Knowledge (XXG)

Marine isotope stages

Source πŸ“

328: 534:(thousands of years ago). The first figures are derived by Aitken & Stokes from Bassinot et al. (1994), with the figures in parentheses alternative estimates from Martinson et al. for stage 4 and for the others the SPECMAP figures in Imbrie et al. (1984). For stages 1–16 the SPECMAP figures are within 5 kya of the figures given here. All figures up to MIS 21 are taken from Aitken & Stokes, Table 1.4, except for the sub-stages of MIS 5, which are from Wright's Table 1.1. 39: 162: 31: 147:"horizons" (events rather than periods) may also be used, with for example MIS 5.5 representing the peak point of MIS 5e, and 5.51, 5.52 etc. representing the peaks and troughs of the record at a still more detailed level. For more recent periods, increasingly precise resolution of timing continues to be developed. 229:
caused by cyclical slight changes in the tilt of the Earth's axis of rotation β€“ the "orbital theory". Indeed, that the MIS data matched Milankovich's theory, which he formed during World War I, so well was a key factor in the theory gaining general acceptance, despite some remaining problems at
723:
Pettitt and White date MIS 3 as 59,000 to 24,000 BP. They say: "In the terrestrial record, five non forested MIS3 interstadials have been identified from Dutch and German organic deposits, from oldest to youngest the Oerel, Glinde, Moershoofd/Moershoofd Complex, Hengelo (c. 39,000 – c. 36,000 years
201:
deposition. Currently a number of methods are making additional detail possible. Matching the stages to named periods proceeds as new dates are discovered and new regions are explored geologically. The marine isotopic records appear more complete and detailed than any terrestrial equivalents, and
181:
suggested that the fluctuations over time in the marine isotope ratios that had become evident by then were caused not so much by changes in water temperature, as Emiliani thought, but mainly by changes in the volume of ice-sheets, which when they expanded took up the lighter oxygen-16 isotope in
146:
Over 100 stages have been identified, currently going back some 6 million years, and the scale may in future reach back up to 15 mya. Some stages, in particular MIS 5, are divided into sub-stages, such as "MIS 5a", with 5 a, c, and e being warm and b and d cold. A numeric system for referring to
275:
records, although there are others. This high resolution chronology was derived from several isotopic records, the composite curve was then smoothed, filtered and tuned to the known cycles of the astronomical variables. The use of a number of isotopic profiles was designed to eliminate 'noise'
284:, some 18,000 years ago, with some of the research also directed at the climate some 120,000 years ago, during the last interglacial. The theoretical advances and greatly improved data available by the 1970s enabled a "grand synthesis" to be made, best known from the 1976 paper 250:. For older core samples, individual annual depositions cannot usually be distinguished, and dating is taken from the geomagnetic information in the cores. Other information, especially as to the ratios of gases such as 143:, the main chemical component of the shells and other hard parts of a wide range of marine organisms, should vary depending on the prevailing water temperature in which the calcite was formed. 277: 724:
BP) and Denekamp (c. 32,000 – c. 28,000 years BP) interstadials. In Britain only one interstadial has been identified (as of 2012), the Upton-Warren (c. 44,000 – c. 42,000 years BP).
1171: 186:
evidence of glacials and interglacials. A graph of the entire series of stages then revealed unsuspected advances and retreats of ice and also filled in the details of the
131:
or the study of the early climate of the Earth, representing "the standard to which we correlate other Quaternary climate records". Emiliani's work in turn depended on
276:
errors, that could have been contained within a single isotopic record. Another large research project funded by the US government in the 1970s and 1980s was
1221: 1099:
Sowers, Janet M., "Correlating Quaternary Landforms and Deposits to Global Climate Change", in Noller, Jay S., Sowers, Janet M., Lettis, William R. (eds),
339:). The figures, in thousands of years ago, are from Lisiecki's website. Numbers for substages in MIS 5 denote peaks of substages rather than boundaries. 1216:
Alexander J. Dickson , Christopher J. Beer , Ciara Dempsey , Mark A. Maslin , James A. Bendle , Erin L. McClymont & Richard D. Pancost
1191: 1236: 824: 302: 1009:
Andrews, John T., "Dating Glacial Events and Correlation to Global Climate Change", in Noller, Jay S., Sowers, Janet M., Lettis, William R. (eds),
358:. The LR04 date of 14 kya had to accommodate less well studied time intervals, and the generally accepted date of 11.7 kya is to be preferred. 1139: 1116: 1090: 1071: 1049: 1026: 1000: 1122:
Wright, James D., "Global Climate Change in Marine Stable Isotope Records", in Noller, Jay S., Sowers, Janet M., Lettis, William R. (eds),
305:
dropped other lists of MIS dates and started using the Lisiecki & Raymo (2005) LR04 Benthic Stack, as updated. This was compiled by
1181: 1004: 1131: 1108: 1063: 1041: 1018: 992: 1242:
Global chronostratigraphical correlation table for the last 2.7 million years, v.2010, International Commission on Stratigraphy
1261: 1075: 1143: 505: 84:
and represent cold glacial periods, while the odd-numbered stages are lows in the oxygen-18 figures, representing warm
1161:(updated version 2011), Subcommission on Quaternary Stratigraphy, International Commission on Stratigraphy: Cambridge. 684: 268: 414: 335:
The following are the start dates (apart from MIS 5 sub-stages) of the most recent MIS (Lisiecki & Raymo 2005,
73: 1271: 80:. Working backwards from the present, which is MIS 1 in the scale, stages with even numbers have high levels of 1256: 455: 327: 298:, which is still widely accepted, and covers the MIS timescale and the causal effect of the orbital theory. 679: 377: 373: 322: 156: 1276: 463: 446: 127:
period (the last 2.6 million years), as well as providing the fullest and best data for that period for
280:(CLIMAP), which to a large degree succeeded in its aim of producing a map of the global climate at the 892: 550: 362: 281: 247: 231: 211: 1266: 369: 218: 178: 170: 38: 983:
Aitken, Martin J and Stokes, Stephen, in Taylor, Royal Ervin Taylor and Aitken, Martin Jim (eds),
182:
preference to the heavier oxygen-18. The cycles in the isotope ratio were found to correspond to
918: 27:
Alternating warm and cool periods in the Earth's paleoclimate, deduced from oxygen isotope data
1135: 1127: 1112: 1104: 1086: 1067: 1059: 1045: 1037: 1022: 1014: 996: 988: 872: 844: 645: 474: 418: 405: 336: 306: 290: 1211: 858: 669:
time scale (older definitions put this change at 1.806 mya β€“ the MIS date is unaffected)
908: 900: 689: 239: 203: 128: 161: 1241: 880: 470: 222: 116: 109: 101: 896: 836: 214:
of North America are the main factor governing variations in the oxygen isotope ratios.
30: 699: 272: 251: 243: 1250: 876: 539: 459: 351: 310: 34:
5-million-year history, representing the Lisiecki and Raymo (2005) LR04 Benthic Stack
922: 17: 694: 197:
samples of today's glacial ice substantiated the cycles through studies of ancient
93: 85: 69: 1231: 662: 295: 235: 132: 120: 77: 173:
to have access to core-drilling ships and equipment, and began to drill in the
1083:
The British Palaeolithic: Human Societies at the Edge of the Pleistocene World
881:"A Pliocene-Pleistocene stack of 57 globally distributed benthic Ξ΄18O records" 436: 426: 226: 124: 1158:
Global chronostratigraphical correlation table for the last 2.7 million years
1156: 1201: 207: 206:
to be identified. It is now believed that changes in the size of the major
183: 174: 136: 81: 43: 913: 904: 704: 658: 543: 355: 255: 194: 105: 97: 652: 422: 331:
Marine core sections from the South Atlantic, about a million years old
187: 177:
and collect core data. A further important advance came in 1967, when
140: 135:'s prediction in a paper of 1947 that the ratio between oxygen-18 and 600: 562: 492: 198: 89: 1222:
Last Time Carbon Dioxide Levels Were This High: 15 Million Years Ago
666: 609: 518:
The list continues to MIS 104, beginning 2.614 million years ago.
480: 442: 386: 326: 160: 37: 108:, and other data that reflect historic climate; these are called 531: 859:"Version history of the Quaternary chronostratigraphical chart" 1056:
Paleoclimates: understanding climate change past and present
301:
In 2010 the Subcommission on Quaternary Stratigraphy of the
115:
The MIS timescale was developed from the pioneering work of
1212:
Oceanic forcing of the Marine Isotope Stage 11 interglacial
1202:
The polar paleoclimate signature of Marine Isotope Stage 31
1032:"Concise", Ogg, James George, Ogg, Gabi, Gradstein F. M., 840:
Variations in the earth’s orbit: pacemaker of the ice ages
286:
Variations in the earth’s orbit: pacemaker of the ice ages
278:
Climate: Long range Investigation, Mapping, and Prediction
971:
all (MIS 22, 62, 103) from "Concise", figs 15.6 and 15.7
68:), are alternating warm and cool periods in the Earth's 1172:
Marine Isotope Substage 5e and the Eemian Interglacial
242:
also support the MIS data. The sediments also acquire
861:. The Subcommission on Quaternary Stratigraphy. 2011. 323:
Timeline of glaciation Β§ Uncertain correlations
1192:
Glacial variability over the last two million years
640:Some older stages, in mya (millions of years ago): 217:The MIS data also matches the astronomical data of 1124:Quaternary geochronology: methods and applications 1101:Quaternary geochronology: methods and applications 1011:Quaternary geochronology: methods and applications 806:Aitken & Stokes (1997), 12–13; Wright, 431–432 743:Wright, 427, 429; Aitken & Stokes (1997), 9-14 246:which allows them to be correlated with earth's 962:Aitken & Stokes (1997), p. 14; Wright, p. 6 770:Aitken & Stokes (1997), 12; Wright, 429–431 1182:650,000 years of greenhouse gas concentrations 254:in the atmosphere, is provided by analysis of 202:have enabled a timeline of glaciation for the 408:, also known as the Eemian among other names) 8: 432:MIS 7 – 243 (Aveley Interglacial in Britain) 398:MIS 5c – 96 (peak of interglacial sub-stage) 392:MIS 5a – 82 (peak of interglacial sub-stage) 815:Aitken & Stokes (1997), 10; Wright, 431 271:, has produced one standard chronology for 234:. For relatively recent periods data from 1036:, 2008, Cambridge University Press, 2008, 644:MIS 22 – 1.03 mya, marking the end of the 123:and other fields to express dating in the 912: 119:in the 1950s, and is now widely used in 401:MIS 5d – 109 (peak of glacial sub-stage) 389:– 130, usually sub-divided into a to e: 303:International Commission on Stratigraphy 29: 736: 716: 395:MIS 5b – 87 (peak of glacial sub-stage) 42:Sections of sedimentary cores from off 344:MIS     Start date 230:certain points, notably the so-called 88:intervals. The data are derived from 7: 1126:, 2000, American Geophysical Union, 1103:, 2000, American Geophysical Union, 1013:, 2000, American Geophysical Union, 944:Pettitt and White, pp. 294, 296, 374 565:; usually sub-divided into a to 5e: 1058:, Columbia University Press, 2010, 244:depositional remanent magnetization 1081:Pettit, Paul; White, Mark (2012). 985:Chronometric dating in archaeology 368:MIS 3 – 57 (MIS 2-4 is called the 25: 294:), by J.D. Hays, Shackleton and 225:or the effects of variations in 1155:Cohen, K.M. and Gibbard, P.L., 1034:The Concise Geologic Time Scale 987:, Chapter 1, 1997, BirkhΓ€user, 603:427, the most similar to MIS 1. 169:In 1957 Emiliani moved to the 1: 835:Cronin, 121–122, 121 quoted; 425:in northern Europe and later 935:Email from Lorraine Lisiecki 657:MIS 103 – 2.588, end of the 58:marine oxygen-isotope stages 1085:. Abingdon, UK: Routledge. 848:), by Shackleton and others 685:Geologic temperature record 546:, continuing to the present 538:MIS 1 – 11 kya, end of the 530:of the most recent MIS, in 350:MIS 1 – 14 kya, end of the 269:National Science Foundation 1293: 651:MIS 62 – 1.75, end of the 561:MIS 5 – 130, includes the 415:Penultimate Glacial Period 320: 267:Project, funded by the US 188:stadials and interstadials 154: 953:Pettitt and White, p. 106 506:Brunhes–Matuyama reversal 421:in North America, later 825:SPECMAP on NASA website 542:marks the start of the 354:marks the start of the 210:such as the historical 165:A store of core samples 680:Timeline of glaciation 526:The following are the 404:MIS 5e – 123 (peak of 378:Weichselian glaciation 374:Wisconsinan glaciation 332: 166: 157:Timeline of glaciation 151:Developing a timescale 76:derived from deep sea 46: 35: 1262:Marine isotope stages 873:Lisiecki, Lorraine E. 464:Holstein Interglacial 447:Purfleet Interglacial 330: 321:Further information: 248:geomagnetic reversals 164: 100:) remains in drilled 62:oxygen isotope stages 50:Marine isotope stages 41: 33: 905:10.1029/2004PA001071 551:Last Glacial Maximum 460:Hoxnian Interglacial 363:Last Glacial Maximum 282:Last Glacial Maximum 232:100,000-year problem 212:Laurentide Ice Sheet 18:Marine Isotope Stage 1054:Cronin, Thomas M., 897:2005PalOc..20.1003L 477:in northern Europe) 435:MIS 8 – 300 (early 380:in northern Europe) 370:Last Glacial Period 219:Milankovitch cycles 179:Nicholas Shackleton 171:University of Miami 74:oxygen isotope data 636:MIS 21 – 865 (790) 633:MIS 20 – 810 (763) 630:MIS 19 – 787 (736) 627:MIS 18 – 760 (726) 624:MIS 17 – 712 (689) 466:in Central Europe) 376:in North America, 337:LR04 Benthic Stack 333: 167: 47: 36: 1140:978-0-87590-950-9 1117:978-0-87590-950-9 1092:978-0-415-67455-3 1072:978-0-231-14494-0 1050:978-0-521-89849-2 1027:978-0-87590-950-9 1001:978-0-306-45715-9 877:Raymo, Maureen E. 661:and start of the 475:Elster glaciation 419:Illinoian glacial 406:Last Interglacial 307:Lorraine Lisiecki 16:(Redirected from 1284: 1272:Paleoclimatology 1096: 972: 969: 963: 960: 954: 951: 945: 942: 936: 933: 927: 926: 916: 885:Paleoceanography 869: 863: 862: 855: 849: 833: 827: 822: 816: 813: 807: 804: 798: 795: 789: 786: 780: 777: 771: 768: 762: 759: 753: 750: 744: 741: 725: 721: 690:Paleothermometer 648:period in Europe 580:MIS 5e – 130.115 577:MIS 5d – 115.105 549:MIS 2 – 24 near 462:in Britain, and 266: 265: 240:dendrochronology 204:Plio-Pleistocene 129:paleoclimatology 21: 1292: 1291: 1287: 1286: 1285: 1283: 1282: 1281: 1247: 1246: 1226:Aradhna Tripati 1168: 1152: 1150:Further reading 1093: 1080: 980: 975: 970: 966: 961: 957: 952: 948: 943: 939: 934: 930: 871: 870: 866: 857: 856: 852: 834: 830: 823: 819: 814: 810: 805: 801: 796: 792: 787: 783: 779:Cronin, 120–121 778: 774: 769: 765: 760: 756: 751: 747: 742: 738: 734: 729: 728: 722: 718: 713: 676: 574:MIS 5c – 105.92 558:MIS 4 – 71 (74) 524: 471:Anglian Glacial 325: 319: 263: 262: 223:orbital forcing 159: 153: 117:Cesare Emiliani 102:marine sediment 72:, deduced from 28: 23: 22: 15: 12: 11: 5: 1290: 1288: 1280: 1279: 1274: 1269: 1264: 1259: 1257:Dating methods 1249: 1248: 1245: 1244: 1239: 1234: 1229: 1219: 1209: 1199: 1189: 1179: 1167: 1166:External links 1164: 1163: 1162: 1151: 1148: 1147: 1146: 1120: 1097: 1091: 1078: 1052: 1030: 1007: 979: 976: 974: 973: 964: 955: 946: 937: 928: 914:2027.42/149224 864: 850: 828: 817: 808: 799: 790: 781: 772: 763: 754: 745: 735: 733: 730: 727: 726: 715: 714: 712: 709: 708: 707: 702: 700:Marine terrace 697: 692: 687: 682: 675: 672: 671: 670: 655: 649: 638: 637: 634: 631: 628: 625: 622: 619: 616: 613: 607: 604: 598: 595: 592: 589: 586: 583: 582: 581: 578: 575: 572: 571:MIS 5b – 92.84 569: 568:MIS 5a – 84.74 559: 556: 553: 547: 523: 522:Older versions 520: 516: 515: 512: 509: 504:MIS 19 – 790 ( 502: 499: 496: 490: 487: 484: 478: 469:MIS 12 – 478 ( 467: 453: 450: 440: 433: 430: 417:, also called 411: 410: 409: 402: 399: 396: 393: 384: 381: 366: 359: 347: 346: 318: 315: 273:oxygen isotope 252:carbon dioxide 152: 149: 26: 24: 14: 13: 10: 9: 6: 4: 3: 2: 1289: 1278: 1275: 1273: 1270: 1268: 1265: 1263: 1260: 1258: 1255: 1254: 1252: 1243: 1240: 1238: 1235: 1233: 1230: 1227: 1223: 1220: 1217: 1213: 1210: 1207: 1203: 1200: 1197: 1193: 1190: 1187: 1183: 1180: 1177: 1176:NJ Shackleton 1173: 1170: 1169: 1165: 1160: 1159: 1154: 1153: 1149: 1145: 1141: 1137: 1133: 1132:0-87590-950-7 1129: 1125: 1121: 1118: 1114: 1110: 1109:0-87590-950-7 1106: 1102: 1098: 1094: 1088: 1084: 1079: 1077: 1073: 1069: 1065: 1064:0-231-14494-6 1061: 1057: 1053: 1051: 1047: 1043: 1042:0-521-89849-8 1039: 1035: 1031: 1028: 1024: 1020: 1019:0-87590-950-7 1016: 1012: 1008: 1006: 1002: 998: 994: 993:0-306-45715-6 990: 986: 982: 981: 977: 968: 965: 959: 956: 950: 947: 941: 938: 932: 929: 924: 920: 915: 910: 906: 902: 898: 894: 890: 886: 882: 878: 874: 868: 865: 860: 854: 851: 847: 846: 841: 838: 832: 829: 826: 821: 818: 812: 809: 803: 800: 794: 791: 785: 782: 776: 773: 767: 764: 758: 755: 749: 746: 740: 737: 731: 720: 717: 710: 706: 703: 701: 698: 696: 693: 691: 688: 686: 683: 681: 678: 677: 673: 668: 664: 660: 656: 654: 650: 647: 643: 642: 641: 635: 632: 629: 626: 623: 620: 617: 614: 611: 608: 605: 602: 599: 596: 593: 590: 587: 584: 579: 576: 573: 570: 567: 566: 564: 560: 557: 554: 552: 548: 545: 541: 540:Younger Dryas 537: 536: 535: 533: 529: 521: 519: 513: 510: 507: 503: 500: 497: 494: 491: 488: 485: 482: 479: 476: 472: 468: 465: 461: 457: 454: 451: 448: 444: 441: 438: 434: 431: 428: 424: 420: 416: 413:MIS 6 – 191 ( 412: 407: 403: 400: 397: 394: 391: 390: 388: 385: 382: 379: 375: 371: 367: 364: 360: 357: 353: 352:Younger Dryas 349: 348: 345: 342: 341: 340: 338: 329: 324: 316: 314: 312: 311:Maureen Raymo 308: 304: 299: 297: 293: 292: 287: 283: 279: 274: 270: 259: 257: 253: 249: 245: 241: 237: 233: 228: 224: 220: 215: 213: 209: 205: 200: 196: 191: 189: 185: 180: 176: 172: 163: 158: 150: 148: 144: 142: 138: 134: 130: 126: 122: 118: 113: 111: 107: 103: 99: 95: 91: 87: 83: 79: 75: 71: 67: 63: 59: 55: 51: 45: 40: 32: 19: 1277:Stratigraphy 1237:NASA SPECMAP 1225: 1215: 1206:Reed Scherer 1205: 1195: 1185: 1175: 1157: 1144:google books 1123: 1100: 1082: 1076:google books 1055: 1033: 1010: 1005:google books 984: 967: 958: 949: 940: 931: 888: 884: 867: 853: 843: 839: 837:PDF of paper 831: 820: 811: 802: 797:Andrews, 448 793: 784: 775: 766: 757: 748: 739: 719: 695:Anthropocene 639: 621:MIS 16 – 659 618:MIS 15 – 621 615:MIS 14 – 568 606:MIS 12 – 474 597:MIS 10 – 364 527: 525: 517: 514:MIS 21 – 866 511:MIS 20 – 814 501:MIS 18 – 761 498:MIS 17 – 712 489:MIS 15 – 621 486:MIS 14 – 563 473:in Britain, 452:MIS 10 – 374 361:MIS 2 – 29 ( 343: 334: 300: 289: 285: 260: 216: 193:More recent 192: 168: 145: 139:isotopes in 114: 94:foraminifera 86:interglacial 78:core samples 70:paleoclimate 65: 61: 57: 53: 49: 48: 1186:RealClimate 788:Wright, 431 761:Wright, 427 752:Sowers, 425 663:Pleistocene 594:MIS 9 – 334 591:MIS 8 – 301 588:MIS 7 – 244 585:MIS 6 – 190 528:start dates 449:in Britain) 439:in Britain) 429:in Britain) 296:John Imbrie 238:dating and 236:radiocarbon 184:terrestrial 133:Harold Urey 121:archaeology 1267:Glaciology 1251:Categories 978:References 891:(1): n/a. 555:MIS 3 – 60 437:Wolstonian 427:Wolstonian 383:MIS 4 – 71 227:insolation 208:ice sheets 155:See also: 125:Quaternary 1196:P Huybers 732:Citations 665:, on the 256:ice cores 175:Caribbean 137:oxygen-16 106:sapropels 82:oxygen-18 44:Greenland 923:12788441 879:(2005). 705:Ice core 674:See also 659:Pliocene 646:Bavelian 544:Holocene 356:Holocene 195:ice core 98:plankton 1232:US NCDC 893:Bibcode 845:Science 653:Tiglian 458:– 424 ( 445:– 337 ( 423:Saalian 291:Science 264:SPECMAP 141:calcite 110:proxies 104:cores, 1228:, 2009 1218:, 2009 1208:, 2007 1198:, 2007 1188:, 2005 1178:, 2003 1138:  1130:  1115:  1107:  1089:  1070:  1062:  1048:  1040:  1025:  1017:  999:  991:  921:  610:MIS 13 601:MIS 11 563:Eemian 493:MIS 16 481:MIS 13 456:MIS 11 317:Stages 199:pollen 90:pollen 919:S2CID 711:Notes 667:INQUA 612:– 528 495:– 676 483:– 524 443:MIS 9 387:MIS 5 60:, or 1136:ISBN 1128:ISBN 1113:ISBN 1105:ISBN 1087:ISBN 1068:ISBN 1060:ISBN 1046:ISBN 1038:ISBN 1023:ISBN 1015:ISBN 997:ISBN 989:ISBN 842:(in 309:and 288:(in 261:The 92:and 909:hdl 901:doi 532:kya 221:of 66:OIS 56:), 54:MIS 1253:: 1224:, 1214:, 1204:, 1194:, 1184:, 1174:, 1142:, 1134:, 1111:, 1074:, 1066:, 1044:, 1021:, 1003:, 995:, 917:. 907:. 899:. 889:20 887:. 883:. 875:; 372:, 313:. 258:. 190:. 112:. 1119:, 1095:. 1029:, 925:. 911:: 903:: 895:: 508:) 365:) 96:( 64:( 52:( 20:)

Index

Marine Isotope Stage


Greenland
paleoclimate
oxygen isotope data
core samples
oxygen-18
interglacial
pollen
foraminifera
plankton
marine sediment
sapropels
proxies
Cesare Emiliani
archaeology
Quaternary
paleoclimatology
Harold Urey
oxygen-16
calcite
Timeline of glaciation

University of Miami
Caribbean
Nicholas Shackleton
terrestrial
stadials and interstadials
ice core

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