Northern Hemisphere Ice-Sheet Influences on Global Climate Change
Abstract
Large ice sheets actively interact with the rest of the climate system by amplifying, pacing, and potentially driving global climate change over several time scales. Direct and indirect influences of ice sheets on climate cause changes in ocean surface temperatures, ocean circulation, continental water balance, vegetation, and land-surface albedo, which in turn cause additional feedbacks in the climate system and help to synchronize global climate change. The effect of the underlying geological substrate on ice-sheet dynamics may be the missing link in understanding the ice sheet–climate interactions that are integral to the middle Pleistocene transition; the 100,000-year climate cycle; high-amplitude, millennial-scale climate variability; and low–aspect ratio ice sheets of the Last Glacial Maximum.
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REFERENCES AND NOTES
1
Shackleton N. J., Berger A., Peltier W. R., Trans. R. Soc. Edinburgh Earth Sci. 81, 251 (1990).
2
Mix A. C., et al., Proc. Ocean Drill. Prog. Sci. Results 138, 371 (1995).
3
Hays J. D., Imbrie J., Shackleton N. J., Science 194, 1121 (1976);
; J. Imbrie et al., in Milankovitch and Climate, Part 1, A. L. Berger et al., Eds. (Kluwer Academic, Boston, MA, 1984), pp. 121–164.
4
Imbrie J., et al., Paleoceanography 7, 701 (1992).
5
Imbrie J., et al., Paleoceanography 8, 699 (1993).
6
Bond G., et al., Nature 365, 739 (1993).
7
Walder J. S., Costa J. E., Earth Surf. Proc. Land. 21, 701 (1992).
8
Manabe S., Broccoli A. J., J. Geophys. Res. 90, 2167 (1985).
9
Pollard D., Thompson S. L., Quat. Sci. Rev. 16, 841 (1997).
10
Kutzbach J., et al., Quat. Sci. Rev. 17, 473 (1998).
11
Ganopolski A., Rahmstorf S., Petouknov V., Claussen M., Nature 391, 351 (1998).
12
Rind D., J. Geophys. Res. 92, 4241 (1987);
Shinn R. A., Barron E. J., J. Clim. 2, 1517 (1989);
; B. Felzer, R. J. Oglesby, T. Webb III, D. E. Hyman, J. Geophys. Res. 101, 19, 077 (1996).
13
E. Maier-Raimer and U. Mikolajewicz, in Oceanography 1988, A. Ayala-Castanares, W. Wooster, A. Yanez-Arancibia, Eds. (UNAM, Mexico, 1989), pp. 87–100.
14
Stocker T. F., Wright D. G., Broecker W. S., Paleoceanography 7, 529 (1992).
15
Rahmstorf S., Nature 378, 145 (1995).
16
Broecker W. S., Bond G., Klas M., Paleoceanography 5, 469 (1990);
; E. G. Birchfield, H. Wang, J. J. Rich, J. Geophys. Res. 99, 12, 459 (1994).
17
A. J. Weaver, in Mechanisms of Global Climate Change at Millennial Time Scales, P. U. Clark, R. S. Webb, L. D. Keigwin, Eds. [American Geophysical Union (AGU), Washington, DC, 1999], pp. 285–300.
18
W. F. Ruddiman, in North America and Adjacent Oceans During the Last Deglaciation, W. F. Ruddiman and H. E. Wright, Jr., Eds. (Geological Society of America, Boulder, CO, 1987), pp.137–154.
19
G. C. Bond et al., in Mechanisms of Global Climate Change at Millennial Time Scales, P. U. Clark, R. S. Webb, L. D. Keigwin, Eds. (AGU, Washington, DC, 1999), pp. 35–58.
20
Mix A. C., Fairbanks R. G., Earth Planet Sci. Lett. 73, 231 (1985);
Boyle E. A., Keigwin L. D., Nature 330, 35 (1987);
deMenocal P. B., Oppo D. W., Fairbanks R. G., Prell W. L., Paleoceanography 7, 229 (1992).
21
Raymo M. E., Ruddiman W. F., Shackleton N. J., Oppo D. W., Earth Planet. Sci. Lett. 97, 353 (1990).
22
L. D. Keigwin, G. A. Jones, S. J. Lehman, E. Boyle, J. Geophys. Res. 96, 16, 811 (1991).
23
Rind D., Peteet D., Broecker W. S., McIntyre A., Ruddiman W. F., Clim. Dyn. 1, 3 (1986);
Fawcett P. J., Agustsdottir A. M., Alley R. B., Shuman C. A., Paleoceanography 12, 23 (1997) ;
Mikolajewizc U., Crowley T. J., Schiller A., Voss R., Nature 387, 384 (1997).
24
Hostetler S. W., Clark P. U., Bartlein P. J., Mix A. C., Pisias N. G., J. Geophys. Res. 104, 3947 (1999).
25
Alley R. B., Clark P. U., Annu. Rev. Earth Planet. Sci. 27, 149 (1999).
26
S. W. Hostetler and P. J. Bartlein, in Mechanisms of Global Climate Change at Millennial Time Scales, P. U. Clark, R. S. Webb, L. D. Keigwin, Eds. (AGU, Washington, DC, 1999), pp. 313–328.
27
Weaver A. J., Eby M., Fanning A. J., Wiebe E. C., Nature 394, 847 (1998).
28
Mix A. C., Ruddiman W. F., McIntyre A., Paleoceanography 1, 43 (1986);
Manabe S., Stouffer R. J., J. Clim. 1, 841 (1988);
Crowley T. J., Paleoceanography 7, 489 (1992).
29
Schiller A., Mikolajewicz U., Voss R., Clim. Dyn. 13, 325 (1997).
30
Prell W. L., Kutzbach J. E., J. Geophys. Res. 82, 8411 (1987);
Overpeck J., Anderson D., Trumbore S., Prell W., Clim. Dyn. 12, 213 (1996).
31
deMenocal P. B., Rind D., J. Geophys. Res. 98, 7265 (1993).
32
Overpeck J. T., Peterson L. C., Kipp N., Imbrie J., Rind D., Nature 338, 553 (1989).
33
Bush A. B. G., Philander S. G. H., Science 279, 1341 (1998).
34
Ágústsdóttir A., Alley R. B., Pollard D., Peterson W. H., Geophys. Res. Lett. 26, 1333 (1999).
35
Broccoli A. J., Manabe S., Clim. Dyn. 1, 87 (1987).
36
N. J. Shackleton and N. G. Pisias, in The Carbon Cycle and Atmospheric CO2: Natural Variations Archean to Present, E. T. Sundquist and W. S. Broecker, Eds. (AGU, Washington, DC, 1985), pp. 303–317.
37
Curry W. B., Crowley T. J., Paleoceanography 2, 480 (1987);
Spero H. J., Bijma J., Lea D. W., Bemis B. E., Nature 390, 497 (1997).
38
Sowers T., Bender M., Raynaud D., Korotkevich Y. S., Orchardo J., Paleoceanography 6, 679 (1991).
39
Petit J. R., et al., Nature 399, 429 (1999).
40
Broecker W. S., Henderson G. M., Paleoceanography 13, 352 (1998).
41
Raymo M. E., Horowitz M., Geophys. Res. Lett. 23, 367 (1996).
42
Berger W. H., Naturwissenschaften 69, 87 (1982);
; W. S. Broecker, The Glacial World According to Wally (Lamont-Doherty Earth Observatory, Palisades, NY, 1995); D. A. Hodell and C. D. Charles, Eos 80 (17), S198 (1999).
43
Changes in atmospheric CO2 concentrations are undoubtedly important in the climate changes of Earth history, but probably as a feedback rather than as a direct forcing in many or most cases; our understanding of CO2-climate relations is evolving rapidly [
Pagani M., Arthur M. A., Freeman K. H., Paleoceanography 14, 273 (1999);
Pearson P. N., Palmer M. R., Science 284, 1824 (1999);
] and is beyond the scope of this review.
44
Bentley C. R., Science 275, 1077 (1997);
Oppenheimer M., Nature 393, 325 (1998).
45
Boulton G. S., Jones A. S., J. Glaciol. 24, 29 (1979).
46
Alley R. B., Blankenship D. D., Bentley C. R., Rooney S. T., Nature 322, 57 (1986).
47
MacAyeal D. R., Nature 359, 29 (1992).
48
___, Paleoceanography 8, 775 (1993).
49
Clark P. U., Quat. Res. 41, 19 (1994).
50
Anandakrishnan S., Blankenship D. D., Alley R. B., Stoffa P. L., Nature 394, 62 (1998);
Bell R. E., et al., Nature 394, 58 (1998).
51
Clark P. U., Pollard D., Paleoceanography 13, 1 (1998).
52
W. S. B. Paterson, The Physics of Glaciers (Pergamon, Tarrytown, NY, ed. 3, 1994); R. LeB. Hooke, Principles of Glacier Mechanics (Prentice-Hall, Upper Saddle River, NJ, 1998).
53
Boulton G. S., Hindmarsh R. C. A., J. Geophys. Res. 92, 9059 (1987).
54
B. Kamb, J. Geophys. Res. 96, 16, 585 (1991).
55
Hindmarsh R. C. A., Quat. Sci. Rev. 16, 1039 (1997).
56
Iverson N. R., et al., J. Glaciol. 44, 634 (1998).
57
N. R. Iverson, B. Hanson, R. Le
Hooke B., Jansson P., Science 267, 80 (1995);
Iverson N. R., J. Glaciol. 45, 41 (1999).
58
S. J. Marshall, L. Tarasov, G. K. C. Clarke, W. R. Peltier, Can J. Earth Sci., in press.
59
Hughes T. J., Rev. Geophys. 13, 502 (1975).
60
Blankenship D. D., Bentley C. R., Rooney S. T., Alley R. B., Nature 322, 54 (1986);
; S. Anandakrishnan and R. B. Alley, J. Geophys. Res.102, 15, 183 (1997).
61
Engelhardt H., Humphrey N., Kamb B., Fahnestock M., Science 248, 57 (1990).
62
S. J. Marshall, G. K. C. Clarke, A. S. Dyke, D. A. Fisher, J. Geophys. Res. 101, 17, 827 (1996).
63
Pisias N. G., Moore T. C., Earth Planet. Sci. Lett. 52, 450 (1981).
64
deMenocal P. B., Science 270, 53 (1995).
65
Williams D. F., et al., Science 278, 1114 (1997).
66
Clemens S. C., Murray D. W., Prell W. L., Science 274, 943 (1996).
67
Ding Z., Yu Z., Rutter N. W., Liu T., Quat. Sci. Rev. 13, 39 (1994).
68
J. Oerlemans, in Milankovitch and Climate, Part 2, A. L. Berger et al., Eds. (D. Reidel, Norwell, MA, 1984), pp. 607–611;
Saltzman B., Maasch K. A., Clim. Dyn. 5, 201 (1991);
Berger A., Li X. S., Loutre M. F., Quat. Sci. Rev. 18, 1 (1999).
69
Paillard D., Nature 391, 378 (1998).
70
DeBlonde G., Peltier W. R., J. Clim. 4, 318 (1991);
Mudelsee M., Schulz M., Earth Planet. Sci. Lett. 151, 117 (1997).
71
Muller and MacDonald [
Muller R. A., MacDonald G. J., Science 277, 215 (1997);
] argued that the origin of the 100-ky cycle involves non-Milankovitch changes in the Earth's orbital inclination, which caused the Earth to periodically pass through a cloud of interplanetary dust. Sedimentary records and calculations of dust flux, however, do not show large changes in extraterrestrial dust accretion [
Marcantonio F., et al., Nature 383, 705 (1996);
Marcantonio F., et al., Earth Planet. Sci. Lett. 170, 157 (1999);
Kortenkamp S. J., Dermott S. F., Science 280, 874 (1998);
], whereas spectral analyses of the marine δ18O record of global ice volume suggest that this mechanism is unnecessary [
Rial J. A., Science 285, 564 (1999);
Ridgwell A. J., Watson A. J., Raymo M. E., Paleoceanography 14, 437 (1999)].
72
Broecker W. S., van Donk J., Rev. Geophys. Space Phys. 8, 169 (1970).
73
Hyde W. T., Peltier W. R., J. Atmos. Sci. 42, 2170 (1985).
74
Tarasov L., Peltier W. R., J. Geophys. Res. 104, 9517 (1999).
75
J. Mangerud, in Quaternary Landscapes, L. K.C. Shane and E. J. Cushing, Eds. (Univ. of Minnesota Press, Minneapolis, 1991), pp. 38–75;
Clark P. U., et al., Quat. Sci. Rev. 12, 79 (1993).
76
Peltier W. R., Rev. Geophys. 36, 603 (1998).
77
S. J. Marshall, thesis, University of British Columbia (1996).
78
Broecker W. S., Paleoceanography 13, 119 (1998).
79
R. B. Alley, P. U. Clark, L. D. Keigwin, R. S. Webb, in Mechanisms of Global Climate Change at Millennial Time Scales, P. U. Clark, R. S. Webb, L. D. Keigwin, Eds. (AGU, Washington, DC, 1999), pp. 385–394.
80
Broecker W. S., et al., Nature 341, 318 (1989);
Clark P. U., et al., Paleoceanography 11, 563 (1996);
Barber D. C., et al., Nature 400, 344 (1999);
; J. M. Licciardi, J. T. Teller, P. U. Clark, in Mechanisms of Global Climate Change at Millennial Time Scales, P. U. Clark, R. S. Webb, L. D. Keigwin, Eds. (AGU, Washington, DC, 1999), pp. 177–200; S. J. Marshall and G. K. C. Clarke, Quat. Res., in press.
81
M. A. Cane and A. C. Clement, in Mechanisms of Global Climate Change at Millennial Time Scales, P. U. Clark, R. S. Webb, L. D. Keigwin, Eds. (AGU, Washington, DC, 1999), pp. 373–384.
82
Keigwin L. D., Lehman S. J., Paleoceanography 9, 185 (1994);
; W. B. Curry, T. M. Marchitto, J. F. McManus, D. W. Oppo, K. L. Laarkamp, in Mechanisms of Global Climate Change at Millennial Time Scales, P. U. Clark, R. S. Webb, L. D. Keigwin, Eds. (AGU, Washington, DC, 1999), pp. 59–76.
83
Marshall S. J., Clarke G. K. C., J. Geophys. Res. 102, 17827 (1997).
84
Members COHMAP, Science 241, 1043 (1988);
; S. Pinot et al., Clim. Dyn., in press.
85
Bard E., Science 284, 1133 (1999).
86
Peltier W. R., Science 265, 195 (1994).
87
Lambeck K., Smither C., Johnston P., Geophys. J. Int. 134, 102 (1998).
88
CLIMAP Project Members, Geol. Soc. Am. Map Chart Ser. 36 (1981).
89
P. Huybrechts and S. T'Siobbel, Ann. Glaciol.25, 333 (1997).
90
Alley R. B., J. Glaciol. 38, 245 (1992).
91
Thomas R. H., J. Glaciol. 12, 55 (1973);
Jezek K. C., Alley R. B., Thomas R. H., Science 227, 1335 (1985).
92
Boulton G. S., Smith G. D., Jones A. S., Newsome J., J. Geol. Soc. London 142, 447 (1985).
93
Fisher D. A., Reeh N., Langley K., Geophys. Phys. Quat. 39, 229 (1985).
94
Clark P. U., Licciardi J. M., MacAyeal D. R., Jenson J. W., Geology 24, 679 (1996).
95
Licciardi J. M., Clark P. U., Jenson J. W., MacAyeal D. R., Quat. Sci. Rev. 17, 427 (1998).
96
Mitrovica J. X., Davis J. L., Earth Planet. Sci. Lett. 136, 343 (1995);
Davis J. L., Mitrovica J. X., Nature 379, 331 (1996).
97
Pisias N. G., Mix A. C., Paleoceanography 12, 381 (1997);
Harris S. E., Mix A. C., Quat. Res. 51, 14 (1999).
98
Genthon C., et al., Nature 329, 414 (1987);
Colman S. M., et al., Nature 378, 769 (1995);
Morley J. J., Heusser L. E., Paleoceanography 12, 483 (1997).
99
Grootes P. M., Stuiver M., White J. W. C., Johnsen S. J., Jouzel J., Nature 366, 552 (1993).
100
Cuffey K. M., et al., Science 270, 455 (1995);
Severinghaus J. P., Sowers T., Brook E. J., Alley R. B., Bender M. L., Nature 393, 141 (1998).
101
Berger A., Loutre M. F., Quat. Sci. Rev. 10, 297 (1991).
102
Schulz H., von Rad U., Erlenkeuser H., Nature 393, 54 (1998).
103
Little M. G., et al., Paleoceanography 12, 568 (1997).
104
Johnsen S. J., Dansgaard W., Clausen H. B., Langway C. C., Nature 235, 429 (1972).
105
E. J. Brook, personal communication.
106
Blunier T., et al., Nature 394, 739 (1998).
107
Brook E. J., Sowers T., Orchardo J., Science 273, 1087 (1996).
108
G. K. C. Clarke et al., in Mechanisms of Global Climate Change at Millennial Time Scales, P. U. Clark, R. S. Webb, L. D. Keigwin, Eds. (AGU, Washington, DC, 1999), pp. 243–262.
109
Sowers T., Bender M., Science 269, 210 (1995).
110
Fleming K., et al., Earth Planet. Sci. Lett. 163, 327 (1998).
111
Berger A., Quat. Res. 9, 139 (1978).
112
Evolutive spectral analyses were calculated by using fast Fourier transform, and spectra were smoothed with a Hanning filter with a half-filter with five spectral estimates. Time series were interpolated to a constant sampling interval and then normalized to a mean zero and a standard deviation of one. Sampling interval was 1 ky for (Fig. 7A) and (Fig. 7D), 2 ky for (Fig. 7E), and 4 ky for (Fig. 7B, C, and F). Every spectrum was calculated with a record length of 1 My with a 100-ky offset. Each 1-My long segment was linearly detrended. Spectra are plotted at the midpoint of each interval, with the first 100-ky interval beginning at 500 ka. Spectral estimates have 15 degrees of freedom. 113. B. K. Linsley, Nature 380, 234 (1996).
113
Chappell J., Shackleton N. J., Nature 324, 137 (1986);
Chappell J., et al., Earth Planet. Sci. Lett. 141, 227 (1996).
114
Bard E., Hamelin B., Fairbanks R. G., Nature 346, 456 (1990).
115
We thank T. Blunier, E. Brook, S. Clemens, P. deMenocal, K. Fleming, B. Linsley, A. Mix, J. Peck, H. Schulz, and D. Williams for providing data; P. Bartlein, J. Clark, S. Hostetler, J. Jenson, S. Marshall, D. MacAyeal, A. Mix, and N. Pisias for discussions; P. Bartlein, S. Hostetler, A. Mix, and two external reviewers for reviews; and P. Bartlein, S. Marshall, A. Mix, and N. Pisias for preparing figures. Supported by grants from the Earth System History program (R.B.A., P.U.C., D.P.) and the Office of Polar Programs (R.B.A.) of the NSF.
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