cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.5281/zenodo.18324323
title: TABLE 2 in A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera)

description: TABLE 2. Number of species (extant) in Indian genera from the world and India.
SNGenusWorldIndiaSpecies endemic to IndiaFamily Helophoridae 11.Helophorus Fabricius20081Family Epimetopidae 22.Eumetopus Balfour-Browne7252Family Georissidae 33.Georissus Latreille8377Family Hydrochidae 44.Hydrochus Leach27651Family Spercheidae 55.Spercheus Kugelann182-Family Hydrophilidae 6Subfamily HydrophilinaeTribe Amphiopini6.Amphiops Erichson204-Tribe Berosini7.Allocotocerus Kraatz27648.Berosus Leach29612-9.Regimbartia Zaitzev101-Tribe Laccobiini10.Laccobius Erichson282501911.Oocyclus Sharp746612.Ophthalmocyclus Komarek11113.Paracymus Thomson982-14.Pelthydrus d’Orchymont6553Tribe Hydrobiusini15.Ametor Semenov62-Tribe Hydrophilini16.Hydrobiomorpha Blackburn612-17.Hydrochara Berthold232218.Hydrophilus Geoffroy5110219.Sternolophus Solier185-Subfamily ChaetarthriinaeTribe Anacaenini20.Anacaena Thomson1476321.Crenitis Bedel471-Tribe Chaetarthriini22.Chaetarthria Stephens512-23.Thysanarthria d’Orchymont1651Subfamily Enochrinae24.Enochrus Thomson22711225.Notionotus Spangler2532Subfamily Acidocerinae26.Agraphydrus Régimbart205322327.Crephelochares Kuwert291-28.Helochares Mulsant15810229.Peltochares Régimbart82-Subfamily SphaeridiinaeTribe Coelostomatini30.Coelostoma Brullé12313331.Dactylosternum Wollaston8286Tribe MegasterniniSubtribe Megasternina32.Armostus Sharp142-33.Cercyon Leach26117834.Cryptopleurum Mulsant233-35.Gillisius d’Orchymont22236.Morastus d’Orchymont11137.Pachysternum Motschulsky235-38.Paroosternum Scott91-39.Pseudocercyon d’Orchymont11-Subtribe Oosternina40.Australocyon Hansen131141.Oosternum Sharp2921Tribe Omicrini42.Mircogioton d’Orchymont71143.Noteropagus d’Orchymont41-44.Paromicrus Scott141-45.Peratogonus Sharp31146.Psalitrus d’Orchymont3266Tribe Protosternini47.Protosternum Sharp112248.Rhombosternum Balfour-Browne81-Tribe Sphaeridiini49.Sphaeridium Fabricius449-
......continued on the next page
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World species number follow: 1 Bilton (2023), 2 Fikáček et al. (2021), 3 Yasuda & Yoshitomi (2022), 4, 6 Newton (2024), and
5 Short (2017).
description: Published as part of Gupta, Devanshu, Sonali, Shipra, Ghosh, Sujit Kumar, Das, Priyanka, Jaiswal, Deepa & Chandra, Kailash, 2024, A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera), pp. 60-62 in Zootaxa 5546 (1) on page 60, DOI: 10.11646/zootaxa.5546.1.1, http://zenodo.org/record/14387438
DOI: 10.5281/zenodo.18324324
title: TABLE 2 in A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera)

description: TABLE 2. Number of species (extant) in Indian genera from the world and India.
SNGenusWorldIndiaSpecies endemic to IndiaFamily Helophoridae 11.Helophorus Fabricius20081Family Epimetopidae 22.Eumetopus Balfour-Browne7252Family Georissidae 33.Georissus Latreille8377Family Hydrochidae 44.Hydrochus Leach27651Family Spercheidae 55.Spercheus Kugelann182-Family Hydrophilidae 6Subfamily HydrophilinaeTribe Amphiopini6.Amphiops Erichson204-Tribe Berosini7.Allocotocerus Kraatz27648.Berosus Leach29612-9.Regimbartia Zaitzev101-Tribe Laccobiini10.Laccobius Erichson282501911.Oocyclus Sharp746612.Ophthalmocyclus Komarek11113.Paracymus Thomson982-14.Pelthydrus d’Orchymont6553Tribe Hydrobiusini15.Ametor Semenov62-Tribe Hydrophilini16.Hydrobiomorpha Blackburn612-17.Hydrochara Berthold232218.Hydrophilus Geoffroy5110219.Sternolophus Solier185-Subfamily ChaetarthriinaeTribe Anacaenini20.Anacaena Thomson1476321.Crenitis Bedel471-Tribe Chaetarthriini22.Chaetarthria Stephens512-23.Thysanarthria d’Orchymont1651Subfamily Enochrinae24.Enochrus Thomson22711225.Notionotus Spangler2532Subfamily Acidocerinae26.Agraphydrus Régimbart205322327.Crephelochares Kuwert291-28.Helochares Mulsant15810229.Peltochares Régimbart82-Subfamily SphaeridiinaeTribe Coelostomatini30.Coelostoma Brullé12313331.Dactylosternum Wollaston8286Tribe MegasterniniSubtribe Megasternina32.Armostus Sharp142-33.Cercyon Leach26117834.Cryptopleurum Mulsant233-35.Gillisius d’Orchymont22236.Morastus d’Orchymont11137.Pachysternum Motschulsky235-38.Paroosternum Scott91-39.Pseudocercyon d’Orchymont11-Subtribe Oosternina40.Australocyon Hansen131141.Oosternum Sharp2921Tribe Omicrini42.Mircogioton d’Orchymont71143.Noteropagus d’Orchymont41-44.Paromicrus Scott141-45.Peratogonus Sharp31146.Psalitrus d’Orchymont3266Tribe Protosternini47.Protosternum Sharp112248.Rhombosternum Balfour-Browne81-Tribe Sphaeridiini49.Sphaeridium Fabricius449-
......continued on the next page
......continued on the next page
World species number follow: 1 Bilton (2023), 2 Fikáček et al. (2021), 3 Yasuda & Yoshitomi (2022), 4, 6 Newton (2024), and
5 Short (2017).
description: Published as part of Gupta, Devanshu, Sonali, Shipra, Ghosh, Sujit Kumar, Das, Priyanka, Jaiswal, Deepa & Chandra, Kailash, 2024, A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera), pp. 60-62 in Zootaxa 5546 (1) on page 60, DOI: 10.11646/zootaxa.5546.1.1, http://zenodo.org/record/14387438
DOI: 10.5281/zenodo.18305002
title: RANS-AD flow data: For low-fidelity model validation

description: RANS Wind Farm Flow Dataset

This dataset contains RANS (Reynolds-Averaged Navier-Stokes) CFD simulations of wind farm flow fields.Generated with the DTU Developed software PyWakeEllipsys.

Contents



rans-data.zip - Compressed archive containing the flow field data (`.nc` files)

open_rans_dataset.py - Example Python script to load and inspect the data

pixi.toml - Environment specification

pixi.lock - Locked dependencies for reproducibility


Installation & running





Install pixi: https://pixi.sh

Install the environment inside the downloaded directory:pixi install

pixi run python open_rans_dataset.py




This will automatically unzip `rans-data.zip` into a `rans-data/` directory, then load all `.nc` files from that directory.
DOI: 10.5281/zenodo.18305003
title: RANS-AD flow data: For low-fidelity model validation

description: RANS Wind Farm Flow Dataset

This dataset contains RANS (Reynolds-Averaged Navier-Stokes) CFD simulations of wind farm flow fields.Generated with the DTU Developed software PyWakeEllipsys.

Contents



rans-data.zip - Compressed archive containing the flow field data (`.nc` files)

open_rans_dataset.py - Example Python script to load and inspect the data

pixi.toml - Environment specification

pixi.lock - Locked dependencies for reproducibility


Installation & running





Install pixi: https://pixi.sh

Install the environment inside the downloaded directory:pixi install

pixi run python open_rans_dataset.py




This will automatically unzip `rans-data.zip` into a `rans-data/` directory, then load all `.nc` files from that directory.
DOI: 10.5281/zenodo.18324327
title: TABLE 3 in A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera)

description: TABLE 3. Number of species reported from Biogeographic Zones of India.
FamilyTrans HimalayaHimalayaDesertSemi – AridWestern GhatsDeccan PeninsulaGangetic PlainsCoastsNorthaastIslandsHelophoridae631–-––1–Epimetopidae–2–123––1–Georissidae–6––––1–-–Hydrochidae–––––11–3–Spercheidae–1–1–11–-–Hydrophilidae11281031829181–6926Total71401034849684–7426
description: Published as part of Gupta, Devanshu, Sonali, Shipra, Ghosh, Sujit Kumar, Das, Priyanka, Jaiswal, Deepa & Chandra, Kailash, 2024, A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera), pp. 63 in Zootaxa 5546 (1) on page 63, DOI: 10.11646/zootaxa.5546.1.1, http://zenodo.org/record/14387438
DOI: 10.5281/zenodo.18324328
title: TABLE 3 in A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera)

description: TABLE 3. Number of species reported from Biogeographic Zones of India.
FamilyTrans HimalayaHimalayaDesertSemi – AridWestern GhatsDeccan PeninsulaGangetic PlainsCoastsNorthaastIslandsHelophoridae631–-––1–Epimetopidae–2–123––1–Georissidae–6––––1–-–Hydrochidae–––––11–3–Spercheidae–1–1–11–-–Hydrophilidae11281031829181–6926Total71401034849684–7426
description: Published as part of Gupta, Devanshu, Sonali, Shipra, Ghosh, Sujit Kumar, Das, Priyanka, Jaiswal, Deepa & Chandra, Kailash, 2024, A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera), pp. 63 in Zootaxa 5546 (1) on page 63, DOI: 10.11646/zootaxa.5546.1.1, http://zenodo.org/record/14387438
DOI: 10.5281/zenodo.18324330
title: TABLE 4 in A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera)

description: TABLE 4. Number of species reported from Indian states/union territories.
Indian State/Union TerritoryHelophoridaeEpimetopidaeGeorissidaeHydrochidaeSpercheidaeHydrophilidaeTotalAndaman and Nicobar Islands-----2424Andhra Pradesh-1-1-2527Arunachal Pradesh-----1313Assam---2-2424Bihar----13940Chandigarh-------Chhattisgarh-----55Dadra and Nagar Haveli and Daman and Diu-----1212Delhi-----99Goa-----77Gujarat-1---23Haryana-----77Himachal Pradesh-1---3738Jammu and Kashmir2----2224Jharkhand-----1515Karnataka-----2525Kerala-1---5657Ladakh4----15Lakshadweep-----55Madhya Pradesh---1-3334Maharashtra-3--13842Manipur---2-3335Meghalaya11---3133Mizoram-------Nagaland-----22Odisha-1-1-3032Puducherry-----1717Punjab-----1515Rajasthan-----1818Sikkim--1--3940Tamil Nadu-1---7273Telangana-----1919Tripura---1-1415Uttar Pradesh---1-3940Uttarakhand126-18696West Bengal--2116670India (without precise locality)---1-78
description: Published as part of Gupta, Devanshu, Sonali, Shipra, Ghosh, Sujit Kumar, Das, Priyanka, Jaiswal, Deepa & Chandra, Kailash, 2024, A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera), pp. 64 in Zootaxa 5546 (1) on page 64, DOI: 10.11646/zootaxa.5546.1.1, http://zenodo.org/record/14387438
DOI: 10.5281/zenodo.18324329
title: TABLE 4 in A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera)

description: TABLE 4. Number of species reported from Indian states/union territories.
Indian State/Union TerritoryHelophoridaeEpimetopidaeGeorissidaeHydrochidaeSpercheidaeHydrophilidaeTotalAndaman and Nicobar Islands-----2424Andhra Pradesh-1-1-2527Arunachal Pradesh-----1313Assam---2-2424Bihar----13940Chandigarh-------Chhattisgarh-----55Dadra and Nagar Haveli and Daman and Diu-----1212Delhi-----99Goa-----77Gujarat-1---23Haryana-----77Himachal Pradesh-1---3738Jammu and Kashmir2----2224Jharkhand-----1515Karnataka-----2525Kerala-1---5657Ladakh4----15Lakshadweep-----55Madhya Pradesh---1-3334Maharashtra-3--13842Manipur---2-3335Meghalaya11---3133Mizoram-------Nagaland-----22Odisha-1-1-3032Puducherry-----1717Punjab-----1515Rajasthan-----1818Sikkim--1--3940Tamil Nadu-1---7273Telangana-----1919Tripura---1-1415Uttar Pradesh---1-3940Uttarakhand126-18696West Bengal--2116670India (without precise locality)---1-78
description: Published as part of Gupta, Devanshu, Sonali, Shipra, Ghosh, Sujit Kumar, Das, Priyanka, Jaiswal, Deepa & Chandra, Kailash, 2024, A Catalogue of Indian Hydrophiloidea (Insecta: Coleoptera), pp. 64 in Zootaxa 5546 (1) on page 64, DOI: 10.11646/zootaxa.5546.1.1, http://zenodo.org/record/14387438
DOI: 10.17632/tnt3z9tzcy
title: Formal Verification of Fault-Tolerant Safra's Algorithm - Artifact

description: The project files for the MSc Thesis: "Formal Verification of Fault-Tolerant Safra’s Algorithm".
For this thesis, we create our formal specifications in the mCRL2 language, and then use the mCRL2 toolset to make models and carry out model checking. 
We create models based on the two algorithms set forward in "Fault-Tolerant Termination Detection with Safra’s Algorithm" (hereafter [1], see related works DOI 10.1007/978-3-030-91014-3_5).
We provide further details in the actual thesis. (Link may be added here in the future.)

The files contain:
- The "PropertyFiles" folder, containing the different formulas for each of the properties we model check. (Note that not all properties hold for each model -&gt; Check Table 6.1 in the thesis.)
- A series of python scripts (*.py) which we used to generate our different files.
- A series of folders, each containing our specification (.mcrl2) as well as the .mcrl2proj file & properties folder to open the files in the mCRL2 UI. 
-- Most folders additionally contain a series of .lps files, a series of models (.lts files) and a series of .pbes files which we use to check certain properties.
-- The "Tol_Bug_Demonstration" folder demonstrates the bug we detected in the fault-tolerant algorithm in [1]. Specifically, the EVI file can be examined using the mCRL2 toolset to see an example execution that breaks the Safety property.
-- For the tolerant models (excluding Tol_Bug_Demonstration), we generally fix the number of crashes at N-1. The files marked Cr_* have varying (lower) number of maximum allowed crashes.
-- The files marked HS[N]_* in Tol_Safra_n4_crashes are partial models, obtained with mCRL2's highway search technique.
-- The files marked INFI_HS[N]_* are the models with large M & S values, and have similarly been generated with Highway search, with a maximum of 10 million states being generated per model (before reduction with ltsconvert).

Using the .py files, you can re-create the "*_bisim.lts" files, the "*.pbes" files and check the .pbes files. (See "Steps to reproduce" below.)
Note: While this artifact contains MOST of the files, we have deleted some of the larger files, specifically some of the larger PSafety*.pbes files. These can be reproduced either by hand, or with the .py files, as detailed below (and in the thesis in more detail).
DOI: 10.17632/tnt3z9tzcy.1
title: Formal Verification of Fault-Tolerant Safra's Algorithm - Artifact

description: The project files for the MSc Thesis: "Formal Verification of Fault-Tolerant Safra’s Algorithm".
For this thesis, we create our formal specifications in the mCRL2 language, and then use the mCRL2 toolset to make models and carry out model checking. 
We create models based on the two algorithms set forward in "Fault-Tolerant Termination Detection with Safra’s Algorithm" (hereafter [1], see related works DOI 10.1007/978-3-030-91014-3_5).
We provide further details in the actual thesis. (Link may be added here in the future.)

The files contain:
- The "PropertyFiles" folder, containing the different formulas for each of the properties we model check. (Note that not all properties hold for each model -&gt; Check Table 6.1 in the thesis.)
- A series of python scripts (*.py) which we used to generate our different files.
- A series of folders, each containing our specification (.mcrl2) as well as the .mcrl2proj file & properties folder to open the files in the mCRL2 UI. 
-- Most folders additionally contain a series of .lps files, a series of models (.lts files) and a series of .pbes files which we use to check certain properties.
-- The "Tol_Bug_Demonstration" folder demonstrates the bug we detected in the fault-tolerant algorithm in [1]. Specifically, the EVI file can be examined using the mCRL2 toolset to see an example execution that breaks the Safety property.
-- For the tolerant models (excluding Tol_Bug_Demonstration), we generally fix the number of crashes at N-1. The files marked Cr_* have varying (lower) number of maximum allowed crashes.
-- The files marked HS[N]_* in Tol_Safra_n4_crashes are partial models, obtained with mCRL2's highway search technique.
-- The files marked INFI_HS[N]_* are the models with large M & S values, and have similarly been generated with Highway search, with a maximum of 10 million states being generated per model (before reduction with ltsconvert).

Using the .py files, you can re-create the "*_bisim.lts" files, the "*.pbes" files and check the .pbes files. (See "Steps to reproduce" below.)
Note: While this artifact contains MOST of the files, we have deleted some of the larger files, specifically some of the larger PSafety*.pbes files. These can be reproduced either by hand, or with the .py files, as detailed below (and in the thesis in more detail).
DOI: 10.5281/zenodo.18311561
title: Robustness Datasets1
DOI: 10.5281/zenodo.18311560
title: Robustness Datasets1
DOI: 10.17632/xk9n6jnvp7
title: A Function-aware Graph-based Layout Retrieval Approach for Academic Libraries

description: This directory contains manually annotated ground-truth (GT) spatial graphs derived from library floor plans. 
Each GT graph is represented at multiple transformation stages to support controlled experiments on graph abstraction and downstream tasks.
The graph representations follow the methodology described in Section 3.1 of the paper (“A Function-aware Graph-based Layout Retrieval Approach for Academic Libraries”) and are designed to balance topological fidelity and functional connectivity realism.
Each folder contains two experimental subsets:
- 2/: a minimal subset with 2 floor plans, used for sanity checks and debugging
- 45/: the main experimental subset with 45 floor plans, used for analysis and learning tasks
DOI: 10.17632/xk9n6jnvp7.1
title: A Function-aware Graph-based Layout Retrieval Approach for Academic Libraries

description: This directory contains manually annotated ground-truth (GT) spatial graphs derived from library floor plans. 
Each GT graph is represented at multiple transformation stages to support controlled experiments on graph abstraction and downstream tasks.
The graph representations follow the methodology described in Section 3.1 of the paper (“A Function-aware Graph-based Layout Retrieval Approach for Academic Libraries”) and are designed to balance topological fidelity and functional connectivity realism.
Each folder contains two experimental subsets:
- 2/: a minimal subset with 2 floor plans, used for sanity checks and debugging
- 45/: the main experimental subset with 45 floor plans, used for analysis and learning tasks
DOI: 10.17632/jkz6tw688m
title: Data on Green Manure Intercropping in Orchards

description: Data on Green Manure Intercropping in Orchards
DOI: 10.17632/jkz6tw688m.1
title: Data on Green Manure Intercropping in Orchards

description: Data on Green Manure Intercropping in Orchards
DOI: 10.17632/hz26vtj2rz
title: Data and Materials for Nesslage et al. 2026 - Plant species richness responses to microtopography across a vernal pool complex revealed by UAV-LiDAR

description: The repository is organized in terms of the data used in the Nesslage et al. 2026 study titled 'Plant species richness responses to microtopography across a vernal pool complex revealed by UAV-LiDAR', the outputs from the statistical analyses performed, and the scripts used to perform the analyses on the data. 

We reasoned that as hydrology is an important driver of the distribution of plant communities across vernal pools, we should be able to use digital elevation models obtained over vernal pool complexes with drone-based LiDAR to generate hydrological proxies that enable prediction of plant spatial patterns. We generated high resolution (1m) hydrologic proxies related to hydroperiod, hydrologic connectivity, and soil moisture from drone-mounted LiDAR and created models to estimate the number of total plant species, as well as the number of forbs and graminoids across a vernal pool complex. We found that models using UAV-LiDAR derived parameters enabled spatial predictions of plant species richness to within 2-3 species. Herein, we provide the data, outputs of the statistical analysis, and the scripts to enable reproduction of the results obtained.
DOI: 10.17632/hz26vtj2rz.2
title: Data and Materials for Nesslage et al. 2026 - Plant species richness responses to microtopography across a vernal pool complex revealed by UAV-LiDAR

description: The repository is organized in terms of the data used in the Nesslage et al. 2026 study titled 'Plant species richness responses to microtopography across a vernal pool complex revealed by UAV-LiDAR', the outputs from the statistical analyses performed, and the scripts used to perform the analyses on the data. 

We reasoned that as hydrology is an important driver of the distribution of plant communities across vernal pools, we should be able to use digital elevation models obtained over vernal pool complexes with drone-based LiDAR to generate hydrological proxies that enable prediction of plant spatial patterns. We generated high resolution (1m) hydrologic proxies related to hydroperiod, hydrologic connectivity, and soil moisture from drone-mounted LiDAR and created models to estimate the number of total plant species, as well as the number of forbs and graminoids across a vernal pool complex. We found that models using UAV-LiDAR derived parameters enabled spatial predictions of plant species richness to within 2-3 species. Herein, we provide the data, outputs of the statistical analysis, and the scripts to enable reproduction of the results obtained.
DOI: 10.34740/kaggle/dsv/14568493
title: Peer-to-Peer Boliviano (BOB) Exchange Data
DOI: 10.15468/dl.bd9kfj
title: Occurrence Download

description: A dataset containing 986 species occurrences available in GBIF matching the query:
{
 "TaxonKey" : [
 "is Thecamoeba"
 ]
}

 The dataset includes 986 records from 28 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0002115-260120142942310/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.17632/x3xwc52z86
title: Discovery of two natural strains closely similar to the model strain Anabaena sp. PCC 7120 used in molecular studies of heterocyst differentiation

description: Fig.S1 Comparison of gamma plasmids (a) or delta plasmids (b) from Anabaena strains FACHB-595, FACHB-709 and PCC 7120
Fig.S2 Electrophoretograms of PCR products showing the segregation of mutants. a to k, PCR examination of hetR, hetP, hetZ, patS, patU3, patX, patL, patA, patN, nrrA and hetC mutants
Each mutant was examined with two pairs of primers: the first pair, with one primer located within the deleted region and the other primer outside the deleted region (lanes 1, 3, 5 and 7); the second pair, with both primers outside the deleted region (lanes 2, 4, 6 and 8). Lanes 1-2, the deletion mutant of FACHB-595; lanes 3-4, the wild type of FACHB-595; lanes 5-6, the deletion mutant of FACHB-709; lanes 7-8, the wild type of FACHB-709; M, marker. The Trans 5K marker (0.3, 0.5, 0.8, 1, 1.5, 2, 3, 5 kb) was used in a, d, e, g, i and k, while that used in other electrophoretograms was the 100-bp marker (0.1, 0.2, 0.3, 0.4, 0.5, 0.6, 0.7, 0.8, 0.9, 1.0, 1.2, 1.5 kb).
Table S1 List of strains, plasmids and primers used in this study
DOI: 10.17632/x3xwc52z86.1
title: Discovery of two natural strains closely similar to the model strain Anabaena sp. PCC 7120 used in molecular studies of heterocyst differentiation

description: Fig.S1 Comparison of gamma plasmids (a) or delta plasmids (b) from Anabaena strains FACHB-595, FACHB-709 and PCC 7120
Fig.S2 Electrophoretograms of PCR products showing the segregation of mutants. a to k, PCR examination of hetR, hetP, hetZ, patS, patU3, patX, patL, patA, patN, nrrA and hetC mutants
Each mutant was examined with two pairs of primers: the first pair, with one primer located within the deleted region and the other primer outside the deleted region (lanes 1, 3, 5 and 7); the second pair, with both primers outside the deleted region (lanes 2, 4, 6 and 8). Lanes 1-2, the deletion mutant of FACHB-595; lanes 3-4, the wild type of FACHB-595; lanes 5-6, the deletion mutant of FACHB-709; lanes 7-8, the wild type of FACHB-709; M, marker. The Trans 5K marker (0.3, 0.5, 0.8, 1, 1.5, 2, 3, 5 kb) was used in a, d, e, g, i and k, while that used in other electrophoretograms was the 100-bp marker (0.1, 0.2, 0.3, 0.4, 0.5, 0.6, 0.7, 0.8, 0.9, 1.0, 1.2, 1.5 kb).
Table S1 List of strains, plasmids and primers used in this study
DOI: 10.15468/dl.t7m4q5
title: Occurrence Download

description: A dataset containing 3126 species occurrences available in GBIF matching the query:
{
 "and" : [
 "TaxonKey is Euonymus japonicus",
 "Country is United Kingdom of Great Britain and Northern Ireland",
 "HasCoordinate is true"
 ]
}

 The dataset includes 3126 records from 33 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0049097-250811113504898/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.