DRM Update Joe Liske

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Transcription:

DRM Update Joe Liske

ETC Update Bug fix in spectroscopic mode: ETC used to calculate S/N per spectral pixel, not per resolution element. Correction and clarification of ETC document. In progress: update of AO tables to coincide with latest PSFs as used by the DRM. In progress (as part of DRM effort): work on background model, option to include height/temperature of site.

AO Update AO group supplies simulated PSFs as a function of: Type of AO Band Seeing FoV Position within FoV but for a fixed telescope (diamater, no of actuators,...) Two problems: Short integrations (4 s) --> Does not account for longer scale variation of atmosphere Short integrations (4 s) --> Speckle noise Solutions: Use measured 'atmosphere time series' to build weighted averages of individual PSFs Fitting of final PSFs and/or multiple realisations of individual PSFs

AO Update AO group supplies simulated PSFs as a function of: Type of AO: GLAO, LTAO, MCAO Band: I,J,H,K Seeing (see below) FoV Position within FoV but for a fixed telescope (diamater, no of actuators,...) Two problems: Short integrations (4 s) --> Does not account for longer scale variation of atmosphere Short integrations (4 s) --> Speckle noise Solutions: Use measured 'atmosphere time series' to build weighted averages of individual PSFs Fitting of final PSFs and/or multiple realisations of individual PSFs

AO Update Improved LTAO performance:

AO Update Preliminary results: In K: sky coverage towards galactic pole ~ 55% for a Strehl loss of 25% In H: 40% In J: 25%

AO Update Improved MCAO performance:

AO Update Preliminary results: In K: sky coverage towards galactic pole ~ 75% for a Strehl loss of 25% In H: 45% In J: 20%

AO Update AO group supplies simulated PSFs as a function of: Type of AO: GLAO, LTAO, MCAO Band: I,J,H,K Seeing (see below) FoV Position within FoV but for a fixed telescope (diamater, no of actuators,...) Two problems: Short integrations (4 s) --> Does not account for longer scale variation of atmosphere Short integrations (4 s) --> Speckle noise Solutions: Use measured 'atmosphere time series' to build weighted averages of individual PSFs Fitting of final PSFs and/or multiple realisations of individual PSFs

AO Update GLAO is very sensitive to: 2 C n profile 3 /5 Seeing = /r0, where r 0 = [0.423 k sec z C n h dh] 2 2 We have a (small) database of time-series of profiles from Paranal. How do we convert this to a small number of representative cases? How should these be defined (and labelled)? 'Good', i.e. 20% best (but in what sense)? 'Median' 'Bad' Operational issue: in an AO world, how do we quantify the quality of the atmospheric conditions? ETC Proposal (Phase I) Constraint set (Phase II) On the mountain

AO Update eltpsffit: New, interactive/ automated PSF fitting tool to generate 2D fits.

V = 29 28 27 26 mag/arcsec2

V = 21 20 19 18 mag/arcsec2

Dumb aperture photometry...

PSF photometry StarFinder (Diolaiti et al. 2000): Interactive Can determine PSF from image Iterative procedure:

Created automated version of StarFinder construction of 'pipeline': Catalogue Stellar population Measured CMD Catalogue

Photometry of uncrowded fields:

Photometry of uncrowded fields, 10h integration:

Photometry of uncrowded fields, 10h integration:

Photometry of uncrowded fields, 10h integration:

K H J I

Photometry of crowded fields, 10h integration:

K-band:

I-band:

Sort out details and loose ends. Systematically characterize the deterioration of mag limit as a function of crowding (i.e. surface brightness). Need to define a science metric! Detailed investigation of trade-offs between bands.... between survey area and crowding. Investigate dependence on SFH. tbc...