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 <dataset>  <title>Victorian Alpine Plot Network (Alpine Long Term Monitoring - Community Changes): Multi-taxa Phylogenomic Data, 2012–2013</title>
<creator id="1539760891020"><individualName><salutation>Mr</salutation>
 <givenName>Nick</givenName>
 <surName>Bell</surName>
 </individualName>
 <organizationName>Pest &amp; Environmental Adaptation Research Group, School of Biosciences, University of Melbourne</organizationName>
 <positionName>Business Manager to Ary Hoffmann</positionName>
 <address><deliveryPoint>Bio21 Institute</deliveryPoint>
 <deliveryPoint>30 Flemington Road</deliveryPoint>
 <city>Parkville</city>
 <administrativeArea>VIC</administrativeArea>
 <postalCode>3052</postalCode>
 <country>Australia</country>
 </address>
 <phone phonetype="voice">+61 3 9035 6780</phone>
 <electronicMailAddress>belln@unimelb.edu.au</electronicMailAddress>
 </creator>
<abstract><para>Global change poses significant and urgent challenges for biodiversity conservation. Species
persistence under a rapidly changing environment ultimately depends on abilities to disperse
to favourable habitats or adapt in situ by plastic or evolutionary mechanisms. Conservation
strategies preserving endemism and adaptive potential are critical.

This study aims to investigate the phylogeographic history of Victorian Alpine plants
using high-density genetic markers. Multi-taxa genomic data was compared to determine
common phylogeographic patterns and identify evolutionary processes shaping biodiversity.
Spatial patterns of genetic structure were used to delineate evolutionary bioregions and
refugia of high conservation value.

Life-history traits have seldom been explicitly within a landscape genetic framework.
Spatial isolation is a key component of genetic structure for sessile organisms. This study
demonstrates that life-history traits are primary drivers of inter-population connectivity and
genetic structure. Differences across taxa impacted on patterns of genetic structure on fine
spatial scales, while common patterns were observed at broad scales regardless of life-history
traits.

These findings complement other Australian Alpine genetic studies indicate that flora
and fauna in Victorian Alps share a common genetic structure and phylogeographic history
driven by unique processes. The geomorphology of the Victorian Alps has clearly driven the
evolutionary trajectories of the native flora and fauna. This approach could inform evidence
based conservation policy.

Previously undelineated cryptic species were revealed by this study—highlighting
limitations of traditional taxonomy and the utility of new approaches. This project
demonstrates how genomic technologies can characterise evolutionary processes at landscape
scales, and detect important patterns in at-risk ecosystems.


This data is related to the following publication: Bell, N., Griffin, P. C., Hoffmann, A. A., &amp; Miller, A.D. (2018). Spatial patterns of genetic diversity among Australian alpine flora communities revealed by comparative phylogenomics. Journal of Biogeography, 45, 177–189. Published online at https://onlinelibrary.wiley.com/doi/epdf/10.1111/jbi.13120 (free access). DOI: 10.1111/jbi.13120</para>
</abstract>
  <keywordSet><keyword>Climate change</keyword>
 <keyword>Genetics</keyword>
 <keywordThesaurus>LTERN Monitoring Themes</keywordThesaurus>
 </keywordSet>
 <keywordSet><keyword>0604</keyword>
 <keywordThesaurus>ANZSRC-FOR</keywordThesaurus>
 </keywordSet>
 <keywordSet><keyword>Earth Science &gt; Biosphere &gt; Vegetation</keyword>
 <keywordThesaurus>GCMD</keywordThesaurus>
 </keywordSet>
 <keywordSet><keyword>Climate change</keyword>
 <keyword>Cryptic speciation</keyword>
 <keyword>Evidence based conservation</keyword>
 <keyword>Life-history traits</keyword>
 <keyword>Next-generation sequencing</keyword>
 <keyword>Phylogenetics</keyword>
 <keyword>Refugia</keyword>
 <keyword>Victorian alps</keyword>
 <keywordThesaurus>Keywords</keywordThesaurus>
 </keywordSet>
 <intellectualRights><para>CC-BY-4_0

Please contact the data owner (Nick Bell) directly for the raw data.</para>
 </intellectualRights>
 <coverage> <geographicCoverage><geographicDescription>South-east Highlands</geographicDescription>
 <boundingCoordinates><westBoundingCoordinate>146.41728</westBoundingCoordinate>
 <eastBoundingCoordinate>147.40598</eastBoundingCoordinate>
 <northBoundingCoordinate>-36.73575</northBoundingCoordinate>
 <southBoundingCoordinate>-37.49639</southBoundingCoordinate>
 </boundingCoordinates>
 </geographicCoverage>
 <temporalCoverage><rangeOfDates><beginDate><calendarDate>2012</calendarDate>
 </beginDate>
 <endDate><calendarDate>2013</calendarDate>
 </endDate>
 </rangeOfDates>
 </temporalCoverage>
 <taxonomicCoverage><taxonomicClassification><taxonRankName>Species</taxonRankName>
 <taxonRankValue>Asterolasia trymalioides</taxonRankValue>
 </taxonomicClassification>
 <taxonomicClassification><taxonRankName>Species</taxonRankName>
 <taxonRankValue>Grevillea australis</taxonRankValue>
 </taxonomicClassification>
 <taxonomicClassification><taxonRankName>Species</taxonRankName>
 <taxonRankValue>Hovea montana</taxonRankValue>
 </taxonomicClassification>
 <taxonomicClassification><taxonRankName>Species</taxonRankName>
 <taxonRankValue>Oreomyrrhis eriopoda</taxonRankValue>
 </taxonomicClassification>
 <taxonomicClassification><taxonRankName>Species</taxonRankName>
 <taxonRankValue>Pimelea alpina</taxonRankValue>
 </taxonomicClassification>
 <taxonomicClassification><taxonRankName>Species</taxonRankName>
 <taxonRankValue>Scleranthus biflorus</taxonRankValue>
 </taxonomicClassification>
 <taxonomicClassification><taxonRankName>Species</taxonRankName>
 <taxonRankValue>Stylidium armeria</taxonRankValue>
 </taxonomicClassification>
 </taxonomicCoverage>
 </coverage>
 <contact><references>1539760891020</references>
 </contact>
 <methods><methodStep><description><section><title>Field collection</title>
 <para>Leaf tissue was collected over the summer 2012-13, with additional sampling at Mt. Stirling and Mt. Howitt in October 2013. For each species, a minimum of 30 ~1 gram samples of fresh growth was collected within an area of approximately 100 m2, specifically avoiding adjacent individuals to reduce the possibility of sampling closely related individuals. This is particularly important for prostrate spreading species such as Pimelea alpina, where clonal/spreading individuals can be difficult to distinguish. GPS coordinates were logged at each site within. Individual samples with unique identifiers were preserved in paper coffee filters and desiccated with silica gel.</para>
 </section>
 </description>
 </methodStep>
 <methodStep><description><section><title>DNA extraction and genotyping</title>
 <para>For each species at each location 30 mg leaf of tissue were weighed out and sent to the Australian Genome Research Facility Ltd (AGRF) Plant Genomics Centre, Adelaide. Extraction was performed as per the NucleoSpin® 96 Plant II protocol (Machery-Nagel Inc., Düren, KO, GER). DNA quantitation was performed as per the QuantiFluor® dsDNA System (Promega Inc,, Madison, NY, USA).</para>
 <para>Genotyping By Sequencing (GBS) was chosen for the study. GBS facilitates genotyping across populations for tens of thousands to hundreds of thousands of anonymous genetic markers (Elshire et al. 2011; Thudi et al. 2012; Lu et al. 2013).</para>
 <para>Due to financial limitations of the project and the number samples sequenced, samples were pooled at the population level for each species. Anderson et al. (2014) recently outlined potential issues associated with pooling samples for molecular ecology, in light of this,  stringent DNA quantifications and standardisation steps, coupled with stringent SNP filtering criteria were implemented.</para>
 <para>For each species ten individual DNA extractions from each site were pooled to a total of 500 ng. Subsequently volumes were standardised by evaporating the samples with a CentriVap® Centrifugal Concentrator (Labcono, Kansas City, MO, USA) at 45ºC for two hours, and re-suspending in nuclease-free water. A 0.75 ng/µl concentration of a PstI barcode adapter working stock was aliquoted at 3 µl per sample. Samples were digested with 0.2 µl of PstI-HF® (New England BioLabs, Ipswich, MA, USA) enzyme at 37ºC for two hours. The samples were then purified using a MinElute® PCR purification kit (QIAGEN, Redwood City, CA, USA). A volume of 20 µl of T4 DNA ligase (Bioline, Taunton, MA, USA) was used to ligate the PstI adaptors, incubated at 16ºC for two hours and 80ºC for 80 minutes. PCR amplification was performed on 10 µl of purified post-ligation product with 25 µl of MyTaq™ HS Red Mix (Bioline, Taunton, MA, USA) and 1 µl at 10 µM each of Illumina Dual Index Sequencing Primers 1 &amp; 2 (Illumina Inc., San Diego, CA, USA). PCR conditions were; 72º for 5 min and 95º for 1 min, followed by; 95º for 30 s, 65º for 30 s, 72º for 30 s for 24 cycles, followed by; 72º 5 min.</para>
 <para>Quantitation, quality checking and size fractionation was performed on a MCE®-202 MultiNA with a DNA-1000 kit (Shimadzu, Kyoto), see appendix 2 for virtual gel captures.</para>
 <para>Libraries were subsequently pooled equimolar into single 0.6 µl microcentrifuge tube and sequenced on a single HiSeq™ 2000 lane at the Australian National University Biomolecular Resource Facility.</para>
 <para>References</para>
 <para>Anderson EC, Skaug HJ, Barshis DJ (2014) Next‐generation sequencing for molecular ecology: a caveat regarding pooled samples. Molecular ecology, 23, 502–512.</para>
 <para>Elshire RJ, Glaubitz JC, Sun Q et al. (2011) A Robust, Simple Genotyping-by-Sequencing (GBS) Approach for High Diversity Species (L Orban, Ed,). PLoS ONE, 6, e19379.</para>
 <para>Lu F, Lipka AE, Glaubitz J et al. (2013) Switchgrass Genomic Diversity, Ploidy, and Evolution: Novel Insights from a Network-Based SNP Discovery Protocol. PLoS Genet, 9, e1003215.</para>
 <para>Thudi M, Li Y, Jackson SA, May GD, Varshney RK (2012) Current state-of-art of sequencing technologies for plant genomics research. Briefings in Functional Genomics, 11, 3–11.</para>
 </section>
 </description>
 </methodStep>
 <sampling><studyExtent><description><para>Leaf tissue was collected over the summer 2012-2013, with additional sampling at Mount Stirling and Mount Howitt in October 2013. A summary of the spatial and taxonomic extent of the study can be found in the &quot;Tables&quot; section of the Honours thesis.</para>
 </description>
 </studyExtent>
 <samplingDescription><para>As per &quot;Materials and Methods&quot; section of the Honours thesis.</para>
 </samplingDescription>
 </sampling>
 </methods>
 <project><title>Victorian Alpine Plot Network</title>
 <personnel><references>1539760891020</references>
 <role>Data Owner</role>
 </personnel>
 <personnel id="1539761320866"><individualName><salutation>Professor</salutation>
 <givenName>Ary</givenName>
 <surName>Hoffman</surName>
 </individualName>
 <organizationName>Pest &amp; Environmental Adaptation Research Group, School of Biosciences, Univeristy of Melbourne</organizationName>
 <positionName>Group Head</positionName>
 <address><deliveryPoint>Bio21 Institute</deliveryPoint>
 <deliveryPoint>30 Flemington Road</deliveryPoint>
 <city>Parkville</city>
 <administrativeArea>VIC</administrativeArea>
 <postalCode>3052</postalCode>
 </address>
 <phone phonetype="voice">+61 3 8344 2204</phone>
 <electronicMailAddress>ary@unimelb.edu.au</electronicMailAddress>
 <role>Honours supervisor</role>
 </personnel>
 <personnel id="1539761667541"><individualName><salutation>Dr</salutation>
 <givenName>Adam</givenName>
 <surName>Miller</surName>
 </individualName>
 <organizationName>School of Life &amp; Environmental Sciences, Deakin University</organizationName>
 <positionName>Senior Lecturer in Aquatic Ecology and Biodiversity</positionName>
 <address><administrativeArea>VIC</administrativeArea>
 <country>Australia</country>
 </address>
 <phone phonetype="voice">+61 3 556 33171</phone>
 <electronicMailAddress>a.miller@deakin.edu.au</electronicMailAddress>
 <role>Honours supervisor</role>
 </personnel>
 <personnel id="1539761939075"><individualName><salutation>Dr</salutation>
 <givenName>John</givenName>
 <surName>Morgan</surName>
 </individualName>
 <organizationName>Department of Ecology, Evolution and Environment, La Trobe University</organizationName>
 <positionName>Plant Ecologist</positionName>
 <address><deliveryPoint>La Trobe University</deliveryPoint>
 <city>Bundoora</city>
 <administrativeArea>VIC</administrativeArea>
 <postalCode>3086</postalCode>
 <country>Australia</country>
 </address>
 <phone phonetype="voice">+61 3 9479 2226</phone>
 <electronicMailAddress>j.morgan@latrobe.edu.au</electronicMailAddress>
 <role>Honours supervisor</role>
 </personnel>
 <funding><para>This project is part of the Long Term Ecological Research Network (LTERN). This work was supported by the Australian Government’s Terrestrial Ecosystems Research Network (www.tern.org.au) – an Australian research infrastructure facility established under the National Collaborative Research Infrastructure Strategy and Education Infrastructure Fund–Super Science Initiative through the Department of Industry, Innovation, Science, Research and Tertiary Education.</para>
 </funding>
 </project>
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