Cicor Deutschland 02MONILOG MONI LOG MicroShockDetector User Manual 15 MSD UserMan
SMT&Hybrid; GmbH MONI LOG MicroShockDetector 15 MSD UserMan
15_MSD_UserMan
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| Document Description | 15_MSD_UserMan |
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| Date Submitted | 2016-05-24 00:00:00 |
| Date Available | 2016-05-24 00:00:00 |
| Creation Date | 2016-01-28 14:46:21 |
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| Document Lastmod | 2016-01-28 14:46:21 |
| Document Title | 15_MSD_UserMan |
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| Document Author: | Heinrich, Benjamin |
MicroShockDetector INSTRUCTION MANUAL MicroShockDetector (Transport data logger) Edition 01/2016 MicroShockDetector PRODUCT CERTIFICATION still in progress -1- MicroShockDetector TABLE OF CONTENTS PRODUCT CERTIFICATION.................................................................................. 1 TABLE OF CONTENTS ........................................................................................ 2 1. INTRODUCTION ...................................................................................... 4 1.1 SCOPE OF DELIVERY .................................................................................................... 4 1.2 FUNCTIONALITY ....................................................................................................... 5 1.3 ENVIRONMENTAL AND SAFETY INSTRUCTIONS ...................................................... 6 2. TECHNICAL DATA .................................................................................... 7 3. DEVICE DESCRIPTION .............................................................................. 8 3.1 DEVICE STRUCTURE / DEVICE VIEW................................................................................. 8 3.2 OPERATION OF THE MICROSHOCKDETECTOR ................................................................... 8 3.3 OPERATION TIME AND BATTERY CHANGE ...................................................................... 11 3.4 MOUNTING INFORMATION ........................................................................................ 12 4. PC-SOFTWARE â 4.1 INSTALLATION ......................................................................................................... 13 4.2 A N A L Y Z E R .................................. 13 4.1.1 General software installation ....................................................................................... 13 4.1.2 USB driver ................................................................................................................ 13 GENERAL USE OF PC SOFTWARE .......................................................................... 14 4.2.1 Establishing a device connection .................................................................................. 14 4.2.2 File area ................................................................................................................... 15 4.2.3 Message window (log) ............................................................................................... 15 4.2.4 View of measurement data .......................................................................................... 15 4.3 MICROSHOCKDETECTOR .......................................................................... 17 4.3.1 Readout of status, configuration and measurement data .................................................. 17 4.3.2 measurement data, status, thresholds ............................................................................ 18 4.3.3 System events ............................................................................................................ 19 4.3.4 Acquisition periods .................................................................................................... 20 4.3.5 Synchronous data ...................................................................................................... 20 4.3.6 Alarm event table ....................................................................................................... 21 4.3.7 Shock events and shock curves .................................................................................... 21 4.3.8 Configuration of the MicroShockDetector ...................................................................... 25 -2- MicroShockDetector 5. FIRMWARE-UPDATE ............................................................................... 28 5.1 PREPARATION ..........................................................................................................28 5.2 CARRYING OUT UPDATE .............................................................................................29 6. DECLARATION OF CONFORMITY ............................................................ 30 WARRANTY CERTIFICATE ................................................................................. 31 -3- MicroShockDetector 1. INTRODUCTION 1.1 SCOPE OF DELIVERY Thank you for having chosen the MicroShockDetector. Scope of delivery1 (standard): ď ďˇ ďˇ MicroShockDetector, incl. 1 R6 (AA, Mignon) exchangeable lithium battery 3.6 V / 2500 mAh, Installation CD ď§ Configuration software â Analyzerâ with integrated software help Driver for USB interface ď§ Operating instruction in electronic form (PDF) ď§ ď§ Application examples, guide for transport monitoring ďˇ Hard copy of the operating instruction, language according to the order ďˇ USB 2.0 interface cable (type A â type Mini AB) In order to be able to further optimise our products for the respective applications, we are always open to suggestions and change requests on your part. 1) The scope of delivery can deviate from the standard due to special contract agreements! -4- MicroShockDetector 1.2 FUNCTIONALITY MicroShockDetector is a small, universal and cost-effective data logger. Designed for long-term measurement applications, it is ideally suited for the monitoring of transport goods and critical environments. The integrated sensor system for the detection of shock events and for temperature measurement enables different measuring applications. Configurable alarm thresholds provide reliable detection of limit value exceedances. Shock loads are recorded and assessed in real time, the temperature is recorded in an adjustable interval. The compact and mains-independent design allows an easy fastening on or in the transport goods or transport devices with screws, magnetic bases or glue pads. The housing of the device protects against dust and water (Protection level IP 67) and is therefore also suitable for outdoor use. The MicroShockDetector can thus be used as a universal product companion in the international goods traffic in storage spaces, in transit points and on the rails, also in the water and air traffic. The power supply is realized by a standard, replaceable lithium battery. Due to the very low power consumption and the very long maintenance-free operation time the MicroShockDetector is ideally suited for autonomous long-term applications. Energy-optimized operational settings allow an autonomous running time period of typically 2 years. Analyzer allows an easy and intuitive The royalty-free configuration program configuration of the device. It offers a comprehensive adjustment of the device functions to your application-specific requirements. In addition to the detailed analysis of the device data in measurement tables and graphs, the program also provides export functions in external applications (for example Microsoft Excel). Communication takes place via a USB interface. By the report function an overview of the measurement data, including classification of all shocks in acceleration classes and activities of the device will be created immediately without necessary settings. -5- MicroShockDetector 1.3 ENVIRONMENTAL AND SAFETY INSTRUCTIONS Environment & Disposal The MicroShockDetector contains, except the internal battery, no corrosive or environmentally damaging substances. Used batteries must be immediately removed from the device and afterwards disposed of in an environmentally friendly manner, according to the applicable legislation. Lithium batteries are hazardous waste. Battery operation The power supply in the MicroShockDetector is realized by a replaceable lithium battery (Typ AA|LR6) 3.6 V 2500 mAh. The battery is not considered as dangerous good and can be purchased in the specialist stores or by the equipment supplier. Operation is not possible with 1.5 V batteries. ATTENTION! Use only intrinsically safe batteries. In case of non-compliance with the national regulations/laws applicable in the handling of lithium batteries, any liability and warranty claim becomes void! Decommissioning In case of decommissioning the devices must be properly switched off and all batteries must be removed from the cases. -6- MicroShockDetector 2. TECHNICAL DATA Shock values 200 shock events, thereof 10 greatest events with signal curve of 4 sec duration; resolution 2 ms; valuation from the view point of 3d space vector size Acceleration sensor 3D-MEMS measuring range Âą 8 g ; 1 mg resolution; Âą (2 % range + 5 % value) at 13 Hz / 20 °C; Âą (3 % range + 6 % value) at 13 Hz / -20 °C / +60 °C filter cut-off frequency 25 Hz fixed Shock classification Classification of shocks by amplitude in classes, number of shocks is not limited; >0.25; >0.5g; >1g; >1.5g; >2g; >3g; >4g; >5g Temperature Measurement -40°C to +65°C Âą 1°K (-40°F / 150°F); 100.000 measurement values Indicators 2 LEDs, for Status and exceeding Alarm limit controls One pushbutton for control and switch on/off password protected Connections Mini USB 2.0 Operating conditions -40°C to +65°C; -40°F to +150°F; up to 98% rel. humidity Power supply Standard replaceable Lithium battery, size LR06 (AA, Mignon); 3.6 V 2500 mAh (Saft LS14500 or comparable), Typical runtime 24 months in the switch-on period data retention Retention of measured data independent of battery for at least 10 years Dimensions 108mm x 48mm x 30mm (LxWxH) 146mm x 50mm x 40mm (LxWxH mounted on magnetic feet) Case material, weight plastic housing with stainless steel plate on bottom, mass circa 180g standalone, (380g total with magnetic feet) Protection IP67 Calibration Manufacturerâs calibration valid for 2 years Configurable parameters X,Y,Z recording threshold, X,Y,Z alarm threshold, minimum shock duration, temperature measurement interval, Start-Stop-time (runtime), password protection, via free Windows software Data evaluation Also with the Windows software displayable: Measurement tables, curve graphics, active periods of the device, export functions, reports, statistical analysis, battery monitoring Software update The device updates are provided by the manufacturer for the Windows software and for the firmware -7- MicroShockDetector 3. DEVICE DESCRIPTION 3.1 DEVICE STRUCTURE / DEVICE VIEW 1 On/off/control key 5 Name plate incl. serial number 2 Status LED green/red 6 USB port with cap 3 Alarm LED red 7 Battery cover 4 Temperature sensor 3.2 OPERATION OF THE MICROSHOCKDETECTOR For the operation of the device there is a control key which function is depending on the current status and the duration of the key press. The current status is indicated with 2 LEDs. -8- MicroShockDetector Checking the device on-state To determine whether the device is switched on or off, press briefly the control key (<2 s): status LED does not light up ď the device is OFF status LED lights up briefly ď the device is ON Switching on device For switching on device, press briefly the control key for at least 2 seconds until the status LED lights up. Then release the key. If the device is equipped with an on/off code, then it can only be activated via the software. This is indicated by the lightening status LED at least for 20 sec. If the software activation is not performed the device switches off again after 20 seconds. To activate the device, connect it during the lightening of the LED to a PC and start the Analyzer. During the reading out the device it will be detected that the device is protected with password. At this point you should enter the device password. Follow the instructions of the software to activate the device. Explanations on the configuration of the on/off code you can find in Chapter 4.3.8 in the section â Password configuration". If no code is necessary, the device begins data recording immediately. Switching off device To switch off the MicroShockDetector, press briefly the control key for at least 2 sec. until the LED alarm lights up red. If the key is still pressed, the status LED lights up red for 1 sec. Now they can be released. The device switches off. This can be checked by short pressing the key. If you release the key during the lightening, the device will be still switched on. If the device is equipped with an on/off code, then it can only be deactivated via the software. To signal this, the LED status starts rapid lightening red. To switch off the device, connect it to a PC and start the Analyzer. During the reading out the device it will be detected that it is protected with password. At this point you should enter the device password. By the tab "Configuration" and the key "Password configuration" you can switch off the device. Explanations on the configuration of the on/off code you can find in Chapter 4.3.8 in the section âPassword configuration". -9- MicroShockDetector Secondary condition Successor status device LED status green LED status red LED alarm red Idle task Operational readiness A0 Off Off A1 System error A1 Off Off A2 Critical battery status A2 Off Off A3 Exceedance of alarm threshold A3 Donât care Donât care Donât care Donât care Donât care Off Measurement activated A0 possibly A3 1s off Measurement deactivated A0 possibly A3 off B3 Alarm event available A3 B4 System error A1 100ms of all 200ms Donât care off Critical battery status A2 off 1s Without active power-off protection by password Ax or B6 off off C0 off 1s Ax (power-off protection by password) off 100ms of all 200ms off C0 C0 off off off off off off C0 Ax off 2s off off off off Ax after valid PW entry on software in 20s C0 after 20s without PW entry 0,5s of all 1s 0,5s of all 1s off Ax on off Off Status Condition Device status Display the function state A0 B1 Device on Device on B2 B5 Pressing Key Control 2sâ¤t<4s Pressing Key Control tâĽ4s Pressing Key Control t âĽ2s B6 B7 C0 C1 Pressing Key Control t<2s Device off C2 C3 Pressing Key Control t<2s Pressing Key Control tâĽ2s C4 D0 Device on With active power-off protection by password Battery empty Without active power-on protection by password With active power-on protection by password Measurement data recording - 10 - Donât care 1s Donât care Donât care 1s Donât care Donât care 200ms of all 400ms off MicroShockDetector 3.3 OPERATION TIME AND BATTERY CHANGE Operation time The device runtime of MicroShockDetector depends on the set measurement parameters, the battery type and the use conditions. The number of shocks on the triggering threshold of the device is mainly decisive. Assuming that the device is activated by the shock up to a maximum of 100,000 times, the typical runtime of a battery is about 2 years. The actual remaining battery charge is monitored by the device and displayed by the software. Battery change Prior to a battery change the MicroShockDetector must be properly switched off, otherwise the data loss of the device cannot be excluded. For the change of the battery proceed as follows: 1) Remove the battery cover by loosening the fastening screws by means of a screw driver. (Cross slot H size 1). Afterwards, you can pull out the battery out of the battery holder. 2) Now, insert the new battery according to the specified polarity into the device. 3) In a last step, screw again the battery cover onto the device. Pay attention to the maximum tightening torque of 0.3 Nm and the correct position of the seal. Attention: Ensure the correct polarity when inserting the batteries! - 11 - MicroShockDetector 3.4 MOUNTING INFORMATION The device can be mounted on the transport material by 2 mounting screws (see Image 1), according to the mounting halls. Optionally, the device can also be mounted using magnetic bases on magnetic surfaces. The use of the glue pads is also possible if they do not have a shockabsorbing foam coating. Mounting holes Image 1: Dimensions and mounting information of the MicroShockDetector (dimensions in mm) - 12 - MicroShockDetector 4. PC-SOFTWARE â The evaluation programme ANALYZER Analyzer can be used both for the readout and configuration of the MicroShockDetector and other devices. It is intended for the display and analysis of the recorded data in tabular/graphic form. Furthermore, data sets can be saved locally on your PC or loaded from your PC. 4.1 INSTALLATION 4.1.1 General software installation The included CD contains the software installation Analyzer, the driver for the USB interface and documentation. Please start the installation by double clicking on the file "setup.exe" and follow the instructions. Note: To install the software and the USB driver you need administrator rights on the PC 4.1.2 USB driver If the MicroShockDetector is connected for the first time it may be necessary to install a USB driver on the PC. The "FTDI CDM Driver" is included on the installation CD and is set with the software installation if it is not already present on the PC. Now connect the MicroShockDetector by means of the included USB cable with your PC. While the device connects to the PC the status LED lights up green. After the LED has gone off, the USB is ready and you can read data from the device with the - 13 - Analyzer. MicroShockDetector 4.2 GENERAL USE OF PC SOFTWARE 4.2.1 Establishing a device connection If the device driver is installed, the connection, as a rule, will be automatically established upon the start of the evaluation software, if a device is connected via USB. If the evaluation software has been active before plugging of the device or you want to connect a device to a different COM port, select the device via the USB menu at the top right. In case of connection problems: If the USB connection is not initiated correctly select the Refresh button (blue double arrow), disconnect the USB cable from the device and reconnect it. Image 2: USB connection window, connection established to COM19 After a successful USB connection, the status data of the connected device are displayed: Image 3: Status view - 14 - MicroShockDetector By the icon or menu âFile / Download measuring dataâ you can load the additional measurement data, as described in Section 4.3.1. 4.2.2 File area The data read out by the device from the USB can be saved by icon or menu âSave fileâ on a data carrier. Please observe that the measurement data are included in the file only if it has been read out by . In the other case only the status data are included. The saved data can also be loaded in the PC programme. The button a file. One click on the button with the 4.2.3 âOpen file âopens the dialog for choosing Excel icon exports the read out data in an Excel file. Message window (log) The message window, which can be found as a programme tab âLogâ, renders possible an overview on the actions performed by means of the programme or the status changes of the device during the established USB connection. Error messages and notes, e.g., for performance of configuration commands, connection setup to devices, saving of data, etc. are listed here. Image 4: Log window 4.2.4 View of measurement data The measurement data should first be read out as described above, either from a connected device or exist in an open file. The representation is possible in each case as a graph or table. - 15 - MicroShockDetector Graphs In a graph it is possible to zoom in. For this, draw up a selection window using the mouse (see Image 5). The view can be shifted using the held right mouse button . By moving the mouse wheel up/down concentric zooming is carried out. The standard zoom is restored by a double click on the graph or using the button Image 5: Zoom selection window Sorting function in tables For tables a sorting function is available. This is carried out by clicking on the respective column in the table header. This facilitates the finding of maximum/minimum values. The sorting is made alternately in ascending and descending order. The data sets remain unchanged by this. Image 6: Sorting table columns - 16 - MicroShockDetector 4.3 MICROSHOCKDETECTOR 4.3.1 Readout of status, measurement data configuration and After connecting to the device status data, configuration and acquisition periods are automatically read and displayed as described in Image 3. The measurement data, such as temperature data or shock curves are manually requested by the button . This may take a few seconds to several minutes, depending on the number of data records. A progress bar shows the current selection status. According to the available measurements the associated program managers and graphs are opening. A detailed description of the program areas can be found in the following chapters. Please do not disconnect the USB cable from your PC or MicroShockDetector as long as data transmission takes place! Image 7: Overview after reading the measurement data of a MicroShockDetector The view period of data can be limited to the desired time range by the view period. This simplifies data analysis and finding of certain events. Enter in the fields the desired start and end date and confirm your entry using the Enter key on your keyboard or the green button on the input field on the right. The view period can also be adjusted using the slide bar, where the blue bars are moved by the mouse (see Image 8). Image 8: Slide bar for view period - 17 - MicroShockDetector 4.3.2 measurement data, status, thresholds The paremeters, represented on the Image 7, have following meanings: Measurement data (Column 1): ďˇ Synchronous data: number of the continuously stored data records of the temperature measurument ďˇ Acquisition periods: number of the time periods, when the module was ready to measure ďˇ System events: number of the external events (see Section 4.3.3) ďˇ Alarm events: number of the events when at least one alarm threshold was exceeded ďˇ Shock events: number of the shock records, which have exceeded thresholds ďˇ Shock counter: total number of the shocks which have led to the activation of the device Status data (Column 2): ďˇ Device name: device name, selected by the user (freely selectable) ďˇ Serial number: serial number of the device (unchangeable) ďˇ Recording start: beginning of the measuring or running ďˇ Recording stop: end of the measuring or infinite ďˇ Synchronous interval: time interval for the time-synchronous (continuous) recording of the temperature ďˇ System time: internal time of the device ďˇ Startup date: date of the first start up ďˇ Operating time: total running time of the device ďˇ Battery voltage: actual voltage of the battery ďˇ Battery charge: remaining battery charge, details will be shown by clicking on the battery icon ďˇ Firmware version: actual firmware version of the device ďˇ Hardware version: actual hardware version of the device - 18 - MicroShockDetector Shock event thresholds (Column 3): ďˇ Shock magnitude x,y,z: minimal amplitude of the acceleration (storage criterion); is adjustable and activatable for each axis ďˇ Shock strength: minimal âArea under the curve of the resultant space vectorâ, additionally adjustable storage criterion ďˇ Shock duration: minimal duration of an impact (storage criterion) ďˇ Shock alarm x,y,z: acceleration value, from which an alarm event is generated, is adjustable and activatable for each axis The threshold values, marked by a filled circle â˘, must be all reached at the same time to store a shock event. 4.3.3 System events The system events show events that concern the status and the operating behaviour of the sensor module. Existing errors in the hardware are also recorded. The display field for system events is normally hidden and can be displayed by activating the menu option âSettings - Advanced diagnosticsâ. The corresponding view opens in the lower image area. The events can be displaced by the bar. The following system events can occur: ďˇ Start: The sensor module was switched on ďˇ Hour counter: 24 h of operating time of the sensor modules are expired ďˇ Device configured: The sensor module was configured. ďˇ Channels configured: Alarm events/Thresholds were activated/changed ďˇ Device switched off: The sensor module was switched off ďˇ Time synchronized: The system time of the device was configured ďˇ USB aktive: The event was generated by activities of the USB interface Image 9: Display of system events of a - 19 - MicroShockDetector MicroShockDetector 4.3.4 Acquisition periods The acquisition periods offer an overview of the individual configuration time segments of the MicroShockDetector. This way it can be retraced how the sensor module was configured at the respective period. Image 10: Table of acquisition periods The start and end time, the active time period and the reason which has led to the completion of the acquisition period are shown. Furthermore, all set thresholds and event channels are registered for the period. A new acquisition period begins, if the device was switched off or has been configured. 4.3.5 Synchronous data Synchronous data are measurements, synchronously and continuously recorded at a fixed interval. The records are continuously displayed in a table (see Image 11). In the program tab "Synchronous data graph" the synchronous data are displayed graphically. The measurements of the cursor position are displayed in the legend on the right side of the graph. Table of the temperature measurements Image 11: View of synchronous data table - 20 - MicroShockDetector Graph of the temperature measurements Image 12: View of synchronous data graph 4.3.6 Alarm event table Alarm events include all shocks have exceeded at least one of the alarm thresholds. (see Image 13). Image 13: View of alarm events 4.3.7 Shock events and shock curves MicroShockDetector registers 200 shock events by the set threshold values and the 10 largest shocks of it to the curve progression of over 4 seconds. All shock events are tabular performed under the program tab âShock event tableâ. The corresponding curve can be invoked by double-click on the table row, if the circle symbol ⢠is available in the column "Curve". - 21 - MicroShockDetector Image 14: Shock event table Image 15: Shock curve graph The shock curves can be browsed by the overlying scrollbars. By activating or deactivating the "Hook" in the legend on the right side, the x,y, z-channel and the amount curve can be blended out (see Image 15). The vertical graph axis is switched between the maximum values of the curve and the full measuring range of Âą 8 g by the button âAxis of ordinateâ. Principle of the shock recording: The shock recording starts when the value of the acceleration exceeds the internal trigger threshold of 0.25 g on at least one measurement channel (approximately 3% of the measuring range). The measuring points are continuously recorded with 500 Hz per channel, filtered on an upper cut off frequency of 25 Hz and it selects separate shock impacts. A shock impact starts exceeding the trigger threshold on at least one measurement channel and ends when the main thrust (channel with the absolute maximum of shock) changes sign (zero crossing) or all 3 channels fall - 22 - MicroShockDetector below the trigger threshold again. Within a period of 4 s more shock impacts can occur, for example, by vibration. The impact with the largest amplitude is evaluated at the end of a curve period and compared with the configured criteria. A shock curve is permanently stored if the registration thresholds met on at least one measurement channel, shock strength and shock duration for this shock impact. Impact 2 Impact 1 Image 16: valuation of shock events As a shock event is considered the largest single impact within the sampling time of 4 s, which meets all the set conditions (amount of shock, shock strength, shock duration) (in this example Image 16 Impact 1). In addition to the measurement of the 3 channels, a value for the space vector and integrated value for the shock strength of this impact are calculated at each measurement point. The shock strength is equivalent to the difference speed. Space vector: đ = â(đĽ 2 + đŚÂ˛ + đ§Â˛) Shock strength: đđŁ = âđ0 đ â 2đđ Space vector X axis Y axis Z axis Image 17: MicroShockDetector main axes of acceleration - 23 - MicroShockDetector Shock classification The MicroShockDetector evaluates the acceleration amplitude of all shocks separated by the thrusts X, Y and Z and the resulting space vector R. All shocks are specified by the amplitude in laid down threshold classes regardless of whether these are stored as shock events or shock curve with timestamp and measurement. It is displayed as a table and graph (Image 18). Image 18: Shock classification Acceleration progress graph Recorded shock events with their maximum acceleration amplitudes are shown in a line graph (Image 19). It is possible to zoom into the curve shape in. By the button "Calculate average" statistical values of acceleration are calculated on all shock events. Image 19: Acceleration progress graph - 24 - MicroShockDetector 4.3.8 Configuration of the MicroShockDetector The configuration section is only visible if a device is connected to USB, which you can configure. When viewing records from files this window does not appear (Image 20). Image 20: Configuration of the device For the meaning of the used settings see also Section 4.3.2. By the icon default settings. you can restore the The buttons have the following functions: ďˇ Time synchronisation: synchronizes the clock in the device to PC time ďˇ Setup new battery: resets the battery consumption meter after the change of the battery in the device ďˇ Send configuration: sends the all settings to the device ďˇ Erase memory: deletes the all data in the memory of the device ďˇ Password configuration: allows you to change the device password Configuration of the registration thresholds The correct configuration of the registration thresholds is fundamental for the storage of the shock measurements. A shock must reach the shock amount, specified at least on one axis X, Y or Z and at the same time the minimum shock length. When a value greater than 0 m/s is entered, the shock strength must be also met as a criterion (see also Section 4.3.7 Principle of the shock recording). - 25 - MicroShockDetector Change of the synchronous interval and configuration of the alarm events: The configuration of the synchronous interval is performed using the selection fields "Synchronous interval" in hours and minutes (Image 20). During the configuration of the zero no record of the time-synchronous temperature measurements takes place. The entry fields for the limit values of the alarm events are next to it. On the basis of the configured thresholds, alarm events are saved if exceeding the threshold is detected during the measurement run. Erase Memory: The function âErase Memoryâ erases the all data, stored in the device. Attention! Ensure that you have completely read out the data and saved them as *.msd file before erasing! Erased data cannot be restored! Password configuration: It is possible to protect the device with a password. All accesses via USB are blocked by password activity until the password is entered correctly. The password may contain up to 8 characters. By clicking on the green tick the new password is transmitted. Note: To remove a password again, leave the field "New password" empty. Image 21: Creating/changing password ďˇ Password: Enter the current password ďˇ New password: Enter the desired new password ďˇ Confirm password: Please enter the new password for confirmation - 26 - MicroShockDetector Change of the device name: The device name of the MicroShockDetector can be changed by the user. The maximum of up to 16 characters is available. The designation will be saved and transmitted to the device by pressing the ENTER key on your keyboard or by clicking the button next to it on the right. The designation can be selected individually. It makes sense to name the designation according to measuring point, measurement task, etc. (for example, "Transport 1"). Adjust recording period: The desired recording period for the device can also be set by the user. If a recording period is defined, the measurement recording begins at the starting time. By exceeding the stop time point, the measurement recording is stopped. If the entry fields are not empty, the measurement recording runs as long as the device is switched on. The entry of the starting and stop time proceed in local time in date format: dd.mm.yyyy hh:mm:ss (Day.Month.Year Hour:Minite:Second) The configuration of the recording period is possible by pressing the ENTER key on your keyboard or by clicking the button on the right. Configuration of the device time: The synchronization of the system time is done by clicking on the clock icon. The device works internally with Coordinated Universal Time (UTC). This is the same all over the world, this means independent from the time zones. The PC program shows, however, depending on the time zone setting of your PC, the time, converted to your local system. - 27 - MicroShockDetector 5. FIRMWARE-UPDATE 5.1 PREPARATION Through a firmware update, a MicroShockDetector receives an updated application program if this update file is provided by the manufacturer. Prior to the firmware update the following points must be observed: ďˇ The activation of the update mode can only be carried out, if the MicroShockDetector is switched off. If your device is still switched on, please switch it off. ďˇ Have ready the included mini USB cable and plug one end of the cable in a free USB port of your computer for the preparation. Do not plug the USB cable into the MONI LOGÂŽ device yet! ďˇ Ensure that on your computer no sensor network PC programmes are executed and all necessary drivers are installed. Attention! Back up all measurement, diagnostics and configuration data of your device prior to the firmware update to prevent a possible data loss. The memory is reset to default settings. In the switched off condition of the device connect the USB cable and keep the control key pressed (~1 second, status LED is illuminated green) until the status LED starts to flash red with 1 Hz. The update mode is active now. It only remains active as long as the USB cable is connected. If the control key is released before the detection of the update mode, the device starts the normal operating mode. Proceed now with the instructions according to chapter 5.2 âCarrying out updateâ. - 28 - MicroShockDetector 5.2 CARRYING OUT UPDATE After you have started your device in the update mode, start the PC software. The PC software should automatically detect the device which is in the update mode and open a window to select an âEncrypted Hex Fileâ. After selecting the update file the charging process, which must not be interrupted, starts. The status LED illuminates red permanently. Image 22: Firmware update If the progress bar shows 100%, then the message of the successful completion of the update appears. Image 23: Information message after successful firmware update To start the normal operating mode of the device, unplug the USB cable. The red LED goes out on the device. The device can be switched on normally again. If the update process fails, a corresponding error message is displayed (see Image 24Image 24), the device switches off independently. Due to the update interruption the device firmware could not be completely installed. In some circumstances, the device is not switchable any more in the normal operating mode due to this. Please repeat the update process according to the instructions of the entire chapter 5 âFirmware-Updateâ. Image 24: Information message after failure of the firmware update - 29 - MicroShockDetector 6. DECLARATION OF CONFORMITY still in progress - 30 - MicroShockDetector WARRANTY CERTIFICATE ď˘ MicroShockDetector Against submission of this warranty certificate we grant a 12-month warranty from the date of delivery for the above instrument. In case of deficiencies we first have the right of rectification, either rectification of the deficiency or subsequent delivery. Should the rectification fail, and only then, we will take back the instrument and reimburse the purchase price. Any further warranty claims shall be excluded. This warranty covers all faults that impair the proper functioning of the instrument due to technical defects of individual components or assemblies. Batteries and rechargeable batteries as expendables are not covered by this warranty. This warranty will only be granted if the instrument has been used properly for its intended purpose. Any attempts of the warrantee or third persons to repair the instruments or to intervene in any other way exclude warranty claims. Any mechanical damage which is the result of undue stress also excludes warranty claims. We will immediately notify the warrantee of any repair work excluded from warranty coverage. If the instrument is sent in together with the warranty certificate, this will be considered as a repair order for the elimination of all damage. The warrantee can exclude partial services. In case of any malfunctions of the instrument, please state the serial no. You can find it on type label or on the logs when evaluating your data. SMT & HYBRID GmbH Telephone: +49 351 / 266 13 0 An der PrieĂnitzaue 22 Fax.: +49 351 / 266 13 10 D â 01328 Dresden Email: info@smt-hybrid.de GERMANY Copyright The software is protected under the amended copyright law. Copies (with the exception of backup copies) may only be made after express permission by SMT & HYBRID. - 31 -
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