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| SN 2018oh , the SIMBAD biblio (91 results) | C.D.S. - SIMBAD4 rel 1.8 - 2026.10.14CEST09:58:22 |
| Bibcode/DOI | Score |
in Title|Abstract| Keywords |
in a table | in teXt, Caption, ... | Nb occurence | Nb objects in ref |
Citations (from ADS) |
Title | First 3 Authors |
|---|---|---|---|---|---|---|---|---|---|
|
2019ApJ...870L...1D |
3482 | T K A | S X C | 83 | 14 | 84 |
K2 observations of SN 2018oh reveal a two-component rising light curve for a Type Ia supernova. |
DIMITRIADIS G., FOLEY R.J., REST A., et al. | |
| 2019ApJ...870...12L | 4698 | T K A | X C | 114 | 19 | 62 | Photometric and spectroscopic properties of Type Ia supernova 2018oh with early excess emission from the Kepler 2 observations. | LI W., WANG X., VINKO J., et al. | |
|
2019ApJ...870...13S |
2725 | T K A | D | X C | 66 | 17 | 71 |
Seeing double: ASASSN-18bt exhibits a two-component rise in the early-time K2 light curve. |
SHAPPEE B.J., HOLOIEN T.W.-S., DROUT M.R., et al. |
| 2019ApJ...870L..14D | 1690 | K A | S X C | 40 | 8 | 11 | Nebular spectroscopy of Kepler's brightest supernova. | DIMITRIADIS G., ROJAS-BRAVO C., KILPATRICK C.D., et al. | |
| 2019ApJ...872L...7L | 1284 | T A | X C | 30 | 4 | 4 | Explaining the early excess emission of the Type Ia supernova 2018oh by the interaction of the ejecta with disk-originated matter. | LEVANON N. and SOKER N. | |
| 2019ApJ...872L..22T | 1773 | T K A | S X C | 41 | 7 | 15 |
No stripped companion material in the nebular spectrum of the "two-component" Type Ia supernova ASASSN-18bt. |
TUCKER M.A., SHAPPEE B.J. and WISNIEWSKI J.P. | |
| 2019ApJ...873L..18D | 248 | X C | 5 | 11 | 51 | ZTF 18aaqeasu (SN2018byg): a massive helium-shell double detonation on a sub-Chandrasekhar-mass white dwarf. | DE K., KASLIWAL M.M., POLIN A., et al. | ||
| 2019ApJ...877L...4S | 16 | D | 1 | 31 | 7 | Nebular Hα limits for fast declining SNe Ia. | SAND D.J., AMARO R.C., MOE M., et al. | ||
| 2018ATel11253....1B | 80 | T | X | 1 | 2 | ~ |
ASASSN-18bt: Discovery of A Probable, Bright Supernova in a Kepler Supernova Field. |
BROWN J.S., STANEK K.Z., VALLELY P., et al. | |
| 2018ATel11259....1C | 161 | T | X | 3 | 1 | ~ |
Improved Position and Additional Photometry for ASASSN-18bt, Bright Supernova in a Kepler Supernova Field. |
CORNECT R., BRIMACOMBE J., STONE G., et al. | |
| 2018ATel11267....1Z | 241 | T | X | 5 | 6 | ~ |
Spectroscopic Classifications of SN 2018pc, SN 2018pn and SN 2018oh. |
ZHANG J., XIN Y., LI W., et al. | |
| 2018ATel11344....1R | 40 | X | 1 | 18 | ~ | KEGS Discovery of 28 Supernova Candidates and One Nuclear Transient in the K2 Campaign 16 Field with DECam. | REST A., STRAMPELLI G.M., ZENTENO A., et al. | ||
| 2019MNRAS.487.2372V | 163 | X | 4 | 28 | 53 | ASASSN-18tb: a most unusual Type Ia supernova observed by TESS and SALT. | VALLELY P.J., FAUSNAUGH M., JHA S.W., et al. | ||
| 2019PASP..131i4502F | 50 | X | 1 | 17 | 161 | Eleanor: an open-source tool for extracting light curves from the TESS full-frame images. | FEINSTEIN A.D., MONTET B.T., FOREMAN-MACKEY D., et al. | ||
|
2019ApJ...882...30L |
81 | X | 2 | 15 | ~ | Observations of Type Ia supernova 2014J for nearly 900 days and constraints on its progenitor system. | LI W., WANG X., HU M., et al. | ||
|
2019ApJ...883..111H |
45 | X | 1 | 15 | 74 | Discovery and early evolution of ASASSN-19bt, the first TDE detected by TESS. | HOLOIEN T.W.-S., VALLELY P.J., AUCHETTL K., et al. | ||
| 2020ApJ...890..159L | 41 | X | 1 | 63 | 23 | The deepest radio observations of nearby SNe Ia: constraining progenitor types and optimizing future surveys. | LUNDQVIST P., KUNDU E., PEREZ-TORRES M.A., et al. | ||
|
2020MNRAS.492.4325S |
16 | D | 1 | 247 | 24 | Berkeley supernova Ia program: data release of 637 spectra from 247 Type Ia supernovae. | STAHL B.E., ZHENG W., DE JAEGER T., et al. | ||
|
2020A&A...634A..37M |
263 | D | X C | 6 | 35 | 32 | Determining the 56Ni distribution of type Ia supernovae from observations within days of explosion. | MAGEE M.R., MAGUIRE K., KOTAK R., et al. | |
| 2020ApJ...892...25J | 370 | X C | 8 | 19 | ~ | The HSC-SSP transient survey: implications from early photometry and rise time of normal Type Ia supernovae. | JIANG J.-A., YASUDA N., MAEDA K., et al. | ||
| 2020ApJ...892..121K | 428 | D | X C | 10 | 39 | ~ | Constraints on the physical properties of SNe Ia from photometry. | KONYVES-TOTH R., VINKO J., ORDASI A., et al. | |
| 2020ApJ...892..142H | 165 | X | 4 | 24 | ~ | SN 2017cfd: a normal Type Ia supernova discovered very young. | HAN X., ZHENG W., STAHL B.E., et al. | ||
|
2020MNRAS.493.1044T |
140 | D | X | 4 | 116 | 49 | Nebular spectra of 111 Type Ia supernovae disfavour single-degenerate progenitors. | TUCKER M.A., SHAPPEE B.J., VALLELY P.J., et al. | |
| 2020MNRAS.495.4622F | 41 | X | 1 | 3 | ~ | Observing the earliest moments of supernovae using strong gravitational lenses. | FOXLEY-MARRABLE M., COLLETT T.E., FROHMAIER C., et al. | ||
|
2020ApJ...898...56M |
166 | X | 4 | 21 | 28 | The spectacular ultraviolet flash from the peculiar Type Ia supernova 2019yvq. | MILLER A.A., MAGEE M.R., POLIN A., et al. | ||
| 2020MNRAS.496.3553S | 58 | D | X | 2 | 202 | ~ | deepSIP: linking Type Ia supernova spectra to photometric quantities with deep learning. | STAHL B.E., MARTINEZ-PALOMERA J., ZHENG W., et al. | |
| 2020ApJ...900L..27S | 248 | X C | 5 | 17 | 27 | Strong calcium emission indicates that the ultraviolet-flashing SN Ia 2019yvq was the result of a sub-Chandrasekar-mass double-detonation explosion. | SIEBERT M.R., DIMITRIADIS G., POLIN A., et al. | ||
| 2020MNRAS.498...33R | 272 | A | X C | 6 | 8 | ~ | K2: Background Survey - the search for undiscovered transients in Kepler/K2 data. | RIDDEN-HARPER R., TUCKER B.E., GULLY-SANTIAGO M., et al. | |
|
2020ApJ...902...46Y |
42 | X | 1 | 28 | 32 | The young and nearby normal Type Ia Supernova 2018gv: uv-optical observations and the earliest spectropolarimetry. | YANG Y., HOEFLICH P., BAADE D., et al. | ||
|
2020ApJ...902...47M |
41 | X | 1 | 134 | 41 | ZTF early observations of Type Ia supernovae. II. First light, the initial rise, and time to reach maximum brightness. | MILLER A.A., YAO Y., BULLA M., et al. | ||
|
2020MNRAS.499.1424H |
16 | D | 1 | 408 | ~ | Supernovae and their host galaxies - VII. The diversity of Type Ia supernova progenitors. | HAKOBYAN A.A., BARKHUDARYAN L.V., KARAPETYAN A.G., et al. | ||
| 2020A&A...642A.189M | 2336 | A | S X C | 55 | 5 | 31 | An investigation of 56Ni shells as the source of early light curve bumps in type Ia supernovae. | MAGEE M.R. and MAGUIRE K. | |
|
2020ApJ...904...14W |
41 | X | 1 | 21 | 12 | Optical and near-infrared observations of the nearby SN Ia 2017cbv. | WANG L., CONTRERAS C., HU M., et al. | ||
| 2021MNRAS.500.5639V | 42 | X | 1 | 33 | 29 | High-cadence, early-time observations of core-collapse supernovae from the TESS prime mission. | VALLELY P.J., KOCHANEK C.S., STANEK K.Z., et al. | ||
|
2021ApJ...908...51F |
335 | X C | 7 | 46 | 51 | Early-time light curves of Type Ia supernovae observed with TESS. | FAUSNAUGH M.M., VALLELY P.J., KOCHANEK C.S., et al. | ||
| 2021MNRAS.502.3533M | 963 | X C | 22 | 9 | 18 | Exploring the diversity of double-detonation explosions for Type Ia supernovae: effects of the post-explosion helium shell composition. | MAGEE M.R., MAGUIRE K., KOTAK R., et al. | ||
| 2021ApJ...908..143J | 126 | X C | 2 | 47 | 54 | The Young Supernova Experiment: survey goals, overview, and operations. | JONES D.O., FOLEY R.J., NARAYAN G., et al. | ||
|
2021ApJ...909..176Z |
752 | X C | 17 | 18 | 2 | SN 2017hpa: a nearby carbon-rich Type Ia supernova with a large velocity gradient. | ZENG X., WANG X., ESAMDIN A., et al. | ||
| 2021MNRAS.503..896D | 84 | X | 2 | 18 | 2 | SN 2017hpa: a carbon-rich Type Ia supernova. | DUTTA A., SINGH A., ANUPAMA G.C., et al. | ||
|
2021ApJ...910..151M |
42 | X | 1 | 20 | ~ | Rapidly declining hostless Type Ia supernova KSP-OT-201509b from the KMTNet Supernova Program: transitional nature and constraint on 56Ni distribution and progenitor Type. | MOON D.-S., NI Y.Q., DROUT M.R., et al. | ||
| 2021PASP..133d4002B | 17 | D | 2 | 142 | ~ | Low-redshift Type Ia supernova from the LSQ/LCO collaboration. | BALTAY C., GROSSMAN L., HOWARD R., et al. | ||
|
2021ApJ...919...49Z |
251 | X C | 5 | 23 | 10 | SN 2017fgc: a fast-expanding Type Ia supernova exploded in massive shell galaxy NGC 474. | ZENG X., WANG X., ESAMDIN A., et al. | ||
| 2021ApJ...919..142B | 167 | X | 4 | 22 | 17 | A bright ultraviolet excess in the transitional 02es-like Type Ia Supernova 2019yvq. | BURKE J., HOWELL D.A., SARBADHICARY S.K., et al. | ||
| 2021MNRAS.508.3649D | 84 | X | 2 | 22 | ~ | Blast from the past: constraining progenitor models of SN 1972E. | DO A., SHAPPEE B.J., DE CUYPER J.-P., et al. | ||
|
2021ApJ...922...21S |
167 | X C | 3 | 18 | 11 | Circumstellar medium constraints on the environment of two nearby Type Ia supernovae: SN 2017cbv and SN 2020nlb. | SAND D.J., SARBADHICARY S.K., PELLEGRINO C., et al. | ||
|
2021ApJ...923...86C |
17 | D | 1 | 813 | 3 | Local environments of low-redshift supernovae. | CRONIN S.A., UTOMO D., LEROY A.K., et al. | ||
|
2021ApJ...923..167W |
1196 | A | X C | 28 | 9 | 11 | SN 2018agk: a prototypical Type Ia supernova with a smooth power-law rise in Kepler (K2). | WANG Q., REST A., ZENATI Y., et al. | |
|
2021ApJ...923..267D |
17 | D | 3 | 379 | 11 | The Foundation Supernova Survey: photospheric velocity correlations in Type Ia supernovae. | DETTMAN K.G., JHA S.W., DAI M., et al. | ||
|
2022ApJ...924...55G |
44 | X | 1 | 18 | 22 | An early-time optical and ultraviolet excess in the type-Ic SN 2020oi. | GAGLIANO A., IZZO L., KILPATRICK C.D., et al. | ||
| 2022MNRAS.510.4779S | 17 | D | 2 | 445 | ~ | Type Ia supernova magnitude step from the local dark matter environment. | STEIGERWALD H., RODRIGUES D., PROFUMO S., et al. | ||
| 2022MNRAS.511.3682G | 1635 | K | D | S X | 38 | 34 | 6 | Nebular-phase spectra of Type Ia supernovae from the Las Cumbres Observatory Global Supernova Project. | GRAHAM M.L., KENNEDY T.D., KUMAR S., et al. |
| 2022MNRAS.512.1317D | 596 | X C F | 12 | 145 | 17 | Constraining Type Ia supernova explosions and early flux excesses with the Zwicky Transient Factory. | DECKERS M., MAGUIRE K., MAGEE M.R., et al. | ||
|
2022ApJS..259...53C |
17 | D | 1 | 291 | 15 | The First Data Release of CNIa0.02-A Complete Nearby (Redshift <0.02) Sample of Type Ia Supernova Light Curves. | CHEN P., DONG S., KOCHANEK C.S., et al. | ||
| 2022MNRAS.513.3035M | 129 | X | 3 | 6 | 6 | The detection efficiency of Type Ia supernovae from the Zwicky Transient Facility: limits on the intrinsic rate of early flux excesses. | MAGEE M.R., CUDDY C., MAGUIRE K., et al. | ||
| 2022PASP..134e4201B | 102 | D | F | 3 | 17 | 2 | Initial Ni-56 Masses in Type Ia Supernovae. | BORA Z., VINKO J. and KONYVES-TOTH R. | |
| 2022MNRAS.514.3541S | 596 | X C | 13 | 14 | 13 | Observations of the very young Type Ia Supernova 2019np with early-excess emission. | SAI H., WANG X., ELIAS-ROSA N., et al. | ||
| 2022NatAs...6..568N | 86 | X | 2 | 9 | 15 | Infant-phase reddening by surface Fe-peak elements in a normal type Ia supernova. | NI Y.Q., MOON D.-S., DROUT M.R., et al. | ||
| 2022ApJ...932L...2A | 129 | X | 3 | 16 | 23 | A Speed Bump: SN 2021aefx Shows that Doppler Shift Alone Can Explain Early Excess Blue Flux in Some Type Ia Supernovae. | ASHALL C., LU J., SHAPPEE B.J., et al. | ||
|
2022ApJ...933L..45H |
171 | X | 4 | 18 | 21 | Constraining the Progenitor System of the Type Ia Supernova 2021aefx. | HOSSEINZADEH G., SAND D.J., LUNDQVIST P., et al. | ||
| 2022PASP..134g4201Z | 255 | X C | 5 | 25 | 4 | Optical Observations of the Nearby Type Ia Supernova 2021hpr. | ZHANG Y., ZHANG T., DANZENGLUOBU, et al. | ||
| 2023MNRAS.521.1162D | 392 | X C F | 7 | 30 | 9 | SN 2021zny: an early flux excess combined with late-time oxygen emission suggests a double white dwarf merger event. | DIMITRIADIS G., MAGUIRE K., KARAMBELKAR V.R., et al. | ||
| 2023ApJ...946...83L | 44 | X | 1 | 23 | 4 | SN 2020jgb: A Peculiar Type Ia Supernova Triggered by a Helium-shell Detonation in a Star-forming Galaxy. | LIU C., MILLER A.A., POLIN A., et al. | ||
| 2023ApJ...946..101C | 17 | D | 1 | 95 | 1 | A Linear Relation between the Color Stretch sBV and the Rising Color Slope ${s}_{0}^{* }(B-V)$ of Type Ia Supernovae. | CHEN P., DONG S., ASHALL C., et al. | ||
| 2023MNRAS.522.3481D | 44 | X | 1 | 24 | 3 | SN 2021fxy: mid-ultraviolet flux suppression is a common feature of Type Ia supernovae. | DERKACY J.M., PAUGH S., BARON E., et al. | ||
|
2023ApJ...949...33L |
348 | X C | 7 | 25 | 3 | The Early Light Curve of the Type Ia Supernova 2021hpr in NGC 3147: Progenitor Constraints with the Companion Interaction Model. | LIM G., IM M., PAEK G.S.H., et al. | ||
| 2023MNRAS.520..560H | 44 | X | 1 | 13 | 2 | The core normal Type Ia supernova 2019np - an overall spherical explosion with an aspherical surface layer and an aspherical 56Ni core. | HOEFLICH P., YANG Y., BAADE D., et al. | ||
| 2023RAA....23h2001L | 131 | X C | 2 | 78 | ~ | Type Ia Supernova Explosions in Binary Systems: A Review. | LIU Z.-W., ROPKE F.K. and HAN Z. | ||
| 2023ApJ...953L..15H | 87 | X | 2 | 15 | ~ | The Early Light Curve of SN 2023bee: Constraining Type Ia Supernova Progenitors the Apian Way. | HOSSEINZADEH G., SAND D.J., SARBADHICARY S.K., et al. | ||
| 2023MNRAS.525..246H | 801 | D | X C F | 17 | 11 | ~ | Possible circumstellar interaction origin of the early excess emission in thermonuclear supernovae. | HU M., WANG L., WANG X., et al. | |
| 2023MNRAS.526.1268L | 104 | D | F | 4 | 72 | ~ | Implications for the explosion mechanism of Type Ia supernovae from their late-time spectra. | LIU J., WANG X., FILIPPENKO A.V., et al. | |
| 2023ApJ...956..108F | 87 | X | 2 | 56 | ~ | Four Years of Type Ia Supernovae Observed by TESS: Early-time Light-curve Shapes and Constraints on Companion Interaction Models. | FAUSNAUGH M.M., VALLELY P.J., TUCKER M.A., et al. | ||
| 2023ApJ...956L..34S | 44 | X | 1 | 22 | ~ | Unprecedented Early Flux Excess in the Hybrid 02es-like Type Ia Supernova 2022ywc Indicates Interaction with Circumstellar Material. | SRIVASTAV S., MOORE T., NICHOLL M., et al. | ||
| 2023ApJ...959..132N | 174 | X C | 3 | 20 | ~ | Origin of High-velocity Ejecta, Excess Emission, and Redward Color Evolution in the Infant Type Ia Supernova 2021aefx. | NI Y.Q., MOON D.-S., DROUT M.R., et al. | ||
| 2024ApJ...960...29P | 45 | X | 1 | 24 | ~ | Strong Carbon Features and a Red Early Color in the Underluminous Type Ia SN 2022xkq. | PEARSON J., SAND D.J., LUNDQVIST P., et al. | ||
| 2024MNRAS.527.9957X | 45 | X | 1 | 24 | ~ | SN 2022vqz: a peculiar subluminous Type Ia supernova with prominent early excess emission. | XI G., WANG X., LI G., et al. | ||
| 2024ApJ...962...17W | 582 | X C | 12 | 18 | ~ | Flight of the Bumblebee: the Early Excess Flux of Type Ia Supernova 2023bee Revealed by TESS, Swift, and Young Supernova Experiment Observations. | WANG Q., REST A., DIMITRIADIS G., et al. | ||
| 2024ApJ...966..139H | 287 | D | S X | 6 | 103 | ~ | From out of the Blue: Swift Links 2002es-like, 2003fg-like, and Early Time Bump Type Ia Supernovae. | HOOGENDAM W.B., SHAPPEE B.J., BROWN P.J., et al. | |
|
2024A&A...687A.108G |
18 | D | 1 | 1820 | ~ | Narrow absorption lines from intervening material in supernovae I. Measurements and temporal evolution. | GONZALEZ-GAITAN S., GUTIERREZ C.P., ANDERSON J.P., et al. | ||
| 2024ApJ...973..117L | 287 | D | X | 7 | 18 | ~ | Early-time Observations of SN 2023wrk: A Luminous Type Ia Supernova with Significant Unburned Carbon in the Outer Ejecta. | LIU J., WANG X., ANDRADE C., et al. | |
| 2024ApJ...974..164Y | 45 | X | 1 | 30 | ~ | Searching for Bumps in the Cosmological Road: Do Type Ia Supernovae with Early Excesses Have Biased Hubble Residuals? | YE C., JONES D.O., HOOGENDAM W.B., et al. | ||
|
2024A&A...691A..90Z |
179 | X C | 3 | 21 | ~ | SN 2021wuf: A transitional type Ia supernova with a low-velocity gradient. | ZENG X., LI S., WANG X., et al. | ||
| 2024MNRAS.535.3470Z | 18 | D | 1 | 112 | ~ | Puzzling high-velocity calcium absorption features of type Ia supernovae. | ZHAO X. | ||
| 2025ApJ...980..156S | 140 | X | 3 | 28 | ~ | The Unique Helium Nova V445 Puppis Ejected ≫0.001 M⊙ in the Year 2000 and Will Not Become a Type Ia Supernova. | SCHAEFER B.E. | ||
| 2025MNRAS.538L...1T | 19 | D | 1 | 103 | ~ | Merging white dwarf binaries produce Type Ia supernovae in elliptical galaxies. | TUCKER M.A. | ||
| 2025ApJ...983....3N | 47 | X | 1 | 30 | ~ | Infant Type Ia Supernovae from the KMTNet. I. Multicolor Evolution and Populations. | NI Y.Q., MOON D.-S., DROUT M.R., et al. | ||
| 2025ApJ...984..160I | 187 | X C | 3 | 25 | ~ | SN 2021hpr: A Normal Type Ia Supernova Showing Excess Emission in the Early Rising Phase. | ISKANDAR A., WANG X., ESAMDIN A., et al. | ||
| 2025ApJ...986...68Z | 653 | X C | 13 | 11 | ~ | SN 2023ehl: A Normal Type Ia Supernova with High-velocity Features. | ZENG X., HU L., ZHENG S., et al. | ||
|
2025A&A...698A..70Z |
187 | X C | 3 | 13 | ~ | SN 2023xqm: A gradually fading Ia supernova exhibiting isolated high-velocity signatures. | ZENG X., LUO Y., WANG X., et al. | ||
| 2025ApJ...991..148W | 19 | D | 1 | 46 | ~ | A Common Origin of Normal Type Ia Supernovae Suggested by the Photometric Diversity. | WU W., JIANG J.-A., MENG D., et al. | ||
| 2025ApJ...994...87B | 233 | X | 5 | 30 | ~ | Early Lightcurves of Type Ia Supernovae Are Consistent with Nondegenerate Progenitor Companions. | BURKE J., ANDREWS M., HOWELL D.A., et al. | ||
| 2025ApJ...994..187S | 112 | D | X | 3 | 40 | ~ | Symbiotic Stars (Including T Corona Borealis) Are Not Immediate Progenitors of Normal Type Ia Supernovae. | SCHAEFER B.E. |