GSM Enabled Smart Fire Alarm Controlling System with SMS Alert

GSM Enabled Smart Fire Alarm Controlling System with SMS Alert
International Journal of Computer Applications (0975 – 8887)
Volume 147 – No.11, August 2016
GSM Enabled Smart Fire Alarm Controlling System with
SMS Alert
Ashwitha A.
Arjun K.
Prashanth H. L.
Assistant Professor,
Dept of Computer Science,
SDMIT, Ujire
Assistant Professor,
Dept of Computer Science,
SDMIT, Ujire
Senior Software Engineer,
BETSOL,
ABSTRACT
This paper describes the development of an economical,
convenient, and reliable GSM based automated fire alarm
system for remotely alerting fire and smoke incidents to the
property owner outside the building or industrial premises
quickly by sending short message via GSM network. Along
with study of existing fire detecting systems. The proposed
system uses N-F-N Gateway which is an intelligent gateway
interface for fire monitoring workstation. It also supports full
panel programming using embedded c and network
diagnostics.
A simple automatic fire alarm system for buildings based on
wireless sensor networks is designed and implemented in this
paper. We focus on the design of network architecture and
communication protocol here. Figure 1 shows the structure of
traditional fire alarm control system.
General Terms
This paper is an embedded based, embedded means dumping
of software into the hardware. Here, software code is written
using Embedded-C. This work makes use of Q26 series GSM
based development kit and is used to allow users to create and
define applications using the Q2686 embedded module. GSM
refers to second-generation wireless telecommunications
standard for digital cellular services.
Keywords
Fire detector, Smoke detector, GSM, Mobile, NFN gateway
1. INTRODUCTION
A typical fire alarm control system shall be capable of
detecting fire and transmitting it to central monitoring station.
Fire points (detectors or sensors) communicate with fire alarm
control unit. As part of compliance in case of any fire related
event information need to be communicated to monitoring
station for just in time response.
Current fire panels are making use of Digital alarm
communicator transmitter (DACT) which is responsible for
transmitting the information to the central station. Only some
panels come along with the DACT, the remaining panels need
to have external DACT unit for transmitting the information
to the central station. There is obsolescence in using this
DACT since it requires more hardware components and
interfacing. So, to overcome the obsolescence of the DACT,
the transmitting unit is designed to make the system cost
effective and eliminate the obsolescence.
The current life safety systems do not have any wireless
connectivity to communicate with external world. Detectors
or sensors are reported only to Fire alarm control Panel
(FACP). A person cannot know the situation inside a building
in case of fire, by simply standing outside. Fire Fighter does
not know the situation in the fire place till they reach spot.
They cannot get the dynamic view of spreading up of fire
outside the building. Building owner sitting somewhere in the
world can‟t see the status for fire spreading in his building.
Hence fire panel needs a system that transmits the fire events
to the central station and the floor map image to the remote
server.
Figure 1: Traditional fire alarm control system
2. LITRETURE REVIEW
C. Luo et.al. [1], the writers deliberate a security robot which
is developed using an aluminum frame. The main controller of
the security robot is an industrial standard PC (IPC) with a
Pentium-III 933 CPU and 256 MB RAM. The hardware
devices consist of a touch screen, charge-coupled device
(CCD) camera, sensors and sensory circuits, driver system,
etc. The sensory system consists of seven subsystems. There
are the fire-detection subsystem, intruder-detection
subsystem, power-detection subsystem, environmentdetection subsystem, motor-control subsystem.
L. Chengqiang.et. al. [2] in this paper a network environment
integrating wire and wireless communication is built, and the
fire control database with a five-layer (Data source layer, Data
Persistence layer, Domain layer Controller/Mediator layer,
Presentation layer) structure is established, which is critical to
resolve the cooperative control problem in the quick-response
fire control system.
H.C. Muller, the authors designed a system which presents an
MSbFD [3] (Multi Sensor based Fire Detection) algorithm
using two fire parameters (temperature and optical smoke
density). These two sensors were chosen since ionization
systems may become increasingly difficult to apply because
of the environmental regulations being imposed on them. The
evaluation and processing of the sensor signals is carried out
by the use of Fuzzy Logic.
H. Hu Gang, the authors clarified that a Wireless MultiSensor Fire Detection and Alarm System can be performed
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International Journal of Computer Applications (0975 – 8887)
Volume 147 – No.11, August 2016
based on ARM [4]. The system uses nRF2401 for short-range
wireless communications, GPRS for long-distance wireless
communications, ARM9 for center console, Wireless Multisensor Fire Detector for node, and BP algorithm is used for
judging the probability of fire. Wireless Multi-sensor Fire
Detector is formed of the low-power electrochemical carbon
monoxide sensor, photoelectric smoke detector and
semiconductor temperature sensor.
4.1.2 Software requirements:
Finally, S. & Y., the researchers [5] illustrate that that Mobile
technologies, including the global system for mobile
communication (GSM) and the ZigBee short-range wireless
data connection technology could be used to monitor and
detect fires.
4.2 System architecture
3. PROPOSED SYSTEM
The developed system is having unit that transmits any on
premise fire event to a dedicated phone number. As soon as
fire detector detects any fire related event, after processing of
event in fire panel dialer send out the information to the
central station. This system is having less hardware
components and the interfacing hence it reduces the cost as
well and also we can make use of Reusability of the code that
we have developed here. Developed system also provides the
visual fire spreading indication to authorized person. Building
owner sitting somewhere in the world can see the status for
fire spreading in his building. The present work uses N-F-N
Gateway, is an intelligent gateway interface for fire
monitoring workstation.
4. SYSTEM REQUIREMENTS AND
ARCHITECTURE
4.1 System requirements

Languages used: Embedded C, Android.

Simulator used: NFN gateway.

IDE used: Sierra Open AT development studio and
android SDK.

Operating System: Windows XP or Windows 7.
A typical fire alarm control system shall be capable of
detecting fire and transmitting it to central monitoring station.
Fire points (detectors or sensors) communicate with fire alarm
control unit. As part of compliance in case of any fire related
event information need to be communicated to monitoring
station for just in time response [7]. The existing life safety
system needs transmitting system to transmit on premise event
code to central station and wireless connectivity to transmit
event information in the form message to the mobile phones.
Figure 2 shows the proposed system block diagram which
consists of FACP, GSM/GPRS modem, NFN Gateway and
other components are shown diagrammatically in the below.
5. SYSTEM DESIGN
Software design is a process of problem solving and planning
for a software solution. After the purpose and specifications of
software are determined, software developers will design or
employ designers to develop a plan for a solution. It includes
low-level component and algorithm implementation issues as
well as the architectural view. Various designing approaches
for our system is given below in the figure 2.
System requirements involves studying the business
processes, gathering operational data, understand the
information flow, finding out bottlenecks and evolving
solutions for overcoming the weakness of the system so as to
achieve the organizational goals[6]. The proposed model
requires following system requirements. System requirements
of two types and they are Hardware requirements and
software requirements.
4.1.1 Hardware requirements:
The main requirements for the PC to support the Developer
Studio are:

Pentium 300MHz (or higher) processor with at least 128
MB of RAM and 500 MB free hard disk space.

A CD ROM drive (for software installation)

At least one free COM (serial)
communication with the target product.

Sierra Wireless Development kit along with required
power supplies and adaptors

port
for
the
SIM cards with the following features enabled according
to your usage:
•
Basic GSM features such as SMS and voice call
•
PIN1, PIN2, PUK1 and PUK2 code
•
GPRS (if required)
Figure 2: Proposed system architectural diagram.
5.1 Use case diagram
Use case diagram for GSM based mobile system. Figure 3
below depicts the Use Case diagram of GSM based mobile
station.
Use case name: GSM based mobile system
Actor: Monitor and User.
Use cases:

RS-232 Serial Cables.

Set up and configure Fire detectors.

NUP to Serial Cable and Smart Phone.

Set up and configure Smoke detectors.

Set up and configure Supervisory inputs.
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International Journal of Computer Applications (0975 – 8887)
Volume 147 – No.11, August 2016

Monitor FACP.
6. IMPLEMENTATION

Monitor NFN gateways.

This chapter gives the details of language, tools used,
platform used and other implementation details of the project.
Set up GSM embedded module with all the necessary
connections.

Download and install android .apk file on user mobile
phone.

Receive message through Mobile handset.
6.1 Languages used
The major reason for using C in this project is the ease and the
control, the language gives control over the system and
interface to input and output modules. C is best suitable for
system level programming for example a medium-level
programming language to handle memory, I/O and peripheral
devices. Android is used for user interface part in smart
phones or tablets.
6.2 Platform used
Windows 2000 or higher version. Windows XP is used for
implementing the project. Open AT platform for Embedded C
for simulation.
6.2.1 Tools used

Sierra Wireless Open AT Software Suite Sierra Wireless
Software Suite is an application development framework
that allows designing an Open AT application [8]. Sierra
Wireless Software Suite includes:

An IDE (Integrated Development Environment) named
Developer Studio, which has been developed on top of
Eclipse-provided tools

The set of embedded module software components
packaged into the Open AT Embedded Software Suite
(OASiS).
6.2.2 Q26 Series GSM Development Kit
The Q26 Series Development Kit box contains [7]:
Figure 3: Use case diagram of GSM based mobile station

1 Q26 Series Development Kit board

Air Prime Q2687 Refreshed embedded modules
your Mobile device.

Antenna
Step 2: Set up Fire detector, smoke detectors and

1 SMA Antenna for GSM and WCDMA
supervisory inputs. Connect the Fire detectors, smoke
detectors and supervisory inputs to the FACP.

1 GPS Antenna

Connectors
all the necessary connections.

1 2-pin power supply connector
Step 4: Set up GSM embedded module with power cable,

5 100-pin board to board connectors
antenna and RS-232 serial cable. Insert the Mobile cell phone
SIM into the slot provided in the GSM board.

5 100-pin board to board connectors
Step 5: Check whether the fire exists in the building, then

1 130-pin board to board connector for the test board
signal FACP and go to step 7.

Cables
Step 6: Check if smoke exists in the building, then signal

1 Power cable

3 UFL-SMA RF cables
then signal FACP and go to step7.

1 RS232 cable
Step 8: FACP will receive the data from Fire detector, Smoke

1 USB cable
detector and supervisory inputs send it to NFN gateway.

1 RJ9 cable (for handset)
Step 9: NFN gateway interprets the data from the FACP into

1 AC/DC adapter

1 Handset

1 Pen drive containing the SDK + documentation.
5.2 Algorithm
Step 1: Download and install the android SDK .apk
file on
Step 3: Configure FACP, NFN (Noti-Fire-Net) Gateway with
FACP and go to step 7.
Step 7: Check if supervisory action required in the building,
the form which GSM can understand.
Step 10: GSM receives the data from NFN gateway,
processes the data using AT commands.
Step 11: Processed data send to building owner mobile in the
form of message, even though he is outside the building.
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International Journal of Computer Applications (0975 – 8887)
Volume 147 – No.11, August 2016
The following figure 4 shows the top view of the Q26 Series
Development Kit board. It enumerates the locations of the
several ports and interfaces available.
Figure 8: Sierra Wireless GSM Power supply unit
6.4 Communication Test
To perform a communications test after setting the Q26 Series
Development Kit with a Q26 series embedded module, do the
following:
1. Using a PC terminal emulator, send the following
command on the COM port to communicate with the
Q26 series embedded module: AT
2. When communications is established between the PC and
the embedded module, the embedded module replies
with an "OK". The message is displayed in the terminal
emulator window.
Figure 4: Sierra wireless GSM tool kit
6.3 Setting the Accessories
Follow the instructions shown below step by step: a.Sim
holder: Insert a SIM or USIM card into the SIM card holder
shown in the figure 5. J700, when using a Q2686 refreshed,
embedded module. Following figure 5 shows the sim holder
of Sierra Wireless GSM tool kit. b.Switch: The "ON/OFF"
switch is in the "ON" position. The "BOOT" switch is in the
"OFF" position shown in the figure 6 below. c. GSM ports:
The UART1 switch is in the "EN1" position. The UART2
switch is in the "EN2" position displayed below in the figure
7. d.Power supply :J101 or via the external power supply,
J100 at 4V/2.5A as shown in the following figure 8.
7. RESULTS
Step1: Setup the NFN Gateway on Host system, Host system
is the system which is connected to the GSM board through
RS-232 serial cable. Open NFN Gateway configuration
window and enter the Password as “000000” and click Login.
The Gateway configuration window is as displayed in the
figure 9 with node numbers N001 and N002 of FACP
components as shown in figure 10.
Figure 5: Sierra wireless GSM Sim holder
Figure 9 Snapshot of NFN Gateway
Step2: Run the Test Client solution by opening the VC++
IDE. Test client is used for simulation purpose and we can
identify the events from FACP through NFN gateway.
Step 3: Set up the NFN simulator in the remote system,
Figure 6: ON/OFF Switch
remote and host system should be connected through RS-232
serial cable. Extend the Node1 and extend Loop1 and right
click on the events to select the „Activation Event‟ as shown
in the figure 10.
Step 4: Installation of Open AT Developer Studio. Run the
Open_AT_Framework_v2-35-5_Full_Installer.exe file to
install the Open AT Developer Studio. Set up the GSM tool
kit as shown in the figure 11.
Step 5: Connections between the Host and the GSM board is
as follows: a. Host-GSM is connected through USB cable.
b. Host-UART2 of GSM is connected through RS-232 serial
Figure 7: UART1 and UART2 ports
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International Journal of Computer Applications (0975 – 8887)
Volume 147 – No.11, August 2016
cable. c. Insert the sim in the sim holder of the GSM board.
d. Connect the Power supply to the GSM board.
8. CONCLUSIONS AND FUTURE
SCOPE
The designed fire alarm system is simple but it has wide area
of application in household and industrial safety, especially in
developing countries like India where internet is a major
issue. Using this system, quick and reliable alert response is
possible to initiate preventive measures to avert danger of fire
small scale industries where cost is the major issue for them to
buy internet. This is a cost effective fire alarm system which
performs reliably to ensure safety from fire, and can be
installed in houses, industries, offices, ware-houses etc. very
easily. Large industrial or residential area can be monitored
through the proposed system installing multiple modules, each
for one floor or unit. The system can be further developed
with added features like web server interconnect, fire area
tracking and fire extinguisher interfacing etc.
Figure 10: Snapshot of Gateway configuration window
Step 6: Open, Open AT Developer Studio (GSM IDE). Open
the source code. Hard code the target mobile number in the
source code. Select “Target Management” on the right top of
the IDE, now select USB(COM) in the port list available
under devices. Select the “Open port” option in the
development mode.
9. REFERENCES
[1]
(Luo R. and Su K.), "Autonomous Fire-Detection
System Using Adaptive Sensory Fusion for Intelligent
Security
Robot"
Mechatronics,
IEEE/ASME
Transactions on June 2007.
[2] Chengqiang L., Qingying Z., Feng M., " Research on the
Cooperative Quick response Fire Control System",
Innovative Computing Information and Control, 2008.
[3] Muller C. and Fisc1ier A.," A Robust Fire Detection
Algorithm for Temperature and Optical Smoke Density
using Fuzzy Logic" Security Technology, 1995.
Proceedings.
[4] Hu H., Wang G., Zhang Q., Wang J., Fang J., Zhang Y.,"
Design Wireless Multi-sensor Fire Detection and Alarm
System Based on ARM " in Proceeding of The Ninth
International Conference on Electronic Measurement &
Instruments ICEMI‟2009, IEEE 2009.
[5] Sun, Yuan and Al-Sarawi "Modern wireless technologies
could save bushfire lives", International Journal of
Computer Aided Engineering and
Technology.,
Australia, IEEE 2010.
Figure 11: Snapshot of GSM Tool Kit
Following IDE displays the sent message acknowledgement
and message count to user mobile phone as shown in the
figure 12.
[6] https://en.wikipedia.org/wiki/Software_engineering.
[7] https://www.sierrawireless.com/products-andsolutions/embedded-solutions/
[8] www.wavecom.com
Figure 12 Snapshot of Final Message Sending Window
IJCATM : www.ijcaonline.org
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