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Revision 53323

schema does not need anymore to be processed for the vocabularies URL change, hence we can have everything simpler and keep only one folder

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modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/oaf-publication-1.1.xsd
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<xs:schema xmlns:xs="http://www.w3.org/2001/XMLSchema" elementFormDefault="qualified"
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	xmlns="http://namespace.openaire.eu/oaf" targetNamespace="http://namespace.openaire.eu/oaf"
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    xmlns:vc="http://www.w3.org/2007/XMLSchema-versioning" vc:minVersion="1.1">
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	<xs:annotation>
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		<xs:documentation>This schema describes elements and properties of literature results (aka publications)</xs:documentation>
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	</xs:annotation>
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	<xs:include schemaLocation="oaf-common-1.1.xsd"/>
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	<xs:element name="result">
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		<xs:complexType>
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			<xs:sequence>
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				<xs:choice maxOccurs="unbounded">
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					<xs:element name="resulttitle" type="xs:string"/>
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					<xs:element name="creator" type="creatorType"/>
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					<xs:element name="dateofacceptance" type="xs:string">
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						<xs:annotation>
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							<xs:documentation> Date of acceptance or publication of the literature result. The type is string because some values from some repositories cannot be properly transformed in dates.</xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="publisher" type="xs:string"/>
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					<xs:element name="description" type="xs:string"/>
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					<xs:element name="pid" type="typedElementType">
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						<xs:annotation>
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							<xs:documentation> Persistent identifier. <p>For allowed pid systems check codes in: $vocabulariesURL$/dnet:pid_types </p></xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="language" type="controlledElementType">
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						<xs:annotation>
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							<xs:documentation> Language in ISO 639-2.</xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="subject" type="typedElementType">
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						<xs:annotation>
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							<xs:documentation>Subject/topic of the publication. <p>For allowed subject schemes check codes in: $vocabulariesURL$/dnet:subject_classification_typologies </p></xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="resulttype" type="xs:string" fixed="publication"/>
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					<xs:element name="journal" type="journalType"/>
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					<xs:element name="source" type="xs:string">
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						<xs:annotation>
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							<xs:documentation> The semantics of this field is inherited from dc:source in Dublin Core. More details in https://guidelines.openaire.eu/en/latest/literature/field_source.html</xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="embargoenddate" type="xs:string">
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						<xs:annotation>
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							<xs:documentation>If the access rights is EMBARGO, this field contains the date of the end of embargo (if available), as a string.</xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="originalId" type="xs:string" >
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						<xs:annotation>
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							<xs:documentation>Identifier used by the metadata provider from which the record has been collected.</xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="collectedfrom" type="namedElementType">
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						<xs:annotation>
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							<xs:documentation>Identifier and name of the datasource from which this
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								publication metadata record has been collected from. </xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="bestaccessrights" type="controlledElementType">
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						<xs:annotation>
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							<xs:documentation> The "best" (i.e. openest) access rights available for this publication among the
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								available access rights of its instances. <p>For allowed values
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									check: $vocabulariesURL$/dnet:access_modes </p>
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							</xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="community" type="communityType">
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						<xs:annotation>
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							<xs:documentation>Research community for which this publication is relevant.</xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="relationships" type="relsType">
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						<xs:annotation>
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							<xs:documentation>Relationships to other entities. </xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="instances" type="instancesType" >
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						<xs:annotation>
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							<xs:documentation>One instance is a manifestation of the described publication (e.g. a pre-print version, the publisher's version)</xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="externalreference" type="externalreferenceType">
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						<xs:annotation>
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							<xs:documentation>References to external entities like entries from the Protein Data Bank and links to github. See the type definition for more details.</xs:documentation>
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						</xs:annotation>
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					</xs:element>
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					<xs:element name="citations" type="citationsType" />
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				</xs:choice>
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			</xs:sequence>
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		</xs:complexType>
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	</xs:element>
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	<xs:complexType name="citationsType">
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		<xs:sequence>
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			<xs:element name="citation" maxOccurs="unbounded" minOccurs="0">
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				<xs:complexType>
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					<xs:sequence>
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						<xs:element name="rawText"/>
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						<xs:element name="id" minOccurs="0" maxOccurs="unbounded">
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							<xs:complexType>
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								<xs:attribute name="value"/>
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								<xs:attribute name="type"/>
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								<xs:attribute name="confidenceLevel"/>
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							</xs:complexType>
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						</xs:element>
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					</xs:sequence>
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					<xs:attribute name="position" type="xs:integer"/>
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				</xs:complexType>
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			</xs:element>
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		</xs:sequence>
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		<xs:attribute name="provenance" type="xs:string"/>
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		<xs:attribute name="trust" type="xs:string"/>
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	</xs:complexType>
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	<xs:complexType name="journalType">
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		<xs:annotation>
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			<xs:documentation>Journal where the publication has been published. Attributes refer to
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				electronic, printed and linking (ISSN-L) ISSN. This field is applicable when
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				resulttype is "publication". </xs:documentation>
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		</xs:annotation>
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		<xs:simpleContent>
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			<xs:extension base="xs:string">
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				<xs:attribute name="eissn" use="optional"/>
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				<xs:attribute name="issn" use="optional"/>
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				<xs:attribute name="lissn" use="optional"/>
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				<xs:attribute name="ep" use="optional"/>
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				<xs:attribute name="iss" use="optional"/>
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				<xs:attribute name="sp" use="optional"/>
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				<xs:attribute name="vol" use="optional"/>
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			</xs:extension>
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		</xs:simpleContent>
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	</xs:complexType>
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</xs:schema>
modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/full_samples/project-1.1.xml
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   <oaf:project xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
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      xmlns:oaf="http://namespace.openaire.eu/oaf"
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      xsi:schemaLocation="http://namespace.openaire.eu/oaf ../oaf-project-1.1.xsd">
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      <oaf:code>643366</oaf:code>
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      <oaf:acronym>EENLondon H2020</oaf:acronym>
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      <oaf:title>Establishing services enhancing the innovation management capacity of SME's in the Enterprise Europe Network- London</oaf:title>
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      <oaf:startdate>2014-09-01</oaf:startdate>
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      <oaf:enddate>2015-01-01</oaf:enddate>
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      <oaf:callidentifier>H2020-Adhoc-2014-20</oaf:callidentifier>
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      <oaf:oamandatepublications>true</oaf:oamandatepublications>
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      <oaf:oamandatedatasets>true</oaf:oamandatedatasets>
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      <oaf:contracttype code="CSA">Coordination and support action</oaf:contracttype>
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      <oaf:funding>
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         <oaf:funder id="ec__________::EC" shortname="EC" name="European Commission" jurisdiction="EU"/>
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         <oaf:funding_level_0 name="H2020">ec__________::EC::H2020  </oaf:funding_level_0>
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      </oaf:funding>
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      <oaf:originalId>corda__h2020::643366</oaf:originalId>
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      <oaf:collectedfrom name="CORDA - COmmon Research DAta Warehouse - Horizon 2020"
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                         id="openaire____::a55eb91348674d853191f4f4fd73d078"/>
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      <oaf:rels>
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         <oaf:rel inferred="false"
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            provenance="UNKNOWN" semantics="hasContact">
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            <oaf:target type="person" id="corda__h2020::4777d1e9a63ceb718053e748666ffb6b">
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            <oaf:fullname>MCGRAIL, Donal</oaf:fullname>
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            </oaf:target>
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         </oaf:rel>
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         <oaf:rel inferred="true"
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            provenance="sysimport:crosswalk:entityregistry" semantics="hasParticipant">
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            <oaf:target type="organization" id="dedup_wf_001::c35b7861ede3a6216b7efbf71dfcbbfd">
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            <oaf:legalshortname>Greater London Enterprise Limited</oaf:legalshortname>
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            <oaf:legalname>Greater London Enterprise Limited</oaf:legalname>
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            <oaf:websiteurl>http://www.gle.co.uk/</oaf:websiteurl>
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            <oaf:country code="UK">United Kingdom</oaf:country>
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            </oaf:target>
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         </oaf:rel>
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      </oaf:rels>
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   </oaf:project>
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modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/full_samples/dataset1-1.1.xml
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<oaf:result xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
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   xmlns:oaf="http://namespace.openaire.eu/oaf"
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   xsi:schemaLocation="http://namespace.openaire.eu/oaf ../oaf-dataset-1.1.xsd">
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      <oaf:title>The Psychosocial Problems Of Pulmonary Tuberculosis
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            Patients Undergoing DOTS Therapy (Direct Observed Treatment Short Course Therapy) in
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            Selected Areas of Jalandhar District, Punjab.</oaf:title>
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      <oaf:dateofacceptance>2014-01-01</oaf:dateofacceptance>
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      <oaf:publisher>Figshare</oaf:publisher>
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      <oaf:resulttype>dataset</oaf:resulttype>
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      <oaf:language code="und">Undetermined</oaf:language>
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      <oaf:size/>
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      <oaf:format/>
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      <oaf:version/>
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      <oaf:subject type=""/>
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      <oaf:description/>
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      <oaf:embargoenddate/>
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      <oaf:resourcetype/>
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      <oaf:device/>
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      <oaf:originalId/>
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      <oaf:collectedfrom name="Datacite" id="openaire____::9e3be59865b2c1c335d32dae2fe7b254"/>
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      <oaf:pid type=""/>
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      <oaf:rels>
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         <oaf:rel inferred="false" provenance="sysimport:mining:repository" semantics="hasAuthor">
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            <oaf:target type="person" id="datacite____::6931f6d13e2a0410e898e08be9e53966">
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            <oaf:ranking>2</oaf:ranking>
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            <oaf:fullname>Veena Williams and Dr. Harbans Kaur</oaf:fullname>
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            </oaf:target>
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         </oaf:rel>
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         <oaf:rel inferred="true" provenance="iis" semantics="isRelatedTo">
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            <oaf:target type="result" id="dedup_wf_001::21927da64a2f3d56cfdc4bd8bb9554c7">
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            <oaf:resulttitle>Psychiatric Morbidity and Other Factors
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                    Affecting Treatment Adherence in Pulmonary Tuberculosis Patients</oaf:resulttitle>
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            <oaf:dateofacceptance>2013-01-01</oaf:dateofacceptance>
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            <oaf:publisher>Hindawi Publishing Corporation</oaf:publisher>
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            <oaf:resulttype>publication</oaf:resulttype>
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            </oaf:target>
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         </oaf:rel>
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      </oaf:rels>
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      <oaf:instances>
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         <oaf:instance>
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            <oaf:instancetype>Dataset</oaf:instancetype>
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            <oaf:hostedby name="Unknown Repository"
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                          id="openaire____::55045bd2a65019fd8e6741a755395c8c"/>
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            <oaf:webresource>
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               <oaf:url>http://dx.doi.org/10.6084/M9.FIGSHARE.1134410</oaf:url>
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            </oaf:webresource>
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         </oaf:instance>
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      </oaf:instances>
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   </oaf:result>
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modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/full_samples/dataset2-1.1.xml
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<oaf:result xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
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   xmlns:oaf="http://namespace.openaire.eu/oaf"
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   xsi:schemaLocation="http://namespace.openaire.eu/oaf ../oaf-dataset-1.1.xsd">
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      <oaf:title>Meteorological measurements in the upper air at station
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            Pune, 1938-12-31 - 1942-03-31, ERA-CLIM ID 5465</oaf:title>
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      <oaf:dateofacceptance>2014-01-01</oaf:dateofacceptance>
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      <oaf:publisher>PANGAEA</oaf:publisher>
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      <oaf:resulttype>dataset</oaf:resulttype>
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      <oaf:language code="und">Undetermined</oaf:language>
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      <oaf:size/>
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      <oaf:format/>
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      <oaf:version/>
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      <oaf:subject type=""/>
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      <oaf:description/>
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      <oaf:embargoenddate/>
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      <oaf:resourcetype/>
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      <oaf:device/>
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      <oaf:originalId>10.1594/PANGAEA.822742</oaf:originalId>
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      <oaf:collectedfrom name="PANGAEA" id="re3data_____::9633d1e8c4309c833c2c442abeb0cfeb"/>
23
      <oaf:pid type=""/>
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      <oaf:rels>
25
         <oaf:rel inferred="false"
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            provenance="sysimport:crosswalk:repository" semantics="hasAuthor">
27
            <oaf:target type="person" id="r39633d1e8c4::7a839450481f3732d0793dfda849458e">
28
               <oaf:ranking>1</oaf:ranking>
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               <oaf:fullname>India Meteorological Department</oaf:fullname>
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            </oaf:target>
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         </oaf:rel>
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         <oaf:rel inferred="true" semantics="isProducedBy"
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            provenance="sysimport:crosswalk:repository">
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            <oaf:target type="project" id="corda_______::227ed4d9a31899e1fccdc6cddbc0df40">
35
               <oaf:code>600927</oaf:code>
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               <oaf:acronym>SCALEQIT</oaf:acronym>
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               <oaf:projecttitle>Scalable Superconducting Processors for Entangled Quantum Information
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                  Technology</oaf:projecttitle>
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               <oaf:contracttype code="CP">Collaborative project</oaf:contracttype>
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               <oaf:funding>
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                  <oaf:funder id="ec__________::EC"
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                     shortname="EC"
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                     name="European Commission"
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                     jurisdiction="EU"/>
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                  <oaf:funding_level_0 name="FP7">ec__________::EC::FP7</oaf:funding_level_0>
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                  <oaf:funding_level_1 name="SP1">ec__________::EC::FP7::SP1</oaf:funding_level_1>
47
                  <oaf:funding_level_2 name="ICT">ec__________::EC::FP7::SP1::ICT</oaf:funding_level_2>
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               </oaf:funding>
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            </oaf:target>
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         </oaf:rel>
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      </oaf:rels>
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      <oaf:instances>
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         <oaf:instance>
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            <oaf:instancetype>Dataset</oaf:instancetype>
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            <oaf:hostedby name="PANGAEA" id="re3data_____::9633d1e8c4309c833c2c442abeb0cfeb"/>
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            <oaf:webresource>
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               <oaf:url>http://dx.doi.org/10.1594/PANGAEA.822742</oaf:url>
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            </oaf:webresource>
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         </oaf:instance>
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      </oaf:instances>
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   </oaf:result>
modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/full_samples/person1-1.1.xml
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<oaf:person xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
2
   xmlns:oaf="http://namespace.openaire.eu/oaf"
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   xsi:schemaLocation="http://namespace.openaire.eu/oaf ../oaf-person-1.1.xsd">
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   <oaf:firstname>A.</oaf:firstname>
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   <oaf:secondnames>Martos-Rodríguez</oaf:secondnames>
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   <oaf:fullname>Martos-Rodríguez, A.</oaf:fullname>
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   <oaf:originalId>oai:europepmc.org:2620792</oaf:originalId>
8
   <oaf:collectedfrom name="Europe PubMed Central"
9
      id="opendoar____::8b6dd7db9af49e67306feb59a8bdc52c"/>
10
   <oaf:rels>
11
      <oaf:rel inferred="false" semantics="isAuthorOf" provenance="sysimport:crosswalk:repository">
12
         <oaf:target id="od_______908::4bb59505385942b445601b3951c973d9" type="result">
13
            <oaf:resulttitle>Mechanoreceptors in collateral knee ligaments:
14
                       an animal experiment</oaf:resulttitle>
15
            <oaf:dateofacceptance>1999-09-01</oaf:dateofacceptance>
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            <oaf:publisher>Springer-Verlag</oaf:publisher>
17
            <oaf:resulttype>publication</oaf:resulttype>
18
         </oaf:target>
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      </oaf:rel>
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   </oaf:rels>
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</oaf:person>
modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/full_samples/dataset3-1.1.xml
1
<oaf:result xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
2
   xmlns:oaf="http://namespace.openaire.eu/oaf"
3
   xsi:schemaLocation="http://namespace.openaire.eu/oaf ../oaf-dataset-1.1.xsd">
4
      <oaf:title>Exploring human breast milk composition by
5
                    NMR-based metabolomics</oaf:title>
6
      <oaf:dateofacceptance>2014-01-01</oaf:dateofacceptance>
7
      <oaf:publisher>Figshare</oaf:publisher>
8
      <oaf:resulttype>dataset</oaf:resulttype>
9
      <oaf:language code="und">Undetermined</oaf:language>
10
      <oaf:size/>
11
      <oaf:format/>
12
      <oaf:version/>
13
      <oaf:subject type=""/>
14
      <oaf:description/>
15
      <oaf:embargoenddate/>
16
      <oaf:resourcetype/>
17
      <oaf:device/>
18
      <oaf:originalId/>
19
      <oaf:collectedfrom name="Datacite" id="openaire____::9e3be59865b2c1c335d32dae2fe7b254"/>
20
      <oaf:rels>
21
         <oaf:rel inferred="true" semantics="isRelatedTo"
22
                  provenance="iis">
23
            <oaf:target type="result" id="dedup_wf_001::f6d386702734ae645839688ad7e3bc82">
24
            <oaf:resulttitle>Clinical
25
                            Metabolomics and Nutrition: The New Frontier in Neonatology and
26
                            Pediatrics</oaf:resulttitle>
27
            <oaf:dateofacceptance>2014-01-01</oaf:dateofacceptance>
28
            <oaf:publisher>Hindawi Publishing Corporation</oaf:publisher>
29
            <oaf:resulttype>publication</oaf:resulttype>
30
            </oaf:target>
31
         </oaf:rel>
32
      </oaf:rels>
33
      <oaf:instances>
34
         <oaf:instance>
35
            <oaf:accessrights code="OPEN">Open Access</oaf:accessrights>
36
            <oaf:instancetype>Dataset</oaf:instancetype>
37
            <oaf:hostedby name="Unknown Repository"
38
                          id="openaire____::55045bd2a65019fd8e6741a755395c8c"/>
39
            <oaf:webresource>
40
               <oaf:url>http://dx.doi.org/10.6084/M9.FIGSHARE.963202</oaf:url>
41
            </oaf:webresource>
42
         </oaf:instance>
43
      </oaf:instances>
44
   </oaf:result>
modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/full_samples/person2-1.1.xml
1

  
2
<oaf:person xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
3
   xmlns:oaf="http://namespace.openaire.eu/oaf"
4
   xsi:schemaLocation="http://namespace.openaire.eu/oaf ../oaf-person-1.1.xsd">
5
   <oaf:firstname>Severin</oaf:firstname>
6
   <oaf:secondnames>Neher</oaf:secondnames>
7
   <oaf:fullname>Neher, Severin</oaf:fullname>
8

  
9
   <oaf:originalId>oai:europepmc.org:776551</oaf:originalId>
10
   <oaf:collectedfrom id="opendoar____::8b6dd7db9af49e67306feb59a8bdc52c"
11
      name="Europe PubMed Central"/>
12
   <oaf:rels>
13
      <oaf:rel provenance="sysimport:crosswalk:repository" semantics="isAuthorOf"
14
         inferred="false">
15
         <oaf:target type="result" id="od_______908::d66b67f541452d21bea5d23b47e356ba">
16
         <oaf:resulttitle>Modes of failure of a
17
                    threaded acetabular cup: A radiographic study with EBRA of 42 revised
18
                    cups</oaf:resulttitle>
19
         <oaf:dateofacceptance>2007-01-01</oaf:dateofacceptance>
20
         <oaf:publisher>Springer-Verlag</oaf:publisher>
21
         <oaf:resulttype>publication</oaf:resulttype>
22
         </oaf:target>
23
      </oaf:rel>
24
   </oaf:rels>
25
</oaf:person>
modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/full_samples/person3-1.0.xml
1
<oaf:person xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
2
   xmlns:oaf="http://namespace.openaire.eu/oaf"
3
   xsi:schemaLocation="http://namespace.openaire.eu/oaf ../oaf-person-1.1.xsd">
4
   <oaf:firstname>Antonella</oaf:firstname>
5
   <oaf:secondnames>Vulcano</oaf:secondnames>
6
   <oaf:fullname>Vulcano, Antonella</oaf:fullname>
7

  
8
   <oaf:originalId>corda_______::248352::Antonella_Vulcano</oaf:originalId>
9
   <oaf:collectedfrom name="CORDA - COmmon Research DAta Warehouse"
10
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      <oaf:description>  The stochastic evolution of quantum systems during measurement is arguably
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			the most enigmatic feature of quantum mechanics. Measuring a quantum system
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			typically steers it towards a classical state, destroying any initial quantum
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			superposition and any entanglement with other quantum systems. Remarkably, the
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			measurement of a shared property between non-interacting quantum systems can
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			generate entanglement starting from an uncorrelated state. Of special interest
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			in quantum computing is the parity measurement, which projects a register of
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			excitations. Crucially, a parity meter must discern the two parities with high
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			numerous proposals for atomic, semiconducting, and superconducting qubits,
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			measurement results has remained an outstanding challenge. We realize a
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			time-resolved, continuous parity measurement of two superconducting qubits
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			and phase-sensitive parametric amplification. Using postselection, we produce
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			entanglement by parity measurement reaching 77% concurrence. Incorporating the
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			parity meter in a feedback-control loop, we transform the entanglement
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			generation from probabilistic to fully deterministic, achieving 66% fidelity to
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			feedback-enabled deterministic measurement protocol provide key ingredients for
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                        <oaf:id value="10.1073/pnas.152046799" type="doi" confidenceLevel="0.9"/>
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                                Bioinformatics. 2007; 23: 84</oaf:rawText>
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                        <oaf:rawText>Van Kampen, N. Stochastic Processes in Physics and Chemistry
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                                North Holland. 2006</oaf:rawText>
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                        <oaf:rawText>Wilkinson, D. Stochastic modelling for quantitative description
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                                of heterogeneous biological systems. Nature Reviews Genetics. 2009;
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                                10: 122-133</oaf:rawText>
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                        <oaf:id value="10.1038/nrg2509" type="doi" confidenceLevel="0.9"/>
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                        <oaf:rawText>Wu, JQ, Pollard, TD. Counting Cytokinesis Proteins Globally and
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                                Locally in Fission Yeast. Science. 2005; 310: 310-314</oaf:rawText>
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                        <oaf:id value="10.1126/science.1113230" type="doi" confidenceLevel="0.9"/>
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                <oaf:citation>
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                        <oaf:rawText>Xie, SX, Choi, PJ, Li, GW, Lee, NK, Lia, G. Single-Molecule
340
                                Approach to Molecular Biology in Living Bacterial Cells. Annual
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                                Review of Biophysics. 2008; 37: 417-444</oaf:rawText>
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                        <oaf:id value="10.1146/annurev.biophys.37.092607.174640" type="doi"
343
                                confidenceLevel="0.9"/>
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                        <oaf:id value="18573089" type="pmid" confidenceLevel="0.9"/>
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        </oaf:citations>
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modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/transformations/transformed/trans_projectNIH.xml
1
<oaf:project xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
2
   xmlns:oaf="http://namespace.openaire.eu/oaf"
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   xsi:schemaLocation="http://namespace.openaire.eu/oaf http://datathon.openaire.eu/datathon-schema/oaf-project-1.1.xsd">
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   <oaf:startdate>2003-07-01</oaf:startdate>
5
   <oaf:projecttitle>Chemical Genetics of Iron Transport</oaf:projecttitle>
6
   <oaf:code>5R01DK064750-08</oaf:code>
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   <oaf:oamandatepublications>false</oaf:oamandatepublications>
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   <oaf:enddate>2015-04-30</oaf:enddate>
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   <oaf:funding>
10
      <oaf:funder id="nih_________::NIH" shortname="NIH" name="National Institutes of Health" jurisdiction="US"/>
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      <oaf:funding_level_0 name="NATIONAL INSTITUTE OF DIABETES AND DIGESTIVE AND KIDNEY&#xA;                            DISEASES">nih_________::NIH::NATIONAL INSTITUTE OF DIABETES AND DIGESTIVE AND
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                            KIDNEY DISEASES</oaf:funding_level_0>
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   </oaf:funding>
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   <oaf:acronym/>
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   <oaf:callidentifier/>
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   <oaf:contracttype code=""/>
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   <oaf:originalId>nih_________::5R01DK064750-08</oaf:originalId>
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   <oaf:collectedfrom name="NIH - National Institutes of Health"/>
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            <oaf:websiteurl>http://www.hsph.harvard.edu/</oaf:websiteurl>
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            <oaf:country code="US">United States</oaf:country>
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            <oaf:legalname>Harvard School of Public Health</oaf:legalname>
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   </oaf:relationships>
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   <oaf:oamandatedatasets>false</oaf:oamandatedatasets>
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modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/transformations/transformed/trans_dataset1.xml
1
<oaf:result xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
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   xmlns:oaf="http://namespace.openaire.eu/oaf"
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   xsi:schemaLocation="http://namespace.openaire.eu/oaf http://datathon.openaire.eu/datathon-schema/oaf-dataset-1.1.xsd">
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   <oaf:language code="und">Undetermined</oaf:language>
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   <oaf:dateofacceptance>2017-01-01</oaf:dateofacceptance>
6
   <oaf:size/>
7
   <oaf:resulttype>dataset</oaf:resulttype>
8
   <oaf:publisher>Figshare</oaf:publisher>
9
   <oaf:resulttitle>Transcriptomic responses of water buffalo liver
10
                    to infection with the digenetic fluke Fasciola gigantica</oaf:resulttitle>
11
   <oaf:resourcetype>Collection</oaf:resourcetype>
12
   <oaf:version/>
13
   <oaf:subject type="mesheuropmc" provenance="inference">food and beverages</oaf:subject>
14
   <oaf:subject type="keyword">Microbiology</oaf:subject>
15
   <oaf:subject type="keyword">Computational
16
                    Biology</oaf:subject>
17
   <oaf:subject type="keyword">Virology</oaf:subject>
18
   <oaf:subject type="keyword">Immunology</oaf:subject>
19
   <oaf:subject type="keyword">29999 Physical Sciences not
20
                    elsewhere classified</oaf:subject>
21
   <oaf:subject type="keyword">Space Science</oaf:subject>
22
   <oaf:subject type="keyword">Genetics</oaf:subject>
23
   <oaf:subject type="keyword">69999 Biological Sciences
24
                    not elsewhere classified</oaf:subject>
25
   <oaf:subject type="keyword">Infectious
26
                    Diseases</oaf:subject>
27
   <oaf:subject type="mesheuropmc" provenance="inference">parasitic diseases</oaf:subject>
28
   <oaf:subject type="mesheuropmc" provenance="inference">animal diseases</oaf:subject>
29
   <oaf:subject type="keyword">Cancer</oaf:subject>
30
   <oaf:format/>
31
   <oaf:description>Abstract Background Fasciola gigantica, the tropical liver fluke,
32
                    infects buffaloes in Asian and African countries and causes significant economic
33
                    losses and poses public health threat in these countries. However, little is
34
                    known of the transcriptional response of buffaloes to infection with F.
35
                    gigantica. The objective of the present study was to perform the first
36
                    transcriptomic analysis of buffalo liver infected by F. gigantica. Understanding
37
                    the mechanisms that underpin F. gigantica infection in buffaloes will contribute
38
                    to our ability to control this parasite. Methods We challenged buffaloes with
39
                    500 viable F. gigantica metacercariae and collected liver samples through a time
40
                    course at 3, 42 and 70Â days post-infection (dpi). Then, we performed gene
41
                    expression analysis on liver samples using RNA sequencing (RNA-Seq) Illumina
42
                    technology and confirmed the RNA-Seq data by quantitative RT-PCR analysis.
43
                    Results Totals of 496, 880 and 441 differentially expressed transcripts were
44
                    identified in the infected livers at 3, 42 and 70 dpi, respectively. Gene
45
                    Ontology (GO) and Kyoto Encyclopedia of Genes and Genomes (KEGG) analysis
46
                    revealed that transcriptional changes in the liver of infected buffaloes evolve
47
                    over the course of infection. The predominant response of buffaloes to infection
48
                    was mediated by certain pathways, such as MHC antigen processing and
49
                    presentation, Toll-like receptor 4 (TLR4), transforming growth factor beta
50
                    (TGF-β), and the cytochrome P450. Hepatic drug metabolizing enzymes and bile
51
                    secretion were also affected. Conclusions Fasciola gigantica can induce
52
                    statistically significant and biologically plausible differences in the hepatic
53
                    gene expression of infected buffaloes. These findings provide new insights into
54
                    the response of buffaloes to F. gigantica over the course of infection, which
55
                    may be useful in determining pathways that can modulate host-parasite
56
                    interaction and thus potentially important for clearance of the
57
                    parasite.</oaf:description>
58
   <oaf:embargoenddate/>
59
   <oaf:device/>
60
   <oaf:collectedfrom name="Datacite"/>
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   <oaf:pid type="doi">10.6084/m9.figshare.c.3678754</oaf:pid>
62
   <oaf:originalId>10.6084/m9.figshare.c.3678754</oaf:originalId>
63
   <oaf:originalId>http://dx.doi.org/10.6084/m9.figshare.c.3678754</oaf:originalId>
64
   <oaf:creator rank="4">Jun-Jun He</oaf:creator>
65
   <oaf:creator rank="9">Ai-Jiang Guo</oaf:creator>
66
   <oaf:creator rank="7">Jian-Gang Ma</oaf:creator>
67
   <oaf:creator rank="2">Xiao-Xuan Zhang</oaf:creator>
68
   <oaf:creator rank="10">Xing-Quan Zhu</oaf:creator>
69
   <oaf:creator rank="8">Wei-Yi Huang</oaf:creator>
70
   <oaf:creator rank="6">Wen-Bin Zheng</oaf:creator>
71
   <oaf:creator rank="5">Zhao-An Sheng</oaf:creator>
72
   <oaf:creator rank="3">Hany Elsheikha</oaf:creator>
73
   <oaf:creator rank="1">Fu-Kai Zhang</oaf:creator>
74
   <oaf:relationships>
75
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         <oaf:target type="result" id="dedup_wf_001::b9d8f5a45247260d099c5900a9a9b6ab">
77
            <oaf:publisher>BioMed Central</oaf:publisher>
78
            <oaf:dateofacceptance>2017-02-01</oaf:dateofacceptance>
79
            <oaf:resulttitle>Transcriptomic responses of water buffalo liver to infection with the
80
                            digenetic fluke Fasciola gigantica</oaf:resulttitle>
81
            <oaf:resulttype>publication</oaf:resulttype>
82
         </oaf:target>
83
      </oaf:relationship>
84
   </oaf:relationships>
85
   <oaf:instances>
86
      <oaf:instance>
87
         <oaf:hostedby name="figshare"/>
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89
         <oaf:accessrights code="UNKNOWN">UNKNOWN</oaf:accessrights>
90
         <oaf:webresource>
91
            <oaf:url>http://dx.doi.org/10.6084/m9.figshare.c.3678754</oaf:url>
92
         </oaf:webresource>
93
      </oaf:instance>
94
   </oaf:instances>
95
</oaf:result>
modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/transformations/transformed/trans_pub1.xml
1
<oaf:result xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
2
   xmlns:oaf="http://namespace.openaire.eu/oaf"
3
   xsi:schemaLocation="http://namespace.openaire.eu/oaf http://datathon.openaire.eu/datathon-schema/oaf-publication-1.1.xsd">
4
   <oaf:description/>
5
   <oaf:language code="und">Undetermined</oaf:language>
6
   <oaf:dateofacceptance>2011-04-19</oaf:dateofacceptance>
7
   <oaf:embargoenddate/>
8
   <oaf:resulttype>publication</oaf:resulttype>
9
   <oaf:resulttitle>Vision system for wearable and robotic
10
                    uses</oaf:resulttitle>
11
   <oaf:journal issn="" eissn="" lissn="" ep="" iss="" sp="" vol=""/>
12
   <oaf:subject type="ddc">ddc:620</oaf:subject>
13
   <oaf:subject type="ddc">ddc:</oaf:subject>
14
   <oaf:publisher/>
15
   <oaf:source/>
16
   <oaf:originalId>oai:mediatum.ub.tum.de:node/1134307</oaf:originalId>
17
   <oaf:collectedfrom name="MediaTUM"/>
18
   <oaf:pid type=""/>
19
   <oaf:bestaccessrights code="RESTRICTED">Restricted</oaf:bestaccessrights>
20
   <oaf:creator rank="1">Schneider, E. and Kohlbecher, S. and Villgrattner, T. and Bartl,
21
                            K. and Bardins, S. and Poitschke, T. and Ulbrich, H. and Brandt,
22
                            T.</oaf:creator>
23
   <oaf:relationships/>
24
   <oaf:instances>
25
      <oaf:instance>
26
         <oaf:instancetype>Article</oaf:instancetype>
27
         <oaf:hostedby name="MediaTUM"/>
28
         <oaf:accessrights code="RESTRICTED">Restricted</oaf:accessrights>
29
         <oaf:webresource>
30
            <oaf:url>http://mediatum.ub.tum.de/node?id=1134307</oaf:url>
31
         </oaf:webresource>
32
      </oaf:instance>
33
   </oaf:instances>
34
   <oaf:externalreference>
35
      <oaf:sitename>Protein Data Bank</oaf:sitename>
36
      <oaf:url>http://www.rcsb.org/pdb/explore/explore.do?structureId=2ep3</oaf:url>
37
      <oaf:refidentifier type="accessionNumber">2ep3</oaf:refidentifier>
38
   </oaf:externalreference>
39
</oaf:result>
modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/transformations/transformed/trans_dataset2.xml
1
<oaf:result xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
2
   xmlns:oaf="http://namespace.openaire.eu/oaf"
3
   xsi:schemaLocation="http://namespace.openaire.eu/oaf http://datathon.openaire.eu/datathon-schema/oaf-dataset-1.1.xsd">
4
   <oaf:language code="und">Undetermined</oaf:language>
5
   <oaf:version/>
6
   <oaf:dateofacceptance>2015-01-01</oaf:dateofacceptance>
7
   <oaf:resulttype>dataset</oaf:resulttype>
8
   <oaf:size/>
9
   <oaf:resulttitle>Hydrochemistry measured on water bottle samples
10
                    during Bjarni Saemundsson cruise B16/92</oaf:resulttitle>
11
   <oaf:format/>
12
   <oaf:publisher>PANGAEA</oaf:publisher>
13
   <oaf:subject type=""/>
14
   <oaf:description/>
15
   <oaf:embargoenddate/>
16
   <oaf:resourcetype/>
17
   <oaf:device/>
18
   <oaf:originalId>10.1594/PANGAEA.844769</oaf:originalId>
19
   <oaf:collectedfrom name="PANGAEA"/>
20
   <oaf:pid type="doi">10.1594/PANGAEA.844769</oaf:pid>
21
   <oaf:creator rank="1">Jón Ólafsson</oaf:creator>
22
   <oaf:relationships>
23
      <oaf:relationship semantics="isProducedBy" provenance="sysimport:crosswalk:datasetarchive">
24
         <oaf:target type="project" id="corda_______::0f39cd03378bd342ab581149e60f10a3">
25
            <oaf:code>264879</oaf:code>
26
            <oaf:contracttype code="CP">Collaborative project</oaf:contracttype>
27
            <oaf:funding>
28
               <oaf:funder id="ec__________::EC" shortname="EC" name="European Commission" jurisdiction="EU"/>
29
               <oaf:funding_level_0 name="FP7">ec__________::EC::FP7</oaf:funding_level_0>
30
               <oaf:funding_level_1 name="SP1">ec__________::EC::FP7::SP1</oaf:funding_level_1>
31
               <oaf:funding_level_2 name="ENV">ec__________::EC::FP7::SP1::ENV</oaf:funding_level_2>
32
            </oaf:funding>
33
            <oaf:acronym>CARBOCHANGE</oaf:acronym>
34
            <oaf:projecttitle>Changes in carbon uptake and emissions by oceans in a changing
35
                            climate</oaf:projecttitle>
36
         </oaf:target>
37
      </oaf:relationship>
38
   </oaf:relationships>
39
   <oaf:instances>
40
      <oaf:instance>
41
         <oaf:accessrights code="OPEN">Open Access</oaf:accessrights>
42
         <oaf:hostedby name="PANGAEA"/>
43
         <oaf:instancetype>Dataset</oaf:instancetype>
44
         <oaf:webresource>
45
            <oaf:url>http://dx.doi.org/10.1594/PANGAEA.844769</oaf:url>
46
         </oaf:webresource>
47
      </oaf:instance>
48
   </oaf:instances>
49
</oaf:result>
modules/dnet-openaire-schema/trunk/src/1.1_datathon2017/transformations/transformed/trans_pub2.xml
1
<oaf:result xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
2
   xmlns:oaf="http://namespace.openaire.eu/oaf"
3
   xsi:schemaLocation="http://namespace.openaire.eu/oaf http://datathon.openaire.eu/datathon-schema/oaf-publication-1.1.xsd">
4
   <oaf:publisher>PeerJ Inc.</oaf:publisher>
5
   <oaf:language code="eng">English</oaf:language>
6
   <oaf:journal issn="2167-8359" eissn="2167-8359" lissn="" ep="" iss="" sp="" vol="3">PeerJ</oaf:journal>
7
   <oaf:description>Yeasts play an important role in the biology of the fruit fly,
8
                    Drosophila melanogaster. In addition to being a valuable source of nutrition,
9
                    yeasts affect D. melanogaster behavior and interact with the host immune system.
10
                    Most experiments investigating the role of yeasts in D. melanogaster biology use
11
                    the baker’s yeast, Saccharomyces cerevisiae. However, S. cerevisiae is rarely
12
                    found with natural populations of D. melanogaster or other Drosophila species.
13
                    Moreover, the strain of S. cerevisiae used most often in D. melanogaster
14
                    experiments is a commercially and industrially important strain that, to the
15
                    best of our knowledge, was not isolated from flies. Since disrupting natural
16
                    host–microbe interactions can have profound effects on host biology, the results
17
                    from D. melanogaster–S. cerevisiae laboratory experiments may not be fully
18
                    representative of host–microbe interactions in nature. In this study, we explore
19
                    the D. melanogaster-yeast relationship using five different strains of yeast
20
                    that were isolated from wild Drosophila populations. Ingested live yeasts have
21
                    variable persistence in the D. melanogaster gastrointestinal tract. For example,
22
                    Hanseniaspora occidentalis persists relative to S. cerevisiae, while
23
                    Brettanomyces naardenensis is removed. Despite these differences in persistence
24
                    relative to S. cerevisiae, we find that all yeasts decrease in total abundance
25
                    over time. Reactive oxygen species (ROS) are an important component of the D.
26
                    melanogaster anti-microbial response and can inhibit S. cerevisiae growth in the
27
                    intestine. To determine if sensitivity to ROS explains the differences in yeast
28
                    persistence, we measured yeast growth in the presence and absence of hydrogen
29
                    peroxide. We find that B. naardenesis is completely inhibited by hydrogen
30
                    peroxide, while H. occidentalis is not, which is consistent with yeast
31
                    sensitivity to ROS affecting persistence within the D. melanogaster
32
                    gastrointestinal tract. We also compared the feeding preference of D.
33
                    melanogaster when given the choice between a naturally associated yeast and S.
34
                    cerevisiae. We do not find a correlation between preferred yeasts and those that
35
                    persist in the intestine. Notably, in no instances is S. cerevisiae preferred
36
                    over the naturally associated strains. Overall, our results show that D.
37
                    melanogaster-yeast interactions are more complex than might be revealed in
38
                    experiments that use only S. cerevisiae. We propose that future research utilize
39
                    other yeasts, and especially those that are naturally associated with
40
                    Drosophila, to more fully understand the role of yeasts in Drosophila biology.
41
                    Since the genetic basis of host–microbe interactions is shared across taxa and
42
                    since many of these genes are initially discovered in D. melanogaster, a more
43
                    realistic fly-yeast model system will benefit our understanding of host–microbe
44
                    interactions throughout the animal kingdom.</oaf:description>
45
   <oaf:resulttitle>Interactions between Drosophila and its natural
46
                    yeast symbionts—Is Saccharomyces cerevisiae a good model for studying the
47
                    fly-yeast relationship?</oaf:resulttitle>
48
   <oaf:resulttype>publication</oaf:resulttype>
49
   <oaf:subject type="keyword">Symbiosis</oaf:subject>
50
   <oaf:subject type="keyword">Yeast</oaf:subject>
51
   <oaf:subject type="keyword">Microbiology</oaf:subject>
52
   <oaf:subject type="keyword">Entomology</oaf:subject>
53
   <oaf:subject type="keyword">Mycology</oaf:subject>
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