Restricted accessResearch articleFirst published online 2021-8
Steffen K,Abdalati W and Stroeve J (1993) Climate sensitivity studies of the Greenland ice sheet using satellite AVHRR,SMMR SSM/I and in situ data. Meteorology and Atmospheric Physics 51(3–4): 239–258. DOI:10.1007/bf01030497
Physical geographer Konrad “Koni” Steffen, lost 8 August 2020 in a crevasse on the Greenland ice sheet, was a pioneer in satellite remote sensing and field observations of the Greenland ice sheet. This Classics Revisited piece honors the memory of Koni Steffen and examines the impact of a work which laid the foundation for numerous studies that made the Greenland ice sheet and the man global icons of climate change.
AbdalatiWSteffenK (1995) Passive microwave-derived snow melt regions on the Greenland Ice Sheet. Geophysical Research Letters22(7): 787–790.
2.
AbdalatiWSteffenK (1997) Snowmelt on the Greenland ice sheet as derived from passive microwave satellite data. Journal of Climate10(2): 165–175.
3.
BoxJEFettweisXStroeveJCTedescoMHallDKSteffenK (2012) Greenland ice sheet albedo feedback: Thermodynamics and atmospheric drivers. The Cryosphere6(4): 821–839.
4.
CavalieriDJParkinsonCLGloersenPZwallyHJ (1997) Arctic and Antarctic sea ice concentrations from multichannel passive-microwave satellite data sets: October 1978–September 1995. NASA Technical Memorandum104647.
5.
KleinAGStroeveJ (2002) Development and validation of a snow albedo algorithm for the MODIS instrument. Annals of Glaciology34: 45–52.
6.
LiangLLiXZhengF (2019) Spatio–temporal analysis of ice sheet snowmelt in Antarctica and Greenland using microwave radiometer data. Remote Sensing11(16): 1838.
7.
LiuHWangLJezekKC (2006) Spatiotemporal variations of snowmelt in Antarctica derived from satellite scanning multichannel microwave radiometer and Special Sensor Microwave Imager data (1978–2004). Journal of Geophysical Research111(F1): F01003.
8.
MoteTLAndersonMRKuivinenKCRoweCM (1993) Passive microwave-derived spatial and temporal variations of summer melt on the Greenland ice sheet. Annals of Glaciology17: 233–238.
PengJYuYYuPLiangS (2018) The VIIRS sea-ice albedo product generation and preliminary validation. Remote Sensing10(11): 1826.
11.
SmithBFrickerHAGardnerASMedleyBNilssonJPaoloFSHolschuhNAdusumilliSBruntKCsathoBHarbeckKMarkusTNeumannTSiegfriedMRZwallyHJ (2020) Pervasive ice sheet mass loss reflects competing ocean and atmosphere processes. Science368(6496): 1239–1242.
12.
SteffenKAbdalatiWStroeveJ (1993) Climate sensitivity studies of the Greenland ice sheet using satellite AVHRR, SMMR, SSM/I and in situ data. Meteorology and Atmospheric Physics51(3-4): 239–258.
13.
StroeveJ (2001) Assessment of Greenland albedo variability from the advanced very high resolution radiometer Polar Pathfinder data set. Journal of Geophysical Research: Atmospheres106(D24): 33989–34006.
14.
StroeveJSteffenK (1998) Variability of AVHRR-derived clear-sky surface temperature over the Greenland ice sheet. Journal of Applied Meteorology and Climatology37(1): 23–31.
15.
TedescoMFettweisXvan den BroekeMRvan de WalRSWSmeetsCJPPvan de BergWJSerrezeMCBoxJE (2011) The role of albedo and accumulation in the 2010 melting record in Greenland. Environmental Research Letters6(1): 014005.
16.
TorinesiOFilyMGenthonC (2003) Variability and trends of the summer melt period of Antarctic ice margins since 1980 from microwave sensors. Journal of Climate16(7): 1047–1060.
17.
ZhengLZhouCLiangQ (2019) Variations in Antarctic Peninsula snow liquid water during 1999–2017 revealed by merging radiometer, scatterometer and model estimations. Remote Sensing of Environment232: 111219.
18.
ZwallyHJ (1989) Growth of Greenland ice sheet: Interpretation. Science246(4937): 1589–1591.