This article explains about development of Internet of Things (IoT) based decision support for vehicle drivers using GPS and GSM modules. This project is helpful to avoid the road accidents by maintaining the proper speed limit at different locations such as school zones, hospital regions and so on. Initially an admin database is created with a web server. The data base contains six parts such as S.No, longitude1, latitude1, longitude2, latitude2, speed limit. The web server has been implemented with a PHP page which provides a connection to the databases allowing web clients to send queries to data base. A PC application is distributed among local guides; they can provide speed limits of the allocated regions. A GPS receiver is used to provide the vehicle’s location and a GSM module is configured as GPRS to provide internet connection through mobile data. An Organic Light Emitting Diode (OLED) is used to display the speed limit of the vehicle’s location. Arduino UNO (At mega 328P) board is used to interface all the components. The instructions to the vehicle drivers are given by using OLED display when the location is tracked by GPRS, and also an alarm sounds at extreme conditions.
This article explains about development of Internet of Things (IoT) based decision support for vehicle drivers using GPS and GSM modules. This project is helpful to avoid the road accidents by maintaining the proper speed limit at different locations such as school zones, hospital regions and so on. Initially an admin database is created with a web server. The data base contains six parts such as S.No, longitude1, latitude1, longitude2, latitude2, speed limit. The web server has been implemented with a PHP page which provides a connection to the databases allowing web clients to send queries to data base. A PC application is distributed among local guides; they can provide speed limits of the allocated regions. A GPS receiver is used to provide the vehicle’s location and a GSM module is configured as GPRS to provide internet connection through mobile data. An Organic Light Emitting Diode (OLED) is used to display the speed limit of the vehicle’s location. Arduino UNO (At mega 328P) board is used to interface all the components. The instructions to the vehicle drivers are given by using OLED display when the location is tracked by GPRS, and also an alarm sounds at extreme conditions.
This system builds a new intelligent vehicle checking system based on ARM7 embedded processing technology, processing technology of digital videos, vehicle identification technology, GSM wireless mobile telecommunication technology, GPS positioning technique, implements the checking to vehicles which break the rules or owe the charge. Here we are using car as mobile vehicle checker.
The document discusses interfacing a GPS modem with an Arduino Uno board to display location information on a 2x16 LCD. The GPS modem receives satellite signals, decodes them, and sends data like latitude and longitude in string format using the NMEA standard over serial. The Arduino program filters the NMEA data received and displays the location on the LCD.
Vehicle Tracking System for School Bus by ArduinoIRJET Journal
This document describes a vehicle tracking system using GPS and GPRS technology to track school buses in real-time. The system uses a GPS receiver module to obtain location coordinates and a GPRS module to send the data via TCP/IP to a tracking server. The tracking server stores the location information in a database and makes it available on a map interface for authorized users. The system was implemented using an Arduino microcontroller board connected to a GPS and GPRS shield module. Test results demonstrated the system could successfully track multiple buses on their routes and display their locations on an online map.
11.design and implementation of vehicle tracking system using gpsAlexander Decker
This document summarizes a research paper on the design and implementation of a vehicle tracking system using GPS. The system uses an in-vehicle unit with sensors and a GPS receiver to track the location of the vehicle. The location data is transmitted to a remote tracking server using GSM/GPRS. The tracking server stores the location information in a database and makes it available online to authorized users. The system is intended to provide vehicle security features like anti-theft tracking and monitoring of door open/close status. The paper describes the hardware and software design of both the in-vehicle unit and tracking server.
In this project we are going to make an embedded system which will help to provide protection against theft. This system will send the data to the user who want to track the vehicle showing the using position of vehicle in terms of latitude and longitude. Most of the people know that GPS is more secure but they don’t apply because it is expensive. This design is needed for the real time location of the vehicle. It changes the microcontroller P89V51RD2 interfaces with various hardware peripheries this uncontrolled interfaces serially with GSM modem and GPS receiver.
Accident messaging system using GPS,GSM and MEMSJithin Prasad
This project aims to develop an accident messaging system using a MEMS sensor to detect vibrations during accidents, a GPS module to determine location, and a GSM modem to send messages with location to emergency contacts. It is composed of a PIC microcontroller interfaced with MEMS, GPS, and GSM modules. When an accident is detected by the MEMS sensor, the system will use the GPS module to get location coordinates and send an SMS message with location via the GSM modem to alert contacts and enable emergency response.
Here we are making a project which just traces our vehicle location, in terms of its precise latitude and longitude and then send it to a mobile number (as per our requirement). This project consists of three main devices which are :- (i) Arduino UNO, (ii) GPS module (Neo-6M), & (iii) GSM- 900A.These all three devices will be going to be installed in the vehicle to which we want to trace. Initially what happened that we make a program in arduino (in C language) regarding interfacing the GSM device and GPS device. And we also set a mobile number in the program as per our need, on which we get the info regarding its (vehicle’s) location. First of all we make a call to the mobile number which has been installed in the GSM module and then after some specific delay (as per mentioned in the program) we get a sms regarding the exact latitude and longitude of the vehicle. It is done in a way that GPS device is continuously receiving the location of the vehicle from the satellite and then transferring to the arduino board, from where we send it to the required mobile no. And hence in this way we can easily get info regarding the exact location of the vehicle. Once the message has been sent to the predefined mobile no. the GSM gets deactivated and the GPS gets activated. Thus we can easily trace our vehicle. Vehicle Tracking System (VTS) is the technology used to determine the location of a vehicle using different methods like GPS and other radio navigation systems operating through satellites and ground based stations. This system is an important tool for tracking each vehicle at a given period of time and now it is becoming increasingly popular for people having expensive cars and hence as theft prevention and retrieval device.
This article explains about development of Internet of Things (IoT) based decision support for vehicle drivers using GPS and GSM modules. This project is helpful to avoid the road accidents by maintaining the proper speed limit at different locations such as school zones, hospital regions and so on. Initially an admin database is created with a web server. The data base contains six parts such as S.No, longitude1, latitude1, longitude2, latitude2, speed limit. The web server has been implemented with a PHP page which provides a connection to the databases allowing web clients to send queries to data base. A PC application is distributed among local guides; they can provide speed limits of the allocated regions. A GPS receiver is used to provide the vehicle’s location and a GSM module is configured as GPRS to provide internet connection through mobile data. An Organic Light Emitting Diode (OLED) is used to display the speed limit of the vehicle’s location. Arduino UNO (At mega 328P) board is used to interface all the components. The instructions to the vehicle drivers are given by using OLED display when the location is tracked by GPRS, and also an alarm sounds at extreme conditions.
This system builds a new intelligent vehicle checking system based on ARM7 embedded processing technology, processing technology of digital videos, vehicle identification technology, GSM wireless mobile telecommunication technology, GPS positioning technique, implements the checking to vehicles which break the rules or owe the charge. Here we are using car as mobile vehicle checker.
The document discusses interfacing a GPS modem with an Arduino Uno board to display location information on a 2x16 LCD. The GPS modem receives satellite signals, decodes them, and sends data like latitude and longitude in string format using the NMEA standard over serial. The Arduino program filters the NMEA data received and displays the location on the LCD.
Vehicle Tracking System for School Bus by ArduinoIRJET Journal
This document describes a vehicle tracking system using GPS and GPRS technology to track school buses in real-time. The system uses a GPS receiver module to obtain location coordinates and a GPRS module to send the data via TCP/IP to a tracking server. The tracking server stores the location information in a database and makes it available on a map interface for authorized users. The system was implemented using an Arduino microcontroller board connected to a GPS and GPRS shield module. Test results demonstrated the system could successfully track multiple buses on their routes and display their locations on an online map.
11.design and implementation of vehicle tracking system using gpsAlexander Decker
This document summarizes a research paper on the design and implementation of a vehicle tracking system using GPS. The system uses an in-vehicle unit with sensors and a GPS receiver to track the location of the vehicle. The location data is transmitted to a remote tracking server using GSM/GPRS. The tracking server stores the location information in a database and makes it available online to authorized users. The system is intended to provide vehicle security features like anti-theft tracking and monitoring of door open/close status. The paper describes the hardware and software design of both the in-vehicle unit and tracking server.
In this project we are going to make an embedded system which will help to provide protection against theft. This system will send the data to the user who want to track the vehicle showing the using position of vehicle in terms of latitude and longitude. Most of the people know that GPS is more secure but they don’t apply because it is expensive. This design is needed for the real time location of the vehicle. It changes the microcontroller P89V51RD2 interfaces with various hardware peripheries this uncontrolled interfaces serially with GSM modem and GPS receiver.
Accident messaging system using GPS,GSM and MEMSJithin Prasad
This project aims to develop an accident messaging system using a MEMS sensor to detect vibrations during accidents, a GPS module to determine location, and a GSM modem to send messages with location to emergency contacts. It is composed of a PIC microcontroller interfaced with MEMS, GPS, and GSM modules. When an accident is detected by the MEMS sensor, the system will use the GPS module to get location coordinates and send an SMS message with location via the GSM modem to alert contacts and enable emergency response.
Here we are making a project which just traces our vehicle location, in terms of its precise latitude and longitude and then send it to a mobile number (as per our requirement). This project consists of three main devices which are :- (i) Arduino UNO, (ii) GPS module (Neo-6M), & (iii) GSM- 900A.These all three devices will be going to be installed in the vehicle to which we want to trace. Initially what happened that we make a program in arduino (in C language) regarding interfacing the GSM device and GPS device. And we also set a mobile number in the program as per our need, on which we get the info regarding its (vehicle’s) location. First of all we make a call to the mobile number which has been installed in the GSM module and then after some specific delay (as per mentioned in the program) we get a sms regarding the exact latitude and longitude of the vehicle. It is done in a way that GPS device is continuously receiving the location of the vehicle from the satellite and then transferring to the arduino board, from where we send it to the required mobile no. And hence in this way we can easily get info regarding the exact location of the vehicle. Once the message has been sent to the predefined mobile no. the GSM gets deactivated and the GPS gets activated. Thus we can easily trace our vehicle. Vehicle Tracking System (VTS) is the technology used to determine the location of a vehicle using different methods like GPS and other radio navigation systems operating through satellites and ground based stations. This system is an important tool for tracking each vehicle at a given period of time and now it is becoming increasingly popular for people having expensive cars and hence as theft prevention and retrieval device.
The main goal of this presentation is how to do research in particular field of engineering. For an example this presentation describes design of Vehicle tracking and monitoring system. So how to do research in particular field by referring standard IEEE papers is described in this presentation.
GPS based Advanced Vehicle Tracking and Vehicle Control SystemMashood Mukhtar
Security systems and navigators have always been a
necessity of human‟s life. The developments of advanced
electronics have brought revolutionary changes in these fields. In this paper, we will present a vehicle tracking system that employs a GPS module and a GSM modem to find the location of a vehicle and offers a range of control features. To complete the design successfully, a GPS unit, two relays, a GSM Modem and two MCU units are used. There are five features introduced in the project. The aim of this project is to remotely track a vehicle‟s location, remotely switch ON and OFF the vehicle‟s ignition system and remotely lock and unlock the doors of the vehicle. An SMS message is sent to the tracking system and the system responds to the users request by performing appropriate actions. Short text messages are assigned to each of these features. A webpage is specifically designed to view the vehicle‟s location on Google maps. By using relay based control concept introduced in this paper, number of control features
such as turning heater on/off, radio on/off etc. can be
implemented in the same fashion.
Response time analysis of mixed messages in CANIJERA Editor
This document discusses response time analysis of mixed messages on the Controller Area Network (CAN) protocol. CAN is commonly used in vehicle systems to allow efficient communication between electronic control units. The document presents the development of a digital driving system for a semi-autonomous vehicle using CAN and sensors to improve safety. It details the hardware components used, including a PIC microcontroller, CAN bus, LCD display, GSM module, and sensors to monitor things like temperature, distance to other vehicles, alcohol levels, and detect accidents. Experimental results showed the system could successfully collect sensor data and transmit messages over CAN to control actuators like the AC and headlights.
This document provides information about a vehicle tracking system project developed by students using ARM7 microcontroller, GPS and GSM modules. The system tracks vehicle location using GPS and sends it via GSM to a monitoring station. Key components include a GPS module to get location, GSM modem to send data, ARM7 microcontroller to process data, and MAX232 for logic level conversion during serial communication. The location is also displayed on an LCD. The system was tested and able to retrieve vehicle position from GPS and send it via GSM. Future work includes reducing costs and adding features like speed tracking, fuel monitoring and group tracking.
Design and development of gps-gsm based Tracking system with google map based...IJCSEA Journal
This document describes a GPS-GSM based vehicle tracking system that monitors vehicle location using GPS and sends location data via GSM to a web application. The system hardware includes a GPS module, GSM module, microcontroller and other components. It takes location readings from GPS and sends them via GSM to a server hosting a web application displaying the vehicle's position on a map. The web application allows tracking the vehicle in real-time from any location. The system provides low-cost vehicle monitoring and security against theft.
vehicle traking based on GSM/GPS using 8051Sagar Parmar
This document is a synopsis for a student project on a GSM/GPS-based vehicle tracking system. It includes an abstract describing the system components like an AT89C2051 microcontroller, LCD display, RS-232 interface, GPS and GSM modems. The system uses the GPS modem to get location coordinates and sends them via GSM modem as SMS messages containing a Google Maps link to track the vehicle's location. It was submitted by three students for their Bachelor's degree and approved by examiners and their guide.
ACCIDENT DETECTION AND VEHICLE TRACKING USING GPS,GSM AND MEMSKrishna Moparthi
This document describes a vehicle accident detection and tracking system using GPS, GSM, and MEMS sensors. The system detects accidents using a MEMS sensor and then uses GPS to determine the vehicle's location. The location is sent via GSM to emergency services and authorized contacts to provide rapid response. The system aims to quickly locate accident sites and notify help in remote areas with limited communication infrastructure.
you can be friend with me on orkut
"mangalforyou@gmail.com" : i belive in sharing the knowledge so please send project reports ,seminar and ppt. to me .
Density Based Traffic Lightcontrol System using Raspberry Piijtsrd
In present days, vehicular traffic is increasing throughout the world, especially in urban areas. As the number of road users increase constantly a smart traffic control will become a very important issue in the future. Congestion in traffic is becoming a serious issue. Many vehicles are waiting at the signal for a long time due to this the time consumption is more for the human and there is a lot of problem for the people who go to their work and some to the business works. In existing system the traffic control is not according to the density, and is not reducing the effect of traffic in urban areas. The traffic signals are prepared previously fixed for some time only after that time the signal will be changed to another signal. This makes the other side roads delay for long time. In some places traffic lights did not work properly. In the proposed system by using the image processing along with the raspberry pi, the vehicle count is measured and accordingly the traffic will be reduced. Emergency vehicles like ambulance and fire are easily allowed from the traffic by using the RF transmitter and receiver. Ambulance like vehicles send the signal to the receiver and make the green signal to glow on that road. This makes the safety of the people in the ambulance and this will be applicable to fire vehicles also. IR sensors are used to avoid the crossings of the road when the red light is on. Traffic updates are monitored with help of density based traffic control system. The hardware components used in the project are raspberry pi and modules like camera, IR sensor, RF transmitter and receiver and actuator. These modules are interfaced to raspberry pi to control the traffic and maintain the output to be accurate. Software implementation is done by image processing technique back ground subtraction method. The programming language used for implementing is python language. By using this software and hardware components the implementation is done by using VNC viewer application. The program is previously dumped in the application and the module will run according to the program. Y. Himanth | B. V. Pavan Kumar | M. Lalitha Bhavani ""Density Based Traffic Lightcontrol System using Raspberry Pi"" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-3 | Issue-3 , April 2019, URL: https://www.ijtsrd.com/papers/ijtsrd23293.pdf
Paper URL: https://www.ijtsrd.com/other-scientific-research-area/other/23293/density-based-traffic-lightcontrol-system-using-raspberry-pi/y-himanth
This document provides an introduction to EDGE (Enhanced Data rates for Global Evolution), a mobile telecommunications standard that improves data transmission rates on top of existing GSM networks. It describes the benefits of EDGE for network operators and end users, including increased capacity and data rates. It also outlines the different phases of EDGE development and services, modulation schemes, and evolution beyond initial EDGE specifications to support higher data speeds, voice and data capacity.
Design of intelligent traffic light controller using gsm & embedded systemYakkali Kiran
This document describes the design of an intelligent traffic light controller using an embedded system. The proposed system aims to make traffic light control more efficient by using sensor networks and embedded technology to dynamically determine light timings based on real-time traffic conditions. This allows the system to optimize traffic flow and reduce congestion compared to traditional fixed-time controllers. Key features include emergency vehicle detection and providing traffic information to drivers via GSM. The performance of the intelligent controller is evaluated against a conventional fixed-time controller based on metrics like waiting time, vehicle travel distance, and efficient emergency response.
This document is a project report on a vehicle tracking system using GSM, GPS and an ARM7 microcontroller. It consists of an introduction describing typical vehicle tracking systems and their components. It then discusses the hardware components involved including the GPS, GSM and ARM7 microcontroller. It also covers the working principles of these hardware components and interfaces such as RS232. The document outlines the overall working of the vehicle tracking system, software used for programming the microcontroller, and applications of such a system.
The paper describe a practical model for routing and tracking of mobile vehicles in a large area outdoor environment based on the Global positioning system (GPS) and Global system for mobile communication (GSM). The supporting device GPS continuously move with the car and will calculate the co-ordinates of each position and when required by the owner it can be communicated with the help of GSM modem which is installed in both Transmitter and receiver section. GSM modem is controlled by a 32 bit ARM7 LPC2148. The device will collect position to supervised center by the SMS (Short Message Service) or GPRS (General Package radio service) and which can be located in the Google Earth and so the current position of the car can be known.
IoT BASED VEHICLE TRACKING AND TRAFFIC SURVIELLENCE SYSTEMjohn solomon j
ii
ABSTRACT GPS is one of the technologies that are used in a huge number of applications today. One of the applications is tracking your vehicle and keeps regular monitoring on them. This tracking system can inform you the location and route travelled by vehicle, and that information can be observed from any other remote location. It also includes the web application that provides you exact location of target and the exact speed the vehicle is moving which is used to generate bills for over speeding automatically. This system enables us to track target in any weather conditions. This system uses GPS and Zigbee technologies. This includes the hardware part which comprises of GPS, Zigbee, ATmega microcontroller and software part is used for interfacing all the required modules and a web application is also developed at the client side and visualize data from IoT. Main objective is to design a system that can be easily installed and to provide platform for further enhancement. KEYWORDS GPS, ZigBee, Tracking System, IoT
iii
IRJET- Virtual Eye for Blind- A Multi Functionality Interactive Aid using PiIRJET Journal
This document describes a proposed system called Virtual Eye for Blind (VEB) that uses various sensors and a Raspberry Pi to help blind individuals navigate and perceive their surroundings. The key components of VEB include an IR camera to detect ditches, a GPS module for navigation, and a radar system to identify moving objects like vehicles. The Raspberry Pi processes input from these sensors and provides audio directions and alerts to the user via a Bluetooth headset. The goals of the system are to enable easy movement between locations, alert users about hazards, and inform them about approaching dangers to allow for an appropriate response. The system is still in development stages and faces challenges regarding GPS accuracy and power consumption of the radar system.
Our domain expertise has enabled us to come up with an excellent assortment of GPS GSM Vehicle Tracking System.Waterproof GPS/GSM vehicle tracker,Waterproof housing (IP67), Large Flash memory (16MB!).
GPRS, EDGE, 3G and IMS technologies were presented. GPRS provided peak data rates of 115 Kbps using 200 KHz carriers. EDGE improved rates up to 384 Kbps using 8-PSK modulation and higher symbol rates. 3G systems like UMTS provided rates of 2 Mbps using 5 MHz carriers and new spectrum. IMS was also introduced as an important component of 3G networks for supporting multimedia services. The presentation covered network architectures, protocols and key technologies behind these mobile data standards.
Real Time Vehicle Monitoring Using Raspberry Pi Albin George
An advanced vehicle monitoring and tracking system based on Embedded Linux Board and android application is designed and implemented for monitoring the school vehicle from any location A to location B at real time. The proposed system would make good use of new technology that based on Embedded Linux board namely Raspberry Pi and Smartphone android application. The proposed system works on GPS/GPRS/GSM SIM900A Module which includes all the three things namely GPS GPRS GSM. The GPS current location of the vehicle; GPRS sends the tracking information to the server and the GSM is used for sending alert message to vehicle’s owner mobile. The proposed system would place inside the vehicle whose position is to be determined on the web page and monitored at real time. In the proposed system, there is comparison between the current vehicle path and already specified path into the file system of raspberry pi. Here in the proposed system the already specified path inside the raspberry pi’s file system taken from vehicle owner’s android smartphone using android application. Means the selection of path from location A to B takes place from vehicle owner’s android application which gives more safety and secures traveling to the traveler. Hence the driver drives the vehicle only on the vehicle owner’s specified path. If the driver drives the vehicle on the wrong path then the alert message will be sent from the proposed system to the vehicle’s owner mobile and also speakers alert driven using Raspberry pi’s audio jack. If the vehicle’s speed goes beyond the specified value of the speed, then also the warning message will be sent from system to the owner mobile. The proposed system also took care of the traveler’s safety by using LPG Gas leakage sensor MQ6 and temperature sensor DS18B20.
This project presents a vehicle tracking system that uses a GPS module and GSM modem to track vehicle location via text messages. The system includes a microcontroller that receives location coordinates from the GPS module and sends this information via SMS to authorized users. It provides real-time vehicle tracking and can send alerts in emergencies. Potential applications include fleet management, theft protection, and monitoring school buses or rental vehicles. The presentation outlines the key components, working principle, and a demonstration of tracking a vehicle location on an online map using longitude and latitude coordinates from an SMS.
This paper proposes an automatic railway crack locator system that uses infrared (IR) and ultrasonic sensors to detect cracks in railway tracks. The system is intended to improve railway safety by automatically detecting defects in tracks and sending the location information to maintenance crews via GSM. Key components of the system include an Arduino microcontroller, IR and ultrasonic sensors to detect cracks and measure distances, a GSM module to communicate crack locations, and a GPS module to provide precise location of cracks.
Anti-Theft Protection of Vehicle by GSM & GPS with Fingerprint VerificationIJAEMSJORNAL
This paper focuses on preventing car theft using microcontrollers and GSM modules. We are generating the results with better accuracy and proficiency. It can be helpful to those people who want better and more advanced security in their vehicle.
This document is a seminar report on an Automatic Vehicle Locator system submitted by Rohit Kumar Patel to partial fulfillment of a Bachelor of Technology degree. The report introduces the motivation for an automatic vehicle locator and provides an overview of the project, which involves a remote object like a vehicle equipped with a GPS receiver and communication devices, and a monitoring station that can receive location data and display it. The report describes the implementation of the system using GPS for location, GSM for communication, and an LCD display for output at the monitoring station. It also covers the GSM receiver and GPS system components used.
The main goal of this presentation is how to do research in particular field of engineering. For an example this presentation describes design of Vehicle tracking and monitoring system. So how to do research in particular field by referring standard IEEE papers is described in this presentation.
GPS based Advanced Vehicle Tracking and Vehicle Control SystemMashood Mukhtar
Security systems and navigators have always been a
necessity of human‟s life. The developments of advanced
electronics have brought revolutionary changes in these fields. In this paper, we will present a vehicle tracking system that employs a GPS module and a GSM modem to find the location of a vehicle and offers a range of control features. To complete the design successfully, a GPS unit, two relays, a GSM Modem and two MCU units are used. There are five features introduced in the project. The aim of this project is to remotely track a vehicle‟s location, remotely switch ON and OFF the vehicle‟s ignition system and remotely lock and unlock the doors of the vehicle. An SMS message is sent to the tracking system and the system responds to the users request by performing appropriate actions. Short text messages are assigned to each of these features. A webpage is specifically designed to view the vehicle‟s location on Google maps. By using relay based control concept introduced in this paper, number of control features
such as turning heater on/off, radio on/off etc. can be
implemented in the same fashion.
Response time analysis of mixed messages in CANIJERA Editor
This document discusses response time analysis of mixed messages on the Controller Area Network (CAN) protocol. CAN is commonly used in vehicle systems to allow efficient communication between electronic control units. The document presents the development of a digital driving system for a semi-autonomous vehicle using CAN and sensors to improve safety. It details the hardware components used, including a PIC microcontroller, CAN bus, LCD display, GSM module, and sensors to monitor things like temperature, distance to other vehicles, alcohol levels, and detect accidents. Experimental results showed the system could successfully collect sensor data and transmit messages over CAN to control actuators like the AC and headlights.
This document provides information about a vehicle tracking system project developed by students using ARM7 microcontroller, GPS and GSM modules. The system tracks vehicle location using GPS and sends it via GSM to a monitoring station. Key components include a GPS module to get location, GSM modem to send data, ARM7 microcontroller to process data, and MAX232 for logic level conversion during serial communication. The location is also displayed on an LCD. The system was tested and able to retrieve vehicle position from GPS and send it via GSM. Future work includes reducing costs and adding features like speed tracking, fuel monitoring and group tracking.
Design and development of gps-gsm based Tracking system with google map based...IJCSEA Journal
This document describes a GPS-GSM based vehicle tracking system that monitors vehicle location using GPS and sends location data via GSM to a web application. The system hardware includes a GPS module, GSM module, microcontroller and other components. It takes location readings from GPS and sends them via GSM to a server hosting a web application displaying the vehicle's position on a map. The web application allows tracking the vehicle in real-time from any location. The system provides low-cost vehicle monitoring and security against theft.
vehicle traking based on GSM/GPS using 8051Sagar Parmar
This document is a synopsis for a student project on a GSM/GPS-based vehicle tracking system. It includes an abstract describing the system components like an AT89C2051 microcontroller, LCD display, RS-232 interface, GPS and GSM modems. The system uses the GPS modem to get location coordinates and sends them via GSM modem as SMS messages containing a Google Maps link to track the vehicle's location. It was submitted by three students for their Bachelor's degree and approved by examiners and their guide.
ACCIDENT DETECTION AND VEHICLE TRACKING USING GPS,GSM AND MEMSKrishna Moparthi
This document describes a vehicle accident detection and tracking system using GPS, GSM, and MEMS sensors. The system detects accidents using a MEMS sensor and then uses GPS to determine the vehicle's location. The location is sent via GSM to emergency services and authorized contacts to provide rapid response. The system aims to quickly locate accident sites and notify help in remote areas with limited communication infrastructure.
you can be friend with me on orkut
"mangalforyou@gmail.com" : i belive in sharing the knowledge so please send project reports ,seminar and ppt. to me .
Density Based Traffic Lightcontrol System using Raspberry Piijtsrd
In present days, vehicular traffic is increasing throughout the world, especially in urban areas. As the number of road users increase constantly a smart traffic control will become a very important issue in the future. Congestion in traffic is becoming a serious issue. Many vehicles are waiting at the signal for a long time due to this the time consumption is more for the human and there is a lot of problem for the people who go to their work and some to the business works. In existing system the traffic control is not according to the density, and is not reducing the effect of traffic in urban areas. The traffic signals are prepared previously fixed for some time only after that time the signal will be changed to another signal. This makes the other side roads delay for long time. In some places traffic lights did not work properly. In the proposed system by using the image processing along with the raspberry pi, the vehicle count is measured and accordingly the traffic will be reduced. Emergency vehicles like ambulance and fire are easily allowed from the traffic by using the RF transmitter and receiver. Ambulance like vehicles send the signal to the receiver and make the green signal to glow on that road. This makes the safety of the people in the ambulance and this will be applicable to fire vehicles also. IR sensors are used to avoid the crossings of the road when the red light is on. Traffic updates are monitored with help of density based traffic control system. The hardware components used in the project are raspberry pi and modules like camera, IR sensor, RF transmitter and receiver and actuator. These modules are interfaced to raspberry pi to control the traffic and maintain the output to be accurate. Software implementation is done by image processing technique back ground subtraction method. The programming language used for implementing is python language. By using this software and hardware components the implementation is done by using VNC viewer application. The program is previously dumped in the application and the module will run according to the program. Y. Himanth | B. V. Pavan Kumar | M. Lalitha Bhavani ""Density Based Traffic Lightcontrol System using Raspberry Pi"" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-3 | Issue-3 , April 2019, URL: https://www.ijtsrd.com/papers/ijtsrd23293.pdf
Paper URL: https://www.ijtsrd.com/other-scientific-research-area/other/23293/density-based-traffic-lightcontrol-system-using-raspberry-pi/y-himanth
This document provides an introduction to EDGE (Enhanced Data rates for Global Evolution), a mobile telecommunications standard that improves data transmission rates on top of existing GSM networks. It describes the benefits of EDGE for network operators and end users, including increased capacity and data rates. It also outlines the different phases of EDGE development and services, modulation schemes, and evolution beyond initial EDGE specifications to support higher data speeds, voice and data capacity.
Design of intelligent traffic light controller using gsm & embedded systemYakkali Kiran
This document describes the design of an intelligent traffic light controller using an embedded system. The proposed system aims to make traffic light control more efficient by using sensor networks and embedded technology to dynamically determine light timings based on real-time traffic conditions. This allows the system to optimize traffic flow and reduce congestion compared to traditional fixed-time controllers. Key features include emergency vehicle detection and providing traffic information to drivers via GSM. The performance of the intelligent controller is evaluated against a conventional fixed-time controller based on metrics like waiting time, vehicle travel distance, and efficient emergency response.
This document is a project report on a vehicle tracking system using GSM, GPS and an ARM7 microcontroller. It consists of an introduction describing typical vehicle tracking systems and their components. It then discusses the hardware components involved including the GPS, GSM and ARM7 microcontroller. It also covers the working principles of these hardware components and interfaces such as RS232. The document outlines the overall working of the vehicle tracking system, software used for programming the microcontroller, and applications of such a system.
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IoT BASED VEHICLE TRACKING AND TRAFFIC SURVIELLENCE SYSTEMjohn solomon j
ii
ABSTRACT GPS is one of the technologies that are used in a huge number of applications today. One of the applications is tracking your vehicle and keeps regular monitoring on them. This tracking system can inform you the location and route travelled by vehicle, and that information can be observed from any other remote location. It also includes the web application that provides you exact location of target and the exact speed the vehicle is moving which is used to generate bills for over speeding automatically. This system enables us to track target in any weather conditions. This system uses GPS and Zigbee technologies. This includes the hardware part which comprises of GPS, Zigbee, ATmega microcontroller and software part is used for interfacing all the required modules and a web application is also developed at the client side and visualize data from IoT. Main objective is to design a system that can be easily installed and to provide platform for further enhancement. KEYWORDS GPS, ZigBee, Tracking System, IoT
iii
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Our domain expertise has enabled us to come up with an excellent assortment of GPS GSM Vehicle Tracking System.Waterproof GPS/GSM vehicle tracker,Waterproof housing (IP67), Large Flash memory (16MB!).
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Anti-Theft Protection of Vehicle by GSM & GPS with Fingerprint VerificationIJAEMSJORNAL
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This document is a seminar report on an Automatic Vehicle Locator system submitted by Rohit Kumar Patel to partial fulfillment of a Bachelor of Technology degree. The report introduces the motivation for an automatic vehicle locator and provides an overview of the project, which involves a remote object like a vehicle equipped with a GPS receiver and communication devices, and a monitoring station that can receive location data and display it. The report describes the implementation of the system using GPS for location, GSM for communication, and an LCD display for output at the monitoring station. It also covers the GSM receiver and GPS system components used.
This document describes the design of a GPRS-based ARM embedded web server system for remote monitoring and data acquisition. The system uses sensors connected to an ARM processor to collect data like temperature, humidity, etc. and stores it in a database. It then implements an embedded web server using the ARM processor to allow remote access to the sensor data through any web browser via a GPRS connection. This provides a low-cost solution for remote monitoring of industrial machines, household devices, and other systems without requiring a general-purpose computer server. The system was implemented using an ARM7 processor, GPRS modem for internet connectivity, and embedded C programming to read sensors and serve web pages with the collected data.
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This document describes a vehicle theft control system that uses GPS and GSM technologies. The system continuously tracks the location of a vehicle using a GPS modem and sends status updates via GSM. If theft is detected, the system sends an SMS alert with the vehicle's coordinates and disables the ignition. The owner can then send a password by SMS to restart the ignition and unlock doors remotely. The system aims to provide secure, reliable and low-cost vehicle tracking and theft prevention.
Design and implementation of vehicle tracking system using gpsAlexander Decker
This document describes the design and implementation of a vehicle tracking system using GPS. The system uses an in-vehicle unit with sensors and a GPS receiver to determine the vehicle's location, and a GSM/GPRS modem to transmit the location data via SMS or TCP/IP to a remote tracking server. The tracking server stores the location information in a database and makes it available through a web interface to authorized users. The system is intended to help curb vehicle theft by allowing owners to track a stolen vehicle and alert authorities.
A PROPOSED MODEL FOR TRAFFIC SIGNAL PREEMPTION USING GLOBAL POSITIONING SYSTE...csandit
This document proposes a model for traffic signal preemption using GPS to assist emergency vehicles. The model uses an Android app on emergency vehicles to transmit GPS coordinates to a central web server. An Arduino microcontroller with Ethernet shield installed at each intersection receives preemption commands from the server to change traffic signals accordingly, helping emergency vehicles pass through intersections more quickly. The proposed system offers advantages over existing acoustic, line-of-sight, and radio-based systems in terms of cost, accuracy, and security against illegal preemption triggering.
A proposed model for traffic signal preemption using global positioning syste...csandit
A Traffic Signal Preemption system is an automated system that allows normal operation of
traffic lights at automated signalized intersections to be preempted. Preemption of signals is
generally done to assist emergency vehicles, such as ambulances, so that response times are
reduced and right-of-way is provided in a smooth and controlled manner. This paper proposes
an innovative and cost-effective server-centric model to facilitate preemption using a simple
mobile phone app which uses Global Positioning System (GPS) and a microcontroller which
controls traffic signals.
A PROPOSED MODEL FOR TRAFFIC SIGNAL PREEMPTION USING GLOBAL POSITIONING SYSTE...cscpconf
A Traffic Signal Preemption system is an automated system that allows normal operation of traffic lights at automated signalized intersections to be preempted. Preemption of signals is
generally done to assist emergency vehicles, such as ambulances, so that response times are reduced and right-of-way is provided in a smooth and controlled manner. This paper proposes an innovative and cost-effective server-centric model to facilitate preemption using a simple mobile phone app which uses Global Positioning System (GPS) and a microcontroller which controls traffic signals.
IRJET- IoT based School Bus Tracking SystemIRJET Journal
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Intelligent Car System for Accident PreventionIRJET Journal
This document describes a system to help prevent car accidents by detecting driver fatigue and controlling the vehicle's speed. The system uses several sensors like ultrasonic sensors, RFID, and GPS/GSM modules. It can detect obstacles using ultrasonic sensors and automatically apply the brakes. It also monitors the driver for signs of fatigue and controls the speed of the vehicle accordingly to help avoid accidents. The system aims to make driving safer by helping drivers maintain awareness and control of the vehicle.
This document outlines the development of a wireless notice board system. The system aims to allow users to send messages from a website or mobile app that will be displayed on an electronic notice board. The notice board will receive messages via a GSM modem connected to a microcontroller. The document describes the problem, software requirements like an Android app for sending messages, hardware requirements including an Android device, and database design. It provides an overview of the existing manual system and proposed wireless system, and constraints for the software and databases.
This document outlines an embedded system project to monitor vehicular movement in mining sites in real-time. It proposes using a vehicle module containing an Arduino, GPS, and GSM modem to track vehicle location and transmit data via GSM. A switchover module would enable communication between short-range radio and GSM based on location. Work completed includes developing the vehicle and switchover modules along with control room software. Future work involves PCB design and adding additional features. Diagrams show the system design and layouts are included along with results from testing the GSM module and sample web interfaces.
GPS Based Vehicle Location using ARM 7 LPC 2148IRJET Journal
This document describes a vehicle tracking system using an ARM7 microcontroller, GPS, and GSM modules. The system tracks a vehicle's location using GPS and sends the latitude and longitude information via SMS messages using the GSM module. When an accident is detected by an accelerometer sensor, the exact location is obtained from the GPS and sent via GSM to emergency contacts along with time and date to minimize response times. The system provides low-cost vehicle security and location tracking anywhere in the world using GPS and GSM technologies.
This project is about tracking system that tracks vehicle using gps and gsm/gprs. Also, it displays information for user interface using web and mobile application.Beside that it displays information on lcd as a form of public notice board too.
This document describes a bus tracking system that uses GPS and GSM modules to track the location of buses in real-time and provide that information to users. The system hardware installed on buses uses a GPS module to detect location and a GSM module to send the location data to the cloud. An Android mobile app then allows users to view buses' current locations on a map. The system aims to address issues with public transportation systems like not knowing arrival times or available seats. It provides real-time bus tracking to improve the user experience.
TCP/IP Protocol Based Adaptive Cruise Control using Raspberry PiIRJET Journal
This document describes a proposed system for adaptive cruise control using sensors and two Raspberry Pi boards connected via TCP/IP protocol. The system consists of a slave Raspberry Pi board that detects various vehicle and road parameters using sensors like ultrasonic sensors for distance, humidity sensors for weather, accelerometers for slope detection, etc. The slave board sends the sensor data to a master Raspberry Pi board over TCP/IP. The master board controls the speed of a DC motor based on whether the sensor values are within predefined thresholds. If values exceed thresholds, the motor speed is adjusted. The system aims to automatically control vehicle speed based on road and traffic conditions to improve safety.
IRJET- Intelligent Car Parking System commanded by Android ApplicationIRJET Journal
This document proposes an intelligent car parking system using a Raspberry Pi, QR codes, and an Android application. The system aims to automate the parking and unparking of cars to reduce human intervention and the time required for finding empty slots. Users can check parking availability in real-time using the mobile app and reserve slots. Infrared sensors connected to the Raspberry Pi detect occupied/empty slots, and the information is periodically updated to the server database and mobile app. The system is designed to provide more efficient parking operations and enhance the user experience.
Re-SPark: Reservation based Smart Parking system using FRDM KL-25ZIRJET Journal
The document describes a prototype of a smart parking system called Re-SPark that uses a sensor network and mobile application to allow users to reserve parking spots in advance. The system detects the occupancy status of individual parking spots using infrared sensors and transmits the data to a database via a wireless module. Users can then access the real-time parking availability data through a mobile app or website to reserve vacant spots. The prototype implementation consists of hardware with IR sensors connected to a microcontroller board and Wi-Fi module, as well as an Android app to allow users to reserve spots and receive confirmation through QR codes.
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Development of Internet of Things based Decision Support for Vehicle Drivers by using GPS and GSM
1. Abstract— This article explains about development of Internet
of Things (IoT) based decision support for vehicle drivers
using GPS and GSM modules. This project is helpful to avoid
the road accidents by maintaining the proper speed limit at
different locations such as school zones, hospital regions and
so on. Initially an admin database is created with a web server.
The data base contains six parts such as S.No, longitude1,
latitude1, longitude2, latitude2, speed limit. The web server
has been implemented with a PHP page which provides a
connection to the databases allowing web clients to send
queries to data base. A PC application is distributed among
local guides; they can provide speed limits of the allocated
regions. A GPS receiver is used to provide the vehicle’s
location and a GSM module is configured as GPRS to provide
internet connection through mobile data. An Organic Light
Emitting Diode (OLED) is used to display the speed limit of
the vehicle’s location. Arduino UNO (At mega 328P) board is
used to interface all the components. The instructions to the
vehicle drivers are given by using OLED display when the
location is tracked by GPRS, and also an alarm sounds at
extreme conditions.
Keywords: Adaptation, Cloud, GPS, GSM, IoT, OLED.
I. INTRODUCTION
In present days accidents and enforcement of traffic rules are
becoming major considerations in our modern world. Various
safety measures such as wearing helmet while driving motor
cycles, fastening seat belts while driving cars are being
enforced strictly. Keeping many other factors in check, a
major factor to be considered regarding safety is speed. To
provide a limit to the vehicle’s speed, the implementation in
place up until today are caution signs and speed breakers. This
thesis provides another solution. By providing a better
solution. Inspired by the speed limits provided to vehicles,
here we suggest that a speed limit be kept in place, where the
limit varies in accordance with vehicle’s speed.
In the implementation of the different methods many people
implemented in many ways. Some are used ARM processors,
some used wireless technologies and some are done by the
GPS module and adaption techniques and frequency modules.
Every implementation has their own advantages and
disadvantages like these are also having some disadvantages.
[1] and [2] deals with the global positioning System with
embedded wireless system. The main operation of this
method is that operate vehicles at critical zones. The total
implementation is performed based on ARM processor which
will be at receiver side that is in the vehicle. Paper [3] deals
with the adaptation technique. In this 2 levels of horns are
fixed according to the speed limits minimum and maximum.
Hence normal horn at audible level is he one and if the speed
is exceeded than the maximum then high level horn is ON.
So, the driver will limit the speed accordingly. The whole
proposal of this thesis is based on a database consisting speed
limits for all the geographical co-ordinates, and internet
connection. The speed limits present in the database are
entered based on the road conditions and the location. The
database does not only return the speed limit of the vehicle’s
location but also the range of locations in which the speed
limit is applicable. This reduces the burden of the server to
repeatedly answer the quires of all the vehicles.
To implement this approach, we require a database server, a
web server, a PC application, GPS module, UNO board
provided by Arduino, GSM module, OLED. This helps drivers
to maintain their speed so that it would be easy to adapt
according to their location. Many might argue that having an
intelligent circuitry such as this in the vehicle will ruin the
driving experience. If you are maintaining a speed which isn’t
dangerous, the presence of this intelligent circuitry does not
affect driver’s experience in any way. If this can be
implemented in every vehicle present on the roads the fatal or
serious accidents happening can be drastically reduced,
resulting in a much safer driving experience.
Section II of this paper deals with materials and methods
explained about block diagram, web application and the
modules used. Section III explains about experimental
investigation and software’s used. Section IV of this article
discusses about the experimental results. Section V concludes
the project.
II. IMPLEMENTATION OF DECISION SUPPORT OF VEHICLE
DRIVERS BY GPS AND GSM
Fig.1. Block diagram of decision support for vehicle
drivers
Development of Internet of Things based Decision
Support for Vehicle Drivers by using GPS and GSM
A. Kalyani$
, N. Dharma Reddy$
, G. Deva Prakash$
, M. Tanmai$
, Venkata Ratnam Kolluru*
$
B.Tech student, Department of Electronics & Communication Engg, K L E F, Vaddeswaram, AP, India,
*Associate Professor, Department of Electronics & Computer Science Engg, K L E F, Vaddeswaram, AP, India
kalyaniadhunuri17@gmail.com
International Journal of Computer Science and Information Security (IJCSIS),
Vol. 16, No. 2, February 2018
117 https://sites.google.com/site/ijcsis/
ISSN 1947-5500
2. A. EXPLANATION ABOUT THE CIRCUIT DIAGRAM:
In the above block diagram, we have three main parts Admin
part, where various servers are developed using a cloud
platform. This includes the database server and web server. A
PC application is distributed among few people known as
local guides who conduct surveys on various geographical
regions and provide speed limits to those regions. This PC
application allows local guides to insert rows into the
database. To provide security to database entries, these local
guides should be first authorized by the admin and IP
addresses of their network should be allowed to pass through
the firewall of the database by the admin.The user part, where
the database is accessed through a web site by making use of
network connection provided by GSM module. The request is
made to the website by forming a URL string that is
concatenated with the co-ordinates provided by GPS receiver.
We use OLED to display the speed limit to the vehicle drivers.
B. GPS MODULE
In this implementation we used GPS SIM28ML module. It is
a standalone GPS receiver which has very good low power
characteristics.
Fig.2. GPS Receiver for tracking the location and latitude
values
We use UART communication to retrieve longitudes and
latitudes from GPS receiver to any microprocessor for further
processing. The output of the GPS receiver is in the format of
NMEA data. An example of such data is
$GPRMC, 235316.000, A, 4003.9040, N,
10512.5792, W, 0.09, 144.75, 141112, *19
$GPGGA, 235317.000, 4003.9039, N, 10512.5793, W, 1, 08,
1.6, 1577.9, M, -20.7, M, 0000*5F
$GPGSA, A, 3, 22, 18, 21, 06, 03, 09, 24, 15, , , , 2.5, 1.6,
1.9*3E
C. GSM MODULE
In this implementation we used GSM SIM900A module. This
module can be used for various purposes such as messaging,
calling and data connection. We reconfigure the GSM module
as GPRS module to connect with mobile data.
Fig.3. Photo graph of GSM SIM900A Module
This module requires a SIM to function. AT commands to
configure GSM as GPRS module is "AT+SAPBR=3, 1,
"CONTYPE", "GPRS"".
D. ARDUINO UNO
UNO board is a platform powered by ATmega328P processor.
It has 14 digital output/ input pins. This board can be powered
through USB ports of computers or a 9v battery. It consists of
a single hardware serial port but can be configured to contain
multiple software serial ports. We make use of this board to
interface GPS module, GSM module and OLED. We acquire
the longitudes and latitudes from the GPS module. We form a
string that consists, URL to the webpage hosted on the cloud
concatenated with the data received from the GPS. By making
use of GSM module we form a http client and acquire data
from the website. This data will be displayed on OLED.
Fig.4. Arduino UNO for interfacing of GPS and GSM
E. OLED
Organic light emitting diode(OLED) is used in this approach
to display the corresponding speed limit of the vehicle
location. This data is given to the OLED by Arduino UNO
through I2C communication.
International Journal of Computer Science and Information Security (IJCSIS),
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3. Fig.5. OLED for displaying the output
OLED is a light emitting technology, prepared by the inserting
of series of organic thin films between two conductors. When
the electrical current is practical, a bright light is emitted.
OLEDs have emissive display, which does not need a
backlight so these are very thin and more efficient than LCD
display. This is the single component of the entire circuit on
the user’s end that is visible to the user. It acts as front end of
the entire circuit.
III. EXPERIMENTAL INVESTIGATIONS
This implementation requires an admin operating database and
web servers and all the permissions to access them. The
database contains six columns which are S.No, longitude1,
latitude1, longitude2, latitude2, speed limit. The web server
contains a PHP page which provides a connection to the
databases allowing web clients to send queries to data base.
A PC application is distributed among few people known as
local guides who conduct surveys on various geographical
regions and provide speed limits to those regions. This PC
application allows local guides to insert rows into the
database. In order to provide security to database entries, these
local guides should be first authorized by the admin and IP
addresses of their network should be allowed to pass through
the firewall of the database by the admin.
The users to which all this setup is intended for must have the
following setup embedded into their vehicles. A GPS receiver
to provide the vehicle’s location, a GSM module configured as
GPRS to provide internet connection through mobile data, an
OLED to display the speed limit of the vehicle’s location and
a UNO board to interface all these components with each
other. The individual descriptions of all the modules in the
project are given below.
A. MICROSOFT AZURE
Microsoft AZURE is a cloud platform that provides a platform
and an interface to create all the servers required and host
them. We used the services provided by AZURE to create and
host a database server and a web server. The process of
creating a database server is as follows.
Login to AZURE portal.
Fig.6. Azure Dashboard to create a database server and
web server for implementation of decision support for
vehicle drivers
Azure provides a dashboard to access all your resources. We
can create a database server by navigating to New->
Databases-> SQL Database. This is shown in Fig.2. After
entering proper credentials such as Database name, Resource
group name, Server name and the pricing tier, the entire
details are shown as in the Fig .3.
Fig.7. Screen shot of Creating New SQL Database on
Azure dash board
Fig.8.Photo graph of Created new Database
We can create a new table by navigating to Tools->Query
editor and logging in using the admin’s username and
password. A web server can be created in an analogous way.
International Journal of Computer Science and Information Security (IJCSIS),
Vol. 16, No. 2, February 2018
119 https://sites.google.com/site/ijcsis/
ISSN 1947-5500
4. Fig.9. Web APP used to support vehicle drivers
To host your web page using a web app, we use file transfer
protocol. We first need to download the profile of the Web
APP which contains its FTP username and password. We can
establish the connection using File Explorer. Copy and paste
publish URL into navigation bar and you will see a pop up
asking for login. After logging in we can just copy all the files
we need into the server.
Fig.10. Ftp Login for usage of web server
B. VISUAL STUDIO
Visual Studio is an Integrated Development Environment
which provides tools required to build apps of all sorts of
platforms. In this project we made use of visual studio to build
a windows form APP that can be distributed among local
guides. We can create a new windows form app by selecting
one in the create new project option.
Fig.11. Creating Windows Form APP to know the latitude
and longitude values
After creating a windows form APP, we can have built the
APP’s look using designer. To provide authentication for the
APP we design a form asking username and password, which
provides access to another form that, allows local guides to
insert longitudes and latitudes bounding a region and
corresponding speed limit. We can create a connection
between database and APP by using XML connection strings.
We require server name, database name, admin username and
password. After successfully building the app, it can be
distributed among local guides by any means that suits the
deployment process.
IV. EXPERIMENTAL RESULTS AND THEIR DISCUSSIONS
A. ADMIN SIDE
Fig.12. Database for implementation of decision support
for vehicle drivers
Fig.13. Screen shot of created New Database
Fig.14.Picture of Web APP
International Journal of Computer Science and Information Security (IJCSIS),
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5. B. PC APPLICATION
Fig.15. Local Guide Login for admin
Fig.16.Screenshot of Local Guide App
C. USER SIDE
Fig.17.Photograph of Hardware implementation of
decision support for vehicle drivers using IoT
This paper has 3 parts Admin, Local Guides, and User.
Database and web pages are hosted by admin. The hosting is
done on Microsoft azure platform. The local guides have an
app that is been distributed by the admin. This app allows
them to insert longitude and latitude bounding an area and
corresponding speed limit. A local guide can only do so when
he can access the data base through firewall by the admin.
Users have GPS module, GSM modem, UNO board which
acts for the backend and OLED for front end. The location’s
given by the GPS module is concatenated with the string
containing the web page name hosted by the admin. This
string acts as URL to ping the website hosted by the admin.
The results obtained by this attempt are the longitude and
latitude bounding the region in which the user is present and
the corresponding speed limit. This speed limit is displayed
on the OLED. Until the user is present in the same region a
ping to the website is not performed again. The same
procedure repeats when the user crosses the boundaries. This
approach has been tested on a fixed location and later on a
two-wheeler vehicle on a entire road where the user crosses
boundaries of a region and enters into another region. The
reaction time that is taken to obtain the speed limit of the
current region in considerable low. Even though the
implementation can get a few upgrades its timing, the results
obtained now are considered satisfactory.
V. CONCLUSIONS
Ns India is greatly suffering due to accidents. Mostly accidents
are caused due to the over speed of vehicles. There is a need
to implement a system which can automatically restrict the
high speed of the vehicles according to the speed limit
regulation of particular zones. By this accidents due to over
speed can minimize. The proposed approach works fine for
that purpose. It even gives an overall monitoring of the
vehicles indicating any traffic jams or accidents to the
officials. This helps the government to get better vision on the
overall scenario of the roads zones. The control can further be
divided into zones to give better vision. The system when
malfunctions, does no harm to the driving experience since
precaution methods are in place to check any chance of
having malfunctions. If this system is made compulsory for
all vehicles, then a noticeable decrease in the figure of road
accidents would be seen and thus reduces a heavy loss of life
and poverty in the count.
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International Journal of Computer Science and Information Security (IJCSIS),
Vol. 16, No. 2, February 2018
121 https://sites.google.com/site/ijcsis/
ISSN 1947-5500