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Kleptoplasty

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the extracted plastids, or kleptoplasts, continue to exhibit functional photosynthesis for a short period of roughly 7 days. As the two groups are not sister taxa, and the trait is not shared among groups more closely related, there is evidence that kleptoplasty evolved independently within the two
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Due to this unusual ability, the sacoglossans are sometimes referred to as "solar-powered sea slugs," though the actual benefit from photosynthesis on the survival of some of the species that have been analyzed seems to be marginal at best. In fact, some species may even die in the presence of the
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Changes in temperature have been shown to negatively affect kleptoplastic abilities in sacoglossans. Rates of photosynthetic efficiency as well as kleptoplast abundance have been shown to decrease in correlation to a decrease in temperature. The patterns and rate of these changes, however, varies
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by digestive cells, filling extensively branched digestive tubules, providing their host with the products of photosynthesis. It is not resolved, however, whether the stolen plastids actively secrete photosynthate or whether the slugs profit indirectly from slowly degrading kleptoplasts.
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microalgae, which it ingests to extract chloroplasts. The kleptoplasts are then progressively transformed into ones that resemble the permanent chloroplasts of the remaining Euglenophyceae. Cells of
1684:"How does temperature affect functional kleptoplasty? Comparing populations of the solar-powered sister-species Elysia timida Risso, 1818 and Elysa cornigera Nuttall, 1989 (Gastopoda: Sacoglossa)" 1094:
Johnson, Matthew D.; Oldach, David; Charles, F. Delwiche; Stoecker, Diane K. (Jan 2007). "Retention of transcriptionally active cryptophyte nuclei by the ciliate Myrionecta rubra".
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practise kleptoplasty. Several species of Sacoglossan sea slugs capture intact, functional chloroplasts from algal food sources, retaining them within specialized cells lining the
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can be stable for 2 months. In other dinoflagellates, kleptoplasty has been hypothesized to represent either a mechanism permitting functional flexibility, or perhaps an early
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make use of kleptoplasty. The group was previously classified as having algal endosymbionts, though it was already discovered that the endosymbionts did not contain nuclei.
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Kleptoplasty is considered the mode of nutrition of the euglenophycean common ancestor. It is hypothesized that kleptoplasty allowed for various events of
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Bernhard, Joan M.; Bowser, Samuel S. (1999). "Benthic foraminifera of dysoxic sediments: chloroplast sequestration and functional morphology".
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participates in additional endosymbiosis by transferring its plastids to its predators, the dinoflagellate planktons belonging to the genus
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Nishitani, G.; Nagai, S.; Baba, K.; Kiyokawa, S.; Kosaka, Y.; Miyamura, K.; Nishikawa, T.; Sakurada, K.; Shinada, A.; Kamiyama, T. (2010).
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Gast RJ, Moran DM, Dennett MR, Caron DA (January 2007). "Kleptoplasty in an Antarctic dinoflagellate: caught in evolutionary transition?".
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Van Steenkiste, Niels W. L.; Stephenson, India; Herranz, María; Husnik, Filip; Keeling, Patrick J.; Leander, Brian S. (2019).
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is a related process in which the nucleus of the prey cell is kept by the host as well. This was first described in 2007 in
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Host-Zooxanthella Interactions in Four Temperate Marine Symbioses; Assessment of Effect of Host Extract on Symbionts
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Minnhagen, Susanna; Carvalho, Wanderson F.; Salomon, Paulo S.; Janson, Sven (2008). "Chloroplast DNA content in
830: 746: 689: 977:"Survey for Functional Kleptoplasty Among West Atlantic Ascoglossa (=Sacoglossa) (Mollusca: Opisthobranchia)" 1531:
de Vries, Jan; Christa, Gregor; Gould, Sven B. (2014). "Plastid survival in the cytosol of animal cells".
1058: 751: 813: 30: 1627:"Comparison of sister species identifies factors underpinning plastid compatibility in green sea slugs" 1625:
de Vries, J.; Woehle, C.; Christa, G.; Wagele, H.; Tielens, A. G. M.; Jahns, P.; Gould, S. B. (2015).
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that eventually allowed the establishment of permanent chloroplasts in the remaining Euglenophyceae.
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species plastid identities as revealed by genetic analyses of isolates from Japanese coastal waters"
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The stability of transient plastids varies considerably across plastid-retaining species. In the
1368:"A new case of kleptoplasty in animals: Marine flatworms steal functional plastids from diatoms" 536: 524: 1715: 1664: 1646: 1607: 1556: 1460: 1407: 1324: 1306: 1247: 1213: 1194: 1121: 1076: 943: 893: 795:
carbon dioxide-fixing kleptoplasts as a result of elevated levels of reactive oxygen species.
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and benefiting the host. The term was coined in 1990 to describe chloroplast symbiosis.
1776: 1710: 1683: 1659: 1626: 1455: 1426: 1402: 1367: 1189: 1148: 755:, a Sacoglossan sea slug which uses kleptoplasty to create complex patterns on its body 672: 667: 571: 269: 225: 197: 174: 97: 89: 1027: 1770: 1484: 1072: 889: 835: 818: 190: 109: 36: 992: 976: 1732: 1259: 1133: 955: 787: 507: 242: 49: 1552: 916:"Horizontal Transfer of Functional Nuclear Genes Between Multicellular Organisms" 1285:"Euglenozoan kleptoplasty illuminates the early evolution of photoendosymbiosis" 771: 706: 677: 646: 627: 587: 574: 392: 166: 77: 43: 1290:
Proceedings of the National Academy of Sciences of the United States of America
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within their digestive diverticula, and thus are similarly "solar-powered".
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Anna Karnkowska; Naoji Yubuki; Moe Maruyama; et al. (16 March 2023).
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S. K. Pierce; S. E. Massey; J. J. Hanten; N. E. Curtis (June 1, 2003).
767: 623: 317: 286: 162: 146: 145:), originally meaning formed or moulded, and used in biology to mean a 73: 1574:
De Vries, Jan; Rauch, Cessa; Christa, Gregor; Gould, Sven B. (2014).
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Johnson, Matthew D.; Oldach, David; et al. (25 January 2007).
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Händeler, K.; Grzymbowski, Y. P.; Krug, P. J.; Wägele, H. (2009).
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Kleptoplasty has been acquired in various independent clades of
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Proceedings of the Royal Society B: Biological Sciences
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can survive for up to 35 days with these kleptoplasts.
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stage in the permanent acquisition of chloroplasts.
975:Clark, K. B.; Jensen, K. R.; Strits, H. M. (1990). 40:, packed with chloroplasts taken from green algae. 1278: 1276: 780:, which acquires chloroplasts by eating the alga 909: 907: 661:The first and only case of kleptoplasty within 8: 807:Some species of another group of sea slugs, 1709: 1699: 1658: 1601: 1591: 1576:"A sea slug's guide to plastid symbiosis" 1454: 1444: 1401: 1391: 1351:Bol. Fac. Fil. Ci. Letras Univ. São Paulo 1318: 1188: 1062: 1349:E. Marcus, Turbellaria Brasileiros (9). 34:A digestive tubule cell of the sea slug 847: 799:between different species of sea slug. 1161:Applied and Environmental Microbiology 108:The word kleptoplasty is derived from 1509:. University of Maine. Archived from 1478:Catherine Brahic (24 November 2008). 204:phylum, and some marine invertebrate 7: 1682:Laetz, Elise; Wagele, Heike (2018). 1580:Acta Societatis Botanicorum Poloniae 671:, the earliest diverging lineage of 1507:"SymBio: Introduction-Kleptoplasty" 817:, sequester whole living symbiotic 411: 381: 370: 363: 323: 261: 231: 221: 211: 626:that steals chloroplasts from the 25: 1073:10.1111/j.1462-2920.2006.01109.x 890:10.1111/j.1462-2920.2008.01666.x 1755:. ABC Science Online. June 2007 1: 1733:Sutton & Hoegh-Guldberg, 1553:10.1016/j.tplants.2014.03.010 1028:10.1016/s0012-8252(99)00017-3 157:Kleptoplasty is a process in 141: 119: 1803: 1149:"High-level congruence of 870:Environmental Microbiology 135: 113: 1753:"Solar Powered Sea Slugs" 1701:10.1186/s12983-018-0264-y 720:While consuming diatoms, 433: 416: 409: 389: 379: 368: 361: 332: 321: 283: 266: 259: 239: 229: 219: 100:and benefiting the host. 57:: scale bar is 3 μm. 831:Horizontal gene transfer 690:horizontal gene transfer 1533:Trends in Plant Science 1303:10.1073/PNAS.2220100120 876:(9). Wiley: 2411–2417. 665:belongs to the species 27:Form of algae symbiosis 1643:10.1098/rspb.2014.2519 1446:10.1186/1742-9994-6-28 1393:10.1126/sciadv.aaw4337 756: 752:Costasiella kuroshimae 737:Sea slugs (gastropods) 614: 161:relationships whereby 72:relationships whereby 58: 1593:10.5586/asbp.2014.042 1008:Earth-Science Reviews 814:Pteraeolidia ianthina 749: 715:Pogaina paranygulgus, 608: 33: 1787:Endosymbiotic events 1688:Frontiers in Zoology 1432:Frontiers in Zoology 1181:10.1128/AEM.02566-09 701:Rhabdocoel flatworms 632:Geminigera cryophila 506:Some species of the 1782:Ecology terminology 1545:2014TPS....19..347D 1384:2019SciA....5.4337V 1297:(12): e2220100120. 1244:10.1038/nature05496 1236:2007Natur.445..426J 1173:2010ApEnM..76.2791N 1118:10.1038/nature05496 1110:2007Natur.445..426J 1055:2007EnvMi...9...39G 1020:1999ESRv...46..149B 882:2008EnvMi..10.2411M 711:Baicalellia solaris 583:Pfisteria piscicida 226:SAR supergroup 88:(κλέπτης) which is 55:Electron micrograph 1637:(1802): 20142519. 1043:Environ. Microbiol 757: 709:marine flatworms, 615: 59: 1230:(7126): 426–428. 783:Vaucheria litorea 777:Elysia chlorotica 619:Mesodinium rubrum 611:Mesodinium rubrum 493: 492: 484: 483: 475: 474: 466: 465: 457: 456: 448: 447: 347: 346: 307: 306: 298: 297: 16:(Redirected from 1794: 1763: 1761: 1760: 1739: 1730: 1724: 1723: 1713: 1703: 1679: 1673: 1672: 1662: 1622: 1616: 1615: 1605: 1595: 1571: 1565: 1564: 1528: 1522: 1521: 1519: 1518: 1503: 1497: 1496: 1494: 1492: 1475: 1469: 1468: 1458: 1448: 1422: 1416: 1415: 1405: 1395: 1372:Science Advances 1363: 1357: 1347: 1341: 1340: 1322: 1280: 1271: 1270: 1268: 1266: 1216:Myrionecta rubra 1209: 1203: 1202: 1192: 1167:(9): 2791–2798. 1151:Myrionecta rubra 1144: 1138: 1137: 1091: 1085: 1084: 1066: 1038: 1032: 1031: 1014:(1–4): 149–165. 1003: 997: 996: 972: 966: 965: 963: 962: 911: 902: 901: 857: 412: 382: 371: 364: 324: 262: 232: 222: 212: 144: 138: 137: 132: 129: 126: 122: 116: 115: 68:is a process in 21: 1802: 1801: 1797: 1796: 1795: 1793: 1792: 1791: 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Bull 862:Dinophysis 842:References 764:Sacoglossa 742:Sacoglossa 730:B. solaris 722:B. solaris 707:rhabdocoel 663:Euglenozoa 657:Euglenozoa 641:Dinophysis 589:Dinophysis 558:sequester 537:Nonionella 420:Sacoglossa 406:Gastropoda 328:Euglenozoa 202:Euglenozoa 187:eukaryotes 181:Occurrence 165:, notably 76:, notably 1651:0962-8452 1612:2083-9480 1311:0027-8424 1153:prey and 1059:CiteSeerX 760:Sea slugs 651:M. rubrum 637:M. rubrum 525:Haynesina 519:Elphidium 256:Alveolata 216:Eukaryota 189:, namely 159:symbiotic 104:Etymology 70:symbiotic 1720:29760759 1669:25652835 1561:24767983 1465:19951407 1412:31328166 1333:Wikidata 1329:36927158 1320:10041101 1252:17251979 1199:20305031 1126:17251979 1081:17227410 993:87182226 948:12807700 898:18518896 825:See also 811:such as 601:Ciliates 513:Bulimina 375:Spiralia 358:Animalia 336:Rapazida 236:Rhizaria 200:and the 194:protists 163:plastids 74:plastids 1711:5937827 1660:4344150 1541:Bibcode 1456:2790442 1403:6636991 1380:Bibcode 1260:4410812 1232:Bibcode 1190:2863437 1169:Bibcode 1134:4410812 1106:Bibcode 1051:Bibcode 1016:Bibcode 956:9671982 940:1543594 878:Bibcode 768:mollusc 696:Animals 624:ciliate 549:Reophax 510:genera 318:Discoba 287:Ciliata 206:animals 196:of the 153:Process 147:plastid 142:plastós 136:πλαστός 120:kléptēs 114:κλέπτης 86:Kleptes 1718:  1708:  1694:: 17. 1667:  1657:  1649:  1610:  1559:  1463:  1453:  1439:: 28. 1410:  1400:  1335:  1327:  1317:  1309:  1258:  1250:  1223:Nature 1197:  1187:  1132:  1124:  1097:Nature 1079:  1061:  991:  954:  946:  938:  896:  733:taxa. 560:diatom 552:, and 531:Nonion 133:, and 1777:Algae 1256:S2CID 1130:S2CID 989:S2CID 952:S2CID 936:JSTOR 622:is a 171:algae 169:from 128:thief 94:thief 90:Greek 82:algae 80:from 1716:PMID 1665:PMID 1647:ISSN 1608:ISSN 1557:PMID 1493:2008 1461:PMID 1408:PMID 1325:PMID 1307:ISSN 1267:2015 1248:PMID 1195:PMID 1122:PMID 1077:PMID 944:PMID 894:PMID 724:and 713:and 591:spp. 580:and 578:spp. 92:for 48:N = 42:C = 1706:PMC 1696:doi 1655:PMC 1639:doi 1635:282 1598:hdl 1588:doi 1549:doi 1451:PMC 1441:doi 1398:PMC 1388:doi 1315:PMC 1299:doi 1295:120 1240:doi 1228:445 1185:PMC 1177:doi 1114:doi 1102:445 1069:doi 1024:doi 928:doi 924:204 886:doi 64:or 1773:: 1714:. 1704:. 1692:15 1690:. 1686:. 1663:. 1653:. 1645:. 1633:. 1629:. 1606:. 1596:. 1584:83 1582:. 1578:. 1555:. 1547:. 1537:19 1535:. 1482:. 1459:. 1449:. 1435:. 1429:. 1406:. 1396:. 1386:. 1374:. 1370:. 1354:16 1331:. 1323:. 1313:. 1305:. 1293:. 1287:. 1275:^ 1254:. 1246:. 1238:. 1226:. 1220:. 1193:. 1183:. 1175:. 1165:76 1163:. 1159:. 1128:. 1120:. 1112:. 1100:. 1075:. 1067:. 1057:. 1045:. 1022:. 1012:46 1010:. 985:33 983:. 979:. 950:. 942:. 934:. 922:. 918:. 906:^ 892:. 884:. 874:10 872:. 850:^ 653:. 643:. 635:. 546:, 540:, 534:, 528:, 522:, 516:, 208:. 149:. 1762:. 1722:. 1698:: 1671:. 1641:: 1614:. 1600:: 1590:: 1563:. 1551:: 1543:: 1520:. 1495:. 1467:. 1443:: 1437:6 1414:. 1390:: 1382:: 1376:5 1339:. 1301:: 1269:. 1242:: 1234:: 1218:" 1201:. 1179:: 1171:: 1136:. 1116:: 1108:: 1083:. 1071:: 1053:: 1047:9 1030:. 1026:: 1018:: 995:. 964:. 930:: 900:. 888:: 880:: 864:( 139:( 131:' 125:' 117:( 52:. 46:, 20:)

Index

Kleptoplast

Elysia clarki
chloroplast
cell nucleus
Electron micrograph
symbiotic
plastids
chloroplasts
algae
Greek
thief
photosynthesis
Ancient Greek
plastid
symbiotic
plastids
chloroplasts
algae
photosynthesis
eukaryotes
single-celled
protists
SAR supergroup
Euglenozoa
animals
Eukaryota
SAR supergroup
Rhizaria
Foraminifera

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