Thank you very much for buying a Universal Transmitter UNIFLEX CI 45.
UNIFLEX CI 45 transmitters are suitable for precise, cost-efficient signal detection and processing. Every CI 45 is
equipped with at least one universal input, one universal output and a relay. Optionally, the transmitter can be fitted
with an additional relay.
Galvanic isolation is provided between inputs and outputs as well as from the supply voltage and the communication
interfaces.
Applications
CI 45 is used for measurement, scaling and separation of electrical signals, e.g. for
Heat treatment plants
w
Drying equipment
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Furnace builders
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Metallurgy
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Kilns
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General machine building
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Research and development
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Energy measurement
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Signal conversion
w
...
At-a-glance survey of advantages
Compact construction, only 22,5 mm wide
Clips onto top-hat DIN rail
Plug-in screw terminals or spring clamp connectors
Dual-line LC display with additional display elements
Process values always in view
Convenient 3-key operation
Direct communication between rail-mounted transmitters
Universal input with high signal resolution (>15 bits) reduces stock keeping
Universal output with high resolution (14 bits) as combined current / voltage output
Quick response, only 100 ms cycle time, i.e. also suitable for fast signals
One or two relay outputs
Customer-specific linearization
Measurement value correction (offset or 2-point)
Min/max indicator ('slave pointer')
Logical linking of digital outputs, e.g. for common alarms
Preset of output value
*
This documentation includes already several options which will be available only with
operating version 2 instruments.
Further documentation for universal transmitter CI 45:
–
Data sheet CI 459498 737 48313
–
Operating note CI 459499 040 71441
–
Interface description9499 040 72011
UNIFLEX CI 455
Safety hints
2
.
a
a
Safety hints
This instrument was built and tested in accordance with VDE 0411-1 / EN 61010-1 and was shipped in safe condition.
The unit complies with European guideline 89/336/EEC (EMC) and is provided with the CE-marking.
The instrument was tested before delivery and has passed the tests required in the test plan. In order to maintain this
condition and to ensure safe operation, the user must follow the hints and warnings given in these operating
instructions and operate this instrument in compliance with the instructions given in this manual.
The unit is intended exclusively for use as a measuring and control instrument in technical installations.
Warning
If the instrument is so heavily damaged that safe operation seems impossible, the instrument must not be taken into
operation.
ELECTRICAL CONNECTIONS
The electrical connections must conform to local standards (e.g. VDE 0100). The input leads must be kept separate
from signal and mains leads.
A circuit breaker or a power switch must be provided for the instrument and marked accordingly in the installation. The
circuit breaker or power switch must be installed near the instrument and easily accessible for the operator.
COMMISSIONING
Before instrument switch-on, ensure that the rules given below were followed:
Ensure that the supply voltage corresponds to the specification on the type label.
w
All covers required for contact safety must be fitted.
w
Before instrument switch-on, check, if other equipment and/or facilities connected in the same signal loop is / are
w
not affected. If necessary, appropriate protective measures must be taken.
The instrument may be operated only when mounted in its enclosure.
w
The temperature limits specifed for operation of the unit must be met before and during operation.
w
a
a
Warning
During operation, the ventilation slots of the housing must not be covered.
The measurement inputs are designed for measurement of circuits which are not connected directly with
the mains supply (CAT I). The measurement inputs are designed for transient voltage peaks up to 800V
against PE.
SHUT-DOWN
For permanent shut-down, disconnect the instrument from all voltage sources and protect it against accidental
operation.
Before instrument switch-off, check that other equipment and / or facilities connected in the same signal loop is / are
not affected. If necessary, appropriate measures must be taken.
2.1Maintenance, repair, modification
The instruments need no particular maintenance.
No operable controls are mounted inside the instrument, i.e. the operator must not open the unit.
Modification, maintenance and repair may be carried out only by trained, authorized persons. For this purpose, the user
is invited to contact the PMA service.
6Maintenance, repair, modificationUNIFLEX CI 45
Safety hints
a
l
g
Warning
When opening the instruments, or when removing covers and components, live parts or terminals can be exposed.
Caution
When opening the instruments, electrostatically sensitive components can be exposed.
The PMA service can be contacted as follows:
PMA Prozeß- und Maschinen-Automation GmbH
Miramstraße 87
D-34123 Kassel
Housing and front panel of the instrument can be cleansed using a dry, lintfree cloth.
2.3Spare parts
The following accessories are permitted as spare parts for the transmitter:
DescriptionOrder no.
Connector set with screw terminals9407-998-07101
Connector set with spring clamp terminals9407-998-07111
Bus connector for fitting in top-hat rail9407-998-07121
UNIFLEX CI 45Cleaning7
- preliminary -Mounting
A
3
.
Mounting
bmessungen / dimensions
56
7
Klemme /
8
terminal
12
Montage / mounting
5.5
(0,20”)
4
3
2.3
(0,08”)
click
99 (3,90”)
Demontage / dismantling
1
22.5
(0,87”)
max.
117.5 (4,63”)
55°C
-10°Cmin.
111 (4, 37” )
max.
95% rel.
1516
17
18
Klemme /
terminal
%
11 1 2
14
13
g
a
a
a
l
a
a
The unit is provided for vertical mounting on 35 mm top-hat rails to EN 50022.
If possible, the place of installation should be exempt of vibration, aggressive media (e.g. acid, lye), liquid, dust or
aerosol.
The instruments of the rail line series can be mounted directly side by side. For mounting and dismounting, min. 8 cm
free space above and below the units should be provided.
For mounting, simply clip the unit onto the top-hat rail from top and click it in position.
To dismount the unit, pull the bottom catch down using a screwdriver and remove the unit upwards.
Transmitter CI 45 does not contain any maintenance parts, i.e. the unit need not be opened by the
customer.
The unit may be operated only in environments for which it is suitable due to its protection type.
The housing ventilation slots must not be covered.
In plants where transient voltage peaks are susceptible to occur, the instruments must be equipped with
additional protective filters or voltage limiters!
Caution! The instrument contains electrostatically sensitive components .
Please, follow the instructions given in the safety hints.
To maintain contamination degree 2 acc. to EN 61010-1, the instrument must not be installed below
contactors or similar units from which conducting dust or particles might trickle down.
UNIFLEX CI 458
3.1Connectors
The four instrument connectors are of the plug-in type. They plug into the housing from top or bottom and click in
position. Releasing the connectors should be done by means of a screwdriver.
Two connector types are available:
Screw terminals for max. 2,5 mm2conductors
•
Spring-clamp terminals for max. 2,5 mm2conductors
•
Mounting
g
a
Before handling the connectors, the unit must be disconnected from the
supply voltage.
Tighten the screw terminals with a torque of 0,5 - 0,6 Nm.
With spring-clamp terminals, stiff and flexible wires with end crimp can be
introduced into the clamping hole directly. For releasing, actuate the (orange)
opening lever.
Contact protection: Terminal blocks which are not connected should remain in the socket.
UNIFLEX CI 45Connectors9
Electrical connections- preliminary -
4
.
Electrical connections
4.1Connecting diagram
7
2
5
INP2
INP1
k
OUT3
(mV)
a
e
b
c
d
5
1
76
3
3
2
b
a
8
di1
4
3
1234
1234
a
b
c
d
e
g
mV
f
Logic
V
RS 485
RGND
Data A
Data B
top
RGND
Data A
Data B
6
h
i
j
V
12
13
11
14
PWR
1
4.2Terminal connections
a
g
Faulty connection might cause destruction of the instrument !
1 Connecting the supply voltage
Dependend on order
90 … 260 V ACterminal: 15, 16
w
24 V AC / DCterminal: 15, 16
w
For further information, see section "Technical data"
Instruments with optional system interface:
Energization is via the bus connector of field bus coupler or power supply module. Terminals 15, 16 must
not be used.
The instrument terminals used for the engineering can be displayed and printed out via BlueControlÒ( menu File \ Print
preview - Connection diagram).
Example
Connecting diagram
Connector 1
Connector 2
Name
Name
Description
Process value x1
Measurement
Frequency measurement
Description
4.4Connection examples
Example: Signal converter with output on indicator and alarm signal
L
Frequency
Limit value 2 signalling, INP2 error signalling
Limit value 1 signalling, INP1 error signalling
5
7
6
INP2
INP1
1
8
di1
4
3
2
+
11
15
PWR
PWR
N
14
13
12
16
OUT2
18
17
OUT1
12Connecting diagramUNIFLEX CI 45
Example: RS 485 interface with RS 485-RS 232 converter
See documentation 9499-040-72011
RGND
3
LT 1
Data A
Data B
2
Data A
Data B
Electrical connections
Master z.B. / e.g.
Converter RS 232-RS 485
(ADAM-4520-D)
DATA+ 1
(RS-485)
LT 1
DATA-
TX+
TXRX+
RX-
(R)+Vs
(B)GND 10
(RS-422)
4.5
a
a
a
a
Hints for installation
Measurement and data lines should be kept separate from control and power supply cables.
w
Sensor measuring cables should be twisted and screened, with the screening connected to earth.
w
External contactors, relays, motors, etc. must be fitted with RC snubber circuits to manufacturer specifications.
w
The unit must not be installed near strong electric and magnetic fields.
w
The temperature resistance of connecting cables should be selected in accordance with the local conditions.
w
The unit is not suitable for installation in explosion-hazarded areas.
Faulty connection can lead to the destruction of the instrument.
The measurement inputs are designed for measurement of circuits which are not connected directly with
the mains supply (CAT I). The measurement inputs are designed for transient voltage peaks up to 800V
against PE.
Please, follow the instructions given in the safety hints.
4.5.1cULus approval
For compliance with cULus regulations, the following points must be taken into account:
q
Use only copper (Cu) wires for 60 / 75 °C ambient temperature.
q
The connecting terminals are designed for 0,5 – 2,5 mm2Cu conductors.
q
The screw terminals must be tightened using a torque of 0,5 – 0,6 Nm.
q
The instrument must be used exclusively for indoor applications.
q
For max. ambient temperature: see technical data.
q
Maximum operating voltage: see technical data.
UNIFLEX CI 45Hints for installation13
Operation
5
.
5.1Front view
Operation
1 Line 1: process value display
2 Line 2: display of unit / extended operating level / error list /
Conf and PArA level values
3 Tare / sample & hold activated
4 Error list (2 x ô ), e.g.
· Fbf. xsensor fault INP. X
· sht. xshort circuit INP. X
· Pol. xwrong polarity INP. X
· Lim. xlimit value alarm
· ...
5 Increment key / slave pointer, maximum value
6 Enter key to select extended operating level or error list
7 LED indication of instrument status
· green:OK
· green blinking: no data exchange with bus coupler
(only on instruments with optional
system interface)
· red:limit value I triggered
· red blinking: instrument fault
8 Display elements, active as bars
9 Status of switching output OUT1 / INP1 active
0 Status of switching output OUT2 / INP2 active
! Decrement key / slave pointer, minimum value
§ PC connection for the BlueControl
Ò
engineering tool
g
+
14Front viewUNIFLEX CI 45
The measurement value is displayed in LCD line 1. In the second line, the selected unit is displayed as
standard. When changing over to the parameter setting, configuration or calibration level and at the
extended operating level, the parameter name and value are displayed alternately.
§ : To facilitate withdrawal of the PC connector from the instrument, please, press the cable left.
5.2Operating structure
The instrument operation is divided into four levels:
Operation
450.3
ûC
äüüü
FE
1
2
The access to the parameter, configuration and calibrating level can be disabled using the following two methods:
Level disabling by adjustment in the engineering tool (IPar, ICnf, ICal). Display of disabled levels is suppressed.
w
ô
3s
450.3
PARA
äüüü
FE
1
2
450.3
CONF
äüüü
1
ô
FE
2
450.3
CAL
äüüü
1
ô
FE
2
450.3
END
äüüü
1
2
ô
FE
PASS
PASS
PASS
ô
Operating level
Parameter level
Configuration level
Calibrating level
The access to a level can be disabled by entry of a pass number (0 … 9999). After entry of the adjusted pass
w
number, all values of the level are available.
With faulty input, the unit returns to the operating level.
Adjusting the pass number is done via BlueControl
Individual parameters which must be accessible without pass number, or from a disabled
parameter level, must be copied into the extended operating level.
Factory-setting:
all levels are accessible without restrictions,
pass number PASS = OFF
5.3Behaviour after supply voltage switch-on
After switching on the supply voltage, the instrument starts with the operating level.
The operating status is as before power-off.
5.4Operating level
5.4.1Display line1
The display value is the value resulting from function.1, function.2, function.3 handling.
It is also called process value (see also section/page 6-19.)
Ò
.
PASS
UNIFLEX CI 45Operating structure15
Operation
5.4.2Display line 2
The value to be displayed continuously in the second LCD line can be selected via the BlueControlÒengineering
tool.
As default, the adjusted engineering unit is displayed.
1
450.3
ûC
äüüü
2
FE
1
g
g
g
5.4.3Switching over by means of the Enter key
The values in display line 2 can only be displayed, but not changed.
Reset to display of the engineering unit is possible by deleting the entry for line 2..
With faulty input values, signals dependent on the inputs (e.g. Inp1, Inp2, display value, Out3) also
indicate FAIL.
By pressing key Enter, various values can be indicated on display line 2.
450.3
äüüü
1
2
2
55.0
FE
1Engineering unit as default setting
2Display of output OUT3 in % (with
corresponding scaling)
1Display of the defined display line 2 value
w
2Display of the error list, if it includes entries.
w
3Display of the extended operating level, if
w
4Return to the initial display
w
(via BlueControl
Limit value LC is set by default
With several inputs, the following value is
displayed when pressing the Enter key.
entries were made. With several inputs, the
following value is displayed when pressing the
enter key.
Unless a key is pressed during 30 s, the
instrument returns to the initial display.
®
);
1
2
3
4
278.3
äüüä
1
ô
278.3
FbF.1
äüüä
12FE
ô
278.3
L.1
дььдь
1
ô
278.3
äüüä
1
°C
2FE
FE
2
°C
2FE
ô
ô
16Operating levelUNIFLEX CI 45
5.4.4Slave pointer function
The minimum and maximum input values are stored in the unit.
Operation
450.3
ûC
äüüü
FE
1
2
min
450.3
26.7
äüüü
FE
1
2
The minimum input value is displayed as long as key Ì is
pressed.
Deleting the minimum value
The minimum value is deleted by pressing key È whilst key Ì is kept pressed.
Whether the minimum value should be deleted also by the digital input (rES.L) can be determined during
configuration.
Deleting the maximum value
To delete the maximum value, press key Ì whilst keeping key È pressed.
Whether the maximum value should be deleted also by the digital input (rES.H) can be determined during
configuration.
The maximum input value is displayed as long as key È
is pressed.
450.3
ûC
äüüü
2
max
FE
1
450.3
502.4
äüüü
2
FE
1
Deleting the minimum and maximum values is possible also via interface.
g
g
5.4.5Selecting the units
When de-energizing UNIFLEX CI 45, the minimum and maximum values are deleted.
In case of error of the display value (e.g. input fail behaviour), the minimum and maximum values are also
set to FAIL. When a valid value is displayed again, the minimum and maximum value are deleted.
The unit to be displayed is determined via configuration D.Unt.
With selection “1 = temperature unit” , the displayed unit is determined by configuration Unit with the relevant
conversions for Fahrenheit and Kelvin.
By selecting D.Unt = 22, display of any max. 5-digit unit or text can be determined.
4.5
kWh
äüüü
2
FE
1
1
450.3
TI451
äüüü
2
FE
1
2
1Unit (example): kilowatt hour
2Text (example): TAG no.
UNIFLEX CI 45Operating level17
Operation
5.4.6Extended operating level
The operation of important or frequently used parameters and signals can be allocated to the extended operating level.
This facilitates the access, e.g. travelling through long menu trees is omitted, or only selected values are operable, the
other data of the parameter level are e.g. disabled.
Display of the max. 8 available values of the extended operating level is in the second LCD line.
The content of the extended operating level is determined by means of the BlueControl
select entry "Operation level" in the "Mode" selection menu. Further information is given in the on-line help of the
engineering tool.
450.3
ûC
äüüü
2
ô
FE
1
Ò
engineering tool. For this,
Press key ô to display the first value of the extended
operating level (after display of error list, if necessary).
The selected parameters can be changed by
pressing keys Ì and È .
450.3
H.I
äüüü
2
FE
1
ô press to display the next parameter
450.3
500.0
äüüü
2
FE
1
ô
450.3
L.I
äüüü
2
ô
FE
ô return to normal display after the last parameter
1
Unless a key is pressed within a defined time (timeout = 30 s), the operating level is displayed again.
450.3
100.0
äüüü
2
FE
1
18Operating levelUNIFLEX CI 45
Functions
6
.
Functions
The signal data flow of transmitter CI 45 is shown in the following diagram:
6.1Linearization
The input values of input INP1 or INP2 can be linearized via a table.
By means of tables, e.g. special linearizations for thermocouples or other non-linear input signals, e.g. a container
filling curve, are possible.
Table “ Lin” is always used with sensor type S.TYP= 18: "Special thermocouple" in INP1 or INP2, or if linearization
S.Lin = 1: “Special linearization” are adjusted.
The input signals must be specified in mV, V, mA, % or Ohm dependent on input type.
w
For special thermocouples (S.tYP = 18), specify the input values in mV, and the output values in the temperature
w
unit adjusted in U.LinT .
For special resistance thermometer (KTY 11-6) (S.tYP = 23), specify the input values in Ohm, and the output values
w
in the temperature unit adjusted in U.LinT.
Non-linear signals can be linearized using up to 32 segment points. Each segment point comprises an input (In.1
… In.32) and an output (Ou.1 … Ou.32). These segment points are interconnected automatically by straight
lines. The straight line between the first two segment points is extended downwards and the straight line between the
two highest segment points is extended upwards, i.e. a defined output value for each input value is provided.
With an In.x value switched to OFF, all further segments are switched off.
+
g
Condition for the input values is an ascending order.
In.1 < In.2 < ...< In.32.
For linearization of special thermocouples, the ambient temperature range should be defined exactly,
becauseit is used to derive the internal temperature compensation.
See also page 46.
UNIFLEX CI 45Linearization19
Functions
Ou.32
.
.
.
.
.
.
Ou.1
In.1In.32
g
The same linearization table is used for input 1 and input 2.
6.2Input scaling
Scaling of input values is possible. After any linearization, measurement value correction is according to the offset or
two-point method.
g
When using current or voltage signals as input variables for InP.x, the input and display values should
be scaled at the parameter level. Specification of the input value of the lower and upper scaling point is in
units of the relevant physical quantity.
Example for mA/V
mA / V
phys.
size
OuH.x
OuL.x
InL.x
InH.x
phys. size
mA/V
g
20Input scalingUNIFLEX CI 45
Parameters InL, OuL, InH and OuH are visible only with ConF / InP / Corr = 3 selected.
Parameters InL and InH determine the input range.
Example with mA:
InL= 4 and InH = 20 means that measuring from 4 to 20 mA is required (life zero setting).
Functions
a
+
For using the pre-defined scaling with thermocouples and resistance thermometers (Pt100), the settings
for InL and OuL as well as for InH and OuH must correspond with each other.
For resetting the input scaling, the settings for InL and OuL as well as InH and OuH must
correspond.
6.2.1Input fail detection
For life zero detection of connected input signals, variable adjustment of the response value for FAIL detection is
possible according to formula:
Example 1:In.L = 4 mA, In.H = 20 mAFail response value £ 2mA
Example 2:In.L =2V,In.H = 6 VFail response value £ 1,5 V
6.2.2Two-wire measurement
Normally, resistance and resistance thermometer measurement is in three-wire connection, whereby the resistance of
all leads is equal.
Measurement in four-wire connection is also possible for input I. With this method, the lead resistance is determined
by means of reference measurement.
With two-wire measurement, the lead resistance is included directly as a falsification in the measurement result.
However, determination of the lead resistances by means of is possible.
g
+
Besides the connection of the both leads of the RTD / R sensor the
3rd connector has to be short-circuited.
Procedure with Pt100, Pt1000
Connect a Pt100 simulator or a resistance decade instead of the sensor at
the test point so that the lead resistance is included and calibrate the
values by means of 2-point correction.
By means of measurement value correction the resulting
temperature value will be corrected, but not the resistance input
value. In this case the linearization error can increase.
Procedure with resistance measurement
Measure the lead resistance with an ohmmeter and subtract it from the
measured value via the scaling.
6.2.3Scaling with potentiometer measurement
With potentiometer measurement (S.tYP = 50 … 53), a display value in 0% (lower stop value) to 100 % (upper stop
value) is normally expected.
For this, 2-point calibration at calibrating level (rp. 49) Is necessary.
2
INP2
INP1
1
8
5
1
76
4
3
3
2
Turn your potentiometer to the lower stop and specify value “0” for OuL.x. Now, turn the potentiometer to the upper
stop and set value OuH.x to “100”.
UNIFLEX CI 45Input scaling21
Functions- preliminary -
6.3Temperature compensation, measured via INP2 (optional)
With thermocouple measurement via INP1, the required temperature compensation is possible by internal
measurement of the compensation temperature via an external reference (external TC) or by measurement via INP2.
With TC measurement via INP2, the following settings must be done:
setting in the function for: ConF / Func / Fnc.1 = 10
Switch on input 2 for measurement : ConF / InP.2 / I.Fnc = 1
•
Select suitable sensor element for input 2: ConF / InP.2 / S.tYP
•
Example:
For saving compensating cable, or unless suitable cables for special thermocouples are available, the
–
termperature at the thermocouple connecting terminal must be measured exactly by means of a resistance
thermometer (e.g. Pt100).
g
Unless input 2 is enabled for measurement, the unit generates error E.3 (configuration error).
Please, note that there may be increased errors or even polarity errors with a thermocouple measuring range starting
only at 0°C (32°F), when the outside temperature is low.
Connection example
5
7
6
INP2
INP1
1
8
di1
4
3
2
+
22Temperature compensation, measured via INP2 (optional)UNIFLEX CI 45
- preliminary -Functions
6.4Filter
A 1st order mathematical filter with adjustable time constant and bandwidth is built in.
x
Output
Input
b.F
t
The filter bandwidth b.Fx is the adjustable tolerance around the measured value within which the filter is active.
Measurement value changes in excess of the adjusted bandwidth are not filtered.
6.5Substitue value for inputs
If a substitute value for an input is activated, this value is used for further calculation with a sensor fault, independent
of the selected input function. The selected controller output reaction on sensor fault, configuration FAIL, is omitted.
With factory setting, the substitute value is switched off.
a
Before activation of a substitute value In.F, the effect on the control loop must be considered.
6.6Input forcing
Setting f.AIx = 1 (only via BlueControl®) can be used for configuring the input for value entry via the interface
(=forcing).
a
Please, check the effect on the control loop in case of failure of input value / communication and
exceeded measuring range.
6.7O2 measurement (optional)
This function is available only on instrument versions with INP2 .
Lambda probes (l probes) are used as input signals. The electromotive force (in volt) delivered by lambda probes is
dependent on the instantaneous oxygen content and on the temperature. Therefore, transmitter CI 45 can only display
accurate measurement results, if the probe temperature is known.
Distinction of heated and non-heated lambda probes is made.
Signals from both types can be handled by CI 45.
Heated lambda probes
Heated l probes are fitted with a controlled heating, which ensures a continuous temperature. This temperature must
be specified in parameter Probe temperature in transmitter CI 45.
Parameters ® Functions ® Pro be temperature tEmP ® ...°C (/°F/K - dependent on configuration)
Non-heated lambda probes
When the probe is always operated at a fixed, known temperature, the procedure is as with a heated probe.
UNIFLEX CI 45Filter23
Functions- preliminary -
A non-heated l probe is used, if the temperature is not constant. In this case, the temperature in addition to the
probe mV value must be measured. For this purpose, any temperature measurement with analog input INP2 can be
used. During function selection, input INP2 must be set for measurement (CONF/InP.2/I.Fnc=1).
Configuration:
O
-measurement must be adjusted in function 1 :
2
g
Func r Fnc.17
Connection
Connect the input for the lambda probe to INP1 . Use terminals I and 2.
If necessary, temperature measurement is connected to INP2.
Input 1 is used to adjust one of the high-impedance voltage inputs as sensor type:
Inp.1r S.tYP
These high-impedance inputs are without break monitoring. If necessary, input signal monitoring is possible via the
limit values.
Further recommendations for adjustment:
Input 1 must be operated without linearization:
Inp.1r S.Lin0
O2-measurement with constant probe temperature
(heated probe)
O2-measurement with probe temperature measurement
8
(non-heated probe)
special ( -2,5...115 mV)
41
special ( -25...1150 mV)
42
special ( -25...90 mV)
43
special ( -500...500 mV)
44
special ( -200...200 mV)
47
no linearization
g
g
With O2 measurement, specification if parameters related to the measured value should be output in ppm
or % is required. This is done centrally during configuration.
1
2
3
Unit: ppm
Unit: %
°C
°F
K
othrr O20
Whether the temperature of the non-heated l probe is entered in °C, °F or K can be selected during
configuration.
othrr Unit1
24O2 measurement (optional)UNIFLEX CI 45
Functions
Displays
With configuration for O2 measurement (see above), the oxygen content is displayed as process value with the selected
unit (see above) on line 1. Max. 4 characters can be displayed.
With display range overflow, “EEEE” is displayed .
Example: the ppm range is selected, but the value is a % value.
When exceeding the display span start, 0 is displayed.
20.95
+
Tip: the unit can be displayed on line 2.
6.8Counter (optional)
Digital input di1 can be configured as a counter input (dependent on ordering code).
The function operating as a pulse counter is set as
Up counter( ConF / Cn.Fr / I.Fnc = 1, 2 )
•
Down counter( ConF / Cn.Fr / I.Fnc = 3, 4 )
•
Active edge is configurable
•
g
a
The counter state is updated continuously in the background with the sample & hold function activated
(r p. ) .
The counter state is not stored permanently. It is reset to the counter start value (Cnt.S) after supply
voltage switch-on.
Up counter function
The counter starts with start value Cnt.S,
•
adjustable via ConF / Cn.Fr / Cnt.S.
With every edge at input di1, the counter is incremented by 1.
•
A counter end value can be defined via ConF / Cn.Fr / Cnt.E.
•
Pulses in excess are not counted.
With the counter end value switched off, incrementing is done up to
the max. coun ter value.
üû/o
cnt
Cnt.E = off
Cnt.E
g
UNIFLEX CI 45Counter (optional)25
Please, note that the counter end value must be higher than the
counter start value (Cnt.E > Cnt.S).
Down counter
The counter starts at counter start value Cnt.S,
•
adjustable via ConF / Cn.Fr / Cnt.S.
The counter is decremented by 1 with every edge at input di1.
•
The counter end value can be defined via ConF / Cn.Fr /
•
Cnt.E.
Pulses in excess are not counted.
With the counter end value switched off, decrementing is done down
to 0.
Cnt.S
Cnt.S
Cnt.E
cnt
Cnt.E = off
Functions
g
+
+
Note that the counter end must be set to a lower value than the counter start (Cnt.S > Cnt.E)
Resetting the counter
The counter can be reset to the start value by
Reset via key combination Enter + increment key
w
(keep the Enter key pressed and actuate the increment key)
An activated limit value Lim1 … Lim3.
w
Tip: When resetting the counter via a limit value, cyclic counting can be realized. Thereby, a pulse divider
is created when the limit value is provided at an output.
Counter divisor
The incoming pulses can be stepped down using parameter Cnt.d . This function is used for
Scaling the display range, e.g. to prevent display overflow, or for
•
Display value dimensioning.
•
With a counter divisor of 1000.0 and integration of the least significant digits of the counter value at
extended operating level, e.g. value 9999.9999 can be displayed.
450
cnts
1
2
E
F
Example:
– Adjusted counter divisor Cnt.d = 100.0 (100 pulses increment the process value by
1)
– Line 1: process value display
– Line 2: display of the least significant digits of the counter value (Cnt.L) at extended
operating level
– Example value: 24 / 56 = 24x 100 + 56 = 2456
Display overflow
An overflow of the display range is shown by EEEE on the display. Hoverever, the unit continues incrementing until
reaching the maximum counter width.
Simulation
For simulation of the counter input in the BlueControl®engineering tool, a counter pulse can be simulated using the
checkbox of digital input di1 or via input window “Freq”. The input value must be specified in kHz.
6.9Frequency input (optional)
Digital input di1 can be configured as a frequency input (dependent on ordering code). The frequency is a function of
the number of pulses counted during the gate time.
24
56
The display value is updated at the earliest after elapse of the gate time.
Settings:
Frequency measurement( ConF / Cn.Fr / I.Fnc = 5 )
•
Gate time( ConF / Cn.Fr / Frq.t)
•
+
26Frequency input (optional)UNIFLEX CI 45
During frequency measurement, measurements can be realized, monitored and output via universal inputs
INP1 / INP2, if necessary.
Scaling
The frequency input value can be scaled to a physical value in two points.
1st value:
The frequency input value can be filtered (Parameter Frq.F).
Exceeded frequency range
Functions
g
When exceeding the frequency input range end, measurements are switched off during approx. 1 s.
Out-of-range signalling is possible via an output signal: ConF / Out.x / FAi.F =1
Simulation
A special “Freq” input window is provided for simulation of the frequency input in the BlueControl®engineering tool.
It should be specified in kHz.
6.10Arithmetic functions
The following arithmetic functions are available in configuration setting CONF / Fnc.2 :
Square function
Formula: x
•
The display value which is squared is output.
Square root extraction
Formula: Öx
•
For output, the square root of the display value is extracted.
For values x £ 0 , value 0 is output.
2
UNIFLEX CI 45Arithmetic functions27
Functions- preliminary -
6.11Tare function (optional)
Switching on the tare function sets the instantaneous input value to zero and measurement is continued with this
offset. By switching off the tare function, the actual measurement value is displayed again.
Measurement value
Effective value
t
450.3
ûC
äüüü
FE
1
2
The tare function is enabled during configuration (Func r Fnc.3 = 1).
Dependent on configuration, the tare function can be activated by digital input di1 or interface (LOGI rtArA).
An active tare function is displayed as an active bar for display element ‘F’ .
6.12Sample&hold amplifier (optional)
With the sample & hold function activated, the measured value is held on the display. After de-activating the sample &
hold function, the actual measurement value is displayed again.
Measurement value
Effective value
75.9
ûC
äüäü
FE
1
2
617.2
ûC
äüüü
FE
1
2
t
450.3
ûC
äüüü
FE
1
2
The sample&hold amplifier function can be activated during configuration (Func r Fnc.3 = 2).
Dependent on configuration, the sample&hold function can be made effective via digital input di1 or via the interface
(LOGI r HOLd).
An active sample&hold amplifier function is displayed as an active bar for display element ‘F’ .
28Tare function (optional)UNIFLEX CI 45
450.3
ûC
äüäü
FE
1
2
450.3
ûC
äüüü
FE
1
2
450.3
ûC
äüäü
FE
1
2
450.3
ûC
äüüü
FE
1
2
6.13Integrator function
The input signal can be totalized by means of a selectable integrator (ConF \ Func \ Fnc.3 = 3).
Function:
Integrator with adjustable time constant (PArA \ Func \ t.I) [specified in minutes] and adjustable input offset
(PArA \ Func \ P.I)
Formula:
y(t) = y(t-Tr) + Tr/t * (x +P.I)
y(t)= integrator output
y(t-Tr)= integrator output of the last cycle
Tr= cycle time (100ms INP1, 140ms INP1 + INP2)
t= time constant
x= integrator input
P.I= input offset (zero offset)
With a constant input value, the integrator output reaches the specified value after elapse of the adjusted time
g
constant t.I.
Reset:
Dependent on selection (ConF\Logi\rES.I), the integrator can be reset via:
Functions
Digital input di1
w
Key combination Enter + increment key
w
(keep the Enter key pressed and actuate the increment key)
Limit values Limit1 to Limit3
w
Example 1:
A flow in m3/h is measured. The integrator should measure the overall flow quantity. The measured flow is related to
time unit hours, i.e. time constant t.I = 1 hour = 60 min must be used. Parameter P.I can be used for zero correction.
Example 2: pulse output
The integrator is activated. The resulting process value is monitored using a limit value (without memory) , e.g. Lim1.
Lim.1 is defined as integrator reset function. Limit value Lim.1 is output e.g. on ouput 1 (OUT.1).
When exceeding limit value Lim1, there is a signal change at OUT1 during a period (100ms INP1, 140ms INP1 + INP2).
x
H.1
P. I
t (cycle)
Lim.1
Out.1
6.14Limit value processing
Max. three limit values can be configured for the outputs. Generally, each one of outputs Out.1... Out.3 can be
used for limit value or alarm signalling. Several signals allocated to an output are linked by a logic OR function.
UNIFLEX CI 45Integrator function29
Functions
6.14.1Measured value monitoring
g
The signal to be monitored can be selected separately for each alarm in the configuration. The following
signals are available:
Process value (display value)
•
Measurement value INP1
•
Measurement value INP2 (option)
•
Counter / frequency measurement value (optional)
•
Each of the 3 limit values Lim.1 … Lim.3 has 2 trigger points H.x (Max) and L.x (Min), which can be switched off
individually (parameter = “OFF”). The hysteresis HYS.x of each limit value is adjustable.
Input value monitoring
Input value monitoring is as shown below:
Operating principle with absolute alarm (ex. Lim.1)
An alarm can become effective with a delay: the alarm output is set only after elapse of the adjusted delay time,
provided that the limit value is still exceeded. Shorter alarms than the adjusted delay are ignored.
Example: Alarm delay
Signal change monitoring
Another limit value processing function is signal change monitoring (per minute).
Behaviour with signal change (Ex. Lim1)
L.1 = Off
x
{{x
>H.1
t
LED
rot / red
t [min]
Lim.1
{{x
>H.1
t
LED
rot / red
UNIFLEX CI 45Limit value processing31
Functions
g
{{x
<L.1
t
LED
rot / red
H.1 = OFF
t [min]
x
Lim.1
With measurement value or signal change with latch selected ( ConF / Lim / Fnc.x=2, 4),
the alarm relay remains set, until the alarm was reset in the error list, via di1 or via the
interface (Lim1 ... Lim3 = 1).
For this, reset value 0 must be specified in the error list or via the interface.
g
After power on or an engineering download an used input filter has an effect on the gradient of the input
signal. Therefore a valid alarm monitoring can only be processed after a certain rise up time. This time
depends on the value of the filter time constant t.F.
For t.F = 0 the monitoring results are valid immediately.
6.14.2Monitoring the number of operating hours and switching cycles
Operating hours
The number of operating hours can be monitored. When reaching or exceeding the adjusted value, signal InF.1 is
activated (in the error list and via an output, if configured).
The monitoring timer starts when setting limit value C.Std. Reset of signal InF.1 in the error list will start a new
monitoring timer. Monitoring can be stopped by switching off limit value C.Std.
Adjusting the limit value for operating hours C.Std can be done only via BlueControl®.
g
The current counter state can be displayed in the BlueControl
The number of operating hours is saved once per hour. Intermediate values are lost when switching off.
g
Number of switching cycles
The output number of switching cycles can be monitored. When reaching or exceeding the adjusted limit value, signal
InF.2 is activated (in the error list and via an output, if configured).
The monitoring timer starts when setting limit value C.Sch. Reset of signal InF.2 in the error list will start a new
monitoring timer. Monitoring can be stopped by switching off limit value C.Sch.
®
expert version.
A switching cycle counter is allocated to each output. Limit value C.Sch acts on all switching cycle counters.
g
Adjusting the limit value for the number of switching cycles C.Sch can be done only via BlueControl®.
g
The current counter state can be displayed in the BlueControl
The number of switching cycles is saved once per hour. When switching off, intermediate values are lost.
g
32Limit value processingUNIFLEX CI 45
®
expert version.
6.15Analog output configuration
6.15.1Analog output
The two output signals (current and voltage) are available simultaneously. Adjust ConF / Out.3 / O.tYP to
select the output type which should be calibrated.
Parameter O.Src defines the signal source of the output value.
Example:
O.Src=3signal source for Out.3 is
Scaling of the output range is done via parameters Out.0 and Out.1. The values are specified in units of the
physical quantity.
Out.0=-1999...9999scaling Out.3
Out.1=-1999...9999scaling Out.3
Example: output of the full input range of thermocouple type J (-100 … 1200 °C)
Out.0 = -100
Out.1 = 1200
Example: output of a limited input range, e.g. 60.5 … 63.7 °C)
Out.0 = 60.5
Out.1 = 63.7
20mA
10V
the process value
for 0/4mA or 0/2V
for 20mA or 10V
mA / V
+
g
g
g
UNIFLEX CI 45Analog output configuration33
Please, note: the smaller the span, the higher the effect of input variations and resolution.
Using current and voltage output in parallel is possible only in galvanically isolated circuits.
Configuration O.tYP = 2 (4 … 20mA) or 4 (2...10V) means only allocation of the reference value (4 mA or 2V)
for scaling of output configuration Out.0. Therefore, output of smaller values is also possible rather than
output limiting by reference value 4mA / 2V.
Configuration O.tYP = 0/1 (0/4...20mA) or 2/3 (0/2...10V) determines, which output should be used as a
calibrated reference output.
Functions
6.15.2Logic output
The output can be used also as a logic output (O.typ = 0). In this case, e.g. alarms or limit values can be output.
6.15.3Transmitter power supply
Two-wire transmitter power supply can be selected by adjusting O.typ =5.
In this case, the analog output of UNIFLEX CI 45 is not available any more, but the input signal can be monitored or
read out via the interface.
Connection example:
INP2
INP1
OUT3
PWR
8
5
1
76
3
3
2
+
-
di1
4
13V
22mA
2
-
+
12
13
17
14
18
OUT1
OUT2
11
15
16
3
K
1
34Analog output configurationUNIFLEX CI 45
6.15.4Frequency output (optional)
The analog output signal for voltage can be selected also as a frequency output with setting:
ConF / Out.3:O.tYP=6Out.3 0...10V frequency output
Frq.H
Functions
f[Hz]
Quelle
source
Frq.L
Out.L
Setting O.Src defines the signal source of the frequency output value.
Example:O.Src= 3 signal source for Out.3 is the process value
Output range scaling is done via parameter pairs Out.L/ FrQ.L and Out.H/ FrQ.H. Values Out.L and
Out.H are specified in physical units, FrQ.L and FrQ.H are specified in Hz.
The output behaviour in case of input value error can be defined via O.FAI .
Out.H
phys. Größe
phys. size
(V)
g
g
Please, note that the lower the span the higher the effect of input variations and resolution steps
Signals exceeding the permissible frequency range cause deviations from the square shape of frequency
waves.
6.15.5Analog output forcing
By adjusting f.Out = 1 (only via BlueControl), the output can be configured for value input via interface, or by means of
an input value at extended operating level (=Forcing).
g
g
This setting can be used also for e.g. testing the cables and units connected in the output circuit.
This function can also realize a setpoint potentiometer.
UNIFLEX CI 45Analog output configuration35
Functions
2
6.16Maintenance manager / error list
In case of one or several errors, the error list is always displayed at the
beginning of the extended operating level .
A current input in the error list (alarm or error) is always indicated by display of
letter E .
450.3
ûC
For display of the error list, press key ô once.
E- display element SignificationFurther procedure
blinksAlarm is pending, error- The error number in the error list indicates the error type
-Remove the error.
onError was removed, alarm not
acknowledged
offNo error, all alarm entries are deleted
Error list:
NameDescriptionCausePossible remedial action
E.1Internal error,
cannot be corrected
E.2Internal error, resettableE.g. EMC troubleKeep measuring and supply cables
POL.2 INP2 polarity errorWiring errorChange INP2 polarity
Lim.1 Latched limit value alarm 1Adjusted limit value 1 exceededCheck process
Lim.2 Latched limit value alarm 2Adjusted limit value 2 exceededCheck process
Lim.3 Latched limit value 3Adjusted limit value 3 exceededCheck process
Inf.1 Time limit value messagePreset number of operating hours
Inf.2 Switching cycle message
(digital outputs)
E.g. defective EEPROMContact PMA service
Missing or faulty configurationCheck interdependencies for
identical
Wiring error
Wiring error
Wiring error
Wiring error
reached
Preset number of switching
cycles reached
- Acknowledge the error in the error list by pressing
È or Ì - key.
- The alarm entry is deleted.
Return instrument to manufacturer
separate. Protect contactors by means of
RC snubber circuits
Latched alarms Lim1/2/3 (E element displayed) can be acknowledged, i.e. reset via digital alarm di1.
For Configuration, see page 46: ConF / LOGI / Err.r
When an alarm is still pending, i.e. unless the error cause was removed ( E display blinks), latched alarms
cannot be acknowledged and reset.
Error-stateSignification
2Pending errorChange to error status 1after error removal
1Stored errorChange to error status 0 after acknowledgement in error list 0
0no error/messageNot visible, except during acknowledgement
If sensor errors should not be on the error list any more after error correction without manual reset in the
error list, suppression via BlueControl is possible by means of setting ILat.
CONF / othr / ILat1
This setting is without effect on limit values Lim.1 … 3 configured for storage.
6.17Reset to factory setting
In case of faulty configuration, UNIFLEX CI 45 can
be reset to its factory setting.
blocked
g
g
g
For this, the operator must keep the keys
Ü
increment and decrement pressed during
power-on.
*
For confirmation, press key increment to
select
YES
Ö
Confirm factory resetting with Enter and the
copy procedure isl started (display COPY).
ä
Afterwards the device restarts.
In all other cases, no reset will occur(timeout
abortion).
If one of the operating levels was blocked,
reset to factory setting is not possible.
If a pass number was defined (via
BlueControl
blocked, enter the correct pass number
when prompted in 3. A wrong pass numbers
aborts the reset action.
The copy procedure (COPY) can take some
seconds.
Now, the transmitter is in normal operation.
®
) but no operating level was
2
3
+ Power on
FAC
torY
FAC
no
FAC
yEs
ô
FAC
COPY
8.8.8.8
#:#:#:#:#
ääää
4
UNIFLEX CI 45Reset to factory setting37
Configuration level
7
.
Configuration level
7.1Configuration survey
Dependent on the device version and further adjusted configurations, configurationdata can be hidden.
Data operable via the instrument front panel are shown in the following figure.
ô
ô
Fnc.1
Fnc.1
Fnc.2
Fnc.2
Fnc.3
Fnc.3
ô
ô
s
s
t
t
Inp.1
Inp.1
ô
ô
StYP
StYP
4wir
4wir
S.Lin
S.Lin
Corr
Corr
In.F
In.F
ô
ô
s
s
t
t
Inp.2
Inp.2
ô
ô
I.Fnc
I.Fnc
StYP
StYP
S.Lin
S.Lin
Corr
Corr
In.F
In.F
ô
ô
t
t
s
s
LimOUt.1OUt.2
LimOUt.1OUt.2
Fnc.1
Fnc.1
Src.1
Src.1
Fnc.2
Fnc.2
Src.2
Src.2
Fnc.3
Fnc.3
Src.3
Src.3
t
t
s
s
ô
ô
ô
ô
ô
ô
0.Act
0.Act
Lim.1
Lim.1
Lim.2
Lim.2
Lim.3
Lim.3
FAi.1
FAi.1
FAi.2
FAi.2
ô
ô
s
s
t
t
ô
ô
0.Act
0.Act
Lim.1
Lim.1
Lim.2
Lim.2
Lim.3
Lim.3
FAi.1
FAi.1
FAi.2
FAi.2
ô
ô
s
s
t
t
OUt.3
OUt.3
ô
ô
O.tYP
O.tYP
0.Act
0.Act
Lim.1
Lim.1
Lim.2
Lim.2
Lim.3
Lim.3
FAi.1
FAi.1
FAi.2
FAi.2
Out.0
Out.0
Out.1
Out.1
O.src
O.src
s
s
t
t
LOGI
LOGI
ô
ô
di.Fn
di.Fn
L_r
L_r
Err.r
Err.r
I.ChG
I.ChG
tArA
tArA
HOLd
HOLd
rES.L
rES.L
rES.H
rES.H
ô
ô
s
s
t
t
othr
othr
ô
ô
bAud
bAud
Addr
Addr
PrtY
PrtY
dELY
dELY
d.Unt
d.Unt
02
02
Unit
Unit
dP
dP
SEGm
SEGm
C.dEL
C.dEL
s
s
t
t
EndFunc
End
EndFunc
End
ô
ô
g
g
ô
O.FAI
O.FAI
ô
ô
Setting:
The configurations can be adjusted by means of keys ÈÌ .
•
Transition to the next configuration element is by pressing key ô .
•
After the last configuration of a group, donE is displayed and an automatic change to the next group is made.
•
Return to the start of a group is by pressing key ô during 3 sec.
With configuration changes, please, check all dependent parameters for validity.
ô
38Configuration surveyUNIFLEX CI 45
7.2Configurations
Dependent on instrument version and configuration settings, display of values which are not required is suppressed.
µ The entries marked with this symbol are selectable only, if the instrument option is fitted.
Function selection Func
NameValue rangeDescription
Fnc.1
Fnc.2
Fnc.3
Function 1 µ
0Process value = INP1
2Difference (INP1 -INP2)
3Max (INP1, INP2)
4Min (INP1, INP2)
5Mean value (INP1, INP2)
6Switch-over (INP1, INP2)
7O
8O
9Counter / frequency
10Process value = INP1 ( TC of INP2)
0No function
1Squarer
2Square root
0No function
1Tare
2Sample & Hold
-Function with constant probe temperature
2
-Function with measured probe temperature
2
Function 2
Function 3 µ
Configuration level
Inputs InP.1 and InP.2 (µ)
NameValue rangeDescription
I.Fnc
0No measurement
1measurement
S.tYP
0Thermocouple type L (-100...900°C), Fe-CuNi DIN
1Thermocouple type J (-100...1200°C), Fe-CuNi
2Thermocouple type K (-100...1350°C), NiCr-Ni
3Thermocouple type N (-100...1300°C), Nicrosil-Nisil
4Thermocouple type S (0...1760°C), PtRh-Pt10%
5Thermocouple type R (0...1760°C), PtRh-Pt13%
6Thermocouple type T (-200...400°C), Cu-CuNi
7Thermocouple type C (0...2315°C), W5%Re-W26%Re
8Thermocouple type D (0...2315°C), W3%Re-W25%Re
9Thermocouple type E (-100...1000°C), NiCr-CuNi
10Thermocouple type B (0/100...1820°C), PtRh-Pt6%
18Special thermocouple (linearization necessary)
20Pt100 (-200.0 ... 100,0 °C) (150°C with reduced lead resistance)
21Pt100 (-200.0 ... 850,0 °C)
22Pt1000 (-200.0...850.0 °C)
23Special 0...4500 Ohm (preset KTY11-6)
0Switched off
1Measured value monitoring
2Measured value monitoring + alarm status latch. A stored limit value can
3Signal change (in minutes).
4Signal monitoring for rate of change (per minute) + storage of the alarm
Src.1
(Src.2)
(Src.3)
C.StdOFF; 1 … 9999999Monitoring operating hour (only visible with BlueControl!)
C.SchOFF; 1 … 9999999Monitoring duty cycle (only visible with BlueControl!)
0Process value= displayed value
3Measured value of the analog input INP1
4Measured value of the analog input INP2
10Counter/frequency measurement value
Function of limit 1 (2, 3)
be reset via error list or a digital input ( -> LOGI/Err.r)
status. A stored limit value can be reset via error list or a digital input (
->LOGI/Err.r)
Source of limit 1 (2, 3)
Configuration level
Outputs Out.1 and Out.2 µ (Relay)
NameValue rangeDescription
O.Act
0Direct / normally open
1Inverse / normally closed
Lim.1
0Not active
1Active
Lim.2
0Not active
1Active
Lim.3
0Not active
1Active
FAi.1
0Not active
1Active
FAi.2
0Not active
1Active
FAi.F
0Not active
1Active
Sb.Er
0Not active
1Active
fOutForcing of analog output OUT 1 (only visible with BlueControl!)
0Not active
1The value for this output is preset via interface
Inf.1Status message Inf.1 (operating hours) (only visible with BlueControl!)
0Not active
1active
Direction of operation OUT1
Signal limit 1
Signal limit 2
Signal limit 3
Signal INP1 fail
Signal INP1 fail µ
Frequency error µ message
System bus error µ message
UNIFLEX CI 45Configurations41
Configuration level
NameValue rangeDescription
Output Out.3 (analog)
NameValue rangeDescription
O.tYP
O.Act
Lim.1
Lim.2
Lim.3
FAi.1
FAi.2
FAi.F
Sb.Er
Out.0
Out.1
Out.L
FrQ.L
Out.H
FrQ.H
Inf.2Status message Inf.2 (number of switching cycles) (visible only with BlueControl!)
0Not active
1Active
Type of OUT3
0Relay / logic (only visible with current/logic/voltage)
10 ... 20 mA continuous (only visible with current/logic/voltage)
24 ... 20 mA continuous (only visible with current/logic/voltage)
30...10 V continuous (only visible with current/logic/voltage)
42...10 V continuous (only visible with current/logic/voltage)
5Transmitter supply (only visible with current/logic/voltage)
6Frequency µ
Direction of operation OUT3 (only visible with O.TYP=0 )
0Direct / normally open
1Inverse / normally closed
Signal limit 1 (only visible with O.TYP=0 )
0Not active
1Active
Signal limit 2 (only visible with O.TYP=0 )
0Not active
1Active
Signal limit 3 (only visible with O.TYP=0 )
0Not active
1Active
Signal INP1 fail (only visible with O.TYP=0 )
0Not active
1Active
Signal INP2 fail (only visible with O.TYP=0 )µ
0Not active
1Active
Frequency error µ message
0Not active
1Active
System bus error µ message
0Not active
1Active
-1999
...9999
-1999
...9999
-1999
...9999
-1999
...9999
-1999
...9999
0.0...9999Max. output frequency in Hz (visible only with O.TYP=6)µ
Lower scaling limit of the analog output (corresponds to 0% (0/4mA bzw. 0/2V, only
visible with O.TYP=1..4)).
Upper scaling limit of the analog output (corresponds to 100% (20mA bzw. 10V,
only visible with O.TYP=1..4 )).
Input value for min. output frequency (visible only with O.TYP=6)µ
Min. output frequency in Hz (visible only with O.TYP=6)µ
Input value for max. output frequency (visible only with O.TYP=6)µ
42ConfigurationsUNIFLEX CI 45
Configuration level
NameValue rangeDescription
O.Src
0Not active
3Process value
7Measured value INP1
8Measured value INP2 µ
O.FAI
0Upscale
1Downscale
Inf.1Status message Inf.1 (operating hours) (visible only with BlueControl!)
0Not active
1Active
Inf.2Status message Inf.2 (number of switching cycles) (visible only with BlueControl!)
0Not active
1Active
fOutForcing OUT3 (only visible with BlueControl!)
0Not active
1The value for this output is preset via interface
Signal source for analog output OUT3 (only visible with O.TYP=1..4 )
Fail behaviour
Logic LOGI
NameValue range Description
di.Fn
0Direct
1Invers
2toggle key function (adjustable for 2-point-operation with interface and di1)
L_r
0No function (switch-over via interface is possible)
1Always active.
2Di1 switches.
7Limit 1 switches
8Limit 2 switches
9Limit 3 switches
Err.r
0No function (switch-over via interface is possible)
2Di1 switches.
7Limit 1 switches
8Limit 2 switches
9Limit 3 switches
I.ChG
0No function (switch-over via interface is possible).
2Di1 switches.
7Limit 1 switches
8Limit 2 switches
9Limit 3 switches
Function of inputs (valid for all inputs)
Local / remote switchover
(Remote: Adjustment of all values via the front panel is blocked)
Source for resetting all stored entries in the error list
Switching the effective process value between INP1 and INP2.
µ (input 2 must be released (CONF / Inp.2 / I.Fnc = 1))
UNIFLEX CI 45Configurations43
Configuration level
NameValue range Description
tArA
HoLd
rES.L
rES.H
rES.I
rES.C
Tare-function µ (function must be activated (CONF /FUNC / Fnc.3 = 1))
0No function (switch-over via interface is possible).
2Di1 switches.
7Limit 1 switches
8Limit 2 switches
9Limit 3 switches
Sample & hold -function µ(function must be activated (CONF /FUNC / Fnc.3 = 2))
0No function (switch-over via interface is possible).
2Di1 switches.
7Limit 1 switches
8Limit 2 switches
9Limit 3 switches
Reset minimum value
0No function (switch-over via interface is possible).
2Di1 switches.
7Limit 1 switches
8Limit 2 switches
9Limit 3 switches
Reset maximum value
0No function (switch-over via interface is possible).
2Di1 switches.
7Limit 1 switches
8Limit 2 switches
9Limit 3 switches
Reset Integrator
0No function (switch-over via interface is possible).
2Di1 switches
6Reset-key switches
7Limit 1 switches
8Limit 2 switches
9Limit 3 switches
Zähler-Reset
0No function (switch-over via interface is possible).
6Reset-key switches
7Limit 1 switches
8Limit 2 switches
9Limit 3 switches
fDI1Forcing of digital input di 1 (only visible with BlueControl!)
0Not active
1The value for this output is preset via interface
Value U.LinT defines the unit of input values specified for linearization of temperature values . Value entry
in Celsius despite display of the measured value in Fahrenheit is possible.
Specify the input signals mV, V, mA, % or Ohm dependent on input type.
w
For special thermocouples (S.tYP = 18), specify the input values in mV and the output values in the temperature
w
unit adjusted in U.LinT.
For special resistance thermometer (KTY 11-6) (S.tYP = 23), specify the input values in Ohm and the output value
w
in the temperature unit adjusted in U.LinT .
g
46ConfigurationsUNIFLEX CI 45
For resetting the instrument configuration to factory setting (default ),
r section 12.4, 6.17 (page 37)
Parameter setting level
8
.
Parameter setting level
8.1Parameter survey
Dependent on instrument version, display of parameters which are not required is suppressed.
8.2Adjustment
The parameters can be adjusted by means of keys ÈÌ .
•
Transition to the next parameter is by pressing key ô.
•
After the last parameter of a group, donE is displayed and the transmitter changes to the next group
•
automatically.
g
Press key ô during3storeturn to the beginning of a group.
Unless a key is pressed during 30 sec., the transmitter returns to the operating level (timeout = 30 s) .
UNIFLEX CI 45Parameter survey47
Parameter setting level
8.3Parameters
µ The entries marked with this symbol are selectable only with the instrument option fitted.
t.I0,1...9999Integrator-Zeitkonstante in Minuten µ
P.I-1999...9999Integrator-Offsetµ
0...9999Probe temperature for O2-measurement µ
-1999...9999 Input value of the lower scaling point
-1999...9999 Display value of the lower scaling point
-1999...9999 Input value of the upper scaling point
-1999...9999 Display value of the upper scaling point
0...999,9Filter time 1 [s]
0...9999Filter bandwidth
OFF, 0...100 externalcold junction compensation, range depends on temperature unit
Counter/frequency input µ
NameValue range Description
Cnt.d
Cnt.S
Cnt.E
Frq.L
Ou.L
Frq.H
Ou.H
Frq.F
Limit values Lim1 … Lim 3
NameValue range Description
L.1
H.1
HYS.1
dEL.1
L.2
H.2
HYS.2
dEL.2
L.3
H.3
HYS.3
dEL.3
0,1...9999Counter divider
0...9999Counter start value
0...9999Counter end value
0.000...100.0 Lower input value in kHz
-1999...9999 Lower output value in phys. units
0.000...100.0 Upper input value in kHz
-1999...9999 Upper output value in phys. units
0...9999Filter time constant in s
-1999...9999 Lower limit 1 (L.1< -1999 = off)
-1999...9999 Upper limit 1 (H.1< -1999 = off)
0...9999Hysteresis 1
0...9999Limit 1 delay
-1999...9999 Lower limit 2 (L.2< -1999 = off)
-1999...9999 Upper limit 2(H.2< -1999 = off)
0...9999Hysteresis 2
0...9999Limit 2 delay
-1999...9999 Lower limit 3 (L.3< -1999 = off)
-1999...9999 Upper limit 3(H.3< -1999 = off)
0...9999Hysteresis 3
0...9999Limit 3 delay
g
48ParametersUNIFLEX CI 45
For resetting the parameters to factory setting (default),
r section 12.4, 6.17 (page 37)
Calibrating level
9
.
g
Calibrating level
Adaptation of the measurement value is possible in the calibrating menu ( CAL).
Measured value correction ( CAL) is accessible only, if ConF / InP/ Corr = 1 or 2 was selected.
g
g
+
Two methods are possible :
offset correction
•
2-point correction
•
Values InL.x and InH.x are displayed with one digit behind the decimal point. However, the full
resolution is used as a reference for calculating the correction.
The easiest way to delete the corrective values is by switching off the measured value correction
Corr = 0 or by setting the scaling parameters to a linear curve.
Values InL.x and InH.x indicate the actual measurement value. Output values OuL.x and
OuH.x start with the previously adjusted value.
UNIFLEX CI 4549
Calibrating level
9.1Offset correction
Offset correction shifts the input value by a pre-defined value.
Parameter setting:
( ConF/ InP/ Corr =1 ):
On-line offset correction at the process is possible.
w
450.3
450.0
äüüü
r
ô
3sec.
r
PArA
rr
ConF
display
OuL
OuLold
new
standard setting
offset correction
InL
X
CAL
r
InL:The actual input value of the scaling point is displayed.
The correction function is activated by means of keys ÈÌ ; the display changes from Off to
the measured value.
The operator must wait, until the process is at rest.
Subsequently, the input value has to be confirmed by pressing key ô .
OuL:The scaling point display value is indicated.
The operator can correct the display value by pressing keys ÈÌ. Subsequently, he presses key
ô to confirm the display value.
ô
r
InP
r
ô
r
r
r
InL
InL
ô
OuL
End
r
r
ô
ô
ô
50Offset correctionUNIFLEX CI 45
9.22-point correction
Calibrating level
2-point correction can change the offset and gradient
of
the input curve.
Parameter setting:
( ConF/ InP/ Corr = 2 ):
2-point correction is possible off-line by means
w
of
an input signal simulator,
or on-line in 2 steps: correct one value first and
w
the second value subsequently, e.g. after heating
up the furnace.
450.3
450.0
äüüü
r
ô
3sec.
r
PArA
ConF
rr
CAL
r
r
ô
display
OuH
old
OuH
new
OuL
OuLold
InP
rr
new
ô
InL
InL
InL
OuL
r
ô
standard setting
2-point correction
ô
r
ô
InH
X
r
InH
InH
ô
OuH
r
InL:The input value of the lower scaling point is displayed.
The correction function is activated via keys ÈÌ ; the display changes from Off to the
measurement value.
Adjust the lower input value by means of an input signal simulator and press key ô to confirm
the input value.
OuL:The display value of the lower scaling point is indicated.
Press keys ÈÌ to correct the lower display value and press key ô to confirm the display
value.
InH:The input value of the second scaling point is displayed.
Activate the corrective function by pressing keys ÈÌ ; the display changes from Off to the
measured value.
Adjust the upper input value by means of the input signal simulator and confirm the input
value by pressing key ô .
OuH:The display value of the upper scaling point is indicated.
Correct the upper display value by pressing keys ÈÌ and press key ô to confirm the
display value.
End
r
ô
ô
r
ô
UNIFLEX CI 452-point correction51
BlueControlÒengineering tool
10
.
BlueControlÒengineering tool
The BlueControlÒengineering tool is the projecting environment for the PMA BluePortâinstrument series and for the
rail line series. The following versions with different functionalities are available:
FunctionsMiniBasicExpert*
Parameter and configuration settingyesyesyes
Download: Writing an engineering to the transmitteryesyesyes
Online-Mode / visualisationSIM onlyyesyes
Creation of user-specific linearizationSIM onlyyesyes
Configuration of extended operating levelyesyesyes
Upload: Reading an engineering from the transmitterSIM onlyyesyes
Basic diagnosis functionnoneinyes
Storage of data, engineeringsnoyesyes
Printer functionnoyesyes
Onlinedocumentation / helpyesyesyes
Measurement correctionyesyesyes
Data aquisition and trend-recordingSIM onlyyesyes
Net- / Multiuserlicencenonoyes
Personal assistant function
* on request
A free-of-charge mini version is
available for download on the
PMA homepage
www.pma-online.de or on PMA
CD (on request).
At the end of installation, enter
the licence number delivered
with BlueControl or select
DEMO mode. In DEMO mode,
subsequent entry of the licence
number is also possible in Helpr Licence r Add .
52UNIFLEX CI 45
Versions
g
g
11
.
Versions
Universal transmitter
CI 45
C
I45 1
0
00
0
1 universal-input, control-input
with display and BluePort®-interface
no plug-in connectors
withscrew-terminalplug-inconnectors
90..260V AC, mA/V/Logik +1 relay
18...30VAC/18..31VDC, mA/V/logic+1 relay
90..260V AC, mA/V/logic + 2 relay
18...30VAC/18..31VDC,2mA/V/logic+ relay
noOption
RS 485 / MODBUS - protocol
systeminterface for 24V versions only
noOption
Optionpack 1*
Optionpack 2**
0
1
2
3
4
5
0
1
2
0
1
2
Standardconfiguration
Configuration to specification
DescriptionOrder no.
PC adaptor for the BluePort® front interface9407-998-00001
Operating instructions for CI 45German9499-040-71718
Operating instructions for CI 45English9499-040-71711
Interface description MODBUS rail lineGerman9499-040-72018
Interface description MODBUS rail lineEnglish9499-040-72011
BlueControl® MiniGerman/Englishwww.pma-online.de
BlueControl® with basic licence rail lineGerman/English9407-999-12001
BlueControl® with expert licence rail lineGerman/English9407-999-12011
0
9
0
U
53UNIFLEX CI 45
Technical Data
12
.
Technical Data
INPUTS
UNIVERSAL INPUT INP1
Resolution:>15 bits
Decimal point:0 to 3 decimals
Digital input filter:adjustable 0.0...999.9 s
Scanning cycle:100 ms
Linearization:31 segments, adaptable with BlueControl®
Measurement value correction: 2-point or offset
Limiting frequency:1.7 Hz
EMI-measuring by means of INP1 (high-impedance mV-inputs)
suitable for probes with
-constant sensor temperature (heated probes), setting by means
of parameter
-measured sensor temperature (non-heated probes), measuring
-
by means of INP2
ADDITIONAL INPUT INP2
(UNIVERSAL, OPTION)
Resolution:> 15 bits
dig. input filter:adjustable 0,0...999,9 s
Scanning cycle:140 ms
Linearization:as for INP1
Meas. value correction: 2-point or offset correction
Type:single ended except thermocouples
Resistance thermometer (Table 2)
Connection technique:3 or 4-wire
Lead resistance:max. 30 W
Input circuit monitoring:break and short circuit
LFe-CuNi (DIN)-100...900°C-148...1652°Fß 2K0.05 K
JFe-CuNi-100...1200°C-148...2192°Fß 2K0.05 K
KNiCr-Ni-100...1350°C-148...2462°Fß 2K0.1 K
NNicrosil/Nisil-100...1300°C-148...2372°Fß 2K0.1 K
SPtRh-Pt 10%0...1760°C32...3200°Fß 3K0.1 K
RPtRh-Pt 13%0...1760°C32...3200°Fß 3K0.1 K
TCu-CuNi-200...400°C-328...752°Fß 2K0.03 K
CW5%Re-W26%Re0...2315°C32...4199°Fß 3K0.2 K
DW3%Re-W25%Re0...2315°C32...4199°Fß 3K0.2 K
ENiCr-CuNi-100...1000°C-148...1832°Fß 2K0.05 K
B *PtRh-Pt6%0(400)...1820°C32(752)...3308°Fß 3K0.2 K
with square wave 1:1
Pulse duration, min.:5µs
Effects to active transmitters connected to INP1, INP2 can occur.
Frequency input (optional)
Input with option optocoupler
Frequency range:0...100 kHz with square wave 1:1
Gate time:adjustable, 0.1... 20s
Process value:scalable
Effects to active transmitters
connected to INP1, INP2 can
occur.
OUTPUTS
RELAY OUTPUTS OUT1, OUT2
Contact type:2 normally open contacts with
common connection
Maximum contact rating:500 VA, max. 250 V, max. 2A at
48...62 Hz, resistive load
Minimum contact rating:6V, 1 mA DC
Number of electrical
switching cycles:
Note:
If the relays OUT1 and OUT2 operate external contactors, these
must be fitted with RC snubber circuits to manufacturer
specifications to prevent excessive voltage peaks at switch-off.
for I= 1A/2A:
? 800.000 / 500.000
(at ~ 250V (resistive load))
OUT3 AS UNIVERSAL OUTPUT
Galvanically isolated from the inputs. Parallel current/voltage
output with common ‘minus’ terminal (combined use only in
galvanically isolated circuits).
Voltage:90...260 V AC
Frequency:48...62 Hz
Consumption:approx. 7 VA max.
Universal supply 24 V UC
AC supply:18...30 V AC
Frequency:48...62 Hz
DC supply:18...31 V DC
Consumption:approx. 3 VA / W max.
Supply only from safety electrical low voltage (SELV).
* Instruments with optional system interface:
Energization via the bus connector of field bus coupler or power
supply module
Behaviour with power failure
Configuration and parameter settings:
Permanent storage in EEPROM
BLUEPORT®FRONT INTERFACE
Connection to the transmitter front via a PC adapter (see
‘Accessories’). The BlueControl
configured, parameters set, and operated.
®
software enables the CI 45 to be
BUS INTERFACE (OPTIONAL)
safety isolation
functional isolation
permissible voltages:
safety isolationß 300 Vrmsf AC against earth
functional isolationß 30 Vrmsf AC against earth
Galvanic isolation of inputs, outputs and supply voltage
Test voltages:
Between power supply and in-/outputs:2,3 kV AC, 1 min
Between input and output:500 V AC; 1min
Max. permissible voltages:
Between inputs/outputs against earth:ß 33VAC
RS 485
Connection via bus connector fitted in the top-hat rail. Screened
cables should be used.