Published March 1, 2024 | Published
Journal Article Open

The JWST Early Release Science Program for Direct Observations of Exoplanetary Systems. IV. NIRISS Aperture Masking Interferometry Performance and Lessons Learned

Sallum, Steph ORCID icon
Ray, Shrishmoy ORCID icon
Kammerer, Jens ORCID icon
Sivaramakrishnan, Anand ORCID icon
Cooper, Rachel ORCID icon
Greebaum, Alexandra Z. ORCID icon
Thatte, Deepashri ORCID icon
De Furio, Matthew ORCID icon
Factor, Samuel M. ORCID icon
Meyer, Michael R. ORCID icon
Stone, Jordan M. ORCID icon
Carter, Aarynn ORCID icon
Biller, Beth ORCID icon
Hinkley, Sasha ORCID icon
Skemer, Andrew ORCID icon
Suárez, Genaro ORCID icon
Leisenring, Jarron M. ORCID icon
Perrin, Marshall D. ORCID icon
Kraus, Adam L. ORCID icon
Absil, Olivier ORCID icon
Balmer, William O. ORCID icon
Betti, Sarah K. ORCID icon
Boccaletti, Anthony ORCID icon
Bonavita, Mariangela ORCID icon
Bonnefoy, Mickael ORCID icon
Booth, Mark ORCID icon
Bowler, Brendan P. ORCID icon
Briesemeister, Zackery W. ORCID icon
Bryan, Marta L. ORCID icon
Calissendorff, Per ORCID icon
Cantalloube, Faustine ORCID icon
Chauvin, Gael ORCID icon
Chen, Christine H. ORCID icon
Choquet, Elodie ORCID icon
Christiaens, Valentin ORCID icon
Cugno, Gabriele ORCID icon
Currie, Thayne ORCID icon
Danielski, Camilla ORCID icon
Dupuy, Trent J. ORCID icon
Faherty, Jacqueline K. ORCID icon
Fitzgerald, Michael P. ORCID icon
Fortney, Jonathan J. ORCID icon
Franson, Kyle ORCID icon
Girard, Julien H. ORCID icon
Grady, Carol A. ORCID icon
Gonzales, Eileen C. ORCID icon
Henning, Thomas ORCID icon
Hines, Dean C. ORCID icon
Hoch, Kielan K. W. ORCID icon
Hood, Callie E. ORCID icon
Howe, Alex R. ORCID icon
Janson, Markus ORCID icon
Kalas, Paul ORCID icon
Kennedy, Grant M. ORCID icon
Kenworthy, Matthew A. ORCID icon
Kervella, Pierre ORCID icon
Kitzmann, Daniel ORCID icon
Kuzuhara, Masayuki ORCID icon
Lagrange, Anne-Marie ORCID icon
Lagage, Pierre-Olivier
Lawson, Kellen ORCID icon
Lazzoni, Cecilia ORCID icon
Lew, Ben W. P. ORCID icon
Liu, Michael C. ORCID icon
Liu, Pengyu ORCID icon
Llop-Sayson, Jorge ORCID icon
Lloyd, James P.
Lueber, Anna ORCID icon
Macintosh, Bruce ORCID icon
Manjavacas, Elena ORCID icon
Marino, Sebastian ORCID icon
Marley, Mark S. ORCID icon
Marois, Christian ORCID icon
Martinez, Raquel A. ORCID icon
Matthews, Brenda C. ORCID icon
Matthews, Elisabeth C. ORCID icon
Mawet, Dimitri1 ORCID icon
Mazoyer, Johan ORCID icon
McElwain, Michael W. ORCID icon
Metchev, Stanimir ORCID icon
Miles, Brittany E. ORCID icon
Millar-Blanchaer, Maxwell A. ORCID icon
Molliere, Paul ORCID icon
Moran, Sarah E. ORCID icon
Morley, Caroline V. ORCID icon
Mukherjee, Sagnick ORCID icon
Palma-Bifani, Paulina ORCID icon
Pantin, Eric ORCID icon
Patapis, Polychronis ORCID icon
Petrus, Simon ORCID icon
Pueyo, Laurent ORCID icon
Quanz, Sascha P. ORCID icon
Quirrenbach, Andreas ORCID icon
Rebollido, Isabel ORCID icon
Redai, Jea Adams ORCID icon
Ren, Bin B. ORCID icon
Rickman, Emily ORCID icon
Samland, Matthias ORCID icon
Sargent, B. A. ORCID icon
Schlieder, Joshua E. ORCID icon
Schneider, Glenn ORCID icon
Stapelfeldt, Karl R. ORCID icon
Sutlieff, Ben J. ORCID icon
Tamura, Motohide ORCID icon
Tan, Xianyu ORCID icon
Theissen, Christopher A. ORCID icon
Uyama, Taichi1 ORCID icon
Vigan, Arthur ORCID icon
Vasist, Malavika ORCID icon
Vos, Johanna M. ORCID icon
Wagner, Kevin ORCID icon
Wang, Jason J.1 ORCID icon
Ward-Duong, Kimberly ORCID icon
Whiteford, Niall ORCID icon
Wolff, Schuyler G. ORCID icon
Worthen, Kadin ORCID icon
Wyatt, Mark C. ORCID icon
Ygouf, Marie ORCID icon
Zhang, Xi ORCID icon
Zhang, Keming ORCID icon
Zhang, Zhoujian ORCID icon
Zhou, Yifan ORCID icon
Zurlo, Alice ORCID icon
  • 1. ROR icon California Institute of Technology

Abstract

We present a performance analysis for the aperture masking interferometry (AMI) mode on board the James Webb Space Telescope Near Infrared Imager and Slitless Spectrograph (JWST/NIRISS). Thanks to self-calibrating observables, AMI accesses inner working angles down to and even within the classical diffraction limit. The scientific potential of this mode has recently been demonstrated by the Early Release Science (ERS) 1386 program with a deep search for close-in companions in the HIP 65426 exoplanetary system. As part of ERS 1386, we use the same data set to explore the random, static, and calibration errors of NIRISS AMI observables. We compare the observed noise properties and achievable contrast to theoretical predictions. We explore possible sources of calibration errors and show that differences in charge migration between the observations of HIP 65426 and point-spread function calibration stars can account for the achieved contrast curves. Lastly, we use self-calibration tests to demonstrate that with adequate calibration NIRISS F380M AMI can reach contrast levels of ∼9–10 mag at ≳λ/D. These tests lead us to observation planning recommendations and strongly motivate future studies aimed at producing sophisticated calibration strategies taking these systematic effects into account. This will unlock the unprecedented capabilities of JWST/NIRISS AMI, with sensitivity to significantly colder, lower-mass exoplanets than lower-contrast ground-based AMI setups, at orbital separations inaccessible to JWST coronagraphy.

Copyright and License

© 2024. The Author(s). Published by the American Astronomical Society. Original content from this work may be used under the terms of the Creative Commons Attribution 4.0 licence. Any further distribution of this work must maintain attribution to the author(s) and the title of the work, journal citation and DOI.

Acknowledgement

This work is based on observations made with the NASA/ESA/CSA James Webb Space Telescope. We are truly grateful for the countless hours that thousands of people have devoted to the design, construction, and commissioning of JWST. This project was supported by a grant from STScI (JWST-ERS-01386) under NASA contract NAS5-03127. The JWST data presented in this paper were obtained from the Mikulski Archive for Space Telescopes (MAST) at the Space Telescope Science Institute. The specific observations analyzed can be accessed via doi:10.17909/8by2-x206. M.D.F. is supported by an NSF Astronomy and Astrophysics Postdoctoral Fellowship under award AST-2303911. A.Z.G. acknowledges support from contract No. 80GSFC21R0032 with the National Aeronautics and Space Administration. M.B. received funding from the European Union's Horizon 2020 research and innovation program under grant agreement No. 951815 (AtLAST). S.M. is supported by a Royal Society University Research Fellowship (URF-R1-221669). R.A.M. is supported by the National Science Foundation MPS-Ascend Postdoctoral Research Fellowship under grant No. 2213312. J.M.V. acknowledges support from a Royal Society - Science Foundation Ireland University Research Fellowship (URF\1\221932). A.Z. acknowledges support from ANID—Millennium Science Initiative Program—Center Code NCN2021_080.

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Additional details

Created:
March 15, 2024
Modified:
March 15, 2024