SWR ENGINEERING envea M-Sens 2 FD User Manual

EN
M-Sens 2 FD
Online moisture measurement with fl ow detection for solids
Operating Instructions
CONTENTS Page
1. System overview . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3
2. Function . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5
2.1 Flow detection function . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5
3. Safety . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6
3.1 Regular use . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6
3.2 Identification of dangers . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6
3.3 Operational safety. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6
3.4 Technical progress . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6
4. Mounting and installation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7
4.1 Delivery range . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7
4.2 Auxiliary . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7
4.3 Mounting of the sensor . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7
4.4 Mounting of the transmitter . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11
4.5 Use in the explosion hazard area . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 13
5. Electrical connection . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14
5.1 DIN Rail housing . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14
5.2 Field housing terminal layout . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 15
5.3 Terminal layout C-Boxes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16
6. Commissioning . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 17
7. Menu structure of M-Sens 2 FD . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 18
8. Operator interface . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28
8.1 Differences between the DIN Rail and field housing transmitter. . . . . . . . . . . . . . . . 28
8.2 Display . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 29
8.3 PC interface . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 31
9. Maintenance . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .33
10. Warranty . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 33
11. Troubleshooting . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 33
12. Technical data . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 34
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1. System overview
A complete M-Sens 2 FD unit consists of the following components:
1 welding fl ange per sensor
1 to 3 sensors with 2 m connecting cable
Transmitter MSE 300 up to 3 sensors in a DIN Rail housing or a fi eld housing
C1-Box or C3-Box for connecting sensor(s) and transmitter
Sensor
2 m cable converted
fixed at the sensor
C1-Box
1 2 3 4
max. 300 m
1 2 3 4
Transmitter
up to 300 m with
correct cablediameter
16 (+ 24 V) 15 (GND) 14 (A) 13 (B)
Fig. 1: Overview with C1-Box and DIN Rail transmitter
The sensor is connected by a shielded, 4-wired cable to the transmitter; the maximal distance between these devices can be at most 300 m.
Sensor
Transmitter
(MSE 300)
2 m cable converted
fixed at the sensor
Fig. 2: Overview with C1-Box and fi eld housing transmitter
C1-Box
1 2 3 4 S
max. 300 m
1 2 3 4 S
up to 300 m with
correct cablediameter
1 (+ 24 V) 2 (GND) 3 (A) 4 (B) Shield
3
TransmitterC3-Box
Sensor
Sensor
Sensor
2 m
max. 300 m
1 (+ 24 V) 2 (GND) 3 (A) 4 (B) Shield
Transmitter
C3-Box
2 m
max. 300 m
16 (+ 24 V) 15 (GND) 14 (A) 13 (B)
Sensor
Sensor
Sensor
The system can be equipped with up to three sensors. Different C-Boxes (C1, C3) are used accordingly.
Fig. 3: Overview with C3-Box and fi eld housing
Fig. 4: Overview with C3-Box and DIN Rail transmitter
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2. Function
The M-Sens 2 FD sensor functionality is based on precise high-frequency measurement and direct digitalization of measured values, where from results a high resolution. As the material surface and capillary moisture influences strongly its specific conductive capacity, the moisture can be measured exactly by a constant averaged bulk density. By way of support, any fluctuations of the measuring value caused by the bulk density are balanced through an internal filter function. Temperature-related fluctuations of the measuring value are automatically compensated by the sensor. On the installed system, the calibration is a matter of pushing a button and entering the moisture reference value.
Material to be measured
Flange
Sensor
Fig. 5: Coupling and reflection of the high frequency
2.1 Flow detection function
The M-Sens 2 FD is also able to detect if the material in front of the sensor is flowing or not. This function can help you to validate the accuracy of the moisture measurement and quickly detect process failure such as a defective screw conveyor.
If activated, the flow detection function will create an alarm via the relay. See “Alarm” menu.
5
3. Safety
The measuring system M-Sens 2 FD designed and built according the latest technology has been tested to be safe and was shipped in safe condition. Nevertheless persons or objects may be endangered by components of the system if these are operated in an inexpert manner.
The operating instructions must therefore be read in its entirety, and the safety instructions must be adhered to. If the device is used in a way that does not adhere to its intended and/or proper use, any liability or warranty on the part of the manufacturer is void.
3.1 Regular use
Only original spare parts and accessories of ENVEA - SWR engineering must be used.
3.2 Identification of dangers
Possible dangers when using the measuring system are marked by the following symbols in the operating instructions:
Warning!
This symbol in the operating instructions marks actions, which may represent a danger for life and limb of persons when carried out in an inexpert manner.
Attention!
All actions which may endanger objects are marked with this symbol in the operating instructions.
3.3 Operational safety
The measuring system must be installed by trained and authorized personnel only.
Switch of the power supply for all maintenance, cleaning or inspection works on the tubes or on components of the M-Sens 2 FD. Follow the notes of the chapter maintenance.
Sensor must be removed from the installation place before any welding work in the area.
The components and electrical connections must be checked for damages regularly. If a damage is found, it is to repaired before further operation of the instruments.
3.4 Technical progress
ENVEA - SWR engineering reserves the right to adapt technical data to the technical progress without particular advance notice. If you have any questions, ENVEA - SWR engineering will be pleased to inform you on possible changes and extensions of the operating instructions.
6
4. Mounting and installation
4.1 Delivery range
Evaluation unit in DIN Rail housing or field housing
Sensor
Operating instructions
C1-Box or C3-Box
Welding flange
4.2 Auxiliary
Screw driver 2.5 mm
Allen key 5 mm
4.3 Mounting of the sensor
M-Sens 2 FD is designed for continuous moisture measurement. Most important conditions for correct measurement is the right choice of the mounting place of the sensor. That is, when using chutes or conveyor belts, it is very important to have a almost even material height in front of the sensor window.
The flange is welded without sensor and dummy plate in the opening at determined mounting place. Sensor and dummy plate are mounting by means of plumbing lubricant. For applications without over­pressure it is possible to renounce the 2 sealing rings.
Attention!
The flange mustn’t be welded together with the sensor or dummy plate (incl. the sealing rings).
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APPLICATIONS - PRACTICAL EXAMPLES
Installation in a screw
The installation of a moisture sensor in screw feeders proved to be very advantageous, since the material passes by the sensor window in even intervals and with relatively constant bulk density.
13,1
Moisture
%
Screw feeder
Installation on a conveyor belt
By means of the online moisture measurement of solids on a conveyor belt, the operator can react in due time if the material is too humid or too dry. In consequence, plugging of subsequent aggregates can be prevented.
1,8
%Moisture
Conveyor belt
8
Installation in a bin
Another installation alternative is to mount a sensor at a bins outlet. Due to constant bulk density in case of a filled bin, the sensor finds an almost unchanging measuring field for monitoring the residual moisture. Thus, M-Sens 2 FD avoids that too damp material reaches the next production level or arrives into the loading.
5,2
%Moisture
Bin
Control of dryer by means of moisture measurement
After the material, lying on the belt, has passed through the dryer tunnel, it gets withdrawn from the hot air zone. At the end of the belt the dried material falls in a screw conveyor which transports it to the processing. The operator queries the following points: Has the material reached really the desired residual moisture value? That is, has he chosen the right cycle time and temperature?
M-Sens 2 FD provides accurate and reliable online moisture values for the process control, by which constant moisture in close tolerances of the output material can be met. This process optimization enables the operator to manage high savings and quality improvements.
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Moisture measurement in a mixer
M-Sens 2 FD can be installed, even later on, in all types of mixers. The measuring values logging is done by within the moving material during the mixer procedure. With the measured moisture value of the material in the dryer process parameters like detention time and dosage quantity can be controlled. For this purpose M-Sens 2 FD is connected to a PLC or another process control system.
Mixer
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4.4 Mounting of the transmitter
The transmitter can be installed at a maximum distance of 300 m from the sensor. A cable of type “Ölflex Classic 110 CY” is recommended. The cable should be four wired, twisted and shielded. A minimum cable cross-section of 0.75 mm² should be observed. For distances more than 150 m the cable cross-section should be adjusted.
The housing is prepared for DIN Rail mounting according to DIN EN 60715 TH35.
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2 3
1
5
4
7 8
6
PWR
90
RUN
35
USB
10 11
14 15
12
16
9
13
Fig. 12: Dimension of transmitter in DIN Rail housing
118
Fig. 13: Dimension of transmitter in field housing (front view)
11
5 mm
175 mm
35 mm
35 mm
35 mm
163 mm
23,5 mm
57 mm
52 mm
80 mm
max.
13 mm
max.
13 mm
max.
13 mm
max.
13 mm
5 mm
Fig. 14: Field housing for the C1-Box
max.
13 mm
max.
13 mm
50 mm
125 mm
113 mm
52 mm
80 mm
57 mm
4,8 mm
4,8 mm
Fig. 15: Field housing for the C3-Box
The C1-Box and C3-Box contain fuses and resistances in order to guarantee the communication by the ModBus between sensor and transmitter.
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Explosion hazard area DustEx zone 20 GasEx zone 0
Non-explosion hazard area
Tmax = 80 °C
Tmax = 80 °C
4.5 Use in the explosion hazard area
DustEx labelling: II 1D Ex maD iaD 20 T120 °C
- Group of equipment 2
- Equipment category: 1
- Zone 20
- For explosive mixtures of air and flammable dust
- Permissible process temperature 0 ... 80 °C
- Maximum surface temperature 135 °C with Ta = 60 °C
GasEx labelling: II 1G Ex ma ia CII T4
- Group of equipment 2
- Equipment category: 1
- Zone 0
- For explosive mixtures of air and flammable gases
- Permissible process temperature 0 ... 80 °C
- Maximum surface temperature 135 °C with Ta = 60 °C
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5. Electrical connection
5.1 DIN Rail housing
Current output
1 2
- 4 ... 20 mA
5 6
Not used Alarm relay
1
5
Current output
+ 4 ... 20 mA
NC (break contact)
2 3
6
4
7 8
PWR RUN
Input
3 4
Power supply
0 V DC
7 8
Alarm relay
C
Sensor Transmitter
Input
Power supply
+ 24 V DC
Alarm relay
NO (make contact)
USB
10 11
9
14 15
13
Fig. 17: Electrical connection of the transmitter
9 10 11 12
Digital
pulse output (-)
Sensor connection
13 14 15 16
Cable 4
RS 485 Data B
12
16
Digital
pulse output (+)
Sensor connection
Cable 3
RS 485
Data A
Fig. 18: Electrical connection of the C1-box
RS 485
Interface
Data B
Sensor connection
Cable 2 Power
supply 0 V
RS 485
Interface
Data A
Sensor connection
Cable 1
Power
supply + 24 V
14
5.2 Field housing terminal layout
L N PE
I-in 1
I-out 1
+ -
I-out 2
I-out 3
Alarm Relay
NO C NC
D-out
RS 485
A B
GND
D-in 1
D-in 2
Sensor
+ - A B
Shield
+ -
+ -
+ - + -
+ -
+ -
Fig. 19: Electrical connection
Transmitter Terminal No. Connection Power supply connection
L / +24 V Input power supply 230 V / 50 Hz, 110 V / 60 Hz (optional 24 V DC) N / 0 V Input power supply 230 V / 50 Hz, 110 V / 60 Hz (optional 24 V DC) PE Earth
Connections
I-in1
I-out1
Min. / Max.­Relay
D-out
RS 485
D-in1
D-in2
Sensor
+ Current input +
- Current input -
+ Current output +
- Current output - Na Not used Na Not used Na Not used Na Not used
NO Floating change-over contact NO (make contact)
C Floating change-over contact C (common conductor)
NC Floating change-over contact NC (break contact)
+ Digital pulse output +
- Digital pulse output -
A RS 485 interface data A B RS 485 interface data B
GND RS 485 interface ground
+ Digital interface 1 (+)
- Digital interface 1 (-)
+ Digital interface 2 (+)
- Digital interface 2 (-)
+ Power supply + 24 V Cable no. 1
GND Power supply 0 V Cable no. 2
A RS 485 data A Cable no. 3 B RS 485 data B Cable no. 4
Shield
Shield
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5.3 Terminal layout C-Boxes
Transmitter Sensor 1 Sensor 2 Sensor 3
M20
M20
Fig. 20: Electrical connection for the C3-Box
Sensor 1Transmitter
Fig. 21: Electrical connection for the C1-Box
Cable gland
M 20 x 1.5
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6. Commissioning
At the first commissioning of the M-Sens 2 FD it is necessary to calibrate the sensor.
Please consider:
Correct connection between sensor, C1-box and evaluation unit.
Correct installation of the sensor in the process.
In case of negative results in spite of consideration of the points as stated above, please contact SWR.
Commissioning of the M-Sens 2 FD
After the delivery the sensor is not calibrated to the product(s), so each calibration and parameterization has to be executed during the commissioning. Therefore it is necessary to assign the measured moisture to the desired display and to the initial value. The menu functions are very self-explanatory. In the following a short introduction to the menu overview:
Menu are accessible via PC software or the touch screen (fieldhousing unit only) – See Operator Interface Basic function For the measurement using the sensor, at least 2 measuring points should be
calibrated as a reference point and the corresponding moisture value should be entered. To do this, the reference point measurement is started in the calibration. After the measurement, the analysis device expects the input of the moisture content determined in the lab. While the material is conveyed (in the loading state), the 2nd point is set to a known moisture value and the calibration is also carried out. If only one material moisture value is available, then minor moisture fluctuations and corresponding fluctuations in the moisture values determined in the lab can be used to save at least 2 calibration points.
Adjustment Alarms The user can select operation modes “None”, “Min”, “Max” or “FLOW” in the
menu Alarms (3.1). A shortfall or exceeding of an adjustable measuring value can be output via the alarm relay as “open” or “close” (3.5). The Flow Detection function is available by choosing “FLOW” in the alarm menu. This alarm will trigger when selected “Noise” value is reached.
In menu Sensor Alarm (3.6), the user can select “OFF” “ERR” or “Proc”. By choosing “ERR”, alarm will be on in case of sensor error, by selecting “PROC”, alarm will be on in case of fatal sensor errors/failure and process indicators.
Analog output is modified in menu 4 and can be adjusted to user requirements here (e. g. 0… 20 mA). The setting of the minimum and maximum output current can be setup on 4.1 and 4.2. The alarm value can be defined on 4.3 and alarm type on 4.4. The exact calibration of the 4 mA and 20 mA value are done via menu
4.5 and 4.6 and 4.7. This operation require the use of a calibrated multimeter. The measuring range filter makes it possible to adapt to slower recording
devices or continuous output at the analogue output (power output).
Calibration points The measurement can be checked for linearity based on varying moisture values. To improve accuracy, these should be determined respectively. In case of deviations, the non-linearity can be corrected through a table of support points. Based on the points that are selected and specified in menus
2.4.1 etc. (a minimum of 2 during first commissioning), a correction value can
now be entered for the actual moisture value. (This value can be changed later.) A maximum of 5 support points are available.
Saving changes After changes are made, they can be saved using the menu item program
device. The change is carried out once Overwrite calibration is confirmed.
C1-Box Is only used when the distance between sensor and analysis unit exceeds 2 m.
For the adjustment of user requirements with regard to material, measuring units etc.
C3-Box Is only used when 2 or 3 sensors are connected.
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7. Menu structure of M-Sens 2 FD
The menu structure supports the user when adjusting the measuring range, the calibration, the measurement values and the choice of additional functions. In this connection, the numbering both on the display and in the PC interface is identical:
1. Measuring range Set all relevant measuring range settings
1.1 Tag No. Input: free text (10 characters) Name of the measurement point or product.
1.2 Unit Input: unit text, e. g. kg Required mass flow unit.
1.3 Decimal point Selection: 0000, 0.000, 00.00, 000.0 Number representation and decimal point­ accuracy in the measurement menu.
1.4 Set point low Input: 0 … 9999 Throughput rates under this value will not be displayed at the current output. This does not concern the display indicator, totaliser or pulse output.
1.5 Set point high Input: 0 … 9999 Throughput rates above this value will not be displayed at the current output. This does not concern the display indicator, totaliser or pulse output.
1.6 Filter Input: 0.1 s … 99.9 s Filtering of measurement for the indicator and the output values.
1.7 Filter buffer Input: 0.0 …
1.8 High pass filter Input: 0 … 100
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2. Calibration Store the calibration curve.
2.1 Calibration factor Input: 0.01 … 9.99 Factor for the subsequent adjustment of the actual measurement. All measurements
are measured with this factor.
2.2 Calibration filter s Input: 1 … 9999 Filter time for recording the raw value during calibration. The raw values already measured over the set time period are combined into an average value.
2.3 Calibration points Input: 2 … 5 Number of support points for a linearisation above the operating range.
2.4 Calibration Calibration submenu
2.4.1 1. Calibration point Input: Output measurement value in the selected measurement value to be shown mass / time unit.
(2.4.2) P1 calibration Transfer: Raw value Transfer the current raw value (filtered) from the mass flow with the key [ ].
The value can also be entered manually.
. . . (depending on the number of support points) For additional support points (depending on [ 2.3 ]), additional value pairs can be set.
2.4.n Pn value Input: Measurement to be displayed
2.4.n Pn calibration Transfer: Current raw value
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3. Alarm Setting for the alarm via the relay contacts.
3.1 Alarm type Selection: The relay is activated when the measured None / Min / Max / Flow value exceeds the max. limit or undershoots the min. limit. “Flow” alarm is activated when measured noise value exceeds the setup limit.
3.2 Alarm value Input: 0 … 999.9 Limit value for monitoring Min. or Max.
3.3 Delay Input: 0.1 … 99.9 s The value must permanently exceed or fall below the set limit during this time.
3.4 Hysteresis Input: 0.1 … 99.9 % The alarm continues for as long as the measurement is not smaller or larger than the limit value plus or minus hysteresis.
3.5 Operation mode Selection: NC: the relay is closed, current principle as NC / NO no alarm is active. NO: the relay is closed, if there is an alarm.
3.6 Sensor alarm Selection: Off: Sensor or process indicators are OFF /ERR / PROC not displayed at the relay. ERR: Serious internal sensor errors trigger an alarm at the relay. PROC: Serious internal sensor errors and process indicators trigger an alarm at the relay. Further information on the signalling levels ERR or PROC can in section entitled Troubleshooting.
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4. Analog output Setting and calibrating the analogue output.
4.1 Lower limit Input: 0 … 22 mA Standard setting: 4 mA
4.2 Upper limit Input: 0 … 22 mA Standard setting: 20 mA
4.3 Alarm value Input: 0 … 22 mA Value to be output at pending alarm (Standard setting 2 mA)
4.4 Alarm mode Selection: Alarm: Alarm is output Alarm / Hold output measurement value drops to 0, or current measurement value. Hold output: Last measurement value remains pending until fault rectification at the output signal.
4.5 Analog output 1 Submenu
4.5.1 Calibration 4 mA Selection: Key functions can be used to set the current Setting the output current and equalise it to the receiver side
4.5.2 Calibration 20 mA Selection: Key functions can be used to set the current Setting the output current and equalise it to the receiver side
4.6 Analog output 2 Submenu
4.6.1 Calibration 4 mA Selection: Key functions can be used to set the current Setting the output current and equalise it to the receiver side
4.6.2 Calibration 20 mA Selection: Key functions can be used to set the current Setting the output current and equalise it to the receiver side
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4.7 Analogue output 3 Submenu
4.7.1 Calibration 4 mA Selection: Key functions can be used to set the current Setting the output current and equalise it to the receiver side
4.7.2 Calibration 20 mA Selection: Key functions can be used to set the current Setting the output current and equalise it to the receiver side
The current output can be calibrated so that the zero point (output of 4 mA) is set to the background noise of the measuring point. If the background noise decreases due to process changes, sensor wear or other ageing effects, a signal of less than 4 mA can be output at the analogue output. In this way, a zero offset can be detected (zero point drift). If this function is not desired for process engineering reasons, the zero point must be specified for the calibration to a raw value of zero and/or the 4.1 MIN limit set to 4 mA.
If the settings of the 4 mA or 20 mA signal are changed, the checkbox Overwrite calibration must be set. If the checkbox is set the changed parameters can be sent to the transmitter by clicking on Device program.
22
5. Pulse output Passive signal for pulse cleaning.
5.1 Function Selection: OFF / Cleaning OFF: No pulse output Cleaning: Option for actuation of a solenoid value for pneumatic air flushing.
5.2 Pulse period Input: 1 s … 600 s Duration between two pulses
5.3 Pulse length Input: 1 s … 60 s Length of the pulse
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6. Current input Note: Only available on fieldhousing. Option for auto-correction by external current signal.
The signal is not electrically isolated. If the connection is incorrect, the CPU of the transmitter may be destroyed. An external, galvanic isolation by means of a current disconnector or similar must be provided.
6.1 Input calib. 4 mA Selection: Set input current The 4 mA signal must be read in via key functions.
6.2 Input calib. 20 mA Selection: Set input current The 20 mA signal must be read in via key functions.
6.3 Correction Selection: ON / OFF ON: Activation of the correction. OFF: Deactivation of the correction.
6.4 P1 input Input: 4 mA … 20 mA Input the current that is to be used for the correction.
6.5 P1 factor Input: 0.01 … 10 Factor for subsequent adjustment of the actual measurement value.
6.n Pn input Input: 4 mA … 20 mA Option for further entry of current value and correction factors.
6.n Pn factor Input: 0.01 … 10
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7. System Basic adjustment of the system and transmitter.
7.1 Language Selection: D / E / F Language on the transmitter
7.2 Sensors Sensor function and calibration
7.2.1 Sensor 1 Selection: on / off ON: Sensor is evaluated. OFF: Sensor is ignored.
7.2.2 Sensor 2 Selection: on / off ON: Sensor is evaluated. OFF: Sensor is ignored.
7.2.3 Sensor 3 Selection: on / off ON: Sensor is evaluated. OFF: Sensor is ignored.
7.2.4 Calibration Selection: single / average This function is used only for multi-
sensor systems!
Single: Calibration of single sensors:
Each sensor is converted via an individual calibration table from the raw value to the throughput, after that the calculation of average throughput on the throughput values of the individual sensors is taking place.
(This function should only be used
by trained personnel of
Average:
ENVEA - SWR engineering
Calibration by the average value
.)
from raw values: The throughput will be calculated with a common calibration table after forming the average from raw values.
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7.2.5 Sensor Selection: The transmitter verifies the availability of SolidFlow 2.0 / PicoFlow / registered sensors on the selected type, ProSens / SpeedFlow 2.0 / calculates the measurement values on this Paddy / MaxxFlow HTC / basis and signals if necessary corresponding DensFlow / SlideControl / errors. M-Sens 2 / M-Sens WR / Incorrect sensor selection leads to a refusal M-Sens 2 FD to communicate.
7.3. Display Submenu
7.3.1 Sensor info Selection: ON / OFF ON: Show info key on display OFF: Hide info key
7.3.2 Process indicator Selection: ON / OFF ON: Process indicators will be shown on display and via double blink on the DIN Rail. OFF: Process indicators will not be shown.
7.3.3 Backlight Input: 0 … 99 min Lighting of the Display in minutes 0 = permanent lighting 99 = time selection for lighting
7.3.4 Contrast Input: 0 … 100 % In the case of display exchange, the contrast can be changed via the PC software, if necessary.
7.4 Address Input: 1 … 255 ModBus address of transmitter, if operated on a PLC or PC as a slave.
7.5 Baud rate Selection: Communication speed of the transmitter 4800/9600/19200/ when this is operated as a ModBus slave on 38400 baud a PLC or a PC.
7.6 Password Input: 0 … 9999 0000 = No password XXXX = Four-digit password, which is queried when the menu is called up on the display. Automatic lock five minutes after the last display input.
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8. Service Display on the sensor status
The status of each connected sensor is displayed in menu 8. Service. FW type, FW version, temperature, serial number and possible hardware errors are automatically read and displayed.
Only according to instructions from personnel of
If a detailed error analysis is necessary, a copy of all ModBus registers can be stored as a text file in the installation folder of the software by clicking on the sensor dump. This is only possible with the PC software. In addition, a software with deeper access to the sensors can be started via the PC software.
On the touchscreen only the information of the individual sensor will be shown.
ENVEA - SWR engineering
:
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8. Operator interface
The transmitter is a multi-sensor transmitter. It is therefore strongly recommended to check before commissioning whether the correct sensor is selected in menu System.
The operator interface differs depending on the system design:
• DIN Rail housing without touchscreen, operation via PC software only
• Field housing with display, operation via PC software or touchscreen
8.1 Differences between the DIN Rail and field housing transmitter
The transmitter in the DIN Rail housing is only a part of the functions available in the field housing. The following overview clarifies the differences between the two versions.
Function Field housing DIN Rail
Menu system
via PC software yes yes
via display yes no
Measurement value display current output yes yes
Pulse output for control of solenoid valves yes no
Alarm system relay output yes yes
Remote control digital input yes no
Autocorrect analogue input yes no
Error output
on current output yes yes
at relay yes yes
via PC software yes yes
via display yes no
on status LED no yes
The transmitter in the DIN Rail housing is configured exclusively via a USB connection or RS 485 ModBus connection and a PC program. For the transmitter in the field housing, all functions can be configured via the touch-sensitive display. The PC configuration is also possible with the transmitter in the field housing.
The menu items on the display and in the PC software are numbered in a uniform manner so that they can be referred to later on.
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8.2 Display
The display is touch-sensitive. Available keys are displayed directly in context. When the measuring system is first started, a query is initiated to select the language and sensor. If no selection is made, the initialization disappears and the German language with a SolidFlow 2.0 sensor is selected.
Initialization screen when the transmitter in the field housing started first time.
Select Language
D E F
Select sensor
SolidFlow
# $
E
Selection of the menu language:
Deutsch, English, Français
If a language has been selected, the sensor to be used must be selected. To be available: SolidFlow 2.0, Paddy, PicoFlow, MaxxFlow HTC, DensFlow, SpeedFlow 2.0, SlideControl, ProSens, M-Sens 2 FD, M-Sens 2, M-Sens WR.
M-Sens 2 FD
21.23 % MST
Main menu 6.xx
1. Measurement range
2. Calibration
3. Alarm
4. Analogue output
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8
I
# $
E
Afterwards the start page appears.
The start page display the following values:
Name “M-Sens 2 FD”, freely selectable text which describes the material or the measuring point
Measured value, here in % Moisture [ % MST ]
[ I ] key for info
To access the main menu, press and hold any area of the display for several seconds. The sub-menu selection appears.
In the menus and input fields, the displayed keys can be used to browse, select, edit or reject:
[ Arrow ]: Scroll down the page, Select an option, Select a position in the input text
[ E ] for ESC: Interrupt the function without making any changes
[ 8 ]: Select the function or confirm the input
[ C ] for Clear: Delete a symbol or number.
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Sensor status
Temp Raw value Stat
The [ I ] key can be used to call up an information window, in which the raw value, temperature and status of the sensors can be checked.
S1 63.0 0.000123 OK S2 63.0 0.000213 OK
If any data has been changed, the change will only be taken
Save changes?
into account when you exit the complete menu structure and answer [ Yes ] when asked if you wish to save the changes.
Y N
For reasons of simplicity, a further display menu screen has been dispensed with. The display screens are directly derived from the menu structure in section 6.4.
Protection against unauthorised use:
If a password has been entered in menu 7. System in 7.6 Password, which is different to the “0000” default setting, you will be asked to enter a password when attempting to access the menus. After the password has been successfully entered, the menus will be unlocked for approx. 5 minutes (from the last menu entry).
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8.3 PC interface
Communication with a laptop or PC is carried out on the DIN Rail as in the field housing version optionally on the terminals via an RS 485 or on the front side via a USB interface.
The RS 485 connection is attached to the transmitter in the field housing at the ModBus A (+)
and ModBus B (-) terminals. On the DIN Rail version, these connections are nos. 12 and 11, accordingly. RS 485 is a bus connection; the ModBus address and the baud rate can be set on the device. Upon delivery, the communication parameters are set to:
8.3.1 ModBus address 1
8.3.2 Baud rate 9600, 8, E,1 An RS 485 to USB adapter can be purchased from ENVEA - SWR engineering.
For the USB connection to the DIN Rail version is a standard USB-A-B cable included.
The USB connection is a point-to-point connection that is not BUS-capable. The ModBus address and the baud rate for the front-side connections cannot be changed and are always:
8.3.1 ModBus address 1 (or the device answers to all addresses)
8.3.2 Baud rate 9600, 8, E,1 When connected to the PC for the first time, any interface drivers enclosed with the transmitter must be
installed. After starting the software, the communication parameters must first be entered accordingly.
These can be found in the top left of the program window. The COM port to be configured is displayed in the device manager.
Communication is established by clicking on “Read device”. The acknowledgement message “Parameter read in” is displayed. If an error message is displayed instead, check the communication parameters and cable connections between the PC and the transmitter.
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The edited data is transmitted to the transmitter via “Device program”. Critical data concerning the ModBus communication and the calibration must be confirmed before the parameters are transmitted to the transmitter:
If, when saving the parameters in the transmitter, the system calibration data is changed, this action
must be confirmed by checking “Overwrite calibration”.
If, when saving the parameters in the transmitter, the system interface parameter are changed, this
must be confirmed by checking the selection “Overwrite baud r./address”.
8.3.5 On-Line representation
By clicking on “On-Line representation” button you will make a new windows appear. It will display: Sensor RAW value
Measured value Sensor electronic temperature Sensor(s) status Noise value
Datalogger is enable when ticked.
In addition, with the PC software,
the transmitter parameters of the transmitter can be saved in a file (Save configuration)
the transmitter parameters can be loaded from a file (Load configuration)
the transmitter parameters can be printed via the Windows standard printer (Print configuration)
the measured values can be logged in a data logger file (enter the file name and storage rate, and activate the data logger on the online display)
The software language can be set by right-clicking the “Sprache/Language/Langue” field in the bottom program line on “Deutsch/English/Français”.
Protection against unauthorised use:
The PC interface does not have a password prompt as it is assumed that only authorised personnel will have access to the PC and the software. The password to operate the display can be read and changed in menu
7. System under 7.6 Password.
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9. Maintenance
Warning!
Electric shock hazard when housing is open!
Switch off the power supply during all maintenance and repair work on the measuring system. The system may not be in operation for a sensor exchange.
Repair and maintenance work may only be carried out by qualified electricians.
The system is maintenance-free.
10. Warranty
Warranty is granted for one year starting from delivery date under the condition that the operating instructions have been followed, no interventions on the appliances have been made and the components of the system show no mechanical damage or wear resistance. In case of a defect during the warranty period, defective components are repaired or are replaced free of charge. Replaced parts turn into the property of ENVEA - SWR engineering. If desired by the costumer that the parts should be repaired or replaced in its factory, then the costumer has to take over the costs for the ENVEA - SWR engineering-service staff. ENVEA - SWR engineering is not responsible for damage, which did not develop at the delivery article; especially ENVEA - SWR engineering is not responsible for escaped profit or other financial damages of the customer.
11. Troubleshooting
Warning!
The electrical installation must only be checked by expert personnel.
Problem Cause Measure
Measuring system does not work. POW LED off.
Measuring system does not work. RUN LED off.
Measuring system outputs wrong values.
Sensor error. Sensor not properly
Relay flickering. Hysteresis too small. Increase hysteresis, check effects caused by external devices.
Power supply interrupted. Check the power supply. Cable break. Check the connecting cables for a possible break of a cable. Defective fuse. Exchange the fuse. Defective device. Call ENVEA - SWR engineering for further instructions. Microprocessor does not
start.
Incorrect calibration. Delete input signal correction, new calibration according to
Calibration shifted by abrasion or caking on front end of sensor.
connected. Sensor damaged. Replace sensor.
No 24 V DC supply on sensor. Assure right power supply. Voltage drop on the supply
line too highly.
Power supply switch off and switch on. Program cables remove.
section 6. Delete input signal correction, new calibration according to
section 6.
Check cable.
Cable cross section check with the help of the length.
Do not open, as otherwise the warranty claim expires!
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12. Technical data
Sensor
Housing Stainless steel 1.4571 Sensor surface Ceramic Ex-protection (optional) Zone 20 (Dust), Zone 0 (Gas) Protection category IP 67 according to EN 60529 Material ambient temperature Working pressure Max. 10 bar Power consumption 0.6 W Responsive time 0.1 sec. Weight 1.3 kg Measuring range 0 … 65 % residual moisture (depending on material) Dimensions 0.1 % absolutely in the calibrated measuring range Connection cable Shielded cable 4-wired, 0.25 mm
Field housing transmitter
Power supply 110/230 V, 50 Hz (optional 24 V DC) Power consumption 20 W / 24 VA Protection category IP 65 to EN 60 529/10.91 Ambient operating temperature -10 ... +45°C Dimensions 258 x 237 x 174 (W x H x D) Weight Approx. 2.5 kg Interface RS 485 (ModBus RTU) / USB Cable screw connectors 3 x M20 (4.5 – 13 mm Ø) Connection terminals cable cross-section 0.2 – 2.5 mm² [AWG 24-14] Current output
Relay contact Max. rated load: 250 V AC
Data backup Flash memory Pulse output Open collector – max. 30 V, 20 mA
DIN Rail transmitter
Power supply 24 V DC ± 10 % Power consumption 20 W / 24 VA Protection category IP 40 to EN 60 529 Ambient operating temperature -10 ... +45°C Dimensions 23 x 90 x 118 (W x H x D) Weight Approx. 172 g Interface RS 485 (ModBus RTU) / USB DIN Rail fastening DIN 60715 TH35 Connection terminals cable cross-section 0.2 – 2.5 mm² [AWG 24-14] Current output
Relay contact Max. rated load: 250 V AC
Data backup Flash memory Pulse output Open Collector - Max. 30 V, 20 mA
0 ... +
80 °C, optional 120 °C
3 x 4 ... 20 mA (0 ... 20 mA, load < 500 W
Max. peak current: 6 A Max. rated load 230 V AC: 250 VA Max. breaking capacity DC1: 3/110/220 V: 3/0.35/0.2 A Min. swithing load: 500 mW (10 V/5 mA)
1 x 4 ... 20 mA (0 ... 20 mA, load < 500 W
Max. peak current: 6 A Max. rated load 230 V AC: 250 VA Max. breaking capacity DC1: 3/110/220 V: 3/0.35/0.2 A Min. swithing load: 500 mW (10 V/5 mA)
EN 01/04/2019
SWR engineering Messtechnik GmbH
Gutedelstraße 31 · 79418 Schliengen (Germany) Fon +49 7635 827248-0 · Fax +49 7635 827248-48 · www.swr-engineering.com
PART OF THE ENVEA GROUP
All rights reserved.
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