T. Axelrod, NASA Asteroid Grand Challenge, Houston, Oct 1, 2013 Improving NEO Discovery Efficiency With Citizen Science Tim Axelrod LSST EPO Scientist.

Slides:



Advertisements
Similar presentations
Lessons Learned from Data-Rich Science Education Projects Stephen Pompea and Doug Isbell Public Affairs and Educational Outreach National Optical Astronomy.
Advertisements

Space …. are big. Really big. You just won't believe how vastly, hugely, mindbogglingly big they are. Massive data streams Douglas Adams – Hitchhiker’s.
Vestrand Real Time Transient Detection with RAPTOR: Exploring the Path Toward a “Thinking” Telescope Tom Vestrand on behalf of the RAPTOR Team Los Alamos.
MOST - Moving Object Search Tool for NEOWISE and IRSA Kevin Yau 6/11/2010.
Databases for the 'Pi of the Sky' experiment Marek Biskup Warsaw University.
X-ray sources in NSVS Tim McKay University of Michigan 04/03/04.
May stars be the actors and dark energy direct shoot a movie in the sky Chihway Chang Oct.8 ‘2008.
KDD for Science Data Analysis Issues and Examples.
TALCS Science Results As processed by MOPS Joe Masiero 2/12/08 PS-ISS/OSS Science Meeting.
Planning for a Remote Robotic Observatory in Australia Suketu Bhavsar, Dept. of Physics and Astronomy, University of Kentucky (UK)! Due to the time difference.
The KPNO 4m “Mayall” Telescope Arjun Dey (NOAO). National Optical Astronomy Observatory Mission: provide the best ground-based astronomical capabilities.
The Background Even though the telescope has only been in orbit since 1990, the idea of a “space-based optical observatory” actually came after WWII in.
Your Observing Challenge: White Dwarfs in Open Star Clusters.
The Solar System at ~10 mas perspectives for a Fresnel imager Paolo Tanga Marco Delbò Laboratoire Cassiopée, OCA.
Big Data in Science (Lessons from astrophysics) Michael Drinkwater, UQ & CAASTRO 1.Preface Contributions by Jim Grey Astronomy data flow 2.Past Glories.
National Center for Supercomputing Applications Observational Astronomy NCSA projects radio astronomy: CARMA & SKA optical astronomy: DES & LSST access:
1 New Frontiers with LSST: leveraging world facilities Tony Tyson Director, LSST Project University of California, Davis Science with the 8-10 m telescopes.
Proficiency in Science Students who are proficient in science: 1. Know, use, and interpret scientific explanations of the natural world 2. Generate and.
Citizen Science (& Public Engagement) C. Christian HST Outreach Project Scientist.
1 The LOFT group Who we are Where we came from Where we are going Large Optics Fabrication and Testing ?
Astronomy 1020-H Stellar Astronomy Spring_2015 Day-21.
Astro / Geo / Eco - Sciences Illustrative examples of success stories: Sloan digital sky survey: data portal for astronomy data, 1M+ users and nearly 1B.
Sub-km sized Asteroids Near the Earth & SDSS data Bae Young Ho & Byun Yong Ik Dept. of Astronomy, Yonsei University SDSS Korean Scientist Group Workshop.
LSST: Preparing for the Data Avalanche through Partitioning, Parallelization, and Provenance Kirk Borne (Perot Systems Corporation / NASA GSFC and George.
The Future of Helioseismology. NSF Senior Review Has recommended that GONG be closed one year after successful SDO/HMI commissioning unless outside funding.
Explorations of the Outer Solar System B. Scott Gaudi Harvard-Smithsonian Center for Astrophysics.
EScience May 2007 From Photons to Petabytes: Astronomy in the Era of Large Scale Surveys and Virtual Observatories R. Chris Smith NOAO/CTIO, LSST.
1 Computing Challenges for the Square Kilometre Array Mathai Joseph & Harrick Vin Tata Research Development & Design Centre Pune, India CHEP Mumbai 16.
Astronomy, Petabytes, and MySQL MySQL Conference Santa Clara, CA April 16, 2008 Kian-Tat Lim Stanford Linear Accelerator Center.
1 Machine Learning and Data Mining for Automatic Detection and Interpretation of Solar Events Jie Zhang (Presenting, Co-I, SCS*) Art Poland (PI, SCS*)
Eyeballs and automation in pursuit of moons (and limiting magnitudes) Max Mutchler Research & Instrument Scientist Space Telescope Science Institute Nix.
The Large Synoptic Survey Telescope: The power of wide-field imaging Michael Strauss, Princeton University.
Theme 2: Data & Models One of the central processes of science is the interplay between models and data Data informs model generation and selection Models.
DDM Kirk. LSST-VAO discussion: Distributed Data Mining (DDM) Kirk Borne George Mason University March 24, 2011.
The Large Synoptic Survey Telescope Project Bob Mann LSST:UK Project Leader Wide-Field Astronomy Unit, Edinburgh.
S4E1 Students will compare and contrast the physical attributes of stars, star patterns, and planets. d. Identify how technology is used to observe distant.
Results of GEO and HEO monitoring by ISON network in th session of STSC COPUOS Vienna Feb 2013 Russian Academy of Sciences Keldysh Institute.
MMT Observation Database for Light Curve Analysis Vladimir Agapov Presentation for the WG1 session 33rd IADC meeting, Houston.
Astronomy 1010 Planetary Astronomy Fall_2015 Day-21.
The Astrometric Promise of Large A*  Dave Monet U.S. Naval Observatory - Flagstaff Station September 21, 2008.
Astronomy 1020 Stellar Astronomy Spring_2016 Day-3.
MPI Semiconductor Laboratory, The XEUS Instrument Working Group, PNSensor The X-ray Evolving-Universe Spectroscopy (XEUS) mission is under study by the.
LSST CORPORATION Patricia Eliason LSSTC Executive Officer Belgrade, Serbia 2016.
1 GMT Community Science Meeting Monterey, CA October 1 – 3, 2015 LSST – A Discovery Machine for ELT Era Science Beth Willman LSST Deputy Director GMT Community.
LSST Commissioning Overview and Data Plan Charles (Chuck) Claver Beth Willman LSST System Scientist LSST Deputy Director SAC Meeting.
The Kepler Mission S. R. Kulkarni.
Learning Patterns of Activity
Education and Public Outreach goals and priorities
LSST Commissioning Overview and Data Plan Charles (Chuck) Claver Beth Willman LSST System Scientist LSST Deputy Director SAC Meeting.
Observing and exploring space
Optical Survey Astronomy DATA at NCSA
William H. Ryan1, Eileen V. Ryan1, and Lee K. Johnson2
Objectives: To understand signal To understand noise
Computing Architecture
Informix Red Brick Warehouse 5.1
Theme 2 AO for Extremely Large Telescopes
Space Technology 8.E.4B.5 Obtain and communicate information to describe how data from technologies (including telescopes, spectroscopes, satellites,
Three methods used in science
Safety Culture Self-Assessment Methodology
Monitor of All sky X-ray Image (MAXI)
Observing Planets and Stars
COMPASS Database SPACE TELESCOPE SCIENCE INSTITUTE Gretchen Greene
Click to add title Planning for LSST Verification George Angeli LSST All Hands Meeting Tucson August 15, 2016.
NEARBY Platform for Automatic Asteroids Detection and EURONEAR Surveys
Community Science with TESS Thank you.
The Richard F. Caris Mirror Lab
Solar System Science with Subaru and HSC
Airport Parking Space Navigation
Theme 2 AO for Extremely Large Telescopes
Theme 2 AO for Extremely Large Telescopes
Presentation transcript:

T. Axelrod, NASA Asteroid Grand Challenge, Houston, Oct 1, 2013 Improving NEO Discovery Efficiency With Citizen Science Tim Axelrod LSST EPO Scientist October 1, 2013

Wide Fast Deep Optical Survey 8.4 M Primary Aperture 3.5 Degree Field Of View 3.2 Billion Pixel Camera ~40 Second Cadence –Two 15 second exposures –Full sky coverage every few nights Data Served and Archived –Alerts of new events –Catalogs of objects –Images Education and Public Outreach integral to the project Science Operations Start in 2022 LSST - Large Synoptic Survey Telescope

LSST is a Different Kind of Telescope An integrated survey system. The Observatory, Telescope, Camera and Data Management system are all built to support the LSST survey. There’s no PI mode, proposals, or time. Observe the database, simultaneous investigations, data mining rather than classic observing. The ultimate deliverable of LSST is not the telescope, nor the instruments; it’s the fully reduced data. “LSST” is the database. The “Google Index” of the Optical Sky.

Credit: P. Gay/SIUE, S. Jacoby/LSST understood data all data understood data cool mysteries Citizen Science adds Value to LSST machine learning need human intervention

T. Axelrod, NASA Asteroid Grand Challenge, Houston, Oct 1, 2013 How Can We Best Use Citizen Scientists for Asteroid Detection? LSST will collect roughly 1.1 million asteroid detections every night. I think this is too many for CS’s to look at every one! Instead, let’s give them a higher level task: Assist with track linkage

T. Axelrod, NASA Asteroid Grand Challenge, Houston, Oct 1, 2013 The computational complexity of track linking grows exponentially with the number of asteroid detections in an image, and with the speed of their motion (particularly a problem for NEOs) – This is a major problem for LSST Current algorithms produce many candidate tracks whose correctness is not assured Other information can be brought to bear under human control – Real orbital dynamics – Knowledge of the Solar System population statistics – Light curves – Observations from other telescopes With the right sort of tools, I think it is practical for citizen scientists to undertake this kind of analysis, and thereby greatly increase the efficiency of the entire man/machine system for detecting and cataloging NEOs Citizen Science and Track Linking

T. Axelrod, NASA Asteroid Grand Challenge, Houston, Oct 1, 2013 Track Analysis Tools for Citizen Scientists There are parallels with another application area: Wide Area Motion Imagery (WAMI) – Tracking moving objects on the ground between images separated in space and time – Human input often required – Tools are under active development – We can learn from this community! Goal is to have several interacting tools, each providing its own perspective on the likelihood that a track is correct – Image examiner – Lightcurve viewer – Orbit fitter The role of the citizen scientist is to use these tools to draw a conclusion about whether a candidate track is likely real or not – Challenging, and fun!

Backup Slides

LSST will observe about 1.1 million asteroids every night