Knowledge

Geosyncline

Source 📝

20: 628: 87:
further developed the geosyncline concept, and introduced it to Europe in 1900. Eduard Suess, a leading geologist of his time, disapproved the concept of geosyncline, and in 1909 he argued against its use due to its association with outdated theories. This did not prevent further development of the
188:
was indebted either to the Andes being preceded by a shallow geosyncline, or because the Andes represented just the margin of a geosyncline. Steinmann contributed this correlation to the distinction between Cordilleran and Alpine-type mountains. According to Stille, a type of geosyncline called a
158:, resulting in a pattern of undulation in the Earth's crust. According to this view, regular, episodic global revolutions caused geosynclines to collapse, forming orogens. According to Kober and Stille, developing geosynclinal depressions were accompanied by uplifted geanticlines, which then 150:
over time. In Stille and Kober's view, geosynclines and orogens were the unstable parts of the Earth's crust, in stark contrast with the very stable
208:. Meanwhile, Argand argued that geosynclines, sufficiently attenuated through stretching, could become oceans basins, as a material called " 23:
Development of a mountain range by sedimentation of a geosyncline and isostatic uplifting. This is the "collapse" of the geosyncline.
174:; if faults were present in geosynclines, they were the product of later processes, such as the final collapse of the geosyncline. 123:. These two views can be called "fixist", in the case of geosyncline theory, and "mobilist" for the support of continental drift. 334: 196:
With respect to oceanic basins, Kober held them to be separate and distinct from geosynclines. He nonetheless believed that
126:
Even as continental drift became generally accepted, the concept of geosynclines persisted in geological science. In 1970,
647: 611: 119:. This competing view rejected the premise of planetary contraction, and argued that orogeny was the result of 351: 632: 189:"eugeosyncline" was characterized by producing an "initial magmatism", which in some cases corresponded to 72: 130:
and John M. Bird adapted the geosyncline to plate tectonics. The term continued to have usage within a
103:
The continued development of the geosyncline theory by Stille and Kober following the publication of
278: – Structural geology term for a fold with younger layers closer to the center of the structure 184:
using the geosyncline concept. He theorized that the apparent lack of ophiolite in the Peruvian
201: 80: 346: 155: 127: 595: 154:. Stille theorized that the contractional forces responsible for geosynclines also formed 146:
Dana and Stille supposed that the collapse of geosynclines into orogens was result of the
135: 8: 138:
argued against its use, in light of its association with discredited geological ideas.
43:, which was developed in the late 19th and early 20th centuries, before the theory of 607: 464: 330: 167: 147: 120: 97: 76: 460: 177: 599: 197: 171: 170:. According to Stille, geosynclines were formed from crustal folding rather than 131: 48: 44: 116: 111:
from 1885 to 1909 was not unchallenged, as another school of thought was led by
209: 112: 641: 284: – In geology, an anticline is a type of fold that is an arch-like shape 89: 200:
were orogens, although Stille disagreed, asserting that they were places of
84: 290: – State of gravitational equilibrium between Earth's crust and mantle 104: 47:
was envisaged. A geosyncline was described as a giant downward fold in the
451:
Dewey, John F.; Bird, John M. (1970). "Plate tectonics and geosynclines".
93: 71:
The geosyncline concept was first conceived by the American geologists
281: 190: 181: 19: 287: 275: 163: 205: 159: 60: 40: 36: 627: 151: 185: 79:
in the mid-19th century, during the classic studies of the
584:, Revised edition, Princeton University Press, pp 54–58 589:
North American Geosyncline: Geol. Soc. America Mem. 48
134:framework in the 1980s, although as early as 1982, 88:concept in the first half of the 20th century by 639: 598:(1982). "Classical theories of orogenesis". In 16:Obsolete geological concept to explain orogens 352:Bulletin of the Geological Society of America 329:Academic Press, 2nd edition, 2000, p. 486 450: 537: 535: 522: 520: 518: 516: 503: 501: 488: 486: 18: 410: 408: 395: 393: 380: 378: 376: 363: 361: 309: 307: 305: 303: 640: 141: 51:, with associated upward folds called 602:; Aki, Keiiti; Şengör, Celâl (eds.). 559: 547: 532: 513: 498: 483: 471: 256: 243: 240: 234: 59:), that preceded the climax phase of 432: 420: 405: 390: 373: 358: 300: 13: 14: 659: 621: 626: 594: 574: 565: 553: 541: 507: 492: 477: 444: 438: 426: 414: 399: 384: 367: 313: 582:The Evolution of North America 339: 319: 1: 294: 216:Hans Stille's classification 166:that filled the geosynclinal 527:Şengör & Natal'in (2004) 465:10.1016/0040-1951(70)90050-8 7: 526: 269: 96:, both of whom worked on a 10: 664: 66: 648:Obsolete geology theories 606:. John Wiley & Sons. 230:Resulting mountain type 580:King, Philip B. (1977) 347:The Geosynclinal Theory 327:Applied Sedimentology, 24: 635:at Wikimedia Commons 587:Kay, Marshall (1951) 355:59:649-670, July 1948 202:extensional tectonics 81:Appalachian Mountains 31:(originally called a 22: 325:Selley, Richard C., 227:Associated magmatism 204:, as exemplified by 191:ophiolitic magmatism 109:Das Antlitz der Erde 61:orogenic deformation 224:Geosyncline subtype 217: 156:epeirogenic uplifts 148:Earth's contraction 142:Geosynclinal theory 39:concept to explain 241:Initial magmatism 215: 25: 631:Media related to 335:978-0-12-636375-3 267: 266: 235:Orthogeosyncline 121:continental drift 98:contracting Earth 77:James Dwight Dana 35:) is an obsolete 655: 630: 617: 600:Miyashiro, Akiho 569: 563: 557: 551: 545: 539: 530: 524: 511: 505: 496: 490: 481: 475: 469: 468: 459:(5–6): 625–638. 448: 442: 436: 430: 424: 418: 412: 403: 397: 388: 382: 371: 365: 356: 343: 337: 323: 317: 311: 257:Parageosyncline 221:Geosyncline type 218: 214: 198:mid-ocean ridges 178:Gustav Steinmann 663: 662: 658: 657: 656: 654: 653: 652: 638: 637: 624: 614: 577: 572: 564: 560: 552: 548: 540: 533: 525: 514: 506: 499: 491: 484: 476: 472: 449: 445: 437: 433: 425: 421: 413: 406: 398: 391: 383: 374: 366: 359: 344: 340: 324: 320: 312: 301: 297: 272: 249:Miogeosyncline 144: 132:plate tectonics 69: 45:plate tectonics 17: 12: 11: 5: 661: 651: 650: 623: 622:External links 620: 619: 618: 612: 592: 585: 576: 573: 571: 570: 558: 546: 531: 512: 497: 482: 470: 453:Tectonophysics 443: 431: 419: 404: 389: 372: 357: 345:Adolph Knopf, 338: 318: 298: 296: 293: 292: 291: 285: 279: 271: 268: 265: 264: 261: 258: 254: 253: 250: 246: 245: 242: 239: 238:Eugeosyncline 236: 232: 231: 228: 225: 222: 212:" surfaced. 143: 140: 113:Alfred Wegener 68: 65: 15: 9: 6: 4: 3: 2: 660: 649: 646: 645: 643: 636: 634: 629: 615: 609: 605: 601: 597: 596:Şengör, Celâl 593: 590: 586: 583: 579: 578: 567: 566:Şengör (1982) 562: 555: 554:Şengör (1982) 550: 543: 542:Şengör (1982) 538: 536: 528: 523: 521: 519: 517: 509: 508:Şengör (1982) 504: 502: 494: 493:Şengör (1982) 489: 487: 479: 478:Şengör (1982) 474: 466: 462: 458: 454: 447: 440: 439:Şengör (1982) 435: 428: 427:Şengör (1982) 423: 416: 415:Şengör (1982) 411: 409: 401: 400:Şengör (1982) 396: 394: 386: 385:Şengör (1982) 381: 379: 377: 369: 368:Şengör (1982) 364: 362: 354: 353: 348: 342: 336: 332: 328: 322: 315: 314:Şengör (1982) 310: 308: 306: 304: 299: 289: 286: 283: 280: 277: 274: 273: 262: 259: 255: 251: 248: 247: 237: 233: 229: 226: 223: 220: 219: 213: 211: 207: 203: 199: 194: 192: 187: 183: 179: 175: 173: 169: 165: 161: 157: 153: 149: 139: 137: 133: 129: 128:John F. Dewey 124: 122: 118: 114: 110: 106: 101: 99: 95: 91: 90:Leopold Kober 86: 82: 78: 74: 64: 62: 58: 57:geanticlinals 54: 50: 49:Earth's crust 46: 42: 38: 34: 30: 21: 625: 613:0-471-103764 603: 588: 581: 575:Bibliography 561: 549: 473: 456: 452: 446: 434: 422: 350: 341: 326: 321: 263:Germanotype 195: 180:interpreted 176: 162:, providing 145: 136:Celâl Şengör 125: 117:Émile Argand 108: 105:Eduard Suess 102: 70: 56: 53:geanticlines 52: 33:geosynclinal 32: 28: 26: 633:Geosyncline 244:Alpinotype 100:framework. 94:Hans Stille 29:geosyncline 295:References 182:ophiolites 85:Émile Haug 73:James Hall 37:geological 282:Anticline 164:sediments 152:kratogens 642:Category 591:, 143pp. 529:, p. 682 288:Isostasy 276:Syncline 270:See also 172:faulting 604:Orogeny 568:, p. 37 556:, p. 36 544:, p. 33 510:, p. 29 495:, p. 28 480:, p. 44 441:, p. 30 429:, p. 24 417:, p. 23 402:, p. 43 387:, p. 26 370:, p. 25 316:, p. 11 206:Iceland 67:History 41:orogens 610:  333:  160:eroded 186:Andes 168:basin 608:ISBN 331:ISBN 210:sima 115:and 92:and 75:and 55:(or 461:doi 193:. 644:: 534:^ 515:^ 500:^ 485:^ 457:10 455:. 407:^ 392:^ 375:^ 360:^ 349:, 302:^ 260:- 252:- 107:' 83:. 63:. 27:A 616:. 467:. 463::

Index


geological
orogens
plate tectonics
Earth's crust
orogenic deformation
James Hall
James Dwight Dana
Appalachian Mountains
Émile Haug
Leopold Kober
Hans Stille
contracting Earth
Eduard Suess
Alfred Wegener
Émile Argand
continental drift
John F. Dewey
plate tectonics
Celâl Şengör
Earth's contraction
kratogens
epeirogenic uplifts
eroded
sediments
basin
faulting
Gustav Steinmann
ophiolites
Andes

Text is available under the Creative Commons Attribution-ShareAlike License. Additional terms may apply.