TY - JOUR
T1 - Michigan Infrared Combiner (MIRC): commissioning results at the CHARA Array
AU - Monnier, John D.
AU - Pedretti, Ettore
AU - Thureau, Nathalie
AU - Berger, Jean-Philippe
AU - Millan-Gabet, Rafael
AU - ten Brummelaar, Theo
AU - McAlister, Harold
AU - Sturmann, Judit
AU - Sturmann, Lazlo
AU - Muirhead, Phil
AU - Tannirkulam, Ajay
AU - Webster, Scott
AU - Zhao, Ming
PY - 2006/7/1
Y1 - 2006/7/1
N2 - The Michigan Infrared Combiner (MIRC) has been designed for two primary
goals: 1) imaging with all six CHARA telescopes simultaneously in the
near-infrared, 2) direct detection of "hot Jupiter" exoplanets using
precision closure phases. In September 2005, MIRC was commissioned
on-sky at the CHARA Array on Mt. Wilson, CA, successfully combining
light from 4 telescopes simultaneously. After a brief overview of MIRC
features and design philosophy, we provide detailed description of key
components and present results of laboratory tests. Lastly, we present
first results from the commissioning run, focusing on engineering
performance. We also present remarkable on-sky closure phase results
from the first night of recorded data with the best-ever demonstrated
closure phase stability and precision (¿¿ = 0.03 degrees).
AB - The Michigan Infrared Combiner (MIRC) has been designed for two primary
goals: 1) imaging with all six CHARA telescopes simultaneously in the
near-infrared, 2) direct detection of "hot Jupiter" exoplanets using
precision closure phases. In September 2005, MIRC was commissioned
on-sky at the CHARA Array on Mt. Wilson, CA, successfully combining
light from 4 telescopes simultaneously. After a brief overview of MIRC
features and design philosophy, we provide detailed description of key
components and present results of laboratory tests. Lastly, we present
first results from the commissioning run, focusing on engineering
performance. We also present remarkable on-sky closure phase results
from the first night of recorded data with the best-ever demonstrated
closure phase stability and precision (¿¿ = 0.03 degrees).
M3 - Article
VL - 6268
SP - 55
JO - Advances in Stellar Interferometry
JF - Advances in Stellar Interferometry
ER -