MainWindow 0 0 1142 965 MainWindow 0 0 550 800 550 1000 true 0 0 612 970 0 970 16777215 1000 0 0 600 0 16777215 16777215 Qt::LeftToRight 0 true false 0 0 940 940 16777215 940 Load false 0 0 480 125 480 16777215 Input parameters Stacks <html><head/><body>Set the stacks that you would like processed.This must be a valid set of numpy array indices. Remember that Python uses non end-inclusive indexing. So things like [1:24] will include stacks 1-23Furthermore [1:8,12:24] will include stacks 1-7 and 12:23. Any list of valid indices will be accepted, but they must be comma seperated. </body></html> required Dead time [ms] <html><head/><body>This is the instrument dead time that is used. You may remove additonal or less dead time as an option. By default Akvo uses the recommended instrument dead times.</body></html> 0.500000000000000 0.500000000000000 5.000000000000000 Data Chs. <html><head/><body>Set the data channels that you would like processed.This must be a valid set of numpy array indices. Remember that Python uses non end-inclusive indexing. So things like [1:3] will use channels 1 and 2Any list of valid indices will be accepted, but they must be comma seperated. </body></html> required Reference Chs. <html><head/><body>Set the reference channels that you would like processed.This must be a valid set of numpy array indices. Remember that Python uses non end-inclusive indexing. So things like [1:3] will use channels 1 and 2Any list of valid indices will be accepted, but they must be comma seperated. Optionally no reference channels are allowed, just leave this field black so it says none</body></html> none Process FID <html><head/><body>For T1 or CPMG pulses, which pulse(s) would you like to process. Note that for very short delay T1 pulses, the first pulse may be disabled. </body></html> false Plot RAW true false #loadDataPushButton { background: green; } #loadDataPushButton:disabled { background: black; } Load Data false 0 0 480 90 480 16777215 Downsample and truncate (anti-alias) true Truncate [ms] <html><head/><body>Set the final length of your processed record. Note that the use of Adaptive filtering allows for the removal of additional late times. If you do not wish to truncate, leave as 0.</body></html> 1000 0 Downsample factor 1 5 5 #downSampleGO { background: green; } #downSampleGO:disabled{ background: black; } GO false 0 90 480 16777215 FD Window Filter true Type Hamming Hanning Flat top Rectangular dead time [ms] Width [Hz] 1 1000.000000000000000 600.000000000000000 0 0 #lcdWinDead { color: green; background: black; } #lcdWinDead:disabled { color: grey; background: dark grey; } QLCDNumber::Flat design Central freq from IIR Band-Pass #windowFilterGO { background: green; } #windowFilterGO:disabled{ background: black; } GO false 0 0 480 180 IIR Band-Pass Filter true false design gstop [dB] 0 0 #lcdNumberFTauDead { color: green; background: black; } #lcdNumberFTauDead:disabled { color: grey; background: dark grey; } QLCDNumber::Flat false Plot true true 0 0 true Hello Butterworth Chebychev Type II Elliptic 0 0 #lcdNumberFilterOrder { color: green; background: black; } #lcdNumberFilterOrder:disabled { color: grey; background: dark grey; } QLCDNumber::Flat 3 1.000000000000000 0.010000000000000 0.010000000000000 #bandPassGO { background: green; } #bandPassGO:disabled{ background: black; } GO <html><head/><body>In case of off-resonant transmitter pulse, you can set the central frequency that will be used for all processing. This has the biggest impact on the band-pass filter, and the frequencies used in inversion. </body></html> 0 100.000000000000000 5001.000000000000000 1.000000000000000 1000.000000000000000 dead time [ms] Stop Band [Hz] Type Central ν Hz 5.000000000000000 100.000000000000000 1000.000000000000000 280.000000000000000 25.000000000000000 500.000000000000000 5.000000000000000 50.000000000000000 gpass [dB] Order Pass Band [Hz] false 480 16777215 Combine (sum) data channels true <html><head/><body>For some types of multichannel data, the channels can be summed into composite channels. This method sums all channels down to a recursion level of 2. For single loop datasets do not use this method. </body></html> #sumDataGO { background: green; } #sumDataGO:disabled{ background: black; } GO NC false 10 50 480 83 FD (static transfer function) Noise cancellation true 370 50 99 23 #adaptFDGO { background: green; } #adaptFDGO:disabled{ background: black; } GO 20 30 271 16 Utilizes a window filter (as defined above) 20 50 281 16 Uses central v from Band-pass filter false 10 140 480 120 0 0 480 120 Time-domain RLS Active Noise Suppresion false true 370 90 99 23 #adaptGO { background: green; } #adaptGO:disabled{ background: black; } GO 150 30 71 22 <html><head/><body>Number of taps in the time-domain filter</body></html> 2000 200 150 60 71 22 Forgetting factor, how quickly does the filter adapt. 0.200000000000000 1.000000000000000 0.990000000000000 10 32 71 16 Filter Taps 10 62 131 16 Forgetting factor (λ) 10 92 111 16 Truncate [ms] 150 90 71 22 <html><head/><body>This filter is a time-domain filter that takes some time to get going. Time-domain filters do a better job compared to frequency-domain filters in the presence of non-stationary noise. The filter is run backwards, so often the late times will not be cancelled as well. You may trim records off the back using this input. </body></html> <html><head/><body>This filter is a time-domain filter that takes some time to get going. Time-domain filters do a better job compared to frequency-domain filters in the presence of non-stationary noise. The filter is run backwards, so often the late times will not be cancelled as well. You may trim records off the back using this input. </body></html> 1000.000000000000000 800.000000000000000 370 30 81 22 4 0.000100000000000 0.100000000000000 0.000100000000000 0.010000000000000 260 33 57 14 Mu 260 63 91 16 PCA on ref 370 60 79 22 <html><head/><body>Perform priciple component analysis on the reference channels? If yes, PCA will performed on the reference channels and the rotated channels will be used for noise cancelation rather than the raw noise channels. In the case of multiple noise sources where one dominantes across channels, better performance can be realized.</body></html> 1 Yes No QC false 0 110 460 121 0 0 460 100 TD SmartStac&k^TM true 90 65 78 25 MAD none 10 70 71 16 Outlier test 350 70 99 23 #FDSmartStackGO { background: green; } #FDSmartStackGO:disabled{ background: black; } GO 90 90 121 22 <html><head/><body>The threshold value used in the median absolute deviation outlier test. The default value of 1.4826 follows from an assumption of Gaussian noise, lower cutoff values are stricter and will throw out more samples. </body></html> 4 10.000000000000000 1.480000000000000 false 0 10 461 101 Pulse Moment Calculation true 350 70 99 23 #calcQGO { background: green; } #calcQGO:disabled{ background: black; } GO false 0 230 461 121 &Quadrature Detect true 350 60 99 23 #qdGO { background: green; } #qdGO:disabled{ background: black; } GO 90 30 91 28 0 0 20 34 61 18 Trim 230 90 101 22 Real/Imag Amp/Phase Phased false 350 90 99 23 #plotQD { background: green; } #plotQD:disabled{ background: black; } PLOT false false 0 350 461 91 Gate integrate true 350 30 99 23 #gateIntegrateGO { background: green; } #gateIntegrateGO:disabled{ background: black; } GO 130 28 71 23 6 30 20 20 30 111 16 Gates per decade 230 60 101 22 Real/Imag Amp/Phase Phased false 350 60 99 23 #plotGI { background: green; } #plotGI:disabled{ background: black; } PLOT false META Survey site information 20 37 121 16 Temperature [°C] 20 79 81 16 Survey date 10 190 61 16 Location 10 210 441 51 20 160 371 16 Qt::Horizontal 0 260 191 31 <html><head/><body>Comments and field notes</body></html> 10 300 441 221 false 150 110 118 29 true 150 70 112 29 true 24 117 81 16 Survey time 150 30 111 29 20.000000000000000 10 560 641 291 <html><head/><body>This table is used to enter coil geometries the format is as follows: each row specifies a single point on a coil. The first column is the coil index (using the GMR channel is useful), the next three colums specify the point in Northing, Easting, and Elevation. These can either be local coordinates or global ones. The final column specifies the loop radius if it is a circle or figure 8, for non circular or figure 8 loops leave this column blank. For figure-8 loops the coils do not need to be touching (see Irons and Kass, 2017). If a given index has 1 row it will be a circular loop, two rows will be a figure 8, and more than that will be a polygonal representation of the points, linearlly interpolated between them. </body></html> 10 540 91 16 Surface loops 460 0 500 500 0 0 500 500 790 675 101 31 1 80000.000000000000000 50000.000000000000000 670 640 111 20 B Declination [°] 670 600 111 20 B Inclination [°] 790 635 101 31 1 -90.000000000000000 90.000000000000000 0.000000000000000 790 595 101 31 1 -90.000000000000000 90.000000000000000 45.000000000000000 670 680 111 20 B Intensity [nT] 670 560 121 16 Magnetic field 670 540 251 20 Qt::Horizontal Kern 20 20 901 16 Qt::Horizontal 480 30 500 500 0 0 500 500 480 550 371 301 Integration Parameters 120 30 49 29 120 70 49 29 280 70 70 29 21 34 81 20 min. level 20 75 81 20 max. level 187 75 81 20 branch tol 210 260 141 29 10 160 171 29 10 210 171 31 210 210 141 29 210 160 141 29 10 260 171 29 10 130 63 20 Origin 210 130 63 20 Size 30 360 351 501 <html><head/><body>This table is used to enter coil geometries the format is as follows: each row specifies a single point on a coil. The first column is the coil index (using the GMR channel is useful), the next three colums specify the point in Northing, Easting, and Elevation. These can either be local coordinates or global ones. The final column specifies the loop radius if it is a circle or figure 8, for non circular or figure 8 loops leave this column blank. For figure-8 loops the coils do not need to be touching (see Irons and Kass, 2017). If a given index has 1 row it will be a circular loop, two rows will be a figure 8, and more than that will be a polygonal representation of the points, linearlly interpolated between them. </body></html> Model 40 430 411 141 1 0 0 411 77 Page 1 0 0 411 77 Page 2 40 270 411 91 0 Inversion 290 140 311 141 #invertButton { font-size:29pt; font-weight: bold; color: white; background: red; } Invert Log 10 30 921 821 0 0 <!DOCTYPE HTML PUBLIC "-//W3C//DTD HTML 4.0//EN" "http://www.w3.org/TR/REC-html40/strict.dtd"> <html><head><meta name="qrichtext" content="1" /><style type="text/css"> p, li { white-space: pre-wrap; } </style></head><body style=" font-family:'Noto Sans'; font-size:10pt; font-weight:400; font-style:normal;"> All processing steps are recorded here for your records</body></html> 420 10 121 20 Processing log 0 0 0 0 460 300 0 0 460 38 false 0 0 460 250 false false Header file 0 0 0 23 16777215 23 8 true <!DOCTYPE HTML PUBLIC "-//W3C//DTD HTML 4.0//EN" "http://www.w3.org/TR/REC-html40/strict.dtd"> <html><head><meta name="qrichtext" content="1" /><style type="text/css"> p, li { white-space: pre-wrap; } </style></head><body style=" font-family:'Noto Sans'; font-size:8pt; font-weight:400; font-style:italic;"> Load supported RAW Dataset header from file menu</body></html> ν Tx [Hz] 0 0 8 false #lcdNumberNuTx { color: green; background: black; } #lcdNumberNuTx:disabled { color: grey; background: dark grey; } QFrame::Raised 1 0 QLCDNumber::Flat 0.000000000000000 Pulse Type 0 0 64 23 64 23 true true Qt::ScrollBarAlwaysOff Qt::ScrollBarAlwaysOff <!DOCTYPE HTML PUBLIC "-//W3C//DTD HTML 4.0//EN" "http://www.w3.org/TR/REC-html40/strict.dtd"> <html><head><meta name="qrichtext" content="1" /><style type="text/css"> p, li { white-space: pre-wrap; } </style></head><body style=" font-family:'Noto Sans'; font-size:10pt; font-weight:400; font-style:italic;"> </body></html> <html><head/><body>Number of pulse moments (q)</body></html> Num q 0 0 #lcdNumberNQ { color: green; background: black; } #lcdNumberNQ:disabled{ color: grey; background: dark grey; } QLCDNumber::Flat τ Delay [ms] false 0 0 #lcdNumberTauDelay { color: green; background: black; } #lcdNumberTauDelay:disabled { color: grey; background: dark grey; } 1 0 QLCDNumber::Flat τ Pulse 1 [ms] 0 0 #lcdNumberTauPulse1 { color: green; background: black; } #lcdNumberTauPulse1:disabled { color: grey; background: dark grey; } QFrame::Raised 1 0 QLCDNumber::Flat FID 1 length [s] false 0 0 #lcdNumberFID1Length { color: green; background: black; } #lcdNumberFID1Length:disabled { color: grey; background: dark grey; } 1 0 QLCDNumber::Flat τ Pulse 2 [ms] 0 0 #lcdNumberTauPulse2 { color: green; background: black; } #lcdNumberTauPulse2:disabled{ color: grey; background: dark grey; } 1 0 QLCDNumber::Flat FID 2 length [s] false 0 0 #lcdNumberFID2Length { color: green; background: black; } #lcdNumberFID2Length:disabled { color: grey; background: dark grey; } 1 0 QLCDNumber::Flat ν Sampling [Hz] false 0 0 #lcdNumberSampFreq { color: green; background: black; } #lcdNumberSampFreq:disabled{ color: grey; background: dark grey; } 1 0 5 QLCDNumber::Flat ν re-sampling [Hz] false 0 0 #lcdNumberResampFreq { color: green; background: black; } #lcdNumberResampFreq:disabled { color: grey; background: dark grey; } 1 0 QLCDNumber::Flat Tx tuning [μF] 0 0 #lcdNumberTuneuF { color: green; background: black; } #lcdNumberTuneuF:disabled { color: grey; background: dark grey; } 1 0 QLCDNumber::Flat total dead time false 0 0 #lcdTotalDeadTime { color: green; background: black; } #lcdTotalDeadTime:disabled { color: grey; background: dark grey; } 1 0 QLCDNumber::Flat 0 0 1142 30 File Help &Open GMR Header Open Akvo Preprocessed dataset Open VC Preprocessed dataset Save processing Export to Lemma Close About MyDynamicMplCanvas QWidget

akvo.gui.mydynamicmplcanvas.h

1 clicked() MyDynamicMplCanvasNavigator QWidget

akvo.gui.mydynamicmplcanvasnavigator.h