Honeywell AlarmNet - Internet Troubleshooting Guide Dated 09/2016



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Document Transcript

800-
225
65 9/2016 REV A









Table of Contents

AlarmNet’s® IP Communications Review

Overview
.....................................................................
1

Internet Communicat
ions
.................................
1

Data Security
...........................................................
1

Transport Layer Security
..................................
1

Advanced Encry
ption Standard
..................
2

Encryption
................................................................
2

Algorithm Flexibility
............................................
2

Key Manage
ment
.................................................
3

Firewalls and Their Challenges
....................
3

IP Communications

Network Config. & Reporting Path
.................
5

Message Reporting Path
.................................
5

Static or DHCP Settings
...................................
5

Intrane
t Communications

Introduction
.............................................................
6

The Intranet Challenge
.......................................
6

About Private Network Application
s .........
7

Communication Traffic
....................................
7

Intranet Encrypted Communications
...........
8

Installation Key
......................................................
8

Registration
.............................................................
8

Recovery Mode
......................................................
9

AlarmNet’s® Approach for Internet
Communications

Internet (IP Communicators)
.........................
10

Introducing AlarmNet
-i® ...............................
10

Internet Communication Modules
..............
11

Installation
-Protected Premises
..............
11

Honeywell IP Central Station Re
ceiver
. 11

Installation at the Central Station
...........
11

Establishing a Link with AlarmNet
-i ......
12

Putting It All Together
....................................
13

Description of Figure 7
...............................
13

IP Communicator Messages

Communicator Notifications/Failures
......
14

Device Communication Failures
..................
15

Central Station Fai
lures
...................................
15

GSM/CDMA Cellular Platform

Introduction
...........................................................
16

GPRS, EDGE, ECDMA and 1XRTT Data
Connect Service
...................................................
16

Short Messaging Service (SMS)
...................
16

Cellular Communications
...............................
17

Cellular Based
.....................................................
17

Remote Services Communications
.......
17

Table of Figures
Figure 1: IP Reporting Path
.....................................
5
Figure 2: Intranet Communications
...................
7
Figure 3: Intranet Registration Process
...........
8
Figure 4: Intranet Recovery Mode
.......................
9
Figure 5: Link with AlarmNet
-i ............................
12
Figure 6: Link with central station
....................
12
Figure 7: Putting It All Together
.........................
13
Figure 8: Network Com. Failure
.........................
15
Figure 9: Central Station Com. Failure
..........
15
Figure 10: GSM Communication Path
.........
17



PAGE
1


AlarmNet’
s® IP
Communications

Review

Overview

This white paper provides a basic background of the AlarmNet
-i network. For readers already
familiar with AlarmNet, this document is a solid reference point in understanding the Internet
based services of
AlarmNet
-i. For those not yet familiar with AlarmNet, a complete explanation
is available in
the “Honeywell Communication Solution”
.
Internet Communications

Data Security

Honeywell
realized during its development process that data security and authentication are

crit
ical
requirements of any Internet based service that would send alarm information over IP
communication using the Internet or Intranet.
Therefore
, Honeywell
raised the bar and
added
special emphasis on making these objectives a key part of the
AlarmNet
-i service.


Securing data over an IP connection is accomplished using many different methods
, such as
Advanced Encryption Standard (AES) or Transport Layer Security (TLS)
. Today, the most
advanced and common industry method deployed is
TLS
. One such use is
to secure financial
transactions over the Internet.
It uses both a scheme for
encryption

as well as
authentication
.
Let’s define these two terms because they will become important, as we compare them to the
advanced techniques offered by the AlarmNet
-i service.


Encryption

Allows data to be altered in a way that both the sender and receiver can

understand it, but if captured during transmission would not be

meaningful to
the intruder.


Authentication

A process whereby the sending or receiving party ca
n test and confirm that

the other recipient
is who they claim to be.


Transport Layer Security

It is through a combination of
both
encryption and authentication that a robust and secure
system is achieved. As we mentioned earlier, TLS
uses both encrypt
ion and authentication.
The weak aspect of
implementing TLS is
the authentication is
only

one
-way
. Let’s give an
example of what one
-way authentication means so it is clear.


PAGE
2



Example

Purchasing
from a business website
that is said to be “secure” (typica
lly using
TLS
), requires
the company
to authenticate themselves
. It assures you that no
other intruder is posing as the company you are about to buy something from.
This is clearly a desirable feature since nobody wants to send credit card
information ov
er the Internet to a potentially fraudulent site posing as a reputable
business.


The weakness of this approach (
for sending an alarm signal over the Internet
) is that there is
no
authentication the other way
.
Using
our example above, the user who is mak
ing a purchase

over the Internet is confident that he or she is buying it from the company they claim to be.
However, the company has no assurances as to the validity
that the customer is who he or she
claims to be.


Advanced Encryption Standard

The del
ivery of alarm information to central station
needs to be a secure transaction and it
is
imperative the central station and protected
premises
is who they say they are.
Neither can
afford to be substituted! This “two
-way” authentication is one of the enha
nced security
features provided by the AlarmNet
-i® Internet communications service. It assures that both the
protected
premises
and the central station are who they say they are.


Encryption

Data encryption can be accomplished using many different methods
. These methods
differ
and there is no one right way to encrypt data. What is important in selecting a scheme for
encryption is:



It assume
s an attacker has access to the algorithm that encrypts the data



It can withstand attacks by fast and powerful compu
ters



It be publicly available and scrutinized by professionals as being secure

Honeywell
has chosen to build its encryption solution on a publicly available scheme called
Advanced Encryption Standards (
AES)
. This powerful scheme was designed by cryptologi
sts
Joan Daemen and Vincent Rijmen
to be fast, compact and simple. It
uses a basic key that can
be as large as 256
bits. AES is the approved cryptographic standard for the United States
Government
. Honeywell has had its implementation of AES validated a
nd approved by the
National Institute of Standards and Technology
(NIST)
.

Algorithm Flexibility

It must be stated that all of the AlarmNet
-i communication modules are capable of being
changed/updated
since they have flash memory. This flexibility has bee
n incorporated so that
as encryption technology evolves Honeywell
can
keep up with the latest advanced schemes.
These changes will have no impact on the security equipment or central station operations. It
assures you that the highest levels of data encr
yption and authentication can be used without
the need for equipment or operational changes at the central station.


PAGE
3



Key Management

Now that you have a basic idea of encryption and authentication we must introduce the
concept of the “key” that we mentio
ned earlier. A
key
is nothing more than a secret block of
data that is needed to understand how the received data was encoded or decrypted.
Sometimes different keys are used to encrypt and
decrypt but it is important to note that solid
encryption solutio
ns involve the storage and management of
one or more of these “keys”. Each
side of the communication scheme (protected
premises
and central station) need to know
which keys to use or else communications fails
.

Honeywell
AlarmNet
-i® service removes the b
urden of this key management from large private
businesses or security installation companies. All Internet communication devices provide
d
under the AlarmNet
-i umbrella have secure keys embedded
within the AlarmNet
-i system
maintains all key data. The key
s are unique to each device and have no correlation with any
identifiers in the device.


What this means is that all of the administrative burden of setting up initial secure
communications from a protected
premises
to a central station have been lifted f
rom the
installing dealer or central station.


Firewalls and Their Challenges
The Internet poses another concern, which is the increasing number of corporate (and
residential) firewalls. A
firewall

is designed to protect the user from attack over the I
nternet as
it provides anonymity to others on the Internet. This is highly desirable, particularly when the
user is connected to the Internet through an always
-on connection (ADSL, satellite or cable
modem). The presence of a firewall does however pose r
eal problems for installers trying to
quickly and easily install an alarm device that needs to communicate over the Internet.


Today it takes people knowledgeable of networks and firewalls to install communication
devices properly. Realizing that traditio
nal alarm installation companies often do not have this
expertise in
-house, a key objective of a Honeywell
Internet communication device must be the
easy set
-up and installation, even behind firewalls and accomplishing the installation with
existing securi
ty dealer technicians.


With
AlarmNet
-i, the installation has been simplified. The installer need only know how to
physically connect a common Cat
-5/6e
wire
or through
Wi
-Fi® between
our communication
equipment and the LAN hub or Router that provides a pa
th to the Internet. The
communications equipment is “
smart
” and find
s its way to the AlarmNet
-i service. This basic
capability cannot be overemphasized. Without this capability, significant technical knowledge
and understanding is needed to attempt to p
roperly setup and maintain an Internet
connection behind firewalls.

PAGE
4


IP Communications
Internet based communication requirements for Honeywell/AlarmNet® communicators are as
follows:



Devices communicate outbound to one of four predetermined IP address
es (defined below)
on port 443. All data is encrypted using an AES encryption logic.



Devices are capable of using DHCP or Static IP



Devices in the field sends a Media Access Control (MAC), or hardware address, ping to on
port 443 every 20 seconds



All in
bound an
d outbound traffic between the d
evice and AlarmNet Network Control Center
(NCC) is fully encrypted



Each device’s MAC has a unique encryption key. AlarmNet has the matching key at its NCC,
and the key is transmitted between the two points.

For a session to occur the end user logs into a security HTTPS web site, which is hosted at
the AlarmNet NCC. Once the device checks in, the device is instructed to establish a Secure
Socket Layer (SSL) connection with a server at a predefined IP address based o
n the
function the end
-user is requesting.


The use of this method allows the device to establish connection outbound, but we
cannot

establish a session inbound to the device.



The device is operating with a private written code set and
is not vulnerable
to attack by
hackers or virus.



Bandwidth:



Standby:
25 byte per second


Alarm:
1 Kbyte per second

NOTE:

The following rules to the firewall have to be made at each client site and to allow



for control communications.

Server Name

Server Purpose

Server IP
Address

Server URL

Ports

Redir 1

Alarm Signals

204.141.57.100

auiredir1.alarmnet.com

80 and 443

Redir 2

Alarm Signals

204.141.57.101

auiredir2.alarmnet.com

80 and 443

Redir 3

Alarm Signals

204.141.57.102

auiredir3.alarmnet.com

80 and 443

Redir A

Alarm

Signals

12.149.218.73

auiredirA.alarmnet.com

80 and 443

Control Server

Tells device where
to connect

204.141.58.115

controlserver.alarmnet.com

80 and 443

Data Server1

Compass
Download Session

204.141.58.80

dataserver1.alarmnet.com

80 and 443

Data Serve
r2
Compass
Download Session

204.141.58.81

dataserver2.alarmnet.com

80 and 443


PAGE
5



Network Config. & Reporting Path

Ports configured are set as
outbound traffic only
. All Internet
communications flow through
Honeywell’s Servers when a control’s configurati
on or code change is requested.

Message Reporting Path
1.

Honeywell directs the control to the Data Servers

2.

Control initiates an outbound communication to the Data Server

3.

A session is setup to receive the updates

4.

IP communicators initiate contact with the abo
ve “Redir” servers every 20 seconds



Figure
1: IP Reporting Path

Static or DHCP Settings
AlarmNet Internet product communicators are capable of DHCP (automatic IP addressing) or
Static IP addressing (manual IP addressing). If p
roblems occur due to automatic IP releasing


on the network, the AlarmNet device should be switched to Static IP communication.

If Static IP’s are being used, the following information is needed from the Network
Administrator before installation:


Static IP
address for the AlarmNet device



Subnet Mask


Default Gateway



DNS IP Address

*Automatic IP Releasing:

AlarmNet Internet products ping AlarmNet every 20 seconds to





verify connectivity; therefore, it releases the previously assigned IP




address at th
e end of its session and requests a new one each





time it checks connectivity.

NOTE:
There are additional configuration requirements if the Honeywell IP camera solution is

to be used.
PAGE
6


Intranet Communications

Introduction

Let’s focus on applications in
volving alarm signal transmission over
or to
a private
Local Area
Network (
LAN
) or
Wide Area Network (
WAN
). Many large private networks exist where the
security director wishes to receive alarm signals inside the network. Applications include
banks
, larg
er retail chains
, and corporate and college campuses where significant networks are
already in place and are being used for multiple purposes.

These alarm signals can either be in addition to or in place of Central Station services. In either
case, alarms arrive at a destination within the private LAN or WAN.


The Intranet Challenge

Any network system can be viewed from a data
-security standpoint by analyzing the potential
points of attacks available in the system. Although many people believe that the
Internet is
harder to protect against outside attacks, in reality a LAN or WAN based system is likely to be
more vulnerable to attack.


In a typical LAN environment within a company, there are many computers that are directly
connected to it. It is also common that most corporate data is sent over that network without
concern that it be encrypted. Most data produced by general applications running on a
corporate LAN do not get protected to this extent.


Data attacks at any one of the direct or dial
-in LA
N ports can quite easily be accomplished by
technical people with an idea toward listening to alarm signals or commands and later using
this information to compromise the security system.


A design goal when Honeywell developed its LAN based alarm reportin
g solutions, was to
provide as much data security as possible without forcing any changes to data security
practices or policies at the protected premises business locations.

PAGE
7



About Private Network Applications

Some Honeywell IP communicators
can or may be
configured to transmit signals within a
private LAN configuration.


Up to 512 intranet communicators may be routed to a single IP communication
receiver.



In a private network configuration, the signals are not routed to the AlarmNet Control
Center. See figure
1 “
Intranet Communications”

below.

Communication Traffic



Figure
2: Intranet Communications


PAGE
8



Intranet Encrypted Communications

In an intranet installation AlarmNet
-i takes the server function that exists in the AlarmNet
Internet installation (described in the
“Honeywell Communication Solutions”
section).
Therefore, it must have a process to learn the MAC numbers and KEYs of each communicator
for which it will be responsible. This is accomplished using a 10
-digit install
ation key and the
AlarmNet intranet Receivers City ID and Central Station ID; along with a unique Subscriber
account number.

Installation Key

When programming
an
intranet communicator the 10
-key must be programmed
in all devices
(the central station and co
mmunicators)
. This key is used for two purposes. One, to confirm
and encrypt the registration
process at the time of install
and must
be the same for all devices
used in the Private LAN mode.
Secondly, a
fter a successful registration this key is used to
encrypt any message before it is sent to central statio
n.
Registration

The purpose of the installation
key is to encrypt the private KEY of each subscriber device as it
is registered to the
AlarmNet
intra
net receiver, therefor preventing this
sensitive data sending
in the clear.

Once a device is registered the intranet receiver will have a copy of the communicator’s factory
KEY.
As stated above, f
rom this point on the unique factory
key is used for encry
pting
communication messages.
See figure 2 “Intranet Registration Process” below
for an example of a typical registration
process
.


Figure
3: Intranet Registration Process

PAGE
9



Recovery Mode

The Recovery Mode is used when a messag
e is sent
(not a registration) with the intranet
receiver. If the account does not exist in the database, the intranet receiver sends a special
message back attempting to
force
a registration.
Upon registration the central station receiver
will display t
he message (i.e. the test report shown below).

NOTE:

The 10-
digit installation key must be programmed into that communicator or the

registration will fail.




Figure
4: Intranet Recovery Mode


PAGE
10


AlarmNet’s® Approach for Internet
Communications

Internet (
IP Communicators
)

As stated earlier, a robust security solution to provide alarm reporting over the Internet requires
high levels of data security (encryption and two
-way authentication) as well as an easy
installation process fo
r the
typical
install
ation
companies in the security industry.


Introducing
AlarmNet
-i®
AlarmNet
-i is an
extension to the AlarmNet network
that
allows a simple and logical approach
to providing a powerful, secure and flexible solution for Internet and intr
anet alarm reporting.


At the heart of the service are the following basic capabilities:



A high level of encryption



Two
-way authentication



Quick installation even behind firewalls


To take advantage of the network capabilities, Honeywell
provides a smart c
ommunications
solution that gets installed at the protected premises
. The module converts alarm signals to
the required format and sends them securely over existing LAN wiring
or Wi-
Fi®
and then
through the Internet to a central station. At each end of the link (protected premises
and
central station) a module is installed that can facilitate these secure communication sessions.


PAGE
11



Internet Communication
Module
s
These
module
s are
simple
-to-install secure Internet c
ommunicator
s. They are stand
-alon
e
module
s enclosed in an attractive plastic case. LED status is visible from the outside so
communications with the network can easily be checked.

Installation
-Protected
Premises

The
se
connect to the
Enhanced Console Protocol (
ECP
) bus of the installed
Honeywell control
panel
. There is a 4
-wire connection to the ECP bus and a separate connection for an RJ45X
plug typically used for connecting to Ethernet LAN
s. The LAN or Router
must
have
an always
-
on connection to the Internet
and be capable of distrib
uting and IP Address
.

Once powered and connected, the
communicator
automatically seeks the AlarmNet®
servers in
a private, automated and secure connection. Once established, both sides (
AlarmNet
server
and the communicator
) are authenticated
. No install
ation knowledge about keys, protocol,
firewall or other computer networking knowledge is required
, as the communicator takes care
of that for you.

What is important to note is the connection is highly
secure. Our design objectives of insisting
on data sec
urity and ease of installation is what allows security professionals to install the
communicators
with existing installers and do so with confidence. (See Figures
5-7 below
for
details.)

Honeywell IP
Central Station Receiver
At th
e central station is a rack-
mounted
Honeywell IP Central Station R
eceiver
. This product
establishes the same level of a
secure connection, as do
the communicators
. It does this
between the
AlarmNet
server and the receiving ce
ntral station. It is the responsibility of the
server software to provide the alarm information to one or more receiver
. Once a receiver
is
installed at a central station, it will handle all incoming Internet based messages from
the
entire population of communication
transmission units.
(See Figures 5
below for details.)

Installation
at the Central Station
Installing the Honeywell IP Central Station Reciever
is straightforward. It mounts inside a
traditional NEMA 1
9” rack and includes
its own power supply, receiver electronics and
integrated touch screen display. The display allows the central station to easily both view and
set any of the communications
. The device connects
to an always
-on Ethernet connection
that is connected to the Internet. On the other side of the receiver
is a serial connection for a
central station receiver
or may optionally be configured to send data directly into a cent
ral
station automation software package through its RS232 port.


PAGE
12



Establishing a Link with AlarmNet
-i
Description of Figure
5
At the protected
premises
a
communicator is installed
and in the event of an alarm
it sends a message through
the Internet and co
ntacts
AlarmNet in a secure
manner.


AlarmNet
then challenges
the
communicator
to make
sure the unit is properly
authenticated and then the
alarm message is sent and
accepted in AlarmNet. At
this time, there is a secure
message sitting in AlarmNet

waiti
ng to be routed to an
appropriate central station.


This approach assures the
highest level of security as



Figure
5: Link with AlarmNet
-i
only
knowledge about the population of communicators and the communication units are in
control of the comm
unication session. Outside attacks from the Internet are virtually
impossible since communicators only know how to communicate with the server
’s software
.





















The AlarmNet server maintains the secure connections to both the central statio
n as well as
the protected premises and only communicates in a totally authenticated and secure manner.
No attacks can occur to the central station over the Internet on the
receiver
nor can outsiders
see or understand the transmitted data sent through the
Internet.

Description of Figure 6

The second half of an alarm
transmission involves
creating
an identically secure
connection between the
AlarmNet server and the
AlarmNet
-i central station
receiver. Once the Honeywell
IP Central Station Receiver
has communicated with the
Central Station, its
connection is held open so
that immediate transmission
of incoming alarms can
occur.
Typical response time
end to end is under 6
seconds.


Figure
6: Link with central station

PAGE
13



Putting It All Together

Description of Figure
7
This is a simplified summary
diagram showing the two
connections that are made in
order to deliver an alarm

message from the protected
premises
, through the
AlarmNet®
server and out to
an
Honeywell IP equipped
central station.


First, the black lines show
that a session is initiated by
the protected
premises

(AlarmNet Communicator),
and then after proper
exch
anges, an alarm
message arrives at AlarmNet.

The second session shown
by the red arrows is then
initiated whereby AlarmNet
starts to talk to the
appropriate central


Figure
7: Putting It All Together
station where the alarm m
essage is delivered.


The important roles that the server plays in this communication path are the authentication of
both the protected premises
and the central station, allowing encrypted messages to be sent
over the public Internet with full confidence
that they are not
being interpreted by others and

they indeed have arrived where they are supposed to.

PAGE
14


IP
Communicator Messages
Communicator
Notifications
/Failures

AlarmNet
-i® communicators provide the following types of supervision and module fault
det
ection:

Network
Communication
Failure

In the event the AlarmNet network does not hear a supervisory
message from the communicator
within a specified time, AlarmNet
notifies the central station of a communication failure.
(See Figure
s 8
and 9
below)

Commu
nication
Path
Failure

In the event the module detects a communication path failure, the
control panel can be notified of a trouble condition with the
communicator
after a specified time has elapsed
.
Cover
Tamper
Condition

In the event the cover has been removed a tamper condition exists.
This is a programmable option with in the communicator itself.

Fault
Output

The fault output
can serve as a fail
-safe trigger for module fault
conditions. The fault relay will always trip under the following

conditions
, if programmed
:


Unregistered radio


Old Alarm Timeout



Radio has received a kill command



Internet failure



Tamper

Alarm reporting for the noted condition must be enabled for it to
trigger the fault relay.


PAGE
15



Device
Communication
Failures


Figure
8: Network Com
. Failure

Central Station Failures


Figure
9: Central Station Com
. Failure
PAGE
16


GSM/CDMA Cellular Platform

Introduction

Honeywell
is focused
on
pr
oviding
leading
edge
communication
solutions
for
the
security
industry
. Alte
rnativ
e communicatio
n method
s are critica
l in th
e marketplac
e du
e to VoIP
migratio
n from POTS
. The
gr
owth
of broadband
use
in homes
and
businesses
has
increased

the
viability
of

Internet
communications
for
security
. In additi
on,
digital
radio
networks
are
the

future
of cellular
communications.


Honeywell offers Code Division Multiple Access (CDMA) and Global System for Mobile (GSM)
using 3G and 4G radio technologies.
AlarmNet
-G®
is based
on Wide Band CDMA (WCDMA)
sometimes re
ferred to as GSM and CDMA technologies. The WCDMA devices have fallback

logic
to the
2G General Packet Radio Service (GPRS)
network.
Supporting multiple radio
technologies and network operators allows Honeywell to achieve a nearly ubiquitous coverage.


GPRS, EDGE, ECDMA and 1XRTT Data Connect Service

These cellular data services are t
he primary method for
wirelessly
sending Alarm and
Supervisory messages.


Secondary
uses
for
the
data
service
include
connection
oriented
functions
such
as

upload/download

(Compass
Connect),
device
management
and
configuration
(AlarmNet
360),

and
real
tim
e

remote
contr
ol functions.


AlarmNet®
connects
to the
data network
via
several
APNs
(Access
Point
Name
s). These
APNs

define

how
devices
connect.
AlarmNet
uses
APNs
that
connect
via
three
methods
to the

AlarmNet
Network Operations Center (
NOC).

Two
private
APNs
allow
connection
over

Multiprotocol Switching (
MPLS) circuits with Virtual Private Network (VPN) backup to our
carrier
NOC
’s. A third
reports
to a VPN
connection,
which
can
be
used
to support
disaster
recovery
in
the
event
of a loss of connectivity o
n the Private APN’s
.
Short Messaging Service (SMS)
The
SMS
service
serves as
the
backup
for
alarm
delivery
in the
event
the connected
data network

fails.
SMS
delivery
times

are
not
deterministic
in nature
and
are
not
as
reliable
as
the
data
network
for
alarm
delivery
. That
said,
the data network
services operate
independent
of SMS
service,
which
means
that
the data network
could
be
down
while
SMS
is still
functional.

If the
data network
is down,
alarm
and
optionally,
supervision
functions
will
be
sent
on
SM
S.

SMS
is also
used
to reach
out
to devices, via “shoulder tapping”
to initiate a connection
via
the
data network
for
upload/download using Compass software,
remote control using Honeywell
Total Connect™ Remote Services and other
session
functions.

PAGE
17



Cellu
lar Communications

Cellular Based

Cellular based communications operate as follows:

1.

Cellular devices use the existing cellular carrier’s backbone(s) to send the signals from the
device to custom APNs (at the carriers control center)

2.

Signals are sent to the AlarmNet NCC

3.

An ACK is returned to the device in the field to indicate the signal was received.


Figure
10: GSM Communication Path

Remote Services Communications

1.

Device (phone, tablet, pc, etc.) command or request to the Data S
erver

2.

An SMS shoulder tap is sent to the communicator over the cellular network

3.

The c
ellular communicator initiates contact with the Honeywell Redir servers

4.

Honeywell
Redir Server
directs the control (i.e. arm, disarm, status request, etc.) to the
appropriate server. (Total Connect™, Compass Connect, Video Services, etc.)

5.

Control
initiates an outbound communication to the Data Server

6.

A session is setup to receive the updates

PAGE
18


NOTES

























PAGE
19


NOTES















































2 Corporate Center Drive, Suite 100

P.O. Box 9040, Melv
ille, NY 11747

Copyright

2015 Honeywell International Inc.

www.honeywell.com/security



Ê800 -22565KŠ

800
-22565 9/2016 REV A


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