Distant Type Ia and II supernovae (SNe) can serve as valuable probes of the history of the cosmic expansion and star formation, and provide important information on their progenitor models. At present, however, there are few observational constraints on the abundance of SNe at high redshifts. A major science driver for the Next Generation Space Telescope (NGST) is the study of such very distant supernovae (SNe). In this paper we discuss strategies for finding and counting distant SNe by using repeat imaging of super-critical intermediate redshift clusters whose mass distributions are well-constrained via modelling of strongly-lensed features. For a variety of different models for the star formation history and supernova progenitors, we esti...
We review the use of Type Ia supernovae for cosmological distance determinations. Low-redshift SNe I...
Strong lensing by galaxy clusters can be used to significantly expand the survey reach, thus allowin...
We model the number of detectable supernovae (SNe) as a function of redshift at different flux thres...
Distant Type Ia and II supernovae (SNe) can serve as valuable probes of the history of the cosmic ex...
Gravitational lenses such as galaxies and galaxy clusters, can magnify the flux of background galaxi...
Strong gravitational lensing of distant supernovae (SNe), particularly Type Ia's, has some exploitab...
Supernovae (SNe) are one the most energetic phenomena in the Universe and have been extensively used...
International audienceAims. Strong lensing by massive galaxy clusters can provide magnification of t...
Context. Massive galaxy clusters at intermediate redshifts act as gravitational lenses that can magn...
Aims. Powerful gravitational telescopes in the form of massive galaxy clusters can be used to enhanc...
International audienceContext. Massive galaxy clusters at intermediate redshifts act as gravitationa...
Near-infrared and radio searches for core-collapse supernovae (CC SNe) in the local universe have sh...
Aims. We present a ground-based, near-infrared search for lensed supernovae behind the massive clust...
Aims. We present a ground-based, near-infrared search for lensed supernovae behind the massive clust...
We review the use of Type Ia supernovae for cosmological distance determinations. Low-redshift SNe I...
Strong lensing by galaxy clusters can be used to significantly expand the survey reach, thus allowin...
We model the number of detectable supernovae (SNe) as a function of redshift at different flux thres...
Distant Type Ia and II supernovae (SNe) can serve as valuable probes of the history of the cosmic ex...
Gravitational lenses such as galaxies and galaxy clusters, can magnify the flux of background galaxi...
Strong gravitational lensing of distant supernovae (SNe), particularly Type Ia's, has some exploitab...
Supernovae (SNe) are one the most energetic phenomena in the Universe and have been extensively used...
International audienceAims. Strong lensing by massive galaxy clusters can provide magnification of t...
Context. Massive galaxy clusters at intermediate redshifts act as gravitational lenses that can magn...
Aims. Powerful gravitational telescopes in the form of massive galaxy clusters can be used to enhanc...
International audienceContext. Massive galaxy clusters at intermediate redshifts act as gravitationa...
Near-infrared and radio searches for core-collapse supernovae (CC SNe) in the local universe have sh...
Aims. We present a ground-based, near-infrared search for lensed supernovae behind the massive clust...
Aims. We present a ground-based, near-infrared search for lensed supernovae behind the massive clust...
We review the use of Type Ia supernovae for cosmological distance determinations. Low-redshift SNe I...
Strong lensing by galaxy clusters can be used to significantly expand the survey reach, thus allowin...
We model the number of detectable supernovae (SNe) as a function of redshift at different flux thres...