cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.14067815
title: Additional file 2a

description: This file contains the antiSMASH (version 5.1.0) output of the following genomes:<br><br><i>Acremonium chrysogenum</i> ATCC 11550 (MycoCosm portal: acrchr1)<br><i>Annulohypoxylon bovei </i>var.<i> microspora </i>CBS 124037 (MycoCosm portal: annbov1)<br><i>Annulohypoxylon maeteangense</i> CBS 123835 (MycoCosm portal: annmae1)<br><i>Annulohypoxylon minutellum</i> CBS 135445 (MycoCosm portal: annmin1)<br><i>Annulohypoxylon moriforme</i> CBS 123579 (MycoCosm portal: annmor1)<br><i>Annulohypoxylon nitens</i> CBS 120705 (MycoCosm portal: annnit1)<br><i>Annulohypoxylon stygium</i> FL0470 (MycoCosm portal: annsty1)<br><i>Annulohypoxylon truncatum</i> CBS 140777 (MycoCosm portal: anntru1)<br><i>Anthostoma avocetta</i> NRRL 3190 (MycoCosm portal: antav1)<br><i>Astrocystis sublimbata</i> CBS 130006 (MycoCosm portal: astsub1)<br><i>Biscogniauxia marginata </i>CBS 124505 (MycoCosm portal: bisma1)<br><i>Biscogniauxia mediterranea</i> AZ0048 (MycoCosm portal: bisme1)<br><i>Biscogniauxia mediterranea</i> CBS 129072 (MycoCosm portal: bismed1)<br><i>Biscogniauxia nummularia</i> (MycoCosm portal: bisnum1)<br><i>Biscogniauxia </i>sp. 304 FL1348 (MycoCosm portal: biscog1)<br><i>Camillea tinctor</i> CBS 203.56 (MycoCosm portal: ctcbs203_1)<br><i>Daldinia bambusicola</i> CBS 122872 (MycoCosm portal: dalba1)<br><i>Daldinia caldariorum</i> CBS 122874 (MycoCosm portal: dalcal1)<br><i>Daldinia decipiens </i>CBS 113046 (MycoCosm portal: daldec1)<br><i>Daldinia eschscholtzii</i> EC12 (MycoCosm portal: dalec12_1)<br><i>Daldinia eschscholtzii</i> FL0578 (MycoCosm portal: dales1)<br><i>Daldinia grandis</i> CBS 114736 (MycoCosm portal: dalgra1)<br><i>Daldinia loculata</i> AZ0526 (MycoCosm portal: dallocaz0526_2)<br><i>Daldinia loculata</i> CBS 113971 (MycoCosm portal: dalloc1)<br><i>Daldinia</i> sp. FL1419 (MycoCosm portal: dafl1419_1)<br><i>Daldinia vernicosa </i>CBS 139.73 (MycoCosm portal: dalver1)<br><i>Durotheca rogersii</i> YMJ 92031201 (MycoCosm portal: durrog2)<br><i>Entoleuca mammata</i> CFL468 (MycoCosm portal: entma1)<br><i>Hypoxylon argillaceum</i> CBS 527.63 (MycoCosm portal: hyparg1)<br><i>Hypoxylon cercidicola</i> CBS 119009 (MycoCosm portal: hypcer1)<br><i>Hypoxylon crocopeplum</i> CBS 119004 (MycoCosm portal: hypcro1)<br><i>Hypoxylon fragiforme</i> CBS 206.3 (MycoCosm portal: hypfra2)<br>
DOI: 10.6084/m9.figshare.14067815.v1
title: Additional file 2a

description: This file contains the antiSMASH (version 5.1.0) output of the following genomes:<br><br><i>Acremonium chrysogenum</i> ATCC 11550 (MycoCosm portal: acrchr1)<br><i>Annulohypoxylon bovei </i>var.<i> microspora </i>CBS 124037 (MycoCosm portal: annbov1)<br><i>Annulohypoxylon maeteangense</i> CBS 123835 (MycoCosm portal: annmae1)<br><i>Annulohypoxylon minutellum</i> CBS 135445 (MycoCosm portal: annmin1)<br><i>Annulohypoxylon moriforme</i> CBS 123579 (MycoCosm portal: annmor1)<br><i>Annulohypoxylon nitens</i> CBS 120705 (MycoCosm portal: annnit1)<br><i>Annulohypoxylon stygium</i> FL0470 (MycoCosm portal: annsty1)<br><i>Annulohypoxylon truncatum</i> CBS 140777 (MycoCosm portal: anntru1)<br><i>Anthostoma avocetta</i> NRRL 3190 (MycoCosm portal: antav1)<br><i>Astrocystis sublimbata</i> CBS 130006 (MycoCosm portal: astsub1)<br><i>Biscogniauxia marginata </i>CBS 124505 (MycoCosm portal: bisma1)<br><i>Biscogniauxia mediterranea</i> AZ0048 (MycoCosm portal: bisme1)<br><i>Biscogniauxia mediterranea</i> CBS 129072 (MycoCosm portal: bismed1)<br><i>Biscogniauxia nummularia</i> (MycoCosm portal: bisnum1)<br><i>Biscogniauxia </i>sp. 304 FL1348 (MycoCosm portal: biscog1)<br><i>Camillea tinctor</i> CBS 203.56 (MycoCosm portal: ctcbs203_1)<br><i>Daldinia bambusicola</i> CBS 122872 (MycoCosm portal: dalba1)<br><i>Daldinia caldariorum</i> CBS 122874 (MycoCosm portal: dalcal1)<br><i>Daldinia decipiens </i>CBS 113046 (MycoCosm portal: daldec1)<br><i>Daldinia eschscholtzii</i> EC12 (MycoCosm portal: dalec12_1)<br><i>Daldinia eschscholtzii</i> FL0578 (MycoCosm portal: dales1)<br><i>Daldinia grandis</i> CBS 114736 (MycoCosm portal: dalgra1)<br><i>Daldinia loculata</i> AZ0526 (MycoCosm portal: dallocaz0526_2)<br><i>Daldinia loculata</i> CBS 113971 (MycoCosm portal: dalloc1)<br><i>Daldinia</i> sp. FL1419 (MycoCosm portal: dafl1419_1)<br><i>Daldinia vernicosa </i>CBS 139.73 (MycoCosm portal: dalver1)<br><i>Durotheca rogersii</i> YMJ 92031201 (MycoCosm portal: durrog2)<br><i>Entoleuca mammata</i> CFL468 (MycoCosm portal: entma1)<br><i>Hypoxylon argillaceum</i> CBS 527.63 (MycoCosm portal: hyparg1)<br><i>Hypoxylon cercidicola</i> CBS 119009 (MycoCosm portal: hypcer1)<br><i>Hypoxylon crocopeplum</i> CBS 119004 (MycoCosm portal: hypcro1)<br><i>Hypoxylon fragiforme</i> CBS 206.3 (MycoCosm portal: hypfra2)<br>
DOI: 10.6084/m9.figshare.14067818
title: Additional file 2b

description: This file contains the antiSMASH (version 5.1.0) output of the following genomes:<br><br><i>Hypoxylon fuscum</i> CBS 119018 (MycoCosm portal: hypfus1)<br><i>Hypoxylon monticulosum</i> FL0542 (MycoCosm portal: hypmon1)<br><i>Hypoxylon rubiginosum</i> CBS 119005 (MycoCosm portal: hyprub1)<br><i>Hypoxylon rubiginosum</i> ER1909 (MycoCosm portal: hypruber1909_1)<br><i>Hypoxylon</i> sp. 350 FL1284 (MycoCosm portal: hyfl1284_2)<br><i>Hypoxylon</i> sp. 619 NC1633 (MycoCosm portal: hync1633_2)<br><i>Hypoxylon</i> sp. CI-4a (MycoCosm portal: hypci4a_1)<br><i>Hypoxylon</i> sp. CO27-5 (MycoCosm portal: hypco275_1)<br><i>Hypoxylon</i> sp. EC38 (MycoCosm portal: hypec38_3)<br><i>Hypoxylon</i> sp. FL0543 (MycoCosm portal: hyfl0543_1)<br><i>Hypoxylon</i> sp. FL0890 (MycoCosm portal: hyfl0890_1)<br><i>Hypoxylon</i> sp. FL1150 (MycoCosm portal: hyfl1150_1)<br><i>Hypoxylon</i> sp. FL1857 (MycoCosm portal: hyfl1857_1)<br><i>Hypoxylon</i> sp. NC0597 (MycoCosm portal: hync0597_1)<br><i>Hypoxylon submonticulosum</i> NC0708 (MycoCosm portal: hypsub2)<br><i>Hypoxylon trugodes</i> CBS 135444 (MycoCosm portal: hyptru1)<br><i>Kretzschmaria deusta</i> CBS 826.72 (MycoCosm portal: kdcbs826_1)<br><i>Kretzschmaria deusta</i> IL1129 (MycoCosm portal: kredeu1)<br><i>Nemania abortiva</i> FL1152 (MycoCosm portal: nemabo1)<br><i>Nemania diffusa</i> NC0034 (MycoCosm portal: nemdif1)<br><i>Nemania serpens</i> AK0226 (MycoCosm portal: nsak0226_1)<br><i>Nemania serpens</i> AZ0576 (MycoCosm portal: nsaz0576_1)<br><i>Nemania serpens</i> CBS 679.86 (MycoCosm portal: nscb679_1)<br><i>Nemania</i> sp. FL0031 (MycoCosm portal: nefl0031_2)<br><i>Nemania </i>sp. FL0916 (MycoCosm portal: nefl0916_1)<br><i>Nemania</i> sp. NC0429 (MycoCosm portal: nemani1)<br><i>Poronia punctata</i> CBS 180.79 (MycoCosm portal: porpun1)<br><i>Rostrohypoxylon terebratum</i> CBS 119137 (MycoCosm portal: roster1)<br><br>
DOI: 10.25494/p6/mlpa_kelpforest_methods.3
title: (:unkn)
DOI: 10.6084/m9.figshare.14067818.v1
title: Additional file 2b

description: This file contains the antiSMASH (version 5.1.0) output of the following genomes:<br><br><i>Hypoxylon fuscum</i> CBS 119018 (MycoCosm portal: hypfus1)<br><i>Hypoxylon monticulosum</i> FL0542 (MycoCosm portal: hypmon1)<br><i>Hypoxylon rubiginosum</i> CBS 119005 (MycoCosm portal: hyprub1)<br><i>Hypoxylon rubiginosum</i> ER1909 (MycoCosm portal: hypruber1909_1)<br><i>Hypoxylon</i> sp. 350 FL1284 (MycoCosm portal: hyfl1284_2)<br><i>Hypoxylon</i> sp. 619 NC1633 (MycoCosm portal: hync1633_2)<br><i>Hypoxylon</i> sp. CI-4a (MycoCosm portal: hypci4a_1)<br><i>Hypoxylon</i> sp. CO27-5 (MycoCosm portal: hypco275_1)<br><i>Hypoxylon</i> sp. EC38 (MycoCosm portal: hypec38_3)<br><i>Hypoxylon</i> sp. FL0543 (MycoCosm portal: hyfl0543_1)<br><i>Hypoxylon</i> sp. FL0890 (MycoCosm portal: hyfl0890_1)<br><i>Hypoxylon</i> sp. FL1150 (MycoCosm portal: hyfl1150_1)<br><i>Hypoxylon</i> sp. FL1857 (MycoCosm portal: hyfl1857_1)<br><i>Hypoxylon</i> sp. NC0597 (MycoCosm portal: hync0597_1)<br><i>Hypoxylon submonticulosum</i> NC0708 (MycoCosm portal: hypsub2)<br><i>Hypoxylon trugodes</i> CBS 135444 (MycoCosm portal: hyptru1)<br><i>Kretzschmaria deusta</i> CBS 826.72 (MycoCosm portal: kdcbs826_1)<br><i>Kretzschmaria deusta</i> IL1129 (MycoCosm portal: kredeu1)<br><i>Nemania abortiva</i> FL1152 (MycoCosm portal: nemabo1)<br><i>Nemania diffusa</i> NC0034 (MycoCosm portal: nemdif1)<br><i>Nemania serpens</i> AK0226 (MycoCosm portal: nsak0226_1)<br><i>Nemania serpens</i> AZ0576 (MycoCosm portal: nsaz0576_1)<br><i>Nemania serpens</i> CBS 679.86 (MycoCosm portal: nscb679_1)<br><i>Nemania</i> sp. FL0031 (MycoCosm portal: nefl0031_2)<br><i>Nemania </i>sp. FL0916 (MycoCosm portal: nefl0916_1)<br><i>Nemania</i> sp. NC0429 (MycoCosm portal: nemani1)<br><i>Poronia punctata</i> CBS 180.79 (MycoCosm portal: porpun1)<br><i>Rostrohypoxylon terebratum</i> CBS 119137 (MycoCosm portal: roster1)<br><br>
DOI: 10.6084/m9.figshare.14067830
title: Additional file 2c

description: This file contains the antiSMASH (version 5.1.0) output of the following genomes:<br><br><i>Whalleya microplaca</i> YMJ1829 (MycoCosm portal: whamic1)<br><i>Xylaria acuta</i> CBS 122032 (MycoCosm portal: xylacu1)<br><i>Xylaria arbuscula </i>CBS 124340 (MycoCosm portal: xylarb124340_1)<br><i>Xylaria arbuscula</i> FL1030 (MycoCosm portal: xylarbfl1030)<br><i>Xylaria bambusicola</i> CBS 139988 (MycoCosm portal: xylbam139988_1)<br><i>Xylariaceae</i> sp. 357 FL0662b (MycoCosm portal: xylfl0662b)<br><i>Xylariaceae</i> sp. AK1471 (MycoCosm portal: xyak1471_1)<br><i>Xylariaceae</i> sp. FL0016 (MycoCosm portal: xylfl0016)<br><i>Xylariaceae</i> sp. FL0255 (MycoCosm portal: xylfl0255)<br><i>Xylariaceae</i> sp. FL0594 (MycoCosm portal: xylfl0594)<br><i>Xylariaceae</i> sp. FL0804 (MycoCosm portal: xyfl0804_2)<br><i>Xylariaceae</i> sp. FL1019 (MycoCosm portal: xylfl1019)<br><i>Xylariaceae</i> sp. FL1272 (MycoCosm portal: xyfl1272_2)<br><i>Xylariaceae</i> sp. FL1651 (MycoCosm portal: xylfl1651)<br><i>Xylaria</i> cf. <i>castorea</i> CBS 124033 (MycoCosm portal: xylcas124033_1)<br><i>Xylaria</i> cf. <i>heliscus</i> FL0509 (MycoCosm portal: xylhel2)<br><i>Xylaria cubensis</i> CBS 116.85 (MycoCosm portal: xylcube1)<br><i>Xylaria curta</i> CBS 114988 (MycoCosm portal: xylcur114988_1)<br><i>Xylaria digitata</i> CBS 161.22 (MycoCosm portal: xyldig1)<br><i>Xylaria flabelliformis</i> NC1011 (MycoCosm portal: xylcub1)<br><i>Xylaria grammica </i>CBS 120713 (MycoCosm portal: xylgra1)<br><i>Xylaria hypoxylon</i> OSC100004 (MycoCosm portal: xylhyp1)<br><i>Xylaria intraflava</i> YMJ 725 (MycoCosm portal: xylint1)<br><i>Xylaria longipes</i> CBS 148.73 (MycoCosm portal: xyllon1)<br><i>Xylaria nigripes</i> YMJ 653 (MycoCosm portal: xylni1)<br><i>Xylaria palmicola</i> CBS 124036 (MycoCosm portal: xylpal124036_1)<br><i>Xylaria scruposa</i> CBS 123580 (MycoCosm portal: xylscr1)<br><i>Xylaria</i> sp. 219 FL0064 (MycoCosm portal: xyfl0064_1)<br><i>Xylaria</i> sp. CBS 124048 (MycoCosm portal: xy124048_1)<br><i>Xylaria</i> sp. FL0043 (MycoCosm portal: xylfl0043)<br><i>Xylaria</i> sp. FL0933 (MycoCosm portal: xylfl0933)<br><i>Xylaria</i> sp. FL1042 (MycoCosm portal: xylfl1042)<br><i>Xylaria</i> sp. FL1777 (MycoCosm portal: xyfl1777_1)<br><i>Xylaria telfairii</i> CBS 121673 (MycoCosm portal: xyltel121673_1)<br><i>Xylaria venustula</i> FL0490 (MycoCosm portal: xylven1)<br><i>Xylariomycetidae</i> sp. FL0641 (MycoCosm portal: xyfl0641_1)<br><i>Xylariomycetidae</i> sp. FL2044 (MycoCosm portal: xylfl2044)<br>
DOI: 10.6084/m9.figshare.14067830.v1
title: Additional file 2c

description: This file contains the antiSMASH (version 5.1.0) output of the following genomes:<br><br><i>Whalleya microplaca</i> YMJ1829 (MycoCosm portal: whamic1)<br><i>Xylaria acuta</i> CBS 122032 (MycoCosm portal: xylacu1)<br><i>Xylaria arbuscula </i>CBS 124340 (MycoCosm portal: xylarb124340_1)<br><i>Xylaria arbuscula</i> FL1030 (MycoCosm portal: xylarbfl1030)<br><i>Xylaria bambusicola</i> CBS 139988 (MycoCosm portal: xylbam139988_1)<br><i>Xylariaceae</i> sp. 357 FL0662b (MycoCosm portal: xylfl0662b)<br><i>Xylariaceae</i> sp. AK1471 (MycoCosm portal: xyak1471_1)<br><i>Xylariaceae</i> sp. FL0016 (MycoCosm portal: xylfl0016)<br><i>Xylariaceae</i> sp. FL0255 (MycoCosm portal: xylfl0255)<br><i>Xylariaceae</i> sp. FL0594 (MycoCosm portal: xylfl0594)<br><i>Xylariaceae</i> sp. FL0804 (MycoCosm portal: xyfl0804_2)<br><i>Xylariaceae</i> sp. FL1019 (MycoCosm portal: xylfl1019)<br><i>Xylariaceae</i> sp. FL1272 (MycoCosm portal: xyfl1272_2)<br><i>Xylariaceae</i> sp. FL1651 (MycoCosm portal: xylfl1651)<br><i>Xylaria</i> cf. <i>castorea</i> CBS 124033 (MycoCosm portal: xylcas124033_1)<br><i>Xylaria</i> cf. <i>heliscus</i> FL0509 (MycoCosm portal: xylhel2)<br><i>Xylaria cubensis</i> CBS 116.85 (MycoCosm portal: xylcube1)<br><i>Xylaria curta</i> CBS 114988 (MycoCosm portal: xylcur114988_1)<br><i>Xylaria digitata</i> CBS 161.22 (MycoCosm portal: xyldig1)<br><i>Xylaria flabelliformis</i> NC1011 (MycoCosm portal: xylcub1)<br><i>Xylaria grammica </i>CBS 120713 (MycoCosm portal: xylgra1)<br><i>Xylaria hypoxylon</i> OSC100004 (MycoCosm portal: xylhyp1)<br><i>Xylaria intraflava</i> YMJ 725 (MycoCosm portal: xylint1)<br><i>Xylaria longipes</i> CBS 148.73 (MycoCosm portal: xyllon1)<br><i>Xylaria nigripes</i> YMJ 653 (MycoCosm portal: xylni1)<br><i>Xylaria palmicola</i> CBS 124036 (MycoCosm portal: xylpal124036_1)<br><i>Xylaria scruposa</i> CBS 123580 (MycoCosm portal: xylscr1)<br><i>Xylaria</i> sp. 219 FL0064 (MycoCosm portal: xyfl0064_1)<br><i>Xylaria</i> sp. CBS 124048 (MycoCosm portal: xy124048_1)<br><i>Xylaria</i> sp. FL0043 (MycoCosm portal: xylfl0043)<br><i>Xylaria</i> sp. FL0933 (MycoCosm portal: xylfl0933)<br><i>Xylaria</i> sp. FL1042 (MycoCosm portal: xylfl1042)<br><i>Xylaria</i> sp. FL1777 (MycoCosm portal: xyfl1777_1)<br><i>Xylaria telfairii</i> CBS 121673 (MycoCosm portal: xyltel121673_1)<br><i>Xylaria venustula</i> FL0490 (MycoCosm portal: xylven1)<br><i>Xylariomycetidae</i> sp. FL0641 (MycoCosm portal: xyfl0641_1)<br><i>Xylariomycetidae</i> sp. FL2044 (MycoCosm portal: xylfl2044)<br>
DOI: 10.6084/m9.figshare.14368718
title: Additional file 6

description: This file contains the phylogenomic trees (Nexus format) inferred by maximum-likelihood under the JTT+F+I+G4 model for:<br>(a) The whole dataset of 121 taxa; 1,526 protein sequences.<br>(b) A subset of Xylariales taxa only; 1,526 protein sequences.<br>(c) The entire dataset of 121 taxa; 1,086 protein sequences. The phylogenetic reconstruction was conducted using the PHYling pipeline (https://github.com/stajichlab/PHYling_unified).
DOI: 10.6084/m9.figshare.14378774
title: Additional file 7

description: This file contains a table showing the sister clades to Xylariaceae sp. FL2044 recovered by the phylogenetic analysis of each of the 1,526 single-copy orthologous genes.
DOI: 10.6084/m9.figshare.14378774.v1
title: Additional file 7

description: This file contains a table showing the sister clades to Xylariaceae sp. FL2044 recovered by the phylogenetic analysis of each of the 1,526 single-copy orthologous genes.
DOI: 10.6084/m9.figshare.17091161
title: Born-Torrijos et al. Data survival and activity analyses

description: Data are shown for survival and activity analyses presented in "Born-Torrijos <i>et al.</i> Taxa-specific activity loss and mortality patterns in freshwater trematode cercariae under subarctic conditions", published in <i>Parasitology</i>. <br>
DOI: 10.6084/m9.figshare.17091161.v1
title: Born-Torrijos et al. Data survival and activity analyses

description: Data are shown for survival and activity analyses presented in "Born-Torrijos <i>et al.</i> Taxa-specific activity loss and mortality patterns in freshwater trematode cercariae under subarctic conditions", published in <i>Parasitology</i>. <br>
DOI: 10.6084/m9.figshare.17091188
title: Supplementary Material for: Simple Scoring System for Predicting TACE Unsuitable among Intermediate-Stage Hepatocellular Carcinoma Patients in the Multiple Systemic Treatment Era

description: <b><i>Background/Aim:</i></b> With the development of systemic treatment methods for unresectable hepatocellular carcinoma (uHCC), the concept of unsuitable for transcatheter arterial chemoembolization (TACE) has become important. This study aimed to establish a simple predictive scoring system for determining TACE unsuitable status. <b><i>Materials/Methods:</i></b> From 1998 to 2015, 196 patients with intermediate-stage uHCC with Child-Pugh A (score 5:6 = 108:88) and given TACE as the initial treatment were enrolled. At the baseline, tumor burden (Milan criteria-out, up-to-7 in/out, and up-to-11 in/out: 0–2 points) and modified albumin-bilirubin grade 1/2a or 2b (0–1 point) were added to determine the score for TACE unsuitable (CITRUS-MICAN score; low &lt;2 and high ≥2). In addition, a previously reported tumor marker (TM) score, in which alpha-fetoprotein (AFP) was ≥100 ng/mL, fucosylated AFP ≥10%, and des-gamma-carboxy prothrombin ≥100 mAU/mL (each 1 point) (total 0, 1, or ≥2 points), was used for additionally evaluating tumor malignancy potential. Prognosis was retrospectively evaluated based on those scores. <b><i>Results:</i></b> Median survival time (MST) was better for low compared to high CITRUS-MICAN score (42.0 vs. 26.4 months) (<i>p</i> = 0.002). A 2-step evaluation using the combination of CITRUS-MICAN and TM scores showed an MST of 43.2 months for low CITRUS-MICAN/TM score 0/1 (rank-A) and 39.6 months for low CITRUS-MICAN/TM score ≥2 (rank-B2), while it was 46.8 months for high CITRUS-MICAN/TM score 0 (rank-B1), 28.8 months for high CITRUS-MICAN/TM score 1 (rank-B2), and 22.8 months for high CITRUS-MICAN/TM score ≥2 (rank-C). For rank-A cases (<i>n</i> = 51), MST was 43.2 months, while it was 46.8 months for rank-B1 (<i>n</i> = 12), 31.2 months for rank-B2 (<i>n</i> = 82), and 22.8 months for rank-C (<i>n</i> = 51) (<i>p</i> = 0.001). <b><i>Conclusion:</i></b> The results showed that rank-C indicates absolute TACE unsuitable status. For rank-A patients, good prognosis with TACE can be expected, while TACE refractoriness status during the clinical course should be carefully evaluated so as to anticipate the appropriate timing for switching to systemic treatment in rank-B1 and -B2 patients.
DOI: 10.6084/m9.figshare.6356420.v9
title: HELCATS Interplanetary Coronal Mass Ejection Catalog v2.0

description: This is the HELCATS interplanetary coronal mass ejection (ICME) catalog, based on in situ magnetic field and bulk plasma observations in the heliosphere. <br><b>This is version 2.0, released 2020-Jun-03, updated 2021-Sep-13</b>also available at: <br><b>https://helioforecast.space/icmecat<br></b><br>The catalog is available as python pandas dataframe (pickle), python numpy structured array (pickle), json, csv, xlsx, txt, hdf5, html, plus a header txt file with parameter descriptions. <br>Number of events in ICMECAT: 825ICME observatories: Solar Orbiter, Parker Solar Probe (PSP), BepiColombo, Wind, MAVEN, STEREO-A, STEREO-B, Venus Express (VEX), MESSENGER, Ulysses.Time range: January 2007 - August 2021.<br><b>Authors: </b>Christian Möstl, Andreas J. Weiss, Rachel L. Bailey, Martin A. Reiss, Space Research Institute (IWF), Austrian Academy of Sciences, Graz, Austria. <br><b>Contributors:</b> Peter Boakes, Alexey Isavnin, Emilia Kilpua, David Stansby, Reka Winslow, Brian Anderson, Lydia Philpott, Vratislav Krupar, Jonathan Eastwood, Simon Good, Lan Jian, Teresa Nieves-Chinchilla, Cyril Simon Wedlund, Jingnan Guo, Mateja Dumbovic, Johan von Forstner, Benoit Lavraud. <br><b>Rules:</b> If results are produced with this catalog for peer-reviewed scientific publications, please contact christian.moestl@oeaw.ac.at for possible co-authorship.
DOI: 10.6084/m9.figshare.17091206
title: Supplementary Material for: Differences between Atrial Fibrillation Detected before and after Stroke and TIA: A Systematic Review and Meta-Analysis

description: <b><i>Background:</i></b> Preliminary evidence suggests that patients with atrial fibrillation (AF) detected after stroke (AFDAS) may have a lower prevalence of cardiovascular comorbidities and lower risk of stroke recurrence than AF known before stroke (KAF). <b><i>Objective:</i></b> We performed a systematic search and meta-analysis to compare the characteristics of AFDAS and KAF. <b><i>Methods:</i></b> We searched PubMed, Scopus, and EMBASE for articles reporting differences between AFDAS and KAF until June 30, 2021. We performed random- or fixed-effects meta-analyses to evaluate differences between AFDAS and KAF in demographic factors, vascular risk factors, prevalent vascular comorbidities, structural heart disease, stroke severity, insular cortex involvement, stroke recurrence, and death. <b><i>Results:</i></b> In 21 studies including 22,566 patients with ischemic stroke or transient ischemic attack, the prevalence of coronary artery disease, congestive heart failure, prior myocardial infarction, and a history of cerebrovascular events was significantly lower in AFDAS than KAF. Left atrial size was smaller, and left ventricular ejection fraction was higher in AFDAS than KAF. The risk of recurrent stroke was 26% lower in AFDAS than in KAF. There were no differences in age, sex, stroke severity, or death rates between AFDAS and KAF. There were not enough studies to report differences in insular cortex involvement between AF types. <b><i>Conclusions:</i></b> We found significant differences in the prevalence of vascular comorbidities, structural heart disease, and stroke recurrence rates between AFDAS and KAF, suggesting that they constitute different clinical entities within the AF spectrum. PROSPERO registration number is CRD42020202622.
DOI: 10.6084/m9.figshare.17091206.v1
title: Supplementary Material for: Differences between Atrial Fibrillation Detected before and after Stroke and TIA: A Systematic Review and Meta-Analysis

description: <b><i>Background:</i></b> Preliminary evidence suggests that patients with atrial fibrillation (AF) detected after stroke (AFDAS) may have a lower prevalence of cardiovascular comorbidities and lower risk of stroke recurrence than AF known before stroke (KAF). <b><i>Objective:</i></b> We performed a systematic search and meta-analysis to compare the characteristics of AFDAS and KAF. <b><i>Methods:</i></b> We searched PubMed, Scopus, and EMBASE for articles reporting differences between AFDAS and KAF until June 30, 2021. We performed random- or fixed-effects meta-analyses to evaluate differences between AFDAS and KAF in demographic factors, vascular risk factors, prevalent vascular comorbidities, structural heart disease, stroke severity, insular cortex involvement, stroke recurrence, and death. <b><i>Results:</i></b> In 21 studies including 22,566 patients with ischemic stroke or transient ischemic attack, the prevalence of coronary artery disease, congestive heart failure, prior myocardial infarction, and a history of cerebrovascular events was significantly lower in AFDAS than KAF. Left atrial size was smaller, and left ventricular ejection fraction was higher in AFDAS than KAF. The risk of recurrent stroke was 26% lower in AFDAS than in KAF. There were no differences in age, sex, stroke severity, or death rates between AFDAS and KAF. There were not enough studies to report differences in insular cortex involvement between AF types. <b><i>Conclusions:</i></b> We found significant differences in the prevalence of vascular comorbidities, structural heart disease, and stroke recurrence rates between AFDAS and KAF, suggesting that they constitute different clinical entities within the AF spectrum. PROSPERO registration number is CRD42020202622.