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Microlensing of Strongly Lensed Quasars

Author(s)
Vernardos, G.; Sluse, D.; Pooley, D.; Schmidt, R. W.; Millon, M.; Weisenbach, L.; Motta, V.; Anguita, T.; Saha, P.; O’Dowd, M.; Peel, A.; Schechter, P. L.; ... Show more Show less
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Abstract
Strong gravitational lensing of quasars has the potential to unlock the poorly understood physics of these fascinating objects, as well as serve as a probe of the lensing mass distribution and of cosmological parameters. In particular, gravitational microlensing by compact bodies in the lensing galaxy can enable mapping of quasar structure to < 10 − 6 $<10^{-6}$ arcsec scales. Some of this potential has been realized over the past few decades, however the upcoming era of large sky surveys promises to bring this promise to full fruition. In this article, we review the theoretical framework of this field, describe the prominent current methods for parameter inference from quasar microlensing data across different observing modalities, and discuss the constraints so far derived on the geometry and physics of quasar inner structure. We also review the application of strong lensing and microlensing to constraining the granularity of the lens potential, i.e. the contribution of the baryonic and dark matter components, and the local mass distribution in the lens, i.e. the stellar mass function. Finally, we discuss the future of the field, including the new possibilities that will be opened by the next generation of large surveys and by new analysis methods now being developed.
Date issued
2024-02-07
URI
https://hdl.handle.net/1721.1/153499
Department
Massachusetts Institute of Technology. Department of Physics; MIT Kavli Institute for Astrophysics and Space Research
Publisher
Springer Netherlands
Citation
Space Science Reviews. 2024 Feb 07;220(1):14
Version: Final published version

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