Changes for page Testing Procedures
Last modified by robert on 2024/12/09 16:08
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... ... @@ -26,7 +26,7 @@ 26 26 27 27 (% class="box infomessage" %) 28 28 ((( 29 - NOTE:Unit powering ON is not instant, there may be a 10 to 15 sec delay.29 +Unit powering ON is not instant, there may be a 10 to 15 sec delay. 30 30 ))) 31 31 32 32 ... ... @@ -39,7 +39,7 @@ 39 39 40 40 (% class="box infomessage" %) 41 41 ((( 42 - NOTE: The following step, power feature is not present in LPR200, therefore this step cannot be verified for LPR recorders.42 +The following step, power feature is not present in LPR200, therefore this step cannot be verified for LPR recorders. 43 43 ))) 44 44 45 45 == System Test == ... ... @@ -50,7 +50,7 @@ 50 50 * Insert SD card and verify the latching mechanism holds the card and releases it. 51 51 * Verify the SD card is detected and can be erased. 52 52 53 -=== System information === 53 +=== System information === 54 54 55 55 Record the Firmware version. 56 56 ... ... @@ -59,7 +59,7 @@ 59 59 60 60 == Functional Test == 61 61 62 -=== Charging === 62 +=== Charging === 63 63 64 64 Verify the battery is charging (LPR differs from TSAWR, additionally, TSAWRs differ between each other based on firmware version). 65 65 ... ... @@ -67,7 +67,7 @@ 67 67 68 68 (% class="box infomessage" %) 69 69 ((( 70 - NOTE: There are two types of solar regulators available. Make sure to not mix them as they supply different Voltages, 7.7V and 13.8V.70 +There are two types of solar regulators available. Make sure to not mix them as they supply different Voltages, 7.7V and 13.8V. 71 71 ))) 72 72 73 73 Navigate to “System Information” in the Menu and note the battery icon will have a lightning symbol indicating it’s charging, also observe the state of charge % is increasing under. ... ... @@ -82,10 +82,10 @@ 82 82 83 83 (% class="box infomessage" %) 84 84 ((( 85 - NOTE:If the user requires to verify the sensor or the validity of the recorded data, a power spectral density analysis would need to be performed, see rest of document (link here) for instructions on how to perform this test.85 +If the user requires to verify the sensor or the validity of the recorded data, a power spectral density analysis would need to be performed, see rest of document (link here) for instructions on how to perform this test. 86 86 ))) 87 87 88 -=== Recording test === 88 +=== Recording test === 89 89 90 90 Insert SD card and erase the content. 91 91 ... ... @@ -103,7 +103,7 @@ 103 103 104 104 (% class="box infomessage" %) 105 105 ((( 106 - NOTE:For procedure on how to use and set-up the PSD script refer to the “Performing PSD function on recorded sensor data procedure” document. (LINK)106 +For procedure on how to use and set-up the PSD script refer to the “Performing PSD function on recorded sensor data procedure” document. (LINK) 107 107 ))) 108 108 109 109 === Troubleshooting === ... ... @@ -200,7 +200,8 @@ 200 200 * Alternatively the SD card may be faulty and need to be replaced 201 201 ))) 202 202 203 -(% class="table-condensed" style="width:888px" %) 203 + 204 +(% style="width:888px" %) 204 204 |(% colspan="2" style="width:885px" %)((( 205 205 **Error Screen Warnings ** 206 206 ))) ... ... @@ -295,7 +295,9 @@ 295 295 * Alternatively the SD card may be faulty and need to be replaced 296 296 ))) 297 297 298 -(% class="table-condensed" style="width:1063px" %) 299 + 300 + 301 +(% style="width:1063px" %) 299 299 |(% colspan="2" style="width:1060px" %)((( 300 300 **General System Errors ** 301 301 ))) ... ... @@ -345,7 +345,7 @@ 345 345 * Restart or try an alternative unit 346 346 ))) 347 347 348 -(% class="table-condensed" style="width:1066px" %)351 +(% style="width:1066px" %) 349 349 |(% colspan="2" style="width:1063px" %)((( 350 350 **Battery Errors ** 351 351 ))) ... ... @@ -411,7 +411,9 @@ 411 411 * There is a damaged cell which will need to be replaced 412 412 ))) 413 413 414 -(% class="table-condensed" style="width:1064px" %) 417 + 418 + 419 +(% class="table-bordered" style="width:1064px" %) 415 415 |(% colspan="2" style="width:1061px" %)((( 416 416 **Hardware Errors ** 417 417 ))) ... ... @@ -446,6 +446,7 @@ 446 446 * Reformat the card (FAT32) 447 447 ))) 448 448 454 + 449 449 = Sensors = 450 450 451 451 Sensors can be tested in many ways... ... ... @@ -452,52 +452,8 @@ 452 452 453 453 == ... via Centaur (Nanometrics sensors) == 454 454 455 - //(originallywrittenbyF.Bozinovic May 2024)//461 +GUIDE TO TEST VIA CENTAUR 456 456 457 - 458 -=== Introduction === 459 - 460 -Sensor calibration allows user to input an electrical test signal into a connected sensor to simulate ground motion. The resulting digitized sensor output can then be analysed to assess various attributes of the sensor, such as basic functionality, 461 -frequency response and/or sensitivity stability over time. For a high-quality broadband sensor, these parameters typically remain stable over time, so that if the sensor initially meets manufacturer’s specifications and has not suffered damage, 462 -then calibration is usually not required. However, calibration can be a useful quality control check if it is suspected that the sensor may be defective or damaged after multiple deployments. 463 - 464 -(% class="box infomessage" %) 465 -((( 466 -NOTE: Not all sensors have this capability and user must refer to the manufacturer’s datasheet for clarification. 467 -))) 468 - 469 -=== Process === 470 - 471 -The Centaur data recorder can generate and output an analog signal using a 16-bit internal digital-to analog converter (DAC). The DAC output is applied to the sensor for calibration purposes via the matching sensor cable. Make sure to use manufacturer cables as the correct signal lines have been connected to the correct pins of the mating connector. The Centaur CTR, CTR2 and CTR3 series models may generate signals of up to ±5 V amplitude, while the Centaur CTR4 series models have an enhanced calibration output. 472 - 473 -Calibration output signal actions are launched from the Waveform page in the Centaur Web interface. A synthetic waveform signal generator allows you to generate sinewave and pseudo-random binary (PRB) signals on demand. User can configure the sine frequency or PRB pulse width, signal duration and amplitude as well as specify lead-in and lead-out silence intervals before and after the calibration waveform. One can also select and play a calibration file containing any other desired digital time series waveform that by uploading it to the Centaur, such as a swept sinewave, step function, random noise, or chained PRB sequence. 474 - 475 -The following sample calibration files are supplied with the Centaur. These files may be used to visually verify functionality and approximate sensitivity of the sensor by inspection of the output waveform: 476 - 477 -* **sine_5V_30s** generates a 1 Hz sine wave with 5 V amplitude lasting 30 seconds. 478 -* **step_0V_to_5V_15s** generates a 0 V signal for 15 seconds followed by a positive 5 V step function lasting 15 seconds. 479 -* **prb 1V 20ms 10min** generates a 10 minute PRB sequence using 20 ms pulses and 1 V amplitude. 480 -* **prb 1V 5s 150min** generates a 2.5 hour PRB sequence using 5 second pulses and 1 V amplitude. 481 -* **prb 2V 5s 8hr** generates an 8 hour PRB sequence using 5 s pulses and 2 V amplitude. 482 - 483 -=== Procedure === 484 - 485 -1. Log-in to the Centaur Web Interface and use the Admin credentials 486 -1. Navigate to the Health page and verify that the sensor is properly levelled and recognised by its serial number. 487 -1. To configure the calibration parameters, navigate to the Waveform page. 488 -1. From the Calibration panel at the top page, select Type from the drop-down list and choose Sine. 489 -1. For the CTR4 series models, additional option to select between Voltage or Current is available. 490 -1. Click on the Configure button to access the calibration dialog box for the selected Playback. 491 -1. Configure the signal characteristics by selecting 5V, 30 sec with gain of 1. 492 -1. Configure the padding before and after the calibration signal, enter 5 seconds. 493 -1. The Duration (s) time can be made shorter or longer as required by user. NOTE, for shorter frequencies a longer duration will be required for the signal to complete its full cycle and to capture the entire waveform on the screen. 494 -1. Click OK button to close the dialog box and save the settings. 495 -1. Click the start calibration button [[image:1733178329484-829.png]] to begin the process. Approximately 5 seconds of time padding ( as set in Step 8) will past before the sensor responds to the injected signal and display the sine wave feedback response. 496 -1. The calibration will end after 30 seconds (as set in Step 7) or can be terminated manually by pressing the stop button. The calibration will then stop after 5 seconds and any configured lead out silence will be skipped. 497 -1. Click on the pause button on the bottom of the page to stop the live stream and use the arrows to centre the sine signal response. Note that the screen waveform will turn Blue and the stream will freeze. Avoid capturing live streaming signal! 498 -1. Once the response signal is cantered, perform a screen-capture “Print Screen” button or use “Snippet” tool and save the captured image locally. In the nametag, include a Serial number, date and sensor type. 499 -1. Archive and back-up the file. 500 - 501 501 == ... via data comparision (vs S1.AUANU) == 502 502 503 503 CODE & Guide to use code ... ... @@ -511,20 +511,23 @@ 511 511 512 512 This procedure describes the method for testing solar panels and determining how to identify defective panels. The testing of solar panels should be performed outdoors, under bring sun to obtain accurate results. 513 513 514 -(% class="box warningmessage" %) 515 -((( 516 -DO NOT test solar panels indoors using room lighting, this does not provide adequate light energy and will not give reliable results. 517 -))) 476 +**DO NOT test solar panels indoors using room lighting, this does not provide adequate light energy and will not give reliable results. ** 518 518 519 519 520 520 Following materials are required 521 521 522 522 * Solar panel for testing 482 + 523 523 * Digital multi-meter (DMM) 484 + 524 524 * Load Resistor (designated power resistor of known value) 486 + 525 525 * Wire leads 488 + 526 526 * Alligator clips 490 + 527 527 * Spreadsheet with formulae 492 + 528 528 * Marker/ pen 529 529 530 530 Test Method ... ... @@ -548,11 +548,11 @@ 548 548 549 549 550 550 551 -(% class="table-bordered" style="height:563px; width:433px" %)516 +(% style="height:563px; width:433px" %) 552 552 |(% style="width:148px" %)((( 553 553 Solar panel ID# 554 554 )))|(% style="width:281px" %)((( 555 - Measurement520 + 556 556 ))) 557 557 |(% style="width:148px" %)((( 558 558 Voltage (Voc) ... ... @@ -610,13 +610,11 @@ 610 610 Load resistor value 611 611 ))) 612 612 578 + 613 613 For cells in rows (Solar panel #ID), (Voc), (Ioc), (Vrl), enter the recorded values. 614 614 615 615 616 -(% class="box warningmessage" %) 617 -((( 618 -These values should be measured and NOT taken from the panel specification sticker. The values may appear same or similar but these are manufacturer factory values obtained under very strict control conditions. 619 -))) 582 +**These values should be measured and NOT taken from the panel specification sticker. The values may appear same or similar but these are manufacturer factory values obtained under very strict control conditions. ** 620 620 621 621 622 622 (Rload) cell is the Load Resistor value. This cell is a constant and does not need to be copied for all entries. ... ... @@ -624,25 +624,25 @@ 624 624 625 625 Inside the “Vrl (Theoretical)” cell enter the following formula using the corresponding cells. 626 626 627 - V_{RL}=I_{oc}\timesR_L590 +[Equation] 628 628 629 629 630 630 Inside the “Rated Power” cell enter the following formula using the corresponding cells. 631 631 632 - P_{oc}=V_{oc}\times I_{oc}595 +[Equation] 633 633 634 634 635 635 Inside the “Load Power” cell enter the following formula using the corresponding cells. 636 636 637 - P_{RL}=\frac{V_{RL}}{R_L}\times V_{oc}600 +[Equation] 638 638 639 639 640 640 Inside the “Power Loss %” cell enter the following formula using the corresponding cells. 641 641 642 -The calculated values that are negative represent power loss, and positive values are power gain. Performing “conditional formatting” on these cells with colour gradient (defined by colour break limits) would yield visually easy to recognise defective panels. 605 +The calculated values that are negative represent power loss, and positive values are power gain. Performing “conditional formatting” on these cells with colour gradient (defined by colour break limits) would yield visually easy to recognise defective panels. 643 643 644 644 645 - Power\ Loss\ \%=\frac{P_{RL}}{P_{oc}}\times100-100608 +[Equation] 646 646 647 647 648 648 Perform all the calculations for each solar panel ID entered.
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