Changeset 40304
- Timestamp:
- Dec 26, 2017, 3:50:42 AM (9 years ago)
- Location:
- trunk/doc/release.2015/systematics.20140411
- Files:
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- 3 added
- 2 edited
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Makefile (modified) (2 diffs)
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diffusion.tex (modified) (9 diffs)
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pics/radial_p1_r.ps (added)
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pics/radial_p2_r.ps (added)
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pics/radial_p3_r.ps (added)
Legend:
- Unmodified
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- Removed
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trunk/doc/release.2015/systematics.20140411/Makefile
r40299 r40304 4 4 # 5 5 DO_PDFLATEX = 1 6 DO_BIBTEX = 06 DO_BIBTEX = 1 7 7 8 8 help: … … 16 16 # if you have PDF pics, they may need to be converted to EPS 17 17 PDFPICS = \ 18 pics/dmag.pdf \ 19 pics/dapmag.pdf \ 20 pics/all_effects_r.pdf \ 21 pics/radial_p1_r.pdf \ 22 pics/radial_p2_r.pdf \ 23 pics/radial_p3_r.pdf 24 25 OLD_PDFPICS = \ 18 26 pics/all_effects_r.pdf \ 19 27 pics/astrom_trends.pdf \ -
trunk/doc/release.2015/systematics.20140411/diffusion.tex
r40303 r40304 15 15 % \RequirePackage{pbox} 16 16 \input{astro.sty} 17 18 %\newcommand\oldtext[1]{\color{red}#1} 19 %\newcommand\newtext[1]{\textbf{\color{blue}#1}} 20 21 \newcommand\oldtext[1]{\textbf{\color{lightgray}#1} 22 \newcommand\newtext[1]{\textbf{\color{blue}#1} 23 \newcommand\fixtext[1]{\textbf{\color{red}#1} 17 24 18 25 \usepackage[T1]{fontenc}% (2) specify encoding … … 414 421 illustrate the effects in detail, but a similar set of effects are 415 422 seen in many, if not all, of the GPC1 detectors with varying 416 strengths. First, we show the residual PSF photometry. Second, we423 strengths. \fixtext{First, we show the residual PSF photometry. Second, we 417 424 show the residual aperture photometry. Third, we show the astrometric 418 425 residual patterns. Fourth, we show the patterns observed in the 419 426 flat-field images. Finally, we show measurements derived from the 420 second-moments of the stars. 427 second-moments of the stars.} 421 428 422 429 For all effects discussed below, we are measuring the mean value of … … 509 516 \subsection{Astrometric Residuals} 510 517 511 % astrometry radial term512 \begin{figure*}[htbp]513 \begin{center}514 \parbox[b]{\figwidth}{\includegraphics[width=\figwidth]{\picdir/drad.\plotext}}515 \hspace{\jumpleft}516 \parbox[b]{\capwidth}{517 \caption{Astrometric residuals of the displacement in the radial518 direction, relative to the chip coordinate -5,4960 (upper left519 corner), by filter (\grizy). White boxes are GPC1 cells which have520 been masked due to poor response. Superpixels representing regions521 of $10\times10$ pixels are used to determine the median deviation522 for measurements at the given chip pixel location compared with the523 average astrometry for the given524 object. } \label{fig:astrom.by.filter}}525 \end{center}526 \end{figure*}518 %% % astrometry radial term 519 %% \begin{figure*}[htbp] 520 %% \begin{center} 521 %% \parbox[b]{\figwidth}{\includegraphics[width=\figwidth]{\picdir/drad.\plotext}} 522 %% \hspace{\jumpleft} 523 %% \parbox[b]{\capwidth}{ 524 %% \caption{Astrometric residuals of the displacement in the radial 525 %% direction, relative to the chip coordinate -5,4960 (upper left 526 %% corner), by filter (\grizy). White boxes are GPC1 cells which have 527 %% been masked due to poor response. Superpixels representing regions 528 %% of $10\times10$ pixels are used to determine the median deviation 529 %% for measurements at the given chip pixel location compared with the 530 %% average astrometry for the given 531 %% object. } \label{fig:astrom.by.filter}} 532 %% \end{center} 533 %% \end{figure*} 527 534 528 535 Figure~\ref{fig:astrom.by.filter} shows a similar type of measurement … … 557 564 558 565 % flat-field residual 559 \begin{figure*}[htbp]560 \begin{center}561 \parbox[b]{\figwidth}{\includegraphics[width=\figwidth]{\picdir/dflat.\plotext}}562 \hspace{\jumpleft}563 \parbox[b]{\capwidth}{564 \caption{Flat-field high-frequency structues, by filter (\grizy).565 White boxes are GPC1 cells which have been masked due to poor566 response. Flat-field images generated using a tunable laser have567 been combined (see text); a smoothed version has been subtracted to568 high-pass the response. Flat-field pixels are averaged for569 $10\times10$ superpixels. } \label{fig:flats.by.filter}}570 \end{center}571 \end{figure*}566 %% \begin{figure*}[htbp] 567 %% \begin{center} 568 %% \parbox[b]{\figwidth}{\includegraphics[width=\figwidth]{\picdir/dflat.\plotext}} 569 %% \hspace{\jumpleft} 570 %% \parbox[b]{\capwidth}{ 571 %% \caption{Flat-field high-frequency structues, by filter (\grizy). 572 %% White boxes are GPC1 cells which have been masked due to poor 573 %% response. Flat-field images generated using a tunable laser have 574 %% been combined (see text); a smoothed version has been subtracted to 575 %% high-pass the response. Flat-field pixels are averaged for 576 %% $10\times10$ superpixels. } \label{fig:flats.by.filter}} 577 %% \end{center} 578 %% \end{figure*} 572 579 573 580 % 2012ApJ...750...99T = Tonry et al PS1 phot system … … 621 628 622 629 % Smear Images 623 \begin{figure*}[htbp]624 \begin{center}625 \parbox[b]{\figwidth}{\includegraphics[width=\figwidth]{\picdir/smear.\plotext}}626 \hspace{\jumpleft}627 \parbox[b]{\capwidth}{628 \caption{Average residual smear variations, by filter (\grizy). White629 boxes are GPC1 cells which have been masked due to poor response.630 The residual smear ($\sigma^2_{\mbox{major}} + \sigma^2_{\mbox{minor}}$) has been631 determined after the after PSF second moments have been subtracted632 for each image; these values are averaged for each $10\times10$633 superpixels. } \label{fig:smear.by.filter}}634 \end{center}635 \end{figure*}630 %% \begin{figure*}[htbp] 631 %% \begin{center} 632 %% \parbox[b]{\figwidth}{\includegraphics[width=\figwidth]{\picdir/smear.\plotext}} 633 %% \hspace{\jumpleft} 634 %% \parbox[b]{\capwidth}{ 635 %% \caption{Average residual smear variations, by filter (\grizy). White 636 %% boxes are GPC1 cells which have been masked due to poor response. 637 %% The residual smear ($\sigma^2_{\mbox{major}} + \sigma^2_{\mbox{minor}}$) has been 638 %% determined after the after PSF second moments have been subtracted 639 %% for each image; these values are averaged for each $10\times10$ 640 %% superpixels. } \label{fig:smear.by.filter}} 641 %% \end{center} 642 %% \end{figure*} 636 643 637 644 % Shear Images 638 \begin{figure*}[htbp]639 \begin{center}640 \parbox[b]{\figwidth}{\includegraphics[width=\figwidth]{\picdir/shear.\plotext}}641 \hspace{\jumpleft}642 \parbox[b]{\capwidth}{643 \caption{Average residual shear variations, by filter (\grizy). White644 boxes are GPC1 cells which have been masked due to poor response.645 The residual shear ($\sigma^2_{\mbox{major}} - \sigma^2_{\mbox{minor}}$) has been646 determined after the after PSF second moments have been subtracted647 for each image; these values are averaged for each $10\times10$648 superpixels. } \label{fig:shear.by.filter}}649 \end{center}650 \end{figure*}645 %% \begin{figure*}[htbp] 646 %% \begin{center} 647 %% \parbox[b]{\figwidth}{\includegraphics[width=\figwidth]{\picdir/shear.\plotext}} 648 %% \hspace{\jumpleft} 649 %% \parbox[b]{\capwidth}{ 650 %% \caption{Average residual shear variations, by filter (\grizy). White 651 %% boxes are GPC1 cells which have been masked due to poor response. 652 %% The residual shear ($\sigma^2_{\mbox{major}} - \sigma^2_{\mbox{minor}}$) has been 653 %% determined after the after PSF second moments have been subtracted 654 %% for each image; these values are averaged for each $10\times10$ 655 %% superpixels. } \label{fig:shear.by.filter}} 656 %% \end{center} 657 %% \end{figure*} 651 658 652 659 During the image analysis, the second moments are measured for all … … 793 800 794 801 % smear trends by filter 795 \def\figwidth{6.5in}796 \begin{figure*}[htbp]797 \begin{center}798 \includegraphics[width=\figwidth]{\picdir/smear_trends.\plotext}799 \caption{Correlation of the smear ($\sigma^2_{\mbox{major}} +800 \sigma^2_{\mbox{minor}}$) signal in \gps\ with the other 4 bands:801 \rps\ (upper-left), \ips\ (upper-right), \zps\ (lower-left), \yps\ (lower-right).802 } \label{fig:smear.trends}803 \end{center}804 \end{figure*}802 %% \def\figwidth{6.5in} 803 %% \begin{figure*}[htbp] 804 %% \begin{center} 805 %% \includegraphics[width=\figwidth]{\picdir/smear_trends.\plotext} 806 %% \caption{Correlation of the smear ($\sigma^2_{\mbox{major}} + 807 %% \sigma^2_{\mbox{minor}}$) signal in \gps\ with the other 4 bands: 808 %% \rps\ (upper-left), \ips\ (upper-right), \zps\ (lower-left), \yps\ (lower-right). 809 %% } \label{fig:smear.trends} 810 %% \end{center} 811 %% \end{figure*} 805 812 806 813 % psfmag trends by filter 807 \def\figwidth{6.5in}808 \begin{figure*}[htbp]809 \begin{center}810 \includegraphics[width=\figwidth]{\picdir/psfmag_trends.\plotext}811 \caption{Correlation of the PSF magnitude residuals ($\delta m_{psf}$)812 in \gps\ with the other 4 bands: \rps\ (upper-left), \ips\813 (upper-right), \zps\ (lower-left), \yps\ (lower-right).814 } \label{fig:psfmag.trends}815 \end{center}816 \end{figure*}814 %% \def\figwidth{6.5in} 815 %% \begin{figure*}[htbp] 816 %% \begin{center} 817 %% \includegraphics[width=\figwidth]{\picdir/psfmag_trends.\plotext} 818 %% \caption{Correlation of the PSF magnitude residuals ($\delta m_{psf}$) 819 %% in \gps\ with the other 4 bands: \rps\ (upper-left), \ips\ 820 %% (upper-right), \zps\ (lower-left), \yps\ (lower-right). 821 %% } \label{fig:psfmag.trends} 822 %% \end{center} 823 %% \end{figure*} 817 824 818 825 % astrom trends by filter 819 \def\figwidth{6.5in}820 \begin{figure*}[htbp]821 \begin{center}822 \includegraphics[width=\figwidth]{\picdir/astrom_trends.\plotext}823 \caption{Correlation of the radial astrometric residual displacement ($\delta R$)824 in \gps\ with the other 4 bands: \rps\ (upper-left), \ips\825 (upper-right), \zps\ (lower-left), \yps\ (lower-right).826 } \label{fig:astrom.trends}827 \end{center}828 \end{figure*}826 %% \def\figwidth{6.5in} 827 %% \begin{figure*}[htbp] 828 %% \begin{center} 829 %% \includegraphics[width=\figwidth]{\picdir/astrom_trends.\plotext} 830 %% \caption{Correlation of the radial astrometric residual displacement ($\delta R$) 831 %% in \gps\ with the other 4 bands: \rps\ (upper-left), \ips\ 832 %% (upper-right), \zps\ (lower-left), \yps\ (lower-right). 833 %% } \label{fig:astrom.trends} 834 %% \end{center} 835 %% \end{figure*} 829 836 830 837 % flat trends by filter 831 \def\figwidth{6.5in}832 \begin{figure*}[htbp]833 \begin{center}834 \includegraphics[width=\figwidth]{\picdir/flat_trends.\plotext}835 \caption{Correlation of the flat-field tree-ring structures in \gps\836 with the other 4 bands: \rps\ (upper-left), \ips\ (upper-right), \zps\837 (lower-left), \yps\ (lower-right). } \label{fig:flat.trends}838 \end{center}839 \end{figure*}838 %% \def\figwidth{6.5in} 839 %% \begin{figure*}[htbp] 840 %% \begin{center} 841 %% \includegraphics[width=\figwidth]{\picdir/flat_trends.\plotext} 842 %% \caption{Correlation of the flat-field tree-ring structures in \gps\ 843 %% with the other 4 bands: \rps\ (upper-left), \ips\ (upper-right), \zps\ 844 %% (lower-left), \yps\ (lower-right). } \label{fig:flat.trends} 845 %% \end{center} 846 %% \end{figure*} 840 847 841 848 An important question is the relationship of the tree-ring … … 846 853 filter: the radial variations do not all follow the same patterns. 847 854 Instead, we find the following relationships hold: 855 856 % tangentially-averaged patterns vs radial position 857 \def\figwidth{6.5in} 858 \begin{figure*}[htbp] 859 \begin{center} 860 \includegraphics[width=\figwidth]{\picdir/radial_p1_r.\plotext} 861 \caption{Correlation of the PSF magnitude residuals ($\delta m_{PSF}$) 862 with the smear ($\sigma^2_{\mbox{major}} + \sigma^2_{\mbox{minor}}$) 863 signal for \gps\ (upper-left), \rps\ (upper-right), \ips\ (lower-left), 864 \zps\ (lower-right). 865 } \label{fig:smear.vs.psfmag} 866 \end{center} 867 \end{figure*} 868 869 % tangentially-averaged patterns vs radial position 870 \def\figwidth{6.5in} 871 \begin{figure*}[htbp] 872 \begin{center} 873 \includegraphics[width=\figwidth]{\picdir/radial_p2_r.\plotext} 874 \caption{Correlation of the PSF magnitude residuals ($\delta m_{PSF}$) 875 with the smear ($\sigma^2_{\mbox{major}} + \sigma^2_{\mbox{minor}}$) 876 signal for \gps\ (upper-left), \rps\ (upper-right), \ips\ (lower-left), 877 \zps\ (lower-right). 878 } \label{fig:smear.vs.psfmag} 879 \end{center} 880 \end{figure*} 881 882 % tangentially-averaged patterns vs radial position 883 \def\figwidth{6.5in} 884 \begin{figure*}[htbp] 885 \begin{center} 886 \includegraphics[width=\figwidth]{\picdir/radial_p3_r.\plotext} 887 \caption{Correlation of the PSF magnitude residuals ($\delta m_{PSF}$) 888 with the smear ($\sigma^2_{\mbox{major}} + \sigma^2_{\mbox{minor}}$) 889 signal for \gps\ (upper-left), \rps\ (upper-right), \ips\ (lower-left), 890 \zps\ (lower-right). 891 } \label{fig:smear.vs.psfmag} 892 \end{center} 893 \end{figure*} 848 894 849 895 First, the PSF magnitude residuals and the second-moment smear trends … … 893 939 894 940 % smear vs psfmag 895 \def\figwidth{6.5in}896 \begin{figure*}[htbp]897 \begin{center}898 \includegraphics[width=\figwidth]{\picdir/smear_vs_psfmag.\plotext}899 \caption{Correlation of the PSF magnitude residuals ($\delta m_{PSF}$)900 with the smear ($\sigma^2_{\mbox{major}} + \sigma^2_{\mbox{minor}}$)901 signal for \gps\ (upper-left), \rps\ (upper-right), \ips\ (lower-left),902 \zps\ (lower-right).903 } \label{fig:smear.vs.psfmag}904 \end{center}905 \end{figure*}941 %% \def\figwidth{6.5in} 942 %% \begin{figure*}[htbp] 943 %% \begin{center} 944 %% \includegraphics[width=\figwidth]{\picdir/smear_vs_psfmag.\plotext} 945 %% \caption{Correlation of the PSF magnitude residuals ($\delta m_{PSF}$) 946 %% with the smear ($\sigma^2_{\mbox{major}} + \sigma^2_{\mbox{minor}}$) 947 %% signal for \gps\ (upper-left), \rps\ (upper-right), \ips\ (lower-left), 948 %% \zps\ (lower-right). 949 %% } \label{fig:smear.vs.psfmag} 950 %% \end{center} 951 %% \end{figure*} 906 952 907 953 % dsmear vs astrom 908 \def\figwidth{6.5in}909 \begin{figure*}[htbp]910 \begin{center}911 \includegraphics[width=\figwidth]{\picdir/dsmear_vs_astrom.\plotext}912 \caption{913 Correlation of the radial astrometric residual displacement ($\delta914 R$) with the derivative of the smear ($\partial915 \sigma^2_{\mbox{major}} + \sigma^2_{\mbox{minor}}$) signal with916 respect to the radial postion for \gps\ (upper-left), \rps\917 (upper-right), \ips\ (lower-left), \zps\ (lower-right).918 } \label{fig:dsmear.vs.astrom}919 \end{center}920 \end{figure*}954 %% \def\figwidth{6.5in} 955 %% \begin{figure*}[htbp] 956 %% \begin{center} 957 %% \includegraphics[width=\figwidth]{\picdir/dsmear_vs_astrom.\plotext} 958 %% \caption{ 959 %% Correlation of the radial astrometric residual displacement ($\delta 960 %% R$) with the derivative of the smear ($\partial 961 %% \sigma^2_{\mbox{major}} + \sigma^2_{\mbox{minor}}$) signal with 962 %% respect to the radial postion for \gps\ (upper-left), \rps\ 963 %% (upper-right), \ips\ (lower-left), \zps\ (lower-right). 964 %% } \label{fig:dsmear.vs.astrom} 965 %% \end{center} 966 %% \end{figure*} 921 967 922 968 % dastrom vs flat 923 \def\figwidth{6.5in}924 \begin{figure*}[htbp]925 \begin{center}926 \includegraphics[width=\figwidth]{\picdir/dastrom_vs_flat.\plotext}927 \caption{928 Correlation of the derivative of the radial astrometric residual929 displacement ($\delta R$) with respect to the radial position with the930 flat-field tree-ring signal for \gps\ (upper-left), \rps\ (upper-right),931 \ips\ (lower-left), \zps\ (lower-right).932 } \label{fig:dastrom.vs.flat}933 \end{center}934 \end{figure*}969 %% \def\figwidth{6.5in} 970 %% \begin{figure*}[htbp] 971 %% \begin{center} 972 %% \includegraphics[width=\figwidth]{\picdir/dastrom_vs_flat.\plotext} 973 %% \caption{ 974 %% Correlation of the derivative of the radial astrometric residual 975 %% displacement ($\delta R$) with respect to the radial position with the 976 %% flat-field tree-ring signal for \gps\ (upper-left), \rps\ (upper-right), 977 %% \ips\ (lower-left), \zps\ (lower-right). 978 %% } \label{fig:dastrom.vs.flat} 979 %% \end{center} 980 %% \end{figure*} 935 981 936 982 \section{Discussion} … … 1166 1212 1167 1213 \bibliographystyle{apj} 1168 %\bibliography{lib}{}1169 \input{diffusion.bbl}1214 \bibliography{lib}{} 1215 %\input{diffusion.bbl} 1170 1216 1171 1217 \end{document}
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