TY - JOUR
T1 - Radiative Feedback from Massive Stars as Traced by Multiband Imaging and Spectroscopic Mosaics
AU - Berne, Oliver
AU - Habart, Emilie
AU - Peeters, Els
AU - Abergel, A.
AU - Bergin, E.
AU - Bernard-Salas, J.
AU - Bron, E.
AU - Cami, J.
AU - Cazaux, S.
AU - Dartois, E.
AU - Fuente, A.
AU - Goicoechea, J.
AU - Gordon, K.
AU - Onaka, T.
AU - Robberto, M.
AU - Tielens, A.
AU - Vincente, S.
AU - Wolfire, M.
AU - Okada, Y.
PY - 2017
Y1 - 2017
N2 - Massive stars disrupt their natal molecular cloud material by
dissociating molecules, ionizing atoms and molecules, and heating the
gas and dust. These processes drive the evolution of interstellar matter
in our Galaxy and throughout the Universe from the era of vigorous star
formation at redshifts of 1-3, to the present day. Much of this
interaction occurs in Photo-Dissociation Regions (PDRs) where
far-ultraviolet photons of these stars create a largely neutral, but
warm region of gas and dust. PDR emission dominates the IR spectra of
star-forming galaxies and also provides a unique tool to study in detail
the physical and chemical processes that are relevant for most of the
mass in inter- and circumstellar media including diffuse clouds,
protoplanetary disk- and molecular cloud surfaces, globules, planetary
nebulae, and starburst galaxies. We propose to provide template datasets
designed to identify key PDR characteristics in JWST spectra in order to
guide the preparation of Cycle 2 proposals on star-forming regions in
our Galaxy and beyond. We plan to obtain the first spatially resolved, high
spectral resolution IR observations of a PDR using NIRCam, NIRSpec, and
MIRI. These data will test widely used theoretical models and extend
them into the JWST era. We have engaged the broader community as
exemplified by the supporting large international team of 138
scientists. We will assist the community interested in JWST observations
of PDRs through science-enabling products that will guide observational
planning and allow fast data analysis. We will train the community
through telecons and dedicated workshops.
AB - Massive stars disrupt their natal molecular cloud material by
dissociating molecules, ionizing atoms and molecules, and heating the
gas and dust. These processes drive the evolution of interstellar matter
in our Galaxy and throughout the Universe from the era of vigorous star
formation at redshifts of 1-3, to the present day. Much of this
interaction occurs in Photo-Dissociation Regions (PDRs) where
far-ultraviolet photons of these stars create a largely neutral, but
warm region of gas and dust. PDR emission dominates the IR spectra of
star-forming galaxies and also provides a unique tool to study in detail
the physical and chemical processes that are relevant for most of the
mass in inter- and circumstellar media including diffuse clouds,
protoplanetary disk- and molecular cloud surfaces, globules, planetary
nebulae, and starburst galaxies. We propose to provide template datasets
designed to identify key PDR characteristics in JWST spectra in order to
guide the preparation of Cycle 2 proposals on star-forming regions in
our Galaxy and beyond. We plan to obtain the first spatially resolved, high
spectral resolution IR observations of a PDR using NIRCam, NIRSpec, and
MIRI. These data will test widely used theoretical models and extend
them into the JWST era. We have engaged the broader community as
exemplified by the supporting large international team of 138
scientists. We will assist the community interested in JWST observations
of PDRs through science-enabling products that will guide observational
planning and allow fast data analysis. We will train the community
through telecons and dedicated workshops.
M3 - Article
VL - ID 1288
JO - JWST Proposal, Early Release Science Program
JF - JWST Proposal, Early Release Science Program
ER -