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Final List of 135 Registered Persons | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
| Suggested session and affiliation summary | |||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
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Waiting list
| Chronologically ordered list of registered persons Some titles/contributions have been submitted to the SAC but are not given here. |
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|---|---|---|---|
| # | Name/Affiliation | Suggested Contribution or Review | Suggested Sessions |
| 135 |
H. Zinnecker
NASA AMES/Univ. Stuttgart, USA/Germany | Do all massive stars form in clusters? | Massive Stars, Molecular Clouds, Cores, Triggered SF |
| 134 |
A. Whitworth
Cardiff Univ., UK | Mapping the Core Mass Function (CMF) into the Stellar IMF | Cores |
| 133 |
M. Malygin
MPIA Heidelberg, Germany | Frequency dependent opacity in the dust-free inner region of a circumstellar disk | Massive Stars |
| 132 |
A. Goodman
HSCA Cambridge, USA | Molecular Clouds Under Pressure | Molecular Clouds |
| 131 |
F. Motte
CEA/IRFU - CNRS/INSU - Univ. Paris Diderot | Linking the formation of molecular clouds and high-mass stars: the W43 case study | Molecular Clouds, Massive Stars, Filaments |
| 130 |
H. Linz
MPIA Heidelberg, Germany | The onset of star formation in IRDCs: From embedded Herschel point sources to early molecular outflows traced in SiO | Massive Stars Cores, Filaments |
| 129 |
M. Hennemann
AIM CEA Saclay, France | Cloud structure and (high-mass) star formation rate: HOBYS Herschel observations of massive ridges, their feeding subfilaments, and the evolution of massive dense cores | Massive Stars, Filaments, Envelopes, Cores |
| 128 |
W. Fischer
Univ. Toledo, USA | HOPS: Testing the Low-Mass Star Formation Paradigm in the Orion Molecular Clouds | Envelopes |
| 127 |
A. Bacmann
IPAG Grenoble, France | Chemistry | |
| 126 |
J. Kauffmann
Jet Propulsion Laboratory, Pasadena, CA, USA | The Density Structure of Clouds: Large Samples, Star Formation Thresholds, and Theoretical Models | Molecular Clouds, Cores, Filaments |
| 125 |
T. Haugboelle
Univ. Copenhagen, Denmark | Large scale modeling of the ISM and the origin of stellar masses | Envelopes, Filaments, Molecular Clouds, Magnetic Fields |
| 124 |
J. Kainulainen
MPIA Heidelberg, Germany | Column density probability distributions as probes of atomic and molecular gas in the star-forming ISM | Molecular Clouds |
| 123 |
T. Vasyunina
Univ. Virginia, USA | Chemical composition and chemical processes in IRDCs | Chemistry, Massive Stars |
| 122 |
R. Chen
MPIfR Bonn, Germany | Formation of Molecular Clouds under Tidal Influence - the Case of Magellanic Bridge | Molecular Clouds, Massive Stars |
| 121 |
A. Maury
ESO Garching, Germany | First results from CaLYPSO: the IRAM Plateau de Bure Large Program on Class 0 protostars. A dive into the small-scale physics and chemistry of young envelopes, disks and outflows. | Envelopes, Disks, Chemistry |
| 120 |
T. Troland
Univ. Kentucky, USA | The Role of Magnetic Fields in Galactic GMCs | Magnetic Fields, Molecular Clouds |
| 119 |
C. Battersby
CASA, Univ. Colorado, USA | The Kinematics of Filaments and Their Role in High-Mass Star Formation | Filaments, Massive Stars, Molecular Clouds, Triggered SF |
| 118 |
A. Hughes
MPIA Heidelberg, Germany | Giant Molecular Clouds and Star Formation in M51 | Molecular Clouds |
| 117 |
J. Forbrich
Vienna Univ./SAO, Austria/USA | Star formation rates from Galactic molecular clouds to galaxies | Molecular Clouds |
| 116 |
C. Contreras
CAR, Univ. Hertfordshire, UK | Extreme Variables in Star Forming Regions | Disks |
| 115 |
P. Padoan
ICREA&ICC, Barcelona, Spain | The Star Formation Rate of Molecular Clouds | Molecular Clouds, Filaments, Magnetic Fields, Cores |
| 114 |
A. Schmiedeke
Univ. Köln, Germany | Confronting theory with observation: The case of NGC6334I | Chemistry, Massive Stars |
| 113 |
M. Kama
AIAP Amsterdam, The Netherlands | The strange complexity of the protostar OMC-2 FIR 4 as revealed by Herschel/HIFI | Envelopes, Cores, Chemistry |
| 112 |
M. Zamora-Aviles
CRyA-UNAM Morelia, Mexico | An Evolutionary Model for the Star Formation Efficiency in Gravitationally Collapsing Molecular Clouds | Molecular Clouds, Envelopes, Triggered SF |
| 111 |
A. Bracco
IAS Orsay, France | Observing the magnetic field structure in the ISM with Planck | Magnetic Fields |
| 110 |
E. Servajean
Univ. Chile, Santiago, Chile | Characteristics of two very young massive star forming regions | Cores, Massive Stars |
| 109 |
J. Pineda
ESO/UK ARC Node, Univ. Manchester, UK | The Barnard 5 Star-forming Core: Embedded Filaments Revealed | Filaments, Cores, Chemistry, Envelopes |
| 108 |
K. Iwasaki
Nagoya University, Nagoya, Japan | Gravitational Fragmentation of Expanding Shells | Triggered SF |
| 107 |
S. Glover
ITA/ZAH Heidelberg, Germany | Is molecular gas necessary for star formation? | Molecular Clouds, Chemistry |
| 106 |
S. Ragan
MPIA, Heidelberg, Germany | From clouds to cores: kinematics in infrared-dark clouds | Molecular Clouds, Massive Stars, Cores |
| 105 |
P. Clark
ITA/ZAH Heidelberg, Germany | The origin of the characteristic mass for star formation | Cores, Filaments, Molecular Clouds |
| 104 |
G. Parmentier
MPIfR Bonn, Germany | The Massive Star Formation Limit in the Mass-Size Space of Molecular Structures | Massive Stars, Cores |
| 103 |
C. Rodrigues
INPE Sao Jose dos Campos, Brazil | Interstellar magnetic field around giant protostellar jets | Magnetic Fields |
| 102 |
R. Shetty
ITA Heidelberg Univ., Germany | Understading the X factor with MHD and radiative transfer simulations | Molecular Clouds, Cores, Chemistry |
| 101 |
N. Hirano
ASIAA Taipei, Taiwan | Two extremely young protostars in Barnard 1 | Cores, Chemistry |
| 100 |
D. Shibata
Univ. Tokyo, Japan | Extracting the Effect of Low-Mass Star Formation on Deuterium Fractionation | Chemistry, Envelopes, Cores |
| 99 |
M. Reiter
Univ. Arizona Tucson, USA | Studying Intermediate Mass Star Formation in the Carina Nebula with HH Jets | Envelopes, Massive Stars, Triggered SF |
| 98 |
B. Kelly
Univ California, Santa Barbara, USA | What is the relation between the dust properties and temperature in molecular clouds? | Cores, Molecular Clouds, Chemistry |
| 97 |
N. Smith
Univ. Arizona/Steward Obs., USA | Feedback-driven star formation in the Carina Nebula | Triggered SF, Massive Stars, |
| 96 |
M. Lundquist
Univ. Wyoming, USA | A Galactic Sample of Intermediate-Mass Star-Forming Regions: Bridging the High- and Low-mass Regimes | Massive Stars |
| 95 |
M. Gritschneder
Univ. California Santa Cruz, USA | Feedback and Triggered Star Formation - From the Pillars of Creation to the Formation of the Solar System | Triggered SF, Filaments, Molecular Clouds |
| 94 |
J-H. Shinn
KASI Daejeon, South Korea | [Fe II] 1.64 um imaging observations of Jets and Outflows from Young Stellar Objects in the Carina Nebula | Triggered SF, Massive Stars |
| 93 |
E. Vazquez-Semadeni
CRA/UNAM Morelia, Mexico | Is the observed Galactic star formation rate compatible with gravitationally collapsing molecular clouds? | Molecular Clouds, Filaments |
| 92 |
H-b. Li
MPIA Heidelberg,Germany | The Link between Magnetic Fields, Filamentary Clouds and Star Formation Efficiency | Filaments, Magnetic Fields, Molecular Clouds |
| 91 |
H. Kirk
HSCfA Cambridge, USA | Filamentary Flows in the Serpens South Protocluster | Filaments, Massive Stars, Cores |
| 90 |
L. Looney
Univ. Illinois, USA | Changing the Paradigm for the Inner Envelope of Class 0 Protostars | Filaments, Envelopes, Cores |
| 89 |
S. Pfalzner
MPIfR Bonn, Germany | Formation of leaky clusters and OB associations | Massive Stars |
| 88 |
Ra. Klein
SOFIA-USRA Moffett Field, USA | Early Phases of Massive Star Formation in GLIMPSE and MIPSGAL | Massive Stars |
| 87 |
E. Lee
CITA Toronto, Canada | The Role of Large Scale Gravity and Turbulence in Star Formation | Molecular Clouds, Triggered SF |
| 86 |
W. Schmidt
IfA Göttingen, Germany | Support against gravity in magnetoturbulent gas | Molecular Clouds, Cores, Magnetic Fields |
| 85 |
M. Alexander
Univ Wyoming, USA | Is there an energy threshold for triggered star formation? | Triggered SF, Filaments |
| 84 |
A. Kritsuk
UC San Diego, USA | Understanding the Formation and Structure of Molecular Clouds | Molecular Clouds, Filaments, Magnetic Fields, Cores |
| 83 |
A. Stutz
MPIA Heidelberg, Germany | A new population of protostars discovered by Herschel | Envelopes, Cores |
| 82 |
C. Beaumont
Univ. Hawaii/Harvard, USA | Identifying Molecular Cloud Structures in Projected Data: What is Real, and What Isn't? | Molecular Clouds, Filaments |
| 81 |
A. Coutens
IRAP Toulouse, France | Deuterated water in low-mass protostars | Envelopes, Chemistry |
| 80 |
J. Steinacker
IPAG Grenoble/MPIA, France/Germany | Validity of the Bonnor-Ebert Approximation for B68: A core in 3D based on Herschel data | Cores |
| 79 |
S-P. Lai
NTH Univ., Taiwan | Discovery of Toroidal Magnetic Fields around Protostars in NGC1333 IRAS 4A from Dust Polarization Measurements | Magnetic Fields, Cores, Envelopes, Molecular Clouds |
| 78 |
C-Y. Chen
Univ. Maryland, USA | Ambipolar Diffusion and Prestellar Core Formation | Cores, Magnetic Fields, Filaments |
| 77 |
M. Andersen
IPAG Grenoble, France | A star cluster in its early stages | Massive Stars, Cores |
| 76 |
K. Johnston
MPIA Heidelberg, Germany | The interplay between molecular and ionized gas surrounding the massive embedded star AFGL 2591 | Massive Stars, Disks, Triggered SF |
| 75 |
T. Robitaille
MPIA Heidelberg, Germany | A new grid of model spectral energy distributions for young stellar objects | Envelopes, Disks, Massive Stars |
| 74 |
T. Downes
Dublin City Univ., Ireland | Multifluid magnetohydrodynamic turbulence in molecular clouds | Molecular Clouds, Magnetic Fields |
| 73 |
R. Smith
ZAH/ITA Heidelberg, Germany | Collapsing Cores in Filaments and Massive Star Forming Regions | Cores, Filaments, Massive Stars |
| 72 |
R. Aluzas
Univ. Leeds, UK | Numerical simulations of multiple clouds interacting with a shock | Triggered SF |
| 71 |
E. Vorobyov
University of Vienna, Austria | Implications of the protostellar disk fragmentation | Disks |
| 70 |
N. Kudryavtseva
MPIA Heidelberg, Germany | Instantaneous starburst of the massive clusters Westerlund 1 and NGC 3603 YC | Massive Stars |
| 69 |
J. Dutta
ITA/ZAH Heidelberg, Germany | Angular Momentum Transport in Primordial Star Formation | Disks, Cores, Molecular Clouds, Envelopes |
| 68 |
R. Crutcher
Univ. Illinois, USA | CARMA Studies of Magnetic Fields in Dense Molecular Clouds | Magnetic Fields, Molecular Clouds |
| 67 |
M. Walmsley
INAF Firenze, Italy | Interpreting the "infall profile" | Cores, Chemistry |
| 66 |
B. Commercon
LERMA-ENS Paris, France | Collapse of Massive Magnetized Dense Cores using Radiation Magnetohydrodynmaics: Early Fragmentation Inhibition | Magnetic Fields, Massive Stars |
| 65 |
R. Galvan-Madrid
ESO Garching, Germany | The Structure of Accretion Flows in the Formation of Very Massive Stars | Massive Stars, Cores |
| 64 |
T. Hill
AIM Paris-Saclay, France | Filaments, ridges and a mini-starburst - HOBYS' view of high mass star formation with Herschel | Cores, Massive Stars, Molecular Clouds |
| 63 |
J. Tige
LAM Marseille, France | Starformation in NGC 6334 with Herschel datas | Massive Stars, Triggered SF |
| 62 |
F. Renaud
CEA/AIM Saclay, France | Star formation and feedback: a subparsec-resolution simulation of the Milky-Way | Triggered SF, Molecular Clouds, Cores |
| 61 |
J. Ascenso
ESO Garching, Germany | Star formation in giant complexes: The Cat's Paw Nebula | Triggered SF, Cores, Massive Stars |
| 60 |
K. Tomisaka
NAO Tokyo, Japan | Expected Observations of Star Formation Process: from Molecular Cloud Core to First Hydrostatic Core | Magnetic Fields, Cores |
| 59 |
A. Ginsburg
Univ. Colorado, USA | Surveying Pre-Stellar Gas in the Galactic Plane with Bolocam and Herschel | Cores, Filaments, Massive Stars, Molecular Clouds, Triggered SF |
| 58 |
M.V. del Valle
IAR La Plata, Argentina | The origin of the non-thermal emission in the jets of the massive protostar HH 80-81 | Magnetic Fields, Massive Stars |
| 57 |
E. Keto
HSCfA, USA | Simplified oxygen-carbon chemistry in cold starless cores | Chemistry, Cores, Molecular Clouds |
| 56 |
R. Kuiper
JPL Pasadena, USA | Feedback in Massive Star Formation - On the effects of radiation pressure, stellar winds, and ionization on disk accretion, outflow launching, mass loss, and the upper mass limit of stars | Massive Stars, Triggered SF, Cores, Disks, Envelopes |
| 55 |
A. Hacar
OAN Madrid, Spain | Formation of dense cores in Taurus by fragmentation of velocity-coherent filaments | Filaments, Cores, Molecular Clouds |
| 54 |
D. Seifried
Hamburger Sternw., Germany | Disk formation in turbulent cores: Circumventing the magnetic braking catastrophe | Disks, Magnetic Fields, Massive Stars |
| 53 |
K. Furuya
Kobe Univ., Japan | Molecular Evolutions in the First Hydrostatic Core Stage Adapting Three-Dimensional Radiation Hydrodynamics Simulations | Chemistry, Cores, Envelopes |
| 52 |
H.-F. Chiang
Univ. Hawaii, USA | Interferometric Observations and Modeling of the Envelope around Class 0 Protostars | Envelopes, Cores, Disks |
| 51 |
N. Sakai
Univ. Tokyo, Japan | Chemical Diversity and its Evolution from Class 0 to Class I | Chemistry, Envelopes, Disks, Cores |
| 50 |
F. Nakamura
NAOJ, Japan | A Burst of Molecular Outflows From the Serpens South Protocluster | Triggered SF |
| 49 |
Ri. Klein
UC Berkeley/LLNL, USA | The Coupled Effects of Protostellar Outflows and Radiation Feedback on the Formation of Massive Stars | Massive stars, Triggered SF |
| 48 |
Y. Aikawa
Kobe University, Japan | From prestellar core to protostellar core: time dependence, deuterium fractionation, and disk formation | Chemistry, Envelopes, Disks |
| 47 |
W-h. Hsu
Univ. Michigan, USA | Missing Massive Stars: Statistically-significant Density Dependence of the IMF | Massive Stars, Filaments |
| 46 |
M. Heyer
Univ. Massachusetts, USA | The Velocity Structure of Molecular Clouds | Molecular Clouds, Filaments, Cores |
| 45 |
Z. Nagy
KAI & SRON, Netherlands | Extended warm and dense gas towards W49A: starburst conditions in our Galaxy? | Triggered SF, Massive Stars |
| 44 |
M. Dunham
Yale Univ., USA | Protostellar Luminosities and Accretion | Cores, Envelopes |
| 43 |
C. McKee
UC Berkeley, USA | The Protostellar Luminosity Function: Theory and Simulation | Cores, Envelopes |
| 42 |
R. Mauersberger
Joint ALMA Obs., Chile | ALMA Commissioning and Science Verification and Early Science | - |
| 41 |
K. Tomida
TGUAS/NAO, Japan | Radiation Magnetohydrodynamic Simulations of Protostellar Core Formation | Cores, Magnetic Fields, Disks |
| 40 |
J. Tackenberg
MPIA, Heidelberg, Germany | Starless clumps and the influence of near-by high-mass star formation | Triggered SF, Cores |
| 39 |
T. Henning
MPIA Heidelberg, Germany | - | |
| 38 |
K. Getman
Pennsylvania State Univ., USA | The Chandra View of Triggered Star Formation in Bright Rimmed Clouds | Triggered SF |
| 37 |
A. Pon
Univ. Victoria, Canada | Molecular Tracers of Turbulent Shocks in Molecular Clouds | Molecular Clouds, Triggered SF, Chemistry |
| 36 |
P. Myers
HSCfA Cambridge, USA | Ages and birthrates of young clusters | Triggered SF, Cores, Massive Stars |
| 35 |
K. Tassis
MPIfR Bonn, Germany | Molecular Chemistry as a Probe of Pre-Stellar Core Dynamics: An Unprecedented Exploration of Models | Chemistry, Cores, Magnetic Fields |
| 34 |
J. Carroll-Nellenback
Univ. Rochester, USA | Comparing different molecular cloud formation mechanisms and subsequent evolution | Molecular Clouds |
| 33 |
C.W. Lee
Korea ASSI, South Korea | Internal motions in starless dense cores | Filaments, Molecular Clouds, Cores |
| 32 |
G.-X. Li
MPIfR Bonn, Germany | Molecular Outflow as an Entrainment Phenomenon | Massive Stars, Envelopes, Molecular Clouds |
| 31 |
Y. Pavlyuchenkov
RAS Moscow, Russia | Stochastic grain heating and mid-infrared emission in protostellar cores | Cores, Molecular Clouds, Envelopes |
| 30 |
D. Kruijssen
MPA Garching, Germany | The fraction of star formation occurring in bound stellar clusters | Triggered SF, Molecular Clouds, Massive Stars, Filaments |
| 29 |
T. Gerner
MPIA, Germany | Mapping the chemistry of the interstellar medium | Chemistry, Molecular Clouds, Cores |
| 28 |
C. Dobbs
Univ. Exeter, UK | Unbound molecular clouds and their evolution | Molecular Clouds |
| 27 |
A. Lazarian
Univ. Wisconsin, USA | Reconnection Diffusion: Fast Removal of Magnetic Field during Star Formation | Magnetic Fields, Molecular Clouds, Envelopes, Disks |
| 26 |
G. Dopcke
Univ. Heidelberg, Germany | Fragmentation of star-forming clouds at very low metallicities | Cores, Chemistry, Filaments, Disks |
| 25 |
P. Hofner
New Mexico Tech, USA | Jets from Massive Protostars | Massive Stars |
| 24 |
S. Bihr
MPIA, Germany | Temperature, kinematics and turbulence of infrared dark clouds (IRDCs) at high spatial resolution | Massive Stars, Cores, Molecular Clouds, Envelopes |
| 23 |
S. Dib
Imperial College, UK | Feedback Regulated Star Formation | Triggered SF, Massive Stars |
| 22 |
S. Oey
Univ. of Michigan, USA | The Salpeter Slope of the IMF Explained | Filaments, Massive Stars, Cores |
| 21 |
E. Ntormousi
Univ. Obs. Munich, Germany | Formation of filaments from colliding supershells | Filaments, Triggered SF, Molecular Clouds |
| 20 |
D. Gouliermis
ZAH/ITA, Germany | The hierarchical nature of star formation | Massive Stars, Triggered SF, Filaments, Molecular Clouds |
| 19 |
E. van Dishoeck
Leiden Observatory/MPE, The Netherlands | Water: from cores to disks | Chemistry, Envelopes |
| 18 |
A. Wootten
NRAO, USA | Time-Resolved AU-Scale Outflow Trajectories Traced by Masers in the IRAS16293-2422 Core | Cores, Disks |
| 17 |
E. Bressert
ESO/Univ. Exeter, Germany/UK | What the Spatial Distribution of Massive Stars tells us about Star Formation and the IMF | Massive Stars, Filaments |
| 16 |
Z.-Y. Li
Univ. Virginia, USA | Why is it difficult to form rotationally supported disks during the protostellar collapse of magnetized dense cores? | Disks, Magnetic Fields |
| 15 |
S. Longmore
ESO, Germany | HOPS + MALT90 + Hi-GAL: Probing star formation on a Galactic scale through mm molecular line and far-IR continuum Galactic plane surveys | Molecular Clouds |
| 14 |
A. Burkert
LMU, Uni. Obs., Germany | Self-regulated star formation in galaxies and the evolution of the molecular web | Molecular Clouds |
| 13 |
A. Nordlund
Niels Bohr Inst., Denmark | Star Formation and Chemical Yields in Giant Molecular Clouds | Triggered SF, Molecular Clouds, Filaments, Magnetic Fields |
| 12 |
T. Haworth
Univ. Exeter, UK | Radiation hydrodynamics of triggered star formation: the effect of the diffuse field | Triggered SF |
| 11 |
M. Bate
Univ. Exeter, UK | Short Review: Molecular Cloud Cores - Life and Collapse: Theory | Cores |
| 10 |
J. Alves
Viena Univ., Austria | Short Review: Molecular Cloud Cores - Life and Collapse: Observations | Cores |
| 9 |
P. Goldsmith
Jet Propulsion Lab., USA | Review: Molecular Clouds: Overview of their Structure and Evolution | Molecular Clouds |
| 8 |
R. Banerjee
Univ. Hamburg, Germany | Review: The Early Phases of Disc Formation and Disc Evolution | Disks |
| 7 |
M. Krumholz
Univ. California, USA | Review: Star Formation Feedback: The Good, the Bad, and the Confusing | Triggered SF |
| 6 |
S. Yamamoto
Univ. Tokyo, Japan | Review: Chemical diagnostics of the early phase of star formation | Chemistry |
| 5 |
F. Heitsch
Univ. North Carolina, USA | Review: The Role of Filaments for Core Formation | Filaments |
| 4 |
R. Pudritz
McMaster Univ., Canada | Review: Magnetic fields and the early stages of star formation | Magnetic Fields |
| 3 |
H. Beuther
MPIfAstronomie, Germany | Review: High-Mass Star Formation | Massive Stars |
| 2 |
D. Johnstone
NRCC, HIoAstrophysics, Canada | Review: Protostellar Envelopes | Envelopes |
| 1 |
H. Yorke
Jet Propulsion Lab., USA | Conference Summary | - |




