No part of this technical manual may be reproduced, transmitted, transcribed, stored in a retrieval
system, or translated into any language or computer language, in any form or by any means, without
prior written permission of Mass Electronics Pty Ltd.
Trademark
The term ‘Innotech’ used in this manual is a trademark of Mass Electronics Pty Ltd trading as
Innotech Control Systems Australia.
Disclaimer
While great eorts have been made to assure the accuracy and clarity of this document, Mass
Electronics Pty Ltd assumes no liability resulting from any omissions in this document, or from
misuse of the information obtained herein. The information in this document has been carefully
checked and is believed to be entirely reliable with all of the necessary information included. Mass
Electronics Pty Ltd reserves the right to make changes to any products described herein to improve
reliability, function and design, and reserves the right to revise this document and make changes
from time to time in content hereof with no obligation to notify any persons of revisions or changes.
Mass Electronics Pty Ltd does not assume any liability arising out of the application or any use of any
product or circuit described herein; neither does it convey licence under its patent rights or the rights
of others.
Some information in this document relates to products which are obsolete but still relevant for
consumers who may have not upgraded their devices or who are using obsolete but still functional
equipment.
This manual is intended to provide qualified technical personnel with complete and easy-to-follow
instructions for the installation, checkout and commissioning of the Innotech Genesis II Direct Digital
Controller and MPCII Mid Points Controller.
Although the intent of this manual is to simplify the installation task, instructions contained in this
manual are based on the assumption that installation of a Genesis II System will be accomplished by
technically qualified personnel. Also, these instructions presuppose that installation personnel are
familiar with local regulations, codes and safety requirements.
Installers should familiarise themselves with the content of this manual before attempting
installation of the Genesis II Direct Digital Controller or MPCII Mid Points Controller.
Throughout this manual there are icons to illustrate notes and points of caution, as illustrated below:
NOTE
Notes contain useful information, which should be read.
IMPORTANT
Important Notes contain information, which is important for ensuring success.
CAUTION
Caution Notes contain critical information, which MUST be read.
1-1.1 Systems Covered by this Manual
Systems are intended for use in a variety of applications, the systems are designed on a modular
basis. Modularity provides the most economical and eicient means of adapting the system to
the customer’s specific requirements. Also, in seeking to improve customer satisfaction through
product improvement, Innotech oen provides updates and revisions to its Genesis product line. The
modularity concept and equipment revisions result in a large array of dierent types of hardware
available to the customer.
The manual covers the Genesis II System. This system is based on one or more controllers as the
major control units interconnected with several ancillary units. These major control units included in
this manual are:
• Genesis II Direct Digital Controller
• MPCII Mid Points Controller
For purposes of explanation, a System is defined as one or more controller units interconnected with
various ancillary units for the purpose of performing specific functions. A Genesis II System consists
of one or more Genesis II Direct Digital Controllers and/or MPCII Mid Points Controllers as the major
control unit(s).
Some of the ancillary units included in the Genesis II System are (refer to the System Description
Manual for descriptions of these units):
• Several types of Remote Expansion Module (REM)
• Miscellaneous Ancillary Units
The purpose of this manual is to provide clear and complete instructions for all phases of the
installation of the units that comprise your Genesis II System. In order to provide the clearest
instructions possible with minimum confusion, instructions in this manual are based on the following
approach:
• For simplicity of explanation, installation instructions in this manual are based on the assumption
the system to be installed is a typical Genesis II System containing a single Genesis II Direct Digital
Controller and a selection of REMs.
• Specific information on the installation and wiring of ancillary units can be located in the
Datasheet and Product Paperwork associated with each device.
• Basic electrical wiring information is provided in the Electrical Installation chapter, and wiring
instructions for network systems is contained in the Network Installation chapter.
1-1.2 Scope of this Technical Manual
This technical manual contains:
Table 1-1: Document Chapters
HeadingHeading
Chapter 1 Preliminary Information
Contains installation related information of a general nature such as
general safety considerations and pre-installation requirements.
Contains instructions and related data to facilitate the mechanical
Chapter 2 -
Mechanical Installation
installation of components of the Genesis II System. It also includes
information such as physical descriptions of the units, mounting
dimensions and mechanical installation guidelines.
Contains electrical wiring information useful for installation of a
Chapter 3 -
Electrical Installation
basic “standalone” system. Chapter 3 is augmented by network
wiring information in Chapter 5 - Network Installation. Appropriate
references are provided between Chapter 3 and Chapter 5 for
installation of network wiring.
Chapter 4 -
Commissioning
Provides instructions for post-installation inspection and checkout
of the Genesis II System, power application and initial setup of the
various units that comprise the system.
Provides detailed information for interconnecting various units in a
network configuration. This appendix should be used in conjunction
Chapter 5 -
Network Installation
with Chapter 3 when network installation is involved. The two
electrical installation areas: Chapter 3 and Chapter 5 are purposely
separated from each other in the interest of clarity and to simplify the
The following precautions and installation considerations must be observed to ensure personal
safety and to prevent damage to equipment:
• Local safety regulations, building codes and ordinances must be complied with during
installation. In cases of conflict with procedures in this manual, contact Innotech or its authorised
representative for clarification.
• To prevent damage to equipment, avoid applying electrical power to the equipment prior to
checkout, unless specifically instructed to do so in this manual.
• The Genesis II System can be installed using common tools and test equipment. Only qualified
personnel familiar with local codes and practices should install the system. Wiring should only be
performed by someone knowledgeable of electronics and wiring installation practices. Refer to
the appropriate documentation when installing items provided by other manufacturers.
1-3 Unpacking Instructions
The following unpacking instructions should be followed as soon as possible aer the equipment is
delivered to the installation site:
1. Carefully unpack each item and set packing materials aside for future use.
2. Check the inventory against the packing list to make sure nothing is missing.
3. Inspect each item for damage.
4. Report any shortages or damaged items.
5. Collect all factory inspection sheets and similar data; place in an equipment history file.
6. Any items which are not installed immediately should be carefully returned to its shipping
container and stored in a safe place until it is time for it to be installed.
1-4 Installation Plans
The following installation data should be gathered and made available to the installation team:
• This technical manual.
• Computer-Generated Wiring Diagram: the Innotech Gen2Config soware can be used to print a
wiring diagram for the specific application. A copy of this wiring diagram is usually provided at
the time of hardware delivery. Procedures for printing additional copies of the wiring diagram are
contained in the Gen2Config Online Help.
• Computer-Generated Materials List: the Materials List is also provided at the time of hardware
delivery. The list is printed out from the Innotech Gen2Config soware. The Materials List shows
all the items of hardware required for the specific application.
• For non-Innotech equipment, gather the manufacturer’s installation-related data such as
schematics, wiring diagrams, dimension diagrams, etc.
• Any other data source as it becomes known.
1-5 Tools and Test Equipment
No special tools are required for installation of the Genesis II Systems. Only common hand tools
are needed. A high impedance digital Volt-Ohm-Milliammeter is the only item of electronic test
equipment required.
This section of the manual contains instructions and related data to facilitate the installation of
components of the Genesis II System.
It is recommended that the main units of the Genesis II System, such as the Genesis II Direct Digital
Controller (DDC), MPCII Mid Points Controller and standard Innotech Remote Expansion Modules
(REM) be mounted in steel cabinets to minimise the eects of electromagnetic interference (EMI).
Innotech Control Station Module REMs and Wireless Sensor REMs have specific recommendations
for installation described in this section. Networking components, such as computers, printers and
modems, should be installed in accordance with standard computer installation practises.
Because of the designed-in flexibility of the Genesis II System, digital controllers and associated
devices can be installed in a wide variety of configurations, depending on the user’s preference.
For this reason it is not possible to include all the various installation configurations in this manual.
Instead, this manual provides examples of installations that are considered typical.
Innotech recognises that the installation examples described in this manual may not be in total
agreement with the user’s requirements. However, information in this document should be used as
a guide for all installations, regardless of whether the specific circumstances match the examples
given. In all cases, installation personnel should familiarise themselves with the information
contained in this section.
NOTE
If required, additional installation recommendations can be provided from Innotech Control Systems Australia upon
request.
2-2 Physical Descriptions
The following paragraphs contain physical descriptions, including dimensions and installationrelated information, for the main units of the Genesis II System. These paragraphs are intended to
provide the installer with suicient information to permit proper installation of the various units.
For units of equipment not included in the following paragraphs, refer to the appropriate product
datasheet.
2-2.1 Genesis II Series Controllers
Controllers are the main processing units that provide overall control of the Genesis II Systems.
Controllers are housed in a rectangular case made from flame retardant polycarbonate / ABS plastic
listed under UL94-V0. The types of controller units included in this manual are:
The Innotech Genesis II Direct Digital Controller is a state-of-the-art processing system that has the
capability of controlling various types of industrial systems.
The Genesis II Direct Digital Controller is housed in a rectangular case suitable for Switchboard
Mounting. The housing is made from flame retardant plastics recognised by UL as UL 94-V0. Refer to
Figure 2-1.
Figure 2-1: Genesis II Direct Digital Controller Dimensions
The unit’s circuit boards are mounted inside the case, which consists of a base and a lid. The plastic
base has eight mounting holes; each hole is 4mm in diameter. Not all of the eight holes are required
for mounting, provided the unit is securely installed.
There are four slots in the bottom circuit board (motherboard), two slots at each end. These slots
facilitate the clamping of the case’s plastic lid to the motherboard. To remove the plastic lid from the
motherboard, press firmly inwards at each end of the plastic lid, which disengages the clip-in fittings,
and li away simultaneously. Refer to Figure 2-2.
Top Circuit Board
TO
Motherboard
Plastic Base Piece
Figure 2-2: Genesis II DDC Plastic Lid Clamping Details
Installation of the plastic lid is similar to the removal procedure; insert the clip-in fitting at one end of
the plastic lid into the slots provided on the motherboard. Then, clip the opposite end of the plastic
lid into the slots at that end of the motherboard. Pressing the two ends of the plastic lid together can
assist in the operation.
The Innotech MPCII Mid Points Controller is a state-of-the-art processing system that has the
capability of controlling various types of industrial systems. The MPCII Mid Points Controller can be
used in a Genesis II System as the main controller.
It is housed in a case suitable for Switchboard Mounting. The housing is moulded from flame
retardant plastics recognised by UL as UL 94-V0. The MPCII Mid Points Controller does not have any
external controls or indicators. Refer to Figure 2-3.
188
GENESIS MPC
163
Figure 2-3: MPCII Mid Point Controller Dimensions
DIGI TALCONTROLLER
65
2-2.2 Remote Expansion Modules
Remote Expansion Modules increase the capability of a controller by allowing more input and output
devices to be connected to it.
The term Remote Expansion Module (REM) is the collective term applied to several types of units
used to configure the hardware to the customer's requirements. The following paragraphs contain
wiring information for the following categories of REMs used in the Genesis II System:
• REM I/O Expansion Modules (2-2.2.1)
• REM Control Station Modules (2-2.2.2)
• REM Multi Zone Station Modules (2-2.2.3)
• REM Multipoint Modules (2-2.2.4)
• REM Wireless Sensor Modules (2-2.2.5)
The system imposes restrictions on the total number and types of REMs that can be used with a
controller. These requirements are explained in section 2-4.1.
REM I/O Expansion Modules increase the Input and/or Output capabilities of a Genesis II Series digital
controller.
There are a total of six dierent REM I/O Expansion Modules.
• GENII AI REM Analogue Input Module
• GENII AO REM Analogue Out Module
• GENII DI REM Dry Contact Digital Input Module
• GENII DO REM Relay Output Module
• GENII IDI REM Opto Isolated Digital Input Module
• GENII PI REM Pulse Input Module
Common Enclosure Information
The above listed REM I/O Expansion Modules are housed in a rectangular case made from flame
retardant polycarbonate / ABS plastic listed under UL94. (GENII AO REM is listed under UL94-VO)
Colour: Grey
Dimensions (max): 75mm(w) x 155mm(h) x 57mm(d)
Mounting: DIN Rail Mounted
The cable run between the digital controller and the REM I/O Expansion Modules should not exceed
600 metres. However, the maximum cable length can be increased through the use of Innotech
Repeater IR11 module. (See 5-3.3.3for more information)
Below is a schematic of the GENII AI REM Analogue Input Module. The above listed REM I/O Expansion
Modules feature the same dimensions and similar appearance. Refer to Figure 2-4.
REM Control Station Modules are housed in a switchplate that mounts in standard electrical wall
plates at a remote location. Mechanical installation instructions for the REM Control Station Modules
are not applicable; electrical installation instructions for these modules are contained in the
Electrical Installation Chapter.
There are a total of three dierent REM Control Station Modules.
• GENII CS REM Control Station Module
• GENII CSAH REM Control Station A/H Module
• GENII CSFCAH REM Control Station Fan Control, A/H Module
Common Enclosure Information
Colour: White
Mounting: Wall Mounted
The cable run between a digital controller and GENII CS REM Control Station Modules should not
exceed 600 metres. However, the maximum cable length can be increased through the use of
Innotech Repeater IR11 module. (See Paragraph 5-3.3.3 for more information)
Below is a schematic of the GENII CS REM Control Station Module. The above listed REM Control
Station Modules feature the same dimensions and similar appearance. Refer to Figure 2-5.
REM Multi Zone Station Modules are housed in a switchplate that mounts in standard electrical
wall plates at a remote location. Mechanical installation instructions for the REM Multi Zone Station
Modules are not applicable; electrical installation instructions for these modules are contained in the
Electrical Installation chapter.
There are a total of two dierent REM Multi Zone Station Modules.
• GENII MZS REM Multi Zone Station Module
• GENII MZSAH REM Multi Zone Station A/H Module
Common Enclosure Information
Colour: White
Mounting: Wall Mounted
The cable run between a digital controller and REM Multi Zone Station Modules should not exceed
600 metres. However, the maximum cable length can be increased through the use of Innotech
Repeater IR11 module. Refer to Paragraph 5-3.3.3 for more information.
Below is a schematic of the GENII MZS REM Multi Zone Station Module. The above listed REM Control
Station Modules feature the same dimensions and similar appearance. Refer to Figure 2-6.
Off
On
1
2
3
Select
4
5
6
Run
Figure 2-6: GenII MZS REM Multizone Station Module
REM Multipoint Modules provide additional Analogue/Digital output capabilities for a Genesis II Series
digital controller.
There are a total of three dierent REM Multipoint Modules.
• GENII MP405 REM Multipoint Module
• GENII MP423 REM Multipoint Module
• GENII MP432 REM Multipoint Module
Common Enclosure Information
The above listed REM Multipoint Modules are housed in a rectangular case suitable for DIN Rail
mounting. The housing is moulded from flame retardant plastics recognised by UL as UL 94-V0.
Colour: Grey
Dimensions(max): 107mm(w) x 100mm(h) x 65mm(d)
Mounting: DIN Rail Mounted
The cable run between a digital controller and REM Multipoint Modules should not exceed 600
metres. However, the maximum cable length can be increased through the use of Innotech Repeater
IR11 module. Refer to Paragraph 5-3.3.3 for more information.
Below is a schematic of the GENII MP405 REM Multi Zone Station Module. The above listed REM
Multipoint Modules feature the same dimensions and similar appearance. Refer to Figure 2-7.
Wireless Temperature Sensor REMs increase the capability of a Genesis II System by allowing wireless
temperature sensor’s to interface with the digital controller. The use of Wireless Temperature Sensor
REMs is facilitated through the Wireless Module Interface, with connects directly to the REM socked
on the digital controller.
GENII WMI Wireless Module Interface
The Wireless Module Interface can be located up to 600 metres from the host digital controller,
however the cable length joining the GENII WMI to the controller must not exceed 600 metres. The
maximum cable length can be increased through the use of Innotech Repeater IR11 module.
Up to 15 Wireless Temperature Sensor REMs can be wirelessly connected to a Wireless Module
Interface, and can be located up to 20 metres from the Wireless Module Interface.
The GENII WMI Wireless Module Interface is housed in a rectangular case made from flame resistant
Astrene M650 IR plastic in accordance with IEC695-2-1 (HD444-2-1) as of EN6355-1,A2 and IEC707 (AS/
NZS2420).
Colour: Grey
Dimensions(max): 75mm(w) x 155mm(h) x 57mm(d)
Mounting: DIN Rail Mounted
The GENII WMI should be mounted within a 20 metre radius (depending on obstructions) of all SENRx
modules (see below) from which it will be receiving data. The location should be dry, clean and free
of excess vibration. Below is an image of the GENII WMI Wireless Module Interface. Refer to Figure 2-8.
IMPORTANT
Do not install the GENII WMI inside a fully enclosed metal switchboard, as this may interfere with quality of the
wireless signal.
The GENII SENRx Wireless Temperature Sensors are housed in a square case manufactured from an
ignition resistant grade of ABS, which meets the requirements of AS2420.
There are four models of the GENII SENRx modules:
• SENR1 Wireless Temperature Sensor
• SENR2 Wireless Temperature Sensor with Set Point
• SENR5 Wireless Temperature Sensor with Aer Hours
• SENR6 Wireless Temperature Sensor with Set Point and Aer Hours
Colour: O white
Dimensions(max): 80mm(w) x 80mm(h) x 37mm(d)
Mounting: Wall Mounted
The GENII SENRx modules should be mounted within a 20 metre radius (depending on obstructions)
of the GENII WMI Wireless Module Interface. The location should be dry, clean and free of excess
vibration. Refer to Figure 2-9.
5
30
7
UP
MOUNTING
HOLES
80
�
Figure 2-9: GenII SENRx Wireless Temperature Sensors
A steel enclosure is recommended to contain the system with the aim of minimizing EMI from
surrounding equipment. To allow for the number of cables to enter and leave the enclosure, the
minimum dimensions of slotted cable ducts should be 45mm x 45mm with 65mm clearance from the
cable ducts to the terminals of the units.
The communications cable between the Genesis II Direct Digital Controller and REMs, or MPCII
Mid Points Controller and REMS, is through the integrated RS485 REM Comms port in the digital
controller.
NOTE
Unless otherwise noted, Installation Instructions are based on the assumption that the system to be installed is a
local Genesis II System consisting of one Genesis II Direct Digital Controller and three types of REMs. Installation
instructions for other types of hardware, such as the MPCII Mid Points Controller or GENII WMI Wireless Module
Interface, is contained in section 2-4 - Dierence Data.
2-3.1 DIN Rails
The DIN rail is an industry-standard item and is available from a large number of commercial
sources. The rail is usually manufactured from galvanised steel and may be provided with a finish.
It is typically available in 2 metre lengths. DIN rail cutters are available commercially and are
recommended; however, for smaller installations, a hacksaw may be used to cut the rails to the
required length.
Figure 2-10 shows the dimensions of a typical DIN rail section.
To ensure continued reliable operation of the Genesis II System, the following installation guidelines
should be observed:
• The Genesis II Direct Digital Controller or MPCII Mid Points Controller should be installed in a
position that provides easy access to the front panel and suicient room for power, and input/
output cabling. Also, the Digital Controller should be mounted such that the controls are in easy
reach of the user. This requirement does not apply to the MPCII Mid Points Controller which has no
external controls or indicators.
• Placement of the Genesis II Direct Digital Controller should take into account the optimum viewing angle of the Liquid Crystal Display (LCD), which is approximately 45° vertically and 90°
horizontally (see Figure 2-12).
• Do not mount any unit of the system near high voltage, high current cables or sources of strong
radio frequency emissions such as transmitter antenna cables.
• The ambient temperature of the digital controller and REMs at the installation site should not
exceed the 0-40 °C temperature range.
• Mount the units in an area with minimum vibration and minimum exposure to mechanical
damage.
• The REMs must be installed within 600 metres of the Genesis II Direct Digital Controller or MPCII
Mid Points Controller.
Top View
45
Figure 2-12: Genesis II DDC Optimum Display Viewing Angle
This paragraph contains dierence data unique to installation of the MPCII Mid Points Controller,
Genesis II System REMs and related devices. Installation instructions provided in Section 2-3 are
applicable except where stated otherwise.
2-4.1 REM Limitations
The following limitations apply to the installation of REMs:
• A Genesis II Direct Digital Controller must have Version 4 firmware or greater installed to support
REM Modules.
• For pre-version 5 controllers, a GENII RMI Remote Module Interface is required to connect REM
Modules. Refer to datasheet DS15.01 GENII RMI Remote Module Interface for more information.
• Gen2Config v4.0 or greater must be used to configure a Genesis II Direct Digital Controller that has
REM Modules connected to it.
• REM units designed for DIN rail mounting should be mounted on DIN rails in cabinets approved for
switchgear or industrial control equipment, with the exception of the GENII WMI (See 2-4.2).
NOTE
Gen2Config V4.0 or greater automatically configures the Genesis II Series digital controller, and produces a printout
which lists the types and quantities of REMs that can be used with a given Genesis II Series digital controller.
The following information provides generalised REM type/quantity requirements that can be used for planning
purposes.
• Up to 15 REMs can be connected to a single Genesis II Direct Digital Controller or MPCII Mid Points
Controller, with one exception – the MP REMs. The MP REM can only be addressed between 1 and 8
and only 8 MP REMs can be used.
2-4.2 Installation of GENII WMI Wireless Module Interface
Follow the General Installation Guidelines (2-3.2) except:
• Do not install the GENII WMI inside a fully enclosed metal switchboard.
• The GENII WMI should be mounted within a 20 metre radius of all SENRx Modules from which it will
be receiving data.
This section of the manual contains instructions and related data to facilitate the electrical
installation of the Genesis II System. Because of the designed-in flexibility of the Genesis II System,
it can be installed in a wide variety of configurations, depending on the user’s preference. For this
reason, it is not possible to include all the various installation configurations in this manual. Instead,
this manual provides examples of typical installations.
Innotech recognises that the installation examples described in this manual may not be in total
agreement with the user’s requirements. However, information in this document should be used as
a guide for all installations, regardless of whether the specific circumstances match the examples
given. In all cases, installation personnel should familiarise themselves with the information
contained in this section.
NOTE
If required, additional installation recommendations can be provided from Innotech Control Systems Australia upon
request.
This section of the technical manual contains the following specific information:
• Electrical Installation Practices of a general nature
• Wiring information for digital controllers (Genesis II Direct Digital Controller, MPCII Mid Points
Controller)
• Wiring information for Remote Expansion Modules
3-2 Electrical Installation Practices
This paragraph provides general information which is intended to assist qualified personnel installing
the Genesis II Systems. More detailed information for wiring of controllers and expansion modules
is contained in subsequent paragraphs. All wiring between the controller/expansion modules and
system input/output devices, such as sensors, fans and compressors, must be in accordance with the
instructions in the applicable instruction manual or datasheet.
CAUTION
Electrical power to the system must be turned o throughout the installation process. Do not apply power to any
part of the system until ready for Commissioning (see Commissioning).
NOTE
If any data presented in this manual disagrees with information in the applicable instruction manual, information
in the manufacturer’s instruction manual takes precedence. Customers are encouraged to contact Innotech
Control Systems Australia for further information or clarification of information presented herein via the contact
details at the back of this document.
Cabling plays an important role in the installation of Genesis II Systems. The following general
cabling guidelines should be observed:
• In all cases, use electromagnetic-shielded cable for sensor wiring.
• When necessary to protect cabling from physical damage, both shielding and physical protection
may be provided by running the cable in a metal conduit. Alternatively, use steel wire armoured
(SWA) cable, which also contains an electromagnetic shield.
• Avoid running cables in the vicinity of high voltage power cables or cables carrying switching
voltages/currents. This especially applies to sensor signal cables.
• Interconnecting cables must have multi-strand conductors with a cross-sectional area of 1mm² for
each conductor.
• The earth cable to a Genesis II System enclosures must be a minimum of 2.5mm², and wired in
accordance with local electrical regulations.
• For Analogue Inputs to the controller, a 16 conductor (0.5mm²) shielded cable is required.
Table 3 -1 provides assistance in determining the cabling requirements for various installation
configurations. It shows the dimensions, wire gauge designations and resistance values per
unit length for common wire sizes. Use this table to determine specific cabling requirements
for your installation.
Table 3-1: Nominal Resistance for Wire Sizes at 20°C
Conductor Area (mm²)Diameter (mm)
0.50.8021203.44
1.01.1318171.72
1.51.3817151.15
2.01.6016140.86
2.51.7815130.69
NOTE
• 1. SWG = Standard Wire Gauge, BWG = British Wire Gauge, AWG = American Wire Gauge.
• 2. All SWG, BWG and AWG numbers are for the largest wire if a direct equivalent to the mm² wire size is not
available.
Nearest SWG or
BWG
Nearest
AWG
Ohms per 100
3-3 Digital Controller Wiring
The following paragraphs contain input/output connection information for the Genesis II Direct
Digital Controller and the MPCII Mid Points Controller. The GEN2Config Soware, which is used to
configure and program the digital controller, automatically produces a wiring diagram and materials
list for the specific application. The wiring diagram and materials list can be easily printed and used
for reference.
Below is an example of a typical computer-generated wiring diagram. A printout of the wiring
diagram and materials list is usually provided at the time of hardware delivery. Refer to Figure 3-1.
Figure 3-1: Computer Generated Wiring Diagram Example
Figure 3-2 shows the input/output connection groups for the Genesis II Direct Digital Controller. The
controller uses Phoenix type plug-in terminal strips located around the controller’s perimeter. Both
single row and double row terminals are used. Terminals are grouped by function as follows:
The Genesis II Direct Digital Controller's power requirements are one of the following:
• 24VAC ±10%, 50/60 Hz, Power Consumption: 15 VA.
• 24VDC ±10%, Power Consumption: 8 Watts.
The operating voltage must meet the requirements of Safety Extra Low Voltage (SELV) to EN60730.
The transformer used must be a safety transformer in compliance with EN60742 and be designed for
100% duty. It must also be sized and fused in compliance with local safety regulations.
A single transformer may be used to supply voltage to more than one unit (such as a Genesis II Direct
Digital Controller and associated Remote Expansion Modules) providing the planned load is well
within the transformer’s rating. The transformer output terminal designated as AC Neutral must be
solidly earthed to the enclosure’s main earth link.
Power input terminals are Terminals 1, 2 and 3 and are detailed below in Table 3-2 .
Table 3-2: Genesis II DDC Power Input Signal Conditions
Ter minalAC SupplyDC Supply
124VAC+24VDC
20VAC (Neutral)0VDC
3EarthEarth
NOTE
Resistance between Terminal 2 and Earth must be 3Ω or less.
The Genesis II Direct Digital Controller’s eight Digital Input channels (Terminals 4 to 19) provide the
capability of directly interfacing to digital input signal sources such as pushbutton switches and relay
contacts.
Because each Digital Input channel is isolated, the power source for the signal must be external to the
controller. This signal source can be AC or DC. If the source is AC, it can be provided by the auxiliary
transformer.
Digital input signal power requirements are one of the following:
• 24VAC ±15%
• 24VDC ±15%
There are two terminals associated with each Digital Input channel. If an external DC signal source
is used, the even-numbered (le) terminal must be wired as positive and the odd-numbered (right)
terminal as negative.
Refer to Table 3 -3 for Digital Input terminal number assignments. Signal names assigned to the
terminals are DI 1+/- through to DI 8+/-. DI stands for Digital Input, the numeral value represents the
channel number and the + or - sign indicates the signal polarity when using a DC signal power source.
Each of the Genesis II Direct Digital Controller’s twelve digital output channels (Terminals 42–65)
consists of a single-pole, double-throw (SPDT) relay. The two terminals assigned to each channel
represent the associated relay’s Normally Open (NO) and Common (COM) contacts.
Digital output relay contacts are rated at 24VAC, 2A. Good practice is to use pilot relays for the actual
switching functions, particularly when it applies to inductive loads such as coils, solenoids and
motors. This protects the relays of the Digital Output channel and has the advantage of allowing the
pilot relays to be installed adjacent to the controlling switch-gear.
Refer to Table 3 -4 for Digital Output terminal number assignments.
Table 3-4: Genesis II DDC Output Signal Conditions
The Genesis II Direct Digital Controller’s eight Analogue Input channels (Terminals 22-37) allow
the direct interface of various analogue inputs, such as Thermistor, 0-10VDC, 0-5VDC and 4-20 mA
signals. Each Analogue Input channel is configured to the type of input by the use of Analogue Input
Signal Conditioners (AISCs). These are small plug inserts installed during system commissioning (see
Commissioning).
IMPORTANT
Special consideration must be made when using loop-powered 4-20 mA inputs. As this type of input draws 20 mA
from the Digital Controller, a maximum of two inputs of this type may be used. This type of input must not be used
on Remote Expansion Modules.
NOTE
Terminals 20 and 21 are provided for terminating Analogue Cable Screens.
There are two terminals associated with each of the eight Analogue Input channels. Normally, the
even-numbered (positive) terminal is used for the active Analogue Input signal from the sensor. The
odd-numbered (negative) terminal is used to provide the stimulation for the sensor or a voltage
reference (such as 0 Volts) for an active transducer.
Due to the sensitivity of the Analogue Input signals, screened cable must be used. The screens
should be terminated at Terminals 20 or 21.
Refer to Table 3 -5 for Analogue Input terminal number assignments. Signal names assigned to the
terminals are AI1+/- through AI8+/-. AI stands for Analogue Input; the numeral represents the channel
number. The + indicates the active signal and the - indicates the signal reference/return.
Sixteen Analogue Output channels are provided. Each channel can be configured, through the
Gen2Config soware, to operate in either the Variable Mode or the Heat Valve Mode.
In the Variable Mode, the output is a voltage-analogue signal varying from 0 to +10 Volts with a
maximum current rating of 5mA. In the Heat Valve Mode, the output signal consists of Pulse-Width
Modulated (PWM), 0-10V, high-speed pulses at 5mA.
For a description of PWM as it applies to Heat Valve Operation, refer to the Innotech Genesis II Direct
Digital Controller User Manual.
When using PWM outputs, up to three solid state relays, connected in series, may be used on each
Heat Valve-configured analogue output channel. See Figure 3-3.
A maximum of eight Analogue Output channels can be applied to Heat Valve operation. For more
than eight Heat Valve outputs, it is recommended that Models IHV4002 or IHV4004 for Heat Valves for
Solid State Relays or IHV4212, IHV4224 or IHV4214 Staging Heat Valves for Solid State Relays be used.
These heat valves are driven by the Digital Controller’s Analogue Output channel in the Variable
Mode.
For more information on these devices, refer to:
• Datasheet DS3.31 for Type IHV Heat Valves.
• Datasheet DS3.32 for Type IHV42 Heat Valves.
L3
12
3+ve
ANALOGUE
OUTPUT
TERMINALS
-
+
L1L2
TO
HEATERS
12
3+ve
4
HEATERS
12
3+ve
4
TO
Figure 3-3: Genesis II DDC Driving Multiple Solid State Relays
Refer to Table 3 -6 below for Analogue Output terminal numbers. There are 16 Analogue active signal
terminals (AO1 through AO16), one for each channel and eight return (Common) terminals. The fewer
number of Common terminals is intended to reduce the overall number of terminals.
Cable screening may be terminated into the Screens Terminals (20 and 21), space permitting.
Alternatively, all cable screens can be combined by soldering within the slotted cable-routing ducts
with a common 1mm2 earth lead connected to Terminals 20 or 21.
A single, high-speed Digital Input is provided to facilitate the counting of rectangular wave signals
(0-10VDC up to 0-24VDC, for pulse frequencies up to 1 kHz). Refer to Table 3-7 for terminal number
assignments.
Terminals 38 and 39 provide 24VDC power to the pulse source, if required. Terminals 40 and 41 are
the pulse-input terminals. The input is polarity sensitive so it is important that correct polarity be
observed.
Table 3-7: Genesis II DDC Pulse Counter Input Terminals
Ter minalSignal
38+24VDC to Pulse Signal
39-24VDC to Pulse Signal
40+ Pulse Input
41- Pulse Input
3-3.1.7 REM Connector
The Genesis II Direct Digital Controller has the facility for I/O expansion using Remote Expansion
Modules (REMs). Each REM provides an array of points which can be connected to a sub-network up
to 600 metres in length.
The fieen REMs can be made up of any mix of the available types with one exception - the MP REM.
The MP REM can only be addressed between 1 and 8 and only 8 MP REMS can be used.
The REM connector is a 4 way terminal connection that provides access between the Genesis II Direct
Digital Controller and the expansion modules.
The individual REMs are connected to the device by means of an RS485 Comms cabling arrangement,
as explained in 3-4 - Wiring of Remote Expansion Modules.
Figure 3-4 shows the input/output connection groups for the MPCII Mid Points Controller. The MPCII
Mid Points Controller uses terminal strips located around the controller’s perimeter. Terminals are
grouped by function as follows:
The MPCII Mid Points Controller's power requirements are one of the following:
• 24VAC ±10%, 50/60Hz, Power Consumption: 7 VA
• 24VDC ±10%, Power Consumption: 4 Watts
The operating voltage must meet the requirements of Safety Extra Low Voltage (SELV) to EN60730.
The transformer used must be a safety transformer in compliance with EN60742 and be designed for
100% duty. It must also be sized and fused in compliance with local safety regulations.
A single transformer may be used to supply voltage to more than one unit (such as a MPCII Mid Points
Controller and associated Remote Expansion Modules) providing the planned load is well within the
transformer’s rating. The transformer output terminal designated as AC Neutral must be solidly
earthed to the enclosure’s main earth link.
Power input terminals are Terminals 1, 2 and 3 and are detailed below in Table 3-8:
Table 3-8: MPCII Mid Points Controller Power Input Signal Conditions
Ter minalAC SupplyDC Supply
124VAC+24VDC
20VAC (Neutral)-24VDC
3EarthEarth
NOTE
Resistance between Terminal 2 and Earth must be 3Ω or less.
The MPCII Mid Points Controller’s four Digital Input channels (Terminals 4 to 11) provide the capability
of directly interfacing to digital input signal sources such as pushbutton switches and relay contacts.
Because each Digital Input channel is isolated, the power source for the signal must be external to the
controller. This signal source can be AC or DC. If the source is AC, it can be provided by the auxiliary
transformer.
Digital input signal power requirements are one of the following:
• 24 VAC ±15%
• 12 VDC ±15%
There are two terminals associated with each Digital Input channel. If an external DC signal source
is used, the even-numbered (le) terminal must be wired as positive and the odd-numbered (right)
terminal as negative.
The MPCII Mid Points Controller's Digital Input terminals are not assigned numbers; however, each
Digital Input terminal is clearly labelled as to its polarity and signal name. Signal names assigned to
the terminals are DI 1+/- through DI 4+/-.
Refer to Table 3 -9 for the MPCII Mid Points Controller's Digital Input Signal Conditions:
Table 3-9: MPCII Mid Points Controller Digital Input Signal Conditions
Each of the MPCII Mid Points Controller’s eight digital output channels consists of a single-pole,
double-throw (SPDT) relay. The two terminals assigned to each channel represent the associated
relay’s Normally Open (NO) and Common (COM) contacts.
Digital output relay contacts are rated at 24VAC, 2A (to be supplied by a Class 2 Transformer).
Good practice is to use pilot relays for the actual switching functions, particularly when it applies to
inductive loads such as coils, solenoids and motors. This protects the relays of the Digital Output
channel and has the advantage of allowing the pilot relays to be installed adjacent to the controlling
switch-gear.
The MPCII Mid Points Controller's Digital Output terminals are not assigned numbers; however, each
Digital Output terminal is clearly labelled as to its polarity and signal name. Signal names assigned to
the terminals are DO 1(NO/COM) through DO 8(NO/COM).
Refer to Table 3 -10 for Digital Output terminal number assignments:
Table 3-10: MPCII Mid Points Controller Digital Output Signal Conditions
The MPCII Mid Points Controller’s four Analogue Input channels allow the direct interface of various
analogue inputs, such as Thermistor, 0-10VDC, 0-5VDC and 4-20mA signals. Each Analogue Input
channel is configured to the type of input by the use of Analogue Input Signal Conditioners (AISCs).
These are small plug inserts installed during system commissioning (Mechanical Installation).
There are two terminals associated with each of the four analogue input channels. Normally, the
even-numbered (positive) terminal is used for the active Analogue Input signal from the sensor. The
odd-numbered (negative) terminal is used to provide the stimulation for the sensor or a voltage
reference (such as 0 Volts) for an active transducer.
Due to the sensitivity of the Analogue Input signals, screened cable must be used. The screens
should be terminated at the Screen Terminals, located between the Digital Input and Analogue Input
terminals on the MPCII Mid Points Controller.
The MPCII Mid Points Controller's Analogue Input terminals are not assigned numbers; however, each
Analogue Input terminal is clearly labelled as to its polarity and signal name. Signal names assigned
to the terminals are AI 1+/- through AI 4+/-.
Refer to Table 3 -11 for Analogue Input terminal number assignments.
IMPORTANT
Special consideration must be made when using loop-powered 4-20mA inputs. As this type of input draws 20mA
from the Digital Controller, a maximum of two inputs of this type may be used. This type of input must not be used
on Remote Expansion Modules.
NOTE
Screen Terminals, located between the Digital Input and Analogue Input terminals on the MPCII Mid Points
Controller, are provided for terminating Analogue Cable Screens.
The MPCII Mid Points Controller has four Analogue Output channels. Each channel can be configured,
through the Gen2Config Soware, to operate in either the Variable Mode or the Heat Valve Mode.
In the Variable Mode, the output is a voltage-analogue signal varying from 0 to +10 Volts with a
maximum current rating of 5mA. In the Heat Valve Mode, the output signal consists of Pulse-Width
Modulated (PWM), 0-10V, high-speed pulses at 5mA.
For a description of PWM as it applies to Heat Valve Operation, refer to the Innotech MPCII Mid Points
Controller User Manual.
When using PWM outputs, up to three solid state relays, connected in series, may be used on each
Heat Valve-configured analogue output channel. See Figure 3-5.
For more than four Heat Valve outputs, it is recommended that Models IHV4002 or IHV4004 Heat
Valves for Solid State Relays be used. These heat valves are driven by the Digital Controller’s
Analogue Output channel in the Variable Mode.
There are four analogue active signal terminals (AO1 through AO4), one for each channel and two
return (Common) terminals. The fewer number of Common terminals is intended to reduce the
overall number of terminals.
Cable screening may be terminated into the provided Analogue Output Screens, space permitting.
Alternatively, all cable screens can be combined by soldering within the slotted cable-routing ducts
with a common 1mm2 earth lead connected to the Analogue Output Screens.
Refer to Table 3 -12 for Analogue Output terminal number assignments:
NOTE
Screen Terminals, located between the Analogue Output terminals AO 2 and AO 3 on the MPCII Mid Points
Controller, are provided for terminating Analogue Output Cable Screens.
The MPCII Mid Points Controller has the facility for I/O expansion using Remote Expansion Modules
(REMs). Each REM provides an array of points which can be connected to a sub network up to 600
metres in length.
The fieen REMs can be made up of any mix of the available types with one exception - the MP REM.
The MP REM can only be addressed between 1 and 8 and only 8 MP REMS can be used.
The REM connector is a 4 way terminal connection that provides access between the MPCII Mid Points
Controller and the expansion modules.
The individual REMs are connected to the device by means of an RS485 Comms cabling arrangement,
as explained below in 3-4 Wiring of Remote Expansion Modules.
The following paragraphs contain wiring information for the following types of Remote Expansion
Modules (REMs) used in the Genesis II System:
• GENII AI REM Analogue Input Module (3-4.3)
• GENII AO REM Analogue Output Module (3-4.4)
• GENII DI REM Dry Contact Digital Input Module (3-4.5)
• GENII DO REM Digital Output Module (3-4.6)
• GENII IDI REM Opto Isolated Digital Input Module (3-4.7)
• GENII PI REM Pulse Input Module (3-4.8)
• GENII MZS REM Multi Zone Station Module (3-4.9)
• GENII MZSAH REM Zone Control Station A/H (3-4.10)
• GENII CS REM Control Station Module (3-4.11)
• GENII CSAH REM Control Station Aer Hours Module (3-4.12)
• GENII CSFCAH REM Control Station Fan Control, Aer Hours Module (3-4.13)
• GENII MP405 Multipoint Module (3-4.14)
• GENII MP414 Multipoint Module (3-4.15)
• GENII MP423 Multipoint Module (3-4.16)
• GENII MP432 Multipoint Module (3-4.17)
• GENII Wireless Module Interface (3-4.18)
• SENRx Wireless Temperature Sensors (3-4.19)
Communication between the Genesis II Direct Digital Controller or MPCII Mid Points Controller and
REMs is by way of a RS485 cable connected between the dedicated REM network socket on the digital
controller and the REM network.
The method for connecting the modules to electrical power and to the RS485 Comms cable system
is similar for most of the dierent types of modules, except where otherwise noted. The following
two paragraphs provide detailed instructions for connecting electrical power and the RS485 system,
respectively.
3-4.1 REM Power Connections
Power requirements are 24VAC, ±10% at 50/60 Hz. Refer to the appropriate paragraph below for the
physical location of the power connection block within each type of REM. At the power connection
block, the 24VAC power terminals are:
• Terminal 1 = 24VAC Supply
• Terminal 2 = 0VAC Supply
• Terminal 3 = Earth
Terminal 3 is for the protection of the RS485 Comms circuitry and must be connected to a good,
electrically bonded earth. This may be the earth bus bar of the switchboard or the point that
connects the chassis of the equipment the module is located in. This connection is independent of
and in addition to the earthed AC Neutral at Terminal 2.
The RS485 Comms link between the Genesis II Direct Digital Controller and REMs, or the MPCII Mid
Points Controller and REMs, is designed to allow reliable communications over long distances in
electrically adverse signal conditions.
The following guidelines, which are common to all REMs, should be followed when installing the
RS485 Comms network:
• Cables used for RS485 Comms must be shielded, single twisted pair, 120 Ohms characteristic
impedance with 36 to 45 picoFarads per metre capacitance between conductors.
• The RS485 Comms cable must be organised as a bus topology. See 5-3.3 for a description of bus
topology. To connect a module to the RS485 cable, the cable is cut at the point the module is
to be connected. Then, the two new cable ends are wired into the module. The two shields are
then terminated at terminals marked SHLD1 and SHLD2 respectively. “Stub” connections are not
allowed in the bus topology configuration.
• The cable run between the digital controller and any other REM must not exceed 600 metres in
length.
On most units, the RS485 Comms connection block contains four terminals. The four terminals on
the standard RS485 connection block are:
• S1Screen of Cable Number 1
• +Positive Comms Line
• - Negative Comms Line
• S2Screen of Cable Number 2
The four-terminal arrangement accommodates the use of one or two RS485 Comms cables. A
single cable connection is used when the module is located at the end of the network and two cable
connections are used when the REM is connected to a point in the cable network other than the end.
An End of Cable Jumper plug near the RS485 connection block provides the proper termination
impedance for the Comms line. If only single RS485 Comms cable is connected to the module, the
End of Cable Jumper must be installed. If two cables are fitted, the End of Cable Jumper must be
removed.
IMPORTANT
The RS485 Comms System will not function properly if the connection polarities are incorrect. Ensure correct
polarity of the connections throughout the length of the Comms Cable.
Figure 3-6 shows how to connect a two-cable Comms network to a module. If the module has only
one RS485 Comms cable connected to it, the cable screen must be connected to S1. If two Comms
cables are fitted, the screen of the second cable must be connected to the S2 terminal. Screens must
not be connected to each other.
The GENII AI REM Analogue Input Module (Figure 3-7) is powered by 24VAC ±10% @ 50/60 Hz. Power
Consumption is 4 VA maximum.
The GENII AI REM provides for six analogue inputs from field equipment. Each Analogue Input circuit
has a socket for fitting an Analogue Input Signal Conditioner (AISC), which defines the input type and
range selection. Installing the AISCs is part of the commissioning process and is explained in the
Commissioning chapter.
Figure 3-7: GenII AI REM Analog Input Module
The RS485 Comms connection block is in the upper right section of the module and the End of Cable
Jumper is next to it.
Analogue Input terminals for the GENII AI REM are listed in Ta ble 3-1 3 . Analogue Input cables should
be run using twisted pair, shielded cable. The screens are to be connected to either of the two
terminals marked SCREEN.
Table 3-13: GenII AI REM Analog Input Signal Conditions
The GENII AO REM Analogue Output Module (Figure 3-8) is powered by 24VAC ±10% @ 50/60 Hz.
Power Consumption is 4VA maximum.
The GENII AO REM provides up to five Analogue Outputs to be connected to field equipment.
Jumpers on the board allow for either Linear 0-10V (maximum load 2mA) or PWM 10Vpp (maximum
load 2mA) output settings for each channel.
The RS485 Comms connection block is in the upper right section of the module and the End of Cable
Jumper is next to it.
Analogue Output terminals are located at the bottom of the module; output signal connections are
listed below in Table 3-14. Analogue Output cables should be run using twisted pair shielded cable.
The screens should be connected to the signal’s negative output terminal (B, D, F, H or J) in each case.
Table 3-14: GENII AO REM Analogue Output Signal Conditions
Ter minalSignalTerminalSignal
AAO 1+BAO 1-
CAO 2+DAO 2-
EAO 3+FAO 3-
FAO 4+HAO 4-
IAO 5+JAO 5-
3-4.5 GENII DI REM Digital Input Module
The GENII DI REM Digital Input Module (Figure 3-9) is powered by 24VAC ±10% @ 50/60 Hz. Power
Consumption is 4VA maximum.
The GENII DI REM provides 8 dry contact closure switches (inputs provide 5VDC that is shorted to
common when the input is closed) to sense contact closures from field equipment.
3-4.7 GENII IDI REM Opto Isolated Digital Input Module
The GENII IDI REM Opto Isolated Digital Input Module (Figure 3-11) is powered by 24VAC ±10% @
50/60Hz. Power Consumption is 4VA maximum.
The GENII IDI REM provides 5 opto isolated digital inputs to sense signals from field equipment. The
voltage detection range is 12 to 24 volts AC or DC.
POWER
12
3
CABLE
JUMPER
RS485 COMMS
R
GENESI S
ISOLA TED DIGI TA LINPUT
Remote Expansion Module
DIGITAL
+DI2-
+DI1-
ABCDE FGHI J
+DI3-
+DI4-
+DI5-
INPUT
Figure 3-11: GENII IDI REM Opto Isolated Digital Input Module
Table 3-17: GEN II IDI REM Opto Isolation Digital Input Signal Conditions
The GENII PI REM Pulse Input Module (Figure 3-12) is powered by 24VAC ±10% @ 50/60 Hz. Power
Consumption is 4 VA maximum.
The GENII PI REM provides 5 opto isolated digital inputs to sense pulsed signals from field equipment.
The voltage detection range is 12 to 24VDC. The GENII PI REM detects pulses with a minimum on time
of 20ms, with a minimum o time of 20ms, which gives a maximum of 25 pulses per second.
POWER
12
3
CABLE
JUMPER
RS485 COMMS
R
GENESI S
PULSE INPUT
Remote Expansion Module
DIGITAL
+DI2-
+DI1-
ABCDE FGHI J
+DI3-
+DI4-
+DI5-
INPUT
Figure 3-12: GENII PI REM Pulse Input Module
The RS485 Comms connection block is in the upper right section of the module and the End of Cable
Jumper is next to it.
Digital Input terminals are located at the bottom of the module; input signal connections are listed in
Table 3 -18 .
Table 3-18: GENII PI REM Pulse Input Signal Conditions
The GENII MZS REM Multi Zone Station Module (Figure 3-13) is powered by 24VAC ±10% @ 50/60Hz. Power
Consumption is 3VA maximum.
The GENII MZS REM mounts into a standard electrical wall plate. The only connections to the GENII MSZ
REM are 24VDC power and the RS485 Comms link. Locations of electrical terminals are shown in Figure 3-13,
which is a rear view of the module.
When all connections have been made, protect the module from dirt and moisture by covering it with plastic
but do not mount the module in the wall plate until commissioning is completed. This is to allow addresses
to be set as part of the commissioning process.
POWER
RS485
COMMS
Figure 3-13: GENII MZS REM Multizone Station Module
3-4.10 GENII MZSAH REM Multi Zone Station A/H Module
The GENII MZSAH REM Multi Zone Station A/H Module is powered by 24VAC ±10% @ 50/60Hz. Power
Consumption is 3VA maximum.
The GENII MZSAH REM mounts into a standard electrical wall plate. The only connections to the
GENII MZSAH REM are 24VAC power and the RS485 Comms link. Locations of electrical terminals are
shown in Figure 3-14, which is a rear view of the module.
When all connections have been made, protect the module from dirt and moisture by covering it with
plastic but do not mount the module in the wall plate until commissioning is completed. This is to
allow addresses to be set as part of the commissioning process.
POWER
RS485
COMMS
Figure 3-14: GENII MZSAH REM Multizone Station A/H Module
The GENII CS REM Control Station Module is powered by 24VAC ±10% @ 50/60Hz. Power Consumption
is 3 VA maximum.
The GENII CS REM mounts into a standard electrical wall plate. The only connections to the GENII
CS REM are 24VAC power and the RS485 Comms link. Locations of electrical terminals are shown in
Figure 3-15, which is a rear view of the module.
When all connections have been made, protect the module from dirt and moisture by covering it with
plastic but do not mount the module in the wall plate until commissioning is completed. This is to
allow addresses to be set as part of the commissioning process.
The GENII CSAH REM is powered by 24VAC ±10% @ 50/60 Hz. Power Consumption is 3VA maximum.
The GENII CSAH REM mounts into a standard electrical wall plate. The only connections to the GENII
CSAH REM are 24VAC power and the RS485 Comms link. Locations of electrical terminals are shown
in Figure 3-16, which is a rear view of the module.
When all connections have been made, protect the module from dirt and moisture by covering it with
plastic but do not mount the module in the wall plate until commissioning is completed. This is to
allow addresses to be set as part of the commissioning process.
POWER
RS485
COMMS
CONNECTIONS
Figure 3-16: GENII CSAH REM Control Station A/H Module
3-4.13 GENII CSFCAH REM Control Station Fan Control A/H Module
The GENII CSFCAH REM Control Station Fan Control, A/H Module is powered by 24VAC ±10% @ 50/60
Hz. Power Consumption is 3VA maximum.
The GENII CSFCAH REM mounts into a standard electrical wall plate. The only connections to the
GENII CSFCAH REM are 24VAC power and the RS485 Comms link. Locations of electrical terminals are
shown in Figure 3-17, which is a rear view of the module.
When all connections have been made, protect the module from dirt and moisture by covering it with
plastic but do not mount the module in the wall plate until commissioning is completed. This is to
allow addresses to be set as part of the commissioning process.
POWER
RS485
COMMS
CONNECTIONS
END OF
CABLE
JUMPER
Figure 3-17: GENII CSFCAH REM Control Station Fan Control, A/H Module
16Amp R esistive
6Amp Inductive
Com = Common Contact
NO = Normally Open Contact
24V AC /DC
24V AC or DC Supply
CONTR OL SYS TEMS
A
USTRALIA
®
0V AC or DC Supply
MP405
(Voltage Free Contacts by other)
DIGI TA LINPUT S
+24V
0V
DI#+
DI#-
NOTE:
ALL DIGITAL INPUTS:Ra ted at :
24V (AC or DC)
(Voltage Free Contacts by other)
TYPICAL DIGI TA LINPUTS
SENSOR
C+
CS2
S1
Comms
+24V
0V
EARTH
DI
4
DI
1
DI
2
DI
3
+
-
Comms
Jumpers
A2
A1
A0
TERM
SHLD2
SHLD1
TH2
TH1
+
-
+
-
+
-
+
-
ComNO
DO 1
DO 2
DO 3DO 4
0 V
24V
ComNO
ComNO
ComNO
DO 5
ComNO
E
DI
4
DI
1
DI
2
DI
3
+
-
Comms
Jumpers
A2
A1
A0
EOL
SHLD2
SHLD1
TH2
TH1
+
-
+
-
+
-
+
-
3-4.14 GENII MP405 REM Multipoint Module
The Innotech GENII MP405 REM Multipoint Module is a remote expansion device that has both input
and output expansion capabilities. The GENII MP405 REM provides relay outputs for distributed
control, digital inputs for status detection and Thermistor inputs for temperature measurement.
The GENII MP405 REM (Figure 3-18) is powered by 24VAC ±10% @ 50/60 Hz, or powered by 24VDC
±15%. Power Consumption is 4VA maximum.
Inputs:
• 10 kΩ thermistor temperature sensor.
• 4 x 24VAC or DC Isolated switched contact digital inputs.
Outputs:
• 5 x 24VAC or DC Relay Outputs, Normally Open contacts. Rated at 16 Amp Resistive, 6 Amp
Inductive.
Figure 3-18: GENII MP405 REM Multipoint Module
The RS485 Comms connection block is in the lower-le section of the module (as illustrated above)
and the End of Cable Jumper is next to it.
IMPORTANT
The unit must be powered down before jumpers are altered. Anti-static precautions should be taken when changing
addresses or adding or removing cabling from the terminals.
The Innotech GENII MP414 REM Multipoint Module is a remote expansion device that has both input
and output expansion capabilities. The GENII MP414 REM provides relay outputs for distributed
control, digital inputs for status detection and Thermistor inputs for temperature measurement.
The GENII MP414 REM (Figure 3-19) is powered by 24VAC ±10% @ 50/60Hz, or powered by 24VDC ±15%.
Power Consumption is 4 VA maximum.
Inputs:
• 10 kΩ thermistor temperature sensor.
• 4 x 24VAC or DC Isolated switched contact digital inputs.
Outputs:
• 4 x 24VAC or DC Relay Outputs, Normally Open contacts. Rated at 16 Amp Resistive, 6 Amp
Inductive.
• 1 x Analogue Output, 0-10VDC ±0.05V into > 2 kΩ load.
DIGI TA LINPUT S
(Voltage Free Contacts by other)
+24V
0V
NOTE:
ALL DIGITAL INPUTS:Ra ted at :
24V (AC or DC)
DI#+
DI#-
Comms
TYPICAL DIGI TA LINPUTS
(Voltage Free Contacts by other)
+24V
0V
SENSOR
S1
C+
CS2
-
-
+
+
-
-
+
+
-
-
+
+
-
-
+
+
TH2
TH2
TH1
TH1
SHLD1
SHLD1
SHLD2
SHLD2
A0
A0
A1
A1
A2
A2
EOL
TERM
+
+
-
-
DI
DI
DI
DI
DI
DI
DI
DI
4
4
3
3
2
2
1
1
Comms
Comms
Jumpers
Jumpers
MP414
®
USTRALIA
A
CONTR OL SYS TEMS
-
1
AO
+
ComNO
DO 4
ComNO
DO 3
ComNO
DO 2
ComNO
DO 1
E
0 V
24V
NOTE:
ALL OUTPUT RELAYS:Rated at :
24V AC /DC
16Amp R esistive
6Amp Inductive
Com = Common Contact
NO = Normally Open Contact
ANALOGUE OUTPUT:Rated at :
0-10VDC into >2 kLoa d
EARTH
0V AC or DC Supply
24V AC or DC Supply
Figure 3-19: GENII MP414 REM Multipoint Module
The RS485 Comms connection block is in the lower-le section of the module (as illustrated above)
and the End of Cable Jumper is next to it.
IMPORTANT
The unit must be powered down before jumpers are altered. Anti-static precautions should be taken when changing
addresses or adding or removing cabling from the terminals.
The Innotech GENII MP423 REM Multipoint Module is a remote expansion device that has both input
and output expansion capabilities. The GENII MP423 REM provides relay outputs for distributed
control, digital inputs for status detection and Thermistor inputs for temperature measurement.
The GENII MP423 REM (Figure 3-20) is powered by 24VAC ±10% @ 50/60 Hz, or powered by 24VDC
±15%. Power Consumption is 4 VA maximum.
Inputs:
• 10 kΩ thermistor temperature sensor.
• 4 x 24VAC or DC Isolated switched contact digital inputs.
Outputs:
• 3 x 24VAC or DC Relay Outputs, Normally Open contacts. Rated at 16 Amp Resistive, 6 Amp
Inductive.
• 2 x Analogue Output, 0-10V DC ±0.05V into > 2 kΩ load.
Figure 3-20: GENII MP423 REM Multipoint Module
The RS485 Comms connection block is in the lower-le section of the module (as illustrated above)
and the End of Cable Jumper is next to it.
IMPORTANT
The unit must be powered down before jumpers are altered. Anti-static precautions should be taken when changing
addresses or adding or removing cabling from the terminals.
The Innotech GENII MP432 REM Multipoint Module is a remote expansion device that has both input
and output expansion capabilities. The GENII MP432 REM provides relay outputs for distributed
control, digital inputs for status detection and Thermistor inputs for temperature measurement.
The GENII MP432 REM (Figure 3-21) is powered by 24VAC ±10% @ 50/60Hz, or powered by 24VDC
±15%. Power Consumption is 4 VA maximum.
Inputs:
• 10kΩ thermistor temperature sensor.
• 4 x 24VAC or DC Isolated switched contact digital inputs.
Outputs:
• 2 x 24VAC or DC Relay Outputs, Normally Open contacts. Rated at 16 Amp Resistive, 6 Amp
Inductive.
• 3 x Analogue Output, 0-10VDC ±0.05V into > 2 kΩ load.
Figure 3-21: GENII MP432 REM Multipoint Module
The RS485 Comms connection block is in the lower-le section of the module (as illustrated above) and
the End of Cable Jumper is next to it.
IMPORTANT
The unit must be powered down before jumpers are altered. Anti-static precautions should be taken when changing
addresses or adding or removing cabling from the terminals.
The Innotech GENII WMI Wireless Module Interface is a remote expansion for the Genesis II Direct
Digital Controller or MPCII Mid Points Controller. The GENII WMI provides an interface to the SENRx
series of wireless temperature sensors.
The GENII WMI (Figure 3-22) is powered by 24VAC ±10% @ 50/60Hz. Power Consumption is 4 VA
maximum.
There are no inputs or outputs on a GENII WMI. It is designed to receive the input data from any
SENRx modules located up to 20 metres away (depending on obstructions).
Figure 3-22: GENII WMI Wireless Module Interface
The RS485 Comms connection block is in the upper right section of the module and the End of Cable
Jumper is next to it (Figure 3-22).
The Cable run between the Genesis II Direct Digital Controller and GENII WMI, or MPCII Mid Points
Controller and GENII WMI, should not exceed 600 metres. The Comms wiring requires cable especially
suited for RS485. Other shielded cable is not suitable and may cause spasmodic Comms failures.
The GENII WMI should be mounted within a 20 metre radius (depending on obstructions) of all SENRx
modules from which it will be receiving data (Figure 3-23). The location should be dry, clean and free
of excess vibration.
GENII WMI modules operate within the 2.4-2.5 GHz worldwide unlicensed Industrial-Scientific-Medical
(ISM) frequency band.
There are four jumpers located in a row on the GENII WMI, labelled F0, F1, F2 and F3. These select
the frequency channel to use within the 2.4-2.5 GHz range. Typically, these jumpers need only be
changed if multiple GENII WMIs are used, or in areas with poor reception or strong interference.
IMPORTANT
• The unit must be powered down before jumpers are altered. Anti-static precautions should be taken when
changing addresses or adding or removing cabling from the terminals.
• The frequency jumpers on the GENII WMI must exactly match the frequency jumpers on any SENRx modules to be
communicated with.
The Innotech SENRx Series Wireless Temperature Sensors are remote expansion devices for the
Genesis II range of digital controllers. There are four unique models in the SENRx series:
• SENR1: Temperature Sensor, Low Battery Indicator.
• SENR2: Temperature Sensor, Low Battery Indicator, Set Point Adjustment.
• SENR5: Temperature Sensor, Low Battery Indicator, Aer Hours Button.
• SENR5: Temperature Sensor, Low Battery Indicator, Set Point Adjustment, Aer Hours Button.
The SENRx Series Wireless Temperature Sensors (Figure 3-23) are powered by 3.6VDC ½AA Lithium
Battery. Battery life is 12 months minimum.
There are no inputs or outputs on a SENRx Series Wireless Temperature Sensor. They are designed to
send the output data to a GENII WMI Wireless Module Interface located up to 20 m away (depending
on obstructions).
Figure 3-23: SENRx Wireless Temperature Sensor (Back View)
SENRx modules should be mounted within a 20 m radius (depending on obstructions) of the GENII
WMI Wireless Module Interface in a dry and clean location free of excess vibration.
To remove the battery from a SENRx module, simply insert a flat screwdriver underneath the battery
between the two clips and lever the battery out (Figure 3-23). When re-inserting the battery, press
and hold the “RESET” button. Release the “RESET” button aer the battery is located back in the
clips.
There are two sets of four jumpers located on the back of the SENRx module (Figure 3-23). The set of
jumpers closest to the battery are labelled A0, A1, A2 and A3. These set the network address of the
SENRx module in the same manner as GENII REM products.
Directions for setting the address are shown in the wiring diagram generated by the GEN2Config
soware. The jumpers located on the far right of the SENRx module are labelled F0, F1, F2 and F3.
These select the frequency channel to use within the 2.4-2.5 GHz range. Typically, these jumpers
need only be changed if multiple Wireless Module Interfaces are used or in areas with poor reception
or strong interference. The frequency jumpers on the SENRx module must exactly match the
frequency jumpers on the GENII WMI module to be communicated with.
IMPORTANT
If any jumpers on a module need to be changed, the unit must be powered down before the jumpers are altered.
This can be achieved by removing the battery as described above. Antistatic precautions should be taken when
changing jumpers or removing the battery.
The commissioning phase begins upon completion of the mechanical and electrical installation
of the system and is the phase in which the user makes the system ready for operation. The
commissioning process consists of performing the following procedures, which are explained
elsewhere in this section:
• Inspect the Installation
• Check Input and Output Wiring
• Install Analogue Input Signal Conditioners (AISCs)
• Set Jumpers (such as address jumpers and end-of-cable termination jumpers)
• Apply Partial Power
• Load Soware and Configure the Controller(s)
• Initial Tests
• Final System Checkout
CAUTION
To prevent injury to personnel and damage to equipment, all electrical power must be o before starting the
commissioning process this includes power to the Genesis units and power to input and output circuits and
equipment. When working with live power ensure that all electrical safety standards for work on live electrical
systems meet local regulatory requirements. Do not apply power to any unit or circuit until instructed to do so by
procedures in this section.
4-1.1 Inspect the Installation
Referring to Chapters 2, 3 and 5, inspect the entire system for correct mechanical, electrical and
network installation. Correct any discrepancies noted. Inspection should include the factors listed
in the following paragraphs, as a minimum.
4-1.1.1 Mechanical Inspection
Ensure that all units and enclosures are free of debris such as dust, metal chips, moisture, etc. That
may have been deposited during installation. Clean as necessary.
• Ensure all covers are properly installed. Exceptions are the CS REM Control Station Module and
MZS REM Multi Zone Station Module, which should be covered by plastic at this time (see 3-4.9 to
3-4.13).
• Ensure all units and DIN-rails are solidly mounted.
• Check cable ducts. Ensure they are placed so that cables entering and leaving the ducts do not
make overly tight bends.
• Make sure all units are located to provide safe access for operation and maintenance.
• Make sure all units are located where they are not subject to temperature extremes beyond the 0 40°C range.
• Make sure all units are located as far as practical from high current or high voltage cables or
sources of RF emissions.
• Ensure if wireless sensors are used that a GEN II WMI wireless module interface (WMI) is connected
to and no further than 500 metres from the Genesis II Direct Digital Controller or MPCII Mid Points
Controller and that each wireless sensor is no further than 20 metres from the WMI.
• Do not install the WMI inside a fully enclosed metal switch board.
• Make sure all sources of electrical power, including power to ancillary items are o.
• Check all input and output connections against the computer-generated wiring diagram supplied
for your installation.
• Ensure all connections are in accordance with the wiring diagram and that connections are solidly
made.
• Ensure all enclosures are solidly earthed.
• Check all input and output cabling; ensure cabling requirements of Section 3 - Electrical
Installation are met.
• Make sure all cables, especially analogue input cables, are routed clear of high current, high
voltage or high speed switching current cables and other sources of interference.
• If using Remote Expansion Modules (REMs) make sure the cable run between does not exceed 600
metres in length.
• Inspect all cables running external to the enclosure. Ensure they are free from potential
mechanical damage, such as impacts and chafing.
Cabling plays an important role in the installation of Genesis II Systems. The following general
cabling guidelines should be observed:
• In all cases, use electromagnetic-shielded cable for sensor wiring.
• When necessary to protect cabling from physical damage, both shielding and physical protection
may be provided by running the cable in a metal conduit. Alternatively, use steel wire armoured
(SWA) cable, which also contains an electromagnetic shield.
• Avoid running cables in the vicinity of high voltage power cables or cables carrying switching
voltages/currents. This especially applies to sensor signal cables.
• Interconnecting cables must have multi-strand conductors with a cross-sectional area of 1mm2 for
each conductor.
• The earth cable to Genesis II enclosures must be 2.5mm2.
• For analogue inputs to the controller, a 16 conductor (0.5mm2) shielded cable is required.
Table 3 -1 provides assistance in determining the cabling requirements for various installation
configurations. It shows the dimensions, wire gauge designations and resistance values per unit
length for common wire sizes. Use Table 3-1 to determine specific cabling requirements for your
installation.
4-1.2 Check Input and Output Wiring
The purpose of checking the input and output wiring is two-fold. Firstly, the wiring is checked to
verify that it is connected properly, thus ensuring proper operation of the system. Secondly, the
wiring is also checked to ensure the absence of any external voltages that could damage a Genesis
unit. The following paragraphs contain instructions for checking inputs and outputs.
4-1.2.1 Checking Power Inputs
Power inputs must be checked to ensure that the applied voltage is of the proper level and, in the
case of DC power inputs, of the correct polarity. Table 4-1 shows the input voltage specifications for
the various types of units. Most units operate on 24VAC 10%, 50/60 Hz.
Controllers can be provided with an optional 24VDC ±10% power capability. Procedures for checking
the 24VAC and 24VDC units are similar, except that: for 24VAC units, AC Neutral must be at earth
potential and connected to Terminal 2. For 24VDC units, Terminal 1 must be positive and Terminal 2
negative.
GENII DDC Digital ControllerYesYes
MPCII Mid Points ControllerYesYes
GENII AI REM Analogue Input ModuleYesNo
GENII AO REM Analogue Output ModuleYesNo
GENII DI REM Dry Contact Digital Input ModuleYesNo
GENII DO REM Relay Output ModuleYesNo
GENII IDI REM Opto-Isolated Digital Input ModuleYesNo
GENII PI REM Pulse Input ModuleYesNo
GENII MZS REM Multi Zone Station ModuleYesNo
GENII MZSAH REM Zone Control Station Module
A/H
YesNo
GENII CS REM Control Station ModuleYesNo
GENII CSAH REM Control Station A/H ModuleYesNo
GENII CSFAH REM Control Station with 3 Speed
Fan, A/H Module
YesNo
GENII MP4xxx REM Multipoint ModuleYesSee Note
GENII WMI Wireless Module InterfaceYesNo
SENRx Wireless Temperature Sensor REMYesNo
NOTE
Optional 24VDC supply is available but tolerance is ±15%.
Digital input wiring to controllers and digital input expansion modules should be checked to ensure
the following conditions:
• The digital signal source voltage is within the correct range. Refer to Table 4-2 for digital input
signal source specifications for the various digital input units.
• The signal polarity is correct for digital input signals with DC sources
• Wiring to the signal actuator (switch, relay contacts, contact points, etc.) is correct
4-1.2.3 - External-Source Digital Inputs contains procedures for checking most Genesis REMs except
for the GENII DI REM Dry Contact Digital Input Module. Whereas most Genesis units use external
source digital input signals, the DI REM signals are dry contact (voltage free) inputs. Procedures for
checking voltage-free digital inputs are contained in 4-1.2.4 - Internal-Source Digital Inputs.
Table 4-2: Digital Input Signal Voltages
UnitSignal Voltage
GENII DDC Digital Controller24VAC/24VDC ±15%
MPCII Mid Point Controller24VAC/12VDC ±15%
GENII PI REM Pulse Input Module12 - 24VDC
GENII IDI REM Opto-Isolated Digital Input Module 12 – 24VAC/VDC
GENII DI REM Dry Contact Digital Input ModuleNot Applicable
GENII MP REM Multipoint Module24VAC/24VDC ±15%
4-1.2.3 External-Source Digital Inputs
The following procedures for checking digital input wiring are specifically for the Genesis II Digital
Controller. However, they also apply to the other units listed in Table 4 -2 except for the GENII DI REM.
Refer to the Electrical Installation chapter for digital input terminal numbers for the various Genesis
units.
Figure 4-2 is a schematic representation of a typical Digital Controller installation containing AC- and
DC-powered digital inputs and how the wiring can be checked using a digital voltmeter. Use Figure
4-2 for reference when performing the following procedures:
1. Ensure power to the Digital Controller is turned o.
2. Set the digital voltmeter range to read at least 25 Volts.
3. Connect the voltmeter to the first digital input channel (Terminals 4 and 5 for the Genesis II
Digital Controller). Observe polarity, ensuring the red (+) test lead is connected to the positive
terminal (4) and the black (-) test lead is connected to the negative terminal (5).
4. Ensure the voltmeter reads Zero Volts. If the reading is other than Zero Volts it indicates the
input is driven by Normally Closed contacts or the input is not wired correctly.
Avoid risk of electrical shock observe all local electrical safety requirements when performing the nest step.
5. With the voltmeter still connected, manually close the input contacts. If it is not possible to
close the circuit manually, connect a jumper wire across the contacts at the switching device, as
shown in Figure 4-2.
6. Ensure the voltmeter indicates the proper signal voltage as listed in Table 4-2.
7. Ensure that the voltmeter indicates the correct polarity. The unit will not operate properly if the
signal polarity is incorrect.
8. Release the manually closed contacts or remove the temporary jumper from the switch
contacts.
9. Repeat Steps 3 through 7 for the remaining digital input channels.
The GENII DI REM provides eight dry contact (voltage-free) inputs to sense contact closure from
field equipment. The eight digital inputs are connected to terminals A through H (see Figure 4-3).
Contacts I and J are signal common terminals. The REM provides 5VDC between each input and
common. This voltage is shorted to common when the switch is closed. Check the digital input
wiring as follows:
1. Tag and disconnect the RS485 Comms cable(s) from the RS485 Comms Connector at the upperright corner of the REM. The cable shields may be le connected if desired.
2. Apply 24VAC operating power to the GENII DI REM. Power o other units.
3. Set the digital voltmeter range to read at least 5.0VDC.
4. Connect the voltmeter between the first digital input channel (Terminal A) and the associated
switch common (Terminal I or J). Observe polarity, ensuring the red (+) test lead is connected to
Terminal A and the black (-) test lead is connected to the switch common terminal.
5. Observe the voltmeter. It should indicate 5VDC with the input switch open.
CAUTION
Avoid risk of electrical shock observe all local electrical safety requirements when performing the nest step.
6. Manually close the input switch. If that is not practical, connect a short jumper wire across the
contacts.
7. Observe the voltmeter. It should indicate 0VDC with the input switch closed.
8. Release the manually-closed contacts. If a jumper wire was used in Step 6, remove the jumper
wire.
9. Repeat Steps 4 through 8 for the remaining digital input channels.
10. Remove operating power from the REM.
11. Reconnect the RS485 cable that was disconnected in Step 1.
CAUTION
• Digital outputs are controlled by relays within the associated Genesis unit. These relays are connected to the
external circuits that can contain up to 24VAC.
• Procedures in this manual require checking these circuits with power applied. To avoid death or serious injury by
electrical shock, use extreme caution when working with energised circuits and follow precautions in this manual.
• Checks are to be performed only by qualified, licensed electricians who are familiar with local safety procedures.
Under no circumstances should anyone other than a qualified electrician perform these checks.
Digital outputs of the various units are interfaced through relays, each having single-pole changeover
contacts.
-
The following units contain only Normally Open (NO) digital output contacts in each digital output
channel:
• GENII DDC Digital Controller
• MPCII Mid Points Controller
• GENII DO REM Relay Output Module
• GENII MP REM Multipoint Module
Relay contacts in all units with digital outputs are rated at 24VAC, 2 A with the exception of the MP
REM Multipoint Modules which are rated at 240 AC, 16 A. For this reason, the presence of lethal
voltages at the relay contacts should be anticipated. Even though good wiring practice is to use
lower voltage pilot relays when controlling higher voltage equipment, this practice can not be
guaranteed and it is possible that the relay contacts will carry dangerous voltages. For this reason, it
is important that only a qualified electrician, familiar with safety practices, check the digital output
wiring.
Before checking the digital output circuits, it is important to ensure that there are no short circuits
in the external wiring which could cause the contact current to exceed the rated amount. Current in
excess of this through the relay contacts will result in permanent damage to the unit.
Following is a general description of the process for safely checking digital output circuits. Specific
procedures for checking the wiring are provided toward the end of this paragraph (see Figure 4-4).
With power applied to the digital output circuits, but not to the Genesis unit, the output circuits are
checked for operation. Devices connected between the NO and C terminals should be de-energised.
If the operational status cannot be determined by observation (indicator lamp on/o, fan running/
not running, etc.) a voltmeter is placed across the device to determine whether or not it is energised.
The output circuits are then checked for the opposite condition. For circuits using the NO contacts,
a jumper wire is temporarily connected between the NO and C terminals; the associated device is
checked to make sure it is energised.
IMPORTANT
Before performing the following procedures ensure there are no short circuits in the digital output wiring which
could cause the relay contact current to exceed the maximum amperes, excess relay contact current will cause
permanent and irreparable damage to the unit.
The following are procedures for checking digital output wiring; refer to the Electrical Installation
chapter for output terminal numbers for the applicable Genesis units:
1. Ensure there is no operating power applied to the Genesis unit to be checked nor is power
applied to any of the digital output circuits.
2. Start at the first device connected to the NO contacts. If the device cannot be checked for
operation by simple observation, connect a digital voltmeter across it. Set the voltmeter range
for the expected voltage.
3. Apply operating power to the output device.
4. Determine that the device is de-energised, either by direct observation of the device itself or by
checking that the volt-ohm-meter indicates an open circuit.
5. Remove operating power from the output device.
6. Temporarily connect a jumper wire between to NO and C contacts. Ensure that the jumper wire
is of adequate size to temporarily carry the load.
7. Apply operating power to the output device.
8. Determine that the device is energised, either by direct observation of the device itself or by
checking that the voltmeter indicates full operating voltage.
9. Remove operating power from the output device.
10. Remove the jumper wire connected in Step 6.
11. Repeat Step 2 through Step 10 for the remaining output devices connected to the NO contacts.
The analogue input wiring for the following Genesis units should be checked as part of the
commissioning process:
24V
AC/DC
0V24V
AC/DC
• GENII DDC Digital Controller
• MPCII Mid Points Controller
• GENII AI REM
Checking analogue input wiring requires special consideration due to the wide variety of analogue
input devices that may be used in the system. Some input devices function as signal voltage sources;
some devices function in the loop current mode and others provide resistive inputs to the Genesis
unit. For this reason there is no single procedure that can be used on all analogue inputs.
Procedures presented in this manual are based on identifying the type of Analogue Input Signal
Conditioner (AISC) assigned to each analogue input channel. Since each analogue input device
requires a specific AISC type to match the signal to the Genesis unit, the type of AISC assigned to
an analogue input channel indicates the type of input signal and the range. The various types of
AISCs are listed in Table 4 -3 along with the type of analogue signal and the range. Reference to the
paragraph containing the instructions for checking the input wiring is also provided in Table 4 -3.
For example, an analogue input channel that has Model TH2 AISC assigned receives its input from a
thermistor device; the input circuit is checked by measuring its resistance, which should be between
0 and 2k. Procedures for checking the resistance are contained in section 4-1.2.9.
The type of AISC for each analogue input channel is determined when the system configuration is
established by the Genesis Configuration Soware prior to delivery. The configuration soware
automatically generates a Materials List and a Wiring Diagram, which are delivered with the system.
The Materials List shows the number of AISCs by type but does not show which analogue input
channels they are assigned to. The Wiring Diagram (Figure 4-5) identifies the AISC type for each
analogue input channel.
When an Analogue Input Module REM is used, the output of the REM is connected to one of the
controller’s analogue input channels. When checking the analogue connection between the GEN II AI
REM and a controller, ensure the cable is wired in accordance with the Electrical Installation chapter
and is free of potential physical damage. Ensure also that the cable is routed outside of the cable
ducts.
01 02
SCR
2120
SS
AI1 AI2 AI3 AI4 AI5 AI6 AI7 AI8
+
-------
+
+
+
+
3231302928272625242322
+
33
+
363534
+
37
-
38 39 40 41
12V PC
+
+
--
REM COMMS
Sensor #1
Innotech Temperture
Sensor #2
Innotech Temperture
Sensor #3
Innotech Temperture
Sensor #4
Innotech Temperture
Sensor #5
Innotech Temperture
Sensor #6
Innotech Temperture
Switchboard Temp
Thermistor, Philips 10k
AI LEM #1, Terminal 3
NC
ANALOGUE
INPUT
SIGNAL
VAV #3
SSR #3
VAV #4
SSR #4
Siren
66
03 04 05 06 07 08 09 10
13249121110
78
5768
6867
8079
69
81
8382
727170
84
7473
13161514
8685
75
87
76
88
77
89
RS-232
VAV #1
SSR #1
VAV #2
SSR #2
11 12
VAV #5
SSR #5
13
14
15 16
ANALOGUE
OUTPUTS
GlobalNe t
+
91 92 93 9490
RS-485
-
C
+
-
(Wiring diagram - bottom board)
ANALOGUE INPUTS
GENESIS II DDCINNOTECH
SCREEN MUS T
GO HERE !
TD1: 0-250 µAmps
TD1: 0-250 µAmps
TD1: 0-250 µAmps
TD1: 0-250 µAmps
TD1: 0-250 µAmps
TD1: 0-250 µAmps
TH7: Thermistor
AIM: <external>
CONDITIONERS
+A1-
Sensor #7
Innotech T emperatur e
Sensor #8
Innotech T emperatur e
Sensor #9
Innotech T emperatur e
Sensor #10
Innotech T emperatur e
Sensor #1 1
Innotech T emperatur e
Sensor #1 1
Innotech T emperatur e
A
B
C
D F
E
G
H
I J
LK
SCREEN
+A2- +A3- +A4- +A5- +A6-
SCREEN
AI1
AI2
AI4AI3AI5 AI6
TD1: 0-250 µAmps
TD1: 0-250 µAmps
TD1: 0-250 µAmps
TD1: 0-250 µAmps
TD1: 0-250 µAmps
TD1: 0-250 µAmps
Address
jumpers
A0
A1
A2
A3
Remote Expansion Module #1 (AI)
Figure 4-5: Analogue Input Signal Conditioner (AISC) Locations
The wiring checks in the following paragraphs are performed with AISCs removed. The units are delivered with
their AISCs removed. Do not install the AISCs until all wiring checks are completed.
This paragraph contains procedures for checking analogue inputs associated with AISC Models D05,
D33, V05 and V10. Note from Table 4-3 that inputs associated with Digital AISC D05 will be either Zero
Volts OR 5VDC but not between the two extremes. The same is true for AISC D33 except that the
voltage range is Zero OR 10VDC.
Note also that inputs associated with AISC Models V05 (0 – 5VDC) and V10 (0 – 10VDC) may be at any
value within the ranges noted.
IMPORTANT
Ensure that no AC voltage is present on either terminal. AC voltage at the input terminals can cause damage to the
unit also the unit will not operate properly if the analogue input signal polarity is incorrect.
Procedures for performing voltage checks are:
1. Ensure all AISCs have been removed and no power is applied to the Genesis II Digital Controller.
2. Connect a digital voltmeter to the input terminals; set the voltmeter to indicate VAC. Ensure
there is no AC voltage present on either terminal. If AC voltage is measured, check the analogue
input wiring for faults/errors.
3. Set the digital voltmeter to indicate VDC. Set the range for the expected voltage value shown in
Table 4 -3.
4. Connect the voltmeter across the analogue input terminals observing polarity. If necessary,
reduce the voltmeter range to obtain an accurate reading.
5. Ensure the measured voltage is within the expected range and of the correct polarity. If not,
check the analogue input wiring for faults/errors
6. Repeat Steps 2 through 5 for the remaining inputs associated with the AISC models noted
above.
4-1.2.8 Current Checks
This paragraph contains procedures for checking analogue inputs associated with AISC Models I05,
I20, P20, TD1 and TD2.
CAUTION
Procedures in this paragraph require connecting a 500 Ohm resistor across the analogue input terminals and
measuring the resultant voltage. Although 500 Ohms is suitable in most cases, some applications may require a
higher value of resistance to avoid damage to circuits. Always ensure that a suitable resistor is used.
Analogue inputs associated with the I05, I20, TD1 and TD2 AISCs are checked by measuring voltage
across a resistance connected in series with the current source. A 500 Ohm resistance is normally
suitable for this procedure.
The matrix below lists the expected voltages to be measured across a 500 Ohm resistance for the
various values of input current. For other resistor values use Ohm’s Law (V=IR) to determine the
voltage.
INPUT VOLTAGE
AISC CURRENT ACROSS 500 ohms
I05 0 – 5 mA 0 – 2.5VDC
I20 4 – 20 mA 2 – 10VDC
TD1 0 – 250 A 0 – 0.125VDC
TD2 0 – 500 A 0 – 0.25VDC
Inputs associated with the P20 AISC are 4 – 20 mA loop-powered inputs. These inputs cannot be
conveniently checked in the same manner as the other current inputs without applying power to the
Genesis II Digital Controller before it is safe to do so. Loop powered input wiring is checked by using a
voltmeter to ascertain that there is no stray voltage present at the input terminals. The input wiring
is then visually inspected for proper connection.
The following are procedures for performing current checks:
1. Ensure all AISCs have been removed and no power is applied to the Genesis II Digital Controller.
2. For analogue inputs associated with P20 AISCs go to Step 9.
3. Temporarily connect a 500-Ohm (or suitable value) resistor across the terminals of the first
current input channel to be checked.
4. Set a digital voltmeter to indicate VDC. Set the range for the expected voltage value shown in
the matrix above.
5. Connect the voltmeter across the analogue input terminals observing polarity. If necessary,
reduce the voltmeter range to obtain an accurate reading.
6. Ensure the measured voltage is within the expected range and of the correct polarity. If not,
check the analogue input wiring for faults/errors.
7. Remove the temporary resistor connected in Step 3. above. Repeat Steps 2 through 7 for the
remaining inputs associated with the AISC models noted above.
8. To check inputs for the P20 type AISC, connect a digital voltmeter across the input terminals. Do not connect a resistor across the terminals. Reduce the voltmeter range to the lowest setting
practical. If voltage is present at the input terminals, it indicates a fault or improper wiring of
the input circuit.
9. Visually inspect the wiring of the P20 type analogue input. Ensure that all wiring conforms to
the associated wiring diagram. Ensure correct polarity is maintained throughout.
4-1.2.9 Resistance Checks
This paragraph contains procedures for checking analogue inputs associated with AISC Models TH1
through TH9. Checking these inputs consists of performing a simple continuity/resistance check.
Procedures for performing voltage checks are:
1. Ensure all AISCs have been removed and no power is applied to the Genesis II Digital Controller.
2. Set a digital volt-ohm-meter to indicate Ohms. Set the ohmmeter range to the resistance value
shown in Table 4-3.
3. Connect the volt-ohm-meter across the analogue input terminals.
4. Ensure the measured resistance is within the expected range. If it is not, check the analogue
input wiring for faults/errors
5. Repeat Steps 2 through 4 for the remaining inputs associated with AISC Models TH1 through
TH9.
Analogue output wiring is checked for the following reasons:
• To ensure the analogue output terminals are free of any external voltage
• To check continuity through the external analogue circuit
• To ensure the resistance of the external analogue circuit is suicient to avoid overloading the
analogue output circuit.
The following procedures apply to analogue outputs of the GENII DDC Digital Controller, MPCII Mid
Points Controller, GENII AO REM Analogue Output Module and the GENII MP REM Multipoint Module.
Refer to the Electrical Installation chapter for analogue output terminal numbers for the applicable
Genesis units.
Procedures for performing Analogue Output wiring checks are:
1. Ensure the operating power to the unit is o.
2. Turn on the excitation and operating power for the digital inputs, digital outputs and, as
applicable, the analogue inputs. The reason for this step is to detect the presence of voltages at
the analogue output terminals that may be caused by “sneak” circuits or wiring errors.
3. At the analogue output terminal, disconnect the active signal wire for the first analogue output.
4. Connect a digital voltmeter between the disconnected signal wire and the common terminal.
5. The voltmeter should indicate Zero Volts. Set the voltmeter range as low as possible to ensure
there is no voltage present.
6. Set the volt-ohm-meter to the Ohms range. The volt-ohm-meter should indicate a minimum
resistance of 2,000 or 5,000 Ohms (See note below). A reading of Infinite Ohms indicates an
open circuit condition that should be corrected.
7. Disconnect the meter and reconnect the signal wire disconnected in Step 3.
8. Repeat Step 3 through Step 7 for the remaining analogue outputs.
9. Turn o any power applied in Step 2.
NOTE
The analogue output circuit resistance for the Genesis II Digital Controller and the MPCII Mid Points Controller
should be at least 2,000 Ohms. The circuit resistance for the GENII AO REM should be at least 5,000 Ohms.
4-1.3 Install AISCs
Analogue Input Signal Conditioners (also referred to as Input Straps in some other Innotech
documents) are insert plugs used to configure the Genesis II unit’s input to match the analogue input
device. All units having analogue inputs require an AISC for each input channel; these units are:
• Genesis II Digital Controller
• MPCII Mid Points Controller
• GENII AI REM Analogue Input Module
With all power o, and using the computer-generated wiring diagram (Figure 4-5) as a guide, insert
each AISC module into its assigned slot. The modules are keyed to prevent them from being pluggedin backwards. When all AISCs are installed, double-check the installation. The system will not
operate correctly with an AISC plugged into the wrong slot.
Various jumper plugs throughout the system must be set properly before power can be applied to the
system.
There are 4 categories of jumper plug:
Address Plugs set the address of each Remote Expansion Module
• Analogue Output plugs are used to select either Variable or Heat Valve Mode of operation for
analogue outputs. Refer to section 3-3.1.5 for a definition of Variable and Heat Valve Modes.
• End-of-Cable jumpers provide the proper termination impedance for the RS485 Comms Cable. It is
installed in the last unit of the cable run
• Frequency Plugs set the frequency of each wireless Remote Expansion Module or Interface
The computer-generated wiring diagram (Figure 4-5) shows the locations and required settings for
each address jumper and analogue output jumper.
Table 4 -4 is provided as an aid for properly setting the various jumper plugs. The table lists
the required jumper setting, the types of jumper plugs and the reference paragraph containing
instructions for setting them for each Genesis II unit.
Table 4-4: Units Requiring Jumper Settings
Ter minalAddressEnd of CableAnalogue OutputFrequency
See Paragraph:4-1.4.14-1.4.24-1.4.34-1.4.4
GENII DDC Digital
Locations and settings of address jumpers are shown on the computer-generated wiring diagram
provided with the system hardware. Figure 4-6 shows a portion of a typical computer-generated
wiring diagram. Address jumper connectors are A0, A1, A2 and A3. Open jumper connectors are
shown in grey on the wiring diagram. Connectors shown in black require a jumper to be installed.
Address jumpers must be properly set on all REMs except for those which are wireless in order for the
Although the locations of End-of-Cable jumpers are not shown on the computer-generated wiring
diagram, they are easily located close to the unit’s RS485 Comms connector. Figure 4-7 shows the
location of the End-of-Cable jumper for a GENII AI REM unit. Jumpers for other units are similarly
placed. The rule for installing an End-of-Cable jumper is:
• If only one cable is connected into an RS485 Comms connector, a jumper must be installed in that
unit.
• If two cables are connected to the same RS485 Comms connector, the jumper plug must be le
open.
All units along the RS485 Comms network should be carefully checked to ensure that jumpers are
installed only in the last unit in the network.
An analogue output jumper plug arrangement is provided for each analogue output channel. The
three-pin jumper sockets will accept a shorting plug between the centre pin and either of the
outside pins. Depending upon which pair of pins the jumper is connected to, the analogue output
is configured for either the Variable Mode or the Heat Valve Mode. For inactive analogue output
channels, the jumper is not installed in either position. In such cases the jumper plug can be
conveniently stored in the unit by inserting only one end of the plug into the socket.
The computer-generated wiring diagram shows the location and jumper position for each analogue
output in the system. Figure 4-8 shows a portion of a typical wiring diagram centred on a Genesis II
Digital Controller’s analogue output jumpers. The figure shows how the jumpers are configured for
the Variable and Heat Valve Modes of operation.
The GENII WMI Wireless Module Interface provides an interface to the SENRx series of wireless
temperature sensors. There are four user selectable frequency jumpers for configuration. To enable
correct communication over a wireless frequency, the settings of these jumpers must be matched.
Locations and settings of frequency jumpers a fare shown on the datasheets for each of these
products. Figure 4-9 shows a portion of a the GENII WMI datasheet, and Figure 4-10 shows an image
of the SENRx series of wireless temperature sensors.
Frequency jumper connectors are F0, F1, F2 and F3. Frequency jumpers must be set properly on all
wireless REMs.
Figure 4-9: Setting Frequency Jumpers on the GENII WMI
Figure 4-10: Setting Frequency Jumpers on the SENRx Module
4-1.5 Load Soware and Configure the Controller(s)
The Innotech configuration soware program was prepared for your Genesis System at the factory
before delivery of the system. The soware contains all the data for internally configuring the
controller(s) to perform the specific functions for which it was intended. Until the controller is
configured, it can not accept input signals or produce outputs.
To configure the controller(s), a Windows-based PC and the applicable version of the Innotech
Gen2Config program are required. A soware disk is provided with the Genesis hardware at delivery.
The disk contains a program called Gen2Works, which is a collection of several Innotech programs,
including Gen2Config. The other soware programs supplied in Gen2Works are for the purpose of
enhancing operation and de-bugging of the system. But it is the Gen2Config soware that is required
for commissioning the system.
4-1.5.1 - Loading Gen2Works contains instructions for loading the Gen2Works soware into your PC.
4-1.5.2 - Configuring a Controller explains how to configure the controller using the Gen2Config
program.
NOTE
• The instructions in the next two paragraphs are generalised procedures based on the assumption the operator is
familiar with operation of a PC in a Windows environment.
• Loading the Gen2Works soware requires entry of an Activation Key. The Activation Key is a password provided
by Innotech to permit access to the Gen2Works soware. If an Activation Key has not been provided, contact
Innotech Control Systems at the contact details shown on the last page of this manual. Note that the Activation
Key is only eective for one session. If Setup is to be run at a later date, a new Activation Key is required.
4-1.5.1 Loading Gen2Works
To load Gen2Works into the PC:
1. Insert the Gen2Works CD 1 into the appropriate CD or DVD drive.
2. Windows auto run should start the installation process or open the Windows explorer dialog in
the location of the CD, from here select setup. If however the auto run does not open the CD go
to step 3 otherwise skip it.
3. Click on Run and type “<CD Drive Letter>:\setup” (where the drive letter is which ever letter
corresponds to your PC’s CD drive e.g. “D”) in the Run dialogue box, then click on OK.
4. Gen2Works will display a Product Activation dialogue box with a block requesting entry of the
Activation Key.
5. Enter the Activation Key, then click OK.
6. The Gen2Works soware will begin to load. Follow instructions on the screen to complete the
installation process.
The following is the procedure for configuring a controller:
1. Turn o the electrical power to the controller.
2. Connect to the controller via an RS232 cable, RJ45 or over a connected Innotech network.
3. Turn on the computer and allow it to boot-up. Turn on the controller’s operating power.
4. Using standard Windows procedures, open the Gen2Config folder.
5. Click on the Gen2Config icon to open the Gen2Config program. The Gen2Config screen is
displayed.
6. At the upper-le corner of the Gen2Config window, select File and then Open. The Open File
dialog box is displayed showing the configuration files that can be selected. Configuration files
are indicated by the file extension: “.g4c”.
7. Select the configuration file for the controller to be configured then click OK. The window for the
selected configuration is displayed. The window will show the block diagram representing the
controller’s configuration.
8. At the top of the window select Communicate and then Transfer to DDC. The Gen2Config
soware begins to automatically transfer the configuration data to the controller by way of
iComm (Communications server used by Innotech soware to communicate with Innotech
digital controllers)
9. Follow instructions given on the screen.
10. It is safe to exit the Gen2Config program at this point.
11. If the next commissioning step: Initial Tests is to be performed soon, leave the controller and the
PC turned on. Otherwise, remove operating power from the controller and PC if an appreciable
delay is expected before performing initial tests.
NOTE
The following procedures are limited to the steps necessary to configure the controller. For more detailed
information on the operation of the Gen2Con soware refer to the Innotech Genesis II Digital Controller User
Manual.
4-1.6 Initial Tests
Initial tests of the system involve the use of the Gen2Mon soware to perform a thorough check of
the system. The basic approach to performing these tests is to use the soware to apply simulated
inputs to the controller and to check the eect on the output circuits. The following paragraphs
describe the Gen2Mon soware and the checks to be performed as part of initial tests.
4-1.6.1 Gen2Mon Soware
Initial tests of the system are simplified by use of the Gen2Mon monitoring and debugging utility
soware. This soware allows the operator to trace the flow of control and to view the various values
within a configuration residing in a controller. With Gen2Mon, each controller can be monitored one
at a time in real time. Therefore, what appears on the screen is what is actually happening inside the
controller. Gen2Mon must have a constant connection to the controller to be able to operate. This
connection is either through a controller network, the RS232 serial port or the RJ45 ethernet port.
The Gen2Mon allows the operator to monitor any output value from any block in the configuration.
Also, Gen2Mon has a Simulation Mode that allows the operator to control the values of any, or all,
of the controller’s input blocks. In this manner, the action of a sensor or switch can be simulated to
determine how the rest of the configuration reacts to the input.
Detailed procedures for operation of the Gen2Mon Soware is beyond the scope of this technical
manual. Refer to the Innotech Genesis II Digital Controller User Manual.
Because of the Genesis II System’s flexibility, the various configurations can be vastly dierent
from each other. For this reason, it is not practical to provide detailed procedural instructions for
performing initial tests that apply to all configurations. However, this paragraph describes the
general methodology for performing the initial tests.
Initial tests using the Gen2Mon Soware are divided into three separate phases; these tests should
be performed on each controller in turn:
• In the first phase of testing, power is removed from all output circuits and the Gen2Mon soware
is used to monitor the states and input/output values of the various configuration blocks using
variable input stimuli. This phase serves two purposes: It checks the configuration of the
controller and it helps to familiarise the operator with the operation of the system.
• In the second phase of testing, the controller’s primary output circuits, such as motor controllers
and relay circuits are energised but the output machinery (fans, pumps, compressors, etc.) are
de-energised. In this phase, the controller inputs are stimulated just enough to cause the output
circuits to operate or change state. This phase checks the operation of the output control circuits
without operating the plant machinery.
• In the third phase, the primary output control circuits as well as the plant machinery are
energised. In this phase the controller inputs are carefully stimulated just enough to briefly test
the operation of the plant machinery. This phase should involve the minimum of controller input
stimulation required to operate the machinery.
4-1.6.3 First Phase Testing
Perform the first phase of initial tests of the system as follows:
1. Turn o all electrical power to the Genesis II System.
2. Connect the controller to the PC by finding it on a connected network, connecting an RS232
cable between the controller’s RS232 connector and the computer’s serial port or by connecting
an RJ45 cable between the controller's RJ45 connector and the computer's.
3. Turn on the computer and allow it to boot-up. Turn on the controller’s operating power. All
output circuits should be de-energised at this time.
4. Using standard Windows procedures, open the Gen2Mon folder.
5. Click on the Gen2Mon icon to open the Gen2Mon program. The Gen2Mon screen is displayed.
6. In the Simulation Mode, carefully adjust the controller’s input parameters, such as temperature,
pressure, switch position, etc. Adjust the values within normal and practical operating limits
and just enough to verify that a realistic change in output is produced.
7. When all inputs and outputs have been checked, return the input parameters to their original
settings. The first phase is completed.
CAUTION
Operation of the GEN2MON soware in the simulation mode presents a serious risk to the system. In the simulation
mode, the operator is actually forcing values into the controller, therefore, it is possible to overcome any of the
natural safeguards which may be in place to protect the plant. When in simulation mode, exercise great care in
adjusting values. The soware is a powerful facility and should not be used carelessly.
Perform the second phase of initial tests of the system as follows:
1. Turn on operating power to the primary output circuits such as pilot relays, motor controllers
and heat valves.
2. Ensure that operating power to plant machinery (compressors, fans, etc.) is turned o.
3. In the Simulation Mode, observing the CAUTION noted above, carefully adjust the controller’s
input parameters. Adjust the values within normal and practical operating limits and just
enough to verify operation of the primary output circuits.
4. When all outputs have been checked for proper operation, return the input parameters to their
original settings. The second phase is completed.
4-1.6.5 Third Phase Testing
Perform the third phase of initial tests of the system as follows:
1. Turn on operating power to the plant machinery in accordance with the manufacturers’
instruction manuals.
2. In the Simulation Mode, observing the CAUTION noted previously, carefully adjust the
controller’s input parameters. Adjust the values within normal and practical operating limits
and just enough to verify control and operation of the plant machinery.
3. When items of plant machinery have been checked for proper operation, return the input
parameters to their original settings. The third phase is completed.
4. Exit the Gen2Mon program.
5. Turn o operating power to the entire Genesis System and the PC.
6. Disconnect the RS232 cable between the PC and the controller, if RS232 was not used to connect
to the device skip this step.
7. Repeat procedures in Paragraphs 4-1.6.3 through 4-1.6.5 for the other controllers.
4-1.7 Final System Check
Final check of the system involves checking the operation of the system, performing any necessary
adjustments and verifying that the system functions properly under normal operating conditions.
The following are the procedures for performing final system checkout:
1. Apply normal operating power to the entire system in accordance with the applicable
manufacturers instruction manuals.
2. Allow adequate time for the various units to stabilise. Unless specified otherwise in the
applicable instruction manuals, allow approximately one hour for the circuits to stabilise.
3. Carefully check each unit of the system for proper operation. If necessary, the Gen2Mon
soware may be used in the Monitor Mode (NOT in the Simulation Mode) to check proper
operation within the controller.
4. Check manufacturers’ recommended adjustments and settings to ensure all units are set-up for
optimum function.
5. At the controller enter final operational preferences such as schedules, passwords, flash
watches, etc.