ABSTRACT
The
rapid growth of technology has made our life easier. In this project profile management
based driving system is introduced. Android is a mobile operating system
(OS) based on the Linux kernel that is currently developed by Google. Change Profile and sensing SMS to the call maker is an android stage
based application which runs in the android versatile or in the android
emulator at the improvement time. In driving mode, the profile will be changed
into silent and also the message will be sent to the call-maker. GPS data is
utilized to find whether it is normal mode or driving mode. The reason for this
application is to change the cell telephone profile is to ensure safe and
smooth driving system. Proposed method is implemented in ANDROID platform.
Simulation results show that the proposed method performs better than conventional
methods.
INTRODUCTION:
Common
activities that divert attention from the road include texting, most mobile
phone use, eating/drinking, reaching for an object, talking with a passenger or
reading navigation systems. Hence the ratio of road accidents which take place
frequently increases causing immense loss of life due to poor emergency
facilities. Advancement in technology will ensure the safety and smooth driving
system. Profile management system
plans to achieve the following
objectives: Easy to use, Automated profile switching, Accuracy, Increase
usability, User-friendly. Profile Management System in Android Mobiles is a
next level of smart driving system which reduces human intervention for simple
task such as sound profile switching. Android Smart Phone becomes much smarter
by this application. Profile will probably annoy and irritate fellow employees
where they may be concentrating on work at their hand. For example professors
in college, employees at office area, employers at meetings, drivers all have
to remember either switching off their device or changing the profile from
general to silent mode. Automated Profile Changing and Mobile Monitoring System
is the system which changes the profile automatically
Android Operating System is the driving
force behind context aware services of the mobile devices. Android occupies
almost 70 percent of the global market. Using Android application which will be
built on the top of Android operating system, profile of the device will be
changed and due to context aware services of Android OS monitoring of the
device is also possible. Android is a software stack for mobile
devices
that includes an operating system, middleware and key applications. Google
Inc.
purchased the initial developer of the software, Android Inc., in 2005.
Fig.1 Proposed
architecture
Google and other members of the Open
Handset Alliance
collaborated on Android's development and release. The Android operating system
is the world's best-selling Smartphone platform. The
Android SDK provides the tools and APIs necessary to begin developing
applications Android platform using the Java programming language.
Features
of android:
·
Application
framework enabling reuse and replacement of
components
·
Dalvik virtual
machine optimized for mobile devices
·
Integrated
browser based on the open source WebKit engine
Present
driving system does not integrate technology with the system. In this paper android based profile
management system for driving is proposed. Our proposed method will be
effective in-terms of automation, time consumption, accuracy and efficiency.
PROPOSED
SYSTEM
Figure 1 describes the proposed
architecture. In this project GPS is
utilized to track the speed of a person. From speed it can be evaluated that
the vehicle is in driving mode or not. If it is driving mode the phone profile
will be changed to silent mode. If anybody calls him/her, then the call will be
disconnected and the message will be sent to the person who tries to contact a
person who is in driving. The message will be in the following format: “The
person you want to contact is in driving. So please make a call after sometime.
If it is urgent please make a call 3 times.” If the person called more than 3
times the phone profile mode will be changed from silent to normal mode.
Otherwise no change will be made. Over all flow diagram is shown in the figure
3.
GLOBAL
POSITIONING SYSTEM (GPS)
The Global Positioning System (GPS) is a
space based navigation system that provides location and time information in all
weather conditions, anywhere on or near the Earth where there is an
unobstructed line of sight to four or more GPS satellites. The system provides
critical capabilities to military, civil, and a commercial user around the
world The United States government created the system, maintains it, and makes
it freely accessible to anyone with a GPS receiver.
SPEED CALCULATION
Speed calculation procedure is shown in
the figure 2. Speed is calculated using the data available from the GPS.
Fig.2 Speed calculation
Position difference is used to calculate
the speed of the vehicle. At last position difference is converted into speed.
THRESHOLD
In this project call count threshold is
3. If the person called to the person who is in driving more than 3 times then
the phone profile will be changed from silent to normal.
CALL
COUNTS
Call counts represents
the no of times the third person try to connect with the person who is in
driving.
GLOBAL
SYSTEM FOR MOBILE COMMUNICATION (GSM)
GSM (Global System
for Mobile communication) is a digital mobile telephony system. GSM uses a variation of time
division multiple access (TDMA) and is the most widely used of the three
digital wireless telephony technologies (TDMA, GSM, and CDMA). In this project GSM is used to send the message to
the call maker.
MANUAL IMPLEMENTATION:
In android based accident
prevention system, there are 2 operating modes. User can choose one mode
according to his/her need. Two operating modes are
1. Auto-driving mode
2. Manual driving mode
Auto-driving mode: If the user chooses
auto-driving mode, the profile will be changed to silent mode according to the
speed.
Fig.3 Overall flow
diagram
Here the speed is calculated using GPS data. This mode will not
be effective at the place where GPS is not available. Phone profile will not be
changed when there is no availability of GPS even if the person is in driving.
To overcome this problem manual driving mode is introduced here. Figure 5 represents
auto driving mode
Manual driving mode: If the manual driving
mode is chosen by the user, phone profile will be changed to silent without the
consideration of speed. This will be effective at the time at-which GPS data is
not available. User can use this mode when he/she is in meeting. Figure 6
represents manual driving mode.
Settings: Message to be sent to
the call maker can be edited by the user using the menu settings. Figure 7
represents the settings.
Fig.4 No driving mode
Fig.5 Auto driving mode
Fig.6 Manual driving mode
Fig.7 Settings
Fig.8 Location of the vehicle
CONCLUSION:
The main contribution
of this paper is to provide road safety with advanced driver-assistance
systems. This application will lives-up to expectations just on Android OS
mobiles. With the overwhelming improvement through Android, portable
Applications have been broadly utilized on the different versatile Gadgets.
Proposed application performs better to provide efficient driving system.
Experimental results show that the performance of the proposed application.
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