Before installing or starting this unit for the first
time, this manual should be studied carefully to
obtain a working knowledge of the unit and or the
duties to be performed while operating and
maintaining the unit.
RETAIN THIS MANUAL WITH UNIT. This Technical
manual contains IMPORTANT SAFETY DATA and
should be kept with the unit at all times.
Before installing or operating theX-IRI GATEWAY, take
time to carefully read all the instructions contained
in this manual, all compressor manuals, and all
manuals of any other peripheral devices that may be
installed or connected to the unit.
Electricity and compressed air have the potential to
cause severe personal injury or property damage.
The operator should use common sense and good
working practices while operating and maintaining
this system. All applicable codes should be strictly
adhered to.
Maintenance must be performed by adequately
qualified personnel that are equipped with the
proper tools.
INSTALLATION
Installation work must only be carried out by a
competent person under qualified supervision.
A fused isolation switch must be fitted between the
main power supply and the product.
The X-IRI GATEWAY should be mounted in such a
location as to allow operational and maintenance
access without obstruction or hazard and to allow
clear visibility of indicators at all times.
If raised platforms are required to provide access
to the X-IRI GATEWAY, they must not interfere with
normal operation or obstruct access. Platforms and
stairs should be of grid or plate construction with
safety rails on all open sides.
•
•
•
•
•
•
•
•
OPERATION
The X-IRI GATEWAY must only be operated by
competent personnel under qualified supervision.
Never remove or tamper with safety devices, guards
or insulation materials fitted to the X-IRI GATEWAY.
The X-IRI GATEWAY must only be operated at
the supply voltage and frequency for which it is
designed.
When main power is switched on, lethal voltages are
present in the electrical circuits and extreme caution
must be exercised whenever it is necessary to carry
out any work on the unit.
Do not open access panels or touch electrical
components while voltage is applied unless it is
necessary for measurements, tests or adjustments.
Such work should be carried out only by a qualified
electrician equipped with the correct tools and
wearing appropriate protection against electrical
hazards.
All air compressors and/or other equipment
connected to the unit should have a warning sign
attached stating “THIS UNIT MAY START WITHOUT
WARNING” next to the display panel.
If an air compressor and/or other equipment
connected to the unit is to be started remotely,
attach two warning signs to the equipment stating
“THIS UNIT CAN BE STARTED REMOTELY”.
Attach one sign in a prominent location on the
outside of the equipment, and the other sign inside
the equipment control compartment.
•
•
•
•
•
•
•
The X-IRI Communication Gateway is designed to
in
terface the Intellisys Controllers on Ingersoll Rand
Compressors with a Distributed Control System (DCS),
Programmable Logic Controller (PLC), or any other
device that is capable of communicating using the
MODBUS RTU communications protocol.
SECTION 3 SAFETY PRECAUTIONS
SAFETY PRECAUTIONS
The X-IRI provides MODBUS connectivity to Ingersoll Rand controllers that do not have built-in MODBUS
capability. The X-IRI also provides address filtering and
communication buffering capabilities to protect the
integrity of the serial data network.
The X-IRI is designed to be DIN Rail mounted within the
compressor control gear enclosure but can alternatively
be mounted remotely within a separate enclosure.
3
Page 4
MAINTENANCE AND REPAIR
M
aintenance, repairs or modifications must only
•
be carried out by competent personnel under
qualified supervision.
If replacement parts are required, use only genuine
•
parts from the original equipment manufacturer, or
an alternative approved source.
Carry out the following operations before opening
•
or removing any access panels or carrying out any
work on the X-IRI GATEWAY:
Isolate the X-IRI GATEWAY from the main
i.
electrical power supply. Lock the isolator in the
“OFF” position and remove the fuses.
Attach label to the isolator switch and to the
ii.
unit stating “WORK IN PROGRESS - DO NOT
APPLY VOLTAGE”. Do not switch on electrical
power or attempt to start the X-IRI GATEWAY if
such a warning label is attached.
Make sure that all instructions concerning
•
operation and maintenance are strictly followed
and that the complete unit, with all accessories and
safety devices, is kept in good working order.
The accuracy of sensor devices must be checked
•
on a regular basis. They must be calibrated when
acceptable tolerances are exceeded. Always ensure
any pressure within the compressed air system is
safely vented to atmosphere before attempting to
remove or install a sensor device.
•
The X-IRI GATEWAY must only be cleaned with a
damp cloth, using mild detergents if necessary.
Avoid the use of any substances containing
corrosive acids or alkalis.
Do not paint the control faceplate or obscure any
•
indicators, controls, instructions or warnings.
4
Page 5
SECTION 4 COMPRESSOR CONNECTION AND CONTROL
Setting a MODBUS polling rate of less than 500
milliseconds will not cause a quicker response from X-IRI.
The PLC or DCS communicates to the X-IRI Gateway via
a two wire, RS-485 network utilizing the MODBUS RTU
protocol.
The X-IRI Gateway module is installed within the
compressor control cabinet and connected to the PLC or
DCS using Belden 9841 or equivalent RS-485 cable.
INTELLISYS SOFTWARE REQUIREMENTS
Each Intellisys controller must have its controller
software revision at or above a certain minimum level
to work with the IRI.
The machine types and required software EPROM
minimum version levels are listed below. Check the
machine to be connected to an IRI for the appropriate
EPROM. If the EPROM is not of the correct minimum
version level, the appropriate EPROM may be ordered
from your local Ingersoll Rand Distributor or Air Center.
Machine Type EPROM Minimum Version Level
SSR 50-450 Horsepower - 1 stage (Red Eye)2.3
SSR 50-450 Horsepower - 2 stage (Red Eye)2.3
SSR SG1.0
15-50 Horsepower1.4
Sierra 50-100 Horsepower (SE)1.2
Sierra 100-200 Horsepower (Red Eye)2.5
Sierra 125-400 HP SG1.0
Recip (Red Eye)1.6
Recip SG1.0
Nirvana SGN1.0
Nirvana SGNe CC2.0
Nirvana SGNe OF1.0
Pegasus1.0
ESA SE 22-150 KW1.6
When monitoring compressor data only, no options
are required to be installed in the Intellisys controller. If
machine control is desired, the Remote Start/Stop and
Sequence options must be installed and turned “On”.
COMPRESSOR CONNECTION AND CONTROL
T
he X-IRI Gateway module is designed to interface to
any Ingersoll Rand Intellisys controlled compressor. All
Ingersoll Rand compressors equipped with Intellisys
controllers must use this interface when communicating
with MODBUS masters.
The X-IRI gateway prevents the compressor controller
from seeing any communications that aren’t directed
toward the controller’s network address. Additionally, the
X-IRI will buffer communications so that the compressor
controller will not receive a command greater than once
every 500 milliseconds.
5
Page 6
MODBUS RTU
A pause longer than 1.5 byte-times will render the
message invalid and it will be ignored.
Message data format is dependent on function and will
consist of a combination of the following elements:
1) Destination address (slave network address)
2) Function Code
3) Data start address (slave register start address)
4) Number of registers, number of bytes of data
5) Message data
6) CRC checksum
Message Destination Address
The ‘destination address’ must be correct for the ‘slave’
controller device for which the message is intended. An
address can be from 1 to 127 decimal (01Hex to 7FHex).
The SMG Box is transparent and addresses must be for the
destination ‘slave’ controller or unit. Each controller or unit
must be set with a unique address.
Slave
Address
Function
Code
Start
Address
Number of
Registers
CRC Check
Sum
220300 6F 00 02 F3 45
Slave Address = 22Hex = 34 Decimal
Message Function Codes
The message function code defines the required data
processing operation of the slave controller. Although
several types of message function codes are defined by
the MODBUS standard, only the message function code
types working directly with registers are implemented on
controller units:
03H Read Holding Register(s) – Read
06H Preset Single Register - Write
Slave
Address
Function
Code
Start
Address
Number of
Registers
CRC Check
Sum
220300 6F 00 02 F3 45
Function Code = 03 = Read Holding Register.
Any other message function code type will result in
an EXCEPTION response.
This document discusses generic MODBUS
communications and how to implement the software
specific ‘MODBUS Table’ information. MODBUS
communication formatting may differ from controller to
controller and you may require more than one ‘MODBUS
Table’.
Always check the software variant identification and
version number for a controller with the variant and
version of the ‘MODBUS Table’ supplied. In some instances
the information contained in a ‘MODBUS Table’ may not
be applicable to a controller installed with the same
software variant but a different version number.
General
MODBUS RTU (Remote Terminal Unit) is a master-slave
type protocol. An Intellisys Controller functions as the
slave device. Information requests or commands are
communicated from master to slave only through the
X-IRI.
The X-IRI will always respond to communications from a
remote master device in accordance with the MODBUS
RTU protocol standard.
The MODBUS protocol is used to communicate with
personal computers (PC), Programmable Logic Controllers
(PLC’s), or Distributed Control Systems (DCS) over the
Network port. The X-IRI only responds to two MODBUS
commands, Read Holding Register 03 (03 Hex) and Preset
Single Register 06 (06 Hex). (See Modicon MODBUS
Protocol Reference Guide, PI-MBUS-300 Rev. J or later, for
more details on MODBUS).
Communication Link
MODBUS is implemented using a two-wire RS485
industry standard communications link operating in
master-slave mode.
RS485 Serial Data Format
The RS485 MODBUS port is a 2-wire operating with an
asynchronous serial data format: 8 data bits / no parity / 1
or 2 stop bits (8,N,1 or 8,N,2) - transmitted at 9600 baud.
Message Data Format
The bytes of the MODBUS RTU message must be sent
in one message package. The RTU protocol allows for a
maximum pause of 1.5 byte-times between 2 consecutive
bytes of a message.
6
Page 7
Message Data Start Address
Slave
Address
Function
Code
Start
Address
Number of
Registers
CRC Check
Sum
220300 6F 00 02 F3 45
Start Address = 6F = 40112
High-byte transmitted first followed by low-byte.
Message Data
The message data content depends on the message
function code type.
03H Read Holding Register(s)
The Number of Registers designates the 16bit integer
value that determines the size (in 16bit ‘word’ registers)
of the message data being requested. This is the number
of 16bit registers to read. This information is contained in
the ‘MODBUS Table’.
A maximum of 32 registers can be read at one time.
Slave
Address
Function
Code
Start
Address
Number of
Registers
CRC Check
Sum
220300 6F 00 02 F3 45
The example above is a request to read offline pressure
(register 40112) and online pressure (register 40113) from
X-IRI address 22(Hex)
06H Preset Single Register
The Data byte 0 byte 1 designates the value of the 16bit
integer word to be written to the Intellisys controller. This
information is contained in the ‘MODBUS Table’.
Slave
Address
Function
Code
Start
Address
DATA
byte0byte1
CRC Check
Sum
220600 6F 00 5F FE BC
The example above is a request to set offline pressure
(register 40112) to 95 through X-IRI address 22(Hex).
Message CRC Checksum
The CRC (Cyclical Redundancy Check) is a check-sum
generated by means of ‘A001H polynomial’.
Slave
Address
Function
Code
Start
Address
DATA
byte0byte1
CRC Check
Sum
220600 6F 00 5F FE BC
The CRC is two bytes containing a 16-bit binary value
(word). The CRC value is calculated by the transmitting
device that appends the CRC to the end of the message.
The receiving device recalculates the CRC value prior
to processing of a received message and compares the
result to the actual CRC value appended to the message.
If the two values do not match the message is regarded
as invalid.
The CRC is initiated by first preloading a 16bit register
to all 1’s (FFFF Hex). Then a process begins of applying
each consecutive 8bit byte of the message to the register
contents using an exclusive ‘OR’ calculation. The result is
shifted one bit in the direction of the least significant bit
(LSB), with the most significant bit (MSB) set at ‘0’. The LSB
is then examined; if ‘1’ the register content is applied to
the polynomial value ‘A001’ Hex (1010 0000 0000 0001)
using an exclusive ‘OR’ calculation - if ‘0’ no exclusive OR
takes place.
This process is repeated until eight ‘bit’ shifts have
been performed. After the eighth bit shift, the next 8bit
message byte is applied to the register contents using an
exclusive ‘OR’ calculation. The bit shift and re-calculation
process is then repeated again. When all message bytes
have been processed the final content of the 16bit
register is the message CRC value.
Only the 8bits of ‘data’ in each message character is used
for generating the CRC; start, stop and parity bits are
ignored.
When the 16bit CRC value is appended to a message,
the low order byte must be transmitted first followed by
the high order byte. An incorrect or byte reversed check
sum will render the message invalid and it will be ignored.
Slave Response Timeout
A slave controller may not answer immediately. Ensure
the ‘slave timeout’ setting of the ‘master’ device is set
to a value no less than 500ms. If the ‘slave’ device fails
to receive a valid message due to a communication
disruption, parity error, CRC error or other reasons, no
response is given and the master must process a timeout
condition in this instance. If the ‘slave’ receives a valid
message that cannot be processed an exception response
will be returned.
T
he message data start address (16bit word) designates
the initial register address location in the controller from
which the data is processed. Start address information is
contained in the ‘MODBUS Table’.
7
Page 8
Message Answer From Slave to Master
Slave
Address
Function
Code
Number
ofData
Bytesto
Follow
DATA
1stRegister
byte0byte1
DATA2ndRegisterbyte2byte3
CRCCheck
Sum
01030400 5F 00 55 F3 45
The example above is a request to read offline pressure
5FHex (95) (register 40112) and online pressure 55Hex
(85) (register 40113) from X-IRI address 22(Hex).
06Hex - Preset Single Register
Slave
Address
Function
Code
Number
ofData
Bytesto
Follow
DATA1stRegisterbyte0byte1
DATA2ndRegisterbyte2byte3
CRCCheck
Sum
01030400 5F 00 55 F3 45
The example above is a request to set offline pressure
(register 40112) to 95 through X-IRI address 22(Hex).
Exception Response
If the ‘slave’ device receives a request that cannot be
processed an ‘exception response’ is given. An exception
response message consists of the following elements:
Function Code (1 byte): In a normal response, the
slave repeats the function code of the original
master request. All function codes have an MSB
(most significant bit) of 0 (values are all below 80
hexadecimal). In an exception response, the slave
sets the MSB of the function ‘code’ to 1. This makes
the ‘code’ value 80 Hex greater than the received
‘code’ value from the master.
Data (1 byte): The ‘data’ response will contain a ‘1
byte’ value exception code.
CRC Checksum (2 byte).
0190044DC3
CRCCheckSumSlaveAddressFunctionCodeErrorCode
Exception Codes:
01H Illegal Function Code - - The requested ‘code’
function is not supported.
02H Illegal Data Address - - The requested ‘data start
address’ is not supported.
03H Illegal Data Value - - The requested ‘data’ value is
not supported.
04H Function Error - - The slave cannot execute the
request or the request type is inhibited.
•
•
•
•
Troubleshooting
Problem:
No ‘slave’ response or corrupt MODBUS message
Solution:
Check that the ‘slave’ controller is set for the
anticipated slave address
Check that all ‘slave’ controllers are set with a unique
system address
Check that the controller is set for MODBUS RTU
mode (if applicable)
Check that the ‘master’ is operating in MODBUS RTU
mode
Check that the ‘master’ baud rate, parity bit and
number of stop bits are correct
Check that the ‘master ‘response timeout is set for a
minimum of 500ms
Check that the ‘master’ is implementing the specified
CRC check sum process
Check RS485 wiring polarity and security of
connections
Problem:
Last character of MODBUS message is corrupted
Solution:
Add a delay of 2ms after last character received
before releasing RTS signal
Problem:
The MODBUS master message is reflected in the
slave answer
Solution:
Inhibit RX/TX echo on ‘master’ device
communications port
•
•
•
•
•
•
•
•
•
•
•
•
•
T
he format of the ‘slave’ controller answer is similar to the
original master request format; the message data content
depends on the message function code type.
The ‘address’ and ‘code’ of the slave answer is identical
to the original request message; the address is the ‘slave’
device address and the ‘code’ is a repeat of received
function code type from the master. The remainder of the
message is dependent on the requested function code
type. The CRC checksum is re-calculated for the answer
message characters using the specified CRC process.
03H Read Holding Register(s)
8
Page 9
SECTION 5 INSTALLATION
It is recommended that installation and
commissioning be carried out by an authorized and
trained product supplier.
L
E
D
#
6
L
E
D
#
7
L
E
D
#
8
L
E
D
#
9
s
c
r
e
e
n
L
2
L
1
121323
Multi485
X05
s
c
r
e
e
n
L
2
L
1
121323
MODBUS
X03
12
+
2
4
V
a
c
/
d
c
0
V
a
c
/d
c
X01
X02
X04
L
E
D
#
1
2
3
4
1
ON
OFF
6
7
8
5
1
0
1
1
1
2
9
SW1SW2SW3
L
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D
#
2
L
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D
#
3
L
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D
#
5
L
E
D
#
4
Avoid mounting the X-IRI Gateway near high voltage
cables, high voltage devices or equipment or motor
starter contactors.
POWER SUPPLY
The X-IRI Gateway is powered by an external 24VDC
power supply. The AC supply voltage for the 24VDC
power supply is derived from the compressor’s 110VAC or
230VAC internal AC supply.
DC
+V.ADJ
LN
24VDC
100-240VAC
50/
60Hz
E
N
L
0VDC
+24VDC
1
2
X01
GATEWAY
LN
DC
+V.ADJ
L
N
24VDC
100-240VAC
50/60Hz
24V
AC/DC
X01
12
+24VDC
0VDC
+
-
The power specification for the X-IRI Gateway is 24VDC
(+-10%) @ 35mA, 1W
It is possible to use the same 24VDC po
wer supply to
power multiple X-IRI Gateway devices.
Wire polarity is important
INSTALLATION
UNIT LOCATION
The X
-IRI Gateway is DIN Rail mounted and can be located
within the compressor control enclosure or remotely
within a separate enclosure. X-IRI Gateway must be
located within 1000ft (10m) of the compressor controller.
9
Page 10
DCS OR PLC CONNECTION
Wire polarity is important
Use 2-wire, 24 gauge (Belden 9841 or equivalent), twisted
pair, earth shielded, data cable with a total system
network length no greater than 4000ft (1219m).
COMPRESSOR IRBUS CONNECTION
1
6
2
3
5
4
RJ11
2
4
3
5
L1L2
M4Ring Tag
L1 (2)
L2 (4)
2
4
X02
For IntelliSys SGN, SGNe and Nirvana 15-30kW (20-40HP)
equipped with a Phoenix RS-485 data communications
connector, use the RJ11 Modbus cable supplied with the
X-IRI Gateway and modify as shown by removing the RJ11
Plug.
Wire polarity is important
Use 2-
wire, 24 gauge (Belden 9841 or equivalent), twisted
pair, earth shielded, data cable with a length no greater
than 1000ft (10m).
For IntelliSys “Red Eye”, SG and SE equipped with an RJ11
RS-485 data communications connection port, use the
RJ11 Modbus cable supplied with the X-IRI Gateway.
10
Page 11
11
DCS OR PLC COMMUNICATIONS
50ms
RX – Data Received:
2
A valid MODBUS communication has just been
received from the DCS or PLC unit. In normal operation
this event should occur periodically depending on the
polling rate.
TX – Data Transmitted:
3
A MODBUS broadcast or message has just been
sent. To keep the link active, a MODBUS message must be
sent at least once every 10 seconds.
COMPRESSOR COMMUNICATIONS:
50ms
RX – Data Received:
4
A valid IRBUS communication has just been
received from the compressor controller. In normal
operation this event should occur at least once every ½
second.
TX – Data Transmitted:
5
An IRBUS message has just been sent to the
compressor controller. In normal operation this event
should occur at least once every ½ second.
OPERATIONAL INDICATIONS
OFFSlowFlash
ONFastFlash
L
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#
6
L
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7
L
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#
8
L
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D
#
9
Multi485
X04
L
E
D
#
2
L
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D
#
3
L
E
D
#
5
L
E
D
#
4
MODBUS
X03
7
6
9
8
1s
MODBUSIR-BUS
At power on initialization, or when power has
been removed, all operational indicators will fast flash for
several seconds.
Page 12
Normal O
6789
Normal operation function:
6
Modbus Communications with MODBUS master.
OFF
No valid communications with a MODBUS
master
ON: Valid communication with a MODBUS
master, at least one read/write operation once
every 10 seconds.
7
No function
Always OFF: no other defined function
8
No function
Always OFF: no other defined function
9
IR-BUS communication with a compressor
controller
OFF
No valid communications with the compressor
controller.
ON: IR-BUS compressor controller detected and
communication link established.
Led#2: Every flash indicates reception of a valid MODBUS
messsage from the MODBUS master.
Led#3: Every flash indicates transmission of a valid
MODBUS messsage to the MODBUS master.
Led#5: Every flash indicates transmission of a valid IRBUS
messsage to the IR-BUS compressor controller.
Led#4: Every flash indicates reception of a valid IR-BUS
message from the IR-BUS compressor controller.
peration Example:
When there is valid communication with a MODBUS
master and an IR-BUS compatible compressor controller
the main operation indicators will light up as shown
below.
12
Page 13
RS485 NETWORK
RS-485 data communications and other low
voltage signals can be subject to electrical interference.
This potential can result in intermittent malfunction
or anomaly that is difficult to diagnose. To avoid this
possibility always use earth shielded cables, securely
bonded to a known good earth at one end. In addition,
give careful consideration to cable routing during
installation.
1) Never route an RS-485 data communications or low
voltage signal cable alongside a high voltage 3-phase
power supply cable. If it is necessary to cross the path of a
power supply cable(s), always cross at a right angle.
2) If it is necessary to follow the route of power supply
cables for a short distance (for example: from a
compressor unit to a wall along a suspended cable tray)
attach the RS- 485 or signal cable on the outside of an
earthed cable tray such that the cable tray forms an
earthed electrical interference shield.
3) Where possible, never route an RS-485 or signal cable
near to equipment or devices that may be a source of
electrical interference (for example: 3-phase power
supply transformer, high voltage switchgear unit,
frequency inverter drive module, radio communications
antenna).
13
Page 14
14
MODBUS ADDRESS SELECTION
Each compressor connected to the MODBUS network will
have a unique assigned address, starting at compressor
1 increasing sequentially to the number of compressors
connected to the MODBUS network. The MODBUS
address is selected by using DIP switches 1, 2, 3, and 4
on SW1, and switches 1, 2, and 3 on SW2 on the X-IRI
Gateway.
SW1, 1 to4 and SW2, 1 to 3: Address Selection
The addresses are selected as shown in the following
table: (Note: ON = 1, OFF = 0 )
SW1SW1MODBUS
Address
(Decimal)
MODBUS
Address
(Hexl)1 2 3 4 1 2 3
0 0 0 0 0 0 011
1 0 0 0 0 0 011
0 1 0 0 0 0 022
1 1 0 0 0 0 033
0 0 1 0 0 0 044
1 0 1 0 0 0 055
0 1 1 0 0 0 066
1 1 1 0 0 0 077
0 0 0 1 0 0 088
1 0 0 1 0 0 099
0 1 0 1 0 0 010A
1 1 0 1 0 0 011B
0 0 1 1 0 0 012C
1 0 1 1 0 0 013D
0 1 1 1 0 0 014E
1 1 1 1 0 0 015F
0 0 0 0 1 0 01610
1 0 0 0 1 0 01711
0 1 0 0 1 0 01812
1 1 0 0 1 0 01913
0 0 1 0 1 0 02014
1 0 1 0 1 0 02115
0 1 1 0 1 0 02216
1 1 1 0 1 0 02317
0 0 0 1 1 0 02418
1 0 0 1 1 0 02519
0 1 0 1 1 0 0261A
1 1 0 1 1 0 0271B
0 0 1 1 1 0 0281C
1 0 1 1 1 0 0291D
SW1SW1
MODBUS
Address
(Decimal)
MODBUS
Address
(Hexl)
1 2 3 4 1 2 3
0 1 1 1 1 0 0301E
1 1 1 1 1 0 0311F
0 0 0 0 0 1 03220
1 0 0 0 0 1 03321
0 1 0 0 0 1 03422
1 1 0 0 0 1 03523
0 0 1 0 0 1 03624
1 0 1 0 0 1 03725
0 1 1 0 0 1 03826
1 1 1 0 0 1 03927
0 0 0 1 0 1 04028
1 0 0 1 0 1 04129
0 1 0 1 0 1 0422A
1 1 0 1 0 1 0432B
0 0 1 1 0 1 0442C
1 0 1 1 0 1 0452D
0 1 1 1 0 1 0462E
1 1 1 1 0 1 0472F
0 0 0 0 1 1 04830
1 0 0 0 1 1 04931
0 1 0 0 1 1 05032
1 1 0 0 1 1 05133
0 0 1 0 1 1 05234
1 0 1 0 1 1 05335
0 1 1 0 1 1 05436
1 1 1 0 1 1 05537
0 0 0 1 1 1 05638
1 0 0 1 1 1 05739
0 1 0 1 1 1 0583A
1 1 0 1 1 1 0593B
0 0 1 1 1 1 0603C
1 0 1 1 1 1 0613D
0 1 1 1 1 1 0623E
1 1 1 1 1 1 0633F
0 0 0 0 0 0 16440
1 0 0 0 0 0 16541
0 1 0 0 0 0 16642
1 1 0 0 0 0 16743
0 0 1 0 0 0 16844
1 0 1 0 0 0 16945
0 1 1 0 0 0 17046
1 1 1 0 0 0 17147
0 0 0 1 0 0 17248
SW1
SW2SW3
Page 15
15
SW1SW1
MODBUS
Address
(Decimal)
MODBUS
Address
(Hexl)1 2 3 4 1 2 3
1 0 0 1 0 0 17349
0 1 0 1 0 0 1744A
1 1 0 1 0 0 1754B
0 0 1 1 0 0 1764C
1 0 1 1 0 0 1774D
0 1 1 1 0 0 1784E
1 1 1 1 0 0 1794F
0 0 0 0 1 0 18050
1 0 0 0 1 0 18151
0 1 0 0 1 0 18252
1 1 0 0 1 0 18353
0 0 1 0 1 0 18454
1 0 1 0 1 0 18555
0 1 1 0 1 0 18656
1 1 1 0 1 0 18757
0 0 0 1 1 0 18858
1 0 0 1 1 0 18959
0 1 0 1 1 0 1905A
1 1 0 1 1 0 1915B
0 0 1 1 1 0 1925C
1 0 1 1 1 0 1935D
0 1 1 1 1 0 1945E
1 1 1 1 1 0 1955F
0 0 0 0 0 1 19660
1 0 0 0 0 1 19761
0 1 0 0 0 1 19862
1 1 0 0 0 1 19963
0 0 1 0 0 1 110064
1 0 1 0 0 1 110165
0 1 1 0 0 1 110266
1 1 1 0 0 1 110367
0 0 0 1 0 1 110468
1 0 0 1 0 1 110569
0 1 0 1 0 1 11066A
1 1 0 1 0 1 11076B
0 0 1 1 0 1 11086C
1 0 1 1 0 1 11096D
0 1 1 1 0 1 11106E
1 1 1 1 0 1 11116F
0 0 0 0 1 1 111270
1 0 0 0 1 1 111371
0 1 0 0 1 1 111472
1 1 0 0 1 1 111573
0 0 1 0 1 1 111674
SW1SW1
MODBUS
Address
(Decimal)
MODBUS
Address
(Hexl)1 2 3 4 1 2 3
1 0 1 0 1 1 111775
0 1 1 0 1 1 111876
1 1 1 0 1 1 111977
0 0 0 1 1 1 112078
1 0 0 1 1 1 112179
0 1 0 1 1 1 11227A
1 1 0 1 1 1 11237B
0 0 1 1 1 1 11247C
1 0 1 1 1 1 11257D
0 1 1 1 1 1 11267E
1 1 1 1 1 1 11277F
MODBUS PORT SETUP SELECTION
SW1SW2
SW3
The MODBUS port setup is determined by means of DIP
switch 4 on SW2 and DIP switches 2,3 and 4 on SW3. The
selectable items are: baudrate and number of stop bits.
Parity is not selectable and fixed at “no parity”
SW2-4: Stop Bit Selection
1stopbit
2stopbits
SW3-2...4: Baudrate Selection
1200baud2400baud
48
00baud9600baud
19200baud38400baud
57600baud115200 baud
Page 16
GATEWAY SOFTWARE VERSION DISPLAY
SW3-1
When DIP Switch 1 on SW3 is set to the ‘on’ possition the
LED indicators (LED 2 to 9) will show the software version:
L
E
D
#
6
L
E
D
#
7
L
E
D
#
8
L
E
D
#
9
Multi485
X04
L
E
D
#
2
L
E
D
#
3
L
E
D
#
5
L
E
D
#
4
MODBUS
X03
4
5
6789
3
2
To establish the software version number (01 to 255) add
together the ‘value’ associated with each illuminated LED.
LED # Value
6=1
7=2
8=4
9=8
2=16
3=32
5=64
4=128
Ignore LED 1 (power on indicator), located adjacent
to X01; this LED will always be on when power is applied.
For example:
1) LED 6 and 8 = ON; all others off
LED 6 = 1
LED 8 = 4
total = 5
Software Version = ‘E05’
2) LED 7 and 8 = ON; all others off
LED 7 = 2
LED 8 = 4
total = 6
Software Version = ‘E06’
3) LED 6, 7, 9 and 2 = ON; all others off
LED 6 = 1
LED 7 = 2
LED 9 = 8
LED 2 = 16
total = 27
Software Version = ‘E27’
The LED indicators will continue to display the the
software version, regardless of operation, until switch 1
on SW3 is set to the ‘off’ possition.
DIP Switch 1 on SW3 must always be set to the ‘off’
position for normal operation.
DIP Switch 1 on SW3 has no function with earlier
software versions; if the LED indicators continue to
operate normally when SW3-1 is switched on, the
software is an earlier version; update the software.
Please refer to the table on the following page to assist in
decoding the software version number.
The MODBUS address is set to the correct value
(switches 1-4 on SW1 and switches 1- 3 on SW2)
b)
The MODBUS port setup matches the MODBUS
master’s requirements. Switches 4 on SW2 and
switches 2-4 on SW3.
c)
The communication link wires from the Gateway
to the compressor controller and the MODBUS
master are connected, secure and the wire
polarities are correct (L1, L2).
2) Apply power to the X-IRI Gateway
3) Ensure communications with the compressor controller
is established – ensure indicator (9) is ON permanently.
4) Once the IR-BUS compressor controller communication
link is established the MODBUS master unit can start
operating. Any attempt from the MODBUS master to
communicate before the IR-BUS link is established will
simply result in the gateway not responding to the
MODBUS master.
5) Once the MODBUS master communicates with the
compressor controller through the gateway it should
keep on doing so at least once every 10 seconds to keep
indicator (6) from flashing.
6) In case the MODBUS master does not communicate at
least once every 10 seconds the communication link is
considered inactive: indicator (6) flashes and any earlier
commands for the compressor controller to operate in
“Host” mode are cancelled => the machine reverts back
to local start/stop and load/unload control mode.
17
Page 18
SECTION 6 PARTS LIST
1
L
E
D
#
6
L
E
D
#
7
L
E
D
#
8
L
E
D
#
9
s
c
r
e
e
n
L
2
L
1
121323
Multi485
X05
s
c
r
e
e
n
L
2
L
1
121323
MODBUS
X03
12
+
2
4
V
a
c
/
d
c
0
V
a
c
/
d
c
X01
X02
X04
L
E
D
#
1
2
3
4
1
ON
OFF
6
7
8
5
1
0
1
1
1
2
9
SW1SW2SW3
L
E
D
#
2
L
E
D
#
3
L
E
D
#
5
L
E
D
#
4
2
3
DC
+V.ADJ
L
N
24VDC
100-240VAC
50/60Hz
E
N
L
0VDC
+24VDC
1
6
2
3
5
4
RJ11
2
4
3
5
M4Ring Tag
L1 (2)
L2 (4)
2
4
SECTION 7 TECHNICAL DATA
Module, Gateway
Dimensions3.8” x 3.4” x 2.2”
96mm x 85mm x 55mm
Weight0.6Ib (0.25kg)
MountingDIN, 35mm
EnclosureIP20
Supply24VDC/ac +/-15%
Power1.0VA
Temperature0°C to 46°C (32°F to 115°F)
Humidity95% RH non-condensing
131Lead/Lag Cycle Length (Hours)R/W0 – 750
132Scheduled Start (Hour)R/W0 – 23
133Scheduled Start (Minute)R/W0 – 59
134Scheduled Stop (Hour)R/W0 – 23
135Scheduled Stop (Minute)R/W0 – 59
136Modbus ProtocolR0 or 10=Off, 1=On
137Modbus AddressR1 – 247
138High Dust FilterR0 or 10=Off, 1=On
139Integral Sequencing LeadR/W0 – 30=Off, 1=On, 2=Always, 3=Never
140Integral Sequencing AddressR/W1 – 4
141Integral Sequencing TotalR/W2 – 4
142Integral Sequencing Load DelayR/W10 – 60
143Integral Sequencing Lead Change (Hours)R/W0 – 750
144Integral Sequencing Lead Change – DayR/W0 – 9See FIGURE 2-2
145Integral Sequencing Lead Change – HourR/W0 – 23
146Integral Sequencing Lead Change – MinR/W0 – 45Steps of 0, 15, 30, 45
147Separator Delta-P SensorR0 or 10=Off, 1=On
148Variable Frequency DriveR0 or 10=Off, 1=On
149Scheduled Start (Day)R/W0 - 9See FIGURE 2-2
150Scheduled Stop (Day)R/W0 - 9See FIGURE 2-2
151Remote SensorR0 or 10=Off, 1=On
250OptionsRSee FIGURE 2-2
251Unloaded Inlet VacuumR
252Software Part Number – Most SignificantRHigh Digits
253Software Part Number – Least SignificantRLow Digits
254Software Version NumberR
255Warning CodeRSee FIGURE 2-4
256-270 Alarm Code HistoryRSee FIGURE 2-4
272-286 Inlet Vacuum Alarm HistoryR
288-302 Sump Pressure Alarm HistoryR
304-318 Discharge Pressure Alarm HistoryR
320-334 Coolant Temperature Alarm HistoryR
336-350 Airend Temperature Alarm HistoryR
352-366 Discharge Temperature Alarm HistoryR
368-382 Low Ambient Coolant Temp. HistoryRLow Ambient Option
384-398 Total Hours Alarm HistoryRLess Than 10000 Hours
400-414 10000 Total Hours Alarm HistoryRMultiply by 10000
416-430 Loaded Hours Alarm HistoryRLess Than 10000 Hours
432-446 10000 Loaded Hours Alarm HistoryRMultiply by 10000
448-462 Unloaded Inlet Vacuum Alarm HistoryR
464-478 Coolant Pressure Alarm HistoryR
480-494 Dry Side Sump Pressure Alarm HistoryR
496-510 Remote Pressure Alarm HistoryR
512-526 Status Alarm HistoryRSee FIGURE 2-3
528-542 Real Time Clock Alarm History – HoursR
544-558 Real Time Clock Alarm History – MinutesR
560-574 Real Time Clock Alarm History – MonthR
576-590 Real Time Clock Alarm History – DateR
592-606 Real Time Clock Alarm History – YearR
999IRI Version NumberRReads from IRI only
Min. Cooler Out Load TempR/W30-150Low Ambient Option
(Offline + 7)
23
Page 24
FIGURE 21 REGISTER 40001 STATUS / CONTROL
Bit 0: Host/Local (R/W)Bit 6: A
larm (R)
0 = Local0 = No Alarms
1 = Host1 = Alarms
Bit 1: Run/Stop (R/W)Bit 7: Warning (R)
0 = Stop0 = No Warnings
1 = Run1 = Warnings
Bit 2: Load/Unload (R/W)Bit 8: On/Off Line Mode (R)
0 = Unload0 = Not in On/Off Line Mode
1 = Load1 = On/Off Line Mode
Bit 3: Modulating (R)Bit 9: Mod/ACS or Mod Only (R)
0 = Not Modulating0 = Not in Mod/ASC Mode
1 = Modulating1 = Mod/ASC Mode
Bit 4: UnusedBits 10-12: Unused
Bit 5: Stopped in Auto Restart (R)Bits 13-15: Unit Type (R)
0 = Not Stopped in Auto Restart001 = SSR controller
1 = Stopped in Auto Restart
FIGURE 22 REGISTER CODES
Register 096: Language
Register 097: Units of Measure
0 = English 0 = °F and PSI
1 = Spanish 1 = °C and PSI
2 = Portuguese 2 = °C and Bar
3 = French 3 = °C and kPa
4 = Italian 4 = °C and kg/cm
5 = Dutch
6 = German
7 = Danish
8 = Norwegian
9 = Swedish
10 = Finnish
11 = Turkish
102Modulation On/Off (v1.5 or higher)R0 or 10=Off, 1=On
112Offline PressureR/W75 - (rated+3)
113Online PressureR/W65-(offline-10)
114Mode of OperationR/W0-2See FIGURE 3-2
115Display Timer (seconds)R/W10-600
116Auto Start/Stop (AS/S) On/OffR0 or 10=Off, 1=On
117Auto Start/Stop Time (minutes)R/W2-20No Write if AS/S is off
118Sequence Control On/OffR0 or 10=Off, 1=On
119Remote Start/Stop On/OffR0 or 10=Off, 1=On
120Power Out Restart Option(PORO) On/OffR0 or 10=Off, 1=On
121PORO Time (seconds)R/W10-120No Write if PORO is off
122Load Delay Time (seconds)R/W0-60
123Lead/Lag (v1.5 or higher)R/W0 or 10=Lead, 1=Lag
124Lag Offset (v1.5 or higher)R/W0-45 psi
125Low Ambient Option (v1.6 or higher)R0 or 10=Off, 1=On
252Part Number (v1.5 or higher)RHigh 16-bits
253Part Number (v1.5 or higher)RLower 16-bits
254Software Version (v1.5 or higher)R
255Warning CodeRSee FIGURE 3-4
256-270 Alarm Code HistoryRSee FIGURE 3-4
272-286 Discharge Pressure Alarm HistoryR
288-302 Sump Pressure Alarm HistoryR
304-318 Airend Temperature Alarm HistoryR
320-334 Separator Pressure Alarm HistoryR
336-350 Run Hours Alarm HistoryR
352-366 Load Hours Alarm HistoryR
368-382 Status Alarm HistoryRSee FIGURE 3-3
999IRI Version NumberRReads from IRI only
Variable
XX)
1Status/ControlR/WSee FIGURE 3-1
3Discharge PressureR
4Sump PressureR
5Separator Pressure DropR
6Airend TemperatureR
Read/WriteRangeNot
es
27
Page 28
IGURE 31 REGISTER 40001 STATUS / CONTROL
F
Bit 0: Host/Local (R/W)Bit 6: A
larm (R)
0 = Local0 = No Alarms
1 = Host1 = Alarms
Bit 1: Run/Stop (R/W)Bit 7: Warning (R)
0 = Stop0 = No Warnings
1 = Run1 = Warnings
Bit 2: Load/Unload (R/W)Bit 8: On/Off Line Mode (R)
0 = Unload0 = Not in On/Off Line Mode
1 = Load1 = On/Off Line Mode
Bit 3: Modulating (R)Bit 9: Mod/ACS or Mod Only (R)
0 = Not Modulating0 = Not in Mod/ASC Mode
1 = Modulating1 = Mod/ASC Mode
Bit 4: Sump Pressure (R/W)Bits 10-12: Unused
1 = Get Sump Pressure
Bit 5: Stopped in Auto Restart (R)Bits 13-15: Unit Type (R)
0 = Not Stopped in Auto Restart010 = SE controller
1 = Stopped in Auto Restart
FIGURE 32 REGISTER CODES
Register 096: Language
Register 097: Units of Measure
0 = English 0 = °C and Bar
1 = Spanish 1 = °C and PSI
2 = French 2 = °C and kPa
3 = Portuguese 3 = °F and PSI
4 = °C and kg/cm
2
Register 99: Starter Type Register 114: Mode of Operation
0 = Full Voltage 0 = MOD/ACS
1 = Star-Delta 1 = Modulation Only
2 = No Starter 2 = On/Off Line
FIGURE 33 REGISTER STATUS ALARM HISTORY
Bit 0: Run/Stop (R)Bit 4: S
topped Auto Restart (R)
0 = Stop0 = Not Stopped in Auto Restart
1 = Run1= Stopped in Auto Restart
Bit 1: On/Off Line Mode (R)Bit 5: Unused
0 = Not in On/Off Line Mode
1 = On/Off Line Mode
Bit 2: MOD/ACS Mode (R)Bit 6: Unused
0 = Not Modulating
1 = Modulating
Bit 3: Load/Unload (R)Bit 7: Unused
0 = Unload
1 = Load
28
Page 29
IGURE 34 REGISTER ALARM / WARNING CODES
F
SSR (SE) 15-100HP CONTROLLER
C
odeDescription
01Pressure Sensor Failure
02Temperature Sensor Failure 1
04Starter Fault
05Motor Overload
06Reverse Rotation
07Remote Stop Failure
08Remote Start Failure
09Calibration Error
10High Airend Discharge Temperature
12High Pressure
15Separator Element
16Control Power Loss
17Fan Motor Overload
18Emergency Stop
19Low Sump Pressure
20Memory Fault
21Low Unloaded Sump Pressure
29
Page 30
TABLE 4 SIERRA REDEYE 125200 HP CONTROLLER
Register
(40X
112Offline PressureR/W75 - (rated+3)rated = rated pressure
113Online PressureR/W65-(offline-10)offline = offline pressure
114Display Timer (seconds)R/W10-600
115Condensate Time (seconds)R/W90-270
116Start-Delta Time (seconds)R10-20
117Auto Start/Stop Time (seconds)R/W2-60No Write if AS/S is off
118Max. 1st Stage TemperatureR/W310-410
119Max. 2nd Stage TemperatureR/WVariableRefer to Sierra’s Manual
120PORO Time (seconds)R/W10-120No Write if PORO is off
121Auto Start/Stop On/OffR0 or 10=Off, 1=On
122PORO On/OffR0 or 10=Off, 1=On
123Remote Start/Stop On/OffR0 or 10=Off, 1=On
124Sequence Control On/OffR0 or 10=Off, 1=On
125Condensate Level On/OffR0 or 10=Off, 1=On
126Water Unit Yes/NoR0 or 10=No, 1=Yes
255Warning CodeRSee FIGURE 4-4
Bit 2: Load/Unload (R/W)Bit 8: On/Off Line Mode (R)
0 = Unload0 = Not in On/Off Line Mode
1 = Load1 = On/Off Line Mode
Bit 3: UnusedBit 9: Unused
Bit 4: Sump Pressure (R/W)Bits 10-12: Unused
1 = Get Sump PressureBits 13-15: Unit Type (R)
Bit 5: Stopped in Auto Restart (R)110 = Sierra SE controller
0 = Not Stopped in Auto Restart
1 = Stopped in Auto Restart
FIGURE 52 REGISTER CODES
Register 096: Language Regist
er 097: Units of Measure
0 = English 0 = °C and Bar
1 = Spanish 1 = °C and PSI
2 = French 2 = °C and kPa
3 = Portuguese 3 = °F and PSI
Integral Sequencing Lead Change – MinR/W0 – 45Steps of 0, 15, 30, 45
37
Page 38
IGURE 61 REGISTER 40001 STATUS / CONTROL
F
Bit 0: Host/Local (R/W)Bit 6: A
larm (R)
0 = Local0 = No Alarms
1 = Host1 = Alarms
Bit 1: Run/Stop (R/W)Bit 7: Warning (R)
0 = Stop0 = No Warnings
1 = Run1 = Warnings
Bit 2: Load/Unload (R/W)Bit 8: On/Off Line Mode (R)
0 = Unload0 = Not in On/Off Line Mode
1 = Load1 = On/Off Line Mode
Bit 3: UnusedBit 9: Unused
Bit 4: UnusedBits 10-12: Unused
Bit 5: Stopped in Auto Restart (R)Bits 13-15: Unit Type (R)
0 = Not Stopped in Auto Restart100 = Sierra controller
1 = Stopped in Auto Restart
FIGURE 62 REGISTER CODES
Register 096: Language
Register 097: Units of Measure
0 = English 6 = German 0 = °F and PSI
1 = Spanish 7 = Danish 1 = °C and PSI
2 = Portuguese 8 = Norwegian 2 = °C and Bar
3 = French 9 = Swedish 3 = °C and kPa
4 = Italian 10 = Finnish 4 = °C and kg/cm
2
5 = Dutch 11 = Turkish
Register 099: Starter Type Register 145: Integral Sequencing Lead Change - Day
9Low Ambient Coolant Temp.RLow Ambient Option
10Separator Pressure DropR
11Spare Pressure Input 4R
12Spare Pressure Input 5R
13Spare Pressure Input 6R
14Spare Pressure Input 7R
15Spare Pressure Input 8R
16Spare Temperature Input 5R
17Spare Temperature Input 6R
18Spare Temperature Input 7R
19Spare Temperature Input 8R
64Total Hours (hours)R0 – 9999Less Than 10000
65Loaded Hours (hours)R0 – 9999Less Than 10000
66Ten Thousand Total HoursRMultiply by 10000
67Ten Thousand Loaded HoursRMultiply by 10000
96Language SelectionR0 – 11See FIGURE 7-2
97Units of MeasureR0 -4See FIGURE 7-2
98Rated PressureR
99Starter TypeR0 - 4See FIGURE 7-2
Read/WriteRangeNot
es
40
Page 41
142Integral Sequencing Load DelayR/W
143Integral Sequencing Lead Change (Hours)R/W0 – 750
144Integral Sequencing Lead Change – DayR/W0 – 9See FIGURE 7-2
145Integral Sequencing Lead Change – HourR/W0 – 23
146Integral Sequencing Lead Change – MinR/W0 - 45Steps of 0, 15, 30, 45
147Scheduled Start - DayR/W0 – 9See FIGURE 7-2
148Scheduled Stop - DayR/W0 – 9See FIGURE 7-2
250OptionsRSee FIGURE 7-2
251Unused
252Software Part Number – Most SignificantRHigh Digits
253Software Part Number – Least SignificantRLow Digits
254Software Version NumberR
255Warning CodeRSee FIGURE 7-4
256-270 Alarm Code HistoryRSee FIGURE 7-4
272-286 Unused
288-302 Sump Pressure Alarm HistoryR
304-318 Discharge Pressure Alarm HistoryR
320-334 Coolant Temperature Alarm HistoryR
336-350 Airend Temperature Alarm HistoryR
352-366 Discharge Temperature Alarm HistoryR
368-382 Low Ambient Coolant Temp. HistoryRLow Ambient Option
384-398 Total Hours Alarm HistoryRLess Than 10000 Hours
400-414 10000 Total Hours Alarm HistoryRMultiply by 10000
416-430 Loaded Hours Alarm HistoryRLess Than 10000 Hours
432-446 10000 Loaded Hours Alarm HistoryRMultiply by 10000
448-462 Unused
464-478 Unused
480-494 Dry Side Sump Pressure Alarm HistoryR
512-526 Status Alarm HistoryRSee FIGURE 7-3
528-542 Real Time Clock Alarm History – HoursR
544-558 Real Time Clock Alarm History – MinutesR
560-574 Real Time Clock Alarm History – MonthR
576-590 Real Time Clock Alarm History – DateR
592-606 Real Time Clock Alarm History – YearR
999IRI Version NumberRReads from IRI only
10 – 60
41
Page 42
IGURE 71 REGISTER 40001 STATUS / CONTROL
F
Bit 0: Host/Local (R/W)Bit 6: A
larm (R)
0 = Local0 = No Alarms
1 = Host1 = Alarms
Bit 1: Run/Stop (R/W)Bit 7: Warning (R)
0 = Stop0 = No Warnings
1 = Run1 = Warnings
Bit 2: Load/Unload (R/W)Bit 8: On/Off Line Mode (R)
0 = Unload0 = Not in On/Off Line Mode
1 = Load1 = On/Off Line Mode
Bit 3: Modulating (R)Bit 9: Mod/ACS or Mod Only (R)
0 = Not Modulating0 = Not in Mod/ASC Mode
1 = Modulating1 = Mod/ASC Mode
Bit 4: UnusedBits 10-12: Unused
Bit 5: Stopped in Auto Restart (R)Bits 13-15: Unit Type (R)
0 = Not Stopped in Auto Restart001 = SSR controller
1 = Stopped in Auto Restart
FIGURE 72 REGISTER CODES
Register 096: Language Regist
er 097: Units of Measure
0 = English 6 = German 0 = °F and PSI
1 = Spanish 7 = Danish 1 = °C and PSI
2 = Portuguese 8 = Norwegian 2 = °C and Bar
3 = French 9 = Swedish 3 = °C and kPa
4 = Italian 10 = Finnish 4 = °C and kg/cm
5 = Dutch 11 = Turkish
2
Register 100: Starter TypeRegister 114: Mode of Operation
0 = Star-Delta 0 = MOD/ACS
1 = Full Voltage 1 = On/Off Line
2 = Remote Star-Delta 2 = Modulation Only
3 = Remote Full Voltage
4 = Soft Starter
Register 144: Integral Sequencing Lead Change - Day
Register 147: Schedule Start - Day
Register 148: Schedule Stop - Day
98Regulation TypeRSee FIGURE 8-2
112Offline PressureR/W30 - ratedrated=rated pressure
113Online PressureR/W20-(offline-10)offline=offline pressure
114Data View TimeR/W10-600
115Load Delay TimeR/W15-60
116Star-Delta TimeR3-19Star-Delta Units Only
117Auto Start/Stop TimeR/W10-180
118Remote Start/StopR0 or 10=Off, 1=On
119Sequence ControlR0 or 10=Off, 1=On
1201st Stage Discharge Temp. (Max)R/W150-500
1212nd Stage Discharge Temp. (Max)R/W150-500
122Frame Oil Temp. (Max)R/W120-210
123Frame Oil Temp. ShutdownR0 or 10=No, 1=Yes
124Package Water In Temp. (Min)R/W25-45
125Package Water In Temp. ShutdownR0 or 10=No, 1=Yes
126Package Water In Temp. (Max)R/W50-150
127Package Water In Temp. ShutdownR0 or 10=No, 1=Yes
1282nd Stage Air In Temp. (Max)R/W80-160
1292nd Stage Air In Temp. ShutdownR0 or 10=No, 1=Yes
1301st Stage Water Out Temp. (Max)R/W80-155
1311st Stage Water Out Temp. ShutdownR0 or 10=No, 1=Yes
1322nd Stage Water Out Temp. (Max)R/W80-155
1332nd Stage Water Out Temp ShutdownR0 or 10=No, 1=Yes
134Package Discharge Pressure (Max)R/W30-XX=rated + 10% of rated
135Package Discharge Press. ShutdownR0 or 10=No, 1=Yes
136Air Filter Pressure Drop (Max)R/W.2-1.0
137Frame Oil Pressure (Min)R/W8-60
138Package Water In Pressure (Max)R/W50-76
Variable
XX)
1Status/ControlR/WSee FIGURE 8-1
31st Stage Discharge PressureR
4Package Discharge PressureR
5Air Filter Pressure DropR
6Frame Oil PressureR
7Package Water In PressureR
8Package Water Out PressureR
9Pressure AAR
Read/WriteRangeNot
es
45
Page 46
139Package Water In Press. ShutdownR
0 or 10=No, 1=Yes
140Package Water In Pressure (Min)R/W6-40
141Package Water In Press. ShutdownR0 or 10=No, 1=Yes
142Package Water Pressure Loss (Min)R/W0-30
143Package Water Press. Loss ShutdownR0 or 10=No, 1=Yes
144Pressure AA (Min)R/W0-200
145Pressure AA ShutdownR0 or 10=No, 1=Yes
146Pressure BB (Max)R/W0-200
147Pressure BB ShutdownR0 or 10=No, 1=Yes
148Lubricator Failure ShutdownR0 or 10=No, 1=Yes
149Intercooler Condensate ShutdownR0 or 10=No, 1=Yes
150Aftercooler Condensate ShutdownR0 or 10=No, 1=Yes
151Lubricator Oil Level ShutdownR0 or 10=No, 1=Yes
152Frame Oil Level ShutdownR0 or 10=No, 1=Yes
153Switch AA ShutdownR0 or 10=No, 1=Yes
154Switch BB ShutdownR0 or 10=No, 1=Yes
155Condensate TimeR/W5-60
156PORO On/OffR0 or 10=Off, 1=On
157PORO TimeR/W10-120
255Warning CodeRSee FIGURE 8-4
Bit 2: Load/Unload (R/W)Bit 8: On/Off Line Mode (R)
0 = Unload0 = Not in Const. Speed Mode
1 = Load1 = Constant Speed Mode
Bit 3-4: Load Level (R/W)Bit 9: Mod/ACS or Mod Only (R)
00 = 25%0 = Not in Auto/Dual Mode
01 = 50%1 = Auto/Dual Mode
10 = 75%Bits 10-12: Unused
11 = 100%Bits 13-15: Unit Type (R)Bit 5: Stopped in Auto Restart (R)111 = Recip controller
0 = Not Stopped in Auto Restart
1 = Stopped in Auto Restart
FIGURE 82 REGISTER CODES
Register 096: Language Regist
er 097: Units of Measure
0 = English 0 = °F and PSI
1 = Spanish 1 = °C and PSI
2 = Portuguese 2 = °C and Bar
3 = °C and kPa
4 = °C and kg/cm
2
FIGURE 83 REGISTER STATUS ALARM HISTORY
Bit 0: Run/Stop (R)Bit 4: S
topped Auto Restart (R)
0 = Stop0 = Not Stopped in Auto Restart
1 = Run1 = Stopped in Auto Restart
Bit 1: Constant Speed Mode (R)Bit 5-6: Load Level
0 = Not in Constant Speed Mode00 = 25% Load
1 = Constant Speed Mode01 = 50% Load
Bit 2: Auto Dual Mode (R)10 = 75% Load
0 = Not in Auto Dual Mode11 = 100% Load
1 = Auto Dual ModeBit 7: Unused
Bit 3: Load/Unload (R)
0 = Unload
1 = Load
47
Page 48
IGURE 84 REGISTER ALARM / WARNING CODES
F
RECIP (REDEYE) CONTROLLER
C
odeDescription
011st Stage Disch. Press. Sensor Failure
02Package Disch. Press. Sensor Failure
03Air Filter Press. Drop Sensor Failure
04Frame Oil Press. Sensor Failure
05Pkg. Water In Press. Sensor Failure
06Pkg. Water Out Press. Sensor Failure
07Pressure AA Sensor Failure
08Pressure BB Sensor Failure
171st Stage Disch. Temp. Sensor Failure
182nd Stage Disch. Temp. Sensor Failure
19Frame Oil Temp. Sensor Failure
20Pkg. Water In Temp. Sensor Failure
212nd Stage Air In Temp. Sensor Failure
221st Stg. Wtr. Out Temp. Sensor Failure
232nd Stg. Wtr. Out Temp. Sensor Failure
33Emergency Stop
34Starter Fault
35Main Motor Overload
36Motor Not Synchronized
37Lubricator Failure
38Intercooler Condensate
39Aftercooler Condensate
40Lubricator Oil
41Frame Oil
42Switch AA
43Switch BB
44Remote Stop Failure
45Remote Start Failure
461st Stage Discharge Temp.
472nd Stage Discharge Temp.
48Frame Oil Temp.
49Package Water In Temp. (Low)
50Package Water In Temp. (High).
512nd Stage Air In Temp.
521st Stage Water Out Temp.
532nd Stage Water Out Temp.
61Package Discharge Pressure
62Air Filter Pressure Drop
63Frame Oil Pressure
64Package Water In Pressure (Low)
65Package Water In Pressure (High)
66Package Water Pressure Loss
67Pressure AA
68Pressure BB
77High Disch. Press. caused by host
48
Page 49
TABLE 9 RECIP SG CONTROLLER
Register
(40X
10Inlet VacuumRAir Filter Press Drop Option
11Oil TemperatureR
12Water In TemperatureR
132nd Stage Inlet TemperatureR
143rd Stage Inlet TemperatureR3 Stage Units Only
15Package Discharge TemperatureR
161st Stage Discharge TemperatureR
172nd Stage Discharge TemperatureR
183rd Stage Discharge TemperatureR3 Stage Units Only
64Total Hours (hours)R0 – 9999Less Than 10000
65Ten Thousand Total HoursRMultiply by 10000
66100% Loaded Hours (hours)R0 – 9999Less Than 10000
67Ten Thousand 100% Loaded HoursRMultiply by 10000
6850% Loaded Hours (hours)R0 – 9999Less Than 10000
69Ten Thousand 50% Loaded HoursRMultiply by 10000
7025% Loaded Hours (hours)R0 – 9999Less Than 10000
71Ten Thousand 25% Loaded HoursRMultiply by 10000
7275% Loaded Hours (hours)R0 – 9999Less Than 10000
73Ten Thousand 75% Loaded HoursRMultiply by 10000
96Language SelectionR0 – 2See FIGURE 9-2
97Units of MeasureR0 – 4See FIGURE 9-2
98Recip TypeR0 – 5See FIGURE 9-2
99Rated PressureR
100Sensor 2APTR0 – 20=225, 1=500, 2=1000
101Sensor 1APTR0 – 20=225, 1=500, 2=1000
102Sensor 7APTR0 – 20=225, 1=500, 2=1000
103Sensor 3APTR0 – 20=225, 1=500, 2=1000
104RegulationR0 – 4See FIGURE 9-2
105Starter TypeR0 – 3See FIGURE 9-2
112Offline PressureR/W30 - ratedrated=rated pressure
113Online PressureR/W20-(offline-2)offline=offline pressure
114Mode of OperationR/W0 – 1See FIGURE 9-2
115Load Delay Time (seconds)R/W15 – 60
116Star-Delta Time (seconds)R10 – 20
117Auto Start/Stop (AS/S) Time (minutes)R/W2 – 20
118Condensate Time (seconds)R/W3 – 60
119ContrastR0 – 10
120Condensate Interval (seconds)R/W60 – 300
121Inlet Regulation Time (10ths of seconds)R/W0 – 5.0
122Minimum 1st Stage Discharge PressureR/W50 – 300
123Auto Start Delay Time (seconds)R/W0 – 60
128Remote Start/Stop On/OffR0 or 10=Off, 1=On
129Sequence Control On/OffR0 or 10=Off, 1=On
130Power Out Restart Option (PORO)On/OffR0 or 10=Off, 1=On
131PORO Time (seconds)R10 - 120
132Air Filter Pressure Drop On/OffR0 or 10=Off, 1=On
133Air Filter Pressure Drop Value (10th of psi)R.2 – 1.0
134Closed Loop Water SystemR0 or 10=Off, 1=On
144High 1st Stage Discharge TemperatureR/W150 – 500
145High 2nd Stage Discharge TemperatureR/W150 – 500
146High 3rd Stage Discharge TemperatureR/W150 – 500
Variable
XX)
1Status/ControlR/WSee FIGURE 9-1
3Oil PressureR
4Water In PressureR
5Water Out PressureR
6Package Discharge PressureR
71st Stage Discharge PressureR
82nd Stage Discharge PressureR3 Stage Units Only
9Suction PressureRBooster Units Only
Read/WriteRangeNot
es
49
Page 50
147High Oil TemperatureR/W
120 – 210
148Low Water In TemperatureR/W30 – 50
149High Water In TemperatureR/W50 – 150
150High 2nd Stage In TemperatureR/W80 – 160
151High 3rd Stage In TemperatureR/W80 – 160
152High Package Discharge TemperatureR/W80 – 500
153High 1st Stage Discharge PressureR/W100 – 400
154High 2nd Stage Discharge PressureR/W100 – 400
155Low Suction PressureR/W30 – 400
156High Suction PressureR/W35 – 405
157Low Oil PressureR/W8 – 60
158Low Water In PressureR/W25 – 45
159High Water In PressureR/W50 – 76
160Low Water Pressure DropR/W0 – 40
252Software Part Number – Most SignificantRHigh Digits
253Software Part Number – Least SignificantRLow Digits
254Software Version NumberR
255Warning CodeRSee FIGURE 9-4
256-270 Alarm Code HistoryRSee FIGURE 9-4
272-286 Oil Pressure Alarm HistoryR
288-302 Water In Pressure Alarm HistoryR
304-318 Water Out Pressure Alarm HistoryR
320-334 Package Discharge Press Alarm HistoryR
336-350 1st Stage Discharge Press Alarm HistoryR
352-366 2nd Stage Discharge Press Alarm HistoryR
368-382 Suction Pressure Alarm HistoryR
384-398 Inlet Vacuum Alarm HistoryR
400-414 Oil Temperature Alarm HistoryR
416-430 Water In Temperature Alarm HistoryR
432-446 2nd Stage In Temperature Alarm HistoryR
448-462 3rd Stage In Temperature Alarm HistoryR
464-478 Package Discharge Temp Alarm HistoryR
480-494 1st Stage Discharge Temp Alarm HistoryR
496-510 2nd Stage Discharge Temp Alarm HistoryR
512-526 3rd Stage Discharge Temp Alarm HistoryR
528-542 Run Hours Alarm HistoryRLess Than 10000 Hours
544-558 10000 Run Hours Alarm HistoryRMultiply by 10000
560-574 100% Loaded Hours Alarm HistoryRLess Than 10000 Hours
576-590 10000 100% Loaded Hours Alarm HistoryRMultiply by 10000
592-606 50% Loaded Hours Alarm HistoryRLess Than 10000 Hours
608-622 10000 50% Loaded Hours Alarm HistoryRMultiply by 10000
624-638 Status Alarm HistoryRSee FIGURE 9-3
640-654 Real Time Clock Alarm History – HoursR
656-670 Real Time Clock Alarm History – MinutesR
672-686 Real Time Clock Alarm History – MonthR
688-702 Real Time Clock Alarm History – DateR
704-718 Real Time Clock Alarm History – YearR
720-734 25% Loaded Hours Alarm HistoryRLess Than 10000 Hours
736-750 10000 25% Loaded Hours Alarm HistoryRMultiply by 10000
752-766 75% Loaded Hours Alarm HistoryRLess Than 10000 Hours
768-782 10000 75% Loaded Hours Alarm HistoryRMultiply by 10000
999IRI Version NumberRReads from IRI only
50
Page 51
IGURE 91 REGISTER 40001 STATUS / CONTROL
F
Bit 0: Host/Local (R/W)Bit 6: A
larm (R)
0 = Local0 = No Alarms
1 = Host1 = Alarms
Bit 1: Run/Stop (R/W)Bit 7: Warning (R)
0 = Stop0 = No Warnings
1 = Run1 = Warnings
Bit 2: Load/Unload (R/W)Bit 8: Constant Speed Mode (R)
0 = Unload0 = Not in Const. Speed Mode
1 = Load1 = Constant Speed Mode
Bit 3-4: Load Level (R/W)Bit 9: Auto/Dual Mode (R)
00 = 25%0 = Not in Auto/Dual Mode
01 = 50%1 = Auto/Dual Mode
10 = 75%Bits 10-12: Unused
11 = 100%Bits 13-15: Unit Type (R)Bit 5: Stopped in Auto Restart (R)111 = Recip controller
0 = Not Stopped in Auto Restart
1 = Stopped in Auto Restart
FIGURE 92 REGISTER CODES
Register 096: Language
Register 097: Units of Measure
0 = English 0 = °F and PSI
1 = Spanish 1 = °C and PSI
2 = Portuguese 2 = °C and Bar
99LanguageRSee FIGURE 10-2
100Unit of MeasureRSee FIGURE 10-2
112Offline PressureR/W30 - ratedrated=rated pressure
113Online PressureR/W20-(offline-10)offline=offline pressure
114Data View TimeR/W10-600
115Load Delay TimeR/W15-60
116Star-Delta TimeR3-19Star-Delta Units Only
117Auto Start/Stop TimeR/W10-180
118Remote Start/StopR0 or 10=Off, 1=On
119Sequence ControlR0 or 10=Off, 1=On
1201st Stage Discharge Temp. (Max)R/W150-500
1212nd Stage Discharge Temp. (Max)R/W150-500
122Frame Oil Temp. (Max)R/W120-210
123Frame Oil Temp. ShutdownR0 or 10=No, 1=Yes
124Package Water In Temp. (Min)R/W25-45
125Package Water In Temp. ShutdownR0 or 10=No, 1=Yes
126Package Water In Temp. (Max)R/W50-150
127Package Water In Temp. ShutdownR0 or 10=No, 1=Yes
1282nd Stage Air In Temp. (Max)R/W80-160
1292nd Stage Air In Temp. ShutdownR0 or 10=No, 1=Yes
130Package Inlet Air Temp. (Max)R/W50-200
131Package Inlet Air Temp. ShutdownR0 or 10=No, 1=Yes
132Package Water Out Temp. (Max)R/W80-200
133Package Water Out Temp ShutdownR0 or 10=No, 1=Yes
134Low 1st Stage Discharge PressureR/W80-320
135High 1st Stage Discharge PressureR/W100-400
136High 1st Stage Discharge ShutdownR0 or 10=No, 1=Yes
Variable
XX)
1Status/ControlR/WSee FIGURE 10-1
31st Stage Discharge PressureR
4Package Discharge PressureR
5Package Suction PressureR
6Frame Oil PressureR
7Package Water In PressureR
8Package Water Out PressureR
9Pressure AAR
Read/WriteRangeNot
es
53
Page 54
137Low Package Discharge PressureR/W
15-558
138High Package Discharge PressureR/W500-715
139High Package Discharge ShutdownR0 or 10=No, 1=Yes
140Low Package Suction PressureR/W50-180
141High Package Suction PressureR/W50-180
142Low Frame Oil PressureR/W8-60
143Low Package Water In PressureR/W6-40
144Low Pkg Water In Press. ShutdownR0 or 10=No, 1=Yes
145High Package Water In PressureR/W50-76
146High Pkg Water In Press. ShutdownR0 or 10=No, 1=Yes
147Package Water Pressure Loss (Min)R/W0-30
148Package Water Press. Loss ShutdownR0 or 10=No, 1=Yes
149Pressure AA (Min)R/W0-200
150Pressure AA ShutdownR0 or 10=No, 1=Yes
151Pressure BB (Max)R/W0-200
152Pressure BB ShutdownR0 or 10=No, 1=Yes
153Lubricator Failure ShutdownR0 or 10=No, 1=Yes
154Intercooler Condensate ShutdownR0 or 10=No, 1=Yes
155Aftercooler Condensate ShutdownR0 or 10=No, 1=Yes
156Lubricator Oil Level ShutdownR0 or 10=No, 1=Yes
157Frame Oil Level ShutdownR0 or 10=No, 1=Yes
158Switch AA ShutdownR0 or 10=No, 1=Yes
159Switch BB ShutdownR0 or 10=No, 1=Yes
160Condensate TimeR/W5-60
255Warning CodeRSee FIGURE 10-4
Bit 2: Load/Unload (R/W)Bit 8: Constant Speed Mode (R)
0 = Unload0 = Not in Const. Speed Mode
1 = Load1 = Constant Speed Mode
Bit 3-4: Load Level (R/W)Bit 9: Auto/Dual Mode (R)
00 = 25%0 = Not in Auto/Dual Mode
01 = 50%1 = Auto/Dual Mode
10 = 75%Bits 10-12: Unused
11 = 100%Bits 13-15: Unit Type (R)Bit 5: Stopped in Auto Restart (R)111 = Recip controller
0 = Not Stopped in Auto Restart
1 = Stopped in Auto Restart
0 - 9
128Scheduled Stop - DayR/W0 - 9
129Scheduled Start (Hour)R/W0 – 23
130Scheduled Start (Minute)R/W0 – 59
131Scheduled Stop (Hour)R/W0 – 23
132Scheduled Stop (Minute)R/W0 – 59
133Modbus ProtocolR0 or 10=Off, 1=On
134Modbus AddressR1 – 247
250OptionsRSee FIGURE 11-2
251VSD Software Version NumberRDivide by 10
252Software Part Number – Most SignificantRHigh Digits
253Software Part Number – Least SignificantRLow Digits
254Software Version NumberRDivide by 100
255Warning CodeRSee FIGURE 11-4
256-270 Alarm Code HistoryRSee FIGURE 11-4
272-286 Discharge Pressure Alarm HistoryR
288-302 Sump Pressure Alarm HistoryR
304-318 Dry Side Sump Pressure Alarm HistoryR
320-334 Remote Pressure Sensor Alarm HistoryR
336-350 Coolant Temperature Alarm HistoryR
352-366 Airend Temperature Alarm HistoryR
368-382 Discharge Temperature Alarm HistoryR
384-398 Total Hours Alarm HistoryRLess Than 10000 Hours
400-414 10000 Total Hours Alarm HistoryRMultiply by 10000
416-430 Percent Capacity Alarm HistoryR
448-462 Package kW alarm HistoryR
464-478 Motor Voltage Alarm HistoryR
480-494 Motor Speed Alarm HistoryR
496-510 Motor Current Alarm HistoryR
512-526 Input Voltage Alarm HistoryR
528-542 DC Bus Voltage Alarm HistoryR
544-558 Status Alarm HistoryRSee FIGURE 11-3
560-574 Real Time Clock Alarm History – HoursR
576-590 Real Time Clock Alarm History – MinutesR
592-606 Real Time Clock Alarm History – MonthR
608-622 Real Time Clock Alarm History – DateR
624-638 Real Time Clock Alarm History – YearR
640-654 IGBT U Temperature Alarm HistoryRModular Drive Only
656-670 IGBT V Temperature Alarm HistoryRModular Drive Only
672-686 IGBT W Temperature Alarm HistoryRModular Drive Only
688-702 Input Rectifier Temperature Alarm HistoryRModular Drive Only
704-718 VSD Ambient Temperature Alarm HistoryRModular Drive Only
999IRI Version NumberRReads from IRI only
58
Page 59
IGURE 111 REGISTER 40001 STATUS / CONTROL
F
Bit 0: Host/Local (R/W)Bit 6: A
larm (R)
0 = Local0 = No Alarms
1 = Host1 = Alarms
Bit 1: Run/Stop (R/W)Bit 7: Warning (R)
0 = Stop0 = No Warnings
1 = Run1 = Warnings
Bit 2: Load/Unload (R/W)Bit 8 - 9: Normal/Unloaded
0 = No Load00 = Unloaded Operation
1 = Load11 = Normal Operation
Bit 3: Operating at Minimum Speed (R)Bit 12: Nirvana Compressor (R)
0 = Operating above Minimum Speed0 = Not Nirvana
1 = Operating at Minimum Speed1 = Nirvana
Bit 4: Operating at Maximum Speed (R) Bit 13-15: Unit Type (R)
0 = Operating below Maximum Speed001 SSR controller
1 = Operating at Maximum Speed
Bit 5: Stopped in Auto Restart (R)
0 = Not Stopped in Auto Restart
1 = Stopped in Auto Restart
FIGURE 112 REGISTER CODES
Register 096: Language
Register 097: Units of Measure
0 = English 6 = German 0 = °F and PSI
1 = Spanish 7 = Danish 1 = °C and PSI
2 = Portuguese 8 = Norwegian 2 = °C and Bar
3 = French 9 = Swedish 3 = °C and kPa
4 = Italian 10 = Finnish 4 = °C and kg/cm
2
5 = Dutch 11 = Turkish
Register 98: Compressor Type Register 127: Schedule Start - Day
TABLE 12 NIRVANA SGNE CC CONTACT COOLED CONTROLLER
Register
(40X
10Spare Pressure Input 8R
11Coolant TemperatureR
12Airend TemperatureR
13Discharge TemperatureR
14Inlet TemperatureR
15Cooler Out TemperatureRUnits with Hot Side Thermal Valve
16Spare Temperature Input 6R
17Spare Temperature Input 7R
18Spare Temperature Input 8R
19Separator Pressure DropR
20Percent CapacityR
21Percent Energy SavingsR
25Motor SpeedR
26Motor CurrentR
27Input VoltageRVAC
28DC Bus VoltageR
29Remote PressureR
30Motor VoltageR
31Package kWR
32kW HoursR0 – 999Add to (mW hours * 1000)
33mW HoursR
48Average Package kW-hrR
49Average % CapacityR
50Average CapacityRCFM or M3
51Package Energy Cost (Low)R0 – 99.99Divide by 100
52Package Energy Cost (High)RMultiply by 100
53Energy Savings (Low)R0 – 99.99Divide by 100
54Energy Savings (High)RMultiply by 100
55Lifetime Energy Saving (Low)R0 – 99.99Divide by 100
56Lifetime Energy Saving (High)RMultiply by 100
64Total Hours (hours)R0 – 9999Less Than 10000
65Ten Thousand Total HoursRMultiply by 10000
96Language SelectionR0 – 20See FIGURE 12-2
97Units of MeasureR0 – 4See FIGURE 12-2
98Kilowatt RatingR0 – 29See FIGURE 12-2
99Service LevelR0 or 10=Level 1, 1=Level 2
100Service TypeR0 or 10=Hours, 1=Months
101Service IntervalR0 - 33, 6, 9, or 12 months
102Water CooledR0 or 10=Off, 1=On
103Hot Side Thermal ValveR0 or 10=Off, 1=On
112Target PressureR/W65 - 145
113Auto Stop PressureR/W(T+1)-(T+10)T = target pressure
114Immediate Stop PressureR/WASP–(ASP+10)ASP = auto stop pressure
115Blowdown ModeR/W0 or 10=Off, 1=On
116Energy RateRDivide by 1000
117Compare Savings ToR/W0 - 20=Mod, 1=On/Off, 2= Geo
118Condensate Release TimeR2-20
119Condensate Interval TimeR90 - 270
120Remote SensorR0 or 10=Off, 1=On
121Sequence Control On/OffR0 or 10=Off, 1=On
122Remote Start/Stop On/OffR0 or 10=Off, 1=On
ff, 1=On
124PORO Time (seconds)R/W10 - 600No Write if PORO is off
127Scheduled Start - DayR/W0 - 9
128Scheduled Stop - DayR/W0 - 9
129Scheduled Start (Hour)R/W0 – 23
130Scheduled Start (Minute)R/W0 – 59
131Scheduled Stop (Hour)R/W0 – 23
132Scheduled Stop (Minute)R/W0 – 59
133Modbus ProtocolR0 or 10=Off, 1=On
134Modbus AddressR1 – 247
135Reset AveragingR/W01010 - 12319MMDDY
250OptionsRSee FIGURE 12-2
251VSD Software Version NumberRDivide by 10
252Software Part Number – Most SignificantRHigh Digits
253Software Part Number – Least SignificantRLow Digits
254Software Version NumberRDivide by 100
255Warning CodeRSee FIGURE 12-4
256-270 Alarm Code HistoryRSee FIGURE 12-4
272-286 Discharge Pressure Alarm HistoryR
288-302 Sump Pressure Alarm HistoryR
304-318 Dry Side Sump Pressure Alarm HistoryR
320-334 Remote Pressure Sensor Alarm HistoryR
336-350 Coolant Temperature Alarm HistoryR
352-366 Airend Temperature Alarm HistoryR
368-382 Discharge Temperature Alarm HistoryR
384-398 Total Hours Alarm HistoryRLess Than 10000 Hours
400-414 10000 Total Hours Alarm HistoryRMultiply by 10000
416-430 Percent Capacity Alarm HistoryR
432-446 Inlet Temperature Alarm HistoryR
448-462 Package kW alarm HistoryR
464-478 Motor Voltage Alarm HistoryR
480-494 Motor Speed Alarm HistoryR
496-510 Motor Current Alarm HistoryR
512-526 Input Voltage Alarm HistoryR
528-542 DC Bus Voltage Alarm HistoryR
544-558 Status Alarm HistoryRSee FIGURE 12-3
560-574 Real Time Clock Alarm History – HoursR
576-590 Real Time Clock Alarm History – MinutesR
592-606 Real Time Clock Alarm History – MonthR
608-622 Real Time Clock Alarm History – DateR
624-638 Real Time Clock Alarm History – YearR
640-654 Interstage Pressure Alarm HistoryROnly in 2-stage units.
656-670 IGBT U Temperature Alarm HistoryR
672-686 IGBT V Temperature Alarm HistoryR
688-702 IGBT W Temperature Alarm HistoryR
704-718 Input Rectifier Temperature Alarm HistoryR
720-734 VSD Ambient Temperature Alarm HistoryR
736-750 Cooler Out Temperature Alarm HistoryR
999IRI Version NumberRReads from IRI only
62
Page 63
IGURE 121 REGISTER 40001 STATUS / CONTROL
F
Bit 0: Host/Local (R/W)Bit 6: A
larm (R)
0 = Local0 = No Alarms
1 = Host1 = Alarms
Bit 1: Run/Stop (R/W)Bit 7: Warning (R)
0 = Stop0 = No Warnings
1 = Run1 = Warnings
Bit 2: Load/Unload (R/W)Bit 8 - 9: Normal/Unload Operate (R)
0 = No Loaded Operation00 = Unloaded Operation
1 = Loaded Operation11 = Normal Operation
Bit 3: Operating at Minimum Speed (R)Bit 10 – 11: Unused
0 = Operating above Minimum SpeedBit 12: Nirvana Compressor (R)
1 = Operating at Minimum Speed0 = Not Nirvana
Bit 4: Operating at Maximum Speed (R) 1 = Nirvana
0 = Operating below Maximum SpeedBit 13-15: Unit Type (R)
1 = Operating at Maximum Speed001 SSR controller
Bit 5: Stopped in Auto Restart (R)
0 = Not Stopped in Auto Restart
1 = Stopped in Auto Restart
FIGURE 122 REGISTER CODES
Register 096: Language
Register 097: Units of Measure
0 = English 11 = Turkish 0 = °F and PSI
1 = Spanish 12 = Lithuanian 1 = °C and PSI
2 = Portuguese 13 = Latvian 2 = °C and Bar
3 = French 14 = Estonian 3 = °C and kPa
4 = Italian 15 = Maltese 4 = °C and kg/cm
2
5 = Dutch 16 = Slovenian
6 = German 17 = Slovakian
7 = Danish 18 = Czech
8 = Norwegian 19 = Hungarian
9 = Swedish 20 = Polish
10 = Finnish
Register 98: Compressor Type Register 127: Schedule Start - Day
127Scheduled Start - DayR/W
128Scheduled Stop - DayR/W0 - 9
129Scheduled Start (Hour)R/W0 – 23
130Scheduled Start (Minute)R/W0 – 59
131Scheduled Stop (Hour)R/W0 – 23
132Scheduled Stop (Minute)R/W0 – 59
133Modbus ProtocolR0 or 10=Off, 1=On
134Modbus AddressR1 – 247
135Max 1st Stage TemperatureR
136Max 2nd Stage TemperatureR
250OptionsRSee FIGURE 13-2
252Software Part Number – Most SignificantRHigh Digits
253Software Part Number – Least SignificantRLow Digits
254Software Version NumberRDivide by 100
255Warning CodeRSee FIGURE 13-4
256-270 Alarm Code HistoryRSee FIGURE 13-4
272-286 Discharge Pressure Alarm HistoryR
288-302 Discharge Temperature Alarm HistoryR
304-318 1st Stage Inlet Temperature Alarm HistoryR
320-334 1st Stage Disch Temperature Alarm HistoryR
336-350 2nd Stage Inlet Pressure Alarm HistoryR
352-366 2nd Stage Inlet Temperature Alarm HistoryR
368-382 2nd Stage Disch Pressure Alarm HistoryR
384-398 2nd Stage Disch Temp Alarm HistoryR
400-414 Oil Pressure Alarm HistoryR
416-430 Oil Temperature Alarm HistoryR
432-446 Inlet Vacuum Alarm HistoryR
448-462 UnusedR
464-478 Oil Filter Alarm HistoryR
480-494 Total Hours Alarm HistoryRLess Than 10000 Hours
496-510 10000 Total Hours Alarm HistoryRMultiply by 10000
512-526 Percent Capacity Alarm HistoryR
528-542 Motor Speed Alarm HistoryR
544-558 Motor Current Alarm HistoryR
560-574 Input Voltage Alarm HistoryR
576-590 DC Bus Voltage Alarm HistoryR
592-606 Blower Speed Alarm HistoryRPercentage
608-622 Package kW Alarm HistoryR
624-638 Motor Voltage Alarm HistoryR
640-654 Status Alarm HistoryRSee FIGURE 13-3
656-670 Real Time Clock Alarm History – HoursR
672-686 Real Time Clock Alarm History – MinutesR
688-702 Real Time Clock Alarm History – MonthR
704-718 Real Time Clock Alarm History – DateR
720-734 Real Time Clock Alarm History – YearR
999IRI Version NumberRReads from IRI only
0 - 9
67
Page 68
IGURE 131 REGISTER 40001 STATUS / CONTROL
F
Bit 0: Host/Local (R/W)Bit 6: A
larm (R)
0 = Local0 = No Alarms
1 = Host1 = Alarms
Bit 1: Run/Stop (R/W)Bit 7: Warning (R)
0 = Stop0 = No Warnings
1 = Run1 = Warnings
Bit 2: Load/Unload (R/W)Bit 8 - 9: Normal/Unload Operate (R)
0 = No Loaded Operation00 = Unloaded Operation
1 = Loaded Operation11 = Normal Operation
Bit 3: Operating at Minimum Speed (R)Bit 10 – 11: Unused
0 = Operating above Minimum SpeedBit 12: Nirvana Compressor (R)
1 = Operating at Minimum Speed0 = Not Nirvana
Bit 4: Operating at Maximum Speed (R) 1 = Nirvana
0 = Operating below Maximum SpeedBit 13-15: Unit Type (R)
1 = Operating at Maximum Speed100 = Sierra controller
Bit 5: Stopped in Auto Restart (R)
0 = Not Stopped in Auto Restart
1 = Stopped in Auto Restart
FIGURE 132 REGISTER CODES
Register 096: Language
Register 097: Units of Measure
0 = English 11 = Turkish 0 = °F and PSI
1 = Spanish 12 = Lithuanian 1 = °C and PSI
2 = Portuguese 13 = Latvian 2 = °C and Bar
3 = French 14 = Estonian 3 = °F and kPa
4 = Italian 15 = Maltese 4 = °C and kg/cm
2
5 = Dutch 16 = Slovenian
6 = German 17 = Slovakian
7 = Danish 18 = Czech
8 = Norwegian 19 = Hungarian
9 = Swedish 20 = Polish
10 = Finnish
Register 98: Compressor Type Register 127: Schedule Start - Day
Bit 2: Load/Unload (R/W)Bit 8: On/Off Line Mode (R)
0 = Unload0 = Not in On/Off Line Mode
1 = Load1 = On/Off Line Mode
Bit 3: Modulating (R)Bit 9: Mod/ACS or Mod Only (R)
0 = Not Modulating0 = Not in Mod/ASC or Mode
1 = Load1 = Mod/ASC or Mod Mode
Bit 4: Sump Pressure (R/W)Bit 10-12: Unused
1 = Get Sump PressureBit 13-15: Unit Type (R)
Bit 5: Stopped in Auto Restart (R)010 = SE controller
0 = Not Stopped in Auto Restart
1 = Stopped in Auto Restart
FIGURE 142 REGISTER CODES
Register 096: Language
Register 098: Units of Measure
0 = English 6 = Italian 0 = °F and PSI
1 = Spanish 7 = Norwegian 1 = °C and PSI
2 = French 8 = Swedish 2 = °C and Bar
3 = Portuguese 9 = Finnish 3 = °C and kPa
4 = Dutch 10 = German 4 = °C and kg/cm
2
5 = Danish 11 = Turkish
Register 101: Starter TypeRegister 116: Mode of Operation
0 = Full Voltage 0 = MOD/ACS
1 = Star-Delta 1 = Modulation Only
2 = No Starter 2 = On/Off Line
Bit 2: Load/Unload (R/W)Bit 8: On/Off Line Mode (R)
0 = Unload0 = Not in On/Off Line Mode
1 = Load1 = On/Off Line Mode
Bit 3: Modulating (R)Bit 9: Mod/ACS or Mod Only (R)
0 = Not Modulating0 = Not in Mod/ASC or Mode
1 = Load1 = Mod/ASC or Mod Mode
Bit 4: Sump Pressure (R/W)Bit 10-12: Unused
1 = Get Sump PressureBit 13-15: Unit Type (R)
Bit 5: Stopped in Auto Restart (R)010 = SE controller
0 = Not Stopped in Auto Restart
1 = Stopped in Auto Restart
FIGURE 152 REGISTER CODES
Register 096: Language
Register 098: Units of Measure
0 = English 6 = Italian 0 = °F and PSI
1 = Spanish 7 = Norwegian 1 = °C and PSI
2 = French 8 = Swedish 2 = °C and Bar
3 = Portuguese 9 = Finnish 3 = °C and kPa
4 = Dutch 10 = German 4 = °C and kg/cm
2
5 = Danish 11 = Turkish
Register 101: Starter TypeRegister 116: Mode of Operation
0 = Full Voltage 0 = MOD/ACS
1 = Star-Delta 1 = Modulation Only
2 = No Starter 2 = On/Off Line
FIGURE 153 REGISTER STATUS ALARM HISTORY
Bit 0: Run/Stop (R)Bit 4: S
topped Auto Restart (R)
0 = Stop0 = Not Stopped in Auto Restart
1 = Run1 = Stopped in Auto Restart
Bit 1: On/Off Line Mode (R)Bit 5: Unused
0 = Not in On/Off Line Mode
1 = On/Off Line Mode
Bit 2: MOD/ACS Mode (R)Bit 6: Unused
0 = Not Modulating
1 = Modulating
Bit 3: Load/Unload (R)Bit 7: Unused
0 = Unload
1 = Load
74
Page 75
IGURE 154 REGISTER ALARM / WARNING CODES
F
ESA (SE) 22 – 150 KW CONTROLLER
C
odeDescription
01Pressure Sensor Failure
02Temperature Sensor Failure 1
03Temperature Sensor Failure 2
04Starter Fault
05Motor Overload
06Reverse Rotation
07Remote Stop Failure
08Remote Start Failure
09Calibration Error
10High Airend Discharge Temperature
11High Separator Temperature
12High Pressure
13Air Filter
14Coolant Filter
15Separator Element
16Control Power Loss
18Emergency Stop
19Low Sump Pressure
20Check Set Points
21Service Required
75
Page 76
TABLE 16 RSERIES S3 CONTROLLER
Register
(40X
100Starter Type TBDR
112Offline PressureR/W
113Online PressureR/W
114Mode of OperationR/W
115Star –Delta TimeR
116Auto Start/Stop TimeR/W
118Sequence Control On/OffR
119Remote Start/Stop On/OffR
121Power Out Restart Option(PORO) On/OffR0 or 10=Off, 1=On
122PORO Time (seconds)R/W10-120No Write if PORO is off
125Scheduled Start/Stop On/OffR
129Scheduled Start (Hour)R/W
130Scheduled Start (Minute)R/W
131Scheduled Stop (Hour)R/W
132Scheduled Stop (Minute)R/W
134Modbus AddressR
254Software VersionR
255Warning CodeRSee FIGURE 16-4
362-376 Alarm History: Dryer PressureR2092Same as 272-286
377-391 Alarm History: Hour MeterR2093Compressor run time since last
Variable
XX)
Read/WriteRangeNot
PSI = 0. KPa = 0. BAR = 0.0
overflow limit
overflow limit
0 = PSI, 1 = KPa, 2 = BAR
0 = VFD 1 = Fixed
0 = Off 1 = On
0 = Off 1 = On
0 = Off 1 = On
units of measure register
PSI = 0. KPa = 0. BAR = 0.0
service 0. hours
es
78
Page 79
392-406 Alarm History: Control/Status WordR2094S
407-421 Alarm History: Percent of LoadR20950. %
422-436 Alarm History: Total PowerR20960.00 KW
437-451 Alarm History: Heatsink Temp.R20970. °C
452-466 Alarm History: Ambient Temp.R20980. °C
467-481 Alarm History: Motor SpeedR2086History of last graph point 0. RPM
482-496 Alarm History: Motor VoltageR2087History of last graph point 0.0 V
497-511 Alarm History: Motor CurrentR2088History of last graph point 0.0 A
512-526 Alarm History: DC Bus VoltageR2089History of last graph point 0. V
527-541 Alarm History: Units of MeasureR2099Pressure unit at time of alarm
ee FIGURE 17-1
0 = PSI 1 = KPa 2 = BAR
79
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F
IGURE 171 REGISTER 40001 STATUS / CONTROL
Bit
Number
10NA-Read as 0
11NA-Read as 0
12Unit Type Bit 0RRead as 1 (Nirvana Drive Type)
13Unit Type Bit 1 RRead as 0 (Nirvana Drive Type)
14Unit Type Bit 2RRead as 1 (Nirvana Drive Type)
15Unit Type Bit 2RRead as 0 (Nirvana Drive Type)
V
ariableRead/WriteDescription
0Local/Host ModeR/WRead:
0 = Host mode disabled
1 = Drive in serial host mode
Write:
0 = Disable serial control
1 = Enable serial host control
1Stop/RunR/WRead:
0 = Stop has been generated
1 = Start has been generated
Write: (host mode required)
0 = Generate serial stop command
1 = Generate serial start command
2Unload/LoadR/WRead:
0 = Drive currently unloaded (Stopped in Auto
Restart)
1 = Drive currently loaded (Normal run control)
Write: (host mode required)
0 = Unload the drive
1 = Load the drive
3Operating at Minimum SpeedR0 = Drive not running at min speed
1 = Drive running at min speed
4Operating at Maximum SpeedR0 = Drive not running at max speed
1 = Drive running at max speed
5Stopped in Auto RestartR0 = Stopped in Auto Restart mode not active
1 = Stopped in Auto Restart mode active
6Alarm ActiveR0 = No alarms currently active
1 = At least one alarm is currently active
7Warning ActiveR0 = No warnings currently active
1 = At least one warning is currently active
8Fixed Speed/VFD Control ModeR/WRead:
0 = Running in fixed speed mode
1 = Running in VFD control mode
Write: (host mode required)
0 = Run in fixed speed mode
1 = Run in VFD control mode
Ensure you get peak performance and longevity out of your Ingersoll Rand product by insisting on genuine Ingersoll
Rand replacement parts and maintenance kits. Not only are the replacement parts made to precise dimensions and OEM-
specified metallurgy, but each part is backed by the Ingersoll Rand warranty. Your local Customer Center, Distributor, or
direct Ingersoll Rand salesperson will work with your to ensure you get the parts you need to do the job right. Equip your
machines with only the best Ingersoll Rand genuine parts.
NOTE: THE USE OF REPAIR PARTS OTHER THAN THOSE INCLUDED WITHIN THE INGERSOLL RAND COMPANY
APPROVED PARTS LIST MAY CREATE UNSAFE CONDITIONS OR MECHANICAL FAILURES OVER WHICH INGERSOLL
RAND COMPANY HAS NO CONTROL. INGERSOLL RAND COMPANY SHALL BEAR NO RESPONSIBILITY FOR
EQUIPMENT ON WHICH NON-APPROVED REPAIR PARTS ARE INSTALLED.
The manufacturer reserves the right to make changes or add improvements without notice and without incurring any
obligation to make such changes to products previously sold.
E
fficient Field Service
We maintain a highly trained staff of technicians
to service your equipment for preventive
maintenance, or to assist you should emergencies
ever occur.
Complete Repair Service
Our trained technicians will repair or overhaul
Special Engineering Service
We can help you identify and solve your problems
aluating your needs and recommending
by ev
theproper equipment to give your maximum
efficiency.
Complete Stock of Equipment
We carry a complete line of Ingersoll Rand
equipment and accessories designed to meet
any compressed air application. We are backed
by Ingersoll Rand’s prompt factory shipment to
ensure you on-time delivery.
your equipmen
using only genuine Ingersoll Rand parts.
Spare Parts
By stocking genuine Ingersoll Rand spare
parts, we can help you avoid costly delays
or substituting inferior parts. Using genuine
Ingersoll Rand parts on you Ingersoll
Rand equipment will help to keep even
older equipment running in good-as-new
condition.
t to factory specifications,
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