Elimko FT-10 Series Filter Timer User Manual
- June 13, 2024
- Elimko
Table of Contents
E-FT-10 USER MANUAL
E-FT-10 device control units are designed for rail mounting and should be used in an industrial environment.
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The package of E-FT-10 device contains;
Device
User manual
Guarantee certificate -
After opening the package, please check the contents with the above list. If the delivered product is wrong type, any item is missing or there are visible defects, contact the vendor from which you purchased the product.
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Before installing and operating the device, please read the user manual thoroughly.
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The installation and configuration of the controller must only be performed by a person qualified in instrumentation.
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Keep the unit away from feamable gases, that could cause explosion.
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Do not use alcohol or other solvents to clean the device. Use a clean cloth soaked in water tightly squeezed to gently wipe the outer surface of the device.
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The lifetime of device is 10 years.
INTRODUCTION
E-FT-10 is a programmable timer which has pressure control unit, is used in
filter cleaning system. Device contains a control unit and output units, that
are controlled by control unit. Control unit controls the output units on
communication line. Operating and selonoid voltages of output units are
supplied from control unit. Control unit has 8 outputs, each output unit has
up to 16 outputs. Outputs can switch maximum 250 VAC, 1A. Device has 2 alarm
relays. These relays can give an alarm to user, if any problem exists on
output selonoids. RS-485 communication line on the device works according to
Modbus protocol. Configuration parameters and error messages can also be
viewed using Modbus. Outputs scanning order is configured by comminucation
line.
Device has 2 different kind of pressure input according to device type code,
that is explained in
1.1 TYPE CODING
If U (TYPE CODING) is selected as “1”, pressure inputs are connected on quick
connect, that is shown as LO and HI on the front panel. In this case,
differential pressure is measured by internal pressure sensor. If U (TYPE
CODING) is selected as “2”, an analog signal (current or voltage) is connected
to analog input of device. In these two different situation, pressure value is
shown on display, retransmitted on analog output. Device can perform ON/OFF or
proportional control according to pressure value. These control
methods are explained in 4.1 CONTROL TYPES .
1.1. TYPE CODING
(1) Pressure sensor of device works in 7kPa range. If pressure control is
selected as analog input, input type and input range must be defined on order.
(2) When X is selected as “1” (Solenoid Voltage Yes) than Y must be selected
as “1”. When X is selected as “1” factory default is 24 VDC.
1.2. TECHNICAL SPECIFICATION
| Operating Voltage | 85-265 V AC / 85-375 V DC 20-60 V AC / 20-85 V DC |
|---|---|
| Display Type | 2×4 digit 10 mm 7 segment display |
| Alarm Outputs | Relay: SPST-NO 250 V AC, 3 A |
| Retransmission Output | Current: 0-20 mA, 4-20 mA (isolated) |
| Relay Outputs | Minimum 8 Relays, maximum 128 Relays SPST-NO 250 V AC, 1 A |
| Relay Mechanical Life | 10 000 000 operation |
| Relay Electrical Life | Almost same as mechanical life, because the switching |
is made with semiconductor.
Control Type| On/Off, Proportional(P)
Power Consumption| 7W (10 VA)
Operating Temperature| 0 °C, +55 tC (With no condensation or icing)
Storage Temperature| -25 °C, +55 °C (With no condensation or icing)
Memory| EEPROM max. 10000 writing
Weight| 400 g
1.3. DIMENSIONS
CONNECTION DIAGRAMS
2.1. CONTROL UNIT CONNECTION DIAGRAM
- A21 and A22 (+VSUP-) terminals are power supply of output units and are connected to A2 and A3 terminals of output units. A23 (DATA) terminal is data line of output units, and are connected to A1 terminal of output units. These terminals must be connected in order to power output units.
- Selonoids supply voltage must be connected B9 and B10 (+VSIN-) terminals.
- B11 and B12 (-VOUT+) terminals must be connected to B5 and B6 (+VIN-) terminals of output units for selonoid supply voltage on output units. If these terminals are not connected, all of selonoids on output units are open circuit, so device gives alarm and selonoids are not powered.
- Alarm1 and Alarm2 give alarm according to different alarm source, that is explained 4.2 ALARM RELAYS.
2.2. OUTPUT UNIT CONNECTION DIAGRAM
- Control Unit A1-A3, B9-B28, output unit A7-A18, B5-B18 terminals have dangerous voltage. While device is powered, never touch to these terminals .
- Before operating the device, ensure that the device is correctly configured. Incorrect configuration could result malfunction.
3. USAGE
E-FT-10 front panel image is shown in 1.INTRODUCTION part. RL1 led lights when
Relay1 (RL1) is powered, led lights when Relay2 RL2 (RL2) is powered, led
lights when any selonoid output is powered, OUT and led lights during
configuration mode. During normal operation page, active group number (XX) is
shown on the top display like as ( XX), and active output number (YYY) is
shown on the bottom display like as ( YYY). During normal operation page,
button is used for displaying PR Gr O ENTER SETL differential pressure and set
values and changing set values. While and parameters are shown, and buttons
change SETH PRG the set values and button reverts to the normal operation
page. During normal operation page, if and buttons are pressed together, error
message display is opened. During error message display, button is used for
scanning outputs that have an error, button reverts to the normal operation
page. Except the normal operation page, if any button isn’t pressed for more
than 25 seconds, device reverts to normal operation page automatically.
Configuration page is opened to configure other parameters of device. ENTER
PRG
- Pressing PRG button for more over 2 seconds enters the configuration page.
- When the configuration page is entered, COD message is shown on the top display and is shown on the bottom display. Security code must be entered correctly to configure the parameters. If the security code is entered incorrectly, parameters are showned, but parameters can not be changed.
- Factory setting of the security code and . The security code can be changed with SCOD parameter. If the security code is forgotten, repower the device and pressing , and buttons together ENTER with in 1 minute after start up. After that security code control isn’t made one time to enter configuration page, so the security code can be changed with SCOD parameter.
- When the security code is entered correctly, pressing ENTER button enters the configuration pages.
- During configuration pages, and buttons select pages, button enters to the selected page, NTER button reverts to normal PRG operation page.
- While in configuration pages, ENTER button selects parameters and buttons change the value of parameters, button is pressed for more over 1 second for revert to configuration pages display, PRG button reverts to normal operation page.
NOTE : Error Message Display (see 3.2 DISPLAY FIGURES )
3.1. PARAMETERS EXPLANATIONS
:Differential pressure value.
: Differential pressure value low set value. Parameter can be set between
-1999 and SETH .
:Differential pressure value high set value. Parameter can be set between and
9999.
:Differential pressure value alarm set value. Parameter can be set between
-1999 and 9999.
:Security code value for setting parameters. Security code enters between 0
and 9999.
Parameters of Page
Control Type. Parameter can set (Refer to 4.1. CONTROL TYPES )
: Decimal point of differential pressure. Parameter can be set between 0 and
3.
:Analog output retransmission low level. Parameter can be set between -1999
and 9999.
:Analog output retransmission high level. Parameter can be set between -1999
and 9999.
:Analog output retransmission current range. Parameter can be set
: Differential pressure offset value. According to that paramater,
differential pressure value has positiveor negative offset. Parameter can be
set between -1999 and 9999.
: Hysterisis value of differential pressure alarm set value ( ). Parameter can
be set between 0 and 9999.
:Alarm type of RL1 alarm relay. Parameter can be set .(see Table 4)
:Alarm function of RL1 alarm relay. Parameter can be set between 0 and 15.
(see 4.2 ALARM RELAYS)
:When is selected , in case of an alarm, user must acknowledge the alarm by
pressing and buttons in order to deactivate alarm output. Parameter can be set
or .
:Alarm type of RL2 alarm relay. Parameter can be set or .(see Table 4)
:Alarm function of RL2 alarm relay. Parameter can be set between 0 and 15.
(see 4.2 ALARM RELAYS)
: When is selected , in case of an alarm, user must acknowledge the alarm by
ON pressing and buttons in order to deactivate alarm output.Parameter can be
set or .
: Selonoid outputs break time. This parameter determines the break time
between two outputs. Parameter can be set between 0.1 and 999.9 in seconds.
: Selonoid outputs pulse time. This parameter determines the pulse time of
each outputs. Parameter can be set between 0.1 and 100.0 in seconds.
: Selonoid outputs group break time. While parameter is higher than “1”,
this parameter determines the break time between each group. Parameter can be
set between 0.1 and 999.9 in seconds.
: Selonoid outputs waiting time. This parameter determines waiting time, after
all outputs are powered. Parameter can be set between 0.1 and 999.9 in
seconds.
: Number of outputs. This parameter determines the number of outputs.
Parameter can be set between 1 and 128.
: Number of groups. This parameter determines number of groups while filtering
is done with different groups. Parameter can be set between 1 and 16. If this
parameter set “1”, filtering is done only one group.
: Type of group operation. Parameter can be selected and
: Number of selonoids scanning after deactivation of start input. Parameter
can be set between 0 and 50.
: Low limit of internal impedance of selonoids. If the impedance measurement
of selonoids are lower than that value, device gives a short circuit alarm.
Parameter can be set between 0.00 k Ω and . If this parameter set to “0″ the
device dosen’t control short circuit.
: High limit of internal impedance of selonoids. If the impedance measurement
of selonoids are higher than that value, device gives an open circuit alarm.
Parameter can be set between and 30.00 kΩ
: When is selected as Off , faulty selonoids are skipped immediately, and when
is selected as , all the timings work as usual. Parameter can be set or ON
: Communication baud rate. Parameter can be set k Baud. Baud rate of all
devices in same communication line should be the same as baud rate of master
device.
: Communication parity. Parameter can be set . Parity of all devices in same
communication line should be the same as parity of master device.
: Communication address. Parameter can be set between 1 and 127. All device in
same communication line should have an unique address.
Parameters of Page
: Filter value of differential pressure value. This parameter determines the
number of samples to be averaged for calculation of differential pressure
value. Parameter can be set between 1 and 16.
: 0 Ohm calibration value of selenoid resistance measurument. This parameter
isn’t advised to change. Selonoid supply voltage that is connected to B9 and
B10 terminals is broken. B11 and B12 terminals are done short-circuit and
buttons press together in order to save value.
: 1000 Ohm calibration value of selonoid resistance measurument. This
parameter isn’t advised to change. Selonoid supply voltage that is connected
to B9 and B10 terminals is broken. 1000 ohm resistance is connected to B11 and
B12 terminals. and buttons press together in order to save value.
: This parameter determines pressure value of low calibration of pressure
input. Parameter can be set between -1999 and 9999.
: Zero calibration value of differential pressure. This parameter isn’t
advised to change. ZERO value differential pressure is applied to differential
pressure input of device and buttons press together, in order to save value.
Parameters of Page (continuation)
: This parameter determines pressure value of high calibration of pressure
input. Parameter can be set between -1999 and 9999.
: Span calibration value of differential pressure. This parameter isn’t
advised to change. SPAN value differential pressure is applied to differential
pressure input of device and buttons press together, in order to save value.
: Analog output 4 mA calibration value. This parameter isn’t advised to
change. Connect an ampermeter A27(-) and A28(+) terminals. While the parameter
is selected, adjust the parameter with and buttons value until the meter
reading is equal to 4 mA.
: Analog output 20 mA calibration value. This parameter isn’t advised to
change. Connect an ampermeter A27(-) and A28(+) terminals. While the parameter
is selected, adjust the parameter with and buttons value until the meter
reading is equal to 20 mA.
: Security code.
Parameters of Page
The parameters between and are used to determine the count of output on the
connected output cards. The output cards are produced 8 or 16 outputs in
manufacturing period. These parameters are used to define the count of outputs
to device.These parameters are set to or or .
3.2. DISPLAY FIGURES
| Normal Operating Display| | Error Messages Display
---|---|---|---
| 1. Group 15. Output| | No Selonoid Voltage
| 3. Group 8. Output| | Selonoid on Output 2
Short Circuit
| 3. Group Break Time| | Selonoid on Output 13
Open Circuit
| Waiting Time| | High Pressure Alarm
| Wait Start Input| | No Alarm
WORKING PRINCIPLES
When parameter is equal to “1”, Starting of scanning selonoids, device waits
for break time, after that O1 output is activated. This output is active for
pulse time, after that O1 output is deactivated. Device waits break time and
same process repeats with the next selonoid. This process continues until
number of outputs reach to parameter. When last output is deactivated at the
end of pulse time, device starts to waiting time. After waiting that time,
break time is started and O1 output is activated at the end of break time and
repeats same process.
If start input of device is active, this process continues. After deactivation
of start input, the device repeats this process for times and stop the
process.
First of 8 outputs is used on the control unit. Output units must be used for
more than 8 outputs.
In case the device parameter is greater than 1, 2 different operating type is
available. This operating type is determined by the parameter. In applications
where the number of groups is greater than 1, the group 1 output card is used
as the selection card.
When the parameter is set to , the device works as shown in .
Figure 4.2 When scanning starts, O1 output of group card is energized and
1st Group is selected. break time is started. O1 output of the device is
energized at the end of the break time period and the pulse time is started.
At the end of the pulse time period, O1 is de-energized and break time is
started again and the same operation is repeated until the number of output
reaches the value of parameter. When the last output is de-energized, O1
output of the group card is de-energized togetherly. group waiting time is
started. At the end of the group waiting time period, the O2 output of the
group card is energized and the 2nd Group is selected. The operations in the
1st group are repeated exactly. this group operations is repeated until the
number of group reaches the value of parameter. At the end of the last group
operation, waiting time period starts. After the waiting time period, 1st
group is selected again and same operations are repeated.
When the parameter is set to , the device works as shown in
Figure 4.3 . When scanning starts, O1 output of group card is energized and
1st group is selected. break time is started. O1 output of the device is
energized at the end of the break time period and the pulse time is started.
At the end of the pulse time period, O1 is de-energized and break time is
started again and the same operation is repeated until the number of output
reaches the value of parameter. When the last output is de-energized, O1
output of the group card is de-energized togetherly. group waiting time is
started. At the end of the group waiting time period, the O2 output of the
group card is energized and the 2nd group is selected. The outputs of 2nd
group starts from where the last output of 1st group, and scanning operation
is repeated until the number of output reaches the value of parameter. As seen
in the example, the last output of 1st group is energized O3 output, and the
first output of 2nd group is energized O4 output. This group operations is
repeated until the number of group reaches the value of parameter. At the end
of the last group operation, waiting time period starts. After the waiting
time period, 1st group is selected again and same operations are repeated.
If start input of device is active, this process continues. After deactivation
of start input, device repeats this process for times and stop the process.
First of 8 outputs is used on control unit. Output units must be used for more
than 8 outputs. One output unit is used to group selection unit. Selonoid
supply of group selection unit (+VIN-) is connected to control unit (+VSIN-)
terminal.
4.1. CONTROL TYPES
parameter determines control type of the device, is selected as
If parameter is selected as , device doesn’t do any control during waiting
times. Entire of waiting time is waited.
If parameter is selected as , if differential pressure value is higher than
parameter, waiting time is skipped during the process. If differential
pressure value is lower than parameter, Entire of waiting time is waited
during the process. If differential pressure value is between and parameters,
device does the same as previous scanning.
If parameter is selected as , if differential pressure value is higher than parameter, waiting time is skipped during the process. If differential pressure value is lower than parameter, Entire of waiting time is waited during the rocess. If differential pressure value is between and parameters, waiting time is set between 0 and proportionally.
4.2. ALARM RELAYS
Rl1 and RL2 are alarm relays, that give alarm according to one or more than
one alarm source. Alarm type of these relays are adjusted as normally open or
normally closed.
Device gives alarm in case of break selonoid supply, open or short selonoids
and high differential pressure value. These alarm sources are adjusted for
both of the relays with and parameters, like as Table 4.2 . Alarm types of
relays, that is normally open and normally closed are adjusted for both of the
relays with and parameters, like as Table 4.1
When alarm relays are powered, user can acknowledge the alarm and deactivate
the alarm relay according to and parameters. If these parameters are selected
, user open error message page and deactivates relay, but led of relay
continues to light. In this situation, error message of alarm is shown in
error message page. Led of relay fades after alarm state. If these parameters
are selected , relay and led deactivates after the alarm state ends.
| Explanations
(SC: Short Circuit,
OC: Open Circuit,
HP: High Pressure,
NSS: No Selonoid Supply, SA: Scan Active)| | Explanations
(SC: Short Circuit,
OC: Open Circuit,
HP: High Pressure,
NSS: No Selonoid Supply SA: Scan Active)
---|---|---|---
0| No Alarm| 16| SA
1| SC| 17| SA/SC
2| OC| 18| SA/ OC
3| SC/OC| 19| SA/OC/SC
4| HP| 20| SA/ HP
5| HP/SC| 21| SA/HP/SC
6| HP/OC| 22| SA/HP/OC
7| HP/OC/SC| 23| SA/HP/OC/SC
8| NSS| 24| SA/NSS
9| NSS/SC| 25| SA/NSS/SC
10| NSS/OC| 26| SA/NSS/OC
11| NSS/ OC /SC| 27| SA/NSS/OC/SC
12| NSS/HP| 28| SA/NSS/HP
13| NSS/ HP/SC| 29| SA/NSS/HP/SC
14| NSS/HP/OC| 30| SA/NSS/HP/OC
15| NSS / HP / OC/ SC| 31| SA/NSS/HP/OC/SC
Table 4.2. Alarm Sources
4.2.1. OPEN / SHORT CIRCUIT ALARM
Device can give alarm, while short or open circuit happen on selonids. Device
measures the selonoid line and controls any error on the selonoid line, before
device powers the selonoids. If any error is occured on selonoid, device
doesn’t power the selonoid and gives alarm, so that outputs of device don’t
need any fuses. In the selonoids scanning, while the selonoid has any problem,
device works differently according to parameter.
If parameter is selected , device waits and timing for that selonoid, but
output doesn’t powered. If the parameter is selected , device doesn’t wait and
timing, and continues next output. parameter determines open circuit state,
parameter determines short circuit state. parameter should be set to half of
the nominal resistance of the selonoids, parameter should be set to two
times of the nominal resistance of the selonoids.
4.2.2. HIGH PRESSURE ALARM
Device, that has pressure control gives high pressure alarm according to and
parameters. If differential pressure is higher than parameter, device gives
high pressure alarm. The alarm condition ends when the differential pressure
reading decrease to – .
4.2.3. NO SELONOID SUPPLY ALARM
If Selonoid supply of device, that is connected (+VSIN-) terminals is broken,
device gives no selonoid supply alarm.
4.2.4. SCAN ACTIVE ALARM
When Start input of device that is in A24 (IN1) terminal is active, the device
gives scan active alarm.
All of these alarms is shown on display to user. In addition, if device has
RS-485 communication, the alarms can be read from Modbus protocol.
4.3. SCANNING ORDER OF OUTPUTS
Scanning order of the device starts with 1, and ends with 128 in factory
settings. The scanning order can be configured using Modbus protocol. Register
addresses of these order parameters are shown in Table 4.3
| Address | Parameter | Property | Address | Parameter | Property |
|---|---|---|---|---|---|
| 100 | OUT 1-2 | R/W | 132 | OUT 65-66 | R/W |
| 101 | OUT 3-4 | RAN | 133 | OUT 67-68 | R/W |
| 102 | OUT 5-6 | R/W | 134 | OUT 69-70 | R/W |
| 103 | OUT 7-8 | R/W | 135 | OUT 71-72 | R/W |
| 104 | OUT 9-10 | R/W | 136 | OUT 73-74 | R/W |
| 105 | OUT 11-12 | RIW | 137 | OUT 75-76 | R/W |
| 106 | OUT 13-14 | R/W | 138 | OUT 77-78 | R/W |
| 107 | OUT 15-16 | R/W | 139 | OUT 79-80 | R/W |
| 108 | OUT 17-18 | R/W | 140 | OUT 81-82 | R/W |
| 109 | OUT 19-20 | RAN | 141 | OUT 83-84 | R/W |
| 110 | OUT 21-22 | R/W | 142 | OUT 85-86 | R/W |
| 111 | OUT 23-24 | R/W | 143 | OUT 87-88 | R/W |
| 112 | OUT 25-26 | R/W | 144 | OUT 89-90 | R/W |
| 113 | OUT 27-28 | R/W | 145 | OUT 91-92 | R/W |
| 114 | OUT 29-30 | R/W | 146 | OUT 93-94 | R/W |
| 115 | OUT 31-32 | R/W | 147 | OUT 95-96 | R/W |
| 116 | OUT 33-34 | R/W | 148 | OUT 97-98 | R/W |
| 117 | OUT 35-36 | R/W | 149 | OUT 99-100 | R/W |
| 118 | OUT 37-38 | R/W | 150 | OUT 101-102 | R/W |
| 119 | OUT 39-40 | R/W | 151 | OUT 103-104 | R/W |
| 120 | OUT 41-42 | R/W | 152 | OUT 105-106 | R/W |
| 121 | OUT 43-44 | R/W | 153 | OUT 107-108 | R/W |
| 122 | OUT 45-46 | R/W | 154 | OUT 109-110 | R/W |
| 123 | OUT 47-48 | R/W | 155 | OUT 111-112 | R/W |
| 124 | OUT 49-50 | R/W | 156 | OUT 113-114 | R/W |
| 125 | OUT 51-52 | R/W | 157 | OUT 115-116 | R/W |
| 126 | OUT 53-54 | R/W | 158 | OUT 117-118 | R/W |
| 127 | OUT 55-56 | R/W | 159 | OUT 119-120 | R/W |
| 128 | OUT 57-58 | R/W | 160 | OUT 121-122 | R/W |
| 129 | OUT 59-60 | R/W | 161 | OUT 123-124 | R/W |
| 130 | OUT 61-62 | R/W | 162 | OUT 125-126 | R/W |
| 131 | OUT 63-64 | R/W | 163 | OUT 127-128 | R/W |
Tablo 4.3. Output Configuration Parameters Modbus Address Table
NOTE1 : Parameters, that shown in Table 4.3 are 16-bits. For example low
8-bits of OUT1-2 parameter shows first output, high 8-bit of OUT1-2 parameter
shows second output. In below example, output 5 is powered firstly, output3 is
powered secondly according to OUT1-2 parameter. Other parameters are
configured the same method.
OUT1-2 = 773
son 8-bit = 3| ilk 8-bit = 5
NOTE2: Low and High 8-bits of parameters must be set between 1 and 128. Otherwise, sent values of these parameters aren’t saved according to protocol.
OUTPUT UNITS
Each output unit has 16 outputs. Output units communicate with control unit
over DATA terminal. If this connection breaks, output unit doesn’t work. Power
supply of output units are supplied with (+VSUP-) terminals. Each output unit,
that is connected to control unit has an address. These adresses are
configured via jumpers on output unit cards. More than one unit mustn’t have
same adresses. Jumper configuration of addresses are shown in . Table 5.1
(+VIN-) terminals of output units must be connected to (-VOUT+) terminals
of control unit. If any problem on that connection occurs, all of the
selonoids are measured open circuit and any output isn’t powered. If filtering
system has more than one group, one output unit must be used for group
selction unit. Selonoid supply of this unit must be connected (+VSIN-)
terminals of control unit.
| Jumper | Explanations | Jumper | Explanations |
|---|---|---|---|
| 1. Output Card | 9. Output Card | ||
| 2. Output Card | 10. Output Card | ||
| 3. Output Card | 11. Output Card | ||
| 4. Output Card | 12. Output Card | ||
| 5. Output Card | 13. Output Card | ||
| 6. Output Card | 14. Output Card | ||
| 7. Output Card | 15. Output Card | ||
| 8. cikic Karti | Group Selection Card |
Table 5.1. Configurations of Jumper
COMMUNICATION ADRESSES
Address| Parameter| Explanation| Property| Min.|
Max.
---|---|---|---|---|---
0| Alarm Data 1| See Table1| R| |
1| Alarm Data 2| See Table1| R| |
2| Alarm Data 3| See Table1| R| |
3| Alarm Data 4| See Table1| R| |
4| Alarm Data 5| See Table1| R| |
5| Alarm Data 6| See Table1| R| |
6| Alarm Data 7| See Table1| R| |
7| Alarm Data 8| See Table1| R| |
8| Alarm Data 9| See Table1| R| |
9| Alarm Data 10| See Table1| R| |
10| Alarm Data 11| See Table1| R| |
11| Alarm Data 12| See Table1| R| |
12| Alarm Data 13| See Table1| R| |
13| Alarm Data 14| See Table1| R| |
14| Alarm Data 15| See Table1| R| |
15| Alarm Data 16| See Table1| R| |
16| Alarm Data 17| See NOTE2| R| |
17| | | R| |
18| | | R/W| -1999| SE H
19| | | R/W| SE L| 9999
20| | | R/W| -1999| 9999
21| | |
R/W
|
0
|
2
22| | | R/W| 0| 3
23| | | R/W| -1999| 9999
24| | | R/W| -1999| 9999
25| | | R/W| 0| 3
26| | | R/W| -1999| 9999
27| | | R/W| 0| 9999
28| | | R/W| 0| 1
29| | | R/W| 0| 15
30| | | R/W| 0| 1
31| | | R/W| 0| 1
32| | | R/W| 0| 15
33| | | R/W| 0| 1
34| | | R/W| 1| 9999
35| | | R/W| 1| 1000
36| | | R/W| 1| 9999
37| | | R/W| 1| 9999
38| | | R/W| 1| 128
39| | | R/W| 1| 16
40| | | R/W| 0| 50
41| | | R/W| 0| OU H
42| | | R/W| OU L| 3000
43| | | R/W| 0| 1
44
| | |
R/W
|
0
|
3
45| | |
R/W
|
0
|
2
46| | | R/W| 1| 127
47| | | R/W| 1| 16
NOTE1: Device supports 03, 06 and 16 number function of modbus protocol.
03 Read Holding Registers, 06 Write Single Register and 16 Write Multiple
Registers.
NOTE2: No Selonoid Voltage alarm is saved in first bit of Alarm Data 17,
high pressure alarm is saved in second bit of Alarm Data 17.
NOTE3 : In table, parameters, whose address is between 17 and 47 is
explained in 3.1 PARAMETERS EXPLANATION.
TABLES
Table1: Bits of Alarm Data
| S| O| S| O| S| O| S| O| S| O| S| O| S| O| S| O
---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---
Bit Number| 16| 15| 14| 13| 12| 11| 10| 9| 8| 7| 6| 5| 4| 3| 2| 1
Alarm Data 1| O8| O7| O6| O5| O4| O3| O2| O1
Alarm Data 2| O16| O15| O14| O13| O12| O11| O10| O9
Alarm Data 3| O24| O23| O22| O21| O20| O19| O18| O17
Alarm Data 4| O32| O31| O30| O29| O28| O27| O26| O25
Alarm Data 5| O40| O39| O38| O37| O36| O35| O34| O33
Alarm Data 6| O48| O47| O46| O45| O44| O43| O42| O41
Alarm Data 7| O56| O55| O54| O53| O52| O51| O50| O49
Alarm Data 8| O64| O63| O62| O61| O60| O59| O58| O57
Alarm Data 9| O72| O71| O70| O69| O68| O67| O66| O65
Alarm Data 10| O80| O79| O78| O77| O76| O75| O74| O73
Alarm Data 11| O88| O87| O86| O85| O84| O83| O82| O81
Alarm Data 12| O96| O95| O94| O93| O92| O91| O90| O89
Alarm Data 13| O104| O103| O102| O101| O100| O99| O98| O97
Alarm Data 14| O112| O111| O110| O109| O108| O107| O106| O105
Alarm Data 15| O120| O119| O118| O117| O116| O115| O114| O113
Alarm Data 16| O128| O127| O126| O125| O124| O123| O122| O121
NOTE: In table, S letter is shown short circuit state, O letter is shown
open circuit state.
Table2 :
| No Control
---|---
| ON/OFF Control
| Proportional Control
Table3 :
| 0-20 mA
---|---
| 20-0 mA
| 4-20 mA
| 20-4 mA
Table4 :
| Normally open
---|---
| Normally closed
Table5 :
| Acknowledge alarm is active
---|---
| Acknowledge alarm isn’t active
Table6:
| Wait break and pulse time
---|---
| Not wait break and pulse time
Table7:
| No parity
---|---
| Odd parity
| Even parity
Manufacturer / Technical Support:
Elimko Elektronic Production and Control Co. Ltd.
8. Cadde 21. Sokak No:16 Emek- Ankara / TURKEY
Phone: + 90 312 212 64 50 Fax: + 90 312 212 41 43
www.elimko.com.tr
e-mail:[email protected]
KY-FT10-0423-1