by Pull Down (Chem-CLIP) to study the cellular selectivity and the on-
99 al Cross-Linking and Isolation by Pull-Down (Chem-CLIP), a small-molecule RNA target validation appro
103 bind to r(CGG)(exp) in cellulo as shown with Chem-CLIP-Map, an approach to map small molecule binding
104 n by Pull-down combined with NGS Sequencing (Chem-CLIP-seq) data identified collagen type XV alpha 1
105 ch and Forecasting model with Chemistry (WRF/Chem) coupled with the Model of Emissions of Gases and A
106 ssability with dose-sparing chemical action, Chem-CRISPR/dCas13(FCPF) establishes a proximity-induced
107 stem for epigenome editing, we now introduce Chem-CRISPR/dCas13(FCPF), a modular platform that covale
109 d an Eulerian chemical transport model (GEOS-Chem CTM) to develop top-down constraints on U.S. CO sou
110 The configurations tested are (1) the GEOS-Chem default configuration, which uses instantaneous equ
112 We describe here the use of DNA-encoded X-Chem (DEX) screening, combined with selection of appropr
115 the chemical step for tRNA aminoacylation (k(chem)) exceeds the steady-state rate by nearly 10-fold.
117 orecasting model coupled with Chemistry (WRF-Chem) for the first time, aiming to improve fine particu
118 atmospheric chemical transport modeling (WRF-Chem) for the post-monsoon to winter transition to unrav
122 Impairment of gephyrin assembly prevents chem-iLTP and, in parallel, blocks the accumulation and
124 nd GABA(A)R similar to those observed during chem-iLTP in cultures were found in the rat visual corte
125 nstrate that during chemically induced iLTP (chem-iLTP), GABA(A)Rs are immobilized and confined at sy
126 use a global chemical transport model (GEOS-Chem) in its high-performance configuration (GCHP) for h
128 1A) or aspartate (Kbeta311D) decreases the k(chem) in the absence of magnesium 9-41-fold without sign
129 bal scale, the chemical transport model GEOS-Chem is used to identify regions characterized by lower
130 of overall reaction rates as a function of k(chem), k(inact), K(i), and V(r), which was validated wit
132 rence between huPNP and PfPNP supports the k(chem)/kcat binding argument for transition state analogu
133 activity against human red blood cells among Chem-KVL analogues and maintained high antimicrobial pro
134 rd microorganisms, its 14-mer tandem repeat (Chem-KVL) was highly active against different bacteria i
136 ived using a hybrid chemical transport (Geos-Chem)/land-use regression model and natural log transfor
137 cific antibodies, we found that induction of chem-LTD produces a persistent dephosphorylation of the
142 xorubicin in human leukemia cells; using the Chem-map of doxorubicin in cells exposed to the histone
150 t demonstrates the potential importance of a Chem-MIF effect in a PSN where plasma zones develop.
151 ver, these potential chemical MIF reactions (Chem-MIFs) are not identified in conditions close to the
153 end differences were predicted using the WRF-Chem model and evaluated using satellite and aircraft ob
156 , we exploit recent developments to the GEOS-Chem model in its high-performance implementation to con
158 For this modelling study, we used the GEOS-Chem model nested over the UK to simulate ambient PM(2.5
160 le with vertical shape factors from the GEOS-Chem model that capture the contrasting shapes observed
162 hain in Africa that we implement in the GEOS-Chem model to quantify the contribution of charcoal to s
165 ned on the parameters simulated from the WRF-Chem model, and it suggests that six predictive paramete
166 sults from other studies in Nevada, and GEOS-Chem modeling results point toward a free troposphere co
167 ospheric chemistry models, CAM-chem and GEOS-Chem, our findings reveal that anthropogenic primary OA
168 stigation of intrinsic warhead reactivity (k(chem)), rate of covalent bond formation and proximity (k
172 ovide detailed protocols for carrying out TT(chem)-seq and DRB/TT(chem)-seq, including computational
177 unoprecipitation followed by sequencing) and Chem-seq (chemical affinity capture and massively parall
179 pture and massively parallel DNA sequencing (Chem-seq) to identify the sites bound by small chemical
180 IP-sequencing-like approach, referred to as "Chem-seq," we were next able to efficiently map the geno
181 rvised learning framework, we treat the GEOS-Chem simulated data set as the target, with predictors d
185 In contrast, AERONET observations and GEOS-Chem simulations consistently capture Arctic Haze in spr
188 otein kinase inhibitors published in J. Med. Chem. since 1993 can be modeled using a template extract
189 ical review, an update of our 2007 review in Chem. Soc. Rev., we focus on the "click" reactions that
190 istry, and chemistry students (from here bio/chem students) completed a minor in computer science.
192 We use the chemical transport model GEOS-Chem to evaluate the hypothesis that atmospheric polycyc
193 use the global chemical transport model GEOS-Chem to explore possible scenarios representative of spe
194 the global 3-D chemical transport model GEOS-Chem to simulate long-range atmospheric transport of pol
196 a global 3-D chemical transport model (GEOS-Chem) to identify the sources and processes that control
197 orecasting model coupled with Chemistry (WRF-Chem) to produce a 72-h forecast daily in a dynamical do
200 by the global chemical transport model, GEOS-Chem v13.0.0, using a scaled C(2)H(6) spatial proxy.
203 D atmospheric chemical transport model (GEOS-Chem), we quantify global and regional NF(3) emission fr
204 ate molecular organometallic chemistry (SMOM-chem), well-defined isobutane and cyclohexane sigma-comp
205 search Forecasting Model with Chemistry (WRF-Chem) which indicates transport to Reno from large fires
206 shore from the Western US associated in GEOS-Chem with elevated ozone in the lower free troposphere.
207 asting Model with atmospheric chemistry (WRF-Chem) with emissions of volatile organic compounds (VOCs
208 The method, an extension to the ChemDiverse/Chem-X software (Oxford Molecular, Oxford, England), has