Michelle Reniere

https://eutils.ncbi.nlm.nih.gov/entrez/eutils/esummary.fcgi?db=pubmed&query_key=1&WebEnv=MCID_63914e72c576343e5733637c&retmode=json

Resource id #314 -- array(2) { ["header"]=> array(2) { ["type"]=> string(8) "esummary" ["version"]=> string(3) "0.3" } ["result"]=> array(25) { ["uids"]=> array(24) { [0]=> string(8) "36102657" [1]=> string(8) "35650286" [2]=> string(8) "34398937" [3]=> string(8) "34287055" [4]=> string(8) "32255216" [5]=> string(8) "32253340" [6]=> string(8) "30412828" [7]=> string(8) "29891640" [8]=> string(8) "28193635" [9]=> string(8) "28138025" [10]=> string(8) "27414028" [11]=> string(8) "25743475" [12]=> string(8) "25567281" [13]=> string(8) "24867981" [14]=> string(8) "24302255" [15]=> string(8) "23995637" [16]=> string(8) "23900169" [17]=> string(8) "21728357" [18]=> string(8) "21347352" [19]=> string(8) "20180905" [20]=> string(8) "18713745" [21]=> string(8) "18643935" [22]=> string(8) "18097052" [23]=> string(8) "17387580" } [36102657]=> array(43) { ["uid"]=> string(8) "36102657" ["pubdate"]=> string(11) "2022 Oct 20" ["epubdate"]=> string(11) "2022 Sep 14" ["source"]=> string(12) "Infect Immun" ["authors"]=> array(4) { [0]=> array(3) { ["name"]=> string(11) "Cesinger MR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(11) "Daramola OI" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(14) "Kwiatkowski LM" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Reniere ML" ["title"]=> string(102) "The Transcriptional Regulator SpxA1 Influences the Morphology and Virulence of Listeria monocytogenes." ["sorttitle"]=> string(97) "transcriptional regulator spxa1 influences the morphology and virulence of listeria monocytogenes" ["volume"]=> string(2) "90" ["issue"]=> string(2) "10" ["pages"]=> string(8) "e0021122" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "0246127" ["issn"]=> string(9) "0019-9567" ["essn"]=> string(9) "1098-5522" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(4) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "36102657" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC9584327" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC9584327;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(20) "10.1128/iai.00211-22" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2022/09/15 06:00" } [1]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2022/10/25 06:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2022/09/14 09:03" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(52) ["fulljournalname"]=> string(22) "Infection and immunity" ["elocationid"]=> string(25) "doi: 10.1128/iai.00211-22" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2022/10/20 00:00" ["sortfirstauthor"]=> string(11) "Cesinger MR" ["vernaculartitle"]=> string(0) "" } [35650286]=> array(43) { ["uid"]=> string(8) "35650286" ["pubdate"]=> string(8) "2022 Jun" ["epubdate"]=> string(10) "2022 Jun 1" ["source"]=> string(13) "Nat Microbiol" ["authors"]=> array(21) { [0]=> array(3) { ["name"]=> string(12) "Gallagher LA" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(11) "Velazquez E" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(11) "Peterson SB" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(10) "Charity JC" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(8) "Radey MC" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [5]=> array(3) { ["name"]=> string(11) "Gebhardt MJ" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [6]=> array(3) { ["name"]=> string(5) "Hsu F" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [7]=> array(3) { ["name"]=> string(8) "Shull LM" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [8]=> array(3) { ["name"]=> string(9) "Cutler KJ" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [9]=> array(3) { ["name"]=> string(10) "Macareno K" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [10]=> array(3) { ["name"]=> string(12) "de Moraes MH" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [11]=> array(3) { ["name"]=> string(10) "Penewit KM" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [12]=> array(3) { ["name"]=> string(5) "Kim J" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [13]=> array(3) { ["name"]=> string(10) "Andrade PA" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [14]=> array(3) { ["name"]=> string(13) "LaFramboise T" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [15]=> array(3) { ["name"]=> string(12) "Salipante SJ" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [16]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [17]=> array(3) { ["name"]=> string(12) "de Lorenzo V" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [18]=> array(3) { ["name"]=> string(10) "Wiggins PA" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [19]=> array(3) { ["name"]=> string(7) "Dove SL" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [20]=> array(3) { ["name"]=> string(10) "Mougous JD" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Mougous JD" ["title"]=> string(117) "Genome-wide protein-DNA interaction site mapping in bacteria using a double-stranded DNA-specific cytosine deaminase." ["sorttitle"]=> string(116) "genome wide protein dna interaction site mapping in bacteria using a double stranded dna specific cytosine deaminase" ["volume"]=> string(1) "7" ["issue"]=> string(1) "6" ["pages"]=> string(7) "844-855" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(9) "101674869" ["issn"]=> string(0) "" ["essn"]=> string(9) "2058-5276" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "35650286" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC9159945" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC9159945;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(26) "10.1038/s41564-022-01133-9" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(26) "10.1038/s41564-022-01133-9" } } ["history"]=> array(5) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2021/08/02 00:00" } [1]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2022/04/25 00:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2022/06/01 23:21" } [3]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2022/06/02 06:00" } [4]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2022/06/07 06:00" } } ["references"]=> array(1) { [0]=> array(4) { ["refsource"]=> string(31) "Nat Methods. 2022 Jul;19(7):782" ["reftype"]=> string(10) "Comment in" ["pmid"]=> int(35804241) ["note"]=> string(0) "" } } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(66) ["fulljournalname"]=> string(19) "Nature microbiology" ["elocationid"]=> string(31) "doi: 10.1038/s41564-022-01133-9" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2022/06/01 00:00" ["sortfirstauthor"]=> string(12) "Gallagher LA" ["vernaculartitle"]=> string(0) "" } [34398937]=> array(43) { ["uid"]=> string(8) "34398937" ["pubdate"]=> string(8) "2021 Aug" ["epubdate"]=> string(11) "2021 Aug 16" ["source"]=> string(11) "PLoS Pathog" ["authors"]=> array(4) { [0]=> array(3) { ["name"]=> string(9) "Halsey CR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(9) "Glover RC" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(11) "Thomason MK" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Reniere ML" ["title"]=> string(141) "The redox-responsive transcriptional regulator Rex represses fermentative metabolism and is required for Listeria monocytogenes pathogenesis." ["sorttitle"]=> string(136) "redox responsive transcriptional regulator rex represses fermentative metabolism and is required for listeria monocytogenes pathogenesis" ["volume"]=> string(2) "17" ["issue"]=> string(1) "8" ["pages"]=> string(8) "e1009379" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(9) "101238921" ["issn"]=> string(9) "1553-7366" ["essn"]=> string(9) "1553-7374" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "258" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "34398937" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC8389512" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC8389512;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(28) "10.1371/journal.ppat.1009379" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(21) "PPATHOGENS-D-21-00305" } } ["history"]=> array(6) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2021/02/08 00:00" } [1]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2021/07/27 00:00" } [2]=> array(2) { ["pubstatus"]=> string(7) "revised" ["date"]=> string(16) "2021/08/26 00:00" } [3]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2021/08/17 06:00" } [4]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2021/12/01 06:00" } [5]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2021/08/16 17:21" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(64) ["fulljournalname"]=> string(14) "PLoS pathogens" ["elocationid"]=> string(33) "doi: 10.1371/journal.ppat.1009379" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2021/08/16 00:00" ["sortfirstauthor"]=> string(9) "Halsey CR" ["vernaculartitle"]=> string(0) "" } [34287055]=> array(43) { ["uid"]=> string(8) "34287055" ["pubdate"]=> string(10) "2021 Sep 3" ["epubdate"]=> string(11) "2021 Jul 21" ["source"]=> string(16) "Microbiol Spectr" ["authors"]=> array(5) { [0]=> array(3) { ["name"]=> string(11) "Cesinger MR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(11) "Schwardt NH" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(9) "Halsey CR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(11) "Thomason MK" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Reniere ML" ["title"]=> string(86) "Investigating the Roles of Listeria monocytogenes Peroxidases in Growth and Virulence." ["sorttitle"]=> string(85) "investigating the roles of listeria monocytogenes peroxidases in growth and virulence" ["volume"]=> string(1) "9" ["issue"]=> string(1) "1" ["pages"]=> string(8) "e0044021" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(9) "101634614" ["issn"]=> string(0) "" ["essn"]=> string(9) "2165-0497" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(4) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "34287055" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC8552690" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC8552690;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(25) "10.1128/Spectrum.00440-21" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2021/07/22 06:00" } [1]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2022/01/04 06:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2021/07/21 12:35" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(57) ["fulljournalname"]=> string(21) "Microbiology spectrum" ["elocationid"]=> string(30) "doi: 10.1128/Spectrum.00440-21" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2021/09/03 00:00" ["sortfirstauthor"]=> string(11) "Cesinger MR" ["vernaculartitle"]=> string(0) "" } [32255216]=> array(43) { ["uid"]=> string(8) "32255216" ["pubdate"]=> string(8) "2020 Aug" ["epubdate"]=> string(11) "2020 Apr 22" ["source"]=> string(13) "Mol Microbiol" ["authors"]=> array(5) { [0]=> array(3) { ["name"]=> string(11) "Cesinger MR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(11) "Thomason MK" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(9) "Edrozo MB" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(9) "Halsey CR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Reniere ML" ["title"]=> string(145) "Listeria monocytogenes SpxA1 is a global regulator required to activate genes encoding catalase and heme biosynthesis enzymes for aerobic growth." ["sorttitle"]=> string(144) "listeria monocytogenes spxa1 is a global regulator required to activate genes encoding catalase and heme biosynthesis enzymes for aerobic growth" ["volume"]=> string(3) "114" ["issue"]=> string(1) "2" ["pages"]=> string(7) "230-243" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "8712028" ["issn"]=> string(9) "0950-382X" ["essn"]=> string(9) "1365-2958" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "32255216" } [1]=> array(3) { ["idtype"]=> string(3) "mid" ["idtypen"]=> int(8) ["value"]=> string(12) "NIHMS1589541" } [2]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC7496741" } [3]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(47) "pmc-id: PMC7496741;manuscript-id: NIHMS1589541;" } [4]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(17) "10.1111/mmi.14508" } } ["history"]=> array(6) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2019/10/18 00:00" } [1]=> array(2) { ["pubstatus"]=> string(7) "revised" ["date"]=> string(16) "2020/03/23 00:00" } [2]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2020/03/25 00:00" } [3]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2020/04/08 06:00" } [4]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2021/07/15 06:00" } [5]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2020/04/08 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(53) ["fulljournalname"]=> string(22) "Molecular microbiology" ["elocationid"]=> string(22) "doi: 10.1111/mmi.14508" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2020/08/01 00:00" ["sortfirstauthor"]=> string(11) "Cesinger MR" ["vernaculartitle"]=> string(0) "" } [32253340]=> array(43) { ["uid"]=> string(8) "32253340" ["pubdate"]=> string(11) "2020 May 27" ["epubdate"]=> string(11) "2020 May 27" ["source"]=> string(11) "J Bacteriol" ["authors"]=> array(2) { [0]=> array(3) { ["name"]=> string(10) "Ruhland BR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Reniere ML" ["title"]=> string(160) "YjbH Requires Its Thioredoxin Active Motif for the Nitrosative Stress Response, Cell-to-Cell Spread, and Protein-Protein Interactions in Listeria monocytogenes." ["sorttitle"]=> string(157) "yjbh requires its thioredoxin active motif for the nitrosative stress response cell to cell spread and protein protein interactions in listeria monocytogenes" ["volume"]=> string(3) "202" ["issue"]=> string(2) "12" ["pages"]=> string(0) "" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(8) "2985120R" ["issn"]=> string(9) "0021-9193" ["essn"]=> string(9) "1098-5530" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "257" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "32253340" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC7253607" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC7253607;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(19) "10.1128/JB.00099-20" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(11) "JB.00099-20" } } ["history"]=> array(5) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2020/02/21 00:00" } [1]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2020/03/28 00:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2020/04/08 06:00" } [3]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2021/02/17 06:00" } [4]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2020/04/08 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(47) ["fulljournalname"]=> string(23) "Journal of bacteriology" ["elocationid"]=> string(24) "doi: 10.1128/JB.00099-20" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2020/05/27 00:00" ["sortfirstauthor"]=> string(10) "Ruhland BR" ["vernaculartitle"]=> string(0) "" } [30412828]=> array(43) { ["uid"]=> string(8) "30412828" ["pubdate"]=> string(8) "2019 Feb" ["epubdate"]=> string(10) "2018 Nov 6" ["source"]=> string(19) "Curr Opin Microbiol" ["authors"]=> array(2) { [0]=> array(3) { ["name"]=> string(10) "Ruhland BR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Reniere ML" ["title"]=> string(80) "Sense and sensor ability: redox-responsive regulators in Listeria monocytogenes." ["sorttitle"]=> string(78) "sense and sensor ability redox responsive regulators in listeria monocytogenes" ["volume"]=> string(2) "47" ["issue"]=> string(0) "" ["pages"]=> string(5) "20-25" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "9815056" ["issn"]=> string(9) "1369-5274" ["essn"]=> string(9) "1879-0364" ["pubtype"]=> array(2) { [0]=> string(15) "Journal Article" [1]=> string(6) "Review" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(6) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "30412828" } [1]=> array(3) { ["idtype"]=> string(3) "mid" ["idtypen"]=> int(8) ["value"]=> string(12) "NIHMS1510791" } [2]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC6502700" } [3]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(47) "pmc-id: PMC6502700;manuscript-id: NIHMS1510791;" } [4]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(25) "10.1016/j.mib.2018.10.006" } [5]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(21) "S1369-5274(18)30064-X" } } ["history"]=> array(6) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2018/08/29 00:00" } [1]=> array(2) { ["pubstatus"]=> string(7) "revised" ["date"]=> string(16) "2018/10/18 00:00" } [2]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2018/10/19 00:00" } [3]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2018/11/10 06:00" } [4]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2020/02/06 06:00" } [5]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2018/11/10 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(45) ["fulljournalname"]=> string(31) "Current opinion in microbiology" ["elocationid"]=> string(30) "doi: 10.1016/j.mib.2018.10.006" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2019/02/01 00:00" ["sortfirstauthor"]=> string(10) "Ruhland BR" ["vernaculartitle"]=> string(0) "" } [29891640]=> array(43) { ["uid"]=> string(8) "29891640" ["pubdate"]=> string(10) "2018 Sep 1" ["epubdate"]=> string(11) "2018 Aug 10" ["source"]=> string(11) "J Bacteriol" ["authors"]=> array(1) { [0]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Reniere ML" ["title"]=> string(68) "Reduce, Induce, Thrive: Bacterial Redox Sensing during Pathogenesis." ["sorttitle"]=> string(64) "reduce induce thrive bacterial redox sensing during pathogenesis" ["volume"]=> string(3) "200" ["issue"]=> string(2) "17" ["pages"]=> string(0) "" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(8) "2985120R" ["issn"]=> string(9) "0021-9193" ["essn"]=> string(9) "1098-5530" ["pubtype"]=> array(2) { [0]=> string(15) "Journal Article" [1]=> string(6) "Review" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "257" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "29891640" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC6088161" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC6088161;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(19) "10.1128/JB.00128-18" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(11) "JB.00128-18" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2018/06/13 06:00" } [1]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2019/09/19 06:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2018/06/13 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(110) ["fulljournalname"]=> string(23) "Journal of bacteriology" ["elocationid"]=> string(24) "doi: 10.1128/JB.00128-18" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2018/08/10 00:00" ["sortfirstauthor"]=> string(10) "Reniere ML" ["vernaculartitle"]=> string(0) "" } [28193635]=> array(43) { ["uid"]=> string(8) "28193635" ["pubdate"]=> string(8) "2017 May" ["epubdate"]=> string(11) "2017 Apr 21" ["source"]=> string(12) "Infect Immun" ["authors"]=> array(4) { [0]=> array(3) { ["name"]=> string(11) "Whiteley AT" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(10) "Ruhland BR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(9) "Edrozo MB" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Reniere ML" ["title"]=> string(114) "A Redox-Responsive Transcription Factor Is Critical for Pathogenesis and Aerobic Growth of Listeria monocytogenes." ["sorttitle"]=> string(111) "redox responsive transcription factor is critical for pathogenesis and aerobic growth of listeria monocytogenes" ["volume"]=> string(2) "85" ["issue"]=> string(1) "5" ["pages"]=> string(0) "" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "0246127" ["issn"]=> string(9) "0019-9567" ["essn"]=> string(9) "1098-5522" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "257" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "28193635" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC5400837" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC5400837;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(20) "10.1128/IAI.00978-16" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(12) "IAI.00978-16" } } ["history"]=> array(5) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2016/11/22 00:00" } [1]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2017/02/07 00:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2017/02/15 06:00" } [3]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2017/06/16 06:00" } [4]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2017/02/15 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(55) ["fulljournalname"]=> string(22) "Infection and immunity" ["elocationid"]=> string(25) "doi: 10.1128/IAI.00978-16" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2017/04/21 00:00" ["sortfirstauthor"]=> string(11) "Whiteley AT" ["vernaculartitle"]=> string(0) "" } [28138025]=> array(43) { ["uid"]=> string(8) "28138025" ["pubdate"]=> string(8) "2017 Apr" ["epubdate"]=> string(11) "2017 Mar 23" ["source"]=> string(12) "Infect Immun" ["authors"]=> array(5) { [0]=> array(3) { ["name"]=> string(10) "Portman JL" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(7) "Huang Q" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(11) "Iavarone AT" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(10) "Portnoy DA" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Portnoy DA" ["title"]=> string(129) "Activity of the Pore-Forming Virulence Factor Listeriolysin O Is Reversibly Inhibited by Naturally Occurring S-Glutathionylation." ["sorttitle"]=> string(128) "activity of the pore forming virulence factor listeriolysin o is reversibly inhibited by naturally occurring s glutathionylation" ["volume"]=> string(2) "85" ["issue"]=> string(1) "4" ["pages"]=> string(0) "" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "0246127" ["issn"]=> string(9) "0019-9567" ["essn"]=> string(9) "1098-5522" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "257" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "28138025" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC5364301" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC5364301;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(20) "10.1128/IAI.00959-16" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(12) "IAI.00959-16" } } ["history"]=> array(5) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2016/11/16 00:00" } [1]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2017/01/25 00:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2017/02/01 06:00" } [3]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2017/05/19 06:00" } [4]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2017/02/01 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(32) ["fulljournalname"]=> string(22) "Infection and immunity" ["elocationid"]=> string(25) "doi: 10.1128/IAI.00959-16" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2017/03/23 00:00" ["sortfirstauthor"]=> string(10) "Portman JL" ["vernaculartitle"]=> string(0) "" } [27414028]=> array(43) { ["uid"]=> string(8) "27414028" ["pubdate"]=> string(8) "2016 Jul" ["epubdate"]=> string(11) "2016 Jul 14" ["source"]=> string(11) "PLoS Pathog" ["authors"]=> array(3) { [0]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(11) "Whiteley AT" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(10) "Portnoy DA" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Portnoy DA" ["title"]=> string(150) "An In Vivo Selection Identifies Listeria monocytogenes Genes Required to Sense the Intracellular Environment and Activate Virulence Factor Expression." ["sorttitle"]=> string(146) "in vivo selection identifies listeria monocytogenes genes required to sense the intracellular environment and activate virulence factor expression" ["volume"]=> string(2) "12" ["issue"]=> string(1) "7" ["pages"]=> string(8) "e1005741" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(9) "101238921" ["issn"]=> string(9) "1553-7366" ["essn"]=> string(9) "1553-7374" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "258" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "27414028" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC4945081" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC4945081;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(28) "10.1371/journal.ppat.1005741" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(21) "PPATHOGENS-D-16-00296" } } ["history"]=> array(5) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2016/02/08 00:00" } [1]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2016/06/14 00:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2016/07/15 06:00" } [3]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2016/07/16 06:00" } [4]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2017/06/03 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(84) ["fulljournalname"]=> string(14) "PLoS pathogens" ["elocationid"]=> string(33) "doi: 10.1371/journal.ppat.1005741" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2016/07/14 00:00" ["sortfirstauthor"]=> string(10) "Reniere ML" ["vernaculartitle"]=> string(0) "" } [25743475]=> array(43) { ["uid"]=> string(8) "25743475" ["pubdate"]=> string(8) "2015 Apr" ["epubdate"]=> string(11) "2015 Jan 20" ["source"]=> string(10) "Pathog Dis" ["authors"]=> array(6) { [0]=> array(3) { ["name"]=> string(10) "Farrand AJ" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(11) "Friedman DB" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(8) "Ingmer H" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(7) "Frees D" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [5]=> array(3) { ["name"]=> string(8) "Skaar EP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(8) "Skaar EP" ["title"]=> string(86) "Proteomic analyses of iron-responsive, Clp-dependent changes in Staphylococcus aureus." ["sorttitle"]=> string(84) "proteomic analyses of iron responsive clp dependent changes in staphylococcus aureus" ["volume"]=> string(2) "73" ["issue"]=> string(1) "3" ["pages"]=> string(0) "" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(9) "101595366" ["issn"]=> string(9) "2049-632X" ["essn"]=> string(9) "2049-632X" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "25743475" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC4542840" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC4542840;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(21) "10.1093/femspd/ftv004" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(6) "ftv004" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2015/03/07 06:00" } [1]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2015/03/07 06:00" } [2]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2015/11/13 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(24) ["fulljournalname"]=> string(21) "Pathogens and disease" ["elocationid"]=> string(39) "pii: ftv004. doi: 10.1093/femspd/ftv004" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2015/04/01 00:00" ["sortfirstauthor"]=> string(10) "Farrand AJ" ["vernaculartitle"]=> string(0) "" } [25567281]=> array(43) { ["uid"]=> string(8) "25567281" ["pubdate"]=> string(10) "2015 Jan 8" ["epubdate"]=> string(0) "" ["source"]=> string(6) "Nature" ["authors"]=> array(7) { [0]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(11) "Whiteley AT" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(11) "Hamilton KL" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(7) "John SM" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(7) "Lauer P" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [5]=> array(3) { ["name"]=> string(10) "Brennan RG" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [6]=> array(3) { ["name"]=> string(10) "Portnoy DA" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(10) "Portnoy DA" ["title"]=> string(77) "Glutathione activates virulence gene expression of an intracellular pathogen." ["sorttitle"]=> string(76) "glutathione activates virulence gene expression of an intracellular pathogen" ["volume"]=> string(3) "517" ["issue"]=> string(4) "7533" ["pages"]=> string(5) "170-3" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "0410462" ["issn"]=> string(9) "0028-0836" ["essn"]=> string(9) "1476-4687" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(1) "4" ["articleids"]=> array(6) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "25567281" } [1]=> array(3) { ["idtype"]=> string(3) "mid" ["idtypen"]=> int(8) ["value"]=> string(11) "NIHMS654523" } [2]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC4305340" } [3]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(46) "pmc-id: PMC4305340;manuscript-id: NIHMS654523;" } [4]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(19) "10.1038/nature14029" } [5]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(11) "nature14029" } } ["history"]=> array(5) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2014/06/25 00:00" } [1]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2014/11/03 00:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2015/01/09 06:00" } [3]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2015/01/09 06:00" } [4]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2015/02/20 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(37) ["fulljournalname"]=> string(6) "Nature" ["elocationid"]=> string(24) "doi: 10.1038/nature14029" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2015/01/08 00:00" ["sortfirstauthor"]=> string(10) "Reniere ML" ["vernaculartitle"]=> string(0) "" } [24867981]=> array(43) { ["uid"]=> string(8) "24867981" ["pubdate"]=> string(8) "2014 Aug" ["epubdate"]=> string(11) "2014 May 27" ["source"]=> string(27) "Antimicrob Agents Chemother" ["authors"]=> array(10) { [0]=> array(3) { ["name"]=> string(12) "Pensinger DA" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(9) "Aliota MT" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(12) "Schaenzer AJ" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(9) "Boldon KM" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(9) "Ansari IU" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [5]=> array(3) { ["name"]=> string(10) "Vincent WJ" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [6]=> array(3) { ["name"]=> string(8) "Knight B" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [7]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [8]=> array(3) { ["name"]=> string(9) "Striker R" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [9]=> array(3) { ["name"]=> string(8) "Sauer JD" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(8) "Sauer JD" ["title"]=> string(126) "Selective pharmacologic inhibition of a PASTA kinase increases Listeria monocytogenes susceptibility to β-lactam antibiotics." ["sorttitle"]=> string(122) "selective pharmacologic inhibition of a pasta kinase increases listeria monocytogenes susceptibility to lactam antibiotics" ["volume"]=> string(2) "58" ["issue"]=> string(1) "8" ["pages"]=> string(7) "4486-94" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "0315061" ["issn"]=> string(9) "0066-4804" ["essn"]=> string(9) "1098-6596" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "24867981" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC4135996" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC4135996;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(20) "10.1128/AAC.02396-14" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(12) "AAC.02396-14" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2014/05/29 06:00" } [1]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2014/05/29 06:00" } [2]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2015/09/05 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(42) ["fulljournalname"]=> string(37) "Antimicrobial agents and chemotherapy" ["elocationid"]=> string(25) "doi: 10.1128/AAC.02396-14" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2014/08/01 00:00" ["sortfirstauthor"]=> string(12) "Pensinger DA" ["vernaculartitle"]=> string(0) "" } [24302255]=> array(43) { ["uid"]=> string(8) "24302255" ["pubdate"]=> string(10) "2013 Dec 3" ["epubdate"]=> string(10) "2013 Dec 3" ["source"]=> string(4) "mBio" ["authors"]=> array(2) { [0]=> array(3) { ["name"]=> string(7) "Götz F" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(7) "Mayer S" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(7) "Mayer S" ["title"]=> string(116) "Both terminal oxidases contribute to fitness and virulence during organ-specific Staphylococcus aureus colonization." ["sorttitle"]=> string(115) "both terminal oxidases contribute to fitness and virulence during organ specific staphylococcus aureus colonization" ["volume"]=> string(1) "4" ["issue"]=> string(1) "6" ["pages"]=> string(9) "e00976-13" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(9) "101519231" ["issn"]=> string(0) "" ["essn"]=> string(9) "2150-7511" ["pubtype"]=> array(2) { [0]=> string(15) "Journal Article" [1]=> string(7) "Comment" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(1) "3" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "24302255" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC3870253" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC3870253;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(21) "10.1128/mBio.00976-13" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(13) "mBio.00976-13" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2013/12/05 06:00" } [1]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2013/12/05 06:00" } [2]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2014/07/01 06:00" } } ["references"]=> array(1) { [0]=> array(4) { ["refsource"]=> string(59) "MBio. 2013;4(4). pii: e00241-13. doi: 10.1128/mBio.00241-13" ["reftype"]=> string(10) "Comment on" ["pmid"]=> int(23900169) ["note"]=> string(0) "" } } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(20) ["fulljournalname"]=> string(4) "mBio" ["elocationid"]=> string(26) "doi: 10.1128/mBio.00976-13" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2013/12/03 00:00" ["sortfirstauthor"]=> string(7) "Götz F" ["vernaculartitle"]=> string(0) "" } [23995637]=> array(43) { ["uid"]=> string(8) "23995637" ["pubdate"]=> string(8) "2013 Nov" ["epubdate"]=> string(11) "2013 Aug 30" ["source"]=> string(11) "J Bacteriol" ["authors"]=> array(5) { [0]=> array(3) { ["name"]=> string(10) "Farrand AJ" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(8) "Ingmer H" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(7) "Frees D" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(8) "Skaar EP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(8) "Skaar EP" ["title"]=> string(90) "Regulation of host hemoglobin binding by the Staphylococcus aureus Clp proteolytic system." ["sorttitle"]=> string(89) "regulation of host hemoglobin binding by the staphylococcus aureus clp proteolytic system" ["volume"]=> string(3) "195" ["issue"]=> string(2) "22" ["pages"]=> string(7) "5041-50" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(8) "2985120R" ["issn"]=> string(9) "0021-9193" ["essn"]=> string(9) "1098-5530" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "23995637" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC3811588" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC3811588;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(19) "10.1128/JB.00505-13" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(11) "JB.00505-13" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2013/09/03 06:00" } [1]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2013/09/03 06:00" } [2]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2013/12/24 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(75) ["fulljournalname"]=> string(23) "Journal of bacteriology" ["elocationid"]=> string(24) "doi: 10.1128/JB.00505-13" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2013/11/01 00:00" ["sortfirstauthor"]=> string(10) "Farrand AJ" ["vernaculartitle"]=> string(0) "" } [23900169]=> array(43) { ["uid"]=> string(8) "23900169" ["pubdate"]=> string(11) "2013 Jul 30" ["epubdate"]=> string(11) "2013 Jul 30" ["source"]=> string(4) "mBio" ["authors"]=> array(7) { [0]=> array(3) { ["name"]=> string(9) "Hammer ND" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(9) "Cassat JE" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(7) "Zhang Y" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(9) "Hirsch AO" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [5]=> array(3) { ["name"]=> string(15) "Indriati Hood M" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [6]=> array(3) { ["name"]=> string(8) "Skaar EP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(8) "Skaar EP" ["title"]=> string(116) "Two heme-dependent terminal oxidases power Staphylococcus aureus organ-specific colonization of the vertebrate host." ["sorttitle"]=> string(115) "two heme dependent terminal oxidases power staphylococcus aureus organ specific colonization of the vertebrate host" ["volume"]=> string(1) "4" ["issue"]=> string(1) "4" ["pages"]=> string(0) "" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(9) "101519231" ["issn"]=> string(0) "" ["essn"]=> string(9) "2150-7511" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(1) "3" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "23900169" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC3735196" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC3735196;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(21) "10.1128/mBio.00241-13" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(13) "mBio.00241-13" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2013/08/01 06:00" } [1]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2013/08/01 06:00" } [2]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2014/01/23 06:00" } } ["references"]=> array(1) { [0]=> array(4) { ["refsource"]=> string(25) "MBio. 2013;4(6):e00976-13" ["reftype"]=> string(10) "Comment in" ["pmid"]=> int(24302255) ["note"]=> string(0) "" } } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(43) ["fulljournalname"]=> string(4) "mBio" ["elocationid"]=> string(26) "doi: 10.1128/mBio.00241-13" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2013/07/30 00:00" ["sortfirstauthor"]=> string(9) "Hammer ND" ["vernaculartitle"]=> string(0) "" } [21728357]=> array(43) { ["uid"]=> string(8) "21728357" ["pubdate"]=> string(10) "2011 Aug 9" ["epubdate"]=> string(11) "2011 Jul 11" ["source"]=> string(12) "Biochemistry" ["authors"]=> array(3) { [0]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(8) "Haley KP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(8) "Skaar EP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(8) "Skaar EP" ["title"]=> string(103) "The flexible loop of Staphylococcus aureus IsdG is required for its degradation in the absence of heme." ["sorttitle"]=> string(98) "flexible loop of staphylococcus aureus isdg is required for its degradation in the absence of heme" ["volume"]=> string(2) "50" ["issue"]=> string(2) "31" ["pages"]=> string(6) "6730-7" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "0370623" ["issn"]=> string(9) "0006-2960" ["essn"]=> string(9) "1520-4995" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "21728357" } [1]=> array(3) { ["idtype"]=> string(3) "mid" ["idtypen"]=> int(8) ["value"]=> string(11) "NIHMS312898" } [2]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC3149779" } [3]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(46) "pmc-id: PMC3149779;manuscript-id: NIHMS312898;" } [4]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(17) "10.1021/bi200999q" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2011/07/07 06:00" } [1]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2011/07/07 06:00" } [2]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2011/12/13 00:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(30) ["fulljournalname"]=> string(12) "Biochemistry" ["elocationid"]=> string(22) "doi: 10.1021/bi200999q" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2011/08/09 00:00" ["sortfirstauthor"]=> string(10) "Reniere ML" ["vernaculartitle"]=> string(0) "" } [21347352]=> array(43) { ["uid"]=> string(8) "21347352" ["pubdate"]=> string(11) "2011 Feb 10" ["epubdate"]=> string(11) "2011 Feb 10" ["source"]=> string(11) "PLoS Pathog" ["authors"]=> array(18) { [0]=> array(3) { ["name"]=> string(8) "Olson PD" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(17) "Kuechenmeister LJ" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(11) "Anderson KL" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(7) "Daily S" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(10) "Beenken KE" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [5]=> array(3) { ["name"]=> string(7) "Roux CM" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [6]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [7]=> array(3) { ["name"]=> string(8) "Lewis TL" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [8]=> array(3) { ["name"]=> string(8) "Weiss WJ" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [9]=> array(3) { ["name"]=> string(7) "Pulse M" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [10]=> array(3) { ["name"]=> string(8) "Nguyen P" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [11]=> array(3) { ["name"]=> string(10) "Simecka JW" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [12]=> array(3) { ["name"]=> string(11) "Morrison JM" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [13]=> array(3) { ["name"]=> string(8) "Sayood K" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [14]=> array(3) { ["name"]=> string(8) "Asojo OA" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [15]=> array(3) { ["name"]=> string(11) "Smeltzer MS" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [16]=> array(3) { ["name"]=> string(8) "Skaar EP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [17]=> array(3) { ["name"]=> string(9) "Dunman PM" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(9) "Dunman PM" ["title"]=> string(145) "Small molecule inhibitors of Staphylococcus aureus RnpA alter cellular mRNA turnover, exhibit antimicrobial activity, and attenuate pathogenesis." ["sorttitle"]=> string(142) "small molecule inhibitors of staphylococcus aureus rnpa alter cellular mrna turnover exhibit antimicrobial activity and attenuate pathogenesis" ["volume"]=> string(1) "7" ["issue"]=> string(1) "2" ["pages"]=> string(8) "e1001287" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(9) "101238921" ["issn"]=> string(9) "1553-7366" ["essn"]=> string(9) "1553-7374" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(1) "3" ["articleids"]=> array(4) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "21347352" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC3037362" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC3037362;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(28) "10.1371/journal.ppat.1001287" } } ["history"]=> array(5) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2010/03/05 00:00" } [1]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2011/01/10 00:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2011/02/25 06:00" } [3]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2011/02/25 06:00" } [4]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2011/06/11 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(43) ["fulljournalname"]=> string(14) "PLoS pathogens" ["elocationid"]=> string(33) "doi: 10.1371/journal.ppat.1001287" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2011/02/10 00:00" ["sortfirstauthor"]=> string(8) "Olson PD" ["vernaculartitle"]=> string(0) "" } [20180905]=> array(43) { ["uid"]=> string(8) "20180905" ["pubdate"]=> string(8) "2010 Mar" ["epubdate"]=> string(11) "2010 Feb 17" ["source"]=> string(13) "Mol Microbiol" ["authors"]=> array(9) { [0]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(9) "Ukpabi GN" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(8) "Harry SR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(7) "Stec DF" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(7) "Krull R" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [5]=> array(3) { ["name"]=> string(9) "Wright DW" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [6]=> array(3) { ["name"]=> string(11) "Bachmann BO" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [7]=> array(3) { ["name"]=> string(9) "Murphy ME" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [8]=> array(3) { ["name"]=> string(8) "Skaar EP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(8) "Skaar EP" ["title"]=> string(72) "The IsdG-family of haem oxygenases degrades haem to a novel chromophore." ["sorttitle"]=> string(67) "isdg family of haem oxygenases degrades haem to a novel chromophore" ["volume"]=> string(2) "75" ["issue"]=> string(1) "6" ["pages"]=> string(7) "1529-38" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "8712028" ["issn"]=> string(9) "0950-382X" ["essn"]=> string(9) "1365-2958" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(6) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "20180905" } [1]=> array(3) { ["idtype"]=> string(3) "mid" ["idtypen"]=> int(8) ["value"]=> string(11) "NIHMS520256" } [2]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC3800195" } [3]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(46) "pmc-id: PMC3800195;manuscript-id: NIHMS520256;" } [4]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(32) "10.1111/j.1365-2958.2010.07076.x" } [5]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(7) "MMI7076" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2010/02/26 06:00" } [1]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2010/02/26 06:00" } [2]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2010/10/13 06:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(43) ["fulljournalname"]=> string(22) "Molecular microbiology" ["elocationid"]=> string(37) "doi: 10.1111/j.1365-2958.2010.07076.x" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2010/03/01 00:00" ["sortfirstauthor"]=> string(10) "Reniere ML" ["vernaculartitle"]=> string(0) "" } [18713745]=> array(43) { ["uid"]=> string(8) "18713745" ["pubdate"]=> string(10) "2008 Nov 7" ["epubdate"]=> string(11) "2008 Aug 19" ["source"]=> string(11) "J Biol Chem" ["authors"]=> array(4) { [0]=> array(3) { ["name"]=> string(6) "Lee WC" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(8) "Skaar EP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(9) "Murphy ME" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(9) "Murphy ME" ["title"]=> string(106) "Ruffling of metalloporphyrins bound to IsdG and IsdI, two heme-degrading enzymes in Staphylococcus aureus." ["sorttitle"]=> string(104) "ruffling of metalloporphyrins bound to isdg and isdi two heme degrading enzymes in staphylococcus aureus" ["volume"]=> string(3) "283" ["issue"]=> string(2) "45" ["pages"]=> string(8) "30957-63" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(8) "2985121R" ["issn"]=> string(9) "0021-9258" ["essn"]=> string(9) "1083-351X" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(5) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "18713745" } [1]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC2576546" } [2]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(19) "pmc-id: PMC2576546;" } [3]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(22) "10.1074/jbc.M709486200" } [4]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(21) "S0021-9258(20)64670-1" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2008/08/21 09:00" } [1]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2008/12/24 09:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2008/08/21 09:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(49) ["fulljournalname"]=> string(35) "The Journal of biological chemistry" ["elocationid"]=> string(27) "doi: 10.1074/jbc.M709486200" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2008/11/07 00:00" ["sortfirstauthor"]=> string(6) "Lee WC" ["vernaculartitle"]=> string(0) "" } [18643935]=> array(43) { ["uid"]=> string(8) "18643935" ["pubdate"]=> string(8) "2008 Sep" ["epubdate"]=> string(11) "2008 Jul 10" ["source"]=> string(13) "Mol Microbiol" ["authors"]=> array(2) { [0]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(8) "Skaar EP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(8) "Skaar EP" ["title"]=> string(84) "Staphylococcus aureus haem oxygenases are differentially regulated by iron and haem." ["sorttitle"]=> string(83) "staphylococcus aureus haem oxygenases are differentially regulated by iron and haem" ["volume"]=> string(2) "69" ["issue"]=> string(1) "5" ["pages"]=> string(7) "1304-15" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "8712028" ["issn"]=> string(9) "0950-382X" ["essn"]=> string(9) "1365-2958" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(6) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "18643935" } [1]=> array(3) { ["idtype"]=> string(3) "mid" ["idtypen"]=> int(8) ["value"]=> string(10) "NIHMS65549" } [2]=> array(3) { ["idtype"]=> string(3) "pmc" ["idtypen"]=> int(8) ["value"]=> string(10) "PMC2597461" } [3]=> array(3) { ["idtype"]=> string(5) "pmcid" ["idtypen"]=> int(5) ["value"]=> string(45) "pmc-id: PMC2597461;manuscript-id: NIHMS65549;" } [4]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(32) "10.1111/j.1365-2958.2008.06363.x" } [5]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(7) "MMI6363" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2008/07/23 09:00" } [1]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2008/09/24 09:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2008/07/23 09:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> int(32) ["fulljournalname"]=> string(22) "Molecular microbiology" ["elocationid"]=> string(37) "doi: 10.1111/j.1365-2958.2008.06363.x" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2008/09/01 00:00" ["sortfirstauthor"]=> string(10) "Reniere ML" ["vernaculartitle"]=> string(0) "" } [18097052]=> array(43) { ["uid"]=> string(8) "18097052" ["pubdate"]=> string(10) "2008 Jan 1" ["epubdate"]=> string(0) "" ["source"]=> string(9) "J Immunol" ["authors"]=> array(8) { [0]=> array(3) { ["name"]=> string(21) "Palazzolo-Ballance AM" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(12) "Braughton KR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [3]=> array(3) { ["name"]=> string(13) "Sturdevant DE" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [4]=> array(3) { ["name"]=> string(6) "Otto M" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [5]=> array(3) { ["name"]=> string(13) "Kreiswirth BN" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [6]=> array(3) { ["name"]=> string(8) "Skaar EP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [7]=> array(3) { ["name"]=> string(8) "DeLeo FR" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(8) "DeLeo FR" ["title"]=> string(128) "Neutrophil microbicides induce a pathogen survival response in community-associated methicillin-resistant Staphylococcus aureus." ["sorttitle"]=> string(127) "neutrophil microbicides induce a pathogen survival response in community associated methicillin resistant staphylococcus aureus" ["volume"]=> string(3) "180" ["issue"]=> string(1) "1" ["pages"]=> string(5) "500-9" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(8) "2985117R" ["issn"]=> string(9) "0022-1767" ["essn"]=> string(0) "" ["pubtype"]=> array(1) { [0]=> string(15) "Journal Article" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(1) "4" ["articleids"]=> array(3) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "18097052" } [1]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(26) "10.4049/jimmunol.180.1.500" } [2]=> array(3) { ["idtype"]=> string(3) "pii" ["idtypen"]=> int(4) ["value"]=> string(9) "180/1/500" } } ["history"]=> array(3) { [0]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2007/12/22 09:00" } [1]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2008/03/11 09:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2007/12/22 09:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> string(0) "" ["fulljournalname"]=> string(45) "Journal of immunology (Baltimore, Md. : 1950)" ["elocationid"]=> string(0) "" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2008/01/01 00:00" ["sortfirstauthor"]=> string(21) "Palazzolo-Ballance AM" ["vernaculartitle"]=> string(0) "" } [17387580]=> array(43) { ["uid"]=> string(8) "17387580" ["pubdate"]=> string(8) "2007 Jun" ["epubdate"]=> string(11) "2007 Mar 27" ["source"]=> string(9) "Biometals" ["authors"]=> array(3) { [0]=> array(3) { ["name"]=> string(10) "Reniere ML" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [1]=> array(3) { ["name"]=> string(9) "Torres VJ" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } [2]=> array(3) { ["name"]=> string(8) "Skaar EP" ["authtype"]=> string(6) "Author" ["clusterid"]=> string(0) "" } } ["lastauthor"]=> string(8) "Skaar EP" ["title"]=> string(67) "Intracellular metalloporphyrin metabolism in Staphylococcus aureus." ["sorttitle"]=> string(66) "intracellular metalloporphyrin metabolism in staphylococcus aureus" ["volume"]=> string(2) "20" ["issue"]=> string(3) "3-4" ["pages"]=> string(6) "333-45" ["lang"]=> array(1) { [0]=> string(3) "eng" } ["nlmuniqueid"]=> string(7) "9208478" ["issn"]=> string(9) "0966-0844" ["essn"]=> string(0) "" ["pubtype"]=> array(2) { [0]=> string(15) "Journal Article" [1]=> string(6) "Review" } ["recordstatus"]=> string(28) "PubMed - indexed for MEDLINE" ["pubstatus"]=> string(3) "256" ["articleids"]=> array(2) { [0]=> array(3) { ["idtype"]=> string(6) "pubmed" ["idtypen"]=> int(1) ["value"]=> string(8) "17387580" } [1]=> array(3) { ["idtype"]=> string(3) "doi" ["idtypen"]=> int(3) ["value"]=> string(25) "10.1007/s10534-006-9032-0" } } ["history"]=> array(5) { [0]=> array(2) { ["pubstatus"]=> string(8) "received" ["date"]=> string(16) "2006/06/30 00:00" } [1]=> array(2) { ["pubstatus"]=> string(8) "accepted" ["date"]=> string(16) "2006/07/20 00:00" } [2]=> array(2) { ["pubstatus"]=> string(6) "pubmed" ["date"]=> string(16) "2007/03/28 09:00" } [3]=> array(2) { ["pubstatus"]=> string(7) "medline" ["date"]=> string(16) "2007/08/29 09:00" } [4]=> array(2) { ["pubstatus"]=> string(6) "entrez" ["date"]=> string(16) "2007/03/28 09:00" } } ["references"]=> array(0) { } ["attributes"]=> array(1) { [0]=> string(12) "Has Abstract" } ["pmcrefcount"]=> string(0) "" ["fulljournalname"]=> string(101) "Biometals : an international journal on the role of metal ions in biology, biochemistry, and medicine" ["elocationid"]=> string(0) "" ["doctype"]=> string(8) "citation" ["srccontriblist"]=> array(0) { } ["booktitle"]=> string(0) "" ["medium"]=> string(0) "" ["edition"]=> string(0) "" ["publisherlocation"]=> string(0) "" ["publishername"]=> string(0) "" ["srcdate"]=> string(0) "" ["reportnumber"]=> string(0) "" ["availablefromurl"]=> string(0) "" ["locationlabel"]=> string(0) "" ["doccontriblist"]=> array(0) { } ["docdate"]=> string(0) "" ["bookname"]=> string(0) "" ["chapter"]=> string(0) "" ["sortpubdate"]=> string(16) "2007/06/01 00:00" ["sortfirstauthor"]=> string(10) "Reniere ML" ["vernaculartitle"]=> string(0) "" } } }

Show 19 more