cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.5281/zenodo.5808370
title: Co-registered U. Arizona HiRISE DTM and ORI over Sakarya Vallis, Gale Crater, Mars

description: Local digital terrain model (DTM) and orthorectified image (ORI) of Sakarya Vallis, west of Aeolis Mons in Gale crater, Mars. The DTM was originally processed by the University of Arizona (DTEEC_006855_1750_007501_1750_A01, https://www.uahirise.org/dtm/dtm.php?ID=PSP_006855_1750); this product is co-registered to CTX DTMs which were themselves co-registered to HRSC DTMs (Persaud et al. 2021, https://doi.org/10.5281/zenodo.5808357) using Ames Stereo Pipeline. The ORI was processed using Ames Stereo Pipeline and adjusted with GDAL. Format: GeoTiff<br> Projection: Equidistant cylindrical<br> Datum: Spheroid (r = 3396.190 km)<br> Bit depth: Float32<br> DTM grid-spacing: 1 m/pixel<br> ORI resolution: 0.25 m/pixel Stereo pairs (from University of Arizona): PSP_006855_1750_RED, PSP_007501_1750_RED Image ID of the ORI: PSP_007501_1750_RED
description: The first author is now at Jet Propulsion Laboratory, California Institute of Technology, Pasadena, California. Contact: divya.m.persaud@jpl.nasa.gov
description: {"references": ["Beyer, R. A., O. Alexandrov, and S. McMichael. 2018. \"NeoGeographyToolkit/StereoPipeline: Ames Stereo Pipeline 2.6.1.\" Zenodo.", "NASA/JPL/University of Arizona", "Persaud, D. M., Putri, A. D. R., Muller, J.-P. (2021). 30-m HRSC DTM Mosaic of Gale Crater, Mars [Data set]. Zenodo. https://doi.org/10.5281/zenodo.5808354", "Persaud, D. M., Tao, Y., Muller, J.-P. (2021). CTX DTM and ORI Mosaics over Sakarya Vallis, Gale Crater, Mars [Data set]. Zenodo. https://doi.org/10.5281/zenodo.5808357"]}
DOI: 10.6084/m9.figshare.19409903.v2
title: A Method to Examine the Microarchitectures of the Decellularized Renal Tubule and Peritubular Capillary In Vivo Using Intravital Microscopy

description: This study contains intravital microscopy (IVM) data that examines the microarchitecture of decellularized renal tubules and peritubular capillaries using whole acellular kidney scaffolds. These acellular scaffolds are cell-free collagen-based matrices derived from native organs, which can be used as templates for regenerative medicine applications. This data set contains <i>in vivo</i> assays that evaluated the effectiveness of decellularization and structural and functional integrity of these acellular nephron compartments in the post-transplantation environment. Qualitative and quantitative assessments of scaffold DNA concentrations, tissue fluorescence signals, and structural and functional integrities of decellularized tubular and peritubular capillary segments were acquired and compared to the native (non-transplanted) organ. Cohorts of 2-3-month-old male Sprague Dawley rats were used: non-transplanted (n = 4), transplanted day 0 (n = 4), transplanted day 1 (n = 4), transplanted day 2 (n = 4), and transplanted day 7 (n = 4). OIF formatted files illustrate IVM measurement processes and are made publicly available in a data repository. Such data is intended to support scientific reproducibility, complement future renal studies, and extend the use of this powerful imaging application to analyze other organ scaffold systems.
DOI: 10.5519/qd.vy3gmnrq
title: Query on the Natural History Museum Data Portal (data.nhm.ac.uk) (12519 records)
DOI: 10.5281/zenodo.6384732
title: Mars ISSM simulations model files 2

description: These are the simulation model files for: 'MARS.DEPO_00011': for DEPO_00008-00011 simulation 'MARS.DEPO_00012': for DEPO_00012 simulation 'MARS.DEPO_00018': for DEPO_00017-00018 simulation 'MARS.DEPO_00019': for DEPO_00019 simulation 'MARS.DEPO_00024': for DEPO_00020-00024 simulation 'MARS.DEPO_00026': for DEPO_00025-00026 simulation 'MARS.DEPO_00036': for DEPO_00036 simulation 'MARS.DEPO_00037': for DEPO_00037 simulation 'MARS.DEPO_00038': for DEPO_00038 simulation
DOI: 10.5281/zenodo.6366785
title: Mars ISSM simulations model files 2

description: These are the simulation model files for: 'MARS.DEPO_00011': for DEPO_00008-00011 simulation 'MARS.DEPO_00012': for DEPO_00012 simulation 'MARS.DEPO_00018': for DEPO_00017-00018 simulation 'MARS.DEPO_00019': for DEPO_00019 simulation 'MARS.DEPO_00024': for DEPO_00020-00024 simulation 'MARS.DEPO_00026': for DEPO_00025-00026 simulation 'MARS.DEPO_00036': for DEPO_00036 simulation 'MARS.DEPO_00037': for DEPO_00037 simulation 'MARS.DEPO_00038': for DEPO_00038 simulation
DOI: 10.5281/zenodo.6384723
title: Mars ISSM simulations model files 1

description: These are the simulation model files for: 'MARS.DEPO_00011': for DEPO_00008-00011 simulation 'MARS.DEPO_00012': for DEPO_00012 simulation 'MARS.DEPO_00018': for DEPO_00017-00018 simulation 'MARS.DEPO_00019': for DEPO_00019 simulation 'MARS.DEPO_00024': for DEPO_00020-00024 simulation 'MARS.DEPO_00026': for DEPO_00025-00026 simulation 'MARS.DEPO_00036': for DEPO_00036 simulation 'MARS.DEPO_00037': for DEPO_00037 simulation 'MARS.DEPO_00038': for DEPO_00038 simulation
DOI: 10.5281/zenodo.6366787
title: Mars ISSM simulations model files 1

description: These are the simulation model files for: 'MARS.DEPO_00011': for DEPO_00008-00011 simulation 'MARS.DEPO_00012': for DEPO_00012 simulation 'MARS.DEPO_00018': for DEPO_00017-00018 simulation 'MARS.DEPO_00019': for DEPO_00019 simulation 'MARS.DEPO_00024': for DEPO_00020-00024 simulation 'MARS.DEPO_00026': for DEPO_00025-00026 simulation 'MARS.DEPO_00036': for DEPO_00036 simulation 'MARS.DEPO_00037': for DEPO_00037 simulation 'MARS.DEPO_00038': for DEPO_00038 simulation
DOI: 10.34740/kaggle/ds/2002940
title: WILDFIRE-I
DOI: 10.34740/kaggle/dsv/3367206
title: Mahanagar Yatayat Dataset
DOI: 10.14469/hpc/9194
title: C6H5CF3-DMF-B3LYP/def2svpp

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9195
title: C6H5CF3-DMF-B3LYP+GD3BJ/aug-cc-pvdz

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9334
title: Fluoroform-DCM-B3LYP/aug-cc-pvdz

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9336
title: Fluoroform-DCM-MP2/aug-cc-pvdz/OPT

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9337
title: Fluoroform-Acetone-B3LYP/def2svpp

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9338
title: Fluoroform-DCM-wb97xd/def2svpp

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9339
title: Fluoroform-Acetone-MP2/aug-cc-pvdz/NMR

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9340
title: Fluoroform-Acetone-wb97xd/aug-cc-pvdz

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9341
title: BF3*THF-B3LYP+GD3BJ/aug-cc-pvdz

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9342
title: p-C6H4F2-THF-B3LYP+GD3BJ/def2svpp

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9343
title: BF3*THF-B3LYP+GD3BJ/def2svpp

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9344
title: Fluoroform-Acetone-B3LYP/aug-cc-pvdz

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9345
title: Fluoroform-Acetone-B3LYP+GD3BJ/aug-cc-pvdz

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9350
title: Fluoroform-Acetonitrile-wb97xd/aug-cc-pvdz

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9351
title: Fluoroform-Acetone-MP2/aug-cc-pvdz/OPT

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9352
title: Fluoroform-Acetonitrile-wb97xd/def2svpp

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9353
title: Fluoroform-DCM-B3LYP+GD3BJ/aug-cc-pvdz

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9354
title: Fluoroform-DCM-B3LYP/def2svpp

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9395
title: p-C6H4F2-Chloroform-B3LYP/def2svpp

description: Gaussian 16 (C01) calculation
DOI: 10.14469/hpc/9592
title: (CF3)2CO-B3LYP+GD3BJ/def2svpp

description: Gaussian 16 (C01) calculation
DOI: 10.6084/m9.figshare.17010020
title: Decoding family-level features for modern and fossil leaves from computer-vision heat maps (AJB 2022): Annotated heat maps and raw data

description: This data item supports its primary research article in <i>American Journal of Botany</i> (Spagnuolo et al., 2022) and contains the following contributions. Please see the primary article for all explanations.<br><br>1. Complete set of annotated heat maps organized as pdfs by plant family as seen in figs. 1, 3, 4, 6 of the primary article. Blue circles indicate the top-5 squares. Additional circle indicates the top-1 square. Horizontal lines indicate 25% and 75% of blade length. Text labels include genus, species, and the Wolfe (NCLC-W) catalog number for the cleared leaf specimen.<br> a. “Anacardiaceae Annotated Heat Maps.pdf”<br>b. “Annonaceae Annotated Heat Maps.pdf” <br>c. “Apocynaceae Annotated Heat Maps.pdf” <br>d. “Betulaceae Annotated Heat Maps.pdf”<br>e. “Celastraceae Annotated Heat Maps.pdf” <br>f. “Ericaceae Annotated Heat Maps.pdf” <br>g. “Fabaceae Annotated Heat Maps.pdf” <br>h. “Fagaceae Annotated Heat Maps.pdf” <br>i. “Malvaceae Annotated Heat Maps.pdf” <br>j. “Myrtaceae Annotated Heat Maps.pdf” <br>k. “Rosaceae Annotated Heat Maps.pdf”<br>l. “Rubiaceae Annotated Heat Maps.pdf” <br>m. “Salicaceae Annotated Heat Maps.pdf”<br>n. “Sapindaceae Annotated Heat Maps.pdf”<br><br>2. Raw data of top-5 and top-1 square scores for all specimens in the 14 families as a csv file (supporting primary article fig. 2 and item 5, below). <br> a. “Spagnuolo et al Raw Data.csv”<br><br>3. Within-family mean and median top-5 and top-1 scores for all families as csv files (supporting primary article figs. 4, 5). <br> a. “Top.5 Mean Scores.csv”<br> b. “Top.1 Mean Scores.csv”<br> c. “Top.5 Median Scores.csv”<br><br>4. Within-family means and medians separated by toothed vs. untoothed and lobed vs. unlobed leaves, in separate csv files.<br>Toothed and lobed fractions are only shown for families that had toothed or lobed samples in this dataset (see table 2 of primary article).<br> a. “Toothed and Lobed Comparisons, Means.csv”<br> b. “Toothed and Lobed Comparisons, Medians.csv”<br><br>5. Box plots of top-1 scores by family for each of 21 leaf locations as pdf file. See fig. 2 of the primary article for top-5 box plots and more information. <br> a. “Spagnuolo et al top.1 Box Plots.pdf”<br><br><br>Spagnuolo, EJ, P Wilf, T Serre. 2022. Decoding family-level features for modern and fossil leaves from computer-vision heat maps. American Journal of Botany. doi: 10.1002/ajb2.1842<br><br>
DOI: 10.6084/m9.figshare.17010020.v1
title: Decoding family-level features for modern and fossil leaves from computer-vision heat maps (AJB 2021): Annotated heat maps and raw data

description: This data item supports its primary research article in American Journal of Botany (Spagnuolo et al., 2022) and contains the following contributions. Please see the primary article for all explanations.<br><br>1. Complete set of annotated heat maps organized as pdfs by plant family as seen in figs. 1, 3, 4, 6 of the primary article. Blue circles indicate the top-5 squares. Additional circle indicates the top-1 square. Horizontal lines indicate 25% and 75% of blade length. Text labels include genus, species, and the Wolfe (NCLC-W) catalog number for the cleared leaf specimen.<br> a. “Anacardiaceae Annotated Heat Maps.pdf”<br>b. “Annonaceae Annotated Heat Maps.pdf” <br>c. “Apocynaceae Annotated Heat Maps.pdf” <br>d. “Betulaceae Annotated Heat Maps.pdf”<br>e. “Celastraceae Annotated Heat Maps.pdf” <br>f. “Ericaceae Annotated Heat Maps.pdf” <br>g. “Fabaceae Annotated Heat Maps.pdf” <br>h. “Fagaceae Annotated Heat Maps.pdf” <br>i. “Malvaceae Annotated Heat Maps.pdf” <br>j. “Myrtaceae Annotated Heat Maps.pdf” <br>k. “Rosaceae Annotated Heat Maps.pdf”<br>l. “Rubiaceae Annotated Heat Maps.pdf” <br>m. “Salicaceae Annotated Heat Maps.pdf”<br>n. “Sapindaceae Annotated Heat Maps.pdf”<br><br>2. Raw data of top-5 and top-1 square scores for all specimens in the 14 families as a csv file (supporting primary article fig. 2 and item 5, below). <br> a. “Spagnuolo et al Raw Data.csv”<br><br>3. Within-family mean and median top-5 and top-1 scores for all families as csv files (supporting primary article figs. 4, 5). <br> a. “Top.5 Mean Scores.csv”<br> b. “Top.1 Mean Scores.csv”<br> c. “Top.5 Median Scores.csv”<br><br>4. Within-family means and medians separated by toothed vs. untoothed and lobed vs. unlobed leaves, in separate csv files.<br>Toothed and lobed fractions are only shown for families that had toothed or lobed samples in this dataset (see table 2 of primary article).<br> a. “Toothed and Lobed Comparisons, Means.csv”<br> b. “Toothed and Lobed Comparisons, Medians.csv”<br><br>5. Box plots of top-1 scores by family for each of 21 leaf locations as pdf file. See fig. 2 of the primary article for top-5 box plots and more information. <br> a. “Spagnuolo et al top.1 Box Plots.pdf”<br><br><br>Spagnuolo, EJ, P Wilf, T Serre. 2022. Decoding family-level features for modern and fossil leaves from computer-vision heat maps. American Journal of Botany. doi: ______<br><br>
DOI: 10.25345/c53x83q1x
title: MassIVE MSV000089134 - GNPS cacao callus vs bean lc-ms
title: molecular network study of cacao callus vs cacao beans
DOI: 10.26208/htw5-q166
title: 	Electrodynamic Levitation Diffusion Chamber Measurements of the Mass Growth of Ice Crystals Grown from the Vapor at -65 to -40C

description: This data set comprises individual time-series for ice crystals grown in an electrodynamic levitation diffusion chamber at temperatures between -65 and -40C. Descriptions of the chamber and experimental proceedure can be found in Harrison et al. (2016), Pokrifka et al. (2020), and Pokrifka et al. (submitted to J. Atmos. Sci. 2022). Experiments were conducted by freezing small (approximately 10 micrometer radius) droplets either homogeneously or heterogeneously with a 0.2 g/L Snomax mixture. Frozen droplets were levitated in the diffusion chamber and grown in a constant temperature, pressure, and supersaturation environment. The voltage needed to levitate the particle was recorded as a function of time, then it was normalized by the voltage at the beginning of the experiment. The ratio of the voltage is mass ratio of the levitated particles, which is the mass of the growing particle normalized by its initial mass. The mass ratio time-series are archived here. The initial size of the droplet was also measured, and therefore the mass time-series can be calculated from the mass ratio time-series. The initial sizes, environmental conditions, and potential ice nuclei for the particles have also been archived.
DOI: 10.5281/zenodo.6387546
title: Effect of density gradients on the generation of a highly energetic and strongly collimated proton beam from a laser irradiated Gaussian-shaped Hydrogen microsphere

description: Simulation input files and data sets of "Effect of density gradients on the generation of a highly energetic and strongly collimated proton beam from a laser irradiated Gaussian-shaped Hydrogen microsphere" by A. Bhagawati et al. Simulation code: Picpsi3D, Version 0.1 beta 11<br> (c) Copyright Kartik Patel, L & PTD, BARC<br>
DOI: 10.5281/zenodo.6387545
title: Effect of density gradients on the generation of a highly energetic and strongly collimated proton beam from a laser irradiated Gaussian-shaped Hydrogen microsphere

description: Simulation input files and data sets of "Effect of density gradients on the generation of a highly energetic and strongly collimated proton beam from a laser irradiated Gaussian-shaped Hydrogen microsphere" by A. Bhagawati et al. Simulation code: Picpsi3D, Version 0.1 beta 11<br> (c) Copyright Kartik Patel, L & PTD, BARC<br>
DOI: 10.6084/m9.figshare.19407029
title: Peponocephala_electra genome assembly

description: Here, we assembled a high-quality, chromosome-level genome of P. electra based on PacBio long reads and Hi-C sequencing data. The final assembled genome size was 2.29 Gb with a contig N50 of 82.36 Mb and a scaffold N50 of 102.72 Mb. And, 2.22 Gb (96.93%) of the genome was anchored into the 22 chromosomes. The final genome assembly showed high completeness with a BUSCO score of 96.6%. A total of 21,492 protein-coding genes were predicted in the genome assembly. The average lengths of coding sequences (CDSs), exons, and introns were 1,432 bp, 179 bp, and 3,405 bp, respectively. Finally, 1,011.15 Mb (43.12%) of the genome consisted of repeat sequences with the greatest proportion of LINEs (14.25%). Thus, the melon-headed whale genome is an important resource for future studies of cetacean biology, evolution, and conservation.
DOI: 10.5281/zenodo.6387586
title: Global Spatially Continuous TanSat Solar-Induced Chlorophyll Fluorescence Product

description: The global spatially continuous TanSat solar-induced chlorophyll fluorescence product (wavelength at 758 nm) had a spatial resolution of 0.05° and a temporal resolution of four days. Version 2 presents daily SIF under clear-sky and all-sky. <br> The original discontinuous TanSat SIF (referenced at 758 nm and 771 nm) at 13:30 local time was retrieved through singular vector decomposition (SVD). The information about original TanSat SIF can refer to the link (https://zenodo.org/record/3883434). <br>
DOI: 10.5281/zenodo.3884308
title: Global Spatially Continuous TanSat Solar-Induced Chlorophyll Fluorescence Product

description: The global spatially continuous TanSat solar-induced chlorophyll fluorescence product (wavelength at 758 nm) had a spatial resolution of 0.05° and a temporal resolution of four days. Version 2 presents daily SIF under clear-sky and all-sky. <br> The original discontinuous TanSat SIF (referenced at 758 nm and 771 nm) at 13:30 local time was retrieved through singular vector decomposition (SVD). The information about original TanSat SIF can refer to the link (https://zenodo.org/record/3883434). <br>
DOI: 10.5517/ccdc.csd.cc27gy5v
title: CCDC 2069937: Experimental Crystal Structure Determination

description: Related Article: Hsin-Jung Tsai, Yu-Chia Su, Guan-Lin Liu, Bao-Tsan Ko|2022|Organometallics|41|594|doi:10.1021/acs.organomet.1c00671
DOI: 10.5517/ccdc.csd.cc27gy6w
title: CCDC 2069938: Experimental Crystal Structure Determination

description: Related Article: Hsin-Jung Tsai, Yu-Chia Su, Guan-Lin Liu, Bao-Tsan Ko|2022|Organometallics|41|594|doi:10.1021/acs.organomet.1c00671
DOI: 10.5517/ccdc.csd.cc27gy9z
title: CCDC 2069941: Experimental Crystal Structure Determination

description: Related Article: Hsin-Jung Tsai, Yu-Chia Su, Guan-Lin Liu, Bao-Tsan Ko|2022|Organometallics|41|594|doi:10.1021/acs.organomet.1c00671
DOI: 10.5517/ccdc.csd.cc27gyc1
title: CCDC 2069943: Experimental Crystal Structure Determination

description: Related Article: Hsin-Jung Tsai, Yu-Chia Su, Guan-Lin Liu, Bao-Tsan Ko|2022|Organometallics|41|594|doi:10.1021/acs.organomet.1c00671
DOI: 10.5517/ccdc.csd.cc27gyl8
title: CCDC 2069950: Experimental Crystal Structure Determination

description: Related Article: Hsin-Jung Tsai, Yu-Chia Su, Guan-Lin Liu, Bao-Tsan Ko|2022|Organometallics|41|594|doi:10.1021/acs.organomet.1c00671
DOI: 10.5517/ccdc.csd.cc27gym9
title: CCDC 2069951: Experimental Crystal Structure Determination

description: Related Article: Hsin-Jung Tsai, Yu-Chia Su, Guan-Lin Liu, Bao-Tsan Ko|2022|Organometallics|41|594|doi:10.1021/acs.organomet.1c00671
DOI: 10.5517/ccdc.csd.cc27gynb
title: CCDC 2069952: Experimental Crystal Structure Determination

description: Related Article: Hsin-Jung Tsai, Yu-Chia Su, Guan-Lin Liu, Bao-Tsan Ko|2022|Organometallics|41|594|doi:10.1021/acs.organomet.1c00671
DOI: 10.5517/ccdc.csd.cc27gypc
title: CCDC 2069953: Experimental Crystal Structure Determination

description: Related Article: Hsin-Jung Tsai, Yu-Chia Su, Guan-Lin Liu, Bao-Tsan Ko|2022|Organometallics|41|594|doi:10.1021/acs.organomet.1c00671
DOI: 10.5517/ccdc.csd.cc283qrw
title: CCDC 2088958: Experimental Crystal Structure Determination

description: Related Article: Andrew Danos, Dalius Gudeika, Nadzeya A. Kukhta, Ramunas Lygaitis, Marco Colella, Heather F. Higginbotham, Aisha N. Bismillah, Paul R. McGonigal, Juozas Vidas Grazulevicius, Andrew P. Monkman|2022|J.Mater.Chem.C|10|4737|doi:10.1039/D1TC04171A
DOI: 10.5517/ccdc.csd.cc283qsx
title: CCDC 2088959: Experimental Crystal Structure Determination

description: Related Article: Andrew Danos, Dalius Gudeika, Nadzeya A. Kukhta, Ramunas Lygaitis, Marco Colella, Heather F. Higginbotham, Aisha N. Bismillah, Paul R. McGonigal, Juozas Vidas Grazulevicius, Andrew P. Monkman|2022|J.Mater.Chem.C|10|4737|doi:10.1039/D1TC04171A
DOI: 10.5517/ccdc.csd.cc283qty
title: CCDC 2088960: Experimental Crystal Structure Determination

description: Related Article: Andrew Danos, Dalius Gudeika, Nadzeya A. Kukhta, Ramunas Lygaitis, Marco Colella, Heather F. Higginbotham, Aisha N. Bismillah, Paul R. McGonigal, Juozas Vidas Grazulevicius, Andrew P. Monkman|2022|J.Mater.Chem.C|10|4737|doi:10.1039/D1TC04171A
DOI: 10.5517/ccdc.csd.cc28ywch
title: CCDC 2114087: Experimental Crystal Structure Determination

description: Related Article: Hiroshi Tasaki, So Shikita, In Seob Park, Takuma Yasuda|2022|J.Mater.Chem.C|10|4574|doi:10.1039/D1TC04933J
DOI: 10.5517/ccdc.csd.cc28zybk
title: CCDC 2115109: Experimental Crystal Structure Determination

description: Related Article: Kristopher M. Koskela, Stephen J. Quiton, Shaama Mallikarjun Sharada, Travis J. Williams, Richard L. Brutchey|2022|Chemical Science|13|3208|doi:10.1039/D1SC06667F
DOI: 10.5517/ccdc.csd.cc295hkk
title: CCDC 2120448: Experimental Crystal Structure Determination

description: Related Article: Laura Burchill, Luca Zudich, Phillip L. van der Peet, Jonathan M. White, Spencer J. Williams|2022|J.Org.Chem.|87|4333|doi:10.1021/acs.joc.2c00036
DOI: 10.5517/ccdc.csd.cc295hll
title: CCDC 2120449: Experimental Crystal Structure Determination

description: Related Article: Laura Burchill, Luca Zudich, Phillip L. van der Peet, Jonathan M. White, Spencer J. Williams|2022|J.Org.Chem.|87|4333|doi:10.1021/acs.joc.2c00036
DOI: 10.5517/ccdc.csd.cc2968mf
title: CCDC 2121194: Experimental Crystal Structure Determination

description: Related Article: Corey R. Martin, Kyoung Chul Park, Gabrielle A. Leith, Jierui Yu, Abhijai Mathur, Gina R. Wilson, Gayathri B. Gange, Emily L. Barth, Richard T. Ly, Olivia M. Manley, Kelly L. Forrester, Stavros G. Karakalos, Mark D. Smith, Thomas M. Makris, Aaron K. Vannucci, Dmitry V. Peryshkov, Natalia B. Shustova|2022|J.Am.Chem.Soc.|144|4457|doi:10.1021/jacs.1c11984
DOI: 10.5517/ccdc.csd.cc2968ng
title: CCDC 2121195: Experimental Crystal Structure Determination

description: Related Article: Corey R. Martin, Kyoung Chul Park, Gabrielle A. Leith, Jierui Yu, Abhijai Mathur, Gina R. Wilson, Gayathri B. Gange, Emily L. Barth, Richard T. Ly, Olivia M. Manley, Kelly L. Forrester, Stavros G. Karakalos, Mark D. Smith, Thomas M. Makris, Aaron K. Vannucci, Dmitry V. Peryshkov, Natalia B. Shustova|2022|J.Am.Chem.Soc.|144|4457|doi:10.1021/jacs.1c11984
DOI: 10.5517/ccdc.csd.cc2968ph
title: CCDC 2121196: Experimental Crystal Structure Determination

description: Related Article: Corey R. Martin, Kyoung Chul Park, Gabrielle A. Leith, Jierui Yu, Abhijai Mathur, Gina R. Wilson, Gayathri B. Gange, Emily L. Barth, Richard T. Ly, Olivia M. Manley, Kelly L. Forrester, Stavros G. Karakalos, Mark D. Smith, Thomas M. Makris, Aaron K. Vannucci, Dmitry V. Peryshkov, Natalia B. Shustova|2022|J.Am.Chem.Soc.|144|4457|doi:10.1021/jacs.1c11984
DOI: 10.5517/ccdc.csd.cc298rbp
title: CCDC 2123572: Experimental Crystal Structure Determination

description: Related Article: Yuyin Wang, Bin Su, Guoming Lin, Huiru Lou, Shouxin Wang, Cheng-Yang Yue, Xiaowu Lei|2022|CrystEngComm|24|2258|doi:10.1039/D1CE01431E
DOI: 10.5517/ccdc.csd.cc29hvrf
title: CCDC 2130405: Experimental Crystal Structure Determination

description: Related Article: Laura Burchill, Luca Zudich, Phillip L. van der Peet, Jonathan M. White, Spencer J. Williams|2022|J.Org.Chem.|87|4333|doi:10.1021/acs.joc.2c00036
DOI: 10.5517/ccdc.csd.cc29hvvj
title: CCDC 2130408: Experimental Crystal Structure Determination

description: Related Article: Laura Burchill, Luca Zudich, Phillip L. van der Peet, Jonathan M. White, Spencer J. Williams|2022|J.Org.Chem.|87|4333|doi:10.1021/acs.joc.2c00036