A vehicle tracking system combines the installation of
an electronic device in a vehicle, or fleet of vehicles, with purpose-designed
computer software to enable the owner or a third party to authenticate, track
the vehicle's location, collecting data in the process. Modern vehicle tracking
systems commonly use Global Positioning System (GPS) technology for locating
the vehicle, here in this system Biometric finger print detection technique is
used to give the more security feature for this system. The owner can start the
vehicle directly by putting his finger print on the fingerprint scanner. He /she can give chance for others to
authenticate vehicle by enrolling their finger print. Owner will get message
like unauthorized access while other person try to authenticate. User doesn’t have any awareness about the
current location of the vehicle when it
was stolen, but he can get the vehicle location by simply sending “LOCATION” in message. Vehicle information
can be viewed on electronic maps via the Internet or specialized software. He/she
can stop the vehicle by simply sending the “STOP” message, the vehicle will not
start and doesn’t detect any finger prints till he send “START” message.
Contents
Introduction
1.1 Design
Implementation
1.2 Literature
Survey
1.2.1Anti-Theft Tracking System for Automobiles
1.2.2
GSM and GPS based vehicle location and tracking system
1.2.3
Combining
GPS and GSM Cell-ID positioning for Proactive Location-based Services
1.2.4
A New Approach of Automobile Localization
System Using GPS and GSM/GPRS Transmission
1.2.5
Research
and Design of Intelligent Vehicle Monitoring System Based on GPS/GSM
1.2.6
Design
and development of farm vehicle monitoring and intelligent dispatching system
1.2.7
Intelligent Vehicle Monitoring System Based on GPS, GSM and
GIS
1.2.8
GPS and
GSM antenna with a capacitive feed for a personal navigator device Required Knowledge for the
project Implementation
|
1
2
3
3
4
4
5
5
6
6
|
CHAPTER
2
MICROCONTROLLER
2.1 Introduction
to Microcontroller
2.2 History of ARM
2.3 ARM
Architecture
2.4 ARM
Processor Core
2.4.1
ARM Bus Technology
2.4.2
AMBA (Advanced Microcontroller Bus
Architecture) Bus protocol
2.4.3
ARCHITECTURE
Revisions
2.4.4
NOMENCLATURE
2.4.5
Introduction
to ARM7TDMI core
2.4.6
ARM7TDMI Features
2.4.7
Benefits
2.5 ARM Register file & modes of operation
2.5.1
ARM Modes of Operation
2.5.2
Current program status registers
2.5.3
Banked registers
2.5.4
SPSR
2.6 ARM Instruction Set
|
7
7
7
9
11
11
12
13
14
14
15
15
17
19
20
20
20
|
CHAPTER 3
LPC2148 MICROCONTROLLER
3.1 General Description
3.2 Features and benefits
3.3 Key features
3.4 Block diagram
of micro controller
3.5 Pinning information
3.6 Functional description
3.6.1
Architectural overview
3.6.2
On-chip flash program memory
3.6.3
On-chip static RAM
3.6.4
Memory map
3.6.5
Interrupt controller
3.6.5.1 Interrupt sources
3.6.6
Pin connect block
3.6.7
Fast general purpose parallel I/O (GPIO)
3.6.8
10-bit ADC
3.6.9
10-bit DAC
3.6.10 USB 2.0 device controller
3.6.11 UARTs
3.6.12 I2C-bus serial I/O
controller
3.6.13 SPI serial I/O controller
3.6.14 SSP serial I/O controller
3.6.15 General purpose
timers/external event counters
3.6.16 Watchdog timer
3.6.17 Real-time clock
3.6.18 Pulse width modulator
3.6.19 System control
3.6.19.1 Crystal oscillator
3.6.19.2 PLL
3.6.19.3 Reset and wake-up timer
3.6.19.4 Brownout detector
3.6.19.5 Code security
3.6.19.6 External interrupt
inputs
3.6.19.7 Memory mapping control
3.6.19.8 Power control
3.6.19.9 APB bus
3.6.20 Emulation and debugging
3.6.20.1 Embedded ICE
3.6.20.2 Embedded trace
3.6.20.3 Real Monitor
|
22
22
22
25
26
27
27
28
28
28
29
30
30
30
31
32
32
33
34
35
35
36
37
38
39
40
40
40
41
42
42
42
42
43
43
44
44
44
45
|
CHAPTER 4
hardware development
4.1 Design overview
4.2
Block diagram
4.3
Hardware components
required
4.4 Fingerprint module
4.4.1
General Descriptions
4.4.2
Key Function
4.4.3
Optical sensor
4.4.4
Why go
for Biometrics?
4.4.5
Advantages
4.4.6
Essential
Properties of a Biometric
4.4.7
Biometric
System Process Flow
4.4.8
Pattern
Recognition
4.4.9
Why
Fingerprint biometry?
4.4.10 Advantages
4.4.11 Fingerprint Patterns
4.4.12 Serial
protocol
4.4.13 Fingerprint
Database
4.5 IR-SENSOR
4.5.1
Advantages
4.5.2
IR
RECEIVER (TSOP)
4.5.3
Suitable
Data Format
4.6 GLOBAL POSITION SYSTEM
4.6.1
About
GPS
4.6.2
What
is GPS?
4.6.3
How Does GPS Technology Work?
4.6.4
Who
Uses GPS?
4.7 GLOBAL
SYSTEM FOR MOBILE COMMUNICATION
4.7.1
Definition
4.7.2
Description
4.7.3
SMART MODEM (GSM/GPRS)
4.7.4
AT commands features
4.7.5
Services provided by GSM
4.7.6
Architecture of the GSM network
4.7.6.1 Mobile Station
4.7.6.2 Base Station Subsystem
4.7.6.3 Network Subsystem
4.8 LIQUID
CRYSTAL DISPLAY
4.8.1
LCD operation
4.9 ignition
switch
4.10
MAX-232
4.10.1
A Typical Application
4.11
DC Motor
4.12
H-BRIDGE
4.12.1 Basic Theory
4.12.2 Motor Driver
Connections
|
46
48
49
49
49
50
50
51
52
53
53
54
54
55
55
58
59
59
62
62
64
64
64
65
68
68
75
75
75
77
83
83
84
85
86
86
87
88
91
92
93
96
99
100
101
|
CHAPTER
5
ImplEmentation of interfacing
design
5.1 Introduction
5.2 Schematic Diagram
5.3 Schematic
Explanation
5.3.1
GPS connections
5.3.2
GSM connections
5.3.3
MAX-232 Connections
5.3.4
LCD connections to Micro controller
5.3.5
Fingerprint connections to the microcontroller
|
104
105
106
106
106
106
107
107
|
CHAPTER 6
RESULTS
6.1 After pressing the reset switch
6.2 While login on fingerprint
6.3 While
vibration sensor activated
6.4 Enrolling
process output
6.5 While
sending LOCATION message
6.6 While
sending stop message
|
109
109
110
110
111
112
|
CONCLUSION
FUTURE SCOPE
|
113
113
|
REFERENCES
|
124
|
List of Figures
Figure 1: ARM core dataflow model
Figure 2: Register
set of LPC2148
Figure 3: ARM Modes of Operation
Figure 4:
Block Diagram of Microcontroller
Figure 5: pin diagram of
microcontroller
Figure 6:
Memory map Diagram
Figure 7: Flowchart for fingerprint protected anti theft tracking
system
Figure 8: Block Diagram of the system
Figure 9: strengths and weaknesses of biometrics
Figure 10: Five biometrics according to seven parameters comparison
Figure 11:
Biometric system process flow
Figure 12: Fingerprint patterns
Figure 13: Fingerprint module
Figure 14: Pin Name Type function Description
Figure
15: IR transmitter
Figure 16: Block diagram of IR
Figure 17: IR receiver
Figure
18: GPS MODEM
Figure 19: GPS sample module (GARMIN)
Figure 20: GPS 3A pin assignment
Figure 21 :
structure of a GSM network
Figure 22:
Block diagram of modem with key connections
Figure 23:
Inserting/Removing the sim card into the modem
Figure 24:
General architecture of a GSM network
Figure 25: Liquid crystal display 16X2 LCD
Figure 26: Pin diagram of LCD
Figure 27: Block Diagram of the DC
motor
Figure 28: Block Diagram of the DC
motor having two poles only
Figure 29: Block Diagram of the DC motor having Three poles
Figure 30: Internal Block Diagram of
the Three pole DC motor
Figure 31: H-Bridge
Figure 32:
Motor Driver Connections
Fig 33: Schematic Diagram
111
|
9
17
18
25
26
29
47
48
51
52
53
56
56
58
62
63
63
66
71
74
76
78
79
85
89
89
97
98
98
99
99
102
105
|
If you want to see more click here
No comments:
Post a Comment