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Cryosphere 18(9): 4257-4283. https://dx.doi.org/10.5194/tc-18-4257-2024","StandardTitle":"Antarctic sensitivity to oceanic melting parameterizations","AuthorsString":"Juarez-Martinez, A. et al.","BibLvlCode":"AS"},{"BRefID":295595,"RR":"Fürst, J.J.; Gillet-Chaulet, F.; Benham, T.J.; Dowdeswell, J.A.; Grabiec, M.; Navarro, F.; Pettersson, R.; Moholdt, G.; Nuth, C.; Sass, B.; Aas, K.; Fettweis, X.; Lang, C.; Seehaus, T.; Braun, M. (2017). Application of a two-step approach for mapping ice thickness to various glacier types on Svalbard. Cryosphere 11(5): 2003-2032. https://dx.doi.org/10.5194/tc-11-2003-2017","StandardTitle":"Application of a two-step approach for mapping ice thickness to various glacier types on Svalbard","AuthorsString":"Fürst, J.J. et al.","BibLvlCode":"AS"},{"BRefID":285473,"RR":"Schlegel, N.-J.; Wiese, D.N.; Larour, E.Y.; Watkins, M.M.; Box, J.E.; Fettweis, X.; van den Broeke, M.R. (2016). 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Cryosphere 15(5): 2147-2165. https://dx.doi.org/10.5194/tc-15-2147-2021","StandardTitle":"Atmospheric extremes caused high oceanward sea surface slope triggering the biggest calving event in more than 50 years at the Amery Ice Shelf","AuthorsString":"Francis, D. et al.","BibLvlCode":"AS"},{"BRefID":295970,"RR":"Fretwell, P.; Pritchard, H.D.; Vaughan, D.G.; Bamber, J.L.; Barrand, N.E.; Bell, R.; Bianchi, C.; Bingham, R.G.; Blankenship, D.D.; Casassa, G.; Catania, G.; Callens, D.; Conway, H.; Cook, A.J.; Corr, H.F.J.; Damaske, D.; Damm, V.; Ferraccioli, F.; Forsberg, R.; Fujita, S.; Gim, Y.; Gogineni, P.; Griggs, J.A.; Hindmarsh, R.C.A.; Holmlund, P.; Holt, J.W.; Jacobel, R.W.; Jenkins, A.; Jokat, W.; Jordan, T.; King, E.C.; Kohler, J.; Krabill, W.; Riger-Kusk, M.; Langley, K.A.; Leitchenkov, G.; Leuschen, C.; Luyendyk, B.P.; Matsuoka, K.; Mouginot, J.; Nitsche, F.O.; Nogi, Y.; Nøst, O.A.; Popov, S.V.; Rignot, E.; Rippin, D.M.; Rivera, A.; Roberts, J.; Ross, N.; Siegert, M.J.; Smith, A.M.; Steinhage, D.; Studinger, M.; Sun, B.; Tinto, B.K.; Welch, B.C.; Wilson, D.; Young, D.A.; Xiangbin, C.; Zirizzotti, A. 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Cryosphere 6(6): 1383-1394. dx.doi.org/10.5194/tc-6-1383-2012","StandardTitle":"Constraining projections of summer Arctic sea ice","AuthorsString":"Massonnet, F. et al.","BibLvlCode":"AS"},{"BRefID":418036,"RR":"Delhasse, A.; Beckmann, J.; Kittel, C.; Fettweis, X. (2024). Coupling MAR (Modèle Atmosphérique Régional) with PISM (Parallel Ice Sheet Model) mitigates the positive melt-elevation feedback. Cryosphere 18(2): 633-651. https://dx.doi.org/10.5194/tc-18-633-2024","StandardTitle":"Coupling MAR (Modèle Atmosphérique Régional) with PISM (Parallel Ice Sheet Model) mitigates the positive melt-elevation feedback","AuthorsString":"Delhasse, A. et al.","BibLvlCode":"AS"},{"BRefID":338183,"RR":"Tedstone, A.J.; Bamber, J.L.; Cook, J.M.; Williamson, C.J.; Fettweis, X.; Hodson, A.J.; Tranter, M. (2017). Dark ice dynamics of the south-west Greenland Ice Sheet. 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Cryosphere 10(1): 103-120. https://dx.doi.org/10.5194/tc-10-103-2016","StandardTitle":"Feasibility of improving a priori regional climate model estimates of Greenland ice sheet surface mass loss through assimilation of measured ice surface temperatures","AuthorsString":"Navari, M. et al.","BibLvlCode":"AS"},{"BRefID":353731,"RR":"Aves, A.R.; Revell, L.E.; Gaw, S.; Ruffell, H.; Schuddeboom, A.; Wotherspoon, N.E.; LaRue, M.; McDonald, A.J. (2022). First evidence of microplastics in Antarctic snow. Cryosphere 16(6): 2127-2145. https://dx.doi.org/10.5194/tc-16-2127-2022","StandardTitle":"First evidence of microplastics in Antarctic snow","AuthorsString":"Aves, A.R. et al.","BibLvlCode":"AS"},{"BRefID":367571,"RR":"Francis, D.; Fonseca, R.; Mattingly, K.S.; Lhermitte, S.; Walker, C. (2023). Foehn winds at Pine Island Glacier and their role in ice changes. Cryosphere 17(7): 3041-3062. https://dx.doi.org/10.5194/tc-17-3041-2023","StandardTitle":"Foehn winds at Pine Island Glacier and their role in ice changes","AuthorsString":"Francis, D. et al.","BibLvlCode":"AS"},{"BRefID":337334,"RR":"Donat-Magnin, M.; Jourdain, N.C.; Kittel, C.; Agosta, C.; Amory, C.; Gallee, H.; Krinner, G.; Chekki, M. (2021). Future surface mass balance and surface melt in the Amundsen sector of the West Antarctic Ice Sheet. Cryosphere 15(2): 571-593. https://hdl.handle.net/10.5194/tc-15-571-2021","StandardTitle":"Future surface mass balance and surface melt in the Amundsen sector of the West Antarctic Ice Sheet","AuthorsString":"Donat-Magnin, M. et al.","BibLvlCode":"AS"},{"BRefID":323008,"RR":"Ballinger, T.J.; Mote, T.L.; Mattingly, K.; Bliss, A.C.; Hanna, E.; van As, D.; Prieto, M.; Gharehchahi, S.; Fettweis, X.; Noël, B.; Smeets, P.C.J.P.; Reijmer, C.H.; Ribergaard, M.H.; Cappelen, J. (2019). 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Cryosphere 19(3): 1259-1278. https://dx.doi.org/10.5194/tc-19-1259-2025","StandardTitle":"Impacts of air fraction increase on Arctic sea ice density, freeboard, and thickness estimation during the melt season","AuthorsString":"Salganik, E. et al.","BibLvlCode":"AS"},{"BRefID":361500,"RR":"Rohmer, J.; Thieblemont, R.; le Cozannet, G.; Goelzer, H.; Durand, G. (2022). Improving interpretation of sea-level projections through a machine-learning-based local explanation approach. Cryosphere 16(11): 4637-4657. https://dx.doi.org/10.5194/tc-16-4637-2022","StandardTitle":"Improving interpretation of sea-level projections through a machine-learning-based local explanation approach","AuthorsString":"Rohmer, J. et al.","BibLvlCode":"AS"},{"BRefID":361433,"RR":"Van Achter, G.; Fichefet, T.; Goosse, H.; Moreno-Chamarro, E. (2022). Influence of fast ice on future ice shelf melting in the Totten Glacier area, East Antarctica. Cryosphere 16(11): 4745-4761. https://dx.doi.org/10.5194/tc-16-4745-2022","StandardTitle":"Influence of fast ice on future ice shelf melting in the Totten Glacier area, East Antarctica","AuthorsString":"Van Achter, G. et al.","BibLvlCode":"AS"},{"BRefID":257166,"RR":"Zunz, V.; Goosse, H. (2015). Influence of freshwater input on the skill of decadal forecast of sea ice in the Southern Ocean. Cryosphere 9(2): 541-556. dx.doi.org/10.5194/tc-9-541-2015","StandardTitle":"Influence of freshwater input on the skill of decadal forecast of sea ice in the Southern Ocean","AuthorsString":"Zunz, V.; Goosse, H.","BibLvlCode":"AS"},{"BRefID":323171,"RR":"Seroussi, H.; Nowicki, S.; Simon, E.; Abe-Ouchi, A.; Albrecht, T.; Brondex, J.; Cornford, S.; Dumas, C.; Gillet-Chaulet, F.; Goelzer, H.; Golledge, N.R.; Gregory, J.M.; Greve, R.; Hoffman, M.J.; Humbert, A.; Huybrechts, P.; Kleiner, T.; Larour, E.; Leguy, G.; Lipscomb, W.H.; Lowry, D.; Mengel, M.; Morlighem, M.; Pattyn, F.; Payne, A.J.; Pollard, D.; Price, S.F.; Quiquet, A.; Reerink, T.J.; Reese, R.; Rodehacke, C.B.; Schlegel, N.-J.; Shepherd, A.; Sun, S.; Sutter, J.; Van Breedam, J.; van de Wal, R.S.W; Winkelmann, R.; Zhang, T. (2019). initMIP-Antarctica: an ice sheet model initialization experiment of ISMIP6. Cryosphere 13(5): 1441-1471. https://dx.doi.org/10.5194/tc-13-1441-2019","StandardTitle":"initMIP-Antarctica: an ice sheet model initialization experiment of ISMIP6","AuthorsString":"Seroussi, H. et al.","BibLvlCode":"AS"},{"BRefID":391430,"RR":"Seroussi, H.; Verjans, V.; Nowicki, S.; Payne, A.J.; Goelzer, H.; Lipscomb, W.H.; Abe-Ouchi, A.; Agosta, C.; Albrecht, T.; Asay-Davis, X.; Barthel, A.; Calov, R.; Cullather, R.; Dumas, C.; Galton-Fenzi, B.K.; Gladstone, R.; Golledge, N.R.; Gregory, J.M.; Greve, R.; Hattermann, T.; Hoffman, M.J.; Humbert, A.; Huybrechts, P.; Jourdain, N.C.; Kleiner, T.; Larour, E.; Leguy, G.R.; Lowry, D.P.; Little, C.M.; Morlighem, M.; Pattyn, F.; Pelle, T.; Price, S.F.; Quiquet, A.; Reese, R.; Schlegel, N.J.; Shepherd, A.; Simon, E.; Smith, R.S.; Straneo, F.; Sun, S.A.; Trusel, L.D.; Van Breedam, J.; Van Katwyk, P.; van de Wal, R.S.W.; Winkelmann, R.; Zhao, C.; Zhang, T.; Zwinger, T. (2023). 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Cryosphere 12(9): 2901-2922. https://dx.doi.org/10.5194/tc-12-2901-2018","StandardTitle":"Melting over the northeast Antarctic Peninsula (1999-2009): evaluation of a high-resolution regional climate model","AuthorsString":"Datta, R.T. et al.","BibLvlCode":"AS"},{"BRefID":247082,"RR":"Hezel, P.J.; Fichefet, T.; Massonnet, F. (2014). Modeled Arctic sea ice evolution through 2300 in CMIP5 extended RCPs. Cryosphere 8(4): 1195-1204. dx.doi.org/10.5194/tc-8-1195-2014","StandardTitle":"Modeled Arctic sea ice evolution through 2300 in CMIP5 extended RCPs","AuthorsString":"Hezel, P.J. et al.","BibLvlCode":"AS"},{"BRefID":417572,"RR":"Charbit, S.; Dumas, C.; Maignan, F.; Ottlé, C.; Raoult, N.; Fettweis, X.; Conesa, P. (2024). Modelling snowpack on ice surfaces with the ORCHIDEE land surface model: application to the Greenland ice sheet. 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Cryosphere 8(4): 1347-1360. dx.doi.org/10.5194/tc-8-1347-2014","StandardTitle":"Modelling the evolution of the Antarctic ice sheet since the last interglacial","AuthorsString":"Maris, A et al.","BibLvlCode":"AS"},{"BRefID":363512,"RR":"Goosse, H.; Contador, S.A.; Bitz, C.M.; Blanchard-Wrigglesworth, E.; Eayrs, C.; Fichefet, T.; Himmich, K.; Huot, P.-V.; Klein, F.; Marchi, S.; Massonnet, F.; Mezzina, B.; Pelletier, C.; Roach, L.; Vancoppenolle, M.; van Lipzig, N.P.M. (2023). Modulation of the seasonal cycle of the Antarctic sea ice extent by sea iceprocesses and feedbacks with the ocean and the atmosphere. Cryosphere 17(1): 407-425. https://dx.doi.org/10.5194/tc-17-407-2023","StandardTitle":"Modulation of the seasonal cycle of the Antarctic sea ice extent by sea iceprocesses and feedbacks with the ocean and the atmosphere","AuthorsString":"Goosse, H. et al.","BibLvlCode":"AS"},{"BRefID":391386,"RR":"Dietrich, L.J.; Steen-Larsen, H.C.; Wahl, S.; Faber, A.K.; Fettweis, X. (2024). 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Cryosphere 13(9): 2457-2474. https://dx.doi.org/10.5194/tc-13-2457-2019","StandardTitle":"On the multi-fractal scaling properties of sea ice deformation","AuthorsString":"Rampal, P. et al.","BibLvlCode":"AS"},{"BRefID":311410,"RR":"Ponsoni, L.; Massonnet, F.; Fichefet, T.; Chevallier, M.; Docquier, D. (2019). On the timescales and length scales of the Arctic sea ice thickness anomalies: a study based on 14 reanalyses. Cryosphere 13(2): 521-543. https://dx.doi.org/10.5194/tc-13-521-2019","StandardTitle":"On the timescales and length scales of the Arctic sea ice thickness anomalies: a study based on 14 reanalyses","AuthorsString":"Ponsoni, L. et al.","BibLvlCode":"AS"},{"BRefID":247091,"RR":"Sorensen, L; Jensen, B; Glud, N; McGinnis, F; Sejr, K; Sievers, J; Sogaard, H; Tison, J.-L.; Rysgaard, S (2014). Parameterization of atmosphere-surface exchange of CO2 over sea ice. Cryosphere 8(3): 853-866. dx.doi.org/10.5194/tc-8-853-2014","StandardTitle":"Parameterization of atmosphere-surface exchange of CO2 over sea ice","AuthorsString":"Sorensen, L et al.","BibLvlCode":"AS"},{"BRefID":247093,"RR":"Zhou, J.; Tison, J.-L.; Carnat, G.; Geilfus, X; Delille, B. (2014). Physical controls on the storage of methane in landfast sea ice. Cryosphere 8(3): 1019-1029. dx.doi.org/10.5194/tc-8-1019-2014","StandardTitle":"Physical controls on the storage of methane in landfast sea ice","AuthorsString":"Zhou, J. et al.","BibLvlCode":"AS"},{"BRefID":297323,"RR":"Edwards, T.L.; Fettweis, X.; Gagliardini, O.; Gillet-Chaulet, F.; Goelzer, H.; Gregory, J.M.; Hoffmann, M.; Huybrechts, P.; Payne, A.J.; Perego, M.; Quiquet, A.; Ritz, C. (2014). Probabilistic parameterisation of the surface mass balance–elevation feedback in regional climate model simulations of the Greenland ice sheet. Cryosphere 8(1): 181-194. https://dx.doi.org/10.5194/tc-8-181-2014","StandardTitle":"Probabilistic parameterisation of the surface mass balance–elevation feedback in regional climate model simulations of the Greenland ice sheet","AuthorsString":"Edwards, T.L. et al.","BibLvlCode":"AS"},{"BRefID":337713,"RR":"Wang, S.; Tedesco, M.; Alexander, P.; Xu, M.; Fettweis, X. (2020). Quantifying spatiotemporal variability of glacier algal blooms and the impact on surface albedo in southwestern Greenland. Cryosphere 14(8): 2687-2713. https://hdl.handle.net/10.5194/tc-14-2687-2020","StandardTitle":"Quantifying spatiotemporal variability of glacier algal blooms and the impact on surface albedo in southwestern Greenland","AuthorsString":"Wang, S. et al.","BibLvlCode":"AS"},{"BRefID":369020,"RR":"Pollard, O.G.; Barlow, N.L.M.; Gregoire, L.J.; Gomez, N.; Cartelle, V.; Ely, J.C.; Astfalck, L.C. (2023). 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Reconstructions of the 1900-2015 Greenland ice sheet surface mass balance using the regional climate MAR model. Cryosphere 11(2): 1015-1033. https://hdl.handle.net/10.5194/tc-11-1015-2017","StandardTitle":"Reconstructions of the 1900-2015 Greenland ice sheet surface mass balance using the regional climate MAR model","AuthorsString":"Fettweis, X. et al.","BibLvlCode":"AS"},{"BRefID":257101,"RR":"Durand, G.; Pattyn, F. (2015). Reducing uncertainties in projections of Antarctic ice mass loss. Cryosphere 9(6): 2043-2055. dx.doi.org/10.5194/tc-9-2043-2015","StandardTitle":"Reducing uncertainties in projections of Antarctic ice mass loss","AuthorsString":"Durand, G.; Pattyn, F.","BibLvlCode":"AS"},{"BRefID":295539,"RR":"Docquier, D.; Massonnet, F.; Barthelemy, A.; Tandon, N.F.; Lecomte, O.; Fichefet, T. (2017). Relationships between Arctic sea ice drift and strength modelled by NEMO-LIM3.6. Cryosphere 11(6): 2829-2846. https://dx.doi.org/10.5194/tc-11-2829-2017","StandardTitle":"Relationships between Arctic sea ice drift and strength modelled by NEMO-LIM3.6","AuthorsString":"Docquier, D. et al.","BibLvlCode":"AS"},{"BRefID":337819,"RR":"Goelzer, H.; Noël, B.P.Y.; Edwards, T.L.; Fettweis, X.; Gregory, J.M.; Lipscomb, W.H.; van de Wal, R.S.W.; van den Broeke, M.R. (2020). Remapping of Greenland ice sheet surface mass balance anomalies for large ensemble sea-level change projections. 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Cryosphere 14(4): 1347-1383. https://dx.doi.org/10.5194/tc-14-1347-2020","StandardTitle":"Review article: How does glacier discharge affect marine biogeochemistry and primary production in the Arctic?","AuthorsString":"Hopwood, M.J. et al.","BibLvlCode":"AS"},{"BRefID":417681,"RR":"Bierman, P.R.; Christ, A.J.; Collins, C.M.; Mastro, H.M.; Souza, J.; Blard, P.H.; Brachfeld, S.; Courville, Z.R.; Rittenour, T.M.; Thomas, E.K.; Tison, J.L.; Fripiat, F. (2024). Scientific history, sampling approach, and physical characterization of the Camp Century subglacial material, a rare archive from beneath the Greenland Ice Sheet. Cryosphere 18(9): 4029-4052. https://dx.doi.org/10.5194/tc-18-4029-2024","StandardTitle":"Scientific history, sampling approach, and physical characterization of the Camp Century subglacial material, a rare archive from beneath the Greenland Ice Sheet","AuthorsString":"Bierman, P.R. et al.","BibLvlCode":"AS"},{"BRefID":247063,"RR":"Geilfus, N.-X.; Tison, J.-L.; Ackley, F; Galley, J; Rysgaard, S; Miller, A; Delille, B. (2014). Sea ice pCO2 dynamics and air-ice CO2 fluxes during the Sea Ice Mass Balance in the Antarctic (SIMBA) experiment - Bellingshausen Sea, Antarctica. Cryosphere 8(6): 2395-2407. dx.doi.org/10.5194/tc-8-2395-2014","StandardTitle":"Sea ice pCO2 dynamics and air-ice CO2 fluxes during the Sea Ice Mass Balance in the Antarctic (SIMBA) experiment - Bellingshausen Sea, Antarctica","AuthorsString":"Geilfus, N.-X. et al.","BibLvlCode":"AS"},{"BRefID":295609,"RR":"Pattyn, F. (2017). 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Cryosphere 19(9): 3897-3914. https://dx.doi.org/10.5194/tc-19-3897-2025","StandardTitle":"Seasonal and interannual variability in freshwater sources for Greenland's fjords","AuthorsString":"Vries, A.L. et al.","BibLvlCode":"AS"},{"BRefID":310440,"RR":"Ran, J.; Vizcaino, M.; Ditmar, P.; van den Broeke, M.R.; Moon, T.; Steger, C.R.; Enderlin, E.M.; Wouters, B.; Noël, B.; Reijmer, C.H.; Klees, R.; Zhong, M.; Liu, L.; Fettweis, X. (2018). Seasonal mass variations show timing and magnitude of meltwater storage in the Greenland Ice Sheet. Cryosphere 12(9): 2981-2999. https://dx.doi.org/10.5194/tc-12-2981-2018","StandardTitle":"Seasonal mass variations show timing and magnitude of meltwater storage in the Greenland Ice Sheet","AuthorsString":"Ran, J. et al.","BibLvlCode":"AS"},{"BRefID":337624,"RR":"Rückamp, M.; Goelzer, H.; Humbert, A. (2020). Sensitivity of Greenland ice sheet projections to spatial resolution in higher-order simulations: the Alfred Wegener Institute (AWI) contribution to ISMIP6 Greenland using the Ice-sheet and Sea-level System Model (ISSM). Cryosphere 14(10): 3309-3327. https://hdl.handle.net/10.5194/tc-14-3309-2020","StandardTitle":"Sensitivity of Greenland ice sheet projections to spatial resolution in higher-order simulations: the Alfred Wegener Institute (AWI) contribution to ISMIP6 Greenland using the Ice-sheet and Sea-level System Model (ISSM)","AuthorsString":"Rückamp, M.; Goelzer, H.; Humbert, A.","BibLvlCode":"AS"},{"BRefID":247070,"RR":"Noël, B.; Fettweis, X.; van de Berg, J; van den Broeke, R; Erpicum, M. (2014). Sensitivity of Greenland Ice Sheet surface mass balance to perturbations in sea surface temperature and sea ice cover: a study with the regional climate model MAR. Cryosphere 8(5): 1871-1883. dx.doi.org/10.5194/tc-8-1871-2014","StandardTitle":"Sensitivity of Greenland Ice Sheet surface mass balance to perturbations in sea surface temperature and sea ice cover: a study with the regional climate model MAR","AuthorsString":"Noël, B. et al.","BibLvlCode":"AS"},{"BRefID":310420,"RR":"Kittel, C.; Amory, C.; Agosta, C.; Delhasse, A.; Doutreloup, S.; Huot, P.-V.; Wyard, C.; Fichefet, T.; Fettweis, X. (2018). Sensitivity of the current Antarctic surface mass balance to sea surface conditions using MAR. Cryosphere 12(12): 3827-3839. https://dx.doi.org/10.5194/tc-12-3827-2018","StandardTitle":"Sensitivity of the current Antarctic surface mass balance to sea surface conditions using MAR","AuthorsString":"Kittel, C. et al.","BibLvlCode":"AS"},{"BRefID":353323,"RR":"Le Toumelin, L.; Amory, C.; Favier, V.; Kittel, C.; Hofer, S.; Fettweis, X.; Gallee, H.; Kayetha, V. (2021). Sensitivity of the surface energy budget to drifting snow as simulated by MAR in coastal Adelie Land, Antarctica. Cryosphere 15(8): 3595-3614. https://dx.doi.org/10.5194/tc-15-3595-2021","StandardTitle":"Sensitivity of the surface energy budget to drifting snow as simulated by MAR in coastal Adelie Land, Antarctica","AuthorsString":"Le Toumelin, L. et al.","BibLvlCode":"AS"},{"BRefID":331257,"RR":"Zekollari, H.; Huybrechts, P.; Noël, B.; van de Berg, W.J.; van den Broeke, M.R. (2017). Sensitivity, stability and future evolution of the world's northernmost ice cap, Hans Tausen Iskappe (Greenland). Cryosphere 11(2): 805-825. https://dx.doi.org/10.5194/tc-11-805-2017","StandardTitle":"Sensitivity, stability and future evolution of the world's northernmost ice cap, Hans Tausen Iskappe (Greenland)","AuthorsString":"Zekollari, H. et al.","BibLvlCode":"AS"},{"BRefID":322844,"RR":"Guo, X.; Zhao, L.; Gladstone, R.M.; Sun, S.; Moore, J.C. (2019). Simulated retreat of Jakobshavn Isbrae during the 21st century. Cryosphere 13(11): 3139-3153. https://dx.doi.org/10.5194/tc-13-3139-2019","StandardTitle":"Simulated retreat of Jakobshavn Isbrae during the 21st century","AuthorsString":"Guo, X. et al.","BibLvlCode":"AS"},{"BRefID":295864,"RR":"de Boer, B.; Dolan, A.M.; Bernales, J.; Gasson, E.; Goelzer, H.; Golledge, N.R.; Sutter, J.; Huybrechts, P.; Lohmann, G.; Rogozhina, I.; Abe-Ouchi, A.; Saito, F.; van de Wal, R.S.W. (2015). Simulating the Antarctic ice sheet in the late-Pliocene warm period: PLISMIP-ANT, an ice-sheet model intercomparison project. Cryosphere 9(3): 881-903. https://dx.doi.org/10.5194/tc-9-881-2015","StandardTitle":"Simulating the Antarctic ice sheet in the late-Pliocene warm period: PLISMIP-ANT, an ice-sheet model intercomparison project","AuthorsString":"de Boer, B. et al.","BibLvlCode":"AS"},{"BRefID":363500,"RR":"Miles, B.W.J.; Stokes, C.R.; Jenkins, A.; Jordan, J.R.; Jamieson, S.S.R.; Gudmundsson, G.H. (2023). Slowdown of Shirase Glacier, East Antarctica, caused by strengthening alongshore winds. Cryosphere 17(1): 445-456. https://dx.doi.org/10.5194/tc-17-445-2023","StandardTitle":"Slowdown of Shirase Glacier, East Antarctica, caused by strengthening alongshore winds","AuthorsString":"Miles, B.W.J. et al.","BibLvlCode":"AS"},{"BRefID":391449,"RR":"Maure, D.; Kittel, C.; Lambin, C.; Delhasse, A.; Fettweis, X. (2023). Spatially heterogeneous effect of climate warming on the Arctic land ice. Cryosphere 17(11): 4645-4659. https://dx.doi.org/10.5194/tc-17-4645-2023","StandardTitle":"Spatially heterogeneous effect of climate warming on the Arctic land ice","AuthorsString":"Maure, D. et al.","BibLvlCode":"AS"},{"BRefID":238398,"RR":"Boereboom, T.; Samyn, D.; Meyer, H.; Tison, J.-L. (2013). Stable isotope and gas properties of two climatically contrasting (Pleistocene and Holocene) ice wedges from Cape Mamontov Klyk, Laptev Sea, northern Siberia. Cryosphere 7(1): 31-46. dx.doi.org/10.5194/tc-7-31-2013","StandardTitle":"Stable isotope and gas properties of two climatically contrasting (Pleistocene and Holocene) ice wedges from Cape Mamontov Klyk, Laptev Sea, northern Siberia","AuthorsString":"Boereboom, T. et al.","BibLvlCode":"AS"},{"BRefID":337751,"RR":"Ponsoni, L.; Massonnet, F.; Docquier, D.; Van Achter, G.; Fichefet, T. (2020). Statistical predictability of the Arctic sea ice volume anomaly: identifying predictors and optimal sampling locations. Cryosphere 14(7): 2409-2428. https://hdl.handle.net/10.5194/tc-14-2409-2020","StandardTitle":"Statistical predictability of the Arctic sea ice volume anomaly: identifying predictors and optimal sampling locations","AuthorsString":"Ponsoni, L. et al.","BibLvlCode":"AS"},{"BRefID":352551,"RR":"Wilkenskjeld, S.; Miesner, F.; Overduin, P.P.; Puglini, M.; Brovkin, V. (2022). Strong increase in thawing of subsea permafrost in the 22nd century caused by anthropogenic climate change. Cryosphere 16(3): 1057-1069. https://dx.doi.org/10.5194/tc-16-1057-2022","StandardTitle":"Strong increase in thawing of subsea permafrost in the 22nd century caused by anthropogenic climate change","AuthorsString":"Wilkenskjeld, S. et al.","BibLvlCode":"AS"},{"BRefID":361527,"RR":"Kazmierczak, E.; Sun, S.; Coulon, V.; Pattyn, F. (2022). Subglacial hydrology modulates basal sliding response of the Antarctic ice sheet to climate forcing. Cryosphere 16(10): 4537-4552. https://dx.doi.org/10.5194/tc-16-4537-2022","StandardTitle":"Subglacial hydrology modulates basal sliding response of the Antarctic ice sheet to climate forcing","AuthorsString":"Kazmierczak, E. et al.","BibLvlCode":"AS"},{"BRefID":297329,"RR":"Vernon, C.L.; Bamber, J.L.; Box, J.E.; van den Broeke, M.R.; Fettweis, X.; Hanna, E.; Huybrechts, P. (2013). Surface mass balance model intercomparison for the Greenland ice sheet. Cryosphere 7(2): 599-614. https://dx.doi.org/10.5194/tc-7-599-2013","StandardTitle":"Surface mass balance model intercomparison for the Greenland ice sheet","AuthorsString":"Vernon, C.L. et al.","BibLvlCode":"AS"},{"BRefID":353487,"RR":"Colosio, P.; Tedesco, M.; Ranzi, R.; Fettweis, X. (2021). Surface melting over the Greenland ice sheet derived from enhanced resolution passive microwave brightness temperatures (1979-2019). Cryosphere 15(6): 2623-2646. https://dx.doi.org/10.5194/tc-15-2623-2021","StandardTitle":"Surface melting over the Greenland ice sheet derived from enhanced resolution passive microwave brightness temperatures (1979-2019)","AuthorsString":"Colosio, P. et al.","BibLvlCode":"AS"},{"BRefID":417736,"RR":"Stokholm, A.; Buus-Hinkler, J.; Wulf, T.; Korosov, A.; Saldo, R.; Pedersen, L.T.; Arthurs, D.; Dragan, I.; Modica, I.; Pedro, J.; Debien, A.; Chen, X.W.; Patel, M.; Cantu, F.J.P.; Turnes, J.N.; Park, J.; Xu, L.L.; Scott, K.A.; Clausi, D.A.; Fang, Y.; Jiang, M.Z.; Taleghanidoozdoozan, S.; Brubacher, N.C.; Soleymani, A.; Gousseau, Z.; Smaczny, M.; Kowalski, P.; Komorowski, J.; Rijlaarsdam, D.; van Rijn, J.N.; Jakobsen, J.; Rogers, M.S.J.; Hughes, N.; Zagon, T.; Solberg, R.; Longépé, N.; Kreiner, M.B. (2024). The AutoICE Challenge. Cryosphere 18(8): 3471-3494. https://dx.doi.org/10.5194/tc-18-3471-2024","StandardTitle":"The AutoICE Challenge","AuthorsString":"Stokholm, A. et al.","BibLvlCode":"AS"},{"BRefID":242477,"RR":"Barnhart, K.R.; Overeem, L.; Anderson, R.S. (2014). The effect of changing sea ice on the physical vulnerability of Arctic coasts. Cryosphere 8(5): 1777-1799. http://dx.doi.org/10.5194/tc-8-1777-2014","StandardTitle":"The effect of changing sea ice on the physical vulnerability of Arctic coasts","AuthorsString":"Barnhart, K.R. et al.","BibLvlCode":"AS"},{"BRefID":337667,"RR":"Goelzer, H.; Nowicki, S.; Payne, A.; Larour, E.; Seroussi, H.; Lipscomb, W.H.; Gregory, J.; Abe-Ouchi, A.; Shepherd, A.; Simon, E.; Agosta, C.; Alexander, P.; Aschwanden, A.; Barthel, A.; Calov, R.; Chambers, C.R.; Choi, Y.; Cuzzone, J.; Dumas, C.; Edwards, T.; Felikson, D.; Fettweis, X.; Golledge, N.R.; Greve, R.; Humbert, A.; Huybrechts, P.; Le Clec'h, S.; Lee, V.; Leguy, G.; Little, C.; Lowry, D.P.; Morlighem, M.; Nias, I.; Quiquet, A.; Rückamp, M.; Schlegel, N.-J.; Slater, D.A.; Smith, R.S.; Straneo, F.; Tarasov, L.; van de Wal, R.; van den Broeke, M. (2020). The future sea-level contribution of the Greenland ice sheet: a multi-model ensemble study of ISMIP6. Cryosphere 14(9): 3071-3096. https://hdl.handle.net/10.5194/tc-14-3071-2020","StandardTitle":"The future sea-level contribution of the Greenland ice sheet: a multi-model ensemble study of ISMIP6","AuthorsString":"Goelzer, H. et al.","BibLvlCode":"AS"},{"BRefID":417652,"RR":"Klose, A.K.; Coulon, V.; Pattyn, F.; Winkelmann, R. (2024). The long-term sea-level commitment from Antarctica. Cryosphere 18(9): 4463-4492. https://dx.doi.org/10.5194/tc-18-4463-2024","StandardTitle":"The long-term sea-level commitment from Antarctica","AuthorsString":"Klose, A.K. et al.","BibLvlCode":"AS"},{"BRefID":405669,"RR":"Krause, J.; Carroll, D.; Höfer, J.; Donaire, J.; Achterberg, E.P.; Alarcón, E.; Liu, T.; Meire, L.; Zhu, K.; Hopwood, M.J. (2024). The macronutrient and micronutrient (iron and manganese) content of icebergs. 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