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Climatic factors influencing occurrence of debris flows

  • Gerald F. Wieczorek
  • Thomas Glade
Part of the Springer Praxis Books book series (PRAXIS)

Keywords

River Basin Soil Water Debris Flow Water Status Climatic Factor 
These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.

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14.8 References

  1. Arattano, M., Deganutti, A.M., and Marchi, L. (1997) Debris flow monitoring activities in an instrumented watershed on the Italian Alps. In: C-L. Chen. (ed.), Proceedings of the 1st International Conference on Debris-flow Hazards Mitigation: Mechanics, Prediction, and Assessment, San Francisco, CA (pp. 506–515). American Society of Civil Engineers, New York.Google Scholar
  2. Bacchini, M. and Zannoni, A. (2003) Relations between rainfall and triggering of debris-flow: Case study of Cancia (Dolomites, Northeastern Italy). Natural Hazards and Earth System Sciences, 3(1/2), 71–79.Google Scholar
  3. Ballantyne, C.K. (2002) Debris flow activity in the Scottish Highlands: Temporal trends and wider implications for dating. Studia Geomorphologica Carpatho-Balcanica, XXXVI, 7–28.Google Scholar
  4. Baum, R.L., Savage, W.Z., and Godt, J.W. (2002) TRIGRS A Fortran Program for Transient Rainfall Infiltration and Grid-based Regional Slope-Stability Analysis (USGS Open-File Report 02-424). US Geological Survey, Reston, VA. Available at http://pubs.usgs.gov/of/2002/ofr-02-424/ Google Scholar
  5. Belaya, N.L. (2003) Distribution model for periods of debris-flow danger: In: D. Rickenmann and C-L. Chen (eds), Debris-flow Hazards Mitigation: Mechanics, Prediction, and Assessment: Proceedings of the 3rd International Conference, Davos, Switzerland, September 10–12 (pp. 59–70). Millpress, Rotterdam.Google Scholar
  6. Bonomi, T. and Cavallin, A. (1999) Three-dimensional hydrogeological modelling application to the Alvera mudslide (Cortina d’Ampezzo, Italy). Geomorphology, 30(1/2), 189–199.Google Scholar
  7. Brand, E.W. (1985) Predicting the performance of residual soil slopes (Theme lecture). Proceedings of the 11th International Conference on Soil Mechanics and Foundation Engineering, San Francisco (Vol. 5, pp. 2541–2578). Norges Geotekniske Institutt, Oslo.Google Scholar
  8. Brand, E.W. (1988) Landslides risk assessment in Hong Kong. In: C. Bonnard (ed.), Proceedings 5th International Symposium on Landslides, Lausanne (Vol. 1, pp. 1059–1074). A.A. Balkema, Rotterdam.Google Scholar
  9. Brand, E.W. (1989) Occurrence and significance of landslides in Southeast Asia. In: E.E. Brabb and B.L. Harrod (eds), Landslides: Extent and Economic Significance (pp. 303–324). A.A. Balkema, Rotterdam.Google Scholar
  10. Brand, E.W., Premchitt, J., and Phillipson, H.B. (1984) Relationship between rainfall and landslides in Hong Kong. In: Canadian Geotechnical Society (ed.), Proceedings of the 4th International Symposium on Landslides (Vol. 1, pp. 377–384). University of Toronto Press.Google Scholar
  11. Caine, N. (1980) The rainfall intensity-duration control of shallow landslides and debris flows. Geografiska Annaler, 62A, 23–27.Google Scholar
  12. Campbell, R.H. (1975) Soil Slips, Debris Flows, and Rainstorms in the Santa Monica Mountains and Vicinity, Southern California (USGS Professional Paper 851, 51 pp.). US Geological Survey, Reston, VA.Google Scholar
  13. Cancelli, A. and Nova, R. (1985) Landslides in soil debris cover triggered by rainstorms in Valtellina (central Alps, Italy). Proceedings of 4th International Conference on Landslides (pp. 267–272). Japanese Landslide Society, Tokyo.Google Scholar
  14. Cannon, S.H. (1988) Regional rainfall-threshold conditions for abundant debris-flow activity. In: S.D. Ellen and G.F. Wieczorek (eds), Landslides, Floods, and Marine Effects of the January 3–5, 1982, Storm in the San Francisco Bay Region, California (USGS Professional Paper 1434, pp. 35–42). US Geological Survey, Reston, VA.Google Scholar
  15. Cannon, S.H. and Ellen, S. (1985) Rainfall conditions for abundant debris avalanches in the San Francisco Bay region, California. California Geology, 38(12), 267–272.Google Scholar
  16. Cannon, S.H. and Ellen, S. (1988) Rainfall that resulted in abundant debris-flow activity during the storm: In: S.D. Ellen and G.F. Wieczorek (eds), Landslides, Floods, and Marine Effects of the January 3–5, 1982, Storm in the San Francisco Bay Region, California (USGS Professional Paper 1434, pp. 27–34). US Geological Survey, Reston, VA.Google Scholar
  17. Ceriani, M., Lauzi S., and Padovan, N. (1992) Rainfalls and landslides in the Alpine area of Lombardia Region, Central Alps Italy. Proceedings of the International Symposium “Interpraevent”, Bern (Vol. 2, pp. 9–20). International Forschungsgesellschaft Inter-praevent, Klagenfurt, Austria.Google Scholar
  18. Chan, R.K.S., Pang, P.L.R., and Pun, W.K. (2003) Recent developments in the Landslip Warning System in Hong Kong. In: K.K.S. Ho and K.S. Li (eds), Geotechnical Engineering — Meeting Society’s Needs: Proceedings of the 14th Southeast Asian Geotechnical Conference, December 10–14, 2001, Hong Kong (pp. 219–224). A.A. Balkema, Rotterdam.Google Scholar
  19. Chang, S.Y. (2003) Evaluation of a system for detecting debris flows and warning road traffic at bridges susceptible to debris-flow hazard. In: D. Rickenmann and C-L. Chen (eds), Debris-flow Hazards Mitigation: Mechanics, Prediction, and Assessment: Proceedings of the 3rd International Conference, Davos, Switzerland, September 10–12 (pp. 731–742). Millpress, Rotterdam.Google Scholar
  20. Chirico, G.B., Claps, P., Rossi, F., and Villani, P. (2000) Hydrologic conditions leading to debris-flow initiation in the Campanian volcanoclastic soils. In: P. Claps and F. Siccardi (eds), Mediterranean Storms: Proceedings of the EGS Plinius Conference, Maratea, Italy, October 14–16, 1999 (pp. 473–484). Editoriale Bios, Cosenza, Italy.Google Scholar
  21. Chleborad, A.F. (1997) Temperature, Snowmelt, and the Onset of Spring Season Landslides in the Central Rocky Mountains (USGS Open-File Report 97-27, 35 pp.). US Geological Survey, Reston, VA.Google Scholar
  22. Chleborad, A.F. (1998) Use of Air Temperature Data to Anticipate the Onset of Snowmelt-season Landslides (USGS Open-File Report 98-0124). US Geological Survey, Reston, VA. Available at http://pubs.usgs.gov/of/1998/ofr-98-0124/ Google Scholar
  23. Chleborad, A.F. (2000) Preliminary Method for Anticipating the Occurrence of Precipitation-induced Landslides in Seattle, Washington (USGS Open-File Report 00-0469). US Geological Survey, Reston, VA. Available at http://pubs.usgs.gov/of/2000/ofr-00-0469/ Google Scholar
  24. Chleborad, A.F. (2003) Preliminary Evaluation of a Precipitation Threshold for Anticipating the Occurrence of Landslides in the Seattle, Washington, Area (USGS Open-File Report 03-463). US Geological Survey, Reston, VA. Available at http://pubs.usgs.gov/of/2003/ofr-03-463/ Google Scholar
  25. Chleborad, A.F., Ellis, W.L., and Kibler, D. (1997) Results of Site Investigation and Instrumentation of the Keno Gulch Landslide/Debris-flow Source Area, Aspen, Colorado (USGS Open-File Report 97-717, 17 pp.). US Geological Survey, Reston, VA.Google Scholar
  26. Chowdhury, R. and Flentje, P. (2002) Uncertainties in rainfall-induced landslide hazard. Quarterly Journal of Engineering Geology and Hydrogeology, 35, 61–69.Google Scholar
  27. Church, M., and Miles, M.J. (1987) Meteorological antecedents to debris flow in southwestern British Columbia: Some case studies. In: J.E. Costa and G.F. Wieczorek (eds), Debris Flows/Avalanches: Process, Recognition and Mitigation (Reviews in Engineering Geology, Vol. 7, pp. 63–80). Geological Society of America, Boulder, CO.Google Scholar
  28. Corominas, J. and Moya, J. (1999) Reconstructing recent landslide activity in relation to rainfall in the Llobregat River basin, Eastern Pyrenees, Spain. Geomorphology, 30(1/2), 79–93.Google Scholar
  29. Crook, A.G. (1983) The SNOTEL data acquisition system, and its use in mitigation of natural hazards. Proceedings of the International Technical Conference on Mitigation of Natural Hazards through Real-time Data Collection Systems and Hydrologic Forecasting (83 pp.). World Meteorological Organization, US National Oceanic and Atmospheric Adminstration, and California Department of Water Resources.Google Scholar
  30. Crosta, G. (1998) Regionalization of rainfall thresholds: An aid to landslide hazard evaluation. Environmental Geology, 35(2/3), 131–145.Google Scholar
  31. Crosta, G.B. and Frattini, P. (2000) Rainfall thresholds for triggering soil slips and debris flow. In: A. Mugnai, F. Guzzetti, and G. Roth (eds), Mediterranean Storms: Proceedings of the EGS 2nd Plinius Conference, Siena, Italy, October 16–18 (pp. 463–487). Tipolito-grafia Grifo, Perugia, Italy.Google Scholar
  32. Crosta, G.B. and Frattini, P. (2003) Distributed modeling of shallow landslides triggered by intense rainfall. Natural Hazards and Earth System Sciences, 3(1/2), 81–93.Google Scholar
  33. Crozier, M.J. (1989) Landslides: Causes, Consequences and Environment. Routledge, London.Google Scholar
  34. Crozier, M.J. (1997) The climate-landslide couple: A southern hemisphere perspective. In: J.A. Matthews, D. Brunsden, B. Frenzel, B. Gläser, and M.M. Weiß (eds), Rapid Mass Movement as a Source of Climatic Evidence for the Holocene: Palaeoclimate Research (Vol. 19, pp. 333–354). Gustav Fischer Verlag, Stuttgart.Google Scholar
  35. Crozier, M.J. (1999) Prediction of rainfall-triggered landslides: A test of the antecedent water status model. Earth Surface Processes and Landforms, 24(9), 825–833.Google Scholar
  36. Crozier, M.J. and Eyles, R.J. (1980) Assessing the probability of rapid mass movement. In: Technical Groups (eds), Proceedings of 3rd Australia—New Zealand Conference on Geomechanics, Wellington (Vol. 6, pp. 2.47–2.51). New Zealand Institution of Engineers, Wellington.Google Scholar
  37. Crozier, M.J. and Glade, T. (1999) Frequency and magnitude of landsliding: Fundamental research issues. Zeitschriftfuir Geomorphologie N.F., Suppl., 115, 141–155.Google Scholar
  38. Cuesta, M.J.D., Sanchez, M.J., and Garcia, A.R. (1999) Press archives as temporal records of landslides in the North of Spain: Relationships between rainfall and instability slope events. Geomorphology, 30(1/2), 125–132.Google Scholar
  39. De Campos, T.M.P., De N. Andrade, M.H., Gescovich, D.M.S., and Jargas, E.A., Jr (1994) Analysis of the failure of an unsaturated gneissic residual soil slope in Rio de Janeiro, Brazil. Proceedings of the 1st Panamerican Symposium on Landslides, Guayaquil, Ecuador (Vol. 1, pp. 201–213). Sociedad Ecuatoriana de Mecanica de Suelos y Rocas, Guayaquil, Ecuador.Google Scholar
  40. Deganutti, A.M., Marchi, L., and Arattano, M. (2000) Rainfall and debris-flow occurrence in the Moscardo basin (Italian Alps). In: G.F. Wieczorek and N.D. Naeser (eds), Debris-flow Hazards Mitigation: Mechanics, Prediction, and Assessment: Proceedings of the 2nd International Conference, Taipei, Taiwan, August 16–18 (pp. 67–72). A.A. Balkema, Rotterdam.Google Scholar
  41. Dehn, M. and Buma, J. (1999) Modelling future landslide activity based on general circulation models. Geomorphology, 30(1/2), 175–187.Google Scholar
  42. Dikau, R. and Jäger, S. (1995) Landslide hazard modelling in New Mexico and Germany. In: D.F.M. McGregor and D.A. Thompson (eds), Geomorphology and Land Management in a Changing Environment (pp. 51–68). John Wiley & Sons, Chichester, UK.Google Scholar
  43. Ellen, S.D. and Wieczorek, G.F. (eds) (1988) Landslides, Floods, and Marine Effects of the Storm of January 3–5, 1982, in the San Francisco Bay Region, California (USGS Professional Paper 1434, 310 pp.). US Geological Survey, Reston, VA.Google Scholar
  44. Evans, S.G. and Clague, J.J. (1994) Recent climatic change and catastrophic geomorphic processes in mountain environments. Geomorphology, 10, 107–128.Google Scholar
  45. Eyles, R.J. (1979) Slip-triggering rainfalls in Wellington City, New Zealand. New Zealand Journal of Science, 22(2), 117–121.Google Scholar
  46. Eyles, R.J. and Eyles, G.O. (1981) Recognition of storm damage events. Proceedings of lth New Zealand Geography Conference, Wellington (pp. 118–123). New Zealand Geographical Society, Wellington.Google Scholar
  47. Eyles, R.J., Crozier, M.J., and Wheeler, R.H. (1978) Landslips in Wellington City. New Zealand Geographer, 34(2), 58–74.Google Scholar
  48. Fan, J.C., Liu, C.H., Wu, M.J., and Yu, S.K. (2003) Determination of critical rainfall thresholds for debris flow occurrence in central Taiwan and their revision after the 1999 Chi-Chi great earthquake. In: D. Rickenmann and C-L. Chen (eds), Debris-flow Hazards Mitigation: Mechanics, Prediction, and Assessment: Proceedings of the 3rd International Conference, Davos, Switzerland, September 10–12 (pp. 103–114). Millpress, Rotterdam.Google Scholar
  49. Flageollet, J.C., Maquaire, O., Martin, B., and Weber, D. (1999) Landslides and climatic conditions in the Barcelonnette and Vars basins (Southern French Alps, France). Geomorphology, 30(1/2), 65–78.Google Scholar
  50. Gerrard, A.J. and Gardner, R.A.M. (2000) Relationships between rainfall and landsliding in the Middle Hills, Nepal. Norsk Geografisk Tidsskrift, 54, 74–81.Google Scholar
  51. Glade, T. (1997) The temporal and spatial occurrence of rainstorm-triggered landslide events in New Zealand (380 pp.). PhD thesis, Victoria University of Wellington.Google Scholar
  52. Glade, T. (1998) Establishing the frequency and magnitude of landslide-triggering rainstorm events in New Zealand. Environmental Geology, 35(2/3), 160–174.Google Scholar
  53. Glade, T. (2000a) Modeling landslide-triggering rainfalls in different regions in New Zealand: The soil water status model. Zeitschrift für Geomorphologie, 122, 63–84.Google Scholar
  54. Glade, T. (2000b) Modeling landslide triggering rainfall thresholds at a range of complexities. In: E. Bromhead, N. Dixon and M.-L. Ibsen (eds), Landslides in Research, Theory and Practice (Vol. 2, pp. 633–640). Thomas Telford, London.Google Scholar
  55. Glade, T., Crozier, M.J. and Smith, P. (2000) Applying probability determination to refine landslide-triggering rainfall thresholds using an empirical “Antecedent Daily Rainfall Model”. Pure and Applied Geophysics, 157(6/8), 1059–1079.Google Scholar
  56. Glade, T., Kadereit, A., and Dikau, R. (2001) Landslides at the Tertiary escarpment of Rheinhessen, southwest Germany. Zeitschrift für Geomorphologie, Suppl., 125, 65–92.Google Scholar
  57. Gonzalez-Diéz, A., Remondo, J., de Teran, J.R.D. and Cendrero, A. (1999) A methodological approach for the analysis of the temporal occurrence and triggering factors of landslides. Geomorphology, 30(1/2), 95–113.Google Scholar
  58. Govi, M. and Sorzana, P.F. (1980) Landslide susceptibility as a function of critical rainfall amount in Piedmont Basin (north-western Italy). Studia Geomorphologica Carpatho-Balcanica, Krakow, 14, 43–61.Google Scholar
  59. Govi, M., Mortara, G., and Sorzana, P. (1985) Eventi idrologici e frane. Geologia Applicata e Idrogeologia, Universitd Bari, 20, 359–375.Google Scholar
  60. Grunert, J. and Hardenbicker, U. (1997) The frequency of landsliding in the north Rhine area and possible climatic implications. In: J.A. Matthews, D. Brunsden, B. Frenzel, B. Gläser and M.M. Weiß (eds), Rapid Mass Movement as a Source of Climatic Evidence for the Holocene: Palaeoclimate Research (Vol. 12, pp. 159–170). Gustav Fischer Verlag, Stuttgart.Google Scholar
  61. Hanson, A., Brimicombe, A.J., Franks, C.A.M., Kirk, P.A., and Tung, F. (1995) Application of GIS to hazard assessment, with particular reference to landslides in Hong Kong. In: A. Carrara and F. Guzzetti (eds), Geographical Information Systems in Assessing Natural Hazards (pp. 273 298). Kluwer Academic, Dordrecht, The Netherlands.Google Scholar
  62. Hardenbicker, U. and Grunert, J. (2001) Temporal occurrence of mass movements in the Bonn area. Zeitschrift für Geomorphologie, Suppl., 125, 13–24.Google Scholar
  63. Horton, R.E. (1938) Phenomena of the contact zone between the ground surface and a layer of melting snow. Association Internationale d’Hydrologie Scientifique, Paris, 244, 545–561.Google Scholar
  64. Ibsen, M.L. and Brunsden, D. (1997) Mass movement and climatic variation on the south coast of Great Britain. In: J.A. Matthews, D. Brunsden, B. Frenzel, B. Gläser and M.M. Weiß (eds), Rapid Mass Movement as a Source of Climatic Evidence for the Holocene: Palaeoclimate Research (Vol. 12, pp. 171–182). Gustav Fischer Verlag, Stuttgart.Google Scholar
  65. Iiritano, G., Versace, P. and Sirangelo, B. (1998) Real-time estimation of hazard for landslides triggered by rainfall. Environmental Geology, 35(2/3), 175–183.Google Scholar
  66. Innes, J.L. (1983) Debris flows. Progress in Physical Geography, 7, 469–501.Google Scholar
  67. Innes, J.L. (1997) Historical debris-flow activity and climate in Scotland. In: J.A. Matthews, D. Brunsden, B. Frenzel, B. Gläser and M.M. Weiß (eds), Rapid Mass Movement as a Source of Climatic Evidence for the Holocene: Palaeoclimate Research (Vol. 12, pp. 233–240). Gustav Fischer Verlag, Stuttgart.Google Scholar
  68. Iverson, R.M. (2000) Landslide triggering by rain infiltration. Water Resources Research, 36(7), 1897–1910.Google Scholar
  69. Jäger, S. and Dikau, R. (1994) The temporal occurrence of landslides in South Germany. In: R. Casale, R. Fantechi, and J.C. Flageollet (eds), Temporal Occurrence and Forecasting of Landslides in the European Community (Vol. 1, pp. 509–564). EU, Brussels.Google Scholar
  70. Jakob, M. and Weatherly, H. (2003) A hydroclimatic threshold for landslide initiation on the North Shore Mountains of Vancouver, British Columbia. Geomorphology, 54(3–4), 137–156.Google Scholar
  71. Jakob, M., McKendry, I., and Lee, R. (2004) Changes in rainfall intensity in the Greater Vancouver Regional District, British Columbia. Canadian Water Resources Journal, 28(4), 587–604.Google Scholar
  72. Jibson, R.W. (1989) Debris flows in southern Puerto Rico. In: A.P. Schultz and R.W. Jibson (eds), Landslide Processes of the Eastern United States and Puerto Rico (Special Paper 236, pp. 29–55). Geological Society of America, Boulder, CO.Google Scholar
  73. Johnson, K.A. and Sitar, N. (1990) Hydrologic conditions leading to debris flow initiation. Canadian Geotechnical Journal, 27(6), 789–801.Google Scholar
  74. Kaibori, M., Kuwada, S., and Umeki, K. (2003) Some features of debris flow movements from the view point of disaster prevention. In: K.K.S. Ho and K.S. Li (eds), Geotechnical Engineering — Meeting Society’s Needs: Proceedings of the 14th Southeast Asian Geotechnical Conference, December 10–14, 2001, Hong Kong (pp. 251–256). A.A. Balkema, Rotterdam.Google Scholar
  75. Keefer, D.K. and Harp, E.L. (1998) Large landslides near the San Andreas fault in the Summit Ridge area, Santa Cruz Mountains, California. In: D.K. Keefer (ed.), The October 17, 1989, Loma Prieta, California, Earthquake: Landslides and Stream Channel Change (USGS Professional Paper 1551-C, 2, C71C127). US Geological Survey, Reston, VA.Google Scholar
  76. Keefer, D.K., Wilson, R.C., Mark, R.K., Brabb, E.E., Brown, W.M. III, Ellen, S.D., Harp, E.L., Wieczorek, G.F., Alger, C.S., and Zatkin, R.S. (1987) Real-time landslide warning during heavy rainfall. Science, 238, 921–925.Google Scholar
  77. Keefer, D.K., Moseley, M.E., and deFrance, S.D. (2003) A 38000-year record of floods and debris flows in the Ilo region of southern Peru and its relation to El Niño events and great earthquakes. Palaeogeography, Palaeoclimatology, Palaeoecology, 194, 41–77.Google Scholar
  78. Kerle, N., van Wyk de Vries, B., and Oppenheimer, C. (2003) New insight into the factors leading to the 1988 flank collapse and lahar disaster at Casita volcano, Nicaragua. Bulletin of Volcanology, 65, 331–345.Google Scholar
  79. Kim, S.K., Hong, W.P., and Kim, Y.M. (1992) Prediction of rainfall-triggered landslides in Korea. In: D.H. Bell (ed.), Proceedings of the 6th International Symposium on Landslides, 10–14 February, Christchurch, New Zealand (Vol. 2, pp. 989–994).Google Scholar
  80. Lang, A., Moya, J., Corominas, J., Schrott, L., and Dikau, R. (1999) Classic and new dating methods for assessing the temporal occurrence of mass movements. Geomorphology, 30(1/2), 33–52.Google Scholar
  81. Larsen, M.C. and Simon, A. (1993) A rainfall-intensity-duration threshold for landslides in a humid-tropical environment, Puerto Rico. Geografiska Annaler, 75A(1/2), 13–23.Google Scholar
  82. Lloyd, D.M., Wilkinson, P.L., Othmann, M.A. and Anderson, M.G. (2003) Predicting land-slides: Assessment of an automated rainfall based landslide warning system. In: K.K.S. Ho and K.S. Li (eds), Geotechnical Engineering — Meeting Society’s Needs: Proceedings of the 14th Southeast Asian Geotechnical Conference, December 10–14, 2001, Hong Kong (pp. 135–139). A.A. Balkema, Rotterdam.Google Scholar
  83. Lumb, P. (1975) Slope failures in Hong Kong. Quarterly Journal of Engineering Geology, 8(1), 31–65.Google Scholar
  84. Marchi, L., Arattano, M., and Deganutti, A.M. (2002) Ten years of debris-flow monitoring in the Moscardo Torrent (Italian Alps). Geomorphology, 46(1/2), 1–17.Google Scholar
  85. Martinez, J., Avila, G., Agudelo, A., Schuster, R.L., Casadevall, T.J., and Scott, K.M. (1999) Landslides and debris flows triggered by the 6 June 1994 Paez earthquake, southwestern Colombia. In: K. Sassa (ed.), Landslides of the World (pp. 227–230). Japan Landslide Society, Kyoto.Google Scholar
  86. Mathewson, C.C., Keaton, J.R., and Santi, P.M. (1990) Role of bedrock ground water in the initiation of debris flows and sustained post-storm stream discharge. Bulletin of Association of Engineering Geologists, 27(1), 73–78.Google Scholar
  87. McCarter, M.K. and Kaliser, B.N. (1985) Prototype instrumentation and monitoring programs for measuring surface deformation associated with landslide processes. In: D.S. Bowles (ed.), Proceedings of a Specialty Conference on Delineation of Landslide, Flash Flood, and Debris Flow Hazards in Utah (pp. 30–49). Utah State University, Logan, UT.Google Scholar
  88. Meyer, G.A. and Pierce, J.L. (2003) Climatic controls on fire-induced sediment pulses in Yellowstone National Park and central Idaho: A long-term perspective. Forest Ecology and Management, 178, 89–104.Google Scholar
  89. Montgomery, D.R., Schmidt, K.M., Greenberg, H.M., and Dietrich, W.E. (2000) Forest clearing and regional landsliding. Geology, 28(4), 311–314.Google Scholar
  90. Morrissey, M.M., Wieczorek, G.F., and Morgan, B.A. (2005) Transient hazard model using radar for predicting debris flows in Madison County, Virginia. Environmental and Engineering Geoscience, X(4), 285–296.Google Scholar
  91. Neary, D.G. and Swift, L.W., Jr (1987) Rainfall thresholds for triggering a debris-avalanching event in the southern Appalachian Mountains. In: J.E. Costa and G.F. Wieczorek (eds), Debris Flows/Avalanches: Process, Recognition and Mitigation (Reviews in Engineering Geology No. 7, pp. 81–92). Geological Society of America, Boulder, CO.Google Scholar
  92. Onda, Y., Mizuyama, T., and Kato, Y. (2003) Judging the timing of peak rainfall and the initiation of debris flow by monitoring runoff. In: D. Rickenmann and C-L. Chen (eds), Debris-flow Hazards Mitigation: Mechanics, Prediction, and Assessment: Proceedings of the 3rd International Conference, Davos, Switzerland, September 10–12 (pp. 147–153). Millpress, Rotterdam.Google Scholar
  93. Ortigao, J.A.R., Justi, M.G., d’Orsi, R. and Brito, H. (2003) Rio-Watch 2001: The Rio de Janeiro landslide alarm system. In: K.K.S. Ho and K.S. Li (eds), Geotechnical Engineering — Meeting Society’s Needs: Proceedings of the 14th Southeast Asian Geotechnical Conference, Hong Kong, December 10–14, 2001 (pp. 237–241). A.A. Balkema, Rotterdam.Google Scholar
  94. Page, M.J., Trustrum, N.A., and Dymond, J.R. (1994) Sediment budget to assess the geomorphic effect of a cyclonic storm, New Zealand. Geomorphology, 9, 169–188.Google Scholar
  95. Pasuto, A. and Silvano, S. (1998) Rainfall as a trigger of shallow mass movements. A case study in the Dolomites, Italy. Environmental Geology, 35(2/3), 184–189.Google Scholar
  96. Petrucci, O. and Polemio, M. (2000) Catastrophic geomorphological events and the role of rainfalls in South-Eastern Calabria (Southern Italy). In: P. Claps and F. Siccardi (eds), Mediterranean Storms: Proceedings of the EGS Plinius Conference, Maratea, Italy, October 14–16, 1999 (pp. 449–459). Editoriale Bios, Cosenza, Italy.Google Scholar
  97. Petrucci, O. and Polemio, M. (2002) Hydrogeological multiple hazard: A characterisation based on the use of historical data. In: J. Rybár, J. Stemberk and P. Wagner (eds), Landslides: Proceedings of 1st European Conference on Landslides, Prague, June 24–26, 2002 (pp. 269–274). A.A. Balkema, Rotterdam.Google Scholar
  98. Pierson, T.C. (1999) Rainfall-triggered lahars at Mt. Pinatubo, Philipppines, following the June 1991 eruption. In: K. Sassa (ed.), Landslides of the World (pp. 284–289). Japanese Landslide Society, Kyoto University Press.Google Scholar
  99. Pierson, T.C., Janda, R.J., Thouret, J.C., and Borrero, C.A. (1990) Perturbation and melting of snow and ice by the 13 November 1985 eruption of Nevado del Ruiz, Colombia, and consequent mobilization, flow, and deposition of lahars. Journal of Volcanology and Geothermal Research, 41, 17–66.Google Scholar
  100. Pollini, G., Ceriani, M., Lauzi, S., Padovan, N., and Crosta, G. (1992) Rainfall and soil slipping in Valtellina. In: D.H. Bell (ed.), Proceedings of the 6th International Symposium on Landslides, 10–14 February, Christchurch, New Zealand (Vol. 1, pp. 183–188). A.A. Balkema, Rotterdam.Google Scholar
  101. Premchitt, J., Brand, E.W., and Chen, P.Y.M. (1994) Rain-induced landslides in Hong Kong. Asia Engineer, June, 43–51.Google Scholar
  102. Preston, N.J. (1999) Event-induced changes in landsurface condition: Implications for subsequent slope stability. Zeitschrift für Geomorphologie, Suppl., 115, 157–173.Google Scholar
  103. Pun, W.K., Wong, A.C.W., and Pang, P.L.R. (2003) A review of the relationship between rainfall and landslides in Hong Kong. In: K.K.S. Ho and K.S. Li (eds), Geotechnical Engineering — Meeting Society’s Needs: Proceedings of the 14th Southeast Asian Geotechnical Conference, December 10–14, 2001, Hong Kong (pp. 211–216). A.A. Balkema, Rotterdam.Google Scholar
  104. Reichenbach, P., Cardinali, M., De Vita, P., and Guzzetti, F. (1998) Regional hydrological thresholds for landslides and floods in the Tiber River Basin (central Italy). Environmental Geology, 35(2), 146–159.Google Scholar
  105. Reid, M.E. (1994) A pore-pressure diffusion model for estimating landslide-inducing rainfall. Journal of Geology, 102, 709–717.Google Scholar
  106. Rodolfi, G. (1997) Holocene mass movement activity in the Tosco-Romagnolo Apennines (Italy). In: J.A. Matthews, D. Brunsden, B. Frenzel, B. Gläser, and M.M. Weiß (eds), Rapid Mass Movement as a Source of Climatic Evidence for the Holocene: Palaeoclimate Research (Vol. 12, pp. 33–46). Gustav Fischer Verlag, Stuttgart.Google Scholar
  107. Saemundsson, T., Petursson, H.G., and Decaulne, A. (2003) Triggering factors for rapid mass movements in Iceland. In: D. Rickenmann and C-L. Chen (eds), Debris-flow Hazards Mitigation: Mechanics, Prediction, and Assessment: Proceedings of the 3rd International Conference, Davos, Switzerland, September 10–12 (pp. 167–178). Millpress, Rotterdam.Google Scholar
  108. Sandersen, F. (1997) The influence of meteorological factors on the initiation of debris flows in Norway. In: J.A. Matthews, D. Brunsden, B. Frenzel, B. Gläser, and M.M. Weiß (eds), Rapid Mass Movement as a Source of Climatic Evidence for the Holocene: Palaeoclimate Research (Vol. 19, pp. 321–332). Gustav Fischer Verlag, Stuttgart.Google Scholar
  109. Schmidt, M. and Glade, T. (2003) Linking global circulation model outputs to regional geomorphic models: A case study of landslide activity in New Zealand (Case studies from New Zealand). Climate Research, 25(2), 135–150.Google Scholar
  110. Schuster, R.L. (1991) Introduction. In: R.L. Schuster (ed.), The March 5, 1987, Ecuador Earthquakes: Mass Wasting and Socioeconomic Effects (Natural Disaster Studies No. 5, pp. 11–22). National Research Council, Washington, DC.Google Scholar
  111. Schuster, R.L. and Wieczorek, G.F. (2002) Landslide triggers and types. In: J. Rybár, J. Stemberk, and P. Wagner (eds), Proceedings of 1st European Conference on Landslides, Prague, June 24–26 (pp. 59–78). A.A. Balkema, Rotterdam.Google Scholar
  112. Schuster, R.L., Wieczorek, G.F., and Hope, D.G., II (1998) Landslide dams in Santa Cruz County, California, resulting from the October 17, 1989, Loma Prieta earthquake. In: D.K. Keefer (ed.), The October 17, 1989, Loma Prieta, California, earthquake: Landslides and Stream Channel Change (USGS Professional Paper 1551-C, 2, C51C70). US Geological Survey, Reston, VA.Google Scholar
  113. Scott, K.M. (2000) Precipitation-triggered debris flow at Casita Volcano, Nicaragua: Implications for mitigation strategies in volcanic and tectonically active steeplands. In: G.F. Wieczorek and N.D. Naeser (eds), Debris-flow Hazards Mitigation: Mechanics, Prediction, and Assessment: Proceedings of the 2nd International Conference, Taipei, Taiwan, August 16–18 (pp. 3–13). A.A. Balkema, Rotterdam.Google Scholar
  114. Scott, K.M., Macias, J.L., Naranjo, J.A., Rodriquez, S., and McGeehin, J.P. (2001) Catastrophic Debris Flows Transformed from Landslides in Volcanic Terrains: Mobility, Hazard Assessment, and Mitigation Strategy (USGS Professional Paper 1630, 59 pp.). US Geological Survey, Reston, VA.Google Scholar
  115. Slosson, J.E. and Larson, R.A. (1995) Slope failures in Southern California: Rainfall thresholds, prediction, and human causes. Environmental and Engineering Geoscience, 1(4), 393–401.Google Scholar
  116. Starkel, L. (1979) The role of extreme meteorological events in the shaping of mountain relief. Geographia Polonica, 41, 13–20.Google Scholar
  117. Starkel, L. (1996) Geomorphic role of extreme rainfalls in the Polish Carpathians. Studia Geomorphologica Carpatho-Balcanica, XXX, 21–38.Google Scholar
  118. Starkel, L. (1997) Mass movements during the Holocene: A Carpathian example and the European perspective. In: J.A. Matthews, D. Brunsden, B. Frenzel, B. Gläser, and M.M. Weiß (eds), Rapid Mass Movement as a Source of Climatic Evidence for the Holocene: Palaeoclimate Research (Vol. 12, pp. 385–400). Gustav Fischer Verlag, Stuttgart.Google Scholar
  119. Starkel, L. and Sarkar, S. (2002) Different frequency of threshold rainfalls transforming the margin of Sikkimese and Bhutanese Himalayas. Studia Geomorphologica Carpatho-Balcanica, XXXVI, 51–68.Google Scholar
  120. Terlien, M.T.J. (1997) Hydrological landslide triggering in ash-covered slopes of Manizales (Colombia). Geomorphology, 20(1/2), 165–175.Google Scholar
  121. Terlien, M.T.J. (1998) The determination of statistical and deterministic hydrological landslide-triggering thresholds. Environmental Geology, 35(2/3), 124–130.Google Scholar
  122. Terwilliger, V.J. and Waldron, L.J. (1991) Effects of root reinforcement on soil-slip patterns in the Transverse Ranges of southern California. Geological Society of America Bulletin, 103, 775–785.Google Scholar
  123. Tognacca, C., Bezzola, G.R., and Minor, H.-E. (2000) Threshold criterion for debris-flow initiation due to channel-bed failure. In: G.F. Wieczorek and N.D. Naeser (eds), Debris-flow Hazards Mitigation: Mechanics, Prediction, and Assessment: Proceedings of the 2nd International Conference, Taipei, Taiwan, August 16–18 (pp. 89–97). A.A. Balkema, Rotterdam.Google Scholar
  124. van Asch, T.W.J. and Buma, J.T. (1997) Modelling groundwater fluctuations and the frequency of movement of a landslide in the Terres Noires Region of Barcelonnette (France). Earth Surface Processes and Landforms, 22(2), 131–142.Google Scholar
  125. Waitt, R.B., Jr, Pierson, T.C., MacLeod, N.S., Janda, R.J., Voight, B., and Holcomb, R.T. (1983) Eruption-triggered avalanche, flood, and lahar at Mount St. Helens: Effects of winter snowpack. Science, 221(4618), 1394–1397.Google Scholar
  126. Waldron, H.H. (1967) Debris Flow and Erosion Control Problems Caused by the Ash Eruptions of Irazú Volcano, Costa Rica (USGS Bulletin 1241-I, 37 pp.). US Geological Survey, Reston, VA.Google Scholar
  127. Wasowski, J. (1998) Understanding rainfall-landslide relationships in man-modified environments: A case-history from Caramanico terme, Italy. Environmental Geology, 35(2/3), 197–209.Google Scholar
  128. Wieczorek, G.F. (1987) Effect of rainfall intensity and duration on debris flows in central Santa Cruz Mountains, California. In: J.E. Costa and G.F. Wieczorek (eds), Debris flows/Avalanches: Process, Recognition and Mitigation (Reviews in Engineering Geology No. 7, pp. 93–104). Geological Society of America, Boulder, CO.Google Scholar
  129. Wieczorek, G.F., and Jäger, S. (1996) Triggering mechanisms and depositional rates of postglacial slope-movement processes in the Yosemite Valley, California. Geomorphology, 15, 17–31.Google Scholar
  130. Wieczorek, G.F. and Sarmiento, J. (1983) Significance of storm intensity-duration for triggering debris flows near La Honda, California (Abstracts with Programs No. 15, pp. 5, 289). Geological Society of America, Boulder, CO.Google Scholar
  131. Wieczorek, G.F. and Sarmiento, J. (1988) Rainfall, piezometric levels and debris flows near La Honda, California in the January 3–5, 1982, and other storms between 1975 and 1983. In: S.D. Ellen and G.F. Wieczorek (eds), Landslides, Floods, and Marine Effects of the January 3–5, 1982, Storm in the San Francisco Bay Region, California (USGS Professional Paper 1434, pp. 43–62). US Geological Survey, Reston, VA.Google Scholar
  132. Wieczorek, G.F., Lips, E.W., and Ellen, S.D. (1989) Debris flows and hyperconcentrated floods along the Wasatch Front, Utah, 1983 and 1984. Association of Engineering Geologists Bulletin, 26(2), 191–208.Google Scholar
  133. Wieczorek, G.F., Morgan, B.A., and Campbell, R.H. (2000) Debris-flow hazards in the Blue Ridge of central Virginia. Environmental and Engineering Geoscience, VI(1), 3–23.Google Scholar
  134. Wieczorek, G.F., Coe, J.A., and Godt, J.W. (2003) Debris-flow hazard assessment using remote sensing of rainfall. In: D. Rickenmann, and C-L. Chen (eds), Debris-flow Hazards Mitigation: Mechanics, Prediction, and Assessment: Proceedings of the 3rd International Conference, Davos, Switzerland, September 10–12 (pp. 1257–1268). Millpress, Rotterdam.Google Scholar
  135. Wilson, R.C. (1989) Rainstorms, pore pressures, and debris flows: A theoretical framework. In: P.M. Sadler and D.M. Morton (eds), Landslides in Semi-Arid Environment (Publication No. 2, pp. 101–117). Inland Geological Society, Riverside, CA.Google Scholar
  136. Wilson, R.C. (2000) Climatic variations in rainfall thresholds for debris-flow activity. In: P. Claps and F. Siccardi (eds), Proceedings of the 1st Plinius Conference on Mediterranean Storms, Maratea, Italy, October 14–16, 1999 (pp. 415–424). European Geophysical Union and Editoriale Bios.Google Scholar
  137. Wilson, R.C. (2005) The rise and fall of a debris flow warning system for the San Francisco Bay region, California. In: T. Glade, M. Anderson, and M. Crozier (eds), Landslide Hazard and Risk (pp. 493–514). John Wiley & Sons, New York.Google Scholar
  138. Wilson, R.C. and Wieczorek, G.F. (1995) Rainfall thresholds for the initiation of debris flows at La Honda, California. Environmental and Engineering Geoscience, 1(1), 11–27.Google Scholar
  139. Wilson, R.C., Torikai, J.D., and Ellen, S.D. (1992) Development of Rainfall Warning Thresholds for Debris Flows in the Honolulu District, Oahu (USGS Open-file Report 92-521, 45 pp.). US Geological Survey, Reston, VA.Google Scholar
  140. Wilson, R.C., Mark, R.K., and Barbato, G.E. (1993) Operation of a real-time warning system for debris flows in the San Francisco Bay area, California. In: H.W. Shen, S.T. Su, and F. Wen (eds), Hydraulic Engineering '93: Proceedings of the 1993 Conference, Hydraulics Division, American Society of Civil Engineers, San Francisco, CA, July 25–30 (Vol. 2, pp. 1908–1913).Google Scholar
  141. Youd, T.L. and Hoose, S.N. (1978) Historic Ground Failures in Northern California Associated with Earthquakes (USGS Professional Paper 993, 177 pp.). US Geological Survey, Reston, VA.Google Scholar
  142. Zêzere, J.L., Ferreira, A.D., and Rodrigues, M.L. (1999) The role of conditioning and triggering factors in the occurrence of landslides: A case study in the area north of Lisbon (Portugal). Geomorphology, 30(1/2), 133–146.Google Scholar
  143. Zêzere, J.L. and Rodrigues, M.L. (2002) Rainfall thresholds for landsliding in the Lisbon Area (Portugal). In: J. Rybár, J. Stemberk, and P. Wagner(eds), Proceedings of 1st European Conference on Landslides, Prague, June 24–26 (pp. 333–340). A.A. Balkema, Rotterdam.Google Scholar
  144. Zimmermann, M. and Haeberli, W. (1992) Climatic change and debris flow activity in high mountain areas: A case study in the Swiss Alps. Catena, Suppl., 22, 59–72.Google Scholar

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© Praxis. Springer Berlin Heidelberg 2005

Authors and Affiliations

  • Gerald F. Wieczorek
  • Thomas Glade

There are no affiliations available

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