Updated July 15, 2013
The LSST will carry out a six-band multi-epoch optical survey over half the Celestial Sphere using a dedicated 8.4-meter telescope, allowing major advances in areas ranging from the study of near-Earth asteroids to the nature of Dark Energy. The Science Collaborations are autonomous entities that will work closely with the LSST construction project on areas from cadence design to commissioning. LSST was ranked #1 by the Astronomy and Astrophysics 2010 Decadal Survey for large ground-based projects. Science operations will begin six years after the start of construction.
- Science Working Group Report [PDF 4.3MB]
- Science with LSST and Other Large Surveys: Community Access and Utilization of Future Archives (September 2004 Meeting Papers and More)
Community Science Involvement Paves Path for Future Programs
Because we intend this facility and its database to serve as a resource for the whole community, we want your input on the planning to date along with ideas for extending the work already done. In particular, LSST's cadence on the sky during operations will ultimately be determined through a community input process involving the LSST Science Advisory Council and the Science Collaborations. The detailed distribution of revisits and filters will be decided by optimizing the overall science return, using tools such as the Operations Simulator.
Join the mission! First, review the following materials which detail our current plan and findings:
Relative Survey Power: Opening Up Discovery Space
Étendue of current and planned survey telescopes and cameras on a log scale. Some are dedicated 100% to surveys ("Survey"). Others could have higher effective étendue if used 100% in survey mode or if duplicated ("Max"). Above an étendue of 200-300 m2 deg2 it becomes possible to undertake a single comprehensive multi-band survey of the entire visible sky serving most of the science opportunities, rather than multiple special surveys in series. The LSST will open up a qualitatively new regime in survey science.
- Science Requirements Document (July 6, 2011) [PDF 464KB]
Let us know whether these basic requirements are suitable for the program you would like to carry out. Look particularly at the cadence of observations. We are especially interested in your requirements for data products — what should the LSST pipelines and database provide in order to enable the science that you want to do?
LSST Science Collaborations and their chairs
- Supernovae: Richard Kessler(University of Chicago); Tom Matheson(NOAO);
- Weak lensing: Bhuvnesh Jain(University of Pennsylvania); David Wittman(University of California Davis);
- Active Galactic Nuclei: Niel Brandt(Pennsylvania State University);
- Solar System: Michael Brown(Caltech); Lynne Jones(University of Washington); David Trilling(Northern Arizona University);
- Galaxies: Michael Cooper(UC Irvine); Brant Robertson(University of Arizona);
- Transients/variable stars: Ashish Mahabal(Caltech); Lucianne Walkowicz(Princeton University);
- Large-scale structure/baryon oscillations: Eric Gawiser(Rutgers The State University of New Jersey); Shirley Ho(Carnegie Mellon University);
- Stars, Milky Way and Local Volume: John Bochanski(Rider University); Nitya Jacob Kallivayalil(University of Virginia); Beth Willman(Haverford College);
- Strong Lensing: Phil Marshall(KIPAC);
- Informatics and Statistics: Tom Loredo(Cornell University); Chad Schafer(Carnegie Mellon University);
- Dark Energy (DESC): Bhuvnesh Jain (University of Pennsylvania)