1.3.3 Zero Scale............................................................................................................................................ 3
1.3.7 Display or Change Time and Date ........................................................................................................ 3
1.3.8 Display or Change Setpoint Value......................................................................................................... 3
1.3.9 Turn Setpoint On or Off ........................................................................................................................ 3
1.3.10 Display or Clear Accumulator ............................................................................................................... 3
2.3.2 Serial Communications......................................................................................................................... 6
2.3.3 Digital I/O ............................................................................................................................................. 6
2.3.4 Analog Output...................................................................................................................................... 6
2.4 Analog Output Module Installation.................................................................................................. 6
3.2.2 Format Menu...................................................................................................................................... 19
3.2.3 Calibration Menu ................................................................................................................................ 21
3.2.4 Serial Menu ........................................................................................................................................ 22
3.2.5 Program Menu ................................................................................................................................... 24
3.2.6 Print Format Menu.............................................................................................................................. 26
3.2.8 Digital Input Menu............................................................................................................................... 31
3.2.9 Analog Output Menu .......................................................................................................................... 32
3.2.10 Version Menu..................................................................................................................................... 32
6.3.1 Using the EDP Port ............................................................................................................................ 47
6.3.2 Using the Front Panel......................................................................................................................... 47
6.3.3 Using Revolution ................................................................................................................................ 47
8.2.1 Example 1.......................................................................................................................................... 53
8.2.2 Example 2.......................................................................................................................................... 54
9.2.1 Example 1.......................................................................................................................................... 57
9.2.2 Example 2.......................................................................................................................................... 58
9.2.3 Example 3.......................................................................................................................................... 60
10.1.2 Using the XE EDP Command ............................................................................................................. 62
10.2 Status Messages.......................................................................................................................... 63
10.3 Data Formats............................................................................................................................... 64
10.3.1 Continuous Output Serial Data Format............................................................................................... 64
10.3.2 Demand Output Serial Data Format.................................................................................................... 64
10.3.3 RS-485 Data Formats ........................................................................................................................ 64
10.4 ASCII Character Chart.................................................................................................................. 65
10.5 Digital Filtering.............................................................................................................................. 67
10.5.1 DFSENS and DFTHRH Parameters .................................................................................................... 67
10.5.2 Setting the Digital Filter Parameters.................................................................................................... 67
10.6 Conversion Factors for Secondary Units....................................................................................... 67
10.7 Analog Output Calibration ............................................................................................................ 69
10.8 Test Mode.................................................................................................................................... 69
IQ plus 710 Limited Warranty................................................................................................................ 73
IQ plus 710 Installation Manual
Page 4
About This Manual
This manual is intended for use by service technicians
responsible for installing and servicing IQ plus
®
710
digital weight indicators.
This manual applies to indicators using Version 1.4 of
the IQ plus 710 software. See Section 10.10 on
page 71 for a summary of software changes included
in this release.
Configuration and calibration of the indicator can be
accomplished using the indicator front panel keys, the
™
EDP command set, or the Revolution
configuration
utility. See Section 3.1 on page 13 for information
about configuration methods.
1.0Introduction
The IQ plus 710 is a single-channel digital weight
indicator housed in a NEMA 4X/IP66-rated stainless
steel enclosure. The indicator front panel consists of a
29-button keypad with a large, seven-digit,
14-segment, vacuum fluorescent display,
two-character dot-matrix annunciator field, and a
sixteen-character dot-matrix prompt field. Features
include:
•Drives up to eight 350 Ω or sixteen 700 Ω load
cells
•Supports 4- and 6-wire load cell connections
•Eight configurable digital inputs
•Eight digital outputs
•Electronic data processing (EDP) port for full
duplex RS-232 or RS-485 communications at
up to 19200 bps
•Printer port for output-only RS-232 and 20
mA current loop communications at up to
19200 bps
•Optional analog output module provides 0–10
VDC or 4–20 mA tracking of gross or net
weight values
•Optional Remote I/O Interface for
communication with PLC
controllers using the Allen-Bradley
I/O
®
networks
1
•Available in 115 VAC and 230 VAC versions
The IQ plus 710 is NTEP-certified for Classes III and
III L at 10,000 divisions. See Section 10.11 on
page 72 for detailed specifications.
®
and SLC
®
Remote
™
Warning
Some procedures described in this
manual require work inside the indicator
enclosure. These procedures are to be
performed by qualified service personnel
only.
Authorized distributors and their employees
can view or download this manual from the
Rice Lake Weighing Systems distributor
www.rlws.com
site at
.
The Operator Card included with this manual
provides basic operating instructions for users of the
IQ plus 710. Please leave the Operator Card with the
indicator when installation and configuration are
complete.
1.1Operating Modes
The IQ plus 710 has three modes of operation:
Normal (weighing) mode
Normal mode is the “production” mode of the
indicator. The indicator displays gross, net, or tare
weights as required, using the secondary display
to indicate scale status and the type of weight
value displayed. Once configuration is complete
and a legal seal is affixed to the back of the
indicator, this is the only mode in which the IQ
plus 710 can operate.
Setup mode
Most of the procedures described in this manual
require the indicator to be in setup mode,
including configuration and calibration.
To enter setup mode, remove the large fillister
head screw from the enclosure backplate. Insert a
screwdriver or a similar tool into the access hole
and press the setup switch once. The indicator
display changes to show the word
Test mode
Test mode provides a number of diagnostic
functions for the IQ plus 710 indicator. Like setup
mode, test mode is entered using the setup switch.
See Section 10.8 on page 69 for more information
about entering and using test mode.
CONFIG
.
®
1.Allen-Bradley
Allen-Bradley Company, Inc., a Rockwell International company.
, PLC
®
, and SLC
™
are trademarks of
Introduction
1
Page 5
2
Figure 1-1. IQ plus 710 Front Panel
1.2Front Panel Display
Figure 1-1 shows the IQ plus 710 front panel keys and
the key functions assigned in normal mode.
The IQ plus 710 display is divided into three areas
(see Figure 1-2):
•The primary display consists of seven large,
14-segment digits used to display weight data.
•A two-digit annunciator shows the units
associated with the displayed value: lb=pounds,
kg=kilograms, oz=ounces, T=short tons,
t=metric tons, LT=long tons, g=grams,
GN=grains. When the units configured are troy
troy
pounds or troy ounces, the word
the secondary display area in addition to the
oz
or
annunciator. The units can also be set to
NONE (no units information displayed).
PRIMARY DISPLAY
is shown in
lb
The two-digit annunciator also displays whether
the indicator is in numeric entry (NE) or alpha
entry (AE) mode for some operations.
The 16-digit secondary display is used to display the
weighing mode (Gross/Brutto or Net) and status
indicators, including standstill () and center of
zero ().
The symbols shown over the keys in Figure 1-1
(representing up, down, enter, left, right) describe the
key functions assigned in setup mode. In setup mode,
the keys are used to navigate through menus, select
digits within numeric values, and increment/
decrement values. See Section 3.1.3 on page 14 for
information about using the front panel keys in setup
mode.
2-DIGIT
ANNUNCIATOR
for UNITS,
alpha entry (AE),
numeric entry (NE)
SECONDARY DISPLAY
Figure 1-2. IQ plus 710 Front Panel Display Areas
IQ plus 710 Installation Manual
Page 6
1.3Indicator Operations
Basic IQ plus 710 operations are summarized below:
1.3.1Toggle Gross/Net Mode
Press the
from gross to net, or from net to gross. If a tare value
has been entered or acquired, the net value is the gross
weight minus the tare. If no tare has been entered or
acquired, the display remains in gross mode.
Gross mode is indicated by the word
Brutto
indicated by the word
1.3.2Toggle Units
Press the
secondary units. The units identifier is shown to the
right of the primary display. Troy ounces and troy
pounds are indicated by the word
secondary display.
1.3.3Zero Scale
1.3.4Acquire Tare
To display the current tare value, press the
TARE
1.3.5Remove Stored Tare Value
1.3.6Print Ticket
GROSS/NET
key to switch the display mode
Gross
(or
) on the secondary display; net mode is
Net
.
UNITS
key to switch between primary and
troy
on the
1. In gross mode, remove all weight from the
scale and wait for the standstill annunciator
().
ZERO
2. Press the
key. The center of zero
() annunciator lights to indicate the
scale is zeroed.
1. Place container on scale and wait for the
standstill annunciator ().
key to acquire the tare weight
2. Press the
TARE
of the container.
3. Display shifts to net weight and shows the
Net
word
on the secondary display.
DISPLAY
key.
1. Remove all weight from the scale and wait for
the standstill annunciator ().
2. Press the
weight and shows the word
ZERO
key. Display shifts to gross
Gross
on the
secondary display.
1. Wait for the standstill annunciator ().
2. Press the
PRINT
key to send data to the serial
port.
1.3.7Display or Change Time and Date
To display the date, press the
TIME/DATE
press
a second time to display the time.
To set the date, press the
TIME/DATE
TIME/DATE
key once;
key once. Use
the numeric keypad to enter the date, then press the
ENTER
key. The date must be entered in the date
format configured for the indicator: MMDDYY or
DDMMYY .
To set the time, press the
TIME/DATE
key twice. Use
the numeric keypad to enter the time in 24-hour
format, then press the
1.3.8Display or Change Setpoint Value
To display a setpoint value, press the
ENTER
key.
SETPOINT
key a
number of times equal to the setpoint number. For
example, to display the value of setpoint 4, press the
SETPOINT
key four times.
To change the setpoint value, display the current
value, then use the numeric keypad to enter the new
value and press the
NOTE:
Some indicator configurations may not allow
ENTER
key.
setpoint values to be changed through the front panel
or may require a password to display or change the
setpoint value.
1.3.9Turn Setpoint On or Off
To turn a setpoint off at the front panel, press the
SETPOINT
key a number of times equal to the
setpoint number. With the correct setpoint displayed,
CLEAR
press
to turn the setpoint off.
To re-enable a setpoint on that has been turned off at
the front panel, press the
SETPOINT
correct setpoint is displayed, then press
key until the
ENTER
to turn
the setpoint back on.
NOTE:
Some indicator configurations may not allow
setpoints to be turned off through the front panel or
may require a password to turn the setpoint on and off.
1.3.10Display or Clear Accumulator
If the accumulator function is enabled, the current net
weight is added to the accumulator each time the
indicator performs a print operation.
•To display the current accumulator value,
press the
•To clear the accumulator, press
ACCUM
key.
ACCUM
to
show the current value, then press the CLEAR
key twice to reset the accumulator.
Introduction
3
Page 7
2.0Installation
This section describes procedures for connecting load
cells, digital I/O, and serial communications cables to
the IQ plus 710 indicator. Instructions for field
installation of the analog output option and
replacement of the CPU board are included, along
with assembly drawings and parts lists for the service
technician.
Caution
• Use a wrist strap to ground yourself and protect
components from electrostatic discharge (ESD)
when working inside the indicator enclosure.
• This unit uses double pole/neutral fusing which
could create an electric shock hazard. Procedures
requiring work inside the indicator must be
performed by qualified service personnel only.
• The supply cord serves as the power disconnect for
the IQ plus 710. The power outlet supplying the
indicator must be installed near the unit and be
easily accessible.
2.1Unpacking and Assembly
Immediately after unpacking, visually inspect the IQ
plus 710 to ensure all components are included and
undamaged. The shipping carton should contain the
indicator with attached tilt stand, this manual, and a
parts kit. If any parts were damaged in shipment,
notify Rice Lake Weighing Systems and the shipper
immediately.
The parts kit contains the items listed below:
•Capacity and identification labels.
•Two 8-32NC x 7/16 fillister head screws (PN
30623). These screws occupy the holes above
and on either side of the setup screw on the
indicator backplate (see Figure 2-2 on page
7).
•Ten 8-32NC x 3/8 machine screws (PN
14862) for the indicator backplate (see #29 in
Figure 2-6 on page 12).
•Twelve bonded sealing washers (PN 45042)
for backplate screws included in the parts kit.
•Four cord grip reducing glands (PN 15664).
•Four rubber bumpers (“feet”) for the tilt stand,
PN 42149.
•6 cable ties, PN 15631.
2.2Enclosure Disassembly
The indicator enclosure must be opened to connect
cables for load cells, communications, digital inputs,
digital outputs, and analog output.
The IQ plus 710 has no on/off switch.
Warning
Before opening the unit, ensure the
power cord is disconnected from the
power outlet.
Ensure power to the indicator is disconnected, then
place the indicator face-down on an antistatic work
mat. Remove the screws that hold the backplate to the
enclosure body, then lift the backplate away from the
enclosure and set it aside.
2.3Cable Connections
The IQ plus 710 provides five cord grips for cabling
into the indicator: one for the power cord, four to
accommodate load cell, communications, digital I/O,
and analog output cables. Three of the four free cord
grips come with a plug installed to prevent moisture
from entering the enclosure. Depending on your
application, remove the plug from any cord grip that
will be used and install cables as required.
4IQ plus 710 Installation Manual
Page 8
+20 mA
–20 mA
Prn RxD
Prn TxD
EDP RxD
GND
EDP TxD
GND
RS485-B
RS485-A
GND
+5V
J12
J4
+I
–I
7
6
5
4
3
2
SERIAL COMMUNICATIONS - 1
1
7
C79
6
5
C83
4
R32
3
C88
2
R33
SERIAL COMMUNICATIONS - 2
1
C92
U23
BROWN WIRE
J1
J9
B1
R34
C90
+
U15
R37
R36
C103
TO LINE FILTER
–SIG
+SIG
LOAD CELL CONNECTOR
R5
R4
C19
R14
C39
C40
JP3
C91
R35
R38
C100
+
C104
P2
F2F1
BLUE WIRE
JP1
C41
Q1
R21
C49
C50
C71
U7
4
3
2
1
+EXC
–EXC
SHIELD
–SENSE
+SENSE
7654321
D1
C1
D2
JP2
R6
C20
J15
R20
U3
C51
U8
R28
R29
U11
C89
LOCATION OF INSTALLED ANALOG OUTPUT MODULE
J1
C94
+
C2
SW1
D4
D9
C11
C21
C22
C42
R7
R8
R16
R15
C54
C55
C56
J6
C95
D5
7
6
R10
R9
R17
R18
C58
C57
KEYPAD CONNECTOR
RN7
+
D6
8
L2
L1
C43
C44
C52
C53
C72
C80
R26
R27
R30
U17
T1
14
15
1
2
3
4
5
6
7
DIGITAL INPUT
8
9
10
C87
J7
GND
DI1
DI2
DI3
DI4
DI5
DI6
DI7
DI8
GND
C8
C9
R1
C4
C5
C3
C12
C13
C23
C59
R2
C14
RN1
U1
C25
C24
C61
C63
C62
C60
C65
C64
J10
1
RN8
RN9
R3
C7
C6
C15
D3
U2
C16
R11
R12
C27
C26
C28
R19
+
+
J5
C10
C18
RN2
C17
C29
Y1
C66
C73
C81
U12
R13
C36
C38
C35
C32
C31
C33
C30
C34
U4
R22
U5
U9
R24
R23
U6
C78
R31
C84
U13
C86
C37
RN3
RN4
C47
C48
C45
C46
C70
C67
C69
C68
RN6
RN5
C77
C76
C75
C74
R25
U10
C82
C85
U14
ANALOG OUTPUT
C93
U16
EPROM
C96
U18
D8
R40
D7
9
1011
3
12
JP4
C97
C101
U19
50
51
R42
R41
C106
75
C105
C107
R44
Y3
R48
R47
RN13
R52
U26
D13
D12
D14
D11
C112
C113
C115
C114
26
25
U22
76
1
100
RN11
RN12
C108
RN14
D10
U27
D16
D17
D18
D15
RN15
C119
C117
C118
C116
C98
C99
U20
U21
RN10
R39
R43
C102
12
U24
Y2
34
C109
R45
Q2
R50
R46
R49
U25
C110
C111
R51
R54
R53
U28
RN16
DIGITAL OUTPUT
7654321
9
8
10
+5V
DO8
DO7
DO6
DO5
DO4
DO3
DO2
DO1
J8
GND
Figure 2-1. IQ plus 710 CPU and Power Supply Board, Rev. 2
2.3.1Load Cells
To attach cable from a load cell or junction box,
remove connector J1 from the board. The connector
plugs into a header on the board (see Figure 2-1).
Wire the load cell cable from the load cell or junction
box to connector J1 as shown in Table 2-1. If using
6-wire load cell cable (with sense wires), remove
jumpers JP1 and JP2 before reinstalling connector J1
(see Figure 2-1). For 4-wire installation, leave
jumpers JP1 and JP2 on.
When connections are complete, reinstall connector
J1 on the board and use two cable ties to secure the
load cell cable to the inside of the enclosure.
J1 PinFunction
1+SIG
2–SIG
3+SENSE
4–SENSE
5SHIELD
6+EXC
7–EXC
For 6-wire load cell connections,
remove jumpers JP1 and JP2.
Table 2-1. J1 Pin Assignments
Installation5
Page 9
2.3.2Serial Communications
To attach serial communications cables, remove
connector J4 or J12 from the board. Connector J4
provides connections for the EDP (Electronic Data
Processing) port, printer port, and 20 mA current loop
transmit signals; connector J12 provides RS-485 and
20 mA current loop receive signals. Table 2-2 shows
the pin assignments for connectors J12 and J4.
Once cables are attached, reconnect J12 or J4 to the
header on the board. Use cable ties to secure serial
cables to the inside of the enclosure.
The EDP port supports RS-232 or RS-485
communications; the printer port provides active 20
mA output and RS-232 transmission. Both ports are
configured using the SERIAL menu. See Section 3.0
on page 13 for configuration information.
Connector PinSignal
J4
J12
Table 2-2. J4 and J12 Pin Assignments
2.3.3Digital I/O
1EDP TxD
2GND
3EDP RxD
4Printer TxD
5Printer RxD
6–20 mA TxD
7+20 mA TxD
1–I (–20 mA RxD)
2+I (+20 mA RxD)
3+5V
4GND
5RS485-A
6RS485-B
7GND
Digital inputs can be set to provide several indicator
functions, including all keypad functions. The inputs
are active (on) with low voltage (0 VDC) and can be
driven by TTL or 5V logic without additional
hardware. Use the DIG IN menu to configure the
digital inputs.
Digital outputs are typically used to drive relays that
control other equipment. Up to eight relays can be
mounted inside the flat front enclosure; up to four
relays can be mounted inside the sloped front
enclosure. Use the SETPNTS menu to configure
digital outputs.
Table 2-3 shows the pin assignments for connectors J7
and J8.
Table 2-3. J7 and J8 Pin Assignments (Digital I/O)
2.3.4Analog Output
If the optional analog output module is installed,
attach the output cable to connector J1 on the analog
output board. Table 2-4 lists the analog output pin
assignments.
Use the ALGOUT menu to configure and calibrate the
analog output module when cabling is complete. See
Section 2.4 for information about installing the analog
output module.
PinSignal
1+ Current Out
2– Current Out
3+ Voltage Out
4– Voltage Out
Table 2-4. Analog Output Module Pin Assignments
2.4Analog Output Module Installation
To install or replace the analog output module, follow
the steps listed in Section 2.2 on page 4 for opening
the IQ plus 710 enclosure.
Mount the analog output module on its standoffs in
the location shown in Figure 2-1 on page 5 and plug
the module input into connector J5 on the IQ plus 710
board. Connect the output cable to the analog output
module as shown in Table 2-4, then reassemble the
enclosure (Section 2.5).
See Section 10.7 on page 69 for analog output
calibration procedures.
6IQ plus 710 Installation Manual
Page 10
2.5Enclosure Reassembly
Once cabling is complete, position the backplate over
the enclosure and reinstall the backplate screws. Use
the torque pattern shown in Figure 2-2 to prevent
distorting the backplate gasket. Torque screws to 10
in-lb (1.13 N-m).
15
11
1
5
9
Setup switch access screw
Torque backplate screws
to 10 in-lb (1.13 N-m)
7
13
Fillister head screws
4
12
6
16
2.7Battery Replacement
The 3.0V lithium battery on the power supply/display
board maintains the real-time clock and protects data
stored in the system RAM when the indicator is not
connected to AC power.
System RAM data includes time and date, print
formats, truck ID storage, and setpoint configuration.
This information is lost if the battery loses power and
the indicator is disconnected from AC power. To
prevent loss of data, do the following:
•Periodically check the battery voltage and
replace when the voltage drops. The battery
should last a minimum of one year.
•Use the Revolution configuration utility or
EDP commands (see Section 5.2 on page 44)
to store a copy of the indicator configuration
on a PC before attempting battery
replacement. If any data is lost, the indicator
configuration can be restored from the PC.
14
Figure 2-2. IQ plus 710 Enclosure Backplate
8
10
23
2.6Board Removal
If you must remove the IQ plus 710 CPU board, use
the following procedure:
1. Disconnect power to the indicator. Loosen
cord grips and remove backplate as described
in Section 2.2 on page 4.
2. Unplug connectors J1 (load cell cable), J4 and
J12 (serial communications), J7 and J8
(digital I/O), J6 (keypad ribbon cable), and
JP4 (setup switch). If an analog output board
is installed, disconnect the analog output
cable. See Figure 2-1 on page 5 for connector
locations.
3. Remove the standoff and three nuts from the
corners of the CPU board.
4. Cut the cable tie that holds the line filter load
wires to the enclosure.
5. Lift the board off of its spacers just far enough
to access the setscrews that secure the line
filter load wires at connector P2. Use a small
screwdriver to loosen the setscrews and
disconnect power to the board.
6. Remove the CPU board from the enclosure.
To replace the CPU board, reverse the above
procedure. Be sure to reinstall cable ties to secure all
cables inside the indicator enclosure.
Installation7
Page 11
2.8Replacement Parts
Table 2-5 lists replacement parts for the IQ plus 710, including all parts referenced in Figures 2-3 through 2-7.
Ref
Number
141397Enclosure, sloped front (1)Figure 2-6 on page 12
241398Enclosure backplate (1)Figure 2-3 on page 9
314626Kep nuts, 8-32NC hex (13)Figure 2-6 on page 12
430375Nylon seal rings for cable grips (4)Figure 2-3 on page 9
514621Kep nuts, 6-32NC hex (4–flat enclosure; 6–sloped)Figure 2-5 on page 11
615626Cable grips, PG9 (4)Figure 2-3 on page 9
715627Locknuts, PCN9 (4)
815650*Cable tie mounts (8)Figure 2-4 on page 10
1019538Cable grip plugs (3)Figure 2-3 on page 9
1144676Sealing washer for setup switch access screw (1)
1242640Setup switch access screw, 1/4 x 28NF x 1/4 (1)
1341965Power cord assembly, 115VAC (1)
1516892Ground/Earth label (1)Figure 2-4 on page 10
1645402Bezel, sloped front (1)Figure 2-6 on page 12
1741386Switch panel membrane (1)Figure 2-6 on page 12
1841400Backplate gasket (1)Figure 2-3 on page 9
1945043Ground wire, 4 in w/ No. 8 eye connector (1)Figure 2-4 on page 10
2146027Setup switch mounting bracket (1)Figure 2-5 on page 11
2444844Setup switch assembly (1)
2530342Wing knobs for tilt stand (2)Figure 2-7 on page 12
2629635Tilt stand (1)
2715144Nylon washers for tilt stand, 1/4 x 1 x 1/16 (2)
2845891Line filter assembly (1)Figure 2-4 on page 10
2914862*Screws, 8-32NC x 3/8 (4)Figure 2-7 on page 12
3016903Model/serial number label (1)—
3146252Bezel gasket, sloped front (1)Figure 2-6 on page 12
3645401CPU board mounting tab, sloped front models (1)Figure 2-5 on page 11
3715134Lock washers, No. 8 (4)Figure 2-4 on page 10
3848027Nylon spacers for board mounting (4)Figure 2-5 on page 11
3945042*Sealing washers (4)Figure 2-7 on page 12
4015369Standoffs, fem 6-32NC x 3/4 (3)Figure 2-4 on page 10
4144541Display and CPU board assembly, Rev 2, 115 VAC (1) Figure 2-5 on page 11
44540Display and CPU board assembly, Rev 2, 230 VAC (1)
8IQ plus 710 Installation Manual
Table 2-5. Replacement Parts
Page 12
Ref
Number
—421047-position connectors for J1, J4, and J12 (3)Figure 2-1 on page 5
—4642010-position connectors for J7 and J8 (2)
—45484160 mA TR5 subminiature fuses (2), 115 VACF1 and F2 in Figure 2-1 on page 5
The following parts apply only to units using the Rev 1 CPU board with cable interface board
914839Machine screw, 6-32NC x 1/4 (4)Not shown
2045312Interface board assembly (1)
2445414Serial cable, interface board to CPU board (1)
3245388Interface board mounting bracket, top (1)
3345387Interface board mounting bracket, side (1)
—46444315 mA TR5 subminiature fuses (2), 115 VAC
* Additional parts included in parts kit.
Caution
PNDescription (Quantity)Figure
4510780 mA TR5 subminiature fuses (2), 230 VAC
46445160 mA TR5 subminiature fuses (2), 230 VAC
To protect against the risk of fire, replace fuses only with same type and rating fuse.
See Section 10.11 on page 72 for complete fuse specifications.
Table 2-5. Replacement Parts (Continued)
10/3X
18
6/4X
12
11
4/4X
2
7/4X
115V/ 230V PLUG
13
BACKPLATE GROUND STUD
Figure 2-3. Backplate Assembly
Installation9
Page 13
B
37/4X
TO BACKPLATE
GROUND STUD
POWER CORD
CABLE TIE
28
19
C
8/6X/D
D
15
BROWN
BLUE
TO CPU BOARD P2
D
Figure 2-4. Enclosure and Line Filter Assembly
10IQ plus 710 Installation Manual
Page 14
40/3X/C
5/6X/A
42
41
38/4X
A
SLOPED FRONT MODELS ONLY
36
21
24
A
TO JUMPER JP4
Figure 2-5. Enclosure and CPU Board Assembly
Installation11
Page 15
16
3/13X/B
44/3X
1
17
31
Figure 2-6. Bezel Assembly
27/2X
25/2X
26
29/4X
39/4X
30
12IQ plus 710 Installation Manual
Figure 2-7. Tilt Stand Assembly
Page 16
3.0Configuration
To configure the IQ plus 710 indicator, the indicator
must be placed in setup mode. The setup switch is
accessed by removing the large fillister head screw on
the enclosure backplate. Switch position is changed
by inserting a screwdriver into the access hole and
pressing the switch.
When the indicator is placed in setup mode, the word
CONFIG is shown on the display. The CONFIG menu
is the first of ten main menus used to configure the
indicator. Detailed descriptions of these menus are
given in Section 3.2. When configuration is complete,
return to the CONFIG menu and press the (
ZERO)
key to exit setup mode, then replace the setup switch
access screw.
3.1Configuration Methods
The IQ plus 710 indicator can be configured by using
the front panel keys to navigate through a series of
configuration menus or by sending commands or
configuration data to the EDP port. Configuration
using the menus is described in Section 3.1.3.
Configuration using the EDP port can be
accomplished using either the EDP command set
described in Section 5.0 or the Revolution
configuration utility.
3.1.1Revolution Configuration
The Revolution configuration utility provides the
preferred method for configuring the IQ plus 710
indicator. Revolution runs on a personal computer to
set configuration parameters for the indicator. When
Revolution configuration is complete, configuration
data is downloaded to the indicator.
™
Revolution supports both uploading and downloading
of indicator configuration data. This capability allows
configuration data to be retrieved from one indicator,
edited, then downloaded to another.
To use Revolution, do the following:
1. Install Revolution on an IBM-compatible
®
personal computer running Windows
3.11 or
Windows 95. Minimum system requirements
are 4MB of extended memory and at least
5MB of available hard disk space.
2. With both indicator and PC powered off,
connect the PC serial port to the RS-232 pins
on the indicator EDP port.
3. Power up the PC and the indicator. Use the
setup switch to place the indicator in setup
mode.
4. Start the Revolution program.
Figure 3-1 shows an example of one of the Revolution
configuration displays.
Revolution provides online help for each of its
configuration displays. Parameter descriptions
provided in this manual for front panel configuration
can also be used when configuring the indicator using
Revolution: the interface is different, but the
parameters set are the same.
3.1.2EDP Command Configuration
The EDP command set can be used to configure the
IQ plus 710 indicator using either a personal
computer, terminal, or remote keyboard. Like
Revolution, EDP command configuration sends
commands to the indicator EDP port; unlike
Revolution, EDP commands can be sent using any
external device capable of sending ASCII characters
over a serial connection.
EDP commands duplicate the functions available
using the indicator front panel and provide some
functions not otherwise available. EDP commands can
be used to simulate pressing front panel keys, to
configure the indicator, or to dump lists of parameter
settings. See Section 5.0 on page 37 for more
information about using the EDP command set.
The IQ plus 710 indicator can be configured using a series of menus accessed through the indicator front panel
when the indicator is in setup mode. Table 3-1 summarizes the functions of each of the main menus.
MenuMenu Function
CONFIGConfigurationConfigure grads, zero tracking, zero range, motion band, overload, tare function, power-up
mode, and digital filtering parameters.
FORMATFormatSet format of primary and secondary units, decimal format, and display rate.
CALIBRCalibrationCalibrate indicator. See Section 4.0 on page 33 for calibration procedures.
SERIALSerialConfigure EDP and printer serial ports.
PROGRMProgramSet date and time formats, truck mode, passwords, keyboard locks, regulatory mode, and
initial consecutive number value; enable accumulator; define macro prompts and program
macros.
PFORMTPrint FormatSet print format used for header, gross, net, truck in/out, setpoint, and EDP format tickets. See
Section 6.0 for more information.
SETPNTSSetpointsConfigure setpoints, batching mode, and assign setpoint names.
DIG INDigital InputAssign digital input functions.
ALGOUTAnalog OutputConfigure analog output module. Used only if analog output option is installed.
VERSIONVersionDisplay installed software version number.
Table 3-1. IQ plus 710 Menu Summary
ZERO
Move UP /
Increment Value
GROSS
NET
B/G
TARE
UNITS
Units
ENTER Value
Move DOWN /
Decrement Value
Move LEFT /
Previous
SETUP MODE 5-KEY FUNCTIONS
Figure 3-2. Five-Key Keypad Functions in Setup Mode
PRINT
Move RIGHT /
Next
14IQ plus 710 Installation Manual
Page 18
Four front panel keys are used as directional keys to navigate through the menus in setup mode (see Figure 3-2).
UNITS ( ) and PRINT ( ) keys scroll left and right (horizontally) on the same menu level; ZERO ( ) and
The
GROSS/NET ( ) move up and down (vertically) to different menu levels. The TARE key ( ) serves as an Enter
key for selecting parameter values within the menus. A label over each of these keys identifies the direction
provided by the key when navigating through the setup menus.
1st Level
Parameter
2nd Level
Parameter
Default value
When moving through values below the first menu level, press to return to the level
above. Pressor to move to the next parameter on the level above.
ValueValueValue
Figure 3-3. Setup Mode Menu Navigation
To select a parameter, press or to scroll left or
right until the desired menu group appears on the
display , then press to move down to the submenu or
parameter you want. When moving through the menu
parameters, the default or previously selected value
appears first on the display.
To change a parameter value, scroll left or right to
view the values for that parameter. When the desired
value appears on the display, press to select the
value and move back up one level. To edit numerical
values, use the numeric keypad on the indicator front
panel.
1st Level
Parameter
2nd Level
Parameter
3.2Menu Structures and Parameter Descriptions
The following sections provide graphic representations of the IQ plus 710 menu structures. In the actual menu
structure, the settings you choose under each parameter are arranged horizontally. To save page space, menu
choices are shown in vertical columns. The factory default setting appears at the top of each column. Parameters
shown surrounded by a dotted-line box only appear under the special circumstances explained under each box.
Most menu diagrams are accompanied by one or more tables that describe all parameters and parameter values
associated with that menu option. Default parameter values are shown in bold type.
Specifies the number of full scale graduations. The value entered must be in the range
1–100000 and should be consistent with legal requirements and environmental limits on
system resolution.
To calculate GRADS, use the formula, GRADS = Capacity / Display Divisions.
Display divisions for primary and secondary units are specified on the FORMAT menu.
Automatically zeroes the scale when within the range specified, as long as the input is
within the ZRANGE and scale is at standstill. Selections are ± display divisions. Maximum
legal value varies depending on local regulations.
Selects the range within which the scale can be zeroed. The 1.9% selection is ± 1.9%
around the calibrated zero point, for a total range of 3.8%. Indicator must be at standstill to
zero the scale. Use 1.9% for legal-for-trade applications.
Sets the level, in display divisions, at which scale motion is detected. If motion is not
detected for 1 second or more, the standstill symbol lights. Some operations, including
print, tare, and zero, require the scale to be at standstill. Maximum legal value varies
depending on local regulations.
If this parameter is set to OFF, the standstill annunciator will not light; operations normally
requiring standstill (zero, tare, print) are performed regardless of scale motion. If OFF is
selected, ZTRKBND must also be set to OFF.
Determines the point at which the display blanks and an out-of-range error message is
displayed. Maximum legal value varies depending on local regulations.
Selects the digital filtering rate used to reduce the effects of mechanical vibration from the
immediate area of the scale.
Choices indicate the number of A/D conversions per update that are averaged to obtain the
displayed reading. A higher number gives a more accurate display by minimizing the effect
of a few noisy readings, but slows down the settling rate of the indicator.
Digital filter cutout sensitivity. Specifies the number of consecutive readings that must fall
outside the filter threshold (DFTHRH parameter) before digital filtering is suspended.
Table 3-2. Configuration Menu Parameters
Configuration17
Page 21
CONFIG Menu
ParameterChoicesDescription
DFTHRHNONE
2DD
5DD
10DD
20DD
50DD
100DD
200DD
250DD
PWRUPMDGO
DELAY
TAREFNBOTH
NOTARE
PBTARE
KEYED
Digital filter cutout threshold. Specifies the filter threshold, in display divisions. When a
specified number of consecutive scale readings (DFSENS parameter) fall outside of this
threshold, digital filtering is suspended. If NONE is selected, the filter is always enabled.
Power up mode. In GO mode, the indicator goes into operation immediately after a brief
power up display test.
In DELAY mode, the indicator performs a power up display test, then enters a 30-second
warm up period. If no motion is detected during the warm up period, the indicator becomes
operational when the warm up period ends; if motion is detected, the delay timer is reset
and the warm up period repeated.
Enables or disables push-button and keyed tares. Possible values are:
BOTH: Both push-button and keyed tares are enabled
NOTARE: No tare allowed (gross mode only)
PBTARE: Push-button tares enabled
KEYED: Keyed tare enabled
Table 3-2. Configuration Menu Parameters (Continued)
Specifies the decimal position, display divisions, and units used for the primary units. See
Level 3 submenu parameter descriptions.
Specifies the decimal position, display divisions, units, and conversion multiplier used for the
secondary units. See Level 3 submenu parameter descriptions.
Specifies whether decimal numbers are displayed using a period (DOT) or comma as the
decimal symbol.
Display rate. Sets the update rate for displayed values. Values are in milliseconds (MS) or
seconds (SEC).
Table 3-3. Format Menu Parameters
Configuration19
Page 23
FORMAT Menu
ParameterChoicesDescription
Primary Units (PRIMAR Parameter)
DECPNT8888888
8888880
8888800
8.888888
88.88888
888.8888
8888.888
88888.88
888888.8
DSPDIV1D
2D
5D
UNITSLB
KG
G
OZ
TN
T
GN
TROYOZ
TROYLB
LT
NONE
Secondary Units (SECNDR Parameter)
DECPNT888888.8
8888888
8888880
8888800
8.888888
88.88888
888.8888
8888.888
88888.88
DSPDIV5D
1D
2D
UNITS KG
G
OZ
TN
T
GN
TROYOZ
TROYLB
LT
NONE
LB
MULT0.453592
Enter other
choices via
keyboard
Decimal point location. Specifies the location of the decimal point or dummy zeroes in the
primary unit display. Value should be consistent with local legal requirements.
Display divisions. Selects the minimum division size for the primary units displayed weight.
Specifies primary units for displayed and printed weight. Values are: LB=pound;
KG=kilogram; G=gram; OZ=ounce; TN=short ton; T=metric ton; GN=grain; TROYOZ=troy
ounce; TROYLB=troy pound; LT=long ton.
NOTE: Indicators sold outside North America are configured with KG for both primary and
secondary units.
Decimal point location. Determines the location of the decimal point or dummy zeros in the
display.
Display divisions. Selects the value of minimum division size of the displayed weight.
Specifies primary units for displayed and printed weight. Values are: LB=pound;
KG=kilogram; G=gram; OZ=ounce; TN=short ton; T=metric ton; GN=grain; TROYOZ=troy
ounce; TROYLB=troy pound; LT=long ton.
Multiplier. Specifies the conversion factor by which the primary units are multiplied by to
obtain the secondary units. The default is 0.453592, which is the conversion factor for
changing pounds to kilograms. See Section 10.6 on page 67 for a list of multipliers.
To toggle between primary and secondary units, press the UNITS key.
20IQ plus 710 Installation Manual
Table 3-3. Format Menu Parameters (Continued)
Page 24
3.2.3Calibration Menu
See Section 4.0 on page 33 for calibration procedures.
WZERO—Display and edit the zero calibration A/D count value.
WVAL—Display and edit the test weight value.
WSPAN—Display and edit the span calibration A/D count value.
WLINPT->1 —
Display and edit test weight and calibration values for up to five linearization points.
PT->5
REZERO—Press Enter to remove an offset value from the zero and span calibrations.
Table 3-4. Calibration Menu Parameters
Configuration21
Page 25
3.2.4Serial Menu
See Section 10.3 on page 64 for information about IQ plus 710 serial data formats.
SERIALCALIBRCONFIGFORMAT
EDPPRINT
OFF
ON
EOLDLY
0
number
STREAMADDRESS
OFF
ON
9600
19200
300
600
1200
2400
4800
HANDSHK
OFF
ON
BITSTERMINBAUD
8NONE
7EVEN
7ODD
number
CR/LF
CR
AB-RIO
0
PFORMT
9600
19200
300
600
1200
2400
4800
PORT
MAIN
AUX
Figure 3-7. Serial Menu
SETPNTS
DIG INPROGRM
XXXXXXXXXXXXXXXXXXXXXXXXXXXX
BITSTERMINBAUD
8NONE
7EVEN
7ODD
HANDSHK
OFF
ON
ALGOUT
CR/LF
CR
STREAM
OFF
ON
VERS
EOLDLY
0
number
PORT
RS232
20MA
PRNDEST
EDP
PRN
BOTH
SERIAL Menu
ParameterChoicesDescription
Level 2 submenus
EDPBAUD
Configure the EDP port. See Level 3 submenu parameter descriptions.
BITS
TERMIN
EOLDLY
HANDSHK
ADDRESS
AB-RIO
STREAM
PORT
PRINTBAUD
Configure the printer port. See Level 3 submenu parameter descriptions.
BITS
TERMIN
EOLDLY
HANDSHK
STREAM
PORT
PRNDESTEDP
PRN
Print destination. Selects the port for data transmission when the PRINT key is pressed or the
KPRINT EDP command is sent.
BOTH
Table 3-5. Serial Menu Parameters
22IQ plus 710 Installation Manual
Page 26
SERIAL Menu
ParameterChoicesDescription
Level 3 SubmenusEDP Port
BAUD9600
19200
300
600
1200
2400
4800
BITS8NONE
7EVEN
7ODD
TERMINCR/LF
CR
EOLDLY0
number
HANDSHKOFF
ON
ADDRESS0
address
AB-RIOOFF
ON
STREAMOFF
ON
PORTMAIN
AUX
Level 3 SubmenusPrinter Port
BAUD9600
19200
300
600
1200
2400
4800
BITS8NONE
7EVEN
7ODD
TERMINCR/LF
CR
EOLDLY0
number
HANDSHKOFF
ON
STREAMOFF
ON
PORTRS232
20MA
Baud rate. Selects the transmission speed for the EDP port.
Selects number of data bits and parity of data transmitted from the EDP port.
Termination character. Selects termination character for data sent from the EDP port.
End-of-line delay. Sets the delay period, in 0.1-second intervals, from when a formatted line is
terminated to the beginning of the next formatted serial output. Value specified must be in the
range 0-255, in tenths of a second (10 = 1 second).
Specifies whether XON/XOFF flow control characters are used.
Specifies the decimal indicator address for RS-485 connections. RS-232 communications is
disabled if an address other than zero is specified for this parameter. RS-485 addresses must be
in the range 01–255.
Specifies whether the EDP uses the Allen-Bradley Remote I/O data stream. Specify ON only if
the Remote I/O option is installed.
Specifies whether data is streamed from the EDP port.
Reserved for future use.
Baud rate. Selects the transmission speed for the printer port.
Selects number of data bits and parity of data transmitted from the printer port.
Termination character. Selects termination character for data sent from the printer port.
End-of-line delay. Sets the delay period, in 0.1-second intervals, from when a formatted line is
terminated to the beginning of the next formatted serial output. Value specified must be in the
range 0-255, in tenths of a second (10 = 1 second).
Specifies whether XON/XOFF flow control characters are used.
Specifies whether data is streamed from the printer port.
Allows selection of date format and date separator character. See Level 3 submenu parameter
descriptions.
Use the TIME/DATE key or the SD EDP command to set the date. See Section 5.0 on
page 37 for information about using the EDP commands.
Allows selection of time format and separator character. See Level 3 submenu parameter
descriptions.
Use the TIME/DATE key or the ST EDP command to set the time. See Section 5.0 on
page 37 for information about using the EDP commands.
REGULAT
NTEP
CANADA
NONE
OIML
24IQ plus 710 Installation Manual
Table 3-6. Program Menu Parameters
Page 28
PROGRM Menu
ParameterChoicesDescription
CONSTUP0
number
TARE100OFF
MODE1
MODE2
MODE3
MODE4
MODE5
MODE6
ACCUMOFF
ON
CFGPWD0
1–9999999
SPPWD0
1–9999999
KYBDLKOFF
ON
AUXLKOFF
ON
MACONLYOFF
ON
ZERONLYOFF
ON
ALPHAKBOFF
ON
PROMPTSPROMPT1–
PROMPT60
MACRO1
MACRO2
MACRO3
MACRO4
REGULATNTEP
Level 3 submenus
DATEFMTMMDDYY
DATESEPSLASH
TIMEFMT12HOUR
TIMESEPCOLON
STRTBAT
EDIT
OIML
NONE
CANADA
DDMMYY
DASH
SEMI
24HOUR
COMMA
Specifies the initial consecutive number value used when the indicator is reset. Value specified
must be in the range 0–9 999 999.
Specifies the truck mode used. If selected, the indicator switches from normal mode to the
selected truck mode. See Section 7.0 on page 49 for more information about using the truck
modes.
MODE1: Auto clear ID, keyed tares, value swapping
MODE2: Auto clear ID, no keyed tares, value swapping
MODE3: Stored ID, keyed tares, value swapping
MODE4: Stored ID, no keyed tares, value swapping
MODE5: Stored ID, keyed tares, no value swapping
MODE6: Stored ID, no keyed tares, no value swapping
Accumulator. Specifies whether the accumulator is enabled.
Configuration password. Specify a non-zero value to restrict access to all configuration
menus.
Setpoint password. Specify a non-zero value to restrict access to the setpoint menu.
Keyboard lock. Specify ON to disable the keypad in normal mode.
Auxiliary keypad lock. Specify ON to disable all keys except ZERO, GROSS/NET, TARE,
UNITS, and PRINT in normal mode.
Macro keys only. Specify ON to disable all except the four macro keys (F1–F4) in normal mode.
Zero key only. Specify ON to disable all front panel keys except ZERO in normal mode.
Alpha keyboard. Specify ON to enable alpha entry for the indicator keypad. If OFF is specified,
the ALPHA ENTRY key is disabled.
Specify prompts for use in macros. Prompts are r efer enced by the NAME parameter under the
MACRO submenu; prompts appear in the secondary display area during macro execution.
Specify MACROs 1–4. The STRBAT parameter can be set on to start a batch sequence on
completion of the macro; the EDIT parameter contains up to 30 macro steps, including
simulated keystrokes and pause/release conditions. See Section 9.0 on page 55 for more
information about configuring macros.
Regulatory mode. Specifies the regulatory agency having jurisdiction over the scale site.
NONE allows entry of a zero tare, enabling use of net mode by batch routines.
OIML and CANADA modes require the scale load to be at zero before clearing a tare; OIML
mode replaces the
Specifies the format used to display or print the date.
Specifies the date separator character.
Specifies the format used to display or print the time.
Specifies the time separator character.
Gross annunciator with Brutto.
Table 3-6. Program Menu Parameters (Continued)
Configuration25
Page 29
3.2.6Print Format Menu
See Section 6.0 on page 45 for information about custom print formatting.
GFMT
Press ENTER or to insert a
space before the active character
Decrement ASCII value
of active character
NFMT
characters of format
active character and
TRWIN
Display first 7
Press CLEAR to delete
the active character
Display and edit
ASCII value
Same as GFMT
Scroll right in format stringScroll left in format string
Increment ASCII value
of active character
DIG INSETPNTSPROGRMPFORMTSERIALCALIBRCONFIGFORMAT
XXXXXXXXXXXXXX
SPFMTTRWOUT
ALGOUT
EDPFMT
VERS
HDRFMT
Enter numeric ASCII
character value
Press ENTER or to save value
Figure 3-9. Print Format Menu
26IQ plus 710 Installation Manual
Page 30
3.2.7Setpoints Menu
See Section 8.0 on page 51 for more information about configuring and using setpoints.
Figure 3-11. Submenu for GROSSSP, NETSP, and –RELSP Setpoints
BANDVAL
number
NAME
NONE
1–16
HYSTER
number
DIGOUT
NONE
1–8
ALARM
OFF
ON
RELNUM
1–8
–RELSP setpoints only
PSHACCM
OFF
ON
ONQUIET
Configuration27
Page 31
B
PAUSE, DELAY, and WAITSS Setpoints
VALUE
number
DELAY setpoints only
C
VALUE
0–2551–81–8
TIMER and CONCUR Setpoints
PSHTARE
OFF
ON
START
PSHPRNT
OFF
ON
WAITSS
PSHACCM
OFF
ON
ONQUIET
ACCESS
OFF
ON
HIDE
DIGOUT
NONE
1–8
Figure 3-12. Submenu for PAUSE, DELAY, and WAITSS Setpoints
END
ACCESS
OFF
ON
HIDE
DIGOUT
NONE
1–8
Figure 3-13. Submenu for TIMER and CONCUR Setpoints
NAME
NONE
1–16
DELAY and WAITSS
setpoints only
SETPNTS Menu
ParameterChoicesDescription
Level 2 submenus
SETPT1–SETPT8OFF
GROSSSP
NETSP
–RELSP
PAUSE
DELAY
WAITSS
TIMER
Specifies the setpoint kind.
GROSSSP, NETSP, and –RELSP setpoint kinds can be used as either batch or
continuous setpoints.
PAUSE, DELAY, and WAITSS setpoint kinds can only be used in batch sequences.
TIMER and CONCUR setpoint kinds can only be used as continuous setpoints.
See Table 8-1 on page 52 for more information about setpoint kinds.
CONCUR
BATCHNGOFF
AUTO
MANUAL
Batching enable. Set to AUTO or MANUAL to allow a batch sequence to run.
MANUAL requires a BATSTRT digital input or STRTBAT macro configuration before
the batch sequence can run. AUTO allows batch sequences to repeat continuously.
SPNAMESNAME1–NAME16Allows specification of up to 16 setpoint names. Names can be assigned to
GROSSSP, NETSP, –RELSP, DELAY, and WAITSS setpoints.
Table 3-7. Setpoint Menu Parameters
28IQ plus 710 Installation Manual
Page 32
SETPNTS Menu
ParameterChoicesDescription
Level 3 submenus
GROSSSP
NETSP
–RELSP
PAUSE
DELAY
WAITSS
TIMER
CONCUR
NAME1–NAME16nameSpecify up to 16 setpoint names. Names can be assigned to GROSSSP, NETSP,
Level 4 submenus
VALUEnumberGROSSSP, NETSP, –RELSP setpoint types: Specifies the target weight value.
VALUE
PSHTARE
PSHPRNT
TRIP
BANDVAL
HYSTER
ALARM
PSHACCM
PREACT
PREVAL
BATCH
ACCESS
NAME
DIGOUT
RELNUM
PSHTARE
PSHPRNT
PSHACCM
ACCESS
DIGOUT
NAME
VALUE
VALUE
START
END
ACCESS
DIGOUT
Configure GROSSSP, NETSP, and –RELSP setpoints. See Level 4 parameter
descriptions.
Configure PAUSE, DELAY, and WAITSS setpoints. See Level 4 parameter
descriptions.
Configure TIMER and CONCUR setpoints. See Level 4 parameter descriptions.
–RELSP, DELAY, and WAITSS setpoint types.
PSHTAREOFF
ON
PSHPRNTOFF
ON
WAITSS
PSHACCMOFF
ON
ONQUIET
TRIPHIGHER
LOWER
INBAND
OUTBAND
DELAY, TIMER, and CONCUR setpoint types: Specifies, in 0.1-second intervals, a
time value in the range 0–65535.
GROSSSP, NETSP, –RELSP, PAUSE, DELAY, and WAITSS setpoint types: Specify
ON to perform an acquire tare operation when the setpoint is satisfied.
GROSSSP, NETSP, –RELSP, PAUSE, DELAY, and WAITSS setpoint types: Specify
ON to perform a print operation when the setpoint is satisfied; specify WAITSS to
wait for standstill after setpoint is satisfied before printing.
GROSSSP, NETSP, –RELSP, PAUSE, DELAY, and WAITSS setpoint types: Specify
ON to update the accumulator and perform a print operation when the setpoint is
satisfied. Specify ONQUIET to update the accumulator without printing.
GROSSSP, NETSP, and –RELSP setpoint types: Specifies whether the setpoint is
tripped when the weight is higher or lower than the setpoint value, within a band
established around the value, or outside of that band.
In a batch sequence with TRIP=HIGHER, the associated digital output is active until
the setpoint value is reached or exceeded; with TRIP=LOWER, the output is active
until the weight goes below the setpoint value.
Table 3-7. Setpoint Menu Parameters
Configuration29
Page 33
SETPNTS Menu
ParameterChoicesDescription
BANDVALnumberGROSSSP, NETSP, and –RELSP setpoint types with TRIP=INBAND or OUTBAND:
Specifies a weight equal to half the band width. The band established around the
setpoint value is VALUE ±BANDVAL.
HYSTERnumberGROSSSP, NETSP, and –RELSP setpoint types: Specifies a band around the
setpoint value that must be exceeded before the setpoint, once off, can trip on again.
ALARMOFF
ON
PREACTOFF
ON
LEARN
PREVALnumberGROSSSP, NETSP, and –RELSP setpoint types: Specifies the preact value for
BATCHOFF
ON
ACCESSOFF
ON
HIDE
NAMENONE, 1–16GROSSSP, NETSP, –RELSP, DELAY, and WAITSS setpoint types: Specify the
DIGOUTNONE, 1–8All setpoint types: Specifies a digital output associated with the setpoint. For
RELNUM1–8–RELSP setpoints: Specifies the number of the relative setpoint. The target weight
START1–8TIMER and CONCUR setpoint types: Specifies the starting setpoint number. Do not
END1–8TIMER and CONCUR setpoint types: Specifies the ending setpoint number. Do not
GROSSSP, NETSP, and –RELSP setpoint types: Specify ON to display the word
ALARM on the primary display while the setpoint is active (batch setpoints) or while
the setpoint is not tripped (continuous setpoints).
GROSSSP, NETSP, and –RELSP setpoint types: Allows the digital output associated
with a setpoint to shut off before the setpoint is satisfied to allow for material in
suspension.
The ON value adjusts the setpoint value up or down (depending on the TRIP
parameter value) from the setpoint value.
The LEARN value can be used to automatically adjust the preact value after each
batch. LEARN compares the actual weight at standstill to the target setpoint value,
then adjusts the preact by half of the difference after each batch.
setpoints with PREACT set to ON or LEARN. Depending on the TRIP value specified
for the setpoint, the setpoint trip value is adjusted up or down by the preact value.
GROSSSP, NETSP, and –RELSP setpoint types: Specifies whether the setpoint is
used as a batch (ON) or continuous (OFF) setpoint.
All setpoint types: Specifies whether the SETPOINT key can be used to change the
setpoint value in normal mode, including macro simulations of pressing the
SETPOINT key.
ON: Value can be displayed and changed
OFF: Value can be displayed but not changed
HIDE: Value cannot be displayed or changed
number of an assigned setpoint name.
continuous setpoints, the digital output is turned on when the condition is met; for
batch setpoints, the digital output is on until the setpoint condition is met.
for this setpoint is the setpoint value of the relative setpoint minus the setpoint value
of this setpoint.
specify the number of the TIMER or CONCUR setpoint itself. The TIMER or
CONCUR setpoint begins monitoring when the starting setpoint begins.
specify the number of the TIMER or CONCUR setpoint itself. The TIMER or
CONCUR setpoint stops monitoring when the ending setpoint begins.
ZERO
NT/GRS
TARE
UNITS
PRINT
ACCUM
SETPNT
TIMDATE
ESC
ALPHAMD
CLEAR
DSPTAR
IDKEY
KF1—KF4
KEY0—KEY9
KEYDP
ENTER
BATRUN
BATSTRT
BATPAUS
KBDLOC
HOLD
CLRCN
Specifies the function activated by digital inputs 1–8.
• ZERO, NT/GRS (net/gross mode toggle), TARE, UNITS, and PRINT provide the same
functions as the five major front panel keys.
• ACCUM, SETPNT, TIMDATE, ESC, ALPHAMD, CLEAR, DSPTAR, and IDKEY provide the
same functions as the front panel keys.
• KF1—KF4 are equivalent to pressing the macro keys, F1—F4.
• KEY0—KEY9 and KEYDP (decimal point) are simulate pressing keys on the numeric
keypad.
• ENTER simulates pressing the front panel ENTER key.
• BATRUN allows a batch routine to be started and run. With BA TRUN on (low), the BATSTRT
input starts the batch; if BATRUN is off (high), BATSTRT cancels the batch.
• BATSTRT starts or ends a batch routine, depending on the state of the BATRUN input.
• BATPAUS pauses a batch routine.
• KBDLOC locks the keyboard (indicator front panel).
• HOLD holds the current display. Releasing this input clears the running average filter.
• CLRCN resets the consecutive number to the value specified on the CONSTUP parameter
(PROGRM menu).
Table 3-8. Digital Input Menu Parameters
Configuration31
Page 35
3.2.9Analog Output Menu
The ALGOUT menu is used only if the analog output option is installed. If the analog output option is installed,
configure all other indicator functions and calibrate the indicator before configuring the analog output. See
Section 10.7 on page 69 for analog output calibration procedures.
TWZERO—Tweak zero. Adjust the analog output zero calibration. Use a multimeter to monitor the analog
TWSPAN—Tweak span. Adjust the analog output span calibration. Use a multimeter to monitor the analog
Specifies the source tracked by the analog output.
Zero offset. Selects whether the analog output supplies voltage (0–10 V) or current (4–20 mA)
output. Select 0% for 0–10 V output; select 20% for 4–20 mA output.
Error action. Specifies how the analog output responds to system error conditions.
Possible values are:
FULLSC: Set to full value (10 V or 20 mA)
HOLD: Hold current value
ZEROSC: Set to zero value (0 V or 4 mA)
Specifies the minimum weight value tracked by the analog output. Specify a value in the range
0–9999800.
Specifies the maximum weight value tracked by the analog output. Specify a value in the range
0–9999800
output value. Press and hold or to adjust the output.
output value. Press and hold or to adjust the output.
Table 3-9. Analog Output Menu Parameters
3.2.10Version Menu
The VERS menu is used to check the software version installed in the indicator. There are no parameters
associated with the Version menu: when selected, the indicator displays the installed software version number.
The IQ plus 710 can be calibrated using the front panel, EDP commands, or the Revolution™ configuration
utility. Each method consists of the following steps:
•Zero calibration
•Entering the test weight value
•Span calibration
•Optional five-point linearization
•Optional rezero calibration for test weights using hooks or chains.
The following sections describe the calibration procedure for each of the calibration methods.
WZERO
*CALIB*
Display and edit
zero calibration
A/D count value
Display and edit
test weight value
Display and edit
linearization point
A/D count value
PT–> 1
*CALIB*
WVAL
Display and edit
test weight value
PT–> 2PT–> 3PT–> 4PT–> 5
WSPAN
*CALIB*
Display and edit
span calibration
A/D count value
Same as PT-> 1
Figure 4-1. Calibration (CALIBR) Menu
4.1Front Panel Calibration
To calibrate the indicator using the front panel, do the
following:
1. Place the indicator in setup mode (display
CONFIG) and remove all weight from
reads
the scale platform. If your test weights require
hooks or chains, place the hooks or chains on
the scale for zero calibration.
2. Press until the display reads
Figure 4-1). Press to go to zero calibration
(WZERO).
3. With
WZERO displayed, press to calibrate
zero. The indicator displays *CAL* while
calibration is in progress. When complete, the
A/D count for the zero calibration is
displayed. Press again to save the zero
calibration value and go to the next prompt
(WVAL).
the scale and press to show the test weight
value. Use the numeric keypad to enter the
actual test weight, then press ENTER to save
the value and go to span calibration (WSPAN).
5. With
WSP AN displayed, press to calibrate
span. The indicator displays *CAL* while
calibration is in progress. When complete, the
A/D count for the span calibration is
displayed. Press again to save the span
calibration value and go to the next prompt
(WLIN).
6. Five-point linearization (using the WLIN
parameter) provides increased scale accuracy
by calibrating the indicator at up to five
additional points between the zero and span
calibrations.
Calibration33
Page 37
Linearization is optional: if you choose not to
perform linearization, skip the WLIN
parameter; if linearization values have
previously been entered, use the numeric
keypad to set each point to zero and press
ENTER. To perform linearization, follow the
procedure below:
WLIN displayed, Press to go to the
With
first linearization point (PT-> 1). Place test
weights on the scale and press or ENTER.
Use the numeric keypad to enter the actual
test weight value, then press ENTER to
calibrate. The indicator displays *CAL* while
calibration is in progress. When complete, the
A/D count for the linear calibration is
displayed. Press ENTER again to save the
calibration value and go to the next prompt
(PT-> 2).
Repeat for up to five linearization points. To
exit the linearization parameters, press to
return to WLIN.
4.2EDP Command Calibration
To calibrate the indicator using EDP commands, the
indicator EDP port must be connected to a terminal or
personal computer. See Section 2.3.2 on page 6 for
EDP port pin assignments; see Section 5.0 on page 37
for more information about using EDP commands.
Once the indicator is connected to the sending device,
do the following:
1. Place the indicator in setup mode (display
CONFIG) and remove all weight from
reads
the scale platform. If your test weights require
hooks or chains, place the hooks or chains on
the scale for zero calibration.
2. Send the WZERO EDP command to calibrate
zero. The indicator displays
calibration is in progress.
3. Place test weights on the scale and use the
WVAL command to enter the test weight
value in the following format:
WVAL=nnnnnn<CR>
4. Send the WSPAN EDP command to calibrate
span. The indicator displays *CAL* while
calibration is in progress.
*CAL* while
7. The optional rezero function is used to
remove a calibration offset when hooks or
chains are used to hang the test weights.
•If no other apparatus was used to hang the
test weights during calibration, remove
the test weights and press to return to
the CALIBR menu.
•If hooks or chains were used during
calibration, remove these and the test
weights from the scale. With all weight
removed, press
ENTER to rezero the
scale. This function adjusts the zero and
span calibration values. The indicator
displays *CAL* while the zero and span
calibrations are adjusted. When complete,
the adjusted A/D count for the zero
calibration is displayed. Press ENTER to
save the value, then press to return to
the CALIBR menu.
8. Press until the display reads
CONFIG, then
press to exit setup mode.
5. Up to five linearization points can be
calibrated between the zero and span
calibration values. Use the following
commands to set and calibrate a single
linearization point:
WLIN.V1=nnnnn<CR>
WLIN.C1<CR>
The WLIN.V1 command sets the test weight
value (nnnnn) for linearization point 1. The
WLIN.C1 command calibrates the point.
Repeat using the WLIN.Vx and WLIN.Cx
commands as required for additional
linearization points.
6. To remove an offset value, clear all weight
from the scale, including hooks or chains used
to hang test weights, then send the REZERO
EDP command. The indicator displays
*CAL*
while the zero and span calibrations are
adjusted.
7. Send the KUPARROW or KEXIT EDP
command to exit setup mode.
34IQ plus 710 Installation Manual
Page 38
4.3Revolution™ Calibration
To calibrate the indicator using Revolution, the
indicator EDP port must be connected to a PC running
the Revolution configuration utility.
Use the following procedure to calibrate the indicator:
1. Select
main menu.
2. On the Indicator Calibration display, select
the indicator model (
communications port then click OK.
3. Revolution uploads calibration data from the
indicator then presents the information in a
display like that shown in Figure 4-2.
Calibrate Indicator from the Revolution
IQ+710) and
4. Enter the Value of Test Weight to be used for
span calibration then click OK.
5. The Zero Calibration dialog box prompts you
to remove all weight from the scale. Clear the
scale and click
NOTE: If your test weights require hooks or
OK to begin zero calibration.
chains, place the hooks or chains on the scale
for zero calibration.
6. When zero calibration is complete, the Span
Calibration dialog box prompts you to place
test weights on the scale for span calibration.
Place tests weights on the scale then click
OK.
7. When span calibration is complete, the
Rezero dialog box prompts you to remove
weights from the scale. Remove the weights
then click
8. When calibration is complete, the
Settings fields of the Indicator Calibration
OK.
New
display are filled in. Click Exit to save the new
values and return to the Revolution main
menu; to restore the previous calibration
values, click Restore Settings.
Figure 4-2. Revolution Calibration Display
Calibration35
Page 39
4.4More About Calibration
The following topics provide additional information
that may be useful when calibrating the indicator with
no attached scale (Section 4.4.1) or when calibrating a
heavy capacity scale without test weights
(Section 4.4.2).
4.4.1Zero Deadload A/D Counts
Table 4-1 lists the ideal A/D counts that result from
input signals of 0–45 mV with zero deadload. Actual
values will typically be higher than the values shown
in Table 4-1 but the ideal values can be used when
calibrating the indicator with no attached scale.
In applications where absolute accuracy is not
required, or where the use of test weights is not
practical and not required, the IQ plus 710 can be
calibrated using a calculated span coefficient. The
span coefficient is determined using the following
formula:
Span_coefficient =
((21000) * mV_signal _input) + zero_coefficient
To use the formula, you will need to determine the full
scale input signal value (based on the rated full scale
signal output of the load cells) and perform a zero
calibration. These procedures are described in the
following sections.
Calculate Full Scale Signal Input Value
In the span coefficient equation, mV_signal_input is the
full scale signal input (in mV) of the load cells. For a
single load cell scale, multiply the rated signal output
of the load cell (listed on the manufacturer’s cert or
load cell label) by the excitation voltage (10 V). For
scales with multiple load cells, record the rated signal
output of each cell, then multiply the average of these
values by the excitation voltage (10 V).
NOTE: If the scale will be calibrated for a full scale value
less than the capacity of the load cells, multiply the full
scale signal input value by the ratio of calibrated
capacity over the sum of the load cell capacities.
For example, to determine the full scale signal input
value for a scale platform with the following:
• Four 10,000-lb load cells with full scale signal
outputs rated at 3.0116, 3.0043, 2.9978, and 3.1863
mV/V
• Full scale capacity to be calibrated at 30,000 lb
The averaged full scale output of the load cells is 3.05
mV/V (sum of the four values, divided by four). The
sum of the load cell capacities is 40,000 lb, but
because the scale will be calibrated to a full scale
value of 30,000 lb, the full scale signal will be reached
at 2.2875 mV/V:
(30000 / 40000) * 3.05 mV/V = 2.2875 mV/V
Multiplying this value by the excitation voltage (10 V)
gives the full scale signal input value:
2.2875 mV/V * 10 V = 22.875 mV
Perform Calibration
To complete the span coefficient calculation, begin
calibrating the indicator as described in Section 4.1 on
page 33.
zero_coefficient value in the span coefficient
The
equation is the A/D count displayed after performing
the WZERO calibration step. Record this value, then
use the equation to calculate the span coefficient.
Using the full scale signal input value determined in
the example above and assuming that the value
displayed after performing zero calibration was
140385, the span coefficient is calculated as follows:
The span coefficient value entered will be 620760.
Continue calibration. Enter the full scale weight value
on the WVAL parameter (30000 in this example) then
perform span calibration (WSPAN parameter). With
no test weights applied to the scale, the A/D count
displayed after performing the WSPAN calibration
will be the same as the zero calibration value. Use the
front panel keys to change the displayed value to the
calculated value (620760). Save the value, then exit
calibration.
36IQ plus 710 Installation Manual
Page 40
5.0EDP Commands
The IQ plus 710 indicator can be controlled by a
personal computer or remote keyboard connected to
the indicator EDP port. Control is provided by a set of
EDP commands that can simulate front panel key
press functions, display and change setup parameters,
and perform reporting functions. The EDP port
provides the capability to print configuration data or to
save that data to an attached personal computer. This
section describes the EDP command set and
procedures for saving and transferring data using the
EDP port.
5.1The EDP Command Set
The EDP command set can be divided into five
groups: key press commands, reporting commands,
the RESETCONFIGURATION special function
command, parameter setting commands, and transmit
weight data commands.
When the indicator processes an EDP command, it
responds with the message
verifies that the command was received and has been
executed. If the command is unrecognized or cannot
be executed, the indicator responds with
The following sections list the commands and
command syntax used for each of these groups.
5.1.1Key Press Commands
Key press EDP commands (see Table 5-1) simulate
pressing the keys on the front panel of the indicator.
These commands can be used in both setup and
weighing mode. Several of the commands serve as
“pseudo” keys, providing functions that are not
represented by a key on the front panel.
For example, to enter a 15-pound tare weight using
EDP commands:
1. Type K1 and press
2. Type K5 and press
3. Type KTARE and press
CommandFunction
KZEROPress the ZERO key
KGROSSNETPress the GROSS/NET key
KGROSSGo to gross mode (pseudo key)
KNETGo to net mode (pseudo key)
KTAREPress the TARE key
KUNITSPress the UNITS key
KPRIMGo to primary units (pseudo key)
OK. The OK response
??.
ENTER (or RETURN).
ENTER.
ENTER.
CommandFunction
KSECGo to secondary units (pseudo key)
KPRINTPress the PRINT key
KNEWIDPress the ID key
KSETPOINTPress the SETPOINT key
KTIMEDATEPress the TIME/DATE key
KTIMEDisplay time (pseudo key)
KDATEDisplay date (pseudo key)
KESCAPEPress the ESCAPE key
KALPHAPress the ALPHA ENTRY key
KDISPACCUMPress the ACCUM key
KDISPTAREPress the DISPLAY TARE key
KCLRPress the CLEAR key
KCLRCNReset consecutive number (pseudo key)
KLEFTARROWIn setup mode, move left in the menu;
in weighing mode, press the UNITS key
KRIGHTARROWIn setup mode, move right in the menu;
in weighing mode, press the PRINT key
KUPARROWIn setup mode, move up in the menu;
in weighing mode, press the ZERO key
KDOWNARROWIn setup mode, move down in the
menu; in weighing mode, press the
GROSS/NET key
KEXITIn setup mode, exits to normal mode
K0Press number 0 (zero)
K1Press number 1
K2Press number 2
K3Press number 3
K4Press number 4
K5Press number 5
K6Press number 6
K7Press number 7
K8Press number 8
K9Press number 9
KDOTPress the decimal point (.)
KENTERPress the ENTER key
KF1Play MACRO1
KF2Play MACRO2
KF3Play MACRO3
KF4Play MACRO4
Table 5-1. EDP Key Press Commands (Continued)
Table 5-1. EDP Key Press Commands
EDP Commands37
Page 41
5.1.2Reporting Commands
Reporting commands (see Table 5-2) send specific
information to the EDP port. These commands can be
used in both setup mode and normal mode.
CommandFunction
DUMPALLList all parameter values
VERSION
PWrite current displayed weight with units
SWrite one frame of stream format
5.1.4Parameter Setting Commands
Write IQ plus 710 software version
identifier. See Section 10.2 on page 63 for
more information.
Table 5-2. EDP Reporting Commands
Parameter setting commands allow you to display or
change the current value for a particular configuration
parameter (Tables 5-3 through 5-12).
Current configuration parameter settings can be
displayed in either setup mode or normal mode using
the following syntax:
command<ENTER>
Most parameter values can be changed in setup mode
only; setpoint parameters listed in Table 5-8 on
page 41 can be changed when in normal weighing
mode.
5.1.3The RESETCONFIGURATION Command
The RESETCONFIGURATION command can be
used to restore all configuration parameters to their
default values. Before issuing this command, the
indicator must be placed in test mode (press and hold
setup switch for approximately three seconds).
This command is equivalent to using the DEFAULT
function in TEST mode. See Section 10.8 on page 69
for more information about test mode.
NOTE: All load
cell calibration settings are lost when the
RESETCONFIGURATION command is run.
Use the following command syntax when changing
parameter values:
command=value<ENTER>
where value is either a number or a parameter value.
Use no spaces before or after the equal (=) sign. If you
type an incorrect command, the display reads
??.
For example, to set the motion band parameter to 5,
type the following:
WZEROZero calibration—
WVALTest weight valuetest_weight_value
WSPANSpan calibration—
WLIN.F1–WLIN.F5Actual raw count value for linearization points 1–5—
WLIN.V1–WLIN.V5Test weight value for linearization points 1–5test_weight_value
WLIN.C1–WLIN.C5Calibrate linearization points 1–5—
REZERORezero —
LC.CDSet deadload coefficientvalue
LC.CWSet span coefficientvalue
Table 5-5. CALIBR EDP Commands
CommandDescriptionValues
EDP.BAUDEDP port baud rate300, 600, 1200, 2400, 4800, 9600, 19200
EDP.BITSEDP port data bits/parity8NONE, 7EVEN, 7ODD
EDP.TERMINEDP port termination characterCR/LF, CR
EDP.EOLDLYEDP port end-of-line delay0–255 (0.1-second intervals)
EDP.HANDSHKEDP port handshakingOFF, ON
EDP.ADDRESSEDP port RS-485 address0, 01–255
EDP.AB-RIOEDP port Remote I/O streamOFF, ON
EDP.STREAMEDP port streamingOFF, ON
PRN.BAUDPrinter port baud rate300, 600, 1200, 2400, 4800, 9600, 19200
PRN.BITSPrinter port data bits/parity8NONE, 7EVEN, 7ODD
PRN.TERMINPrinter port termination characterCR/LF, CR
PRN.EOLDLYPrinter port end-of-line delay0–255 (0.1-second intervals)
PRN.HANDSHKPrinter port handshakingOFF, ON
PRN.STREAMPrinter port streamingOFF, ON
PRNDESTPrint destinationEDP, PRN, BOTH
Table 5-6. SERIAL EDP Commands
EDP Commands39
Page 43
CommandDescriptionValues
SDSet dateMMDDYY or DDMMYY (enter using DATEFMT specified)
STSet timehhmm (enter using 24-hour format)
DATEFMTDate formatMMDDYY, DDMMYY
DATESEPDate separatorSLASH, DASH, SEMI
TIMEFMTTime format12HOUR, 24HOUR
TIMESEPTime separatorCOLON, COMMA
CONSTUPConsecutive number start-up value 0–999 999
TARE100Truck in/out modeOFF, MODE1, MODE2, MODE3, MODE4, MODE5, MODE6
ACCUMAccumulatorOFF, ON
CFGPWDConfiguration password0, 1–9999999
SPPWDSetpoint password0, 1–9999999
KYBDLKKeyboard lock (disable keypad)OFF, ON
LOCKONLock indicator front panel in
operating mode
LOCKOFFUnlock indicator front panel in
operating mode
AUXLKDisable auxiliary keyboardOFF, ON
MACONLYDisable all except macro keysOFF, ON
ZERONLYDisable all keys except ZEROOFF, ON
ALPHAKBEnable ALPHA ENTRY keyOFF, ON
REGULATRegulatory complianceNONE, OIML, NTEP, CANADA
PROMPT#1–
PROMPT#60
MACRO1.K01–
MACRO1.K30
MACRO2.K01–
MACRO2.K30
MACRO3.K01–
MACRO3.K30
MACRO4.K01–
MACRO4.K30
Macro promptSee Section 9.0 on page 55 for information about macro
CONCUR
VALUESetpoint valuenumber
PSHTAREPush tareOFF, ON
PSHPRINTPush printOFF, ON, WAITSS
PSHACCMPush accumulateOFF, ON, ONQUIET
TRIPTripHIGHER, LOWER, INBAND, OUTBAND
BANDVALBand valuenumber
HYSTERHysteresisnumber
ALARMAlarmOFF, ON
PREACTPreactOFF, ON, LEARN
PREVALPreact valuenumber
BATCHBatch step enableOFF, ON
NAMESetpoint name numberNONE, 1–16
ACCESSSetpoint accessOFF, ON, HIDE
DIGOUTDigital outputNONE, 1–8
RELNUMRelative setpoint numer1–8
STARTStarting setpoint1–8
ENDEnding setpoint1–8
BATCHNGBatching modeOFF, AUTO, MANUAL
SPNAME#1—
SPNAME#16
Setpoint namesname
Table 5-8. SETPNTS EDP Commands
CommandDescriptionValues
GFMTGross demand print format stringSee Section 6.0 on page 45 for detailed information
NFMTNet demand print format string
SPFMTSetpoint print format string
TRWINTruck weigh-in print format string
TRWOUTTruck weigh-out print format string
EDPFMTEDP demand print format string
HDRFMTTicket header format string
Table 5-9. PFORMT EDP Commands
CommandDescription
DON#nnSet digital output nn on
DOFF#nnSet digital output nn off
DOFF#0Set all digital outputs off
For commands ending with “#nn”, nn is the digital output (01–8) being set on or off.
SOURCE1Analog output source GROSS, NET
OFFSETZero offset0%, 20%
ERRACTError actionFULLSC, HOLD, ZEROSC
MINMinimum value tracked0–9 999 800
MAXMaximum value tracked0–9 999 800
ZERO1Zero calibration0–16 383
SPAN1Span calibration0–16 383
Table 5-12. ALGOUT EDP Commands
5.1.5Normal Mode Commands
The normal mode commands (see Table 5-13) transmit data to the EDP port on demand. These commands are
valid only in normal operating mode.
CommandDescriptionResponse Format
CONSNUM Set consecutive number0–999 999
SDSet dateMMDDYY or DDMMYY (enter using DATEFMT specified)
STSet timehhmm (enter using 24-hour format)
SXStart EDP streamingOK or ??
EXStop EDP streamingOK or ??
DXStart streaming raw A/D countsOK or ??
RSReset system—
XATransmit accumulator valuennnnnn UU
where nnnnnn is the weight value, UU is the units.XGTransmit gross weight in displayed units
XNTransmit net weight in displayed units
XTTransmit tare weight in displayed units
XG2Transmit gross weight in non-displayed units
XN2Transmit net weight in non-displayed units
XT2Transmit tare weight in non-displayed units
XEQuery system error conditionsnnnnn nnnnn
See Section 10.1 on page 62 for detailed information about
the XE command response format.
Table 5-13. Normal Mode EDP Commands
42IQ plus 710 Installation Manual
Page 46
5.1.6Batching Control Commands
The commands listed below provide batching control through the EDP port.
BATSTART
If the BATRUN digital input is on or not assigned, the BATSTART command can be used to start the batch
program.
BATRESET
Stops the program and resets the batch program to the first batch step.
BATPAUSE
Stops the batch program at the current step. All digital outputs set on by the current step are set off. The
BATSTRT DIGIN, BATSTART EDP command, or a macro configured with STRTBAT=ON can be used to
restart the batch program at the current step.
BATSTATUS
The BATSTATUS command is used to check the current status of various setpoint and batching conditions.
BATSTATUS returns 14 bytes of status data as described in Table 5-14. BATSTATUS is principally used to
provide status information to a controlling batch program when using the Remote I/O Interface option.
Status information returned in bytes 3–12 is coded as ASCII characters @ (hex 40) through O (hex 4F);
only the low order bits of these characters are significant. Table 5-14 shows the low order bit assignments
for bytes 3–12. Use Table 5-15 on page 44 to interpret the status of the low order bits for a given ASCII
character.
Batch Status DataByteValues
Batch Status
Current Batch Step
Continuous Setpoint Status
Low order bits of bytes 3–4 are set on
to indicate continuous setpoints for
which conditions are being met. Bits are
assigned to setpoint numbers as shown
at right.
Digital Output Status
Low order bits of bytes 8–9 are set on
to indicate active digital outputs. Bits
are assigned to digital outputs as
shown at right.
Digital Input / Alarm Status
Low order bits of byte 12 are set on to
indicate active digital inputs and
setpoint alarm status. Bits are assigned
as shown at right.
Carriage Return
0“S” = stopped
“R” = running
“P” = paused
1 – 200 – 08
Low Order Bit Assignments for Bytes 3 – 12ASCII Values
Translating ASCII Status DataASCII ValueBit 3Bit 2Bit 1Bit 0
Use the table at right to evaluate the ASCII character
output for bytes 3 – 12 and determine which of the
low order bits are set on.
For example, if the Digital Output Status returned in
bytes 8 – 11 is AC@@, the table at right can be used
with the bit assignments described above to
determine that digital outputs 4, 7, and 8 are active:
• A (byte 8) indicates that DIGOUT 4 (bit 0) is on
• C (byte 9) indicates that DIGOUTs 7 and 8 (bits 1
and 0) are on
• @@ indicates that bytes 10 and 11 are not used
Table 5-15. ASCII Translation Table for BATSTATUS Data
@0000
A0001
B0010
C0011
D0100
E0101
F0110
G0111
H1000
I1001
J1010
K1011
L1100
M1101
N1110
O1111
5.2Saving and Transferring Data
Connecting a personal computer to the IQ plus 710
EDP port allows you to save indicator configuration
data to the PC or to download configuration data from
the PC to an indicator. The follo wing sections describe
the procedures for these save and transfer operations.
5.2.1Saving and Printing Indicator Data
Configuration data can be saved to a personal
computer connected to the EDP port. The PC must be
running a communications program such as
PROCOMMPLUS
information about serial communications wiring and
EDP port pin assignments.
When configuring the indicator, ensure that the values
set for the BAUD and BITS parameters on the
SERIAL menu match the baud rate, bits, and parity
settings configured for the serial port on the PC.
To save all configuration data, send the DUMPALL
EDP command to the indicator. The IQ plus 710
responds by sending all configuration parameters to
the PC as ASCII-formatted text.
Configuration data can also be sent to the printer port:
To print configuration data, place the indicator in
setup mode, then press the
®
. See Section 2.3.2 on page 6 for
ID key.
5.2.2Downloading Configuration Data from PC to
Indicator
Configuration data saved on a PC or floppy disk can
be downloaded from the PC to an indicator. This
procedure is useful when a number of indicators with
similar configurations are set up or when an indicator
is replaced.
To download configuration data, connect the PC to the
EDP port as described in Section 5.2.1. Place the
indicator in setup mode and use the PC
communications software to send the saved
configuration data to the indicator. When transfer is
complete, calibrate the indicator as described in
Section 4.0 on page 33.
NOTES:
•Calibration settings are included in the configuration
data downloaded to the indicator. If the receiving
indicator is a direct replacement for another IQ plus
710 and the attached scale is not changed,
recalibration is not required.
•When downloading configurations that include
changed serial communications settings, edit the data
file to place the serial communications changes at the
end of the file. Communication between the PC and
indicator will be lost once the indicator receives
settings for baud rate (BAUD parameter) or data bits
and parity (BITS parameter) that do not match those
configured for the PC.
44IQ plus 710 Installation Manual
Page 48
6.0Print Formatting
The IQ plus 710 provides six print formats that determine the format of the printed output when the PRINT key is
pressed or when a KPRINT EDP command is received. Supported print formats are: GFMT, NFMT, EDPFMT,
TRWIN, TRWOUT, and SPFMT. A fourth format, HDRFMT, allows specification of up to 300 characters of
ticket header information for use on GFMT, NFMT, and EDPFMT tickets. The contents of the HDRFMT format
can be inserted into any other ticket format using the <AE> formatting command.
The particular ticket format used for a given print operation depends on the indicator configuration (see Table 6-2
on page 46).
Each print format can be customized to include up to 300 characters of information, such as company name and
address, on printed tickets. You can use the indicator front panel (PFORMT menu), EDP commands, or the
Revolution
6.1Print Formatting Commands
Table 6-1 lists commands you can use to format the IQ plus 710 print formats. Commands included in the format
strings must be enclosed between < and > delimiters. Any characters outside of the delimiters are printed as text
on the ticket. Text characters can include any ASCII character that can be printed by the output device.
CommandDescription
<G>Gross weight in displayed units√√
<G2>Gross weight in non-displayed units√√
<N>Net weight in displayed units√√
<N2>Net weight in non-displayed units√√
<T>Tare weight in displayed units√√
<T2>Tare weight in non-displayed units√√
<A>Accumulated weight in displayed units√
<AC>Number of accumulator event (5-digit counter)√
<AT>Time of last accumulator event√
<AD>Date of last accumulator event√
<TR1>Gross weight for current ticket in displayed units√
<TR2>Tare weight for current ticket in displayed units√
<TR3>Net weight for current ticket in displayed units√
<SV1>Setpoint value when tripped in displayed units√
<SV2>Label for SV1 value√
<BN>Current setpoint number√
<NA>Current setpoint name√
<TI>Time√√√
<DA>Date√√√
<TD>Time and date√√√
<ID>ID number √√√
<CN>Consecutive number√√√
<AE>Ticket header (HDRFMT)√√√
™
configuration utility to customize the print formats.
GFMT/NFMT/
EDPFMT
Ticket Format
TRWIN/TRWOUTSPFMT
Table 6-1. Print Format Commands
Print Formatting45
Page 49
Ticket Format
GFMT/NFMT/
CommandDescription
<NLnn>New line (nn = number of termination (<CR/LF> or
<CR>) characters)*
<SPnn>Space (nn = number of spaces)*√√√
<SU>Toggle weight data format (formatted/unformatted)**√√√
NOTES:
Gross, net, and tare weights, SV1 setpoint weight are 9 digits in length, including sign (10 digits with decimal point), followed by
a space and a two-digit units identifier. Total field length with units identifier is 12 (or 13) characters.
TR1, TR2, and TR3 truck ticket weight data includes keywords INBOUND, KEYED, RECALLED, as necessary.
ID and consecutive number (CN) fields are 1–7 characters in length, as required.
Ticket header (AE) inserts information specified for the HDRFMT header format.
* If nn is not specified, 1 is assumed. Value must be in the range 1–99.
** After receiving an SU command, the indicator sends unformatted data until the next SU command is received. Unformatted
data omits decimal points, leading and trailing characters.
EDPFMT
√√√
TRWIN/TRWOUTSPFMT
Table 6-1. Print Format Commands (Continued)
NOTE: The <G2>, <N2>, and <T2> commands listed in Table 6-1 print the gross, net, and tare weights in
non-displayed units—that is, in the units not currently displayed on the indicator.
6.2Default Ticket Formats
Table 6-2 shows the default print formats for the IQ plus 710 and lists the conditions under which each print
format is used. The HDRFMT format is used to specify header information that can be used by the other ticket
formats. The contents of the HDRFMT format can be inserted into any other ticket format using the <AE>
formatting command.
FormatDefault Format StringUsed When
GFMTGROSS<G><NL2><TD><NL>Normal mode, no tare in system
NFMTGROSS<G><NL>TARE<SP><T><NL>NET<SP2><N>
NOTE: In OIML and CANADA modes, the letters PT (preset tare) are automatically inserted after the printed tare weight.
Table 6-2. Default Print Formats
Normal mode, tare in system
menu). GFMT (or NFMT) print format is sent to
printer port simultaneously.
Truck mode (T ARE100 ≠ OFF), when truck ID is
entered
Truck mode (TARE100 ≠ OFF), when PRINT
key pressed
N/A
46IQ plus 710 Installation Manual
Page 50
6.3Customizing Print Formats
The following sections describe procedures for
customizing print formats using the EDP port, the
front panel (PFORMT menu), and the Revolution
configuration utility.
6.3.1Using the EDP Port
With a personal computer, terminal, or remote
keyboard attached to the IQ plus 710 EDP port, you
can use the EDP command set to customize the print
format strings.
To view the current setting of a format string, type the
name of the print format and press
example, to check the current configuration of the
GFMT format, type GFMT and press
indicator responds by sending the current
configuration for the gross format:
GFMT=<G> GROSS<NL>
To change the format, use the GFMT or NFMT EDP
command followed by an equals sign (=) and the
modified print format string. For example, to add the
name and address of a company to the gross format,
you could send the following EDP command:
GFMT=MOE'S DUMP<NL>2356 EAST HIGHWAY
ROAD<NL>SMALLTOWN<NL2><G> GROSS<NL>
A ticket printed using this format might look like the
following:
MOE'S DUMP
2356 EAST HIGHWAY ROAD
SMALLTOWN
ENTER. For
ENTER. The
6.3.2Using the Front Panel
If you have no access to equipment for
communication through the EDP port or are working
at a site where such equipment cannot be used, you
can use the PFORMT menu (see Figure 6-2 on page
48) to customize the print formats.
Using the PFORMT menu, you can edit the print
format strings by changing the decimal values of the
ASCII characters in the format string.
NOTE: Lower-case letters and some special characters
cannot be displayed on the IQ plus 710 front panel
(see the ASCII character chart on page 65) and are
shown as blanks. The IQ plus 710 can send or receive
any ASCII character; the character printed depends on
the particular ASCII character set implemented for the
receiving device.
6.3.3Using Revolution
The Revolution configuration utility provides a print
formatting grid with a tool bar. The grid allows you to
construct the print format without the formatting
commands (<NL> and <SP>) required by the front
panel or EDP command methods. Using Revolution,
you can type text directly into the grid, then select
weight value fields from the tool bar and place them
where you want them to appear on the printed ticket.
Figure 6-1 shows an example of the Revolution print
formatting grid.
1345 LB GROSS
The ticket above could also be formatted by
specifying the company address information in the
HDRFMT ticket format, then substituting the <AE>
command for the address in the GFMT ticket format:
HDRFMT=MOE'S DUMP<NL>2356 EAST HIGHWAY
ROAD<NL>SMALLTOWN<NL2>
GFMT=<AE><G> GROSS<NL>
Figure 6-1. Revolution Print Format Grid
Print Formatting47
Page 51
DIG INSETPNTSPROGRMPFORMTSERIALCALIBRCONFIGFORMAT
XXXXXXXXXXXXXX
ALGOUT
VERS
GFMT
Press ENTER or to insert a
space before the active character
Decrement ASCII value
of active character
NFMT
characters of format
active character and
Enter numeric ASCII
Press ENTER or to save value
TRWIN
Display first 7
Press CLEAR to delete
the active character
Display and edit
ASCII value
character value
Same as GFMT
Scroll right in format stringScroll left in format string
Increment ASCII value
of active character
SPFMTTRWOUT
EDPFMT
HDRFMT
Figure 6-2. PFORMT Menu, Showing Alphanumeric Character Entry Procedure
48IQ plus 710 Installation Manual
Page 52
7.0Truck Modes
The truck in/out modes are used to handle multiple
truck ID numbers and tare weights. Six truck modes
combine stored ID, keyed tare, and value swapping
features in various ways:
Stored IDs let you keep a database of truck IDs and
Swapping
tare weights in the indicator’s memory. The indicator
can automatically store up to 100 truck IDs and tares;
or it can clear the information after printing a
weigh-out ticket. For example, if the same truck
seldom crosses the scale, it may not be practical to
save its ID number and tare weight. However, if that
same truck crosses the scale many times each day, it’s
much more convenient to store the information in the
indicator memory and recall it when needed. Stored
IDs and tare weights are available in Modes 3, 4, 5,
and 6.
Keyed tares allow you to manually enter the tare
weight using the numeric keypad and the
TARE key.
Keyed tares are available in Modes 1, 3, and 5.
NOTE: Some local regulations require the tare weight
to be read from the scale. If so, don’t use the keyed
tares feature.
Value swapping ensures that the lowest of two
weight values associated with a particular ID number
is entered as the tare weight. For example, if a truck
crosses the scale fully loaded at weigh-in, then
unloads and crosses the scale empty at weigh-out, the
indicator automatically assigns the lesser (empty
truck) weight as the tare. Value swapping is available
in Modes 1, 2, 3, and 4.
T o select a truck in/out mode, press the setup switch to
enter setup mode. Use the navigation keys to go to the
PROGRM menu, then to the TARE100 submenu.
Figure 7-1 shows the structure of the TARE100
submenu.
PROGRM
TARE100
Figure 7-1. TARE100 Truck Mode Selections
7.1Using the Truck Modes
All the truck in/out modes let you quickly search the
memory for a specific ID number. To do this, key in
the ID number and press the
the number is in memory, it remains on the display.
Otherwise, the indicator displays
to toggle between the ID number and tare weight. To
delete the displayed ID number, press
DISPLAY TARE key. If
NO ID. Press ENTER
CLEAR twice.
MODE 6MODE 5MODE 4MODE 3MODE 2MODE 1OFF
T o scroll through all the stored ID numbers, k e y in any
number and press
DISPLAY TARE, the next number appears on the
press
DISPLAY TARE. Each time you
display.
To print all the stored ID numbers and their associated
tare weights, press
PRINT when an ID number is on
the screen.
Truck Modes49
Page 53
7.1.1Modes 1 and 2
In modes 1 and 2, the indicator erases truck ID
numbers and tare weights from memory after the
transaction.
1. The truck moves onto the scale for weigh-in.
2. If keyed tares are enabled (Mode 1), key in
the desired tare weight and press
TARE.
3. Key in an ID number (up to 7 digits) and press
ID. This information remains in memory until
the weigh-out ticket is printed.
4. The indicator prints the weigh-in ticket
(TRWIN format) shown below:
ID. NO. 304812
GROSS 15000. LB INBOUND
08/04/1998 10:24 AM
5. The loaded truck moves onto the scale for
weigh-out.
6. Key in the ID number from the weigh-in
ticket and press
PRINT. The indicator prints a
weigh-out ticket (TRWOUT format) and
automatically clears the information from
memory: If the tare weight is a keyed tare, the
word KEYED is printed after RECALLED on the
tare line.
7.1.3Single-Transaction Tare Weights and IDs
Version 1.44 supports temporary tare weights for
indicators configured to use stored IDs (TARE100
modes 3–6). This function allows one-time weighing
of trucks without adding the truck ID and tare weight
to the indicator database.
To use this function, enter a truck ID containing a
decimal point, then press
I.D. Tare weights and Truck
IDs entered using decimal truck IDs are erased from
the indicator database when the transaction is
complete.
7.1.2Modes 3, 4, 5, and 6
In modes 3–6, the indicator stores the tare weights and
ID numbers in memory until you manually erase
them.
1. The truck moves onto the scale for weigh-in.
2. If keyed tares are enabled (Modes 3, 5), key in
the desired tare weight, then press
TARE.
3. Key in an ID number (up to 7 digits) and press
I.D. This information remains in memory until
manually deleted.
4. The indicator prints the weigh-in ticket
(TRWIN format). Truck leaves.
5. The loaded truck moves back onto the scale
for weigh-out.
6. Key in the ID number and press
PRINT. The
indicator prints the weigh-out ticket
(TRWOUT format). If value swapping is
enabled (modes 3 and 4), the lower weight is
always printed as the tare weight.
ID. NO. 304812
GROSS 100000. LB
TARE 15000. LB RECALLED
NET 85000. LB
08/04/1998 10:55 AM
50IQ plus 710 Installation Manual
Page 54
8.0Setpoints
The IQ plus 710 indicator provides eight programmable setpoints for control of both indicator and external
equipment functions. Setpoints are configured to trip based on specified conditions; tripping the setpoint can be
used to request indicator functions (print, tare, accumulate) or to change the state of a digital output controlling
external equipment.
Figure 8-1 shows the general structure of the SETPNTS menu. See Section 3.2.7 on page 27 for a detailed
description of the SETPNTS menu. The eight setpoint kinds are described in Table 8-1 on page 52.
IQ plus 710 setpoints can be either continuous or
batch setpoints.
Continuous setpoints are free-running: the indicator
constantly checks the input channel for the setpoint
value at each A/D update. If the input channel weight
reading matches the setpoint value, the indicator sets
the corresponding digital output on.
Batch setpoints are active one at a time, in an ordered
sequence. The IQ plus 710 can use batch setpoints to
control up to eight separate batch processing steps. A
digital output associated with a batch setpoint is on
until the setpoint condition is met, then latched for the
remainder of the batch sequence.
To use batch setpoints, you must activate the
BATCHNG parameter on the SETPNTS menu. This
parameter defines whether a batch sequence is
automatic or manual. AUTO sequences repeat
continuously, while MANUAL sequences require a
BATSTRT digital input or STRTBAT macro
command before restarting. As shown in Table 8-1 on
page 52, GROSSSP, NETSP, and –RELSP setpoint
kinds can be configured as either batch or continuous
setpoints.
The BATCH parameter must also be set on for each
batch setpoint. If the setpoint is defined but the
BATCH parameter is off, the setpoint operates as a
continuous setpoint, even during batch sequences.
Setpoints51
Page 55
KindDescriptionBatch Continuous
OFFSetpoint turned off/ignored.
GROSSSPGross setpoint. Trips when the current gross weight matches this value.√√
NETSPNet setpoint. Trips when the current net weight matches this value.√√
–RELSPNegative relative setpoint. Trips at a specific value below the referenced
√√
setpoint.
PAUSEPauses the batch sequence indefinitely. Operator must activate the BATSTRT
√
digital input to continue processing.
DELAYDelays the batch sequence for a specified time. The length of the delay (in
√
tenths of a second) is specified on the Value parameter.
WAITSSWait for standstill. Pauses the batch sequence until the scale is at standstill.√
TIMERTracks the progress of a batch sequence based on a timer.
√
The timer value, specified in tenths of a second on the VALUE parameter,
determines the length of time allowed between start and end setpoints. The
indicator START and END parameters are used to specify the start and end
setpoints. If the END setpoint is not reached before the timer expires, the digital
output associated with this setpoint is activated.
CONCURAllows a digital output to remain active over a specified portion of the batch
√
sequence. Two types of concur setpoints can be configured:
Type 1: The digital output associated with this setpoint becomes active when
the START setpoint becomes the current batch step and remains active until
the END setpoint becomes the current batch step.
Type 2: The digital output associated with this setpoint becomes active when
the START setpoint becomes the current batch step and remains active until a
timer expires.
The indicator START and END parameters specify the start and end setpoints.
The timer value is specified in tenths of a second on the VALUE parameter.
Table 8-1. Setpoint Kinds
52IQ plus 710 Installation Manual
Page 56
8.2Batching Examples
8.2.1Example 1
The following example uses seven setpoints to
dispense material from a container in 100
and to automatically refill the container when its
weight drops below 300
LB.
Digital inputs 1 and 2 are assigned to batch start and
batch run functions: BATRUN must be on (low)
before the BATSTRT input starts the batch.
DIGIN1=BATSTRT
DIGIN2=BATRUN
BATCHNG=MANUAL
Setpoint 1 ensures that the container has enough
material to start the batch. If the container weight is
Setpoint 4 is used to dispense material from the
container. When the container weight falls to 100
less than its weight at the relative setpoint (setpoint 3),
digital output 1 is set off.
Setpoint 5 is a short (.2-second) delay used to provide
an end point for a timer setpoint (setpoint 6).
SETPOINT=5
KIND=DELAY
VALUE=2
ACCESS=ON
Setpoint 6 is used to ensure that the operation
performed in setpoint 4 is completed within 10
seconds. The START and END parameters identify
the setpoints monitored by the timer. If the timer
expires before setpoint 5 starts, digital output 4 is
turned on as an alarm to signal a process fault.
The ACCESS parameter should be set ON when
creating and testing batch routines. Once the batching
routine is complete and ready for production,
ACCESS can be set to OFF to prevent changes to the
configured setpoint value, or to HIDE to prevent
changing or viewing the value.
Setpoints53
Page 57
8.2.2Example 2
The following example uses seven setpoints to control
a two-speed fill operation where both fast and slow
feeds are on simultaneously.
Digital inputs 1 and 2 are assigned to batch start and
batch run functions: BATRUN must be on (low)
before the BATSTRT input starts the batch.
DIGIN1=BATSTRT
DIGIN2=BATRUN
BATCHNG=MANUAL
Setpoint 1 ensures that the scale is empty (0±2 LB).
Setpoint 7 is a continuous setpoint, used to allow the
slow feed output to be on at the same time as the fast
fill. The slow fill output (digital output 2) is turned on
when setpoint 4 (fast fill) starts and remains on until
setpoint 5 (slow fill) reaches 200
Up to four macro sequences can be programmed for the IQ plus 710 indicator. Each macro provides a simulation
of up to 30 front panel key presses and can be used to provide single-key, automated operation of a number of
processes, including operator identification, prompts, setpoint editing, and batch control.
9.1Using the Macro Submenu
Macros can be programmed using the front panel, EDP commands, or the Revolution configuration utility.
Figure 9-1 shows the structure of the MACRO submenu under the PROGRM menu; Table 9-1 on page 56
describes each of the MACRO submenu parameters.
MACRO1
EDITSTRTBAT
OFF
ON
STEP1STEP2STEP3STEP30
same as STEP1
Press F3 to insert a step before the current step
Press F4 to delete the current macro step
Press CLEAR to clear the current macro step
KEY
MACRO2MACRO3MACRO4
…
NAME
NONE
NAME1 –
NAME60
same as MACRO1
Useandto scroll left
and right through macro steps
TIMEOUT
0
number
KEYPADPSEUDOPAUSREL
OFF
ZERO
G/N
TARE
UNITS
PRINT
ID
SETPT
T/D
ESCAPE
ALPHA
ACCUM
DSPTAR
CLEAR
ENTER
0–9
DP
GROSS
NET
PRIM
SEC
TIME
DATE
CLRCN
MAJORKY
MOTION
COZ
DIGIN1–
DIGIN8
AZTRACK
TIMER
COMPAR1–
COMPAR8
Figure 9-1. Macro Submenu under PROGRM Menu
Macro Programming55
Page 59
PROGRM Menu
ParameterChoicesDescription
Level 2 MACRO submenu
MACRO1
MACRO2
MACRO3
MACRO4
Level 3 MACRO submenu
EDITmacro sequenceCreate or display a macro sequence
STRTBATOFF
Level 4 MACRO submenu
STEP1 –
STEP30
Level 5 MACRO submenu
KEYKEYPAD
NAMENONE
TIMEOUTnumberIf TIMER is specified for the PAUSREL parameter, specify a timer value in the range
Level 6 MACRO submenu
KEYPADOFF
PSEUDOGROSS
EDIT
STRTBAT
ON
KEY
NAME
TIMEOUT
PSEUDO
PAUSREL
NAME1 – NAME60
ZERO
G/N
TARE
UNITS
PRINT
ID
SETPT
T/D
ESCAPE
ALPHA
ACCUM
DSPTAR
CLEAR
ENTER
0–9
DP
NET
PRIM
SEC
TIME
DATE
CLRCN
Configure macros
Specifies whether a batch sequence is automatically started when the macro
sequence ends. STRTBAT=ON is functionally equivalent to the BATSTRT digital
input.
Select macro step
Specifies whether the keystroke simulated by the macro is an actual keypad key, a
pseudo key, or a pause release.
Specifies the text, if any, shown on the secondary display during macro execution.
NAME1 through NAME60 are specified on the PROMPTS parameter.
0–65535, in 0.1-second intervals. For example, specify TIMER=150 to insert a
15-second pause.
Select front panel key simulated by this macro step.
The PSEUDO parameter allows simulation of a pseudo key for the macro step.
Pseudo keys are keypad functions not represented by an actual front panel key.
For example, the PRIM pseudo key displays the primary units configured for the
indicator, but there is no actual primary units key on the front panel. The PRIM and
SEC pseudo keys are used to explicitly request primary or secondary units display;
the UNITS front panel key toggles between primary and secondary units,
depending on which is displayed at the time the key is pressed.
The PAUSEREL parameter inserts a pause in the macro sequence that is released
when the specified condition is met. The value specified for this parameter
determines when the pause is released:
MAJORKY: When any of the five major keys is pressed
MOTION: When scale reaches standstill
COZ: When scale reaches center of zero
DIGIN1–DIGIN8: When DIGINx goes active
AZTRACK: When scale is within zero track band
TIMER: When timer expires (timer value is specified on TIMEOUT parameter)
COMPAR1 – COMPAR8: When the setpoint x (1–8) changes state
Table 9-1. MACRO Submenu Parameters (PROGRM Menu)
9.2Macro Programming Examples
The macro shown below is started when the operator
To prevent injury and equipment
Warning
damage, always test macros and
batching routines thoroughly before
connecting the indicator to a live
system.
9.2.1Example 1
The following example uses a macro to provide
operator prompts for a simple container filling
procedure. The single setpoint is used to check for a
full container; when tripped, the setpoint releases the
pause in step 3 of the macro.
With the indicator in setup mode, the following EDP
commands are sent to program the setpoint and assign
prompts used by the macro.
PROMPT#1=ADD BOX
PROMPT#2=ADD MATERIAL
PROMPT#3=REMOVE BOX
NOTE: Prompts are assigned using the PROMPT#n
EDP command or the PROMPTS parameter on the
PROGRM menu. Prompts are recalled for display
during macro execution using the NAME.n EDP
parameter or the NAME parameter under the macro
submenu.
scale motion caused by the operator placing
the box on the scale. When scale motion
stops, the pause is released and the macro
continues.
2. The macro performs a tare operation, taring
the box weight and placing the indicator in net
mode.
3. The secondary display prompts the operator
ADD MATERIAL. The prompt is held on the
to
display until setpoint 1 changes state
(COMPAR1). When the setpoint trips, the
pause is released.
4. The macro performs a print operation using
the NFMT ticket format.
5. The secondary display prompts the operator
REMOVE BOX. The prompt is held on the
to
display until the gross weight on the scale
goes to zero.
Macro Programming57
Page 61
9.2.2Example 2
The following example uses a combination of macros
and batch routines to control a filling operation. The
operation includes filling a container with two
ingredients, pausing the batch for a mixing operation,
then adding a third ingredient.
With the indicator in setup mode, the following EDP
commands are sent to program the setpoints and
assign prompts used by the macros.
Digital input 1 is connected to a batching switch and
configured as a BATRUN input. The batching switch
must be on to enable the STRTBAT (batch start)
commands in the macros.
Digital inputs 2–4 are wired from digital outputs 3, 5,
and 6: When the setpoints associated with the digital
outputs are tripped, the output activates the digital
input to start the next macro.
DIGIN1=BATRUN
DIGIN2=KF2
DIGIN3=KF3
DIGIN4=KF1
The macros shown below begin when the operator
presses the F1 macro key:
1. MACRO 1 displays the prompt
ADD BUCKET
on the secondary display and waits for scale
motion caused by the operator placing the
bucket on the scale. When scale motion stops,
the pause is released and the macro continues.
2. The macro performs a tare operation, taring
the bucket weight and placing the indicator in
net mode.
3. The
STRTBAT=ON macro statement starts the
batch once the tare operation is complete.
4. The batch starts, adding Ingredient A until the
bucket net weight reaches 5 LB (see
SETPOINT 1 configuration above). When
setpoint 1 trips, DIGOUT 1 goes off and
Ingredient A stops filling.
5. Setpoint 2 adds Ingredient B until the bucket
net weight reaches 10 LB (see
SETPOINT 2
configuration above). When setpoint 2 trips,
DIGOUT 2 goes off and Ingredient B stops
filling.
6. Setpoint 3 is a pause setpoint used to activate
digital output 3. Digital output 3 is wired to
DIGIN2 as a KF2 (press MACRO key F2)
input and starts MACRO 2.
the secondary display and waits for scale
motion caused by the operator mixing the
paint. When scale motion stops, the pause is
released and the macro restarts the batch
sequence at Setpoint 4.
8. Setpoint 4 adds Ingredient C until the bucket
net weight reaches 15 LB (see
SETPOINT 4
configuration).When setpoint 4 trips, DIGOUT
4 goes off and Ingredient C stops filling.
9. Setpoint 5 waits for standstill then prints
ticket using the SPFMT ticket format.
10. Setpoint 6 is a pause setpoint used to activate
digital output 5. Digital output 5 is wired to
DIGIN3 as a KF3 (press MACRO key F3
input and starts MACRO 3.
until the gross weight on the scale goes to
zero. When the scale reaches center of zero,
the pause is released and the macro zeroes the
scale (KZERO command) and restarts the
batch at Setpoint 7.
12. Setpoint 7 checks that the gross weight on the
scale is zero, then activates digital output 6.
Digital output 6 is wired to DIGIN4 as a KF1
(press MACRO key F1) input and starts
MACRO 1 again.
Macro Programming59
Page 63
9.2.3Example 3
The following example describes how a series of
macros can be programmed to provide single-key
reprogramming of setpoint values. Table 9-2 shows
the values of three setpoints used to fill different
proportions of ingredients for three products.
Table 9-2. Setpoint Values for Three-Ingredient Products
With the indicator in setup mode, the following EDP
commands are sent to program three gross setpoints to
their initial values and assign setpoint names used by
the macros.
PROMPT#1=INGRED 1
PROMPT#2=INGRED 2
PROMPT#3=INGRED 3
PROMPT#4=LOAD PRODUCT A
PROMPT#5=LOAD PRODUCT B
PROMPT#6=LOAD PRODUCT C
Next, three macros are programmed to allow
reassignment of the setpoint values for each of the
three products.
Each macro uses the
setpoint value: the
call up setpoint 1; press
setpoint 2. Each time the
SETPOINT key to change the
SETPOINT key is pressed once to
SETPOINT again to call up
SETPOINT key is pressed,
the value of the next setpoint is shown.
The three macros listed below reset the setpoint values
for PRODUCT A, PRODUCT B, and PRODUCT C.
MACRO1 sets the values of setpoints 1–3 to the initial
values listed above.
NOTES:
•When the front panel
SETPOINT key is
pressed, the indicator normally waits before
showing the setpoint value. To accommodate
this delay, a timer is inserted before each
setpoint value entry.
•Pause release parameters (PAUSREL,
NAME, TIMEOUT) are entered on separate
EDP commands, but are treated as a single
keystroke.
The IQ plus 710 indicator provides a number of error messages. When an error occurs, the message is shown on
the indicator display . Error conditions can also be checked remotely by using the XE EDP command as described
in Section 10.1.2.
10.1.1Displayed Error Messages
The IQ plus 710 provides a number of front panel error messages to assist in problem diagnosis. Table 10-1 lists
these messages and their meanings.
Error MessageDescriptionSolution
E A/DA/D physical errorCall Rice Lake Weighing Systems (RLWS) Service.
E EEROMEEPROM physical error
E VIREEVirgin EEPROMUse TEST menu to perform DEFLT (restore defaults) procedure,
E PCKSMParameter checksum error
EFCKSMPrinter format checksum error
E LCKSMLoad cell calibration checksum errorRecalibrate scale.
E REFA/D reference errorA/D converter requires recalibration. Call RLWS Service.
OVERFLOverflow errorWeight value too large to be displayed.
REG ERRBattery faultBattery weak or not installed. Replace battery then use TEST menu
ACC ERRAccumulator overflow errorPress ACCUM to display accumulator value, then press CLEAR
------Gross > overload limitGross value exceeds overload limit. Check configuration.
______A/D underrangeA/D reading < –4 mV. Check scale for binding or damage.
then recalibrate scale.
to perform CLR NV (clear non-volatile storage) procedure.
twice to clear the accumulator.
Table 10-1. IQ plus 710 Error Messages
10.1.2Using the XE EDP Command
The XE EDP command can be used to remotely query the IQ plus 710 for the error conditions shown on the front
panel. The XE command returns two 5-digit numbers in the format:
xxxxx yyyyy
where xxxxx contains a decimal representation of any existing error conditions as described in Table 10-2.
If more than one error condition exists, the number returned is the sum of the values representing the error
conditions. For example, if the XE command returns the number 288, this value represents the sum of an A/D
reference error (256) and an A/D calibration checksum error (32).
The second number returned (
whether the test for the error condition was run. For example, the value
yyyyy) uses the same bit assignments as shown in Table 10-2 on page 63 to indicate
yyyyy = 50687 represents the decimal
equivalent of the binary value 1100 0101 1111 1111. Using the bit assignments in Table 10-2, this indicates all
tests were run except the accumulator overflow and NV register checksum tests.
Two EDP commands, P and ZZ, can be used to
provide status about the indicator.
•The P EDP command returns whatever is
currently shown in the indicator’s primary
display area.
•The ZZ EDP command returns whatever is
currently shown in both the primary and
secondary displays. Depending on the type of
device used to receive data from the indicator,
the standstill and center of zero symbols may
be shown as spaces or as special characters.
The ZZ command returns information in the
following format:
PPPPPPP uu ssssssssssssssss
where:
PPPPPPP is the information shown on
•
the primary display
uu is the 2-digit units annunciator
•
ssssssssssssssss is the contents of the
•
secondary display
If the indicator is in an underrange or overload
condition, the weight value is replaced with
(overload) or :::::: (underrange).
where EOL = <CR> or <CR> <LF>
(set by TERMIN parameter on the
SERIAL menu)
ASCII 13
decimal
ASCII 03
decimal
10.3.1Continuous Output Serial Data Format
If continuous transmission is configured for the EDP
or printer port (STREAM parameter on the SERIAL
menu), the IQ plus 710 sends data using the
Consolidated Controls serial data format shown in
Figure 10-1:
<STX> <POL> <wwwwwww> <UNIT> <G/N> <S> <TERM>
ASCII 02
decimal
Polarity:
<space> = Positive
<–> = Negative
Weight: 7 digits, right-justified, dummy
zeroes, decimal point with no leading
zeroes except for leading zero immediately
preceding the decimal point. Leading
zeroes transmitted as spaces.
L = pounds
K = kilograms
T = short tons (TN)
G = grams
<space> = OZ, GN,
G = Gross
N = Net
T, LT, TROYOZ,
TROYLB, NONE
<CR> <LF>
or <CR>
Status:
<space> = valid
I = Invalid
M = Motion
O = Over/under range
Figure 10-1. Continuous Output Serial Data Format
10.3.2Demand Output Serial Data Format
When demand mode is configured for the EDP or
printer port in the setup menus (PRNDEST on the
SERIAL menu), the IQ plus 710 uses a data string
formatted for a basic ticket printout. The particular
ticket format printed depends on the indicator
configuration.
You can use the EDP port or keypad to fully
customize the ticket to work with a wide variety of
printers, scoreboard displays, and other remote
equipment. See Section 6.0 on page 45 for more
information on custom print formats.
10.3.3RS-485 Data Formats
The IQ plus 710 has a built-in RS-485 software
protocol which is enabled when you assign a non-zero
address to the indicator. Valid RS-485 addresses must
be in the range 1–255; the address is specified on the
ADDRESS parameter on the SERIAL menu.
All remote commands are initiated using the data
format shown in Figure 10-2:
<STX> <ADDRESS> <COMMAND> <CR>
ASCII 02
decimal
Address of the
receiving indicator
Figure 10-2. RS-485 Send Data Format
EDP serial command
NOTE: Host must send <CR>, not
<CR> <LF>. Failure to use <CR>
renders all indicators unable to
respond to serial commands
ASCII
13 decimal
If the initiating device address matches the port
address of an IQ plus 710 on the RS-485 network, that
indicator responds. For example, with demand
outputs, or in response to a KPRINT command, the
responding indicator uses the format shown in
Figure 10-3:
Figure 10-3. RS-485 Respond Data Format
Example:
To send the KPRINT command from an
ASCII terminal to an indicator at address 65 (decimal)
on the RS-485 network, use the format shown in
Figure 10-2.
•The keyboard equivalent for the start-of-text
STX) character is CONTROL-B (see
(
Table 10-3 on page 65).
•The indicator address (65) is represented by
an upper case “A”.
•The carriage return (CR) character is
generated by pressing the
ENTER key.
Therefore, to send the KPRINT command to the
indicator at address 65, enter the following at the
terminal:
CONTROL-B, A, K, P, R, I, N, T, ENTER.
The indicator responds with the format shown in
Figure 10-3:
<STX> ASCALE #1<EOL>
GROSS 1699 LB<EOL>
08/20/1998 10:05 AM<EOL>
<ETX> <CR>
If continuous transmission is configured for the EDP
port (STREAM parameter on the SERIAL menu), the
IQ plus 710 sends data using the data format shown in
Figure 10-4:
<STX> <ADDRESS> <STREAM DATA> <ETX> <CR>
ASCII 02
decimal
transmitting indicator
Address of the
Response commands from
indicator:
<STX> <POL> <wwwwwww>
<L/K> <G/N> <S> <EOL>
NOTE : This is the Consolidated
Controls continuous data format
ASCII 03
decimal
ASCII 13
decimal
64IQ plus 710 Installation Manual
Figure 10-4. RS-485 Continuous Data Format
Page 68
10.4ASCII Character Chart
Use the decimal values for ASCII characters listed in Tables 10-3 and 10-4 when specifying print format strings
on the IQ plus 710 PFORMT menu. The actual character printed depends on the character mapping used by the
output device.
The IQ plus 710 can send or receive any ASCII character value (decimal 0–255). Due to limitations of the
indicator display, some characters cannot be shown.
Standard digital filtering uses mathematical averaging
to eliminate the variant digital readings that the A/D
converter sends periodically because of external
vibration. Digital filtering does not affect the indicator
measurement rate, but does affect the settling time.
The selections from 1 to 256 reflect the number of
readings averaged per update period. When a reading
is encountered that is outside a predetermined band,
the averaging is overridden, and the display jumps
directly to the new value.
®
RATTLETRAP
followed by the letters RT) uses a vibration-dampening
algorithm to provide a combination of the best features
of analog and digital filtering. The RATTLETRAP
algorithm evaluates the frequency of a repeating
vibration then derives a composite displayed weight
equal to the actual weight on the scale less the
vibration-induced flaws. It is particularly effective for
eliminating vibration effects or mechanical interference
from nearby machinery. RT selections eliminate much
more mechanical vibration than standard digital
filtering, but usually also increase settling time over
standard digital filtering.
10.5.1DFSENS and DFTHRH Parameters
The digital filter can be used by itself to eliminate
vibration effects, but heavy filtering also increases
settling time. The DFSENS (digital filter sensitivity)
and DFTHRH (digital filter threshold) parameters can
be used to temporarily override filter averaging and
improve settling time:
•DFSENS specifies the number of consecutive
scale readings that must fall outside the filter
threshold (DFTHRH) before digital filtering
is suspended.
•DFTHRH sets a threshold value, in display
divisions. When a specified number of
consecutive scale readings (DFSENS) fall
outside of this threshold, digital filtering is
suspended. Set DFTHRH to NONE to turn off
the filter override.
digital filtering (DIGFLTR values
10.5.2Setting the Digital Filter Parameters
Fine-tuning the digital filter parameters greatly
improves indicator performance in heavy-vibration
environments. Use the following procedure to
determine vibration effects on the scale and optimize
the digital filtering configuration.
1. In setup mode, set the digital filter (DIGFLTR
parameter) to 1. Set DFTHRH to NONE.
Return indicator to normal mode.
2. Remove all weight from the scale, then watch
the indicator display to determine the
magnitude of vibration effects on the scale.
Record the weight below which all but a few
readings fall. This value is used to calculate
the DFTHRH parameter value in Step 4.
For example, if a heavy-capacity scale
produces vibration-related readings of up to
50 lb, with occasional spikes to 75 lb, record
50 lb as the threshold weight value.
3. Place the indicator in setup mode and set the
DIGFLTR parameter to eliminate the
vibration effects on the scale. (Leave
DFTHRH set to NONE.) Find the lowest
effective value for the DIGFLTR parameter.
4. Calculate the DFTHRH parameter value by
converting the weight value recorded in Step
2 to display divisions:
threshold_weight_value / DSPDIV
In the example in Step 2, with a threshold
weight value of 50 lb and a display division
value of 5D:
50 / 5D = 10. DFTHRH should
be set to 10DD for this example.
5. Finally, set the DFSENS parameter high
enough to ignore transient peaks. Longer
transients (typically caused by lower vibration
frequencies) will cause more consecutive
out-of-band readings, so DFSENS should be
set higher to counter low frequency transients.
Reconfigure as necessary to find the lowest
effective value for the DFSENS parameter.
10.6Conversion Factors for Secondary Units
The IQ plus 710 has the capability to mathematically
convert a weight into man y dif ferent types of units and
instantly display those results with a press of the
UNITS key.
Secondary units can be specified on the FORMAT
menu using the SECNDR parameter, or by using EDP
commands.
•To configure secondary units using the front
panel menus, use the Table 10-5 to find the
conversion multiplier for the MULT
parameter. For example, if the primary unit is
pounds and the secondary unit is short tons,
set the MULT parameter to 0.000500.
•To configure secondary units using EDP
commands, use the Table 10-5 to find the
conversion multiplier for the SEC.MULT
command. For example, if the primary unit is
pounds and the secondary unit is short tons,
send the EDP command SEC.MULT=
0.0005<CR> to set the multiplier for the
secondary units.
Appendix67
Page 71
NOTE: Ensure that the secondary decimal point
position is set appropriately for the scale capacity in
the secondary units. If the converted value requires
more digits than are available, the indicator will
display an overflow message (
OVERFL).
For example, if the primary units are short tons,
secondary units are pounds, and the secondary
decimal point is set to 8888.888, the indicator will
overflow if 5 tons or more are applied to the scale.
With 5 tons applied, and a conversion factor of 2000,
the secondary units display needs five digits to the left
of the decimal point to display the 10000 lb secondary
units value.
Primary Unitx MultiplierSecondary Unit
grains0.064799grams
0.002286ounces
0.000143pounds
0.000065kilograms
0.002083troy ounces
0.000174troy pounds
ounces437.500grains
28.3495grams
0.06250pounds
0.02835kilograms
0.911458troy ounces
0.075955troy pounds
pounds7000.00grains
453.592grams
16.0000ounces
0.453592kilograms
14.58333troy ounces
1.215278troy pounds
0.000500short tons
0.000446long tons
0.000453metric tons
grams15.4324grains
0.035274ounces
0.002205pounds
0.001000kilograms
0.032151troy ounces
0.002679troy pounds
Primary Unitx MultiplierSecondary Unit
kilograms15432.4grains
35.2740ounces
1000.00grams
2.20462pounds
32.15075troy ounces
2.679229troy pounds
0.001102short tons
0.000984long tons
0.001000metric tons
short tons2000.00pounds
907.185kilograms
0.892857long tons
0.907185metric tons
metric tons2204.62pounds
1000.00kilograms
1.10231short tons
0.984207long tons
long tons2240.00pounds
1016.05kilograms
1.12000short tons
1.01605metric tons
troy ounces480grains
31.10348grams
0.031103kilograms
1.09714ounces
0.068571pounds
0.083333troy pounds
troy pounds5760grains
373.2417grams
0.373242kilograms
13.16571ounces
0.822857pounds
12troy ounces
Table 10-5. Conversion Factors (Continued)
Table 10-5. Conversion Factors
68IQ plus 710 Installation Manual
Page 72
10.7Analog Output Calibration
The following calibration procedure requires a
multimeter to measure voltage or current output from
the analog output module. If the option is not already
installed, see Section 2.4 on page 6.
NOTE: The analog output must be calibrated after the
indicator itself has been configured (Section 3.0) and
calibrated (Section 4.0).
SOURCE
GROSS
NET
OFFSETERRACT
0%
20%
FULLSC
HOLD
ZEROSC
Figure 10-5. Analog Output Menu
1. Enter setup mode and go to the ALGOUT
menu (see Figure 10-5):
•Set OFFSET to 0% for 0–10 V output,
20% for 4–20 mA output
•Set MIN to lowest weight value to be
tracked by the analog output
•Set MAX to highest weight value to be
tracked by the analog output
2. Connect multimeter to connector J1 on the
analog output board:
3. Adjust zero calibration: Scroll to the
TWZERO parameter. Check voltage or
current reading on multimeter. Press and hold
or to adjust the zero value up or down.
4. Adjust span calibration: Scroll to the
TWSPAN parameter. Check voltage or
current reading on multimeter. Press and hold
or to adjust the span value up or down.
5. Final zero calibration: Return to the
TWZERO parameter and verify that the zero
calibration has not drifted. Press and hold
or to re-adjust the zero value as required.
10.8Test Mode
In addition to normal and setup modes, test mode
provides a number of diagnostic functions for the IQ
plus 710, including:
•Display raw A/D count
•Set digital outputs on and display digital input
states
•Reset configuration parameters to default
values
•Clear non-volatile (battery backed) storage
•Clear EEPROM
•Transmit test character (“U”) from serial port
•Display characters received by serial port
•Set analog output state to zero or full scale
•Set A/D offset and gain calibration
To enter test mode, press and hold the setup switch
until the front panel display shows the word
TEST. In
test mode, the front panel keys are mapped to the test
mode functions as shown in Figure 10-6 and
Table 10-6 on page 70.
A/D calibration functions, ADOFFS
Caution
after replacing A/D converter components. Improper A/D
calibration may render the indicator unusable.
The CLEAR EEPROM function erases both A/D and load
cell calibration data. The A/D converter and the scale
must be recalibrated after using this function.
and ADGAIN, must be used only by
qualified service personnel, and only
Appendix69
Page 73
DI/O1=DI/O3=DI/O4=
DI/O2=
DI/O6=DI/O5=DI/O8=DI/O7=
XMT UECHO R
EXIT
AOUT
=0
AOUT
=FS
EEPROM
Figure 10-6. Front Panel Key Functions in Test Mode
TEST Menu
FunctionDescription
DI/O1 —DI/O8Set digital output x high and display status of digital input x
Press and hold DI/Ox= key (see Figure 10-6) to show status of DIGINx (DIx=HI or DIx=LO).
AOUT=0Set analog output to zero
Press and hold the F1 key to set analog output to its zero value.
AOUT=FSSet analog output to full scale
Press and hold the F2 key to set analog output to its full scale value.
XMT UTransmit “U”
Press and hold the 1 key to send ASCII “U” characters (decimal 85) from the serial port.
ECHO REcho received characters
Press and hold the 2 key to view characters received at serial port.
NOTE: IQ plus 710 display shows lower-case characters as blanks.
A/D TESTDisplay A/D test
Press and hold the 7 key to display raw count from A/D converter.
CLEAR NVRAM Clear non-volatile storage
Press and hold the setup switch, then press the ENTER key to clear values stored in battery-backed SRAM,
including truck mode data, time, and date.
DEFAULTDefault parameters
Press and hold the setup switch, then press the 0 key to reset configuration and calibration parameters to
factory default values. Load cells must be recalibrated before using the indicator (see Section 4.0 on
page 33).
CLEAR EEPROM Clear EEPROM
Read Caution! statement on page 69 before using this function.
Press and hold the setup switch, then press the
A/D OFFSETA/D offset calibration (–0.5 mv/V)
Read Caution! statement on page 69 before using this function. Press and hold the setup switch,
then press the 8 key to perform offset calibration.
A/D GAINA/D gain calibration (+4.5 mv/V)
Read Caution! statement on page 69 before using this function. Press and hold the setup switch,
then press the 9 key to perform gain calibration.
EXITPress the 3 key to exit test mode.
. (decimal_point) key to clear EEPROM.
A/D
TEST
CLEAR
A/D
OFFSET
DEFAULT
A/D
GAIN
CLEAR
NVRAM
70IQ plus 710 Installation Manual
Table 10-6. Test Menu Functions
Page 74
10.9Software Upgrade Instructions
Use the following procedure to replace the IQ plus
710 EPROM:
1. Disconnect indicator from power source.
2. Place indicator face-down on an antistatic
work mat. Remove screws that hold the
backplate to the enclosure body.
Warning
3. Loosen all in-use cord grips then lift the
backplate away from the enclosure and set it
aside.
Caution
4. For units using the Rev. 1 CPU board with
cable interface board, remove the four screws
that secure the interface board to its mounting
brackets. The interface board must be moved
to access the EPROM in the following step.
5. Locate the EPROM (see Figure 2-1 on page
5). Carefully remove old EPROM from
socket.
6. Remove new EPROM from packaging and
place on top of empty socket. Ensure EPROM
is correctly oriented (notch toward center of
CPU board) and all pins are aligned with
socket. Press down firmly to seat new
EPROM in the socket.
Disconnect power before removing
indicator backplate.
Use a wrist strap to ground yourself and
protect components from electrostatic
discharge (ESD) when working inside
the indicator enclosure.
7. For units using the Rev. 1 CPU board with
cable interface board, reinstall board using
screws removed in Step 4.
8. Position backplate over the enclosure and
reinstall the backplate screws. Use the torque
pattern shown in Figure 2-2 on page 7 to
prevent distorting the backplate gasket.
Torque backplate screws to 10 in-lb (1.13
N-m).
9. Ensure no excess cable is left inside the
enclosure and tighten cord grips.
10. Reconnect power to the indicator.
11. Remove the setup switch access screw on the
indicator backplate then set the indicator
upright.
12. Press and hold the setup switch until the front
panel display shows the word
TEST. Two test
mode procedures must be performed before
using the new EPROM:
•Clear non-volatile RAM (CLR NV)
•Restore defaults (DEFLT)
13. Press the
ENTER key and the setup switch at
the same time to clear non-volatile RAM.
(See Figure 10-6 on page 70 for test mode
keypad functions.)
14. Press the
0 (zero) key and the setup switch at
the same time to restore defaults. The
indicator automatically returns to normal
mode when done.
15. Recalibrate and reconfigure the indicator.
10.10 Software Revision History
The following list summarizes the principal software
changes made for Version 1.4:
Enhanced Display Resolution
Up to 100 000 grads can be specified on the GRADS
parameter (CONFIG menu) and on the GRADS EDP
command.
HDRFMT Ticket Header Print Format Added
Contents of the HDRFMT format can be inserted into
any other ticket format using the <AE> formatting
command. See Section 6.0 on page 45 for details.
Improved Digital Filtering
Digital filter sensitivity (DFSENS) and threshold
(DFTHRH) parameters on the CONFIG menu provide
improved digital filtering capability for the IQ plus
710. These values can also be configured using the
DFSENS and DFTHRH EDP commands. See
Section 10.5 on page 67 for detailed information
about using these parameters.
Single-Transaction Tare Weights and IDs
Version 1.44 supports temporary tare weights for
indicators configured to use stored IDs (TARE100
modes 3–6). This function allows one-time weighing
of trucks without adding the truck ID and tare weight
to the indicator database. See Section 7.1.3 on page 50
for more information.
EDP Commands
Several commands have been added to the Version
1.44 EDP command set:
•LOCKON/LOCKOFF commands to lock the
keypad in normal mode. These commands
provide the same function as the KYBDLK
command.
•DON/DOFF commands to set individual digital
outputs on or off. See Table 5-10 on page 41.
•BATSTART, BATRESET, BATPAUSE,
BATSTATUS batching control commands. See
Section 5.1.6 on page 43 for detailed
information about these commands.
Appendix71
Page 75
10.11 Specifications
Power
Line Voltages115 or 230 VAC
Frequency50 or 60 Hz
Power Consumption100 mA @ 115 VAC (11.5 W)
50 mA @ 230 VAC (11.5 W)
Fusing
115 VAC2 x 160 mA TR5 subminiature fuses
Wickmann Time-Lag 19374 Series
UL Listed, CSA Certified and Approved
230 VAC2 x 80 mA TR5 subminiature fuses
Wickmann Time-Lag 19372 Series
UL Recognized, Semko and VDE
Approved
Analog Specifications
Full Scale Input Signal Up to 45 mV
Excitation Voltage10 ± 0.5 VDC,
8 x 350Ω or 16 x 700Ω load cells
Sense AmplifierDifferential amplifier with
4- and 6-wire sensing
Analog Signal Input Range0.6 mV/V – 4.5 mV/V
Analog Signal Sensitivity0.3 µV/graduation minimum,
1.5 µV/grad recommended
Input Impedance200 MΩ, typical
Noise (ref to input)0.3 µV p-p with digital filter at 4
Internal Resolution1 000 000 counts, approximate
Display Resolution100 000 dd
Measurement Rate60 measurements/sec, nominal
Input Sensitivity50 nV per internal count
System LinearityWithin 0.01% of full scale
Zero Stability150 nV/°C, maximum
Span Stability3.5 ppm/°C, maximum
Calibration MethodSoftware, constants stored in
EEPROM
Common Mode
Voltage± 4 V, referred to earth
Common Mode
Rejection140 dB minimum @ 50 or 60 Hz
Normal Mode
Rejection90 dB minimum @ 50 or 60 Hz
Input Overload± 12 V continuous, static discharge
protected
RFI ProtectionSignal, excitation, and sense lines
protected by capacitor bypass
Analog OutputOptional: fully isolated, voltage or current
output,14-bit resolution.
Voltage output: 0 –10 VDC
Load resistance:1kΩ minimum
Current output: 4–20 mA
External loop resistance: 500Ω maximum
Digital Specifications
MicrocomputerHitachi H8/3002 main processor @
9.8304 MHz
Digital Inputs8 inputs, TTL or switch closure,
active-low
Digital Outputs8 outputs, open collector with TTL
pullup, 250 mA sink, 40V withstand
Digital FilterSoftware selectable: 1–256, enhanced
Rattletrap
®
hybrid digital filtering
Serial Communications
EDP PortFull duplex RS-232 or RS-485
Printer PortRS-232 or active 20 mA current loop
Both Ports19 200, 9600, 4800, 2400, 1200, 600, 300
bps; 7 or 8 data bits; even, odd, or no
parity; two stop bits on transmit, one stop
bit on receive
Operator Interface
DisplayVacuum fluorescent display:
7-digit, 14-segment primary weight display;
Two 5x7 dot matrix digits for units, alpha/
numeric entry mode designators;
16-digit dot matrix display for additional
symbols, user prompts.
Keyboard29-key membrane panel
Environmental
Operating Temperature–10 to +40°C (legal);
–10 to +50°C (industrial)
Storage Temperature –25 to +70°C
Humidity0–95% relative humidity
Altitude2000 m (6500 ft) maximum
Enclosure
Enclosure Dimensions (without tilt stand)
Sloped Enclosure: 9.5 in x 8.38 in x 4.95 in
241 mm x 213 mm x 126 mm
Flat Enclosure:9.5 in x 8.38 in x 5.25 in
241 mm x 213 mm x 133 mm
Weight
Sloped Enclosure: 7.4 lb (3.3 Kg)
Flat Enclosure:7.8 lb (3.5 Kg)
Rating/MaterialNEMA 4X/IP66, stainless steel
Certifications and Approvals
O
C
N
F
L
E
A
R
N
E
O
I
N
T
C
A
E
N
•
•
O
N
S
E
W
R
E
U
I
S
G
A
H
E
T
S
M
A
D
N
NTEP
CoC Number98-081
Accuracy ClassIII/III Ln
Measurement Canada
ApprovalAM-5253
Accuracy ClassIIIn
max
III HDn
: 10 000
max
: 10 000
max
: 20 000
72IQ plus 710 Installation Manual
Page 76
IQ plus 710 Limited Warranty
Rice Lake Weighing Systems (RLWS) warrants that all RLWS equipment and systems properly installed by a
Distributor or Original Equipment Manufacturer (OEM) will operate per written specifications as confirmed by
the Distributor/OEM and accepted by RLWS. All systems and components are warranted against defects in
materials and workmanship for two years.
RLWS warrants that the equipment sold hereunder will conform to the current written specifications authorized
by RLWS. RLWS warrants the equipment against faulty workmanship and defective materials. If any equipment
fails to conform to these warranties, RLWS will, at its option, repair or replace such goods returned within the
warranty period subject to the following conditions:
•Upon discovery by Buyer of such nonconformity, RLWS will be given prompt written notice with a
detailed explanation of the alleged deficiencies.
•Individual electronic components returned to RLWS for warranty purposes must be packaged to
prevent electrostatic discharge (ESD) damage in shipment. Packaging requirements are listed in a
publication, Protecting Your Components From Static Damage in Shipment, available from RLWS
Equipment Return Department.
•Examination of such equipment by RLWS confirms that the nonconformity actually exists, and was
not caused by accident, misuse, neglect, alteration, improper installation, improper repair or
improper testing; RLWS shall be the sole judge of all alleged non-conformities.
•Such equipment has not been modified, altered, or changed by any person other than RLWS or its
duly authorized repair agents.
•RLWS will have a reasonable time to repair or replace the defective equipment. Buyer is responsible
for shipping charges both ways.
•In no event will RLWS be responsible for travel time or on-location repairs, including assembly or
disassembly of equipment, nor will RLWS be liable for the cost of any repairs made by others.