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<EXPERIMENT_SET>
    <EXPERIMENT accession="DRX016474" center_name="RYUKYU" alias="DRX016474">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Petrosia sp. ARY-005 (Petrosida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015942" refcenter="RYUKYU" refname="DRS015942">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016407</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>PTR</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
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                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
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                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
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                            <BASECALL match_edge="full" max_mismatch="1">ACGA</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
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            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016475" center_name="RYUKYU" alias="DRX016475">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Acanthostrongylophora sp. AKK2-001 (Haplosclerida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015943" refcenter="RYUKYU" refname="DRS015943">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016412</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>ACT</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
            <SPOT_DESCRIPTOR>
                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">ACGC</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
                </PIPE_SECTION>
            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016476" center_name="RYUKYU" alias="DRX016476">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Ircinia sp. ARY-004 (Dictyoceratida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015944" refcenter="RYUKYU" refname="DRS015944">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016404</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>IRC</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
            <SPOT_DESCRIPTOR>
                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">AGAC</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
                </PIPE_SECTION>
            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016477" center_name="RYUKYU" alias="DRX016477">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Pseudoceratina sp. ARY-008 (Dictyoceratida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015945" refcenter="RYUKYU" refname="DRS015945">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016403</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>PCR</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
            <SPOT_DESCRIPTOR>
                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">AGCA</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
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            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016478" center_name="RYUKYU" alias="DRX016478">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Dysidea sp. AKK-001 (Verongida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015946" refcenter="RYUKYU" refname="DRS015946">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016401</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>DYS</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
            <SPOT_DESCRIPTOR>
                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">ATCA</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
                </PIPE_SECTION>
            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016479" center_name="RYUKYU" alias="DRX016479">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Agelas sp. ARY-006 (Agelasida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015947" refcenter="RYUKYU" refname="DRS015947">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016402</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>AGL</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
            <SPOT_DESCRIPTOR>
                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">CGTG</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
                </PIPE_SECTION>
            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016480" center_name="RYUKYU" alias="DRX016480">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Amphimedon sp. ARY-001 (Haplosclerida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015948" refcenter="RYUKYU" refname="DRS015948">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016411</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>AMP</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
            <SPOT_DESCRIPTOR>
                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">TCTC</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
                </PIPE_SECTION>
            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016481" center_name="RYUKYU" alias="DRX016481">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Axinella sp. ITN-001 (Halichondrida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015949" refcenter="RYUKYU" refname="DRS015949">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016409</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>AXN-1</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
            <SPOT_DESCRIPTOR>
                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">TACT</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
                </PIPE_SECTION>
            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016482" center_name="RYUKYU" alias="DRX016482">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Axinella sp. KIN-001 (Halichondrida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015950" refcenter="RYUKYU" refname="DRS015950">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016413</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>AXN-2</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
            <SPOT_DESCRIPTOR>
                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">ACGA</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
                </PIPE_SECTION>
            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016483" center_name="RYUKYU" alias="DRX016483">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Axinella sp. KIN-002 (Halichondrida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015951" refcenter="RYUKYU" refname="DRS015951">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016405</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>AXN-3</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
            <SPOT_DESCRIPTOR>
                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">ACGC</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
                </PIPE_SECTION>
            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016484" center_name="RYUKYU" alias="DRX016484">
        <TITLE>16S rRNA gene amplicon from a sponge individual, Axinella sp. KIN-003 (Halichondrida)</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015952" refcenter="RYUKYU" refname="DRS015952">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016414</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>AXN-4</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
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                <SPOT_DECODE_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">AGAC</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
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                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
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        </DESIGN>
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            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
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                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
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                    <VERSION></VERSION>
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    </EXPERIMENT>
    <EXPERIMENT accession="DRX016485" center_name="RYUKYU" alias="DRX016485">
        <TITLE>16S rRNA gene amplicon from a sediment sample, Sed-ARY</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015953" refcenter="RYUKYU" refname="DRS015953">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016406</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>Sed-ARY</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
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                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
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                            <BASECALL match_edge="full" max_mismatch="1">AGCA</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
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        </DESIGN>
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            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
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            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
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                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
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            </PIPELINE>
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    </EXPERIMENT>
    <EXPERIMENT accession="DRX016486" center_name="RYUKYU" alias="DRX016486">
        <TITLE>16S rRNA gene amplicon from a sediment sample, Sed-AKK</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015954" refcenter="RYUKYU" refname="DRS015954">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016410</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>Sed-AKK</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
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                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">ATCA</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
                </PIPE_SECTION>
            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
    <EXPERIMENT accession="DRX016487" center_name="RYUKYU" alias="DRX016487">
        <TITLE>16S rRNA gene amplicon from a sediment sample, Sed-ITN</TITLE>
        <STUDY_REF accession="DRP002290" refcenter="RYUKYU" refname="DRP002290">
            <IDENTIFIERS>
                <PRIMARY_ID label="BioProject ID">PRJDB2797</PRIMARY_ID>
            </IDENTIFIERS>
        </STUDY_REF>
        <DESIGN>
            <DESIGN_DESCRIPTION></DESIGN_DESCRIPTION>
            <SAMPLE_DESCRIPTOR accession="DRS015955" refcenter="RYUKYU" refname="DRS015955">
                <IDENTIFIERS>
                    <PRIMARY_ID label="BioSample ID">SAMD00016408</PRIMARY_ID>
                </IDENTIFIERS>
            </SAMPLE_DESCRIPTOR>
            <LIBRARY_DESCRIPTOR>
                <LIBRARY_NAME>Sed-ITN</LIBRARY_NAME>
                <LIBRARY_STRATEGY>AMPLICON</LIBRARY_STRATEGY>
                <LIBRARY_SOURCE>METAGENOMIC</LIBRARY_SOURCE>
                <LIBRARY_SELECTION>PCR</LIBRARY_SELECTION>
                <LIBRARY_LAYOUT>
                    <SINGLE/>
                </LIBRARY_LAYOUT>
                <TARGETED_LOCI>
                    <LOCUS description="V1 to V3 region" locus_name="16S rRNA">
                        <PROBE_SET>
                            <DB></DB>
                            <ID></ID>
                        </PROBE_SET>
                    </LOCUS>
                </TARGETED_LOCI>
                <LIBRARY_CONSTRUCTION_PROTOCOL>After frozen sponge specimens were defrosted, sponge tissues were washed briefly with TNE buffer (10 mM Tris-HCl [pH 8.0], 3.5 % [w/v] NaCl, and 50 mM EDTA [pH 7.5]) to remove temporally attached debris. Ten g of washed sponge tissues were cut into small pieces (&lt; 1 cm3) and homogenized with twice volume of TNE buffer using a food processing device for 1 min. Genomic DNAs of sponge and bacterial residents were extracted from the homogenate by using a DNA extraction kit (ISOPLANT, Nippon gene, Ohtsu, Japan) according to manufacturer?s protocol. The extracted DNA was further purified with a Genomic-tip (QIAGEN) to eliminate inhibitory elements for PCR. The quality and the quantity of the extracted DNA were checked with a NanoDrop spectrophotometer (Thermo Fisher Scientific) and a Qubit fluorometer (Life technologies), respectively. Sediment soils collected near sponge sampling sites were also subjected to DNA extraction using same procedure as described above except that 20 g of sediment soil was used for ISOPLANT extraction without homogenization.For library construction of pyrosequence, almost entire length of bacterial 16S rRNA gene was amplified at first with a universal primer set, Eub11f3mx (5?-TGR GTT TGA TCM TGG CTY AG) and Eub1511r1mx (5?-TGG HTA CCT TGT TAC GAC TT) [29. Shinzato N et al. Biosci Biotechnol Biochem 69: 1145-1155, 2005.], which was performed by the following temperature regime: 3 min at 95 ?C, 10 cycles of 30 sec at 95 ?C, 30 sec at 53 ?C and 1.5 min at 72 ?C followed by a final extension step at 72 ?C for 10 min. The second PCR was performed using the product of fast PCR as template and newly designed nested primers PrimB-B16S-11F and PrimA-B16S-532R, which were complemented with sequencing adaptors B and A, respectively, as recommended by the manufacture (Roche diagnostics; Fig. S1), and the reverse primer contained one of multiplex identifier (MID) barcodes (Table S1). The second PCR conditions were as follows: initial denaturing step at 95 ?C for 3 min, 25 cycles of denaturing at 95 ?C for 30 sec, primer annealing at 54 ?C for 30 sec, and extension at 72 ?C for 1 min, followed by final extension step at 72 ?C for 10 min. The resulting PCR product was checked by agarose gel electrophoresis and their quantity was assessed by a Qubit assay (Life technologies) or quantitative PCR procedure using a KAPA library quantification kit (Kapa Biosystems, Wilmington, MA). Finally, equal amounts of PCR products were pooled and then subjected to pyrosequencing with a Roche 454 GS Junior system (Roche diagnostics) according to manufacturer?s instructions for amplicon library sequence.</LIBRARY_CONSTRUCTION_PROTOCOL>
            </LIBRARY_DESCRIPTOR>
            <SPOT_DESCRIPTOR>
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                    <READ_SPEC>
                        <READ_INDEX>0</READ_INDEX>
                        <READ_LABEL>barcode_tag</READ_LABEL>
                        <READ_CLASS>Technical Read</READ_CLASS>
                        <READ_TYPE>BarCode</READ_TYPE>
                        <EXPECTED_BASECALL_TABLE base_coord="1" default_length="4">
                            <BASECALL match_edge="full" max_mismatch="1">ATAT</BASECALL>
                        </EXPECTED_BASECALL_TABLE>
                    </READ_SPEC>
                    <READ_SPEC>
                        <READ_INDEX>1</READ_INDEX>
                        <READ_CLASS>Application Read</READ_CLASS>
                        <READ_TYPE>Forward</READ_TYPE>
                        <BASE_COORD>5</BASE_COORD>
                    </READ_SPEC>
                </SPOT_DECODE_SPEC>
            </SPOT_DESCRIPTOR>
        </DESIGN>
        <PLATFORM>
            <LS454>
                <INSTRUMENT_MODEL>454 GS Junior</INSTRUMENT_MODEL>
            </LS454>
        </PLATFORM>
        <PROCESSING>
            <PIPELINE>
                <PIPE_SECTION>
                    <STEP_INDEX>1</STEP_INDEX>
                    <PREV_STEP_INDEX>NIL</PREV_STEP_INDEX>
                    <PROGRAM></PROGRAM>
                    <VERSION></VERSION>
                </PIPE_SECTION>
            </PIPELINE>
        </PROCESSING>
    </EXPERIMENT>
</EXPERIMENT_SET>
