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2012 Summer Undergrad Program
Summer 2012 Undergrad Research Projects
The Dunlap Institute for Astronomy &
Astrophysics (DI) at the University of Toronto is
currently offering 4 research grants for undergraduate
students with interests in observational and
instrumental astronomy, to work on cutting-edge
research projects in summer 2012. We also accept
students with an NSERC grant in our program. |
![]() Applying
To apply, send a cover letter
indicating your interests and motivation for the DI
summer program, as well as your CV and academic
transcripts. |
List
of Research Projects Available for Summer 2012
1- GPIPreparing for the Gemini Planet Imager data analysisThe Dunlap Institute is actively engaged in the development of the Gemini Planet Imager (GPI), a high-contrast imaging instrument designed for detection and characterization of extrasolar planets orbiting nearby stars. Built for the Gemini telescope, GPI is equipped with an extreme adaptive-optics imaging polarimeter and integral-field spectrometer, which will provide near-infrared diffraction-limited data. The GPI instrument has entered this year in a phase of extensive tests of its components. First light on the sky is expected fall 2012.The student is expected to participate in the preparation of upcoming Gemini Planet Imager observations. He or she will take part in the development of astronomical data reduction and analysis, through available data reduction tools, simulations and test data. The student will be involved in the optimization of photometric and astrometric measurement techniques, and will also be encouraged to take part in the analysis of calibration data to optimize instrumental performances. The project will be supervised by Dr. Jerome Maire, Dr. Quinn Konopacky and Prof. James Graham. For more information, contact Dr. Jerome Maire and visit the GPI website. |
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2- PTF/M-dwarfsSearching for exoplanets around very-low-mass stars with the Palomar Transient FactoryPTF/M-dwarfs is searching for transiting giant planets orbiting ~100,000 cool, small stars, and for rocky planets orbiting a subset of these targets. The project has collected many terabytes of data and is searching through it for interesting objects. We are offering several projects which will improve the data analysis of the survey, help us interpret our results, and search for unusual objects, such as planets, stars and more exotic things...For more information on this project, contact Dr. Nick Law. |
Credits: NASA, ESA and G. Bacon (STScI) |
3- Extremely Cool AstronomyBuilding Instruments for an Observatory Near the
North Pole
As part of an ongoing effort to perform
the first large astronomical survey from the High
Canadian Arctic, in 2012/2013 the Dunlap Institute
will field a robotic 20-inch telescope and other
instruments at the PEARL research station on Ellesmere
Island. The site offers continuous darkness in winter
and excellent conditions for astronomy, particularly
for searching for transiting exoplanets. We are
offering projects involving testing and/or building
astronomical instruments for the site. |
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4- Sketching out MaNGADesign Simulations and Software Development for SDSSOver the past 10 years the Sloan Digital Sky Survey has systematically mapped the sky, cataloguing galaxies from our nearest neighbours to the most distant reaches of the Universe. In 2014, the SDSS will take us in a radical new direction: INSIDE nearby galaxies. MaNGA (Mapping Nearby Galaxies at APO) is a next-generation component of SDSS-IV that will obtain integral-field spectra for 10,000 nearby galaxies, mapping the velocities of their stars and gas, and measuring their chemical composition. MaNGA will consist of 15 integral-field units assembled from 20-100 fibers, with additional fibers dedicated to sampling the background sky. The survey will run for 6 years and will yield millions of individual spectra.We are looking for two students to help us work on the development of data simulations and reduction software to both inform the optimal construction of the integral field units and to prepare for the data-flow that MaNGA will deliver. The students will gain expertise in working with integral-field kinematic data, as well as analysis software to extract kinematical and chemical information of the observed galaxies out of the spectra. A background in astronomy is preferred, as is a familiarity with scientific programming languages (in particular IDL), but students from other disciplines who have a strong interest in extragalactic astronomy will also be considered. For more information, contact Dr. David Law or Dr. Anne-Marie Weijmans. |
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5- WIFISThe Wide Integral-Field Infrared SpectrographIn this project, the students will participate in the characterization and assembly of the Wide Integral-Field Infrared Spectrograph (WIFIS) which we expect to commission for real astronomical observations at an observatory in 2012 fall. This project will be conducted in a basement laboratory of the Astronomy Building by a team consisting of a professor, postdoctoral fellows, graduate students and undergraduate students.The required work includes characterization and alignment of complicated optical components inside a clean room, cryogenic tests of the detector and part of optical components, operation of the detector readout electronics, simple mechanical design of cryostat, development of software to control the hardware, and final assembly of the WIFIS. Necessary techniques and skills, including professional design and analyses software, will be taught at the beginning of the project. For more information on this project, contact Prof. Dae-Sik Moon or Dr. Suresh Sivanandam. |
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6- TMTDesign Study of the Thirty Meter Telescope In this project,
the students will participate in the optical and
mechanical design studies of the science
calibration system for the adaptive optics and
near-infrared instruments of the Thirty Meter
Telescope.
The students will learn basic principles of optics/mechanics as well as optical/mechanical design software at the beginning of the project before they start working on their own design work of the calibration system. This will provide the students an opportunity of working on one of world's most advanced instrument project in astronomy. For more information on this project, contact Prof. Dae-Sik Moon. |
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7- Resolving Brown Dwarf Binaries with KeckSince 2006, we have been monitoring a set of 20 brown dwarf binaries using the W.M. Keck Observatory laser guide star adaptive optics (LGS AO) system. The goal of this observing program is to constrain the fundamental properties of these fascinating substellar objects, including their masses, radii, and temperatures. Our unique data set relies on the ability of the LGS AO system to provide excellent spatial resolution on optically faint targets, see the animation on the right.We are looking for a student to participate in the analysis and interpretation of this extensive data set, with a particular focus on spatially resolved spectroscopy obtained with Keck's high resolution, near infrared spectrograph, NIRSPEC. The student will help derive temperatures and radii for these objects, which are essential parameters for understanding their formation and evolution. For more information on this project, contact Dr. Quinn Konopacky |
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Check back in the coming weeks for more projects |
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