The Infrared Imaging Spectrograph (IRIS) for TMT: Instrument Overview
Anna M. Moore, James E. Larkin, Shelley A. Wright, Brian Bauman,, Jennifer Dunn, Brent Ellerbroek, Andrew C. Phillips, Luc Simard, Ryuji, Suzuki, Kai Zhang, Ted Aliado, George Brims, John Canfield, Shaojie Chen,, Richard Dekany, Alex Delacroix, Tuan Do, Glen Herriot

TL;DR
The IRIS instrument for TMT is a highly precise infrared spectrograph and camera that leverages adaptive optics to achieve diffraction-limited imaging and spectroscopy at the 30-meter telescope, enabling advanced astrophysical observations.
Contribution
This paper provides the first comprehensive overview of IRIS's innovative design, combining lenslet and slicer integral field units with advanced detectors and wavefront correction techniques.
Findings
Design achieves <30 nm wavefront error.
Spectral resolution of 4000 with 4 mas sampling.
Enables detailed study of high redshift galaxies and the Galactic center.
Abstract
We present an overview of the design of IRIS, an infrared (0.84 - 2.4 micron) integral field spectrograph and imaging camera for the Thirty Meter Telescope (TMT). With extremely low wavefront error (<30 nm) and on-board wavefront sensors, IRIS will take advantage of the high angular resolution of the narrow field infrared adaptive optics system (NFIRAOS) to dissect the sky at the diffraction limit of the 30-meter aperture. With a primary spectral resolution of 4000 and spatial sampling starting at 4 milliarcseconds, the instrument will create an unparalleled ability to explore high redshift galaxies, the Galactic center, star forming regions and virtually any astrophysical object. This paper summarizes the entire design and basic capabilities. Among the design innovations is the combination of lenslet and slicer integral field units, new 4Kx4k detectors, extremely precise atmospheric…
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