Processing the readings ======================= In the previous section, you parsed the readings of your measurements of Lu-177 from the Hidex 300 SL automatic liquid scintillator counter CSV files. You extracted, for each cycle and repetition, the measurements provided by the Hidex 300 SL automatic liquid scintillator counter of count rate, counts, real time, dead time and end time, both for the radionuclide sample and the background. But you may need some extra information about the background and sample measurements. Also, you may need the net measurements derived from the sample and background measurements. Let's see how you can do this using the ``Hidex300`` class. Process background measurements ------------------------------- Take the ``processor`` from the previous section. Let's get some other quantities of interest from the background readings. Process the background measurements using the ``processor.process_readings()`` method and specifying the type of measurement you want to process: .. code-block:: python processor.process_readings(kind='background') Then inspect the processed background readings to understand its structure and contents. The ``processor`` store the background measurements as a table using a pandas DataFrame. Access the background measurements by calling the ``processor.background`` attribute: .. code-block:: python >>> print(processor.background) Cycle Sample Repetition Count rate (cpm) Counts (reading) Dead time Real time (s) End time Live time (s) Elapsed time Elapsed time (s) Counts Counts uncertainty Counts uncertainty (%) 0 1 1 1 83.97 140 1.0 100 2023-11-30 08:44:20 100.0 0 days 00:00:00 0.0 139.950000 11.830046 8.453052 1 1 1 2 87.57 146 1.0 100 2023-11-30 08:51:04 100.0 0 days 00:06:44 404.0 145.950000 12.080977 8.277476 2 2 1 1 92.36 154 1.0 100 2023-12-06 10:23:19 100.0 6 days 01:38:59 524339.0 153.933333 12.406987 8.059974 3 2 1 2 87.56 146 1.0 100 2023-12-06 10:30:03 100.0 6 days 01:45:43 524743.0 145.933333 12.080287 8.277949 4 3 1 1 82.16 137 1.0 100 2023-12-12 08:41:22 100.0 11 days 23:57:02 1036622.0 136.933333 11.701852 8.545656 5 3 1 2 82.77 138 1.0 100 2023-12-12 08:48:04 100.0 12 days 00:03:44 1037024.0 137.950000 11.745212 8.514108 6 4 1 1 98.36 164 1.0 100 2023-12-22 08:47:48 100.0 22 days 00:03:28 1901008.0 163.933333 12.803645 7.810276 7 4 1 2 76.17 127 1.0 100 2023-12-22 08:54:28 100.0 22 days 00:10:08 1901408.0 126.950000 11.267209 8.875312 This table compiles all the quantities of interest for the background measurements for each cycle and repetition. In addition to the quantities parsed directly from the Hidex 300 SL automatic liquid scintillator counter CSV files (count rate, counts, real time, dead time and end time), it compiles the live time, elapsed time, and counts value and uncertainty. See more details about these quantities in the Topic guide. .. note:: To process the background, sample or net measurements using the ``processor.process_readings()`` method, you need to parse the readings first using the ``processor.parse_readings()`` method. Otherwise, you will get an error. Process sample measurements --------------------------- Next, you can process the radionuclide sample measurements in the same way you just did for the background measurements. Just use the ``processor.process_readings()`` method specifying the type ``sample`` instead of ``background``: .. code-block:: python >>> processor.process_readings(kind='sample') Then inspect the processed sample readings by calling the ``processor.sample`` attribute: .. code-block:: python >>> print(processor.sample) Cycle Sample Repetition Count rate (cpm) Counts (reading) Dead time Real time (s) End time Live time (s) Elapsed time Elapsed time (s) Counts Counts uncertainty Counts uncertainty (%) 0 1 2 1 252623.23 374237 1.125 100 2023-11-30 08:47:44 88.888889 0 days 00:00:00 0.0 374256.637037 611.765181 0.163461 1 1 2 2 251953.09 373593 1.124 100 2023-11-30 08:54:28 88.967972 0 days 00:06:44 404.0 373595.922301 611.224936 0.163606 2 2 2 1 134111.43 209724 1.066 100 2023-12-06 10:26:44 93.808630 6 days 01:39:00 524340.0 209680.159475 457.908462 0.218384 3 2 2 2 134390.68 210125 1.066 100 2023-12-06 10:33:27 93.808630 6 days 01:45:43 524743.0 210116.760475 458.384948 0.218157 4 3 2 1 72225.71 116255 1.035 100 2023-12-12 08:44:45 96.618357 11 days 23:57:01 1036621.0 116305.491143 341.035909 0.293224 5 3 2 2 72340.56 116440 1.035 100 2023-12-12 08:51:27 96.618357 12 days 00:03:43 1037023.0 116490.434783 341.306951 0.292991 6 4 2 1 25236.95 41565 1.012 100 2023-12-22 08:51:10 98.814229 22 days 00:03:26 1901006.0 41562.829381 203.869638 0.490510 7 4 2 2 25656.06 42239 1.012 100 2023-12-22 08:57:50 98.814229 22 days 00:10:06 1901406.0 42253.063241 205.555499 0.486487 Process net measurements ------------------------ When measuring the activity of a radionuclide, you are often interested in the net measurements derived from the sample and background measurements, rather than in the sample measurement itself. You can process the radionuclide net measurements in the same way you just did for the background and sample measurements. Just use the ``processor.process_readings()`` method specifying the type of measurements ``net``: .. code-block:: python >>> processor.process_readings(kind='net') Then inspect the net measurements by calling the ``processor.net`` attribute: .. code-block:: python >>> print(processor.net) Cycle Repetition Elapsed time Elapsed time (s) Count rate (cpm) Counts Counts uncertainty Counts uncertainty (%) 0 1 1 0 days 00:00:00 0.0 252539.26 374116.687037 611.879553 0.163553 1 1 2 0 days 00:06:44 404.0 251865.52 373449.972301 611.344316 0.163702 2 2 1 6 days 01:39:00 524340.0 134019.07 209526.226141 458.076514 0.218625 3 2 2 6 days 01:45:43 524743.0 134303.12 209970.827142 458.544102 0.218385 4 3 1 11 days 23:57:01 1036621.0 72143.55 116168.557810 341.236611 0.293743 5 3 2 12 days 00:03:43 1037023.0 72257.79 116352.484783 341.508982 0.293512 6 4 1 22 days 00:03:26 1901006.0 25138.59 41398.896047 204.271297 0.493422 7 4 2 22 days 00:10:06 1901406.0 25579.89 42126.113241 205.864065 0.488685 This table compiles all the quantities of interest for the net measurements for each cycle and repetition: elapsed time, count rate, and counts value and uncertainty. See more details about these quantities in the Topic guide.