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1. Open IMS Main from the WRMSL computer desktop (Fig. 1)
   
   Figure 1. WRMSL Desktop Icon
2. The program will initialize all of the instruments and then display the main user interface (Fig. 2)
   Figure 2. Main WRMSL User Interface Window with GRA, MS, and PWL displays.
   
   
3. To set the measurement parameters for each of the instruments select DAQ: Measurement Editor. Pro Tip! Always set measurement intervals as whole number divisors of the distance between the sensors (30 cm), or the movement routine will be highly inefficient!
   1. In the Measurement Editor window, select the instrument you wish to configure and then click in the Instrument Parameters Window (Fig. 3)
      
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      Figure 3.  Measurement Editor Window 

   2. In the DAQ Parameters window the user may alter the settings for each instrument and may set the instrument to online or offline mode. Select OK. The changes will be written to the configuration file. (Note: If you hit return it selects the CANCEL button. You must click on the OK button to apply changes.)
      1. GRA Settings Include: Measurement Interval, Edge, Acquire Time, and Setting the Instrument Online or Offline
      2. MS Settings Include: Measurement Interval, Edge, Number of Points to Average, and Setting the Instrument Online or Offline
      3. PWL Settings Include: Measurement Interval, Edge, Number of Waveforms to Stack, Voltage Target, and Setting the Instrument Online or Offline
   3. Select Finished in the Measurement Editor window. Check that the System Status and DAQ Parameters displayed on the main interface window (left side of page) have updated to the values specified.
4. Set the water core pusher ID by selecting DAQ: Pusher Setup. In the window scan the water core label. When the user selects Accept the ID of the water core will be written to the configuration file.
5. To begin measuring a core, place a section on the track. Top should be placed nearest the sensors and bottom should be nearest the pusher.
6. Select Start from the Main Interface Window.
7. Enter the section label identification in the Whole Round MSL Section Information window (Fig. 4). This is typically done using the bar code scanner, but may be done manually or by searching the LIMS database. If scanning the label, make sure the cursor is in the SCAN box before scanning the label.
   

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   Figure 4.  Whole Round MSL Section Information window

2. Select Measure. The pusher will move the core through the instruments and return to its home position once it reaches its furthest limits.
   1. During a measurement the user may adjust the threshold, number of stacked measurements, and the extent to which the Exlar opens and closes for the P-wave measurements.
3. When the first section is finished the Whole Round MSL Section Information window will appear again.
   1. If there are more sections to be measure place the next section on the track, scan the label, and press measure. Repeat for all sections of the core.
   2. For best results it is recommended that sections be measured IN ORDER. If it is not possible to measure the sections in order it is recommended that a pusher core is used after each section.
4. Once all of the sections from a core have been measured, place the water core standard on the track and press Pusher End Sequence. The standard will push the final section through the sensors and a standard measurement will be made on each sensor.
5. The files will be written to: C:\data\IN.

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1. Select Instruments: GRA Calibrate and the GRA calibration window will open (Fig 5).
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   Figure 5. GRA Calibration window.
2. Place the GRA standard (standard with the telescoped aluminum in Fig. 6) on the track with the top (end with black tape) nearest the sensors.
   1. The aluminum must be level. A level line is drawn on the bottom of the core. Make sure it is aligned with the pusher as the core begins moving.
      
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      Figure 6. GRA Standard with telescoped aluminum at the top of the standard
3. Press OK. The pusher will move the core into the GRA sensor range.
4. The data points will be visible on the GRA Calibration graph. When the calibration measurements have completed, the window will display a density check. You may choose to apply or cancel the values at this time (Fig. 7).
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   Figure 7. GRA Calibration after data acquisition
   
   
5. After you select apply the data will be written to the configuration file
6. GRA Calibration is complete.

PWL Calibration

Image Removed In the Instrument menu, select PWL: Calibration and the PWL Calibration window will open.

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Figure 8. PWave Calibration Utility. Note: Liner Delay Excluded.

The window opens as seen above. Begin by following the steps on the right sight of the window.

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1. Place the aluminum standard between the transducers. Close the transducers. Aluminum standard width is 76.2mm. Select Laser Offset Correction. Confirm that the Distance matches the standard width.
2. Enter the Aluminum Standard velocity. 6295.00 m/s. Select Determine System Delay. Verify that the Velocity matches the Aluminum Standard.Image Added
   Figure 9. PWave Calibration Utility. Note Liner Delay corrected.
   

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1. 
   Turn on Liner Delay
2. Open transducers. Remove Aluminum Standard. Position the Water Standard in place. Close transducers. Turn on Liner Delay. Liner Thickness is 0.275 cm. Determine Liner Velocity. Verify that the water velocity matches the calculated H2O velocity +/- 1% (liner velocity is calculated based on this).
3. Open transducers. Accept Changes

Image Removed Uploading data To Lims

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To up load the images into the database MegaUploadaTron must be running in background. If not already started do the following:

1. On the desktop click the MUT icon on the bottom task bar.
2. The following will appear:
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   Figure 10. LIMS Uploader
   
   
3. Check Automatic Upload in the lower right hand corner and then click the minimize window and MUT will run in background.