Publications

(58.) AMX MUSE IFU observations of galaxies hosting tidal disruption events Pursiainen et al. 2026 MNRAS 545f2093P.
(57.) AMX Assessing differences between local dust attenuation and point source extinction within the same galactic environments, Duarte et al. 2025 A&A 700:A169.
(56.) AM6 Bidimensional Exploration of the warm-Temperature Ionised gaS (BETIS) II. Revisiting the ionisation mechanism of the extraplanar diffuse ionised gas, González-Díaz et al 2024 A&A 691:A25.
(55.) AM31 1991T-like Supernovae, Phillips et al. 2024 ApJS 273:16.
(54.) AMX Narrow absorption lines from intervening material in supernovae I. Measurements and temporal evolution, González-Gaitán et al. 2024 A&A 687:A108.
(53.) AM6 Bidimensional Exploration of the warm-Temperature Ionised gaS (BETIS) I. Showcase sample and first results, Gonzalez-Diaz et al. 2024 A&A 687:A20.
(52.) AMX The carbon-rich type Ic supernova 2016adj in the iconic dust lane of Centaurus A: Potential signatures of an interaction with circumstellar hydrogen, Stritzinger et al. 2024 A&A 686:A79.
(51.) AMX Supernova remnant properties and luminosity functions in NGC 7793 using MUSE IFS, Kopsacheili, et al 2024 MNRAS 530:1078.
(50.) AMX Optical Spectroscopy of Type Ia Supernovae by the Carnegie Supernova Projects I and II, Morrell et al. 2024 ApJ 967:20.
(49.) AMX H II regions and diffuse ionized gas in the AMUSING++ Compilation - I. Catalogue presentation, Lugo-Aranda et al. 2024 MNRAS 528:6099.
(48.) AM5 Recovering Lost Light: Discovery of Supernova Remnants with Integral Field Spectroscopy, Martínez-Rodríguez et al. 2024 ApJ 963:125.
(47.) AMX A Metallicity Dependence on the Occurrence of Core-collapse Supernovae, Pessi et al. 2023 ApJ 955:L29.
(46.) AMX Fast and not-so-furious: Case study of the fast and faint Type IIb SN 2021bxu, Desai et al. 2023 MNRAS 524:767.
(45.) AMX A characterization of ASAS-SN core-collapse supernova environments with VLT+MUSE I. Sample selection, analysis of local environments, and correlations with light curve properties, Pessi et al. 2023 A&A 677:A28.
(44.) AM42 Environmental dependence of Type IIn supernova properties, Moriya et al. 2023 A&A 677:A20.
(43.) AM41 Examining the Properties of Low-luminosity Hosts of Type Ia Supernovae from ASAS-SN, Holoien et al. 2023 ApJ 950:108.
(42.) AMX Near-infrared and Optical Nebular-phase Spectra of Type Ia Supernovae SN 2013aa and SN 2017cbv in NGC 5643, Kumar et al. 2023 ApJ 945:27.
(41.) AMX Spatial metallicity distribution statistics at 100 pc scales in the AMUSING++ nearby galaxy sample, Li et al. 2023 MNRAS 518:286.
(40.) AMX A long life of excess: The interacting Transient SN 2017hcc, Moran et al., 2023 A&A 669:A51.
(39.) AMX Exploring Stellar and Ionized Gas Noncircular Motions in Barred Galaxies with MUSE, López-Cobá et al. 2022 ApJ 939:40.
(38.) AMX Systematic errors on optical-SED stellar-mass estimates for galaxies across cosmic time and their impact on cosmology, A. Paulino-Afonso et al., 2022 A&A 662:A6.
(37.) AMX PYHIIEXTRACTOR: a tool to detect and extract physical properties of H II regions from integral field spectroscopic data, Lugo-Aranda et al. 2022 RASTI 1:3.
(36.) AMX A Tale of Two Type Ia Supernovae: The Fast-declining Siblings SNe 2015bo and 1997cn, W. Hoogendam et al., 2022 ApJ 928 103.
(35.) AM24 HARMONI view of the host galaxies of active galactic nuclei around cosmic noon: Resolved stellar morpho-kinematics and the MBH-s* relation, García-Lorenzo et al., 2022 A&A 659:A79.
(34.) AM21 A Virgo Environmental Survey Tracing Ionised Gas Emission (VESTIGE).XII. Ionised gas emission in the inner regions of lenticular galaxies, Boselli et al., 2022 A&A 659:A46.
(33.) AMX An Amusing Look at the Host of the Periodic Nuclear Transient ASASSN-14ko Reveals a Second AGN, Tucker et al., 2021 MNRAS 506:6014.
(32.) AM40 ASASSN-15hy: an under-luminous, red 03fg-like type Ia supernova, Lu et al., 2021 ApJ 920:107.
(31.) AM34 The delay time distribution of supernovae from integral-field spectroscopy of nearby galaxies, Castrillo et al., 2021 MNRAS 501:3122.
(30.) AM21 A Virgo Environmental Survey Tracing Ionised Gas Emission (VESTIGE).IX. The effects of ram pressure stripping down to the scale of individual HII regions in the dwarf galaxy IC 3476, A. Boselli et al., 2021 A&A 646:A139.
(29.) AM22 MUSE reveals extended circumnuclear outflows in the Seyfert 1 NGC 7469, Robleto-Orús et al., 2021 ApJL 906:6.
(28.) AMX Supernova 2018cuf: A Type IIP supernova with a slow fall from plateau, Y. Dong et al., 2021 ApJ 906:56.
(27.) AM33 SN 2017ivv: two years of evolution of a transitional Type II supernova, Gutiérrez et al., 2020 MNRAS 499:974.
(26.) AMX Direct Evidence of Two-component Ejecta in Supernova 2016gkg from Nebular Spectroscopy, Kuncarayakti et al., 2020 ApJ 902:139.
(25.) AMX Carnegie Supernova Project II: The Slowest Rising Type Ia Supernova LSQ14fmg and Clues to the Origin of Super-Chandrasekhar/03fg-like Events, Hsiao et al., 2020; ApJ 900 140.
(24.) AMX The Carnegie Supernova Project II. Observations of the luminous red nova AT 2014ej, Stritzinger et al., 2020 A&A 639:A104.
(23.) AM36 Studying the environment of AT 2018cow with MUSE, Lyman et al., 2020 MNRAS 495:992.
(22.) AMX Discovery and Rapid Follow-up Observations of the Unusual Type II SN 2018ivc in NGC 1068, A. Bostroem et al., 2020 ApJ 895 31.
(21.) AMX The AMUSING++ Nearby Galaxy Compilation. I. Full Sample Characterization and Galactic-scale Outflow Selection, López-Cobá et al., 2020 AJ 159:167.

(20.) AM29 Nebular Spectra of 111 Type Ia Supernovae Disfavor Single Degenerate Progenitors, Tucker et al., 2019 MNRAS 493:1044.
(19.) AM8 Arm–interarm gas abundance variations explored with MUSE: the role of spiral structure in the chemical enrichment of galaxies, Sánchez-Menguiano et al., 2020 MNRAS 492:4149.
(18.) HK4 The 50-100 pc scale parent stellar populations of Type II supernovae and limitations of single star evolution models, Schady et al., 2019 MNRAS 490:4515.
(17.) AM16 The extraplanar type II supernova ASASSN-14jb in the nearby edge-on galaxy ESO 467-G051, Meza et al., 2019 A&A 629:A57.
(16.) SV5 Uncertainties in gas kinematics arising from stellar continuum modeling in integral field spectroscopy data: the case of NGC 2906 observed with VLT/MUSE, Bellocchi et al., 2019 A&A 625:A839.
(15.) AM31 Carnegie Supernova Project-II: Extending the NIR Hubble Diagram for Type Ia Supernovae to z ∼ 0.1, M. M Phillips et al., 2019; PASP 131 014001.
(14.) AM21 A Virgo Environmental Survey Tracing Ionised Gas Emission (VESTIGE).IV. A tail of Ionised Gas in the Merger Remnant NGC 4424, Boselli et al., 2018 A&A 620:A164.
(13.) HK3 Relativistic supernova 2009bb exploded close to an atomic gas cloud, Michałowski et al. 2018 A&A 618:A104.
(12.) AM28 Serendipitous discovery of a strong-lensed galaxy in integral field spectroscopy from MUSE, Galbany et al., 2018 MNRAS 479:262.
(11.) DDT1 The lowest metallicity type II supernova originating from the highest mass red-supergiant progenitor, Anderson et al., 2018 Nature Astronomy 2:574.
(10.) HK2 Constraints on core-collapse supernova progenitors from explosion site integral field spectroscopy, Kuncarayakti et al., 2018 A&A 613:A35.
(9.) AM8 The shape of oxygen abundance profiles explored with MUSE: evidence for widespread deviations from single gradients, Sánchez-Menguiano et al., 2018 A&A 609:A119.
(8.) JL1 Investigating the diversity of supernovae type Iax: a MUSE and NOT spectroscopic study of their environments, Lyman et al. 2018 MNRAS 473:1359.
(7.) AM13 Serendipitous Discovery of an Optical Emission-line Jet in NGC 232, López-Cobá et al., 2017 ApJ 850:17.
(6.) HK1 Hot gas around SN 1998bw: Inferring the progenitor from its environment, Kruehler et al., 2017 A&A 602:A85.
(5.) SV3 Evidence of Ongoing Radial Migration in NGC 6754: Azimuthal Variations of the Gas Properties, Sánchez-Menguiano et al., 2016 ApJ 830:40.
(4.) AM15 MUSE Reveals a Recent Merger in the Post-starburst Host Galaxy of the TDE ASASSN-14li, Prieto et al, 2016 ApJ 830:32.
(3.) SV4 Unresolved versus resolved: calibrating young SSP models with VLT/MUSE observation of NGC 3603, Kuncarayakti et al., 2016 A&A 593:A78.
(2.) SV2 Characterizing the environments of supernovae with MUSE, Galbany et al., 2016 MNRAS 455:4087.
(1.) SV1 Census of H II regions in NGC 6754 derived with MUSE: Constraints on the metal mixing scale, Sánchez et al, 2015 A&A 573:A105.