Changeset 40078
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- Jul 5, 2017, 5:19:23 PM (9 years ago)
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trunk/doc/release.2015/ps1.analysis/test.tex (modified) (3 diffs)
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trunk/doc/release.2015/ps1.analysis/test.tex
r40070 r40078 1 1 \documentclass[iop,floatfix]{emulateapj} 2 %\documentclass[preprint2]{aastex} 2 3 \RequirePackage{color} % this is required for {code} 3 4 \RequirePackage{code} 4 5 \input{astro.sty} 5 6 \usepackage[T1]{fontenc}% (2) specify encoding7 6 8 7 % Pick a terse version of the title here; … … 42 41 Big test here. 43 42 44 Testing \code{code_foo}. 45 46 Testing \IPPstage{chip stage_test}. 47 48 Testing \IPPdbtable{rawImage_test}. 49 50 Testing \IPPdbcolumn{rawImage.datetime_test}. 51 43 Testing \code{\code_foo}. 44 45 Testing \IPPstage{\IPPstage : chip stage_test}. 46 47 Testing \IPPdbtable{\IPPdbtable : rawImage_test}. 48 49 Testing \IPPdbcolumn{\IPPdbcolumn : rawImage.datetime_test}. 50 51 <<<<<<< .mine 52 Testing \IPPmisc{\IPPmisc : another_check}. 53 ======= 52 54 Testing \IPPprog{pantasks_client}. 53 55 … … 67 69 68 70 % Testing \url{http://by.source} 69 70 % Testing \foocode{http://eugene@ifa.source} 71 >>>>>>> .r40075 72 73 Testing \url{http://by.source} 74 75 Testing \url{http://eugene@ifa.source} 71 76 72 77 \section{FOOBAR}\label{sec:intro} 73 78 79 74 80 % Testing \foocode{AM_I_GOOD} 75 81 82 Over 3 billion astronomical sources have been detected in the more 83 than 22 million orthogonal transfer CCD images obtained as part of the 84 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 85 sources have been automatically detected and characterized by the 86 Pan-STARRS Image Processing Pipeline photometry software, 87 \code{psphot}. This fast, automatic, and reliable software was 88 developed for the Pan-STARRS project, but is easily adaptable to 89 images from other telescopes. We describe the analysis of the 90 astronomical sources by \code{psphot} in general as well as for the 91 specific case of the 3rd processing version used for the first public 92 release of the Pan-STARRS $3\pi$ survey data. 93 94 Over 3 billion astronomical sources have been detected in the more 95 than 22 million orthogonal transfer CCD images obtained as part of the 96 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 97 sources have been automatically detected and characterized by the 98 Pan-STARRS Image Processing Pipeline photometry software, 99 \code{psphot}. This fast, automatic, and reliable software was 100 developed for the Pan-STARRS project, but is easily adaptable to 101 images from other telescopes. We describe the analysis of the 102 astronomical sources by \code{psphot} in general as well as for the 103 specific case of the 3rd processing version used for the first public 104 release of the Pan-STARRS $3\pi$ survey data. 105 106 read \cite[][Paper I]{chambers2017} today. 107 108 Over 3 billion astronomical sources have been detected in the more 109 than 22 million orthogonal transfer CCD images obtained as part of the 110 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 111 sources have been automatically detected and characterized by the 112 Pan-STARRS Image Processing Pipeline photometry software, 113 \code{psphot}. This fast, automatic, and reliable software was 114 developed for the Pan-STARRS project, but is easily adaptable to 115 images from other telescopes. We describe the analysis of the 116 astronomical sources by \code{psphot} in general as well as for the 117 specific case of the 3rd processing version used for the first public 118 release of the Pan-STARRS $3\pi$ survey data. 119 120 Over 3 billion astronomical sources have been detected in the more 121 than 22 million orthogonal transfer CCD images obtained as part of the 122 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 123 sources have been automatically detected and characterized by the 124 Pan-STARRS Image Processing Pipeline photometry software, 125 \code{psphot}. This fast, automatic, and reliable software was 126 developed for the Pan-STARRS project, but is easily adaptable to 127 images from other telescopes. We describe the analysis of the 128 astronomical sources by \code{psphot} in general as well as for the 129 specific case of the 3rd processing version used for the first public 130 release of the Pan-STARRS $3\pi$ survey data. 131 132 Over 3 billion astronomical sources have been detected in the more 133 than 22 million orthogonal transfer CCD images obtained as part of the 134 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 135 sources have been automatically detected and characterized by the 136 Pan-STARRS Image Processing Pipeline photometry software, 137 \code{psphot}. This fast, automatic, and reliable software was 138 developed for the Pan-STARRS project, but is easily adaptable to 139 images from other telescopes. We describe the analysis of the 140 astronomical sources by \code{psphot} in general as well as for the 141 specific case of the 3rd processing version used for the first public 142 release of the Pan-STARRS $3\pi$ survey data. 143 144 Over 3 billion astronomical sources have been detected in the more 145 than 22 million orthogonal transfer CCD images obtained as part of the 146 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 147 sources have been automatically detected and characterized by the 148 Pan-STARRS Image Processing Pipeline photometry software, 149 \code{psphot}. This fast, automatic, and reliable software was 150 developed for the Pan-STARRS project, but is easily adaptable to 151 images from other telescopes. We describe the analysis of the 152 astronomical sources by \code{psphot} in general as well as for the 153 specific case of the 3rd processing version used for the first public 154 release of the Pan-STARRS $3\pi$ survey data. 155 156 Over 3 billion astronomical sources have been detected in the more 157 than 22 million orthogonal transfer CCD images obtained as part of the 158 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 159 sources have been automatically detected and characterized by the 160 Pan-STARRS Image Processing Pipeline photometry software, 161 \code{psphot}. This fast, automatic, and reliable software was 162 developed for the Pan-STARRS project, but is easily adaptable to 163 images from other telescopes. We describe the analysis of the 164 astronomical sources by \code{psphot} in general as well as for the 165 specific case of the 3rd processing version used for the first public 166 release of the Pan-STARRS $3\pi$ survey data. 167 168 Over 3 billion astronomical sources have been detected in the more 169 than 22 million orthogonal transfer CCD images obtained as part of the 170 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 171 sources have been automatically detected and characterized by the 172 Pan-STARRS Image Processing Pipeline photometry software, 173 \code{psphot}. This fast, automatic, and reliable software was 174 developed for the Pan-STARRS project, but is easily adaptable to 175 images from other telescopes. We describe the analysis of the 176 astronomical sources by \code{psphot} in general as well as for the 177 specific case of the 3rd processing version used for the first public 178 release of the Pan-STARRS $3\pi$ survey data. 179 180 Over 3 billion astronomical sources have been detected in the more 181 than 22 million orthogonal transfer CCD images obtained as part of the 182 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 183 sources have been automatically detected and characterized by the 184 Pan-STARRS Image Processing Pipeline photometry software, 185 \code{psphot}. This fast, automatic, and reliable software was 186 developed for the Pan-STARRS project, but is easily adaptable to 187 images from other telescopes. We describe the analysis of the 188 astronomical sources by \code{psphot} in general as well as for the 189 specific case of the 3rd processing version used for the first public 190 release of the Pan-STARRS $3\pi$ survey data. 191 192 Over 3 billion astronomical sources have been detected in the more 193 than 22 million orthogonal transfer CCD images obtained as part of the 194 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 195 sources have been automatically detected and characterized by the 196 Pan-STARRS Image Processing Pipeline photometry software, 197 \code{psphot}. This fast, automatic, and reliable software was 198 developed for the Pan-STARRS project, but is easily adaptable to 199 images from other telescopes. We describe the analysis of the 200 astronomical sources by \code{psphot} in general as well as for the 201 specific case of the 3rd processing version used for the first public 202 release of the Pan-STARRS $3\pi$ survey data. 203 204 Over 3 billion astronomical sources have been detected in the more 205 than 22 million orthogonal transfer CCD images obtained as part of the 206 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 207 sources have been automatically detected and characterized by the 208 Pan-STARRS Image Processing Pipeline photometry software, 209 \code{psphot}. This fast, automatic, and reliable software was 210 developed for the Pan-STARRS project, but is easily adaptable to 211 images from other telescopes. We describe the analysis of the 212 astronomical sources by \code{psphot} in general as well as for the 213 specific case of the 3rd processing version used for the first public 214 release of the Pan-STARRS $3\pi$ survey data. 215 216 Over 3 billion astronomical sources have been detected in the more 217 than 22 million orthogonal transfer CCD images obtained as part of the 218 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 219 sources have been automatically detected and characterized by the 220 Pan-STARRS Image Processing Pipeline photometry software, 221 \code{psphot}. This fast, automatic, and reliable software was 222 developed for the Pan-STARRS project, but is easily adaptable to 223 images from other telescopes. We describe the analysis of the 224 astronomical sources by \code{psphot} in general as well as for the 225 specific case of the 3rd processing version used for the first public 226 release of the Pan-STARRS $3\pi$ survey data. 227 228 Over 3 billion astronomical sources have been detected in the more 229 than 22 million orthogonal transfer CCD images obtained as part of the 230 Pan-STARRS\,1 $3\pi$ survey. Over 85 billion instances of those 231 sources have been automatically detected and characterized by the 232 Pan-STARRS Image Processing Pipeline photometry software, 233 \code{psphot}. This fast, automatic, and reliable software was 234 developed for the Pan-STARRS project, but is easily adaptable to 235 images from other telescopes. We describe the analysis of the 236 astronomical sources by \code{psphot} in general as well as for the 237 specific case of the 3rd processing version used for the first public 238 release of the Pan-STARRS $3\pi$ survey data. 239 240 \bibliographystyle{apj} 241 \bibliography{lib}{} 242 76 243 \end{document}
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