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Submillimeter dust polarimetry with the BLAST-TNG telescope

Authors :
Gailtzki, Nicholas
Ade, Peter
Angile, Francesco E.
Ashton, Peter
Beall, James Howard
Becker, Dan
Bradford, Kristi J.
Che, George
Cho, Hsiao-Mei
Devlin, Mark J.
Dober, Bradley
Fissel, Laura M.
Fukui, Yasuo
Gao, Jiansong
Groppi, Christopher E.
Hillbrand, Seth N.
Hilton, Gene
Irwin, Kent
Klein, Jeffrey
Van Lanen, Jeffrey
Li, Dale
Li, Zhi-Yun
Lourie, Nathan
Mani, Hamdi
Martin, Peter G.
Mauskopf, Philip
Nakamura, Fumitaka
Novak, Giles
Pappas, David P.
Pascale, Enzo
Pisano, Giampaolo
Santos, Fabio P.
Savini, Giorgio
Scott, Douglas
Stanchfield, Sara
Tucker, Carole
Ullom, Joel
Underhill, Matthew
Vissers, Michael
Ward-Thompson, Derek
Hubmayr, Hannes
Doyle, Simon
Gailtzki, Nicholas
Ade, Peter
Angile, Francesco E.
Ashton, Peter
Beall, James Howard
Becker, Dan
Bradford, Kristi J.
Che, George
Cho, Hsiao-Mei
Devlin, Mark J.
Dober, Bradley
Fissel, Laura M.
Fukui, Yasuo
Gao, Jiansong
Groppi, Christopher E.
Hillbrand, Seth N.
Hilton, Gene
Irwin, Kent
Klein, Jeffrey
Van Lanen, Jeffrey
Li, Dale
Li, Zhi-Yun
Lourie, Nathan
Mani, Hamdi
Martin, Peter G.
Mauskopf, Philip
Nakamura, Fumitaka
Novak, Giles
Pappas, David P.
Pascale, Enzo
Pisano, Giampaolo
Santos, Fabio P.
Savini, Giorgio
Scott, Douglas
Stanchfield, Sara
Tucker, Carole
Ullom, Joel
Underhill, Matthew
Vissers, Michael
Ward-Thompson, Derek
Hubmayr, Hannes
Doyle, Simon

Abstract

Polarized thermal emission from dust grains can be used to trace magnetic fields in molecular clouds and the ISM. The Balloon-borne Large Aperture Submillimeter Telescope for Polarimetry (BLASTPol) flew from Antarctica in 2010 and 2012 and has produced degree scale polarization maps of multiple nearby molecular clouds with arcminute resolution. The success of BLASTPol has motivated a next-generation instrument, BLAST-TNG, with additional resolution and sensitivity to fully understand the role magnetic fields play in the early stages of the star formation process. BLAST-TNG will use an array of ~1500 linear polarization sensitive pixels populated with Microwave Kinetic Inductance Detectors (MKIDs) combined with a 2.5 m diameter carbon fiber primary mirror to make diffraction limited observations at 250, 350, and 500 microns. With 16 times the mapping speed of BLASTPol, sub-arcminute resolution, and a longer flight time, BLAST-TNG will be able to examine nearby molecular clouds and the diffuse galactic dust polarization spectrum in unprecedented detail. Additionally, the instrument will be in a unique position to link the all-sky, five arcminute resolution, dust polarization maps of Planck with the high resolution, but small area, polarization maps from ALMA allowing us to trace magnetic fields from protostellar cores out to the surrounding molecular clouds and ISM. BLAST-TNG is scheduled to fly from Antarctica in 2016 for 28 days and will be the first balloon-borne telescope to offer a quarter of the flight for "shared risk" observing by the community.

Details

Database :
OAIster
Publication Type :
Electronic Resource
Accession number :
edsoai.on1392390108
Document Type :
Electronic Resource