Ballantyne, C. K., and Harris, C. (1994). The Periglaciation of Great Britain. Cambridge: Cambridge Univ. Press, 330 pp.Google Scholar

Becht, M., Haas, F., Heckmann, T., and Wichmann, V. (2005). Investigating sediment cascades using field measurements and spatial modelling. IAHS Publication 291. Wallingford: IAHS Press, 206–213.Google Scholar

Beylich, A. (2000). Untersuchungen zum gravitativen und fluvialen Stofftransfer in einem subarktisch-ozeanisch geprägten, permafrostfreien Periglazialgebiet mit pleistozäner Vergletscherung (Austaldur, Ost-Island). Z Geomorphol N F., Supplementary Issue 121, 1–22Google Scholar

Bimböse, M., Nicolay, A., Schmidt, K.-H., Bryk, A., and Morche, D. (2011). Investigations on intra- and interannual coarse sediment dynamics in a high-mountain catchment. Z Geomorphol N F., 55 Supplementary Issue 2, 67–81. doi:10.1127/0372–8854/2011/0055S2-0046CrossRefGoogle Scholar

Bimböse, M., Schmidt, K.-H., and Morche, D. (2010). High resolution quantification of slope-channel coupling in an alpine geosystem. IAHS Publication 337. Wallingford: IAHS Press, 300–307.Google Scholar

Burt, T., and Allison, R. (2010). Sediment Cascades: An Integrated Approach. Chichester: John Wiley & Sons.CrossRefGoogle Scholar

Caine, N. (1974). The geomorphic processes of the alpine environment. In Ives, J. D. and Barry, R. G., eds., Arctic and Alpine Environments. London: Methuen, pp. 721–48.Google Scholar

Chorley, R. J., and Kennedy, B. A. (1971). Physical Geography: A Systems Approach. London: Prentice-Hall International, 370 pp.Google Scholar

Chorley, R. J., Schumm, S. A., and Sudgen, D. E. (1984). Geomorphology, London, New York: Methuen.Google Scholar

Gerst, M. (2000). Hangformung durch Lawinen und Steinschlag in den Nördlichen Kalkalpen am Beispiel des Mittleren Reintals und des Lahnenwiesgrabens. Unpublished Diploma thesis, Institute for Geography, LMU München.Google Scholar

Götz, J., Geilhausen, M., and Schrott, L. (2010). Neue Aspekte zur Einordnung rezenter Sedimentflüsse in einen paraglazialen Kontext und zur innovativen Inwertsetzung geomorphologischer Forschung. Salzburger Geographische Arbeiten, 46, 41–62.Google Scholar

Götz, J., and Schrott, L. (2007). A comparison of recent and postglacial sediment fluxes in a paraglacial context. A scale based approach (Reintal, Bavarian Alps). – In Kellerer-Pirkelbauer, A., Keiler, M., Embleton-Hamann, C., and Stötter, J., eds., Geomorphology for the Future, Conference Proceedings, Obergurgl, Austria, 2nd–7th September 2007, Innsbruck, Austria: Innsbruck University Press, 105–112.Google Scholar

Götz, J., and Schrott, L. (2010). Das Reintal: Eine Wanderung durch Raum und Zeit – Geomorphologischer Lehrpfad am Fuße der Zugspitze. München: Pfeil-Verlag.Google Scholar

Hagg, W., Mayer, C., Mayr, E., and Heilig, A. (2012). Climate and glacier fluctuations in the Bavarian Alps during the past 120 years. Erdkunde, 66, 121–142. DOI: 10.3112/erdkunde.2012.02.03CrossRefGoogle Scholar

Haas, F. (2008). Fluviale Hangprozesse in alpinen Einzugsgebieten der nördlichen Kalkalpen – Quantifizierung und Modellierungsansätze. Eichstätter Geographische Arbeiten 17, München: Profil-Verlag.Google Scholar

Haas, F., Heckmann, T., Wichmann, V., and Becht, M. (2011). Quantification and modeling of fluvial bedload discharge from hillslope channels in two Alpine catchments (Bavarian Alps, Germany). Z Geomorphol N F., 55 Supplementary Issue 3, 147–68. doi: 10.1127/0372–8854/2011/0055S3-0056Google Scholar

Heckmann, T. (2006). Untersuchungen zum Sedimenttransport durch Grundlawinen in zwei Einzugsgebieten der Nördlichen Kalkalpen: Quantifizierung, Analyse und Ansätze zur Modellierung der geomorphologischen Aktivität. Eichstätter Geographische Arbeiten 14, München: Profil-Verlag.Google Scholar

Heckmann, T., Bimböse, M., Krautblatter, M., Haas, F., Becht, M., and Morche, D. (2012). From geotechnical analysis to quantification and modeling using LiDAR data: A study on rockfall in the Reintal catchment, Bavarian Alps, Germany. Earth Surface Processes and Landforms, 37, 119–133. doi: 10.1002/esp.2250CrossRefGoogle Scholar

Heckmann, T., Haas, F., Wichmann, V., and Morche, D. (2008). Sediment budget and morphodynamics of an alpine talus cone on different timescales. Z Geomorphol N.F., 52 Supplementary Issue 1, 103–121. doi:10.1127/0372–8854/2008/0052S1-0103CrossRefGoogle Scholar

Heckmann, T., Wichmann, V., and Becht, M. (2002). Quantifying sediment transport by avalanches in the Bavarian Alps - first results. Z Geomorphol N.F., Supplement-Band 127, 137–152.Google Scholar

Heckmann, T., Wichmann, V., and Becht, M. (2005). Sediment transport by avalanches in the Bavarian Alps revisited - a perspective on modelling. Z Geomorphol N.F., Supplement-Band 138, 11–25.Google Scholar

Heinimann, H. R., Hollenstein, K., Kienholz, H., Krummenacher, B., and Mani, P. (1998). Methoden zur Ansalyse und Bewertung von Naturgefahren. Umwelt-Materialien Nr. 85, Naturgefahren. Bern: Bundesamt für Umwelt, Wald und Landschaft (BUWAL), 248 p.Google Scholar

Heller, F., and Nieder, R. (1932). Geologisch-geomorphologische Untersuchungen im Partnachtal des Wettersteingebirges. Zeitschrift für Karst – und Höhlenkunde. Mitteilungen d. Forschungsstätte für Karst – und Höhlenkunde, 10, 119–153.Google Scholar

Hoffmann, T., and Schrott, L. (2002). Modelling sediment thickness and rockwall retreat in an Alpine valley using 2D-seismic refraction (Reintal, Bavarian Alps). Z Geomorphol N.F., Supplement-Band 127, 153–173.Google Scholar

Hüttl, C. (1999). Steuerungsfaktoren und Quantifizierung der chemischen Verwitterung auf dem Zugspitzplatt (Wettersteingebirge, Deutschland. Münchner Geographische Abhandlungen, Reihe B, Band 30, 198, München: GEOBUCH-Verlag.Google Scholar

Keller, D., and Moser, M. (2002). Assessments of field methods for rockfall and soil slip modelling. Z Geomorphol N.F., Supplement-Band 127, 127–135.Google Scholar

Koch, F. (2006). Zur raum-zeitlichen Variabilität von Massenbewegungen und pedologische Kartierungen in alpinen Einzugsgebieten - Dendrogeomorphologische Fallstudien und Erläuterungen zu den Bodenkarten Lahnenwiesgraben und Reintal (Bayerische Alpen). Dissertation, Universität Regensburg.Google Scholar

Krautblatter, M., and Dikau, R. (2007). Towards a uniform concept for the comparison and extrapolation of rockwall retreat and rockfall supply. Geografiska Annaler A, 89(1), 21–40. doi: 10.1111/j.1468-0459.2007.00305.xCrossRefGoogle Scholar

Krautblatter, M., and Moser, M. (2009). A nonlinear model coupling rockfall and rainfall intensity based on a four year measurement in a high Alpine rock wall (Reintal, German Alps). Natural Hazards and Earth System Sciences, 9, 1425–1432. doi: 10.5194/nhess-9-1425-2009CrossRefGoogle Scholar

Krautblatter, M., Moser, M., Schrott, L., Wolf, J., and Morche, D. (2012). Significance of rockfall magnitude and carbonate dissolution for rock slope erosion and geomorphic work on Alpine limestone cliffs (Reintal, German Alps). Geomorphology, 167–168, 31–44. doi: 10.1016/j.geomorph.2012.04.007Google Scholar

Küfmann, C. (2003). Soil types and eolian dust in high-mountainous karst of the Northern Calcareous Alps (Zugspitzplatt, Wetterstein Mountains, Germany). Catena, 53, 211–227. doi: 10.1016/S0341-8162(03)00075–4CrossRefGoogle Scholar

Küfmann, C. (2013). Solution dynamics at the rock/snow during the ablation period in the subnival karst of the Wetterstein Mountains (Northern Calcareous Alps, Germany). Z Geomorphol N F., 58, 37–57. doi: 10.1127/0372–8854/2013/0121CrossRefGoogle Scholar

Lauber, U., Morche, D., Kotyla, P., and Goldscheider, N. (2014). Hydrogeology of an alpine rockfall aquifer system and its role in flood attenuation and maintaining baseflow. Hydrology and Earth System Sciences, 18, 4437–4452. doi: 10.5194/hess-18–4437-2014CrossRefGoogle Scholar

Leuchs, K. (1921). Die Ursachen des Bergsturzes am Reintalanger (Wettersteingebirge). Geologische Rundschau, 12, 189–192. doi: 10.1007/BF01800180CrossRefGoogle Scholar

Leuchs, K. (1930). Der Bau der Südrandstörung des Wettersteingebirges. Geologische Rundschau, 21, 81–96. doi: 10.1007/BF01802266CrossRefGoogle Scholar

Miller, H. (1961). Der Bau des westlichen Wettersteingebirges. Z. dt. geol. Ges., 113, 161–203.Google Scholar

Morche, D. (2010). Die fluviale Lösungsfracht und ihre Effektivität bei der rezenten geomorphologischen Formung in einem kalkalpinen Hochgebirgstal. Salzburger Geographische Arbeiten, 46, 95–112.Google Scholar

Morche, D., and Bryk, A. (2010) Bed load transport in an Alpine river after a high magnitude flood: results from the 2008 field campaign. IAHS Publication 336. Wallingford: IAHS Press, 157–163Google Scholar

Morche, D., Katterfeld, C., Fuchs, S., and Schmidt, K.-H. (2006). The life-span of a small high mountain lake, the Vordere Blaue Gumpe in Upper Bavaria, Germany. IAHS Publication 306. Wallingford: IAHS Press, 72–81.Google Scholar

Morche, D., and Laute, K. (2009). Investigating channel response to a dambreak flood event in an Alpine river – Downstream trends in stream power and channel bed particle characteristics. Arctic, Antarctic, and Alpine Research, 41(1), 69–78. doi: 10.1657/1938–4246(08-024)[MORCHE]2.0.CO;2CrossRefGoogle Scholar

Morche, D., and Schmidt, K.-H. (2005). Particle size and particle shape analyses of unconsolidated material from sediment sources and sinks in a small Alpine catchment (Reintal, Bavarian Alps, Germany). Z Geomorphol N.F., Supplement-Band 138, 67–80.Google Scholar

Morche, D., and Schmidt, K.-H. (2012). Sediment transport in an alpine river before and after a dambreak flood event. Earth Surface Processes and Landforms, 37, 347–353. doi: 10.1002/esp.2263CrossRefGoogle Scholar

Morche, D., Schmidt, K.-H., Heckmann, T., and Haas, F. (2007). Hydrology and geomorphic effects of a high magnitude flood in an Alpine river. Geografiska Annaler A, 89(1), 5–19. doi: 10.1111/j.1468-0459.2007.00304.xCrossRefGoogle Scholar

Morche, D., Schmidt, K.H., Sahling, I., Herkommer, M., and Kutschera, J. (2008a). Volume changes of Alpine sediment stores in a state of post-event disequilibrium and the implications for downstream hydrology and bed load transport. Norsk Geografisk Tidsskrift-Norwegian Journal of Geography, 62, 89–101. DOI: 10.1080/00291950802095079CrossRefGoogle Scholar

Morche, D., Witzsche, M., and Schmidt, K.-H. (2008b). Hydrogeomorphological characteristics and sediment transport of a high mountain river (Partnach River, Reintal Valley, Bavarian Alps, Germany) Z Geomorphol N.F., 52 Supplementary Issue 1, 51–77. doi: 10.1127/0372–8854/2008/0052S1-0051CrossRefGoogle Scholar

Orwin, J. F., Lamoureux, S. F., Warburton, J., and Beylich, A. (2010). A framework for characterizing fluvial sediment fluxes from source to sink in cold environments. Geografiska Annaler A, 92(2), 155–176. doi: 10.1111/j.1468-0459.2010.00387.xCrossRefGoogle Scholar

Otto, J. C., and Dikau, R. (2004). Geomorphologic system analysis of a high mountain valley in the Swiss Alps. Z Geomorphol N.F., 48, 323–341.CrossRefGoogle Scholar

Rapp, A. (1960). Recent development of mountain slopes in Kärkevagge and surroundings, Northern Scandinavia. Geografisker Annaler A, 42(2–3), 65–200.Google Scholar

Rappl, A., Wetzel, K.-F., Büttner, G., and Scholz, M. (2010). Tracerhydrologische Untersuchungen am Partnach-Ursprung. Hydrologie und Wasserbewirtschaftung 54, 222 – 230.Google Scholar

Reis, O. (1910). Erläuterungen zur geologischen Karte des Wettersteingebirges. Geognostische Jahreshefte, 23, 61–104.Google Scholar

Sass, O., and Krautblatter, M. (2007). Debris-flow-dominated and rockfall-dominated scree slopes: genetic models derived from GPR measurements. Geomorphology, 86, 176–192. doi: 10.1016/j.geomorph.2006.08.012CrossRefGoogle Scholar

Sass, O., Krautblatter, M., and Morche, D. (2007). Rapid lake infill following bergsturz events revealed by GPR measurements (Reintal, German Alps) The Holocene, 17(7), 965–977. doi:10.1177/0959683607082412CrossRefGoogle Scholar

Schmidt, K.-H., and Morche, D. (2006). Sediment output and effective discharge in two small high mountain catchments in the Bavarian Alps, Germany. Geomorphology, 80, 131–145. doi: 10.1016/j.geomorph.2005.09.01CrossRefGoogle Scholar

Schneevoigt, N. J., van der Linden, S., Thamm, H.-P., and Schrott, L. (2008). Detection of alpine landforms from remotely sensed imagery. A pilot study in the Bavarian Alps. Geomorphology, 93, 104–119. doi: 10.1016/j.geomorph.2006.12.034CrossRefGoogle Scholar

Schneevoigt, N. J., and Schrott, L. (2006). Linking geomorphic systems theory and remote sensing. A conceptual approach to Alpine landform detection (Reintal, Bavarian Alps, Germany). Geographica Helvetica, 61, 181–190. doi: 10.5169/seals-72613CrossRefGoogle Scholar

Schrott, L., Götz, J., Geilhausen, M., and Morche, D. (2006). Spatial and temporal variability of sediment transfer and storage in an Alpine basin (Bavarian Alps, Germany). Geographica Helvetica, 61, 191–200. doi: 10.5169/seals-72614CrossRefGoogle Scholar

Schrott, L., Hufschmidt, G., Hankammer, M., Hoffmann, T., and Dikau, R. (2003). Spatial distribution of sediment storage types and quantification of valley fill deposits in an alpine basin, Reintal, Bavarian Alps, Germany. Geomorphology, 55, 45–63. doi: 10.1016/S0169-555X(03)00131–4CrossRefGoogle Scholar

Schrott, L., Niederheide, A., Hankammer, M., Hufschmidt, G., and Dikau, R. (2002). Sediment storage in a mountain catchment: geomorphic coupling and temporal variability (Reintal, Bavarian Alps, Germany). - Zeitschrift für Geomorphologie, 127, 175–196.Google Scholar

Slaymaker, O. (1991). Mountain geomorphology: a theoretical framework for measurement programmes. Catena, 18, 427–437. doi: 10.1016/0341–8162(91)90047-2CrossRefGoogle Scholar

Wetzel, K. F. (1994). Abflussbildung während sommerlicher Niederschläge in einem kleinen Einzugsgebiet der nördlichen Kalkalpen. Erdkunde, 34, 161–173.Google Scholar

Wetzel, K.-F. (2004). On the hydrology of the Partnach area in the Wetterstein Mountains (Bavarian Alps). Erdkunde, 58, 172–186. doi: 10.3112/erdkunde.2004.02.05CrossRefGoogle Scholar

Wichmann, V. (2006). Modellierung geomorphologischer Prozesse in einem alpinen Einzugsgebiet – Abgrenzung und Klassifizierung der Wirkungsräume von Sturzprozessen und Muren mit einem GIS. Eichstätter Geographische Arbeiten, 15, 1–231.Google Scholar