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Changeset 39866


Ignore:
Timestamp:
Dec 14, 2016, 8:37:01 PM (10 years ago)
Author:
eugene
Message:

moving lib.bib and apj.bst to common location in inputs; fix bibtex to point there

Location:
trunk/doc/release.2015
Files:
3 edited
2 moved

Legend:

Unmodified
Added
Removed
  • trunk/doc/release.2015/Makefile.Common

    r37888 r39866  
    33PDFLATEX = env TEXINPUTS=.:..:inputs:../inputs:LaTeX:$(TEXINPUTS): pdflatex
    44PSLATEX  = env TEXINPUTS=.:..:inputs:../inputs:LaTeX:$(TEXINPUTS): latex
     5BIBTEX   = env BIBINPUTS=.:..:inputs:../inputs BSTINPUTS=.:..:inputs:../inputs bibtex
    56
    67PS2PDF_OPTS = "-dAutoFilterColorImages=false -dColorImageFilter=/FlateEncode"
     
    89%.pdf: %.tex
    910        $(PSLATEX) $*.tex
     11        $(BIBTEX) $*
    1012        $(PSLATEX) $*.tex
    1113#       thumbpdf --modes=dvips $*.pdf
  • trunk/doc/release.2015/ps1.analysis/analysis.tex

    r39865 r39866  
    8686\begin{abstract}
    8787
    88 Lorem ipsum dolor sit amet, consectetur adipiscing elit. Vestibulum
    89 bibendum nisi id tristique posuere. Duis eu mollis nulla. Maecenas est
    90 turpis, mattis tempor urna vitae, placerat rhoncus sem. Lorem ipsum
    91 dolor sit amet, consectetur adipiscing elit. Sed quis velit
    92 nisl. Aliquam erat volutpat. Cras lacinia, nisl tristique auctor
    93 molestie, dolor nulla rhoncus purus, ac accumsan nunc nunc ac
    94 nibh. Maecenas vitae mollis mauris. Ut sollicitudin pulvinar purus,
    95 eget luctus lorem tincidunt vitae. Vestibulum eu mattis neque. Nulla
    96 in tortor id urna dapibus gravida a vel leo.
    97 
     88Over 3 billion astronomical objects have been detected in the more
     89than 22 million orthogonal transfer CCD images obtained as part of the
     90Pan-STARRS\,1 $3\pi$ survey.  Over 85 billion instances of those
     91objects have been automatically detected and characterized by the
     92Pan-STARRS Image Processing Pipeline photometry software,
     93\code{psphot}.  This fast, automatic, and reliable software was
     94developed for the Pan-STARRS project, but is easily adaptable to
     95images from other telescopes.  We describe the analysis of the
     96astronomical objects by \code{psphot} in general as well as for the
     97specific case of the 3rd processing version used for the first public
     98release of the Pan-STARRS $3\pi$ survey data.
    9899\end{abstract}
    99100
     
    103104\section{INTRODUCTION}\label{sec:intro}
    104105
    105 The Pan-STARRS Image Processing Pipeline is responsible for the basic
    106 analysis of images from the Pan-STARRS telescopes Gigapixel Camera.
    107 The photometric and astrometric precision goals for the all-sky
    108 surveys, as well as the other survey components, are quite stringent:
    109 
    110 \begin{itemize}
    111 \item relative photometry: 10 millimagnitudes scatter for bright stars
    112 across the sky in the internal photometric system;
    113 
    114 \item relative astrometry; 10 milliarcseconds scatter for individual
    115 stars between repeated images.
    116 
    117 \item absolute astrometry: 100 milliarcseconds scatter for all ICRS
    118   reference stars (Tycho).
    119 \end{itemize}
    120 
    121 An additional constraint on the Pan-STARRS system comes from the high
    122 data rate.  PS1 produces typically $\sim 500$ exposures per night,
    123 corresponding to $\sim 750$ billion pixels of imaging data.  The
    124 images range from high galactic latitudes to the Galactic bulge, so
    125 large numbers of measurable stars can be expected in much of the data.
    126 The combination of the high precision goals of the astrometric and
    127 photometric measurements and the high data rate (and a finite
     106This is the fourth in a series of seven papers describing the
     107Pan-STARRS1 Surveys, the data reduction techiques and the resulting
     108data products.  This paper (Paper IV) describes the details of the
     109source detection and photometry, including point-spread-function and
     110extended source fitting models, and the techniques for ``forced''
     111photometry measurements.
     112
     113%Chambers et al. 2017 (Paper I)
     114%The Pan-STARRS\,1 Surveys
     115\citet[][Paper I]{chambers2017}
     116provides an overview of the Pan-STARRS System, the design and
     117execution of the Surveys, the resulting image and catalog data
     118products, a discussion of the overall data quality and basic
     119characteristics, and a brief summary of important results.
     120
     121%Magnier et al. 2017 (Paper II)
     122%Pan-STARRS Data Processing Stages
     123\citet[][Paper II]{magnier2017c}
     124describes how the various data processing stages are organised and implemented
     125in the Imaging Processing Pipeline (IPP), including details of the
     126the processing database which is a critical element in the IPP infrastructure .
     127
     128%Waters et al. 2017 (Paper III)
     129%Pan-STARRS Pixel Processing : Detrending, Warping, Stacking
     130\citet[][Paper III]{waters2017}
     131describes the details of the pixel processing algorithms, including detrending, warping, and adding (to create stacked images) and subtracting (to create difference images) and resulting image products and their properties.
     132
     133
     134%Magnier et al. 2017 (Paper IV)
     135%Pan-STARRS Pixel Analysis : Source Detection
     136%\citet[][Paper IV]{magnier2017a}
     137%describes the details of the source detection and photometry, including point-spread-function and extended source fitting models, and the techniques for ``forced" photometry measurements.
     138
     139%Magnier et al. 2017 (Paper V)
     140%Pan-STARRS Photometric and Astrometric Calibration
     141\citet[][Paper V]{magnier2017b}
     142describes the final calibration process, and the resulting photometric and astrometric quality. 
     143
     144
     145%Flewelling et al. 2017 (Paper VI)
     146%Pan-STARRS 1 Database and Data Products
     147\citet[][Paper VI]{flewelling2017}
     148describes  the details of the resulting catalog data and its organization in the Pan-STARRS database.
     149%
     150%
     151\citet[][Paper VII]{huber2017}
     152%Huber et al. 2017 (Paper VII)
     153describes the Medium Deep Survey in detail, including the unique issues and data products specific to that survey. The Medium Deep Survey is not part of Data Release 1. (DR1)
     154
     155%
     156The Pan-STARRS1 filters and photometric system have already been
     157described in detail in \cite{2012ApJ...750...99T}.
     158
     159The photometric and astrometric precision goals for the Pan-STARRS\,1
     160surveys were quite stringent: photmetric accuracy of 10
     161millimagnitudes, relative astrometric accuracy of 10 milliarcseconds
     162and absolute astrometric accuracy of 100 milliarcseconds with respect
     163to the ICRS reference stars.
     164
     165An additional constraint on the Pan-STARRS analysis system comes from
     166the high data rate.  PS1 produces typically $\sim 500$ exposures per
     167night, corresponding to $\sim 750$ billion pixels of imaging data.
     168The images range from high galactic latitudes to the Galactic bulge,
     169so large numbers of measurable stars can be expected in much of the
     170data.  The combination of the high precision goals of the astrometric
     171and photometric measurements and the high data rate (and a finite
    128172computing budget) mean that the process of detecting, classifying, and
    129173measuring the astronomical objects in the image data stream in a
     
    17151759\end{verbatim}
    17161760
     1761\bibliographystyle{apj}
     1762\bibliography{lib}{}
     1763
    17171764\end{document}
    17181765
  • trunk/doc/release.2015/ps1.detrend/Makefile

    r39860 r39866  
    11# $Id: Makefile,v 1.16 2006-01-16 01:11:40 eugene Exp $
    22PDFLATEX = env TEXINPUTS=.:..:inputs:./inputs:LaTeX:$(TEXINPUTS): pdflatex
     3BIBTEX   = env BIBINPUTS=.:..:inputs:../inputs BSTINPUTS=.:..:inputs:../inputs bibtex
     4
    35help:
    46        @echo "USAGE: make (target)"
     
    1517        rm -f detrend.aux detrend.bbl detrend.blg
    1618        $(PDFLATEX) $<
    17         bibtex detrend
     19        $(BIBTEX) detrend
    1820        $(PDFLATEX) $<
    1921        $(PDFLATEX) $<
     
    2426include ../Makefile.Common
    2527
     28FILES = \
     29../inputs/astro.sty \
     30../inputs/apj.bst \
     31../inputs/lib.bib \
     32detrend.tex \
     33detrend.bbl \
     34images/o5677g0123o_XY11_bt_trail.png \
     35images/o5677g0124o_XY11_bt_trail.png \
     36images/o5677g0123o_XY11_nobt.png \
     37images/o5677g0124o_XY11_nobt.png \
     38images/o5677g0123o_XY11_bt.png \
     39images/o5677g0124o_XY11_bt.png \
     40images/linearity_XY27_xy16.png \
     41images/o5677g0123o_M_OS_NL_XY23_b1.jpg \
     42images/o5677g0123o_to_DARK_XY23_b1.jpg \
     43images/B_profile_ex.png \
     44images/o5677g0123o_VIDEODARK_VDim_Rdark_XY22_b1.jpg \
     45images/o5677g0123o_VIDEODARK_VDim_VDdark_XY22_b1.jpg \
     46images/pattern_row_edit.png \
     47images/o5379g0103o_XY57_nopat.png \
     48images/o5379g0103o_XY57_pat.png \
     49images/o5220g0025o_XY53_nofringe.png \
     50images/o5220g0025o_XY53_fringe.png \
     51images/gpc1_mask_indexed.png \
     52images/full_fpa_ghosts.jpg \
     53images/glint_example_o5379g0103o.jpg \
     54images/o6802g0338o_XY51_b1.jpg \
     55images/warp_1046511_sci.jpg \
     56images/warp_1046511_mask.jpg \
     57images/warp_1046511_wt.jpg \
     58images/stack_3775944_sci.jpg \
     59images/stack_3775944_mask.jpg \
     60images/stack_3775944_wt.jpg \
     61images/stack_3775944_num.jpg \
     62images/stack_3775944_exp.jpg \
     63images/stack_3775944_expwt.jpg
     64
    2665submission :
    27         tar --transform 's%inputs/%%' -zcf waters2017.tgz detrend.tex detrend.bbl ../inputs/astro.sty images/o5677g0123o_XY11_bt_trail.png images/o5677g0124o_XY11_bt_trail.png images/o5677g0123o_XY11_nobt.png images/o5677g0124o_XY11_nobt.png images/o5677g0123o_XY11_bt.png images/o5677g0124o_XY11_bt.png images/linearity_XY27_xy16.png images/o5677g0123o_M_OS_NL_XY23_b1.jpg images/o5677g0123o_to_DARK_XY23_b1.jpg images/B_profile_ex.png images/o5677g0123o_VIDEODARK_VDim_Rdark_XY22_b1.jpg images/o5677g0123o_VIDEODARK_VDim_VDdark_XY22_b1.jpg images/pattern_row_edit.png images/o5379g0103o_XY57_nopat.png images/o5379g0103o_XY57_pat.png images/o5220g0025o_XY53_nofringe.png images/o5220g0025o_XY53_fringe.png images/gpc1_mask_indexed.png images/full_fpa_ghosts.jpg images/glint_example_o5379g0103o.jpg images/o6802g0338o_XY51_b1.jpg images/warp_1046511_sci.jpg images/warp_1046511_mask.jpg images/warp_1046511_wt.jpg images/stack_3775944_sci.jpg images/stack_3775944_mask.jpg images/stack_3775944_wt.jpg images/stack_3775944_num.jpg images/stack_3775944_exp.jpg images/stack_3775944_expwt.jpg
     66        tar --transform 's%inputs/%%' -zcf waters2017.tgz $(FILES)
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