MZ
Miguel Zumalacarregui
astro-ph.COgr-qchep-thhep-phastro-ph.HEastro-ph.GAastro-ph.IMgamma-ray burstgravitational lensinggravitational waves
On Valency
published · living versionsW_h2j8d3pw·v1 · currentpublished
Searching for lensed gravitational waves with unlensed templates
with Digvijay Wadekar, Barak Zackay, Mark Ho-Yeuk Cheung, Tousif Islam +5
1 version
Preprints & journals
78 papers in the corpus · 2010–2026Searching for lensed gravitational waves with unlensed templates2610.26080v1 · Digvijay Wadekar, Barak Zackay, Mark Ho-Yeuk Cheung et al.2026 · 0 citationsarXivon Valency
Binary-lens amplification of starlight: from magnification flares to quasi-periodic tracking of orbital evolution2610.20557v1 · Hanxi Wang, Bence Kocsis, Miguel Zumalac'arregui2026 · 0 citationsarXiv
Gravitational lensing of gravitational waves by galaxy clusters2609.16891v1 · Xikai Shan, Yi-Fan Wang, Shude Mao et al.2026 · 0 citationsarXiv
Supernova microlensing as a probe of ultracompact minihalos and primordial cosmology2609.04308v1 · Djuna Croon, Sergio Sevillano Munoz, Miguel Zumalacarregui2026 · 0 citationsarXiv
GUEST: Gravitational Universe Exploration with Satellite Tracking. A passive satellite laser-ranging mission for the dark gravitational Universe2607.18390v1 · Diego Blas, Aur'elien Hees, F. Javier Atapuerca et al.2026 · 0 citationsarXiv
Signatures of Dark Matter halos in LISA via Stochastic Diffraction2607.11887v1 · Han Gil Choi, Juan Urrutia, Miguel Zumalac'arregui2026 · 0 citationsarXiv
Effective description of lensed gravitational waves diffracted by stellar fields2606.17765v2 · Miguel Zumalac'arregui, Xikai Shan2026 · 0 citationsPhys. Rev. D 114, 063038, 2026
cloelib: A Flexible Python Library for Computing Cosmological Observables in the Euclid Era2605.23839v1 · Marco Bonici, Guadalupe Canas-Herrera, Pedro Carrilho et al.2026 · 0 citationsarXiv
Black Holes as Telescopes: Discovering Supermassive Binaries through Quasiperiodic Lensed Starlight.41765810 · Wang, Hanxi, Zumalacárregui, Miguel, Kocsis, Bence2026 · 2 citationsPhysical review letters. 2026;136(6):061403
Across the Universe: GW231123 as a magnified and diffracted black hole merger2512.17631v2 · Srashti Goyal, Hector Villarrubia-Rojo, Miguel Zumalacarregui2025 · 3 citationsAstrophys. J. Lett. 1008 (2026) L12
Gravitational-wave dispersion over inhomogeneous space-times: General relativity, screened theories of gravity and non-minimal dark energy2511.08023v1 · Nicola Menadeo, Serena Giardino, Miguel Zumalac'arregui2025 · 0 citationsarXiv
Accelerated inference of microlensed gravitational waves with machine learning2511.08486v2 · Marienza Caldarola, Srashti Goyal, Nihar Gupte et al.2025 · 3 citationsPhys. Rev. D 113, 104073 (2026)
Dark Matter Subhalos and Higher Order Catastrophes in Gravitational Wave Lensing2510.14953v1 · Luka Vujeva, Jose Mar'ia Ezquiaga, Daniel Gilman et al.2025 · 0 citationsarXiv
Multi-messenger gravitational lensing.40308122 · Smith, Graham P, Baker, Tessa, Birrer, Simon et al.2026 · 17 citationsPhilosophical transactions. Series A, Mathematical, physical, and engineering sciences. 2025;383(2295):20240134
The CosmoVerse White Paper: Addressing observational tensions in cosmology with systematics and fundamental physics2504.01669v3 · Eleonora Di Valentino, Jackson Levi Said, Adam Riess et al.2025 · 324 citationsPhys. Dark Univ. 49 (2025) 101965
Euclid Quick Data Release (Q1): The Strong Lensing Discovery Engine A -- System overview and lens catalogue2503.15324v1 · M. Walmsley, P. Holloway, N. E. P. Lines et al.2025 · 9 citationsarXiv
Euclid Quick Data Release (Q1). The Strong Lensing Discovery Engine C: Finding lenses with machine learning2503.15326v2 · N. E. P. Lines, T. E. Collett, M. Walmsley et al.2025 · 14 citationsarXiv
Euclid Quick Data Release (Q1). The Strong Lensing Discovery Engine E -- Ensemble classification of strong gravitational lenses: lessons for Data Release 12503.15328v1 · P. Holloway, A. Verma, M. Walmsley et al.2025 · 2 citationsarXiv
Euclid Quick Data Release (Q1). The first catalogue of strong-lensing galaxy clusters2503.15330v1 · P. Bergamini, M. Meneghetti, A. Acebron et al.2025 · 2 citationsarXiv
Reconstructing the dark energy density in light of DESI BAO observations2503.13198v1 · Maria Berti, Emilio Bellini, Camille Bonvin et al.2025 · 30 citationsarXiv
Gravitational wave lensing: probing Fuzzy Dark Matter with LISA2502.10758v3 · Shashwat Singh, Guilherme Brando, Stefano Savastano et al.2025 · 6 citationsJCAP07(2025)025
To the Problem of Cosmic Expansion in Massive Gravity2411.19873v1 · Lavinia Heisenberg, Alessandro Longo, Giovanni Tambalo et al.2024 · 0 citationsarXiv
Gravitational wave propagation beyond General Relativity: geometric optic expansion and lens-induced dispersion2411.07164v2 · Nicola Menadeo, Miguel Zumalac'arregui2024 · 7 citationsarXiv
wolensing: A Python package for computing the amplification factor for gravitational waves with wave-optics effects2410.19804v1 · Simon M.C. Yeung, Mark H.Y. Cheung, Miguel Zumalacarregui et al.2024 · 0 citationsarXiv
GLoW: novel methods for wave-optics phenomena in gravitational lensing2409.04606v1 · Hector Villarrubia-Rojo, Stefano Savastano, Miguel Zumalac'arregui et al.2024 · 24 citationsarXiv
Signatures of dark and baryonic structures on weakly lensed gravitational waves2407.04052v1 · Guilherme Brando, Srashti Goyal, Stefano Savastano et al.2024 · 17 citationsPhys. Rev. D 111, 024068 (2025)
Euclid. I. Overview of the Euclid mission2405.13491v2 · Y. Mellier, Abdurro'uf, J. A. Acevedo Barroso et al.2024 · 622 citationsA&A 697, A1 (2025)
Lens Stochastic Diffraction: A Signature of Compact Objects in Gravitational-Wave Data2404.17405v2 · Miguel Zumalac'arregui2024 · 3 citationsarXiv
Eikonal gravitational-wave lensing in Einstein-aether theory2404.07782v3 · Julius Streibert, Hector O. Silva, Miguel Zumalac'arregui2024 · 2 citationsarXiv
Probing minihalo lenses with diffracted gravitational waves2403.13876v1 · Mark Ho-Yeuk Cheung, Ken K. Y. Ng, Miguel Zumalac'arregui et al.2024 · 22 citationsarXiv
Probing general relativistic spin-orbit coupling with gravitational waves from hierarchical triple systems2307.01903v2 · Marius A. Oancea, Richard Stiskalek, Miguel Zumalac'arregui2023 · 15 citationsMNRASL 535 (1), L1-L6 (2024)
Weakly Lensed Gravitational Waves: Probing Cosmic Structures with Wave-Optics Features2306.05282v2 · Stefano Savastano, Giovanni Tambalo, Hector Villarrubia-Rojo et al.2023 · 39 citationsPhys. Rev. D 108 (2023) 103532
Probing lens-induced gravitational-wave birefringence as a test of general relativity2301.04826v1 · Srashti Goyal, Aditya Vijaykumar, Jose Maria Ezquiaga et al.2023 · 30 citationsPhys. Rev. D 108, 024052 2023
Through the lens of Sgr A: identifying and resolving strongly lensed Continuous Gravitational Waves beyond the Einstein radius2212.14697v3 · Stefano Savastano, Filippo Vernizzi, Miguel Zumalac'arregui2022 · 9 citationsPhys. Rev. D 109 (2024) 024064
Gravitational wave lensing as a probe of halo properties and dark matter2212.11960v3 · Giovanni Tambalo, Miguel Zumalac'arregui, Liang Dai et al.2022 · 67 citationsarXiv
Lensing of gravitational waves: efficient wave-optics methods and validation with symmetric lenses2210.05658v2 · Giovanni Tambalo, Miguel Zumalac'arregui, Liang Dai et al.2022 · 61 citationsarXiv
Frequency- and polarization-dependent lensing of gravitational waves in strong gravitational fields2209.06459v3 · Marius A. Oancea, Richard Stiskalek, Miguel Zumalac'arregui2022 · 22 citationsPhys. Rev. D 109, 124045 (2024)
New Horizons for Fundamental Physics with LISA2205.01597v1 · K. G. Arun, Enis Belgacem, Robert Benkel et al.2022 · 303 citationsarXiv
Cosmology with the Laser Interferometer Space Antenna2204.05434v1 · Pierre Auclair, David Bacon, Tessa Baker et al.2022 · 341 citationsLiving Rev.Rel. 26 (2023) 1, 5
Cosmology Intertwined: A Review of the Particle Physics, Astrophysics, and Cosmology Associated with the Cosmological Tensions and Anomalies2203.06142v3 · Elcio Abdalla, Guillermo Franco Abell'an, Amin Aboubrahim et al.2022 · 1,161 citationsJ. High En. Astrophys. 2204, 002 (2022)
The Next Generation Global Gravitational Wave Observatory: The Science Book2111.06990v1 · Vicky Kalogera, B.S. Sathyaprakash, Matthew Bailes et al.2021 · 34 citationsarXiv
Fully relativistic predictions in Horndeski gravity from standard Newtonian N-body simulations2105.04491v2 · Guilherme Brando, Kazuya Koyama, David Wands et al.2021 · 10 citationsarXiv
Theoretical priors in scalar-tensor cosmologies: Shift-symmetric Horndeski models2103.11195v3 · Dina Traykova, Emilio Bellini, Pedro G. Ferreira et al.2021 · 2 citationsPhys. Rev. D 104, 083502 (2021)
Gravitational wave lensing beyond general relativity: birefringence, echoes and shadows2009.12187v2 · Jose Mar'ia Ezquiaga, Miguel Zumalac'arregui2020 · 79 citationsPhys. Rev. D 102, 124048 (2020)
Gravity in the Era of Equality: Towards solutions to the Hubble problem without fine-tuned initial conditions2003.06396v2 · Miguel Zumalacarregui2020 · 100 citationsPhys. Rev. D 102, 023523 (2020)
Prospects for Fundamental Physics with LISA2001.09793v3 · Enrico Barausse, Emanuele Berti, Thomas Hertog et al.2020 · 385 citationsGen.Rel.Grav. 52 (2020) 8, 81
Theoretical priors in scalar-tensor cosmologies: Thawing quintessence1911.02868v2 · Carlos Garc'ia-Garc'ia, Emilio Bellini, Pedro G. Ferreira et al.2019 · 19 citationsPhys. Rev. D 101, 063508 (2020)
hi_class: Background Evolution, Initial Conditions and Approximation Schemes1909.01828v3 · Emilio Bellini, Ignacy Sawicki, Miguel Zumalac'arregui2019 · 66 citationsJCAP02(2020)008
Unveiling the Gravitational Universe at \mu-Hz Frequencies1908.11391v1 · Alberto Sesana, Natalia Korsakova, Manuel Arca Sedda et al.2019 · 287 citationsarXiv
High angular resolution gravitational wave astronomy1908.11410v1 · John Baker, Tessa Baker, Carmelita Carbone et al.2019 · 41 citationsarXiv
Career total: at least 130 works. 78 are in this corpus.Showing the 50 most recent.
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