Automated Logic G4106 Owner's manual

1
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
G4106 (Module Driver v4.7)
Technical Instructions
Contents
Introduction .................................................................................................. 2
Specifications............................................................................................... 2
Mounting....................................................................................................... 2
AddressingandBaudRates........................................................................ 3
SettingtheAddress ............................................................................... 3
Setting the CMnet Baud Rate ............................................................... 3
Power Wiring ............................................................................................... 3
CommunicationsWiring.............................................................................. 4
UniversalInputs ........................................................................................... 4
Procedure .............................................................................................. 5
CustomTranslationTables ......................................................................... 7
Procedure .............................................................................................. 7
DigitalOutputs.............................................................................................. 8
Procedure .............................................................................................. 8
Manual Operation ................................................................................. 8
AnalogOutputs ............................................................................................ 8
Procedure .............................................................................................. 8
Downloading Memory ................................................................................. 9
LEDs .............................................................................................................. 9
LEDIdentification .................................................................................. 9
LED Power-up Sequence...................................................................... 9
Checkout&Troubleshooting .................................................................... 10
Manually Formatting the Module ............................................................. 10
Fuses ........................................................................................................... 11
Production Date ......................................................................................... 11
Module Driver............................................................................................. 12
Parameter Page .................................................................................. 12
Status Page.......................................................................................... 12
Channel Numbers ...................................................................................... 13

2
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
Introduction
The G4106 is a microprocessor-based control module
designed for Direct Digital Control of HVAC equipment.
A single main board provides the power circuitry, the
microprocessor, non-volatile memory, and removable
screw terminals for I/O connections.
Although the G4106 does not provide expansion or
virtual module capability, it can be programmed with up
to 14 Graphic Function Blocks.
Specifications
Power: 24 VAC ±10%, 50-60 Hz, 25VA power
consumption.
Protection: Built-in surge and transient protection
circuitry. Optically isolated communications.
Memory: 32k byte non-volatile read/write memory, 32k
byte EPROM.
Battery: Seven year lithium battery provides a
minimum of 10,000 hours of data retention during power
outages.
Local Interface: Plug-in connector for laptop or
handheld terminal.
Communication: Selectable for 9600 or 38.4k bps.
Software Requirements: One G6N module driver
as FB #15.
Operating Temperature Range: 0-130 °F
(-17.8-54.4 °C), non-condensing.
A/D Input Resolution: 10 bit.
Listed By: PAZX (UL 916), CSA C22.2.
Mounting
Mount the G4106 in a panel using the four holes provided
on the cover plate. Be sure to leave about 2 inches on
each side for wiring.
NOTE: The G4106 module must be mounted inside the
building envelope. Mounting outside voids all
warranties.
Figure 1: G4106 dimensions
R

3
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
Addressing and Baud Rates
NOTES:
1. Before setting the address, remove power from the
module.
2. After setting the address, you must download memory
to the module.
Setting the Address
The address DIP switch (see Figure 2) is configured with
eight individual sliding ON or OFF switches. Only the
first seven switches, counting from right to left, are used
for addressing. The value of each switch is indicated
directly above the individual switch. The module's
address is found by taking the sum of the switch values in
the on position. As shown in the example, switches one
and three are in the ON position. Therefore, this module's
address is five.
1. Turn the G4106's power switch OFF.
2. Set the G4106's address and baud rate using the
8-position dip switch (see Figure 1 for location).
3. Turn the G4106 module's power ON. If the address
has been changed, the module's Error LED will turn
ON.
4. To begin communication and to turn the Error LED
OFF, download memory to the module as described
later in this document.
Example:
Power Wiring
CAUTION: GX-Line controllers are Class 2 devices (less
than 30VAC). Take appropriate isolation measures when
mounting the GX-Line in a control panel where Class 1
devices (120 VAC) or wiring are present.
NOTE: Whenever possible, terminate and verify power
and communications to all modules before terminating
any inputs and outputs.
Multiple modules can be powered from the same
transformer as long as the proper polarity is observed. The
number of modules that can be hooked up to a single
transformer is based on the VA rating of the transformer
and on the VA requirements of the modules. For example,
if the transformer is rated for 50 VA and it is connected to
a G8102e (rated for 25 VA) and a X4106p (rated for 40
VA), then the transformer has been exceeded by 15 VA (25
VA + 40 VA = 65 VA). The size of the transformer would
have to be increased by at least 15 VA in order to properly
drive the modules under all circumstances. Measuring the
voltage level at the power terminals is not an accurate
method of determining accurate power because it could
result in selecting a transformer that is undersized for the
worst case scenario (i.e. all inputs and outputs driven to
maximum), resulting in a module brownout.
Automated Logic products are rated at 24 VAC ±10%.
This gives an operating range of 21.6 VAC to 26.4 VAC
RMS. Functional operation of the module is not
guaranteed if the voltage drops below 21.6 VAC or goes
above 26.4 VAC at the power input terminals to the
module (not the transformer).
NOTE: Pilot relays should NOT be powered from
thesametransformerwhichpowerstheGXboards.
1. Verify that the G4106 is addressed correctly (see
Figure 2).
2. Turn the G4106's power switch OFF. This prevents
the module from being powered up until proper
voltage is verified.
3. Make sure that the power source is OFF.
4. Terminate the two power wires to the screw terminals
indicated in Figure 5.
NOTE: Multiple boards(G or X) poweredfromthe
same transformer should observe the same polarity.
5. Terminate power to the transformer.
6. Turn the power source ON.
Figure 2: Setting the Modules Address
Setting the CMnet Baud Rate
The baud rate for the CMnet is set using the same DIP
switch as with setting the address. As shown in Figure 2,
only the first switch position, counting from left to right,
is used for the baud rate. As shown in the example, switch
number one is in the ON position. Therefore, the module's
CMnet baud rate is set at 38.4k bps.
The G4106 module has the capability of communicating
with the CMnet at a baud rate of 9600 or 38.4k bps.
Baud 64 32 16 8421
Switch values
for ON Position
38.4k bps
9600 bps
O
N

4
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
Universal Inputs
A total of 200mA is supplied to these inputs for 4-20mA
transducer wiring. If the total current required by all of the
transducers is greater than 200mA, an additional power
supply is needed. In order to check this, measure the
voltage between the "B" terminal and the ground of the
module. It should read between 18VDC and 24VDC. If it
reads less than 18VDC then the total current required is
greater than 200mA.
The G4106 provides ten universal inputs which are wired
as shown in Figure 4 and 5. These inputs may accept the
following signals.
Thermistor: 10k Ohm @ 77 °F (Precon type 2).
0-5 VDC: The output impedance of a 0-5 VDC source
should not exceed 10k Ohms. The input impedance of the
G4106 module is approximately 1M Ohm.
0-20 mA: 24 VDC loop power, 250 Ohm input
impedance.
NOTE: For a 4-20 mA passive transducer having 12V
loop input, place a 10 V, 1 W Zener diode (1N4740A) in
series with the sensor as shown in Figure 5. Without the
diode the sensor circuitry could overheat when connected
to the 24 VDC supplied by the module, causing false high
readings.
Figure 3: Wiring power and communications
7. Verify that there is 24Vac at the power terminals with
a voltmeter.
8. Turn the G4106's power switch ON and verify that the
module powers up properly.
Communications Wiring
NOTE: ALC recommends using the Network Protection
Board (ALC part no. NWPB) for guarding against
lightning-induced damage.
1. Check the CMnet wiring for shorts and grounds.
2. Turn the G4106's power switch OFF.
3. Terminate the CMnet communications wires to the
G4106 termination strip indicated in Figure 3. Be
sure to follow the same polarity as used throughout
the rest of the CMnet.
4. Turn the G4106's power switch ON.
5. Verify communications with the G4106 board (from
the Workstation or from a Direct-Network connected
computer) by requesting a module status (modstat)
using Netscan software.

5
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
NOTE: In most cases, a 4-20 mA passive transducer does
not require an external power supply (see Figure 6). In
some special cases, when the module’s power is limited, a
4-20 mA passive transducer does require and external
power supply to avoid power consumption from the
module.
Dry Contact: 0.5 mA maximum sense current. Some
current switches that are not true dry contact closures may
not go to zero ohms when the switch is closed. Any
switch which has more than 412 Ohms effective resistance
(0.2V) when closed must have an interposing mechanical
relay when used with G4106 modules.
Procedure
1. Turn the G4106's power switch OFF.
2. Terminate the input wiring to the left termination
strip as shown in Figures 5 and 6.
Figure 5: I/O wiring
Figure 4: Correct input jumper orientation
and gripping method
3. Set the input configuration jumper according to the
type of signal as shown in Figures 5 and 6.
NOTE: The jumper orientation is critical - see
Figure 4. The jumpers are fragile; grip them only
on the sides shown in Figure 4.
4. Turn the G4106's power switch ON.
+
-
+
-

6
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
Figure 6: I/O Wiring
+
-
+
-
-
+
-
+
-
+
+
-
-
+
+
-

7
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
The resistance values of the slidepot in Figure 8 (left
column) were obtained by measuring the resistance
of the positions of the slidepot in 1/8 increments (far
left, 1/8, 1/4, 3/8... far right).
NOTE: The lowest resistance range allowed on a
slidepot input is 5k Ohms. This guarantees that sufficient
resistance exists between steps to allow for good linear
approximation.
Note that the slidepot input values (see Figure 9,
right column) are defined with a setpoint-bias rather
than absolute temperatures. The GFB can be
designed to multiply these input values by a user-
definable parameter as the slidepot is adjusted and
then add the result to the zone setpoint. This method
allows you to globally modify the above parameter
for all function blocks in the module instead of
changing the lookup table parameters for each zone.
7. Download parameters to this FB.
8. To activate these tables enter the gain of the
translation table used (either 15.00 or 15.06) on the
FB parameter pages that contain the input for which
the table applies. Set the offset to 0.00.
Custom Translation Tables
In addition to the inputs already mentioned, it is possible
to create translation tables for non-standard thermistor or
slidepot inputs. Provided on the parameter page of the
G4106 module driver (see Figure 14) are two user
definable tables for translating these inputs.
The following are typical applications for the custom
translation tables:
•Thermistors other than Type 2 (such as Type 3).
•Slide potentiometer inputs.
•Non-linear voltage inputs. (0-5 VDC maximum
range)
These tables use a 10 point linear translation method to
approximate a non-linear curve of resistance or voltage to
the desired units.
Procedure
1. Display the G4106 module driver parameter page (FB
#15) in SuperVision.
2. For thermistor, slidepot, and other resistance inputs
set the option "Is input specified in voltage?" to NO.
For voltage inputs, set the option to YES.
3. Determine the accuracy and range needed. Note the
following:
•Values which lie between two defined entries are
interpolated linearly by the FB.
•The first and last entries of the resistance table
should always be set to zero and infinity (32767x
10 represents infinity) in the event that the sensor
should short or open. In the case of voltage
inputs, the first and last input voltages should be
set to zero and 5 V. These are the default values.
4. Determine the resistance or voltage at the desired
settings. This information may be obtained either
from manufacturer reference tables or through testing.
5. Select a custom translation table that is not currently
in use. Record the custom gain from this table for use
when defining inputs which will reference this custom
translation table in the module.
6. Enter the scaled voltage or resistance input on the left
and then enter the corresponding value on the right
(see Figures 7 and 8 for examples).
Figure 7: Example Custom Table for a Precon Type 3
ThermistorSensor
Input Ohms Input Value
0 x 10 Ohms = 300
230 x 10 Ohms = 150
405 x 10 Ohms = 120
752 x 10 Ohms = 90
935 x 10 Ohms = 80
1172 x 10 Ohms = 70
1478 x 10 Ohms = 60
1879 x 10 Ohms = 50
2406 x 10 Ohms = 40
7032 x 10 Ohms = 0
32767 x 10 Ohms = -60.8

8
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
Figure 8: Example Custom Table
for a Sample Slidepot
(Tested Resistance Entered on the Left)
Digital Outputs
The G4106 provides four digital outputs which are wired
as shown as shown in Figures 5 and 6. These outputs are
described as follows: 24 VAC or VDC maximum, each
configurable as dry contact and as normally open or
normally closed.
Contact Rating: 3Ampmaximum
Procedure
1. Turn the G4106's power switch OFF.
2. Terminate the output wiring to the right termination
strip as shown in Figures 5 and 6.
NOTE: Pilot relays should NOT be powered from
thesametransformerwhichpowerstheGXboards.
3. Turn the G4106's power switch ON.
Manual Operation
By setting the HOA switches (see Figure 9), each digital
output can be placed in ON, OFF, or AUTO mode. The
position of the HOA switches may be monitored through
channels 81-88. Channel 81 corresponds to channel 11,
channel 82 corresponds to channel 12, etc. A status of
OFF on these channels indicates the switch is set to AUTO
mode. A status of ON indicates the switch is set to either
ONorOFFmode.
Figure 9: G4106's HOA Switch
Analog Outputs
The G4106 provides six analog outputs. These outputs
are described as follows.
Voltage Mode (0-10 VDC): 1k Ohm minimum load
impedance.
CurrentMode(4-20mA):
While the G4106's analog outputs are designed to output
voltage, it is possible to use these outputs to drive current
mode devices. To do this, wire a 1/2 Watt resistor in series
with the resistive load, as shown in Figures 5 and 6. The
value of the series resistor is determined as follows:
RSERIES =500Ohms-RLOAD
NOTE: If your load resistance is greater than 500 ohms,
your full scale output will be less than 20 mA.
Example: We want to drive a 100 Ohm resistive load
with a 0-20 mA signal. To find the value of the series
resistor, subtract the load resistance from 500 Ohms:
RSERIES =500Ohms-RLOAD
RSERIES = 500 Ohms - 100 Ohms = 400 Ohms
This example is shown in Figures 5 and 6.
Procedure
1. Turn the G4106's power switch OFF.
2. Terminate the output wiring to the right termination
strip as shown in Figure 3.
3. Turn the G4106's power switch ON.
Input Ohms Input Value
0 x 10 Ohms = -1.00
474 x 10 Ohms = -1.00
607 x 10 Ohms = -0.75
910 x 10 Ohms = -0.50
1210 x 10 Ohms = -0.25
1540 x 10 Ohms = 0.00
1860 x 10 Ohms = 0.25
2150 x 10 Ohms = 0.50
2360 x 10 Ohms = 0.75
2400 x 10 Ohms = 1.00
32767 x 10 Ohms = 1.00

9
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
Transmit - lights when the G4106 transmits data over the
CMnet.
Receive - lights when the G4106 receives data from the
CMnet.
Digital Output Status - lights up when an output is
activated.
LED Power-up Sequence
During power-up, the module goes through an
initialization and self test sequence. Proper module
power-up can be verified by observing the LEDs as
follows:
1. The Run and Error LEDs turn on and begin blinking.
2. The Error LED will then turn off.
3. The Run LED will continue blinking.
If the module is not responding and the LEDs do not
appear to be going through the appropriate initialization,
call Technical Support for assistance.
Downloading Memory
Use the following procedure to download memory into the
GX-Line modules. If you have any problems during this
procedure, contact Technical Support.
1. Log into SuperVision, SuperVision for Windows, or
Vision Plus using a Workstation or portable computer
that is Direct-Connected, Modem-Connected, or
connected directly on the ALC network. When
downloading multiple modules, a Direct-Network
connection will yield the fastest memory download
time.
2. Get a Modstat of the real module address by pressing
the [esc] and typing:
MO ,,(module no.), 15
NOTE: The module no. is the same as the module's
address. If the module is on-line and communicating,
this command will bring up a Modstat page.
3. Look at the Modstat page and verify that the module
type and number agrees with the module to be
downloaded.
4. Issue these commands:
Download,Memory,ThisModule.
5. When the memory download is finished obtain the
Modstat page. Check the screen display's FB List to
verify that the FBs you intended to download are in
the module.
LEDs
LED Identification
The G4106 LEDs are identified as follows (see Figure 10
for location):
Run - blinks when the processor is running.
Error - lights when an error is detected.
Main Power - indicates power is being supplied to the
module.
Communications Power - indicates power is being
supplied to communications circuitry.
Logic Power - indicates power is being supplied to logic
circuitry.
Figure 10: G4106 LED Identification
R

10
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
Manually Formatting the Module
Manually formatting the module does not require
communication with the module. Use this procedure as a
last resort when there is no communication with the
module. Although downloading memory overwrites all
existing memory, it requires communication in order to
intiate the download.
WARNING: Formattingthemoduleerasesall
downloaded memory. The Downloading Memory
proceduremustbe followedafterformatting.
1. Turn the G4106's power switch OFF.
2. Set all eight of the G4106's address and baud rate dip
switches to the ON position (see Figure 1 for
location).
3. Turn the G4106 module's power ON.
4. Watch the LEDs on the G4106 go through the
intialization process.
5. Turn the G4106's power switch OFF.
6. Set the G4106's address and baud rate using the 8-
position dip switch (see Figure 1 for location).
7. Turn the G4106 module's power ON.
The module is now formatted.
Checkout & Troubleshooting
Checkout is performed using either the Workstation or a
portable computer that is Direct-Network (DN) connected
to the module. To use a portable computer, connect the
NI485N cable to the 5-pin connector (see Figures 1 and 11
for location).
NOTE: Do NOT separate the NI485N cable adapter with
the LED on it from the rest of the cable. This adapter
contains circuitry essential for proper communication.
NOTE: You may only connect to the Direct Network
Connection port using direct network connection. To do
this in NetScan, issue the NU command and enter
"DNx4"(where "x" equals the COM port number for
connection) before connecting. A Direct Network
Connection cannot be used to recieve alarms or get colors.
Check each input by manually causing each sensor to
establish a known condition and then compare that to the
condition reported on the Function Block Status page.
Check each output by locking it to a known condition on
the Function Block parameter page and then observing
that equipment's operation.
Figure 11: Using the G4106's Direct Network
Connection port
NETWORK (NET)
ISOLATE (ISO)
G4106 is ON CMnet.
Portable PC can communicate with
G4106 andother modules on CMnet.
G4106 is OFF CMnet.
Portable PC can communicate only
with G4106 module.
NI485N SWIT CH
PC to G4106 Access Port
EFFECT
CMnet
NI485N Cable

11
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
Fuses
The G4106 is protected by two 0.5 A pico fuses on the
CMnet (+) and (-) terminals, and by one 3.0 A pico fuse on
the 24 VAC power terminal. See Figure 12 for their
location.
A blown fuse can indicate incorrect wiring , such as
reversed polarity, if the fuse blows during installation. In
most cases, a power surge to the board will be the cause of
the blown fuse.
An RMA is not necessary to replace these fuses. The fuses
are socketed and are field-replaceable. A kit is available
which contains 25 each of the four different types of fuses
that can be used to replace blown fuses (ALC part no.
FUSEPKG).
Figure 12: Power and CMnet Fuses
Production Date
The production date of the module can be determined by a
sticker on the back of the module. The first three
characters indicate the type of module. The next three
indicate the date (year/month/week) of manufacture. The
month digit is in hexadecimal. The last four characters are
ALC production codes.

12
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
Module Driver
Parameter Page
Function Block Type: G6N (Module G4106)
Name CM 03 G4106 Line 1 GCM 1 CM 3 FB 15 Flags —
ID ID14 Tele NB All Options Y Type 61 Ver 1
Alarms Enabled ———— Text 1 0 0 0 0 0 0 11
Messages Enabled ———— Text 0 0 0 0 0 4 0 0
This is the translation table for the custom gain of 15.00.
Is input specified in voltage? NO .
0 x10 Ohms = 296.0
143 x10 Ohms = 168.8
334 x10 Ohms = 125.6
599 x10 Ohms = 98.69
779 x10 Ohms = 87.44
1000 x10 Ohms = 77.00
1285 x10 Ohms = 66.88
1666 x10 Ohms = 56.75
3007 x10 Ohms = 34.94
6995 x10 Ohms = 6.38
32767x10 Ohms = -60.2
This is the translation table for the custom gain of 15.06.
Is input specified in voltage? YES.
0 Millivolts = 0.00
500 Millivolts = 50.00
1000 Millivolts = 100.0
1500 Millivolts = 150.0
2000 Millivolts = 200.0
2500 Millivolts = 250.0
3000 Millivolts = 300.0
3500 Millivolts = 350.0
4000 Millivolts = 400.0
4500 Millivolts = 450.0
5000 Millivolts = 500.0
Mask Outside Air Invalid condition? NO
This module should display old-style FB trends NO
Enable debug screen NO (for Tech Support use)
Status Page
Function Block Type: G6N (Module G4106)
Name CM 03 G4106 Line 1 GCM 1 CM 3 FB 15 Flags —
ID ID14 Tele NB All Options Y Type 0 Ver 0
Active Alarms ———— Active Messages ———— Status-Code 0
Real Module Address 0
This module contains the following function blocks:
Trending Information:
FB Exp Chan Trending Interval Samples
— —— —— ———— ———— ———

13
Rev (29-AUG-97) • Module Driver v4.7 © 1995-97 Automated Logic Corporation
§ For ALC 0-20mA sensors, use the offset & gain printed on the sensor. Otherwise, use the Point Help feature of
SVW 2.0 or later.
†Degrees Celsius can only be displayed in SVW 1.1 or later when the GFB is made in Eikon 2.0 or later with the "METRIC=TRUE"
command set in the alc.ini file.
Channel Numbers
I/O Type Signal
Type Channel Number † Range Offset Gain
UI 1 Thermistor 31 -17-213°F 0.00 15.88
-27-100.6°C 0.00 15.69
UI 2 Thermistor 32 -17-213°F 0.00 15.88
-27-100.6°C 0.00 15.69
UI 3 Thermistor 33 -17-213°F 0.00 15.88
-27-100.6°C 0.00 15.69
UI 4 Thermistor 34 -17-213°F 0.00 15.88
-27-100.6°C 0.00 15.69
UI 5 Thermistor 35 -17-213°F 0.00 15.88
-27-100.6°C 0.00 15.69
UI 6 Thermistor 36 -17-213°F 0.00 15.88
-27-100.6°C 0.00 15.69
UI 7 Thermistor 37 -17-213°F 0.00 15.88
-27-100.6°C 0.00 15.69
UI 8 Thermistor 38 -17-213°F 0.00 15.88
-27-100.6°C 0.00 15.69
UI 9 Thermistor 39 -17-213°F 0.00 15.88
-27-100.6°C 0.00 15.69
UI 10 Thermistor 3A -17-213°F 0.00 15.88
-27-100.6°C 0.00 15.69
UI 1 mA or Volts 31 0-20 mA
0-5 V § §
UI 2 mA or Volts 32 0-20 mA
0-5 V § §
UI 3 mA or Volts 33 0-20 mA
0-5 V § §
UI 4 mA or Volts 34 0-20 mA
0-5 V § §
UI 5 mA or Volts 35 0-20 mA
0-5 V § §
UI 6 mA or Volts 36 0-20 mA
0-5 V § §
UI 7 mA or Volts 37 0-20 mA
0-5 V § §
UI 8 mA or Volts 38 0-20 mA
0-5 V § §
UI 9 mA or Volts 39 0-20 mA
0-5 V § §
UI 10 mA or Volts 3A 0-20 mA
0-5 V § §
I/O Type Signal
Type Channel Number Range Offset Gain
UI 1 Digital 21 - - -
UI 2 Digital 22 - - -
UI 3 Digital 23 - - -
UI 4 Digital 24 - - -
UI 5 Digital 25 - - -
UI 6 Digital 26 - - -
UI 7 Digital 27 - - -
UI 8 Digital 28 - - -
UI 9 Digital 29 - - -
UI 10 Digital 2A - - -
DO 1 Digital 11 - - -
DO 2 Digital 12 - - -
DO 3 Digital 13 - - -
DO 4 Digital 14 - - -
AO 1 Analog 41 0-10 VDC 0.00 0.0625
AO 2 Analog 42 0-10 VDC 0.00 0.0625
AO 3 Analog 43 0-10 VDC 0.00 0.0625
AO 4 Analog 44 0-10 VDC 0.00 0.0625
AO 5 Analog 45 0-10 VDC 0.00 0.0625
AO 6 Analog 46 0-10 VDC 0.00 0.0625