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Mountain glacier velocity variation during a retreat/advance cycle quantified using sub-pixel analysis of ASTER images

  • Frédéric Herman (a1), Brian Anderson (a2) and Sébastien Leprince (a3)


Coverage of ice velocities in the central part of the Southern Alps, New Zealand, is obtained from feature tracking using repeat optical imagery in 2002 and 2006. Precise orthorectification, co-registration and correlation is carried out using the freely available software COSI-Corr. This analysis, combined with short times between image acquisitions, has enabled velocities to be captured even in the accumulation areas, where velocities are lowest and surface features ephemeral. The results indicate large velocities for mountain glaciers (i.e. up to ∼5 m d−1) as well as dynamic changes in some glaciers that have occurred between 2002 and 2006. For the steep and more responsive Fox and Franz Josef Glaciers the speed increased at the glacier snout during the advance period, while the low-angled and debris-covered Tasman Glacier showed no measurable velocity change. Velocity increases on the steeper glaciers are the result of an observed thickening and steepening of the glacier tongues as they moved from a retreat phase in 2002 to an advance phase in 2006. This contrasting behaviour is consistent with historic terminus position changes. The steeper glaciers have undergone several advance/retreat cycles during the observation period (1894 to present), while the low-angled glacier showed little terminus response until retreat resulting from the accelerating growth of a proglacial lake commenced in 1983.

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Anderson, B. 2003. The response of Ka Roimata o Hine Hukatere Franz Josef Glacier to climate change. (PhD thesis, University of Canterbury.)
Anderson, B., Lawson, W., Owens, I. and Goodsell, B.. 2006. Past and future mass balance of ‘Ka Roimata o Hine Hukatere’ Franz Josef Glacier, New Zealand. J. Glaciol., 52(179), 597607.
Berthier, E. and 7 others. 2005. Surface motion of mountain glaciers derived from satellite optical imagery. Remote Sens. Environ., 95(1), 1428.
Bindschadler, R. 1983. The importance of pressurized subglacial water in separation and sliding at the glacier bed. J. Glaciol., 29(101), 319.
Chinn, T.J. 1969. Snow survey techniques, Waitaki catchment, South Canterbury. J. Hydrol. (NZ), 8(2), 6876.
Chinn, T.J. 1996. New Zealand glacier responses to climate change of the past century. New Zeal. J. Geol. Geophys., 39(3),415428.
Chinn, T.J. 1999. New Zealand glacier response to climate change of the past 2 decades. Global Planet. Change, 22(1–4), 155168.
Chinn, T.J. 2001. Distribution of the glacial water resources of New Zealand. J. Hydrol. (NZ), 40(2),139187.
Fowler, A.C. 1986. A sliding law for glaciers of constant viscosity in the presence of subglacial cavitation. Proc. R. Soc. London, Ser. A, 407(1832), 147170.
Gagliardini, O., Cohen, D., Råback, P. and Zwinger, T.. 2007. Finite-element modeling of subglacial cavities and related friction law. J. Geophys. Res., 112(F2), F02027. (10.1029/2006JF000576.)
Haeberli, W., Maisch, M. and Paul, F.. 2002. Mountain glaciers in global climate-related observation networks. WMO Bull., 51(1), 1825.
Henderson, R.D. and Thompson, S.M.. 1999. Extreme rainfalls in the Southern Alps of New Zealand. J. Hydrol. (NZ), 38(2), 309330.
Hoelzle, M., Chinn, T., Stumm, D., Paul, F. and Haeberli, W.. 2007. The application of glacier inventory data for estimating past climate change effects on mountain glaciers: a comparison between the European Alps and the Southern Alps of New Zealand. Global Planet. Change, 56(1–2), 6982.
Iken, A. and Bindschadler, R.A.. 1986. Combined measurements of subglacial water pressure and surface velocity of Findelengletscher, Switzerland: conclusions about drainage system and sliding mechanism. J. Glaciol., 32(110), 101119.
Jóhannesson, T., Raymond, C. and Waddington, E.. 1989. Time scale for adjustment of glaciers to changes in mass balance. J. Glaciol., 35(121), 355369.
Kääb, A. 2002. Monitoring high-mountain terrain deformation from repeated air- and spaceborne optical data: examples using digital aerial imagery and ASTER data. ISPRS J. Photogramm. Remote Sens., 57(1–2), 3952.
Kääb, A. 2005. Combination of SRTM3 and repeat ASTER data for deriving alpine glacier flow velocities in the Bhutan Himalaya. Remote Sens. Environ., 94(4), 463474.
Kirkbride, M.P. 1989. The influence of sediment budget on geomorphic activity of the Tasman Glacier, Mount Cook National Park, New Zealand. (PhD thesis, University of Canterbury.)
Kirkbride, M.P. and Warren, C.R.. 1999. Tasman Glacier, New Zealand: 20th-century thinning and predicted calving retreat. Global Planet. Change, 22(1–4), 1128.
Le Meur, E. and Vincent, C.. 2003. A two-dimensional shallow ice-flow model of Glacier de Saint-Sorlin, France. J. Glaciol., 49(167), 527538.
Leprince, S., Barbot, S., Ayoub, F. and Avouac, J.-P.. 2007a. Automatic and precise orthorectification, coregistration, and subpixel correlation of satellite images, application to ground deformation measurements. IEEE Trans. Geosci. Remote Sens., 45(6), 15291558.
Leprince, S., Ayoub, F., Klinger, Y. and Avouac, J.-P.. 2007b. Co-registration of optically sensed images and correlation (COSI-Corr): an operational methodology for ground deformation measurements. In IGARSS’07. Proceedings of the International Geoscience and Remote Sensing Symposium, 23–28 July, Barcelona, Spain. Piscataway, NJ, Institute of Electrical and Electronics Engineers, 19431946.
Leprince, S., Berthier, E., Ayoub, F., Delacourt, C. and Avouac, J.-P.. 2008. Monitoring earth surface dynamics with optical imagery. Eos, 89(1). (10.1029/2008EO010001.)
Lliboutry, L. 1968. General theory of subglacial cavitation and sliding of temperate glaciers. J. Glaciol., 7(49), 2158.
Lliboutry, L. 1987. Realistic, yet simple bottom boundary conditions for glaciers and ice sheets. J. Geophys. Res., 92(B9), 91019109.
Lliboutry, L. and Reynaud, L.. 1981. ‘Global dynamics’ of a temperate valley glacier, Mer de Glace, and past velocities deduced from Forbes’ bands. J. Glaciol., 27(96), 207226.
Luckman, A., Quincey, D.J. and Bevan, S.. 2007. The potential of satellite radar interferometry and feature tracking for monitoring flow rates of Himalayan glaciers. Remote Sens. Environ., 111(2–3), 172181.
Meier, M.F. and 7 others. 2007. Glaciers dominate eustatic sea-level rise in the 21st century. Science, 317(5841), 10641067.
Meikle, H.D. 2008. Modern radar systems. Norwood, MA, Artech House.
Necsoiu, M., Leprince, S., Hooper, D.M., Dinwiddie, C.L., McGinnis, R.N. and Walter, G.R.. 2009. Monitoring migration rates of an active subarctic dune field using optical imagery. Remote Sens. Environ., 113(11), 24412447.
Oerlemans, J. 2005. Extracting a climate signal from 169 glacier records. Science, 308(5722), 675677.
Oerlemans, J. and Fortuin, J.P.F.. 1992. Sensitivity of glaciers and small ice caps to greenhouse warming. Science, 258(5079), 115117.
Paterson, W.S.B. 1994. The physics of glaciers. Third edition. Oxford, etc., Elsevier.
Pattyn, F. 1996. Numerical modelling of a fast-flowing outlet glacier: experiments with different basal conditions. Ann. Glaciol., 23, 237246.
Purdie, J. and Fitzharris, B.. 1999. Processes and rates of ice loss at the terminus of Tasman Glacier, New Zealand. Global Planet. Change, 22(1–4), 7991.
Purdie, H.L., Brook, M.S. and Fuller, I.C.. 2008. Seasonal variation in ablation and surface velocity on a temperate maritime glacier: Fox Glacier, New Zealand. Arct. Antarct. Alp. Res., 40(1), 140147.
Purdie, H., Anderson, B., Lawson, W. and Mackintosh, A.. In press. Controls on spatial variability in snow accumulation on glaciers in the Southern Alps, New Zealand; as revealed by crevasse stratigraphy. Hydrol. Process., 25(1). (10.1002/hyp.7816.)
Quincey, D.J. and Glasser, N.F.. 2009. Morphological and ice-dynamical changes on the Tasman Glacier, New Zealand, 1990–2007. Global Planet. Change, 68(3), 185197.
Rignot, E. and Kanagaratnam, P.. 2006. Changes in the velocity structure of the Greenland Ice Sheet. Science, 311(5673), 986990.
Röhl, K. 2008. Characteristics and evolution of supraglacial ponds on debris-covered Tasman Glacier, New Zealand. J. Glaciol., 54(188), 867880.
Schaefer, J.M. and 10 others. 2009. High-frequency Holocene glacier fluctuations in New Zealand differ from the northern signature. Science, 3234(5927), 622625.
Scherler, D., Leprince, S. and Strecker, M.R.. 2008. Glacier-surface velocities in alpine terrain from optical satellite imagery: accuracy improvement and quality assessment. Remote Sens. Environ., 112(10), 38063819.
Schoof, C. 2005. The effect of cavitation on glacier sliding. Proc. R. Soc. London, Ser. A, 461(2055), 609627.
Span, N. and Kuhn, M.. 2003. Simulating annual glacier flow with a linear reservoir model. J. Geophys. Res., 108(D10), 4313. (10.1029/2002JD002828.)
Span, N., Kuhn, M. and Schneider, H.. 1997. 100 years of ice dynamics of Hintereisferner, central Alps, Austria, 1894–1994. Ann. Glaciol., 24, 297302.
Teshima, Y. and Iwasaki, A.. 2008. Correction of attitude fluctuation of Terra spacecraft using ASTER/SWIR imagery with parallax observation. IEEE Trans. Geosci. Remote Sens., 46(1), 222227.
Van der Veen, C.J. 1987. Longitudinal stresses and basal sliding: a comparative study. In Van der Veen, C.J. and Oerlemans, J., eds. Dynamics of the West Antarctic ice sheet. Dordrecht, etc., D. Reidel, 223248.
Vincent, C., Vallon, M., Reynaud, L. and Meur, E.L.. 2000. Dynamic behaviour analysis of glacier de Saint Sorlin, France, from 40 years of observations, 1957–97. J. Glaciol., 46(154),499506.
Vincent, C., Soruco, A., Six, D. and Le Meur, E.. 2009. Glacier thickening and decay analysis from 50 years of glaciological observations performed on Glacier d’Argentière, Mont Blanc area, France. Ann. Glaciol., 50(50), 7379.


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