Line data Source code
1 : /******************************************************************************* 2 : * ALMA - Atacama Large Millimiter Array 3 : * (c) Instituto de Estructura de la Materia, 2009 4 : * 5 : * This library is free software; you can redistribute it and/or 6 : * modify it under the terms of the GNU Lesser General Public 7 : * License as published by the Free Software Foundation; either 8 : * version 2.1 of the License, or (at your option) any later version. 9 : * 10 : * This library is distributed in the hope that it will be useful, 11 : * but WITHOUT ANY WARRANTY; without even the implied warranty of 12 : * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU 13 : * Lesser General Public License for more details. 14 : * 15 : * You should have received a copy of the GNU Lesser General Public 16 : * License along with this library; if not, write to the Free Software 17 : * Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA 18 : * 19 : * "@(#) $Id: ATMWaterVaporRadiometer.cpp Exp $" 20 : * 21 : * who when what 22 : * -------- -------- ---------------------------------------------- 23 : * pardo 24/03/09 created 24 : */ 25 : 26 : #include "ATMWaterVaporRadiometer.h" 27 : 28 : #include <vector> 29 : #include <string> 30 : #include <stdio.h> 31 : #include <iostream> 32 : 33 : 34 : 35 : ATM_NAMESPACE_BEGIN 36 : 37 0 : WaterVaporRadiometer::WaterVaporRadiometer(const std::vector<unsigned int> &IdChannels) 38 : { 39 : 40 0 : spilloverTemperature_ = Temperature(-999.0, Temperature::UnitKelvin); 41 0 : IdChannels_ = IdChannels; 42 : 43 0 : Percent sg(50, Percent::UnitPercent); // IF DOUBLE SIDE BAND, Default Sideband Gain is 50% 44 : 45 0 : for(unsigned int i = 0; i < IdChannels.size(); i++) { 46 : 47 0 : skyCoupling_.push_back(1.0); 48 0 : signalGain_.push_back(sg); 49 : 50 : } 51 : 52 0 : } 53 : 54 0 : WaterVaporRadiometer::WaterVaporRadiometer(const std::vector<unsigned int> &IdChannels, 55 0 : const std::vector<double> &skyCoupling) 56 : { 57 : 58 0 : spilloverTemperature_ = Temperature(-999.0, Temperature::UnitKelvin); 59 0 : IdChannels_ = IdChannels; 60 : 61 : /* if(IdChannels.size()!=skyCoupling.size()){throw Error();} */ 62 : 63 0 : if(IdChannels.size() < skyCoupling.size()) { 64 0 : for(unsigned int i = 0; i < IdChannels.size(); i++) { 65 0 : skyCoupling_.push_back(skyCoupling[i]); 66 : } 67 : } else { 68 0 : if(IdChannels.size() == skyCoupling.size()) { 69 0 : skyCoupling_ = skyCoupling; 70 : } else { 71 0 : for(unsigned int i = 0; i < skyCoupling.size(); i++) { 72 0 : skyCoupling_.push_back(skyCoupling[i]); 73 : } 74 0 : for(unsigned int i = skyCoupling.size(); i < IdChannels.size(); i++) { 75 0 : skyCoupling_.push_back(skyCoupling[skyCoupling.size() - 1]); 76 : } 77 : } 78 : } 79 : 80 0 : } 81 : 82 0 : WaterVaporRadiometer::WaterVaporRadiometer(const std::vector<unsigned int> &IdChannels, 83 0 : const std::vector<Percent> &signalGain) 84 : { 85 : 86 0 : spilloverTemperature_ = Temperature(-999.0, Temperature::UnitKelvin); 87 0 : IdChannels_ = IdChannels; 88 : 89 0 : if(IdChannels.size() < signalGain.size()) { 90 0 : for(unsigned int i = 0; i < IdChannels.size(); i++) { 91 0 : signalGain_.push_back(signalGain[i]); 92 : } 93 : } else { 94 0 : if(IdChannels.size() == signalGain.size()) { 95 0 : signalGain_ = signalGain; 96 : } else { 97 0 : for(unsigned int i = 0; i < signalGain.size(); i++) { 98 0 : signalGain_.push_back(signalGain[i]); 99 : } 100 0 : for(unsigned int i = signalGain.size(); i < IdChannels.size(); i++) { 101 0 : signalGain_.push_back(signalGain[signalGain.size() - 1]); 102 : } 103 : } 104 : } 105 : 106 0 : } 107 : 108 0 : WaterVaporRadiometer::WaterVaporRadiometer(const std::vector<unsigned int> &IdChannels, 109 : const std::vector<double> &skyCoupling, 110 0 : const std::vector<Percent> &signalGain) 111 : { 112 : 113 0 : spilloverTemperature_ = Temperature(-999.0, Temperature::UnitKelvin); 114 0 : IdChannels_ = IdChannels; 115 : 116 0 : if(IdChannels.size() < skyCoupling.size()) { 117 0 : for(unsigned int i = 0; i < IdChannels.size(); i++) { 118 0 : skyCoupling_.push_back(skyCoupling[i]); 119 : } 120 : } else { 121 0 : if(IdChannels.size() == skyCoupling.size()) { 122 0 : skyCoupling_ = skyCoupling; 123 : } else { 124 0 : for(unsigned int i = 0; i < skyCoupling.size(); i++) { 125 0 : skyCoupling_.push_back(skyCoupling[i]); 126 : } 127 0 : for(unsigned int i = skyCoupling.size(); i < IdChannels.size(); i++) { 128 0 : skyCoupling_.push_back(skyCoupling[skyCoupling.size() - 1]); 129 : } 130 : } 131 : } 132 : 133 0 : if(IdChannels.size() < signalGain.size()) { 134 0 : for(unsigned int i = 0; i < IdChannels.size(); i++) { 135 0 : signalGain_.push_back(signalGain[i]); 136 : } 137 : } else { 138 0 : if(IdChannels.size() == signalGain.size()) { 139 0 : signalGain_ = signalGain; 140 : } else { 141 0 : for(unsigned int i = 0; i < signalGain.size(); i++) { 142 0 : signalGain_.push_back(signalGain[i]); 143 : } 144 0 : for(unsigned int i = signalGain.size(); i < IdChannels.size(); i++) { 145 0 : signalGain_.push_back(signalGain[signalGain.size() - 1]); 146 : } 147 : } 148 : } 149 : 150 0 : } 151 : 152 0 : WaterVaporRadiometer::WaterVaporRadiometer(const std::vector<unsigned int> &IdChannels, 153 0 : const Temperature &spilloverTemperature) 154 : { 155 : 156 0 : spilloverTemperature_ = spilloverTemperature; 157 0 : IdChannels_ = IdChannels; 158 : 159 0 : Percent sg(50, Percent::UnitPercent); // IF DOUBLE SIDE BAND, Default Sideband Gain is 50% 160 : 161 0 : for(unsigned int i = 0; i < IdChannels.size(); i++) { 162 : 163 0 : skyCoupling_.push_back(1.0); 164 0 : signalGain_.push_back(sg); 165 : 166 : } 167 : 168 0 : } 169 : 170 0 : WaterVaporRadiometer::WaterVaporRadiometer(const std::vector<unsigned int> &IdChannels, 171 : const std::vector<double> &skyCoupling, 172 0 : const Temperature &spilloverTemperature) 173 : { 174 : 175 0 : spilloverTemperature_ = spilloverTemperature; 176 0 : IdChannels_ = IdChannels; 177 : 178 0 : if(IdChannels.size() < skyCoupling.size()) { 179 0 : for(unsigned int i = 0; i < IdChannels.size(); i++) { 180 0 : skyCoupling_.push_back(skyCoupling[i]); 181 : } 182 : } else { 183 0 : if(IdChannels.size() == skyCoupling.size()) { 184 0 : skyCoupling_ = skyCoupling; 185 : } else { 186 0 : for(unsigned int i = 0; i < skyCoupling.size(); i++) { 187 0 : skyCoupling_.push_back(skyCoupling[i]); 188 : } 189 0 : for(unsigned int i = skyCoupling.size(); i < IdChannels.size(); i++) { 190 0 : skyCoupling_.push_back(skyCoupling[skyCoupling.size() - 1]); 191 : } 192 : } 193 : } 194 : 195 0 : } 196 : 197 0 : WaterVaporRadiometer::WaterVaporRadiometer(const std::vector<unsigned int> &IdChannels, 198 : const std::vector<Percent> &signalGain, 199 0 : const Temperature &spilloverTemperature) 200 : { 201 : 202 0 : spilloverTemperature_ = spilloverTemperature; 203 0 : IdChannels_ = IdChannels; 204 : 205 0 : if(IdChannels.size() < signalGain.size()) { 206 0 : for(unsigned int i = 0; i < IdChannels.size(); i++) { 207 0 : signalGain_.push_back(signalGain[i]); 208 : } 209 : } else { 210 0 : if(IdChannels.size() == signalGain.size()) { 211 0 : signalGain_ = signalGain; 212 : } else { 213 0 : for(unsigned int i = 0; i < signalGain.size(); i++) { 214 0 : signalGain_.push_back(signalGain[i]); 215 : } 216 0 : for(unsigned int i = signalGain.size(); i < IdChannels.size(); i++) { 217 0 : signalGain_.push_back(signalGain[signalGain.size() - 1]); 218 : } 219 : } 220 : } 221 : 222 0 : } 223 : 224 0 : WaterVaporRadiometer::WaterVaporRadiometer(const std::vector<unsigned int> &IdChannels, 225 : const std::vector<double> &skyCoupling, 226 : const std::vector<Percent> &signalGain, 227 0 : const Temperature &spilloverTemperature) 228 : { 229 : 230 0 : spilloverTemperature_ = spilloverTemperature; 231 0 : IdChannels_ = IdChannels; 232 : 233 0 : if(IdChannels.size() < skyCoupling.size()) { 234 0 : for(unsigned int i = 0; i < IdChannels.size(); i++) { 235 0 : skyCoupling_.push_back(skyCoupling[i]); 236 : } 237 : } else { 238 0 : if(IdChannels.size() == skyCoupling.size()) { 239 0 : skyCoupling_ = skyCoupling; 240 : } else { 241 0 : for(unsigned int i = 0; i < skyCoupling.size(); i++) { 242 0 : skyCoupling_.push_back(skyCoupling[i]); 243 : } 244 0 : for(unsigned int i = skyCoupling.size(); i < IdChannels.size(); i++) { 245 0 : skyCoupling_.push_back(skyCoupling[skyCoupling.size() - 1]); 246 : } 247 : } 248 : } 249 : 250 0 : if(IdChannels.size() < signalGain.size()) { 251 0 : for(unsigned int i = 0; i < IdChannels.size(); i++) { 252 0 : signalGain_.push_back(signalGain[i]); 253 : } 254 : } else { 255 0 : if(IdChannels.size() == signalGain.size()) { 256 0 : signalGain_ = signalGain; 257 : } else { 258 0 : for(unsigned int i = 0; i < signalGain.size(); i++) { 259 0 : signalGain_.push_back(signalGain[i]); 260 : } 261 0 : for(unsigned int i = signalGain.size(); i < IdChannels.size(); i++) { 262 0 : signalGain_.push_back(signalGain[signalGain.size() - 1]); 263 : } 264 : } 265 : } 266 : 267 0 : } 268 : 269 3 : WaterVaporRadiometer::~WaterVaporRadiometer() 270 : { 271 3 : } 272 : 273 : ATM_NAMESPACE_END