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Arctic Facility for Atmospheric Remote Sensing
Arctic Facility for Atmospheric Remote Sensing
Instruments in this facility:
Instruments in this facility:
Eye-Safe Polarization Full Stokes Lidar 1574 nm. (funded by ARL, NSF, NASA)
Eye-Safe Polarization Full Stokes Lidar 1574 nm. (funded by ARL, NSF, NASA)
Ice-Lidar 532 nm Polarimetric / Raman 6 -channel Lidar for aerosols and cloud research (funded by NSF)
Ice-Lidar 532 nm Polarimetric / Raman 6 -channel Lidar for aerosols and cloud research (funded by NSF)
NIR 1064 nm, 1 sec Lidar Profiler - Turbulence structures in the Atmospheric Boundary Layer (funded by NRL)
NIR 1064 nm, 1 sec Lidar Profiler - Turbulence structures in the Atmospheric Boundary Layer (funded by NRL)
Laboratory for Laser Raman Spectroscopy
Laboratory for Laser Raman Spectroscopy
Instruments in this facility are:
Instruments in this facility are:
CW-SLM-TEM00- Compass 315 Coherent Laser
CW-SLM-TEM00- Compass 315 Coherent Laser
iHR 550 Horiba Jobin-Yvon 0.5 m focal computer controlled Imaging Spectrometer
iHR 550 Horiba Jobin-Yvon 0.5 m focal computer controlled Imaging Spectrometer
Cryogenic CCD 1024 x 512
Cryogenic CCD 1024 x 512
Custom designed opto-mechanic focusing, laser injection and sample holder
Custom designed opto-mechanic focusing, laser injection and sample holder
Optical platform for polarization sensitive Raman Spectroscopy (funded by Alaska Space Grant, NASA)
Optical platform for polarization sensitive Raman Spectroscopy (funded by Alaska Space Grant, NASA)
Diego Arias-Arana (PhD Student Earth System Sciences - Atmos. Sciences Track)
Diego Arias-Arana (PhD Student Earth System Sciences - Atmos. Sciences Track)
Research: Turbulent Fluxes in the Surface Layer under non-stationary atmospheric flow conditions.
Example Publications:
Example Publications:
Arias-Arana, D., Fochesatto, G.J., Jimenez, R. et al. Locally Stationary Wavelet Analysis of Nonstationary Turbulent Fluxes. Boundary-Layer Meteorol 190, 33 (2024). https://doi.org/10.1007/s10546-024-00872-y
https://link.springer.com/article/10.1007/s10546-024-00872-y
Dishi Thomas (PhD Student Atmospheric Sciences)
Dishi Thomas (PhD Student Atmospheric Sciences)
Research: Buildup and Breakup of Surface Based Temperature Inversions layers in the cold and dark atmospheres. Co-Chaired with Dr. Douglas Keller LMD, Ecole Polytechnique, France.
Senha Ramakrishnan (PhD Student Atmospheric Sciences)
Senha Ramakrishnan (PhD Student Atmospheric Sciences)
Research: The Effects of the Shallow Cold Flows in the State of the winter Atmospheric Boundary Layer. Co-Chaired with Dr. Douglas Keller, LMD, Ecole Polytechnique, France.
Derek P. Starkenburg (Ph.D Atmospheric Sciences, 2015)
Derek P. Starkenburg (Ph.D Atmospheric Sciences, 2015)
Research: Turbulent fluxes in complex canopies heterogeneous surfaces: canopy and sub-canopy flow coupling, spatial variation of fluxes and large scale aggregation of fluxes.
Research: Turbulent fluxes in complex canopies heterogeneous surfaces: canopy and sub-canopy flow coupling, spatial variation of fluxes and large scale aggregation of fluxes.
Example Publications:
Example Publications:
Starkenburg, D., S. Metzger, G. Fochesatto, J. Alfieri, R. Gens, A. Prakash, and J. Cristóbal, 2016. Assessment of Despiking Methods for Turbulence Data in Micrometeorology. J. Atmos. Oceanic Technol., 33, 2001–2013, doi: 10.1175/JTECH-D-15-0154.1.
Starkenburg, D., S. Metzger, G. Fochesatto, J. Alfieri, R. Gens, A. Prakash, and J. Cristóbal, 2016. Assessment of Despiking Methods for Turbulence Data in Micrometeorology. J. Atmos. Oceanic Technol., 33, 2001–2013, doi: 10.1175/JTECH-D-15-0154.1.
Starkenburg D. P., Fochesatto G. J., Cristóbal J., Prakash A., Gens R., Alfieri J.G., Nagano H., Harazono Y., Iwata H. and Kane D.L. 2015. Temperature regimes and turbulent heat fluxes across a heterogeneous canopy in an Alaskan boreal forest. J. Geophys. Res. Atmos., 120: 1348–1360. doi: 10.1002/2014JD022338
Starkenburg D. P., Fochesatto G. J., Cristóbal J., Prakash A., Gens R., Alfieri J.G., Nagano H., Harazono Y., Iwata H. and Kane D.L. 2015. Temperature regimes and turbulent heat fluxes across a heterogeneous canopy in an Alaskan boreal forest. J. Geophys. Res. Atmos., 120: 1348–1360. doi: 10.1002/2014JD022338
Starkenburg, D., G. J. Fochesatto, A. Prakash, J. Cristóbal, R. Gens, and D. L. Kane. 2013. The role of coherent flow structures in the sensible heat fluxes of an Alaskan boreal forest. J. Geophys. Res. Atmos., 118, 8140–8155, doi:10.1002/jgrd.50625.
Starkenburg, D., G. J. Fochesatto, A. Prakash, J. Cristóbal, R. Gens, and D. L. Kane. 2013. The role of coherent flow structures in the sensible heat fluxes of an Alaskan boreal forest. J. Geophys. Res. Atmos., 118, 8140–8155, doi:10.1002/jgrd.50625.
Watcharee Ruairuen (Ph.D Natural Resources and Sustainability, 2015)
Watcharee Ruairuen (Ph.D Natural Resources and Sustainability, 2015)
Research: Evapotranspiration cycles in Agroecosystems in Northern latitudes, micrometeorological and hydrological techniques for irrigation and agroecosystems sustainable management of water.
Research: Evapotranspiration cycles in Agroecosystems in Northern latitudes, micrometeorological and hydrological techniques for irrigation and agroecosystems sustainable management of water.
Example Publications:
Example Publications:
Ruairuen W., G. J. Fochesatto, E. B. Sparrow, W. Schnable, M. Zhang and Y. Kim. 2015. Evapotranspiration Cycles in a High Latitude Agroecosystem: Potential Warming Role. Plos One DOI:10.1371/journal.pone.0137209. 30 pages.
Ruairuen W., G. J. Fochesatto, E. B. Sparrow, W. Schnable, M. Zhang and Y. Kim. 2015. Evapotranspiration Cycles in a High Latitude Agroecosystem: Potential Warming Role. Plos One DOI:10.1371/journal.pone.0137209. 30 pages.
Ruairuen W., G. J. Fochesatto, M. Bitelli, E. B. Sparrow, M. Zhang and W. Schnable. Book Chapter: Evapotranspiration, InTech Open Source (2017). Evapotranspiration in Northern Agroecosystems: Numerical Simulation and Experimental Comparison.
Ruairuen W., G. J. Fochesatto, M. Bitelli, E. B. Sparrow, M. Zhang and W. Schnable. Book Chapter: Evapotranspiration, InTech Open Source (2017). Evapotranspiration in Northern Agroecosystems: Numerical Simulation and Experimental Comparison.
Matthew A. Gruber (MS Atmospheric Sciences, 2013)
Matthew A. Gruber (MS Atmospheric Sciences, 2013)
Research: Large Scale Area-Average turbulent fluxes retrievals by Scintillometry Theory and Applications.
Research: Large Scale Area-Average turbulent fluxes retrievals by Scintillometry Theory and Applications.
Example Publications:
Example Publications:
Gruber, M. A., G.J. Fochesatto, O.K. Hartogensis, and M. Lysy. 2014. Functional derivatives applied to error propagation of uncertainties in topography to large-aperture scintillometer-derived heat fluxes. Atmos. Meas. Tech., 7, 2361-2371, doi:10.5194/amt-7-2361-2014, 2014.
Gruber, M. A., G.J. Fochesatto, O.K. Hartogensis, and M. Lysy. 2014. Functional derivatives applied to error propagation of uncertainties in topography to large-aperture scintillometer-derived heat fluxes. Atmos. Meas. Tech., 7, 2361-2371, doi:10.5194/amt-7-2361-2014, 2014.
Gruber M. A, G. J. Fochesatto and O. Hartogensis. 2014. Sensitivity of Displaced-Beam Scintillometer Measurements of Area-Average Heat Fluxes to Uncertainties in Topographic Heights. arXiv Atmospheric and Oceanic Physics, 1405.2309.
Gruber M. A, G. J. Fochesatto and O. Hartogensis. 2014. Sensitivity of Displaced-Beam Scintillometer Measurements of Area-Average Heat Fluxes to Uncertainties in Topographic Heights. arXiv Atmospheric and Oceanic Physics, 1405.2309.
Gruber M. A, G. J. Fochesatto and O. Hartogensis. 2014. Sensitivity of Large-Aperture Scintillometer Measurements of Area-Average Heat Fluxes to Uncertainties in Topographic Heights over Variable Terrain”. Atmos. Meas. Tech. Discuss., 7, 33-68, 2014.
Gruber M. A, G. J. Fochesatto and O. Hartogensis. 2014. Sensitivity of Large-Aperture Scintillometer Measurements of Area-Average Heat Fluxes to Uncertainties in Topographic Heights over Variable Terrain”. Atmos. Meas. Tech. Discuss., 7, 33-68, 2014.
Gruber M. A, G. J. Fochesatto and O. Hartogensis. 2014. Sensitivity of Displaced-Beam Scintillometer Measurements of Area-Average Heat Fluxes to Uncertainties in Topographic Heights. arXiv, Atmospheric and Oceanic Physics, 1405.2309.
Gruber M. A, G. J. Fochesatto and O. Hartogensis. 2014. Sensitivity of Displaced-Beam Scintillometer Measurements of Area-Average Heat Fluxes to Uncertainties in Topographic Heights. arXiv, Atmospheric and Oceanic Physics, 1405.2309.
Gruber M. A. and G. J. Fochesatto. 2013. A New Sensitivity Analysis and Solution Method for Scintillometer Measurements of Area-Average Turbulent Fluxes. Boundary-Layer Meteorology, 149:65–83 DOI 10.1007/s10546-013-9835-9
Gruber M. A. and G. J. Fochesatto. 2013. A New Sensitivity Analysis and Solution Method for Scintillometer Measurements of Area-Average Turbulent Fluxes. Boundary-Layer Meteorology, 149:65–83 DOI 10.1007/s10546-013-9835-9
Gruber, M. A., Fochesatto, G. J., Hartogensis, O. K., and Lysy, M. 2013. Functional derivatives applied to error propagation of uncertainties in topography to large-aperture scintillometer-derived heat fluxes”. arXiv Atmospheric and Oceanic Physics, 1309.4735. Published final version in Atmospheric Measurements Techniques.
Gruber, M. A., Fochesatto, G. J., Hartogensis, O. K., and Lysy, M. 2013. Functional derivatives applied to error propagation of uncertainties in topography to large-aperture scintillometer-derived heat fluxes”. arXiv Atmospheric and Oceanic Physics, 1309.4735. Published final version in Atmospheric Measurements Techniques.
Gruber M. A. and G. J. Fochesatto. 2013. A New Sensitivity Analysis and Solution Method for Scintillometer Measurements of Area-Averaged Turbulent Fluxes. arXiv Atmospheric and Oceanic Physics, 1309.1902. Published final version in Boundary-Layer Meteorology.
Gruber M. A. and G. J. Fochesatto. 2013. A New Sensitivity Analysis and Solution Method for Scintillometer Measurements of Area-Averaged Turbulent Fluxes. arXiv Atmospheric and Oceanic Physics, 1309.1902. Published final version in Boundary-Layer Meteorology.
John A. Mayfield (MS Atmospheric Sciences, 2011)
John A. Mayfield (MS Atmospheric Sciences, 2011)
Research: Micrometeorological influences of small scale flows in the winter atmospheric boundary layer of Interior of Alaska.
Research: Micrometeorological influences of small scale flows in the winter atmospheric boundary layer of Interior of Alaska.
Example Publications:
Example Publications:
Mayfield J. A. and G. J. Fochesatto. 2013. The Layered Structure of the winter Atmospheric Boundary Layer in the Interior of Alaska. J. Appl. Met. and Climatol., 52, 953-973.
Mayfield J. A. and G. J. Fochesatto. 2013. The Layered Structure of the winter Atmospheric Boundary Layer in the Interior of Alaska. J. Appl. Met. and Climatol., 52, 953-973.
Fochesatto G. J., J. A. Mayfield, M. A. Gruber, D. Starkenburg and J. Conner. 2013. Occurrence of Shallow Cold Flows in the Winter Atmospheric Boundary Layer of Interior of Alaska. Meteorol. Atmos. Phys. DOI 10.1007/s00703-013-0274-4.
Fochesatto G. J., J. A. Mayfield, M. A. Gruber, D. Starkenburg and J. Conner. 2013. Occurrence of Shallow Cold Flows in the Winter Atmospheric Boundary Layer of Interior of Alaska. Meteorol. Atmos. Phys. DOI 10.1007/s00703-013-0274-4.
MS Mechanical Engineering Douglas Keller. Testing FOSS - Fiber Optics Strain Sensing to advance Electric Powered UAS systems in collaboration with NASA-Armstrong Flight Research Center
MS Mechanical Engineering Douglas Keller. Testing FOSS - Fiber Optics Strain Sensing to advance Electric Powered UAS systems in collaboration with NASA-Armstrong Flight Research Center
Advantages of Fiber Bragg gratings for measuring electric motor loadings in aerospace application
Advantages of Fiber Bragg gratings for measuring electric motor loadings in aerospace application
ERANET-LAC EU-Horizon 2020 - International Collaboration. Methanogenic Biodiversity and Activity in Arctic and Sub-Antarctic Ecosystems affected by Climate Change. Collaboration with researchers from: France, Chile, Uruguay, Belgium, Norway, Mexico, Russia and USA.
ERANET-LAC EU-Horizon 2020 - International Collaboration. Methanogenic Biodiversity and Activity in Arctic and Sub-Antarctic Ecosystems affected by Climate Change. Collaboration with researchers from: France, Chile, Uruguay, Belgium, Norway, Mexico, Russia and USA.
Seppey, C.V.W., Cabrol, L., Thalasso, F., Gandois, L., Lavergne,
C., Martinez-Cruz, K. et al. (2023) Biogeography
of microbial communities in high-latitude
ecosystems: Contrasting drivers for
methanogens, methanotrophs and global
prokaryotes. Environmental Microbiology, 25(12),
3364–3386. Available from: https://doi.org/10.
1111/1462-2920.16526
https://enviromicro-journals.onlinelibrary.wiley.com/doi/full/10.1111/1462-2920.16526
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