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Omron Forums Support

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  1. To enable Keyboard HID In Reports: 1. Connect to ESP, enter into APP mode. 2. Receive reader Settings, then go to Parameters/Communication Tabs. 3. Find USB HID Reports. Expand tree. 4. Set Keyboard IN Reports to Enabled. 5. Send and save Settings to scanner * Note that USB HID post amble Characters are different from Keyboard post-amble. This setting can be configured in the same Parameters/Communications Tree.
  2. The minimum number of bars depends on the Image processing mode that is used: Standard mode: 2 bars (note that Standard mode does not support Pharmacode in -25 and later versions) Q-mode and X-mode: 4 bars
  3. Below you will find the procedure to upgrade the Quadrus EZ Firmware. The attachment will step you through the procedure and contains all the necessary files. kA23800000008ATCAY_en_US_1.zip
  4. When using the QC "Operator.exe" program, the resulting "Operator.dat" file is saved to the "LVS QC" installation directory. This "Operator.dat" file will need to be copied to the "LVS QC" user area in order for any changes to apply. It can also be copied to the "LVS 7000" and "LVS RIMS" user areas for consistency. Software Version any Operating System Windows 7;Windows XP
  5. The attached white paper discusses Microscan MS-3 / MS-4 grounding scenarios for large, medium and mild voltage discharge scenarios typically encountered in industrial settings, and provides best grounding practice to combat each scenario. Common Ground System (MS-3 / MS-4) This is a cut from the schematic of the MS-3. It shows that signal and chassis are tied together within the unit. This is also the same for the MS-4. Note: The Wiring Diagrams show that the communication lines are not going through the IC332. These lines route straight through the IC-332 and have no components attached within. Thus this white paper address either case whether using or not using IC-332 in system. Typical Damage caused by grounding disruption The machine that the product is mounted to receives a large discharge This picture shows how insufficient Earth Grounding on the machine in question leads to damaged communication equipment. Charge is dumped onto the machine surface, then radiates out and skims the surface towards all lower potential areas. Once there is enough potential at the scanner, voltages begin to rise on the power commons looking for earth. Once this rises above part thresholds, damage begins. Common grounding can be an issue if the system that the scanner is mounted to receives a large discharge. If the grounding in the machine is not capable of routing all of the current such that the voltage stays at a low potential, then voltage builds up and finds alternate paths to Earth. Because Microscan’s MS-3 / MS-4 chassis is connected to the system machine that receives the discharge, the voltage will enter into the ground, shield (earth) and communication I/O then follow it to earth. Not only is the Ohmic value of the Earth Drain important but the surface area acts as a component as well. Heavy braided wire is better than solid wire for taking discharge events. Discharge prefers to travel along the surface of conductors not within. In this case either system can measure the same resistance but not be equivalent. Routing is also important, there may be a negligible Ohmic difference when measured but once struck with a large charge, the charge will move along HF low impedance paths. The 1 ground wire may be too inductive to handle this instantaneous surge and thus the charge will start entering into the scanners chassis. Charge moves along multiple paths, not just one. Using the best grounding system on the machine will work as a Current/Voltage divider. If the current can’t reach earth from the machine quickly enough it builds in the entire system as voltage. There will be varied voltage seen at different points in the machine and equipment depending on the nature of the mounting and surface characteristics. The point is that there will likely always be some component at the scanner but it takes steps to get this component down to below damage levels. Three levels of undesired ground potential. Typical to mild discharges: If the discharges are typical human body models, then the first line of defense to protect low voltage devices is to provide a lower impedance path to earth. This lower impedance path allows a faster current drain. This will prevent the discharge from rising up in voltage and exceeding parts tolerance levels within the Microscan units. There is still likely be a small current path back down the products but it will be reduced down to a noise level rather that high voltage power path. Typical ground noise with good Earth potential Mild machine chassis discharges: Mild discharges can come from moving parts building surface static until they build enough potential energy to jump a gap. Some of the typical ways of attenuating these discharges are ferrites and transorbs on I/O lines to minimize the voltage seen by the communication chips. Ferrites usually affect incoming transients on the I/O lines from reaching the scanner. Transorbs help both directions by clamping the voltage to safety limits and converting the surge into heat before they break down the more sensitive parts. These are attenuators for issues that are not severe. Once the situation gets into the sever category these will no longer provide protection. Severe machine chassis discharges: The only way to stop the severe discharge from getting into the I/O and communication lines is to isolate the scanner from the machine. This does not isolate the products from earth but merely breaks the path from machine to the scanner that was providing sufficient voltage to induce failure. The voltage will still rise on the surface of the machine but it cannot enter into the scanner. The picture below gives a graphical representation of electrically isolating the scanner from the machine that has the potential in it. Isolated from machine to protect low voltage devices Recommendations and Best Practice: Characterize the type of Grounding electrical events which are likely to occur in your environment. Ensure the machine has a very solid grounding path. An Ohm meter is only a partial verification. If the ground potentials are high current low voltage in nature, then Ohm measuring is much more of a determiner of the quality of ground. If the events come from static high potential discharge, then an Ohm meter cannot correctly measure the quality of the ground system. Choose a grounding strategy similar to the above examples which is most suited for the level of noise/static in the environment. Operating System Any
  6. The attached document will explain how to program keyboard characters into the HS-1 Preamble and Postamble fields. This feature is expected to be added to the ESP GUI. kA23800000008IrCAI_en_US_1.pdf
  7. White Balancing TMGC03C and TMG03C cameras 1) Shut down FrontRunner. 2) Shut down AvpServer 3) Delete dmconfig.dm file from “c:\vscape\dm” folder 4) Start Visionscape GigE Camera Control software 5) Make yourself Guru 6) Select Camera 7) Change Pixel Mode to “BGR8Packed” 8) Start Live Video 9) Go to g) Analog Controls 10) Set camera up to look at white paper with your light 11) Execute White Balance - This sets the R,G and B analog gains on the camera. 12) Change Pixel Mode back to BayerRGB 13) Go to j) UserSets 14) Select UserSet1 instead of Default 15) Make UserSetDefaultSelector UserSet1 as well so it powers up with new settings 16) Execute “UserSetSave” to save settings to camera. 17) Camera should now be set to power up in BayerRGB mode with R,G and B Analog Gains set for White Balance
  8. In C#: InspectionStep = m_VS.FindByType("Inspection.Step") as InspectionStep; works in Visual Studio 2008 but not in 2010. To make it work in 2010 you have to change the above to InspectionStep = m_VS.FindByType("Inspection.Step")[1] as InspectionStep;
  9. Installing .NET based line control software causes the installer crash. Uninstalling Mcafee products allows the software to install.
  10. These specifications are for the 24V Power supply used with Microscan Industrial scanners. Input: 120-240VAC 50/60Hz, 1.5A Protection class I Output: 24VDC, 2.0A
  11. When the LVS-95XX software starts, it tries to determine the database in use (Access, MS SQL, MySQL). It does this by creating a test table and then creating different types of data elements unique to a particular database type. This error can occur if the user name and password in the database connection string contains an expired password, in particular if this is a system that has been working and is now giving this error. They can test this with Windows ODBC admin tool by creating a connection to the database using the SQL server username and password. If the connection fails, then the issue is likely the username and password being expired. If it is successful, then the issue likely lies elsewhere and will require further troubleshooting. Operating System Any
  12. Below is a wire Schematic for wiring in a PNP Input or Output Operating System Any
  13. Attached document provides pinouts and wire colors for the GigE cameras. Also reference the Manuals, which are installed with Visionscape 4.0, or downloadable here: http://www.microscan.com/en-us/ServiceAndSupport/DownloadCenter.aspx kA238000000086VCAQ_en_US_1.doc
  14. To show pinout of the ports when connected to the scanner. kA23800000008IkCAI_en_US_1.pdf
  15. Showing Pinout details of 25-pin to 9-pin Null Modem Cable kA238000000089aCAA_en_US_1.pdf
  16. To show Pinout and color for Wiring Nerlite Lights. kA23800000008FnCAI_en_US_1.pdf
  17. Attached is a document showing Color per Pin of this cable. kA23800000008IFCAY_en_US_1.pdf
  18. Pinout of 61-000172-XX cable. ASSY, QX Cordset, M12, 12pin Plug & M12 12pin Socket to IB-150 Also known as the MS-860 Backward compatible cable. kA238000000086DCAQ_en_US_1.pdf
  19. This document shows the pin assignments and wire colors for the QX cordsets 61-000166-XX and 61-000167-XX. kA23800000008IICAY_en_US_1.pdf
  20. Show full pinout of the QX Series M12, 12-Pin Sockets (Screw-On) to M12, 12-pin Plugs. kA23800000008KICAY_en_US_1.pdf
  21. Shows the full pinout of the QX-Series Ethernet Cable. kA23800000008IBCAY_en_US_1.pdf
  22. QX Cordset, M12 12pin Plug & M12 12pin Socket to15 pin D-Sub connection on IB-131. Also Called the MS-820 to QX-830 Transition Cable. kA23800000008GICAY_en_US_1.pdf
  23. The pinout and color code for a QX-Series Communications Cable with a M12 Socket for connection to port A then to a DB9 (F) RS-232 serial port. kA23800000008IoCAI_en_US_1.pdf
  24. The pinout and color code for a QX-Series Communications Cable with a M12 Plug for connection of Port B to a DB9 (F) to a RS-232 serial port. kA23800000008JVCAY_en_US_1.pdf
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