Ditel Kosmos series User manual

KOSMOS SERIES
CODE: 30727007 EDITION: 12-07-2010
MODEL ALPHA-C
INSTRUMENT FOR USE WITH LOAD CELL
KOSMOS SERIES
CODE: 30727007 EDITION: 12-07-2010
MODEL ALPHA-C
INSTRUMENT FOR USE WITH LOAD CELL

2
2
Firmware Version 2.00
Modbus Compatible
See page 44
Fail Safe Function
See page 42
Sensor Break Alarm
See page 29
36 Logical functions
See page 33
Blinking Display
See page 41
Programming parameters lockout
See page 38
Factory defaults
See page 43
Linearization by segments
See page 16
3 Tare modes
See page 26
Firmware Version 2.00
Modbus Compatible
See page 44
Fail Safe Function
See page 42
Sensor Break Alarm
See page 29
36 Logical functions
See page 33
Blinking Display
See page 41
Programming parameters lockout
See page 38
Factory defaults
See page 43
Linearization by segments
See page 16
3 Tare modes
See page 26

3
3
This manual does not constitute a formal agreement.
A
ll information given in this manual is subject to
change without notice.
The KOSMOS SERIES brings a new philosophy in digital panel
instrumentation which is expressed by multipurpose,
modular-concept devices providing a rich array of basic
functions and advanced capabilities.
With a fully MODULAR DESIGN, it is possible to implement a
wide variety of applications by only adding the adequate
options.
Intelligence within it allows the instrument to recognize the
options installed and ask for the necessary parameters to
properly function within desired margins. The parameters
related to non-installed options are removed from the
program routines.
The instrument’s CALIBRATION is made at the factory
eliminating the need for adjustment potentiometers.
Any circuit or option liable to be adjusted incorporates a
memory where calibration parameters are stored, making it
possible the optional cards be totally interchangeable without
need of any subsequent adjust.
INTRODUCTION TO THE KOSMOS SERIES
Custom CONFIGURATION for specific applications can be
made quickly and easily through five front panel keys,
following structured choice menus aided by display prompts
at each programming step.
Other features of the KOSMOS family include:
•CONNECTIONS via plug-in terminal blocks without
screws and CLEMP-WAGO clips cable retention system
•DIMENSIONS
Models ALPHA & BETA 96x48x120 mm DIN 43700
Models MICRA & JR/JR20 96x48x60 mm DIN 43700
•CASE MATERIAL UL-94 V0-rated polycarbonate.
•PANEL INSTALLATION without screws by means of
single part fastening clips
To guarantee the meter's technical specifications, it is
recommended to recalibrate the meter at periodical intervals
according to the ISO9000 standards for the particular
application operating criteria. Calibration should be performed
at the factory or in a qualified laboratory.
This manual does not constitute a formal agreement.
A
ll information given in this manual is subject to
change without notice.
The KOSMOS SERIES brings a new philosophy in digital panel
instrumentation which is expressed by multipurpose,
modular-concept devices providing a rich array of basic
functions and advanced capabilities.
With a fully MODULAR DESIGN, it is possible to implement a
wide variety of applications by only adding the adequate
options.
Intelligence within it allows the instrument to recognize the
options installed and ask for the necessary parameters to
properly function within desired margins. The parameters
related to non-installed options are removed from the
program routines.
The instrument’s CALIBRATION is made at the factory
eliminating the need for adjustment potentiometers.
Any circuit or option liable to be adjusted incorporates a
memory where calibration parameters are stored, making it
possible the optional cards be totally interchangeable without
need of any subsequent adjust.
INTRODUCTION TO THE KOSMOS SERIES
Custom CONFIGURATION for specific applications can be
made quickly and easily through five front panel keys,
following structured choice menus aided by display prompts
at each programming step.
Other features of the KOSMOS family include:
•CONNECTIONS via plug-in terminal blocks without
screws and CLEMP-WAGO clips cable retention system
•DIMENSIONS
Models ALPHA & BETA 96x48x120 mm DIN 43700
Models MICRA & JR/JR20 96x48x60 mm DIN 43700
•CASE MATERIAL UL-94 V0-rated polycarbonate.
•PANEL INSTALLATION without screws by means of
single part fastening clips
To guarantee the meter's technical specifications, it is
recommended to recalibrate the meter at periodical intervals
according to the ISO9000 standards for the particular
application operating criteria. Calibration should be performed
at the factory or in a qualified laboratory.

4
4
INDEX
1 . MODEL ALPHA-C OVERVIEW..................................................................................................................................... 6
1.1. - KEYBOARD AND DISPLAY DESCRIPTION ..................................................................................................... 7
2 . GETTING STARTED..................................................................................................................................................... 9
2.1 - POWER / CONNECTORS..............................................................................................................................10
2.2 - INTRODUCTION TO THE PROGRAMMING MODE ..........................................................................................12
2.3 - INPUT CONFIGURATION.............................................................................................................................14
2.4 - DISPLAY CONFIGURATION .........................................................................................................................16
2.5 – PROGRAMMING NET VALUE TARE MODE 3 .................................................................................................28
3 . KEYBOARD AND CONNECTORS CONTROLS
3.1 - KEYBOARD FUNCTIONS..............................................................................................................................30
3.2 - CONNECTORS FUNCTIONS .........................................................................................................................32
3.3 - TABLE OF PROGRAMMABLE FUNCTIONS .....................................................................................................33
3.4 - LOGIC INPUTS PROGRAMMING...................................................................................................................36
3.5 - PROGRAMMING LOCK OUT. ACCESS LEVELS................................................................................................38
4 . OUTPUT OPTIONS.....................................................................................................................................................39
4.1 - ADDED OUTPUT FUNCTIONS ......................................................................................................................41
5 . TECHNICAL SPECIFICATIONS............................................................................................................................45
5.1 - DIMENSIONS AND MOUNTING....................................................................................................................46
6 . WARRANTY................................................................................................................................................................47
7 . DECLARATION OF CONFORMITY..............................................................................................................................48
INDEX
1 . MODEL ALPHA-C OVERVIEW ..................................................................................................................................... 6
1.1. - KEYBOARD AND DISPLAY DESCRIPTION...................................................................................................... 7
2 . GETTING STARTED ..................................................................................................................................................... 9
2.1 - POWER / CONNECTORS ............................................................................................................................. 10
2.2 - INTRODUCTION TO THE PROGRAMMING MODE ......................................................................................... 12
2.3 - INPUT CONFIGURATION ............................................................................................................................ 14
2.4 - DISPLAY CONFIGURATION......................................................................................................................... 16
2.5 – PROGRAMMING NET VALUE TARE MODE 3................................................................................................. 28
3 . KEYBOARD AND CONNECTORS CONTROLS
3.1 - KEYBOARD FUNCTIONS ............................................................................................................................. 30
3.2 - CONNECTORS FUNCTIONS......................................................................................................................... 32
3.3 - TABLE OF PROGRAMMABLE FUNCTIONS..................................................................................................... 33
3.4 - LOGIC INPUTS PROGRAMMING .................................................................................................................. 36
3.5 - PROGRAMMING LOCK OUT. ACCESS LEVELS............................................................................................... 38
4 . OUTPUT OPTIONS..................................................................................................................................................... 39
4.1 - ADDED OUTPUT FUNCTIONS ..................................................................................................................... 41
5 . TECHNICAL SPECIFICATIONS ............................................................................................................................45
5.1 - DIMENSIONS AND MOUNTING ................................................................................................................... 46
6 . WARRANTY ............................................................................................................................................................... 47
7 . DECLARATION OF CONFORMITY............................................................................................................................. 48

5
5
ANALOG OUTPUT
BOARD
BCD OUTPUT
BOARD
RS232C or RS485
OUTPUT BOARD
SETPOINTS
OUTPUT BOARD
POWER
FILTER CIRCUIT
CASE WITH
FIXING CLIPS
MAIN BOARD
FRONT-PANEL
COVER
DISPLAY
INPUT
BOARD
ANALOG OUTPUT
BOARD
BCD OUTPUT
BOARD
RS232C or RS485
OUTPUT BOARD
SETPOINTS
OUTPUT BOARD
POWER
FILTER CIRCUIT
CASE WITH
FIXING CLIPS
MAIN BOARD
FRONT-PANEL
COVER
DISPLAY
INPUT
BOARD

6
6
The ALPHA-C model incorporates new technical and
functional characteristics including ±32000 count
display, signal linearization of up to 30 points and user
programmable remote logic functions that provides an
extraordinary flexibility to adapt to a wide range of
indication and control needs.
The model ALPHA-C of the KOSMOS series is a digital indicator
designed to measure forces (weight, load, torque, pressure ...)
that admits connection of several bridges such as load-cells
with small signal levels up to ±300 mV.
It provides four selectable input ranges (±15 mV, ±30 mV, ±60
mV or ±300 mV) and two excitation voltages (5 V or 10 V) that
allow accommodating different cell types and inputting
sensitivities. Two programming modes permit scaling the
meter to fit the desired units for specific applications.
The meter has two input filtering methods with selectable
levels and selectable resolution to help stabilizing the display
according to the process type.
The basic instruments is a soldered assembly composed of the
MAIN BOARD, the DISPLAY and the power FILTERING circuit
and the INPUT card that are located in their corresponding
plug-in connectors (see figure in page 5). Standard features of
the basic instrument include the reading of the input variable,
max and min detection, remote hold operation, tare function
and reset and a full complement of programmable logic
functions.
In addition, a variety of plug-in output cards can be installed at
any time to meet further system requirements:
COMMUNICATION
RS2 Serie RS232C
RS4 Serie RS485
BCD BCD 24 V/ TTL
CONTROL
ANA Analogical 4-20 mA, 0-10 V
2RE 2 SPDT relays 8 A
4RE 4 SPST relays 5 A*
4OP 4 NPN outputs
4OPP 4 PNP outputs
All the outputs are isolated with respect to the input signal and
supply.
* From nº O5397
1. MODEL ALPHA-C OVERVIEW
This instrument conforms to the following directives: EMC 2004/108/CEE and LVD 2006/95/CEE
Caution: Read complete instructions to ensure safety protections.
The ALPHA-C model incorporates new technical and
functional characteristics including ±32000 count
display, signal linearization of up to 30 points and user
programmable remote logic functions that provides an
extraordinary flexibility to adapt to a wide range of
indication and control needs.
The model ALPHA-C of the KOSMOS series is a digital indicator
designed to measure forces (weight, load, torque, pressure ...)
that admits connection of several bridges such as load-cells
with small signal levels up to ±300 mV.
It provides four selectable input ranges (±15 mV, ±30 mV, ±60
mV or ±300 mV) and two excitation voltages (5 V or 10 V) that
allow accommodating different cell types and inputting
sensitivities. Two programming modes permit scaling the
meter to fit the desired units for specific applications.
The meter has two input filtering methods with selectable
levels and selectable resolution to help stabilizing the display
according to the process type.
The basic instruments is a soldered assembly composed of the
MAIN BOARD, the DISPLAY and the power FILTERING circuit
and the INPUT card that are located in their corresponding
plug-in connectors (see figure in page 5). Standard features of
the basic instrument include the reading of the input variable,
max and min detection, remote hold operation, tare function
and reset and a full complement of programmable logic
functions.
In addition, a variety of plug-in output cards can be installed at
any time to meet further system requirements:
COMMUNICATION
RS2 Serie RS232C
RS4 Serie RS485
BCD BCD 24 V/ TTL
CONTROL
ANA Analogical 4-20 mA, 0-10 V
2RE 2 SPDT relays 8 A
4RE 4 SPST relays 5 A*
4OP 4 NPN outputs
4OPP 4 PNP outputs
All the outputs are isolated with respect to the input signal and
supply.
* From nº O5397
1. MODEL ALPHA-C OVERVIEW
This instrument conforms to the following directives: EMC 2004/108/CEE and LVD 2006/95/CEE
Caution: Read complete instructions to ensure safety protections.

7
9
7
FRONT-PANEL FUNCTIONS IN RUN MODE
B
A
TARE
HOLD LIMITMAX MIN DATA
DSP2INP2FLTSTORE
DSP1
INP1
2
1
4
3
TARE
RESETLIMIT MAX/MIN DATA
ESCENTER
PROG
TEACH
PRG
RUN
TARE KE
Y
Takes the display value as Tare
RUN LED
RUN mode indication
RESET KE
Y
Resets Peak/Valley and
Tare memories
A
UXILIARY DISPLA
Y
Positive " " or
negative "-" signal
LIMIT KE
Y
Recalls the Setpoints values MAX LED
Indicates that a Peak value
is being displayed
MIN LED
Indicates that a Valley value
is being displayed
MAIN DISPLA
Y
Reads the input variable
LED 2
Indicates activation/display setpoint 2
LED 1
Indicates activation/display setpoint 1
KEYBOARD IN RUN MODE
LED 3
Indicates activation/display setpoint 3
LED 4
Indicates activation/display setpoint 4
LABEL
Engineering unit
MAX/MIN KE
Y
Recalls Peak/Valley values
DATA KE
Y
Displays data
Provides access to PROG mode
TARE LED
Indicates Tare in memory
HOLD LED
Indicates lock read in display
LIMIT LED
Indicates that Setpoint values is
being displayed
FRONT-PANEL FUNCTIONS IN RUN MODE
B
A
TARE
HOLD LIMITMAX MIN DATA
DSP2INP2FLTSTORE
DSP1
INP1
2
1
4
3
TARE
RESETLIMIT MAX/MIN DATA
ESCENTER
PROG
TEACH
PRG
RUN
TARE KE
Y
Takes the display value as Tare
RUN LED
RUN mode indication
RESET KE
Y
Resets Peak/Valley and
Tare memories
A
UXILIARY DISPLA
Y
Positive " " or
negative "-" signal
LIMIT KE
Y
Recalls the Setpoints values MAX LED
Indicates that a Peak value
is being displayed
MIN LED
Indicates that a Valley value
is being displayed
MAIN DISPLA
Y
Reads the input variable
LED 2
Indicates activation/display setpoint 2
LED 1
Indicates activation/display setpoint 1
KEYBOARD IN RUN MODE
LED 3
Indicates activation/display setpoint 3
LED 4
Indicates activation/display setpoint 4
LABEL
Engineering unit
MAX/MIN KE
Y
Recalls Peak/Valley values
DATA KE
Y
Displays data
Provides access to PROG mode
TARE LED
Indicates Tare in memory
HOLD LED
Indicates lock read in display
LIMIT LED
Indicates that Setpoint values is
being displayed

8
8
FRONT-PANEL FUNCTIONS IN PROG MODE
PROG LED
Indicates programmation mode
A
UXILIARY DISPLA
Y
Indicates program module
MAIN DISPLA
Y
Reads programming parameters
KEYBOARD IN PROG MODE
LABEL
Engineering unit
FLT LED
Indicates input filter programming
ENTER KE
Y
Accepts data
Advances program steps
KEY
Moves de flashing digit to the right
DSP2 LED
Indicates Display2 programming
Indicates Display# programming
KEY
Increments the flashing digit value
INP2 LED
Indicates Input2 programming
Indicates Input# programming
ESC
K
E
Y
Returns to run mode at any program step
TEACH KE
Y
Reads the INP1, INP2, INP# value
DSP1 LED
Indicates Display1 programming
INP1 LED
Indicates Input1 programming
A
and B LED's
Indicates program module letter
STORE LED
Indicates exit from the program
mode with data
B
A
TARE
HOLD LIMITMAXMIN DATA
DSP2INP2 FLTSTORE
DSP1
INP1
2
1
4
3
TARE
RESETLIMIT MAX/MIN DATA
ESCENTER
PROG
TEACH
PRG
RUN
FRONT-PANEL FUNCTIONS IN PROG MODE
PROG LED
Indicates programmation mode
A
UXILIARY DISPLA
Y
Indicates program module
MAIN DISPLA
Y
Reads programming parameters
KEYBOARD IN PROG MODE
LABEL
Engineering unit
FLT LED
Indicates input filter programming
ENTER KE
Y
Accepts data
Advances program steps
KEY
Moves de flashing digit to the right
DSP2 LED
Indicates Display2 programming
Indicates Display# programming
KEY
Increments the flashing digit value
INP2 LED
Indicates Input2 programming
Indicates Input# programming
ESC KE
Y
Returns to run mode at any program step
TEACH KE
Y
Reads the INP1, INP2, INP# value
DSP1 LED
Indicates Display1 programming
INP1 LED
Indicates Input1 programming
A
and B LED's
Indicates program module letter
STORE LED
Indicates exit from the program
mode with data
B
A
TARE
HOLD LIMITMAXMIN DATA
DSP2INP2 FLTSTORE
DSP1
INP1
2
1
4
3
TARE
RESETLIMIT MAX/MIN DATA
ESCENTER
PROG
TEACH
PRG
RUN

9
9
PACKAGE CONTENTS
Instructions manual in English including Declaration of
Conformity.
D.P.M. model Alpha-C2.00.
Accessories for panel mounting (sealing gasket and
fastening clips).
Accessories for wiring connections (removable plug-in
connectors and fingertip).
Wiring label stuck to the Alpha-C case.
Two sets of engineering units labels.
9
Check the package contents.
CONFIGURATION
Power supply (page 9 and 10)
Instruments supplied for 115/ 230 V AC power are factory
set for 230 V AC (USA market 115 V AC).
Instruments supplied for 24/ 48 V AC power are factory
set for 24 V AC.
Instruments supplied for 10-30 V DC can be powered
from any voltage between 10 and 30 V DC without need
of making changes.
9
Check the wiring label before power connection.
2. GETTING STARTED
Programming instructions (page 11 and 12)
The software is divided into several independently
accessible modules to configure the input, the display, the
setpoints, the analogical output, the output
communication and logic inputs.
9
Read carefully this section.
Input type (page 13 and 14)
The instrument provides two excitation voltages to supply
the transducer (5 V or 10 V). The instrument is set up at
factory to 10 V.
The maximum voltage applicable to the instrument is 300
mV. There are four available input ranges: 15 mV, 30 mV,
60 mV and 300 mV.
9
Check the cell sensitivity. If you have any doubt please
consult the cell specifications
.
Programming Lock-out (page 33)
The instrument is set at the factory with the program
routines totally accessible.
Warning! Keep your unlock code in a secure place. If
you lost it, it is possible to reset it (page 36).
PACKAGE CONTENTS
Instructions manual in English including Declaration of
Conformity.
D.P.M. model Alpha-C2.00.
Accessories for panel mounting (sealing gasket and
fastening clips).
Accessories for wiring connections (removable plug-in
connectors and fingertip).
Wiring label stuck to the Alpha-C case.
Two sets of engineering units labels.
9
Check the package contents.
CONFIGURATION
Power supply (page 9 and 10)
Instruments supplied for 115/ 230 V AC power are factory
set for 230 V AC (USA market 115 V AC).
Instruments supplied for 24/ 48 V AC power are factory
set for 24 V AC.
Instruments supplied for 10-30 V DC can be powered
from any voltage between 10 and 30 V DC without need
of making changes.
9
Check the wiring label before power connection.
2. GETTING STARTED
Programming instructions (page 11 and 12)
The software is divided into several independently
accessible modules to configure the input, the display, the
setpoints, the analogical output, the output
communication and logic inputs.
9
Read carefully this section.
Input type (page 13 and 14)
The instrument provides two excitation voltages to supply
the transducer (5 V or 10 V). The instrument is set up at
factory to 10 V.
The maximum voltage applicable to the instrument is 300
mV. There are four available input ranges: 15 mV, 30 mV,
60 mV and 300 mV.
9
Check the cell sensitivity. If you have any doubt please
consult the cell specifications
.
Programming Lock-out (page 33)
The instrument is set at the factory with the program
routines totally accessible.
Warning! Keep your unlock code in a secure place. If
you lost it, it is possible to reset it (page 36).

10
10
2.1 - POWER SUPPLY
Should any hardware modification be performed, remove the
electronics from the case as shown in figure 9.1.
115/230 V AC: The instruments with 115/230 V AC power, are
shipped from the factory for 230 V AC (USA market 115 V AC),
see figure 9.2. To change supply voltage to 115 V AC, set
jumpers as indicated in figure 9.3 (see table 1). The wiring label
should be modified to match new setups.
24/48 V AC: The instruments with 24/48 V AC power supply,
are shipped from the factory for 24 V AC, see figure 9.3 To
change supply voltage to 48 V AC, set jumpers as indicated in
figure 9.2 (see table 1). The wiring label should be modified to
match new setups.
10-30V DC: The instruments for 10-30V DC power supply are
prepared to withstand any voltage between 10 and 30V without
need of wiring changes.
Fig. 10.1. Removing the case
Fig. 10.2. Supply voltage 230 V or 48 V AC Fig. 10.3. Supply voltage 115 V or 24 V AC
Tabla 1. Jumper settings.
Pin 1 2 3 4 5
230V AC -
115V AC -
48V AC -
24V AC -
2.1 - POWER SUPPLY
Should any hardware modification be performed, remove the
electronics from the case as shown in figure 9.1.
115/230 V AC: The instruments with 115/230 V AC power, are
shipped from the factory for 230 V AC (USA market 115 V AC),
see figure 9.2. To change supply voltage to 115 V AC, set
j
umpers as indicated in figure 9.3 (see table 1). The wiring label
should be modified to match new setups.
24/48 V AC: The instruments with 24/48 V AC power supply,
are shipped from the factory for 24 V AC, see figure 9.3 To
change supply voltage to 48 V AC, set jumpers as indicated in
figure 9.2 (see table 1). The wiring label should be modified to
match new setups.
10-30V DC: The instruments for 10-30V DC power supply are
prepared to withstand any voltage between 10 and 30V without
need of wiring changes.
Fig. 10.1. Removing the case
Fig. 10.2. Supply voltage 230 V or 48 V AC Fig. 10.3. Supply voltage 115 V or 24 V AC
Tabla 1. Jumper settings.
Pin 1 2 3 4 5
230V AC -
115V AC -
48V AC -
24V AC -

11
11
CONNECTORS
To perform wiring connections, remove
the terminal block from the meter's connector,
strip the wire leaving from 7 to 10 mm exposed
and insert it into the proper terminal while pushing
the fingertip down to open the clip inside the
connector as indicated in the figure.
Proceed in the same manner with all pins and plug the terminal block
into the corresponding meter's connector.
Each terminal can admit cables of section comprised between 0.08 mm²
and 2.5 mm² (AWG 26 ÷ 14).
The blocks provide removable adaptors into each terminal to allow
proper fastening for cable sections of <0.5 mm².
POWER CONNECTION
AC VERSIONS
PIN 1 - AC HI
PIN 2 - GND (GROUND)
PIN 3 - AC LO (NEUTRAL)
DC VERSIONS
PIN 1 - DC POSITIVE
PIN 2 - N/C (no connection)
PIN 3 - DC NEGATIVE
INSTALLATION
To meet the requirements of the directive EN61010-1, where the unit
is permanently connected to the mains supply it is obligatory to install
a circuit breaking device easily reachable by the operator and clearly
marked as the disconnect device.
WARNING
In order to guarantee electromagnetic compatibility, the following
guidelines for cable wiring must be followed:
-Power supply wires must be routed separated from signal wires.
Never
run power and signal wires in the same conduit.
-Use shielded cable for signal wiring and connect the shield to
ground of the indicator (pin2 CN1).
-The cable section must be ≥0.25 mm²
If not installed and used according to these instructions,
protection against hazards may be impaired.
CONNECTORS
To perform wiring connections, remove
the terminal block from the meter's connector,
strip the wire leaving from 7 to 10 mm exposed
and insert it into the proper terminal while pushing
the fingertip down to open the clip inside the
connector as indicated in the figure.
Proceed in the same manner with all pins and plug the terminal block
into the corresponding meter's connector.
Each terminal can admit cables of section comprised between 0.08 mm²
and 2.5 mm² (AWG 26 ÷ 14).
The blocks provide removable adaptors into each terminal to allow
proper fastening for cable sections of <0.5 mm².
POWER CONNECTION
AC VERSIONS
PIN 1 - AC HI
PIN 2 - GND (GROUND)
PIN 3 - AC LO (NEUTRAL)
DC VERSIONS
PIN 1 - DC POSITIVE
PIN 2 - N/C (no connection)
PIN 3 - DC NEGATIVE
INSTALLATION
To meet the requirements of the directive EN61010-1, where the unit
is permanently connected to the mains supply it is obligatory to install
a circuit breaking device easily reachable by the operator and clearly
marked as the disconnect device.
WARNING
In order to guarantee electromagnetic compatibility, the following
guidelines for cable wiring must be followed:
-Power supply wires must be routed separated from signal wires.
Never
run power and signal wires in the same conduit.
-Use shielded cable for signal wiring and connect the shield to
ground of the indicator (pin2 CN1).
-The cable section must be ≥0.25 mm²
If not installed and used according to these instructions,
protection against hazards may be impaired.

12
12
Connect the instrumento to the main supply. During a short
period of time the digits, the decimal point and LEDs will turn
on as a verification of the correct function of the instrument.
After that the display will show the firmware version for 2
seconds. Example: C2.00
Press ENTER key to enter the programming mode and in the
display will appear the indication -Pro-. The programming
routine is divided in independent access modules that appear
by pressing key from the -Pro- level in the following
order:
7. CnInP = Input configuration.
8. CndSP = Display configuration.
9. SetP = Setpoints.
10. Anout = Analog output.
11. rSout = RS output.
12. LoGIn = Logical inputs.
The 3, 4 and 5 modules will be bypassed if the output options
are not installed. The information related to its programming
can be found in its own manual.
In the figure you can see how to enter the programming
mode, the module selection level and the exit with or without
saving data. Once in the display the desired module
indication, the access to the different settings menu has to be
done by pressing ENTER key.
In the global diagrams like the one in the picture, it is shown
the procedure of the programming.
Reading the diagram left to right key represents
selection or displacement. Reading the diagram up to down
ENTER key represents the data input and advance.
ESC key put the instrument in run mode from any step of
the programming without saving changes.
2.2 - PROGRAMMING INSTRUCTIONS
88888
Pro
Pro
CnInP CndSP SEtP Anout rSout LoGin
Connect the instrumento to the main supply. During a short
period of time the digits, the decimal point and LEDs will turn
on as a verification of the correct function of the instrument.
After that the display will show the firmware version for 2
seconds. Example: C2.00
Press ENTER key to enter the programming mode and in the
display will appear the indication -Pro-. The programming
routine is divided in independent access modules that appear
by pressing key from the -Pro- level in the following
order:
1. CnInP = Input configuration.
2. CndSP = Display configuration.
3. SetP = Setpoints.
4. Anout = Analog output.
5. rSout = RS output.
6. LoGIn = Logical inputs.
The 3, 4 and 5 modules will be bypassed if the output options
are not installed. The information related to its programming
can be found in its own manual.
In the figure you can see how to enter the programming
mode, the module selection level and the exit with or without
saving data. Once in the display the desired module
indication, the access to the different settings menu has to be
done by pressing ENTER key.
In the global diagrams like the one in the picture, it is shown
the procedure of the programming.
Reading the diagram left to right key represents
selection or displacement. Reading the diagram up to down
ENTER key represents the data input and advance.
ESC key put the instrument in run mode from any step of
the programming without saving changes.
2.2 - PROGRAMMING INSTRUCTIONS
88888
Pro
Pro
CnInP CndSP SEtP Anout rSout LoGin

13
13
In the step-by-step instructions, you are given the action of the three buttons mainly
used to program data. The normal procedure at each step is to push on a
number of times to make changes and push on ENTER to validate changes and
advance to the next programming step. At the end of a complete menu sequence the
meter returns to the run mode saving changes in memory.
In general the following actions can be made during the program mode.
ENTER validate changes and advance to next step
ESC discard changes and go to the run mode
select among a list of available options / shift to next digit to the right
increment digit value
The programming instructions are composed by a general description and a series of step-by-step instructions to be followed
sequentially. Each menu step is represented by an illustration of the display and keyboard module with indicators (display and
LED's), reference [page number. figure number] and a text describing the action of each key at that step.
[Page nº/figure nº] Mnemo
With respect to the figures in the step-by-step instructions, the display indications may have the
following meanings:
1. / The display shows one of the available options with filled-out segments. That means
that the display shows the choice made previously. The use of allows to select from
available options.
2./ A series of black "8" also represents the display indication of a previous choice, with
the difference that it cannot be changed in the current step. If it is already the desired
parameter, you may exit from the menu by a push of ESC without making changes or,
if wanted to modify it, a push of ENTER advances the meter to the next step where
changes are allowed.
3./ A series of white "8" represents any numerical value that is programmed by using keys
(Increment digit value) and (advance to the next digit).
Program
module and
menu step
indicators
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2
INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
In the step-by-step instructions, you are given the action of the three buttons mainly
used to program data. The normal procedure at each step is to push on a
number of times to make changes and push on ENTER to validate changes and
advance to the next programming step. At the end of a complete menu sequence the
meter returns to the run mode saving changes in memory.
In general the following actions can be made during the program mode.
ENTER validate changes and advance to next step
ESC discard changes and go to the run mode
select among a list of available options / shift to next digit to the right
increment digit va
lue
The programming instructions are composed by a general description and a series of step-by-step instructions to be followed
sequentially. Each menu step is represented by an illustration of the display and keyboard module with indicators (display and
LED's), reference [page number. figure number] and a text describing the action of each key at that step.
[Page nº/figure nº] Mnemo
With respect to the figures in the step-by-step instructions, the display indications may have the
following meanings:
1./ The display shows one of the available options with filled-out segments. That means
that the display shows the choice made previously. The use of allows to select from
available options.
2./ A series of black "8" also represents the display indication of a previous choice, with
the difference that it cannot be changed in the current step. If it is already the desired
parameter, you may exit from the menu by a push of ESC without making changes or,
if wanted to modify it, a push of ENTER advances the meter to the next step where
changes are allowed.
3./ A series of white "8" represents any numerical value that is programmed by using keys
(Increment digit value) and (advance to the next digit).
Program
module and
menu step
indicators
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2
INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN

14
14
2.3 - INPUT CONFIGURATION
To completely configure the input of the load-cell indicator, it
will be necessary to act on these two parameters:
1. Excitation voltage selection.
The indicator provides two excitation voltages to supply
the transducer; 5 V or 10 V. The selection is made by means
of a plug-in jumper located behind the input card connector.
Refer to the figure 13.1 to locate the jumper positions.
2. Input connection
PIN 6 = -EXC
PIN 5 = +EXC
PIN 4 = N/C
PIN 3 = -mV
PIN 2 = N/C
PIN 1 = +mV (max. 300 mV)
Jump ON = EXC. 5V
Jump OFF = EXC. 10V
Fig. 14.1: excitation jumper
LOAD-CELL TRANSDUCER 0-100mV 4 OR MORE CELLS CONNECTED IN PARALLEL
2.3 - INPUT CONFIGURATION
To completely configure the input of the load-cell indicator, it
will be necessary to act on these two parameters:
1. Excitation voltage selection.
The indicator provides two excitation voltages to supply
the transducer; 5 V or 10 V. The selection is made by means
of a plug-in jumper located behind the input card connector.
Refer to the figure 13.1 to locate the jumper positions.
2. Input connection
PIN 6 = -EXC
PIN 5 = +EXC
PIN 4 = N/C
PIN 3 = -mV
PIN 2 = N/C
PIN 1 = +mV (max. 300 mV)
Jump ON = EXC. 5V
Jump OFF = EXC. 10V
Fig. 14.1: excitation jumper
LOAD-CELL TRANSDUCER 0-100mV 4 OR MORE CELLS CONNECTED IN PARALLEL

15
15
From the run mode, press ENTER to get access to the programming mode (the -Pro-
indication appears on the display). Press the key to make the display show the
indication given by the figure 14.1. that corresponds to the entry into the input
programming module.
ENTER Access input range configuration
To skip over this stage.
ESC To exit from programming mode and return the meter to the run mode.
[15.1] Input configuration
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
The display shows the previously-selected input range. If it is already the desired one,
press ESC to return to the run mode. To modify this parameter, press repeatedly
the key until the desired input range ["15mV", "30mV", "60mV" or
"300mV"] appears on the display.
ENTER To save the entry in the memory and go to the run mode.
ESC Cancel programming and return to run mode
[15.2] Input range
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
3. Input programming range.
T
he only configurable parameter is the input range. There are four available ranges; 15 mV, 30 mV, 60 mV or 300 mV which are
to be chosen to match the cell sensitivity (max. output in mV). The maximum voltage applicable to the instrument is 300 mV. The
built-in excitation voltage can be used to power up to 4 cells connected in parallel, with 10 V excitation and up to 8 cells with 5 V
excitation. Suppose 4 cells with 2 mV per Volt output that are powered from the 10 V excitation source so each one drives out 20
mV. Since they are connected in parallel, the total output voltage is 20 mV. For this configuration the instrument should be
programmed for an input range of 30 mV.
After deciding the input range, we are ready to enter in the input configuration module (1 CnInP) to program this parameter.
Connect the instrument to the power supply. For a few seconds, the display will illuminate all segments, decimal points and LED's
as a test of their proper operation.
From the run mode, press ENTER to get access to the programming mode (the -Pro-
indication appears on the display). Press the key to make the display show the
indication given by the figure 14.1. that corresponds to the entry into the input
programming module.
ENTER Access input range configuration
To skip over this stage.
ESC To exit from programming mode and return the meter to the run mode.
[15.1] Input configuration
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
The display shows the previously-selected input range. If it is already the desired one,
press ESC to return to the run mode. To modify this parameter, press repeatedly
the key until the desired input range ["15mV", "30mV", "60mV" or
"300mV"] appears on the display.
ENTER To save the entry in the memory and go to the run mode.
ESC Cancel programming and return to run mode
[15.2] Input range
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
3. Input programming range.
T
he only configurable parameter is the input range. There are four available ranges; 15 mV, 30 mV, 60 mV or 300 mV which are
to be chosen to match the cell sensitivity (max. output in mV). The maximum voltage applicable to the instrument is 300 mV. The
built-in excitation voltage can be used to power up to 4 cells connected in parallel, with 10 V excitation and up to 8 cells with 5 V
excitation. Suppose 4 cells with 2 mV per Volt output that are powered from the 10 V excitation source so each one drives out 20
mV. Since they are connected in parallel, the total output voltage is 20 mV. For this configuration the instrument should be
programmed for an input range of 30 mV.
After deciding the input range, we are ready to enter in the input configuration module (1 CnInP) to program this parameter.
Connect the instrument to the power supply. For a few seconds, the display will illuminate all segments, decimal points and LED's
as a test of their proper operation.

16
16
2. Action modes
The figure below represents two modes of operation
Forward operation:
-When input signal
increases
, the display
increases
.
-When input signal
decreases
, the display
decreases
.
Reverse operation:
-When input signal
increases
, the display
decreases
.
-When input signal
decreases
, the display
increases
.
2.4 - DISPLAY CONFIGURATION
After selection of the input range, it may be necessary to
scale the instrument for the particular application. For many
common applications, single slope scaling (2 points) should
be sufficient to have good readings over the entire process
range. Other applications, in which non-linear devices are
used may require linearizing the signal. This is accomplished
by scaling the meter with more than two points (see
fig. 16.1)
Type of function Nº of scaling points
Linear function 2 points
Non-linear function Max 30 points
1. Scaling the display.
The procedure of scaling the display consists of
programming a minimum of two points composed each by
an input (INP#) and a display (DSP#) coordinates.
When scaling the meter with two points (linear function),
they should be located near the process limits for the best
possible accuracy.
For multi-point scaling, it is recommended to use the most
possible number of points and to reduce the segment length.
The input signal values of the scaling points must be
all increasing or all decreasing. Avoid programming
two different displays for two equal inputs. The display
values can be entered in any order and even be repeated for
two or more input values.
Fig. 16.1:
Linearizing
function with 6
segments (7 points).
(inp1, dsp1)
(inp2, dsp2)
(inp3, dsp3)
(inp4, dsp4)
(inp5, dsp5)
(inp6, dsp6)
(inp7, dsp7)
DISPLAY 2
INPUT 2
DISPLAY 1
INPUT 1
DISPLAY 1
INPUT 2
DISPLAY 2
INPUT 1
Relación proporcional directa Relación proporcional inversa
Forward operation Reverse operation
2. Action modes
The figure below represents two modes of operation
Forward operation:
-When input signal
increases
, the display
increases
.
-When input signal
decreases
, the display
decreases
.
Reverse operation:
-When input signal
increases
, the display
decreases
.
-When input signal
decreases
, the display
increases
.
2.4 - DISPLAY CONFIGURATION
After selection of the input range, it may be necessary to
scale the instrument for the particular application. For many
common applications, single slope scaling (2 points) should
be sufficient to have good readings over the entire process
range. Other applications, in which non-linear devices are
used may require linearizing the signal. This is accomplished
by scaling the meter with more than two points (see
fig. 16.1)
Type of function Nº of scaling points
Linear function 2 points
Non-linear function Max 30 points
1. Scaling the display.
The procedure of scaling the display consists of
programming a minimum of two points composed each by
an input (INP#) and a display (DSP#) coordinates.
When scaling the meter with two points (linear function),
they should be located near the process limits for the best
possible accuracy.
For multi-point scaling, it is recommended to use the most
possible number of points and to reduce the segment length.
The input signal values of the scaling points must be
all increasing or all decreasing. Avoid programming
two different displays for two equal inputs. The display
values can be entered in any order and even be repeated for
two or more input values.
Fig. 16.1:
Linearizing
function with 6
segments (7 points).
(inp1, dsp1)
(inp2, dsp2)
(inp3, dsp3)
(inp4, dsp4)
(inp5, dsp5)
(inp6, dsp6)
(inp7, dsp7)
DISPLAY 2
INPUT 2
DISPLAY 1
INPUT 1
DISPLAY 1
INPUT 2
DISPLAY 2
INPUT 1
Relación proporcional directa Relación proporcional inversa
Forward operation Reverse operation

17
17
3. Scaling the indicator.
After deciding the values for INPUT and DISPLAY and the decimal point position, we are ready to enter in the display configuration
module. It has six configurable menus: scaling, balanced filter, damping filter, round filter, tare and sensor break
detection.
From the run mode, press ENTER to get access to the programming mode (the display
shows -Pro-). Press two times the key to go to the entry stage of the display
configuration module. To access the display configuration menus press ENTER key
Continues to the next display configuration menu
ENTER Enters in the selected menu.
ESC Brings the instrument to the run mode.
[17.1] Display configuration
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMI
T
MAX/MIN ENTER
ESC DATA
PROG
T
EACH
PRG
RUN
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
T
EACH
PRG
RUN
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1INP1
2
1
4
3
TARE
RESET LIMIT MAX/ MIN ENTER
ESC DATA
PROG
T
EACH
PRG
RUN
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/M IN ENTE R
ESC DATA
PROG
TEACH
PRG
RUN
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
MENU 2A
SCALING MENU 2B
BALANCED
FILTER
MENU 2AB
DAMPING FILTER
MENU 2
ROUND
FILTER
ENTER
B
A
TARE
HOLD LIMIT MAX MIN
DATA
DSP2INP2 FLT STOREDSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
T
EACH
PRG
RUN
MENU 2
MODE
TARE
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
MENU 2
SENSOR
BREAK
3. Scaling the indicator.
After deciding the values for INPUT and DISPLAY and the decimal point position, we are ready to enter in the display configuration
module. It has six configurable menus: scaling, balanced filter, damping filter, round filter, tare and sensor break
detection.
From the run mode, press ENTER to get access to the programming mode (the display
shows -Pro-). Press two times the key to go to the entry stage of the display
configuration module. To access the display configuration menus press ENTER key
Continues to the next display configuration menu
ENTER Enters in the selected menu.
ESC Brings the instrument to the run mode.
[17.1] Display configuration
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMI
T
MAX/MIN ENTER
ESC DATA
PROG
T
EACH
PRG
RUN
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
T
EACH
PRG
RUN
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1INP1
2
1
4
3
TARE
RESET LIMIT MAX/ MIN ENTER
ESC DATA
PROG
T
EACH
PRG
RUN
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
MENU 2A
SCALING MENU 2B
BALANCED
FILTER
MENU 2AB
DAMPING FILTER
MENU 2
ROUND
FILTER
ENTER
B
A
TARE
HOLD LIMIT MAX MIN
DATA
DSP2INP2 FLT STOREDSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
T
EACH
PRG
RUN
MENU 2
MODE
TARE
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
MENU 2
SENSOR
BREAK

The figure 18.1 shows the indication (SCAL) corresponding to entry stage into the
scaling menu. Press ENTER to accede this menu.
ENTER To accede the scale configuration.
To skip over this stage and go to the next programming menu.
ESC To exit from the programming mode without saving changes.
Programming input value at point 1, led INP1 on.
Key-in method: Select the blinking sign in the auxiliar display with key ["0" =
positive, "-" = negative]. Press key to go to the main display. Enter the value
digit by digit from left to right. Press repeatly key to change the value of the
blinking digit and press key to move to the right digit up to complete the value.
Teach method: Press TEACH key to display the real input value.
ENTER Validates the data and proceed to the next programming step.
ESC To exit from the programming mode without saving changes.
Programming of the display value for the first point, LED DSP1. Enter the value digit
by digit from left to right. Press key to modify the blinking digit and press
key to move to the right digit up to complete the value and the sign. If the
programmed value exceeds from these limits, the meter indicates Error, then displays
32000 with the first digit in flash to allow reprogramming the value within
limits. ENTER
T
o save the entry into the memory and go to the next programming
menu.
ESC To exit from the programming mode without saving changes.
The figure 18.1 shows the indication (SCAL) corresponding to entry stage into the
scaling menu. Press ENTER to accede this menu.
ENTER To accede the scale configuration.
To skip over this stage and go to the next programming menu.
ESC To exit from the programming mode without saving changes.
Programming input value at point 1, led INP1 on.
Key-in method: Select the blinking sign in the auxiliar display with key ["0" =
positive, "-" = negative]. Press key to go to the main display. Enter the value
digit by digit from left to right. Press repeatly key to change the value of the
blinking digit and press key to move to the right digit up to complete the value.
Teach method: Press TEACH key to display the real input value.
ENTER Validates the data and proceed to the next programming step.
ESC To exit from the programming mode without saving changes.
Programming of the display value for the first point, LED DSP1. Enter the value digit
by digit from left to right. Press key to modify the blinking digit and press
key to move to the right digit up to complete the value and the sign. If the
programmed value exceeds from these limits, the meter indicates Error, then displays
32000 with the first digit in flash to allow reprogramming the value within
limits. ENTER
T
o save the entry into the memory and go to the next programming
menu.
ESC To exit from the programming mode without saving changes.
18
18
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
[18.1] Scaling configuration
MENU 2A - SCALE
This menu allows programming the necessary parameters to determine the display range (INP1 - DSP1 - Decimal Point - INP2 -
DSP2 - INP3 - DSP3 -…). As a default, these values are expected to be introduced by keyboard. To use the actual signal input
values as INP# parameters, it is sufficient to push on the TEACH key at INPUT programming phases.
VERY IMPORTANT: Scaling the meter with a tare value different from zero may cause false readings. Before trying
to program the scale, check the TARE LED and, if activated proceed to clear the tare memory (Fig. 25.2).
[18.2] Input 1 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
[18.3] Display 1 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
[18.1] Scaling configuration
MENU 2A - SCALE
This menu allows programming the necessary parameters to determine the display range (INP1 - DSP1 - Decimal Point - INP2 -
DSP2 - INP3 - DSP3 -…). As a default, these values are expected to be introduced by keyboard. To use the actual signal input
values as INP# parameters, it is sufficient to push on the TEACH key at INPUT programming phases.
V
ERY IMPORTANT: Scaling the meter with a tare value different from zero may cause false readings. Before trying
to program the scale, check the TARE LED and, if activated proceed to clear the tare memory (Fig. 25.2).
[18.2] Input 1 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
[18.3] Display 1 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN

19
19
Programming the decimal point which apears blinking.
Press repeatedly the key to move it to the right until desired position. Si If no
decimal point is required, it must be placed to the right side of the display.
T
he
decimal point remains in the selected position in all programming phases and the run
mode.
ENTER To save the entry into the memory and go to the next programming menu.
ESC To exit from the programming mode without saving changes.
[19.1] Decimal point
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
The previously programmed INP2 value appears on the display, LED INP2 activated.
Key-in method: Select the blinking sign in the auxiliar display with key ["0" =
positive, "-" = negative]. Press key to go to the main display. Enter the value
digit by digit from left to right. Press repeatly key to change the value of the
blinking digit and press key to move to the right digit up to complete the value.
Teach method: Press TEACH to view the actual signal value present at the input
connector.
ENTER Validates the data and proceed to the next programming step.
ESC To exit from the programming mode without saving changes.
[19.2] Input 2 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
Programming of the display value for the first point, activated LED DSP2. Enter the
value digit by digit from left to right. Press key to change the value of the
blinking digit and press key to go to the next digit to complete the desired
value and sign. If the programmed value exceeds from these limits, the meter
indicates Error, then displays 32000 with the first digit in flash to allow reprogramming
the DSP2 value within limits. Enter the value:
c) To save the entry into the memory and return to run mode, press ENTER ; or
d) To access to the scale linelization points, press ENTER 3 seconds.
ESC To exit from the programming mode without saving changes
[19.3] Display 2 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
VERY IMPORTANT: Scalin
g
the meter
with a tare value different from zero may
cause false readin
g
s. Before tryin
g
to
program the scale, check the TARE LED
and, if activated proceed to clear the tare
memory
Programming the decimal point which apears blinking.
Press repeatedly the key to move it to the right until desired position. Si If no
decimal point is required, it must be placed to the right side of the display.
T
he
decimal point remains in the selected position in all programming phases and the run
mode.
ENTER To save the entry into the memory and go to the next programming menu.
ESC To exit from the programming mode without saving changes.
[19.1] Decimal point
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
The previously programmed INP2 value appears on the display, LED INP2 activated.
Key-in method: Select the blinking sign in the auxiliar display with key ["0" =
positive, "-" = negative]. Press key to go to the main display. Enter the value
digit by digit from left to right. Press repeatly key to change the value of the
blinking digit and press key to move to the right digit up to complete the value.
Teach method: Press TEACH to view the actual signal value present at the input
connector.
ENTER Validates the data and proceed to the next programming step.
ESC To exit from the programming mode without saving changes.
[19.2] Input 2 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
Programming of the display value for the first point, activated LED DSP2. Enter the
value digit by digit from left to right. Press key to change the value of the
blinking digit and press key to go to the next digit to complete the desired
value and sign. If the programmed value exceeds from these limits, the meter
indicates Error, then displays 32000 with the first digit in flash to allow reprogramming
the DSP2 value within limits. Enter the value:
a) To save the entry into the memory and return to run mode, press ENTER ; or
b) To access to the scale linelization points, press ENTER 3 seconds.
ESC To exit from the programming mode without saving changes
[19.3] Displa
y
2 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
VERY IMPORTANT: Scalin
g
the meter
with a tare value different from zero may
cause false readin
g
s. Before tryin
g
to
pro
g
ram the scale, check the TARE LED
and, if activated proceed to clear the tare
memory

Programming the input value at point 3, led INP2 on.
Key-in method: Use to switch between "0" (positive) and "-" (negative).
Press to go to the main display. Enter the value digit by digit and from left to
right. Press to modify the blinking digit and press key to move to the
right digit to complete the value.
Teach method: Press TEACH to view the actual signal value present at the input
connector
ENTER Press to accept this value as INP3 and go next step.
ESC To exit from the programming mode without saving changes.
Programming of the display value for the third point, activated LED DSP2. Enter the
value digit by digit from left to right. Press key to modify the blinking digit and
press key to move to the right digit up to complete the value and the sign. If
the programmed value exceeds from these limits, the meter indicates Error, then
displays 32000 with the first digit in flash to allow reprogramming the DSP3 value
within limits.
c) To validate data and advance to the next point ; press ENTER ; or
d) To save the programmed data in the memory and return to the run mode (the
meter is scaled by three points), press and hold down ENTER for 3 seconds.
ESC To exit from the programming mode without saving changes.
1 second flag indication for scaling point 3
Multi-slope scaling sequence begins at this step.
Programming the input value at point 3, led INP2 on.
Key-in method: Use to switch between "0" (positive) and "-" (negative).
Press to go to the main display. Enter the value digit by digit and from left to
right. Press to modify the blinking digit and press key to move to the
right digit to complete the value.
Teach method: Press TEACH to view the actual signal value present at the input
connector
ENTER Press to accept this value as INP3 and go next step.
ESC To exit from the programming mode without saving changes.
Programming of the display value for the third point, activated LED DSP2. Enter the
value digit by digit from left to right. Press key to modify the blinking digit and
press key to move to the right digit up to complete the value and the sign. If
the programmed value exceeds from these limits, the meter indicates Error, then
displays 32000 with the first digit in flash to allow reprogramming the DSP3 value
within limits.
a) To validate data and advance to the next point ; press ENTER ; or
b)
T
o save the programmed data in the memory and return to the run mode (the
meter is scaled by three points), press and hold down ENTER for 3 seconds.
ESC To exit from the programming mode without saving changes.
1 second flag indication for scaling point 3
Multi-slope scaling sequence begins at this step.
20
20
[20.2] Input 3 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
[20.3] Display 3 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
[20.1] Point 3
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
[20.2] Input 3 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DAT
A
PROG
TEACH
PRG
RUN
[20.3] Display 3 value
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
[20.1] Point 3
B
A
TARE
HOLD LIMIT MAX MIN DATA
DSP2INP2 FLT STORE
DSP1
INP1
2
1
4
3
TARE
RESET LIMIT MAX/MIN ENTER
ESC DATA
PROG
TEACH
PRG
RUN
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