Wednesday, 10 February 2016
Our proposed project aims to develop a system that detects cars driving at speeds over specified limit and inform concerned authorities immediately. Road accidents occurrences have increased recently so there needs to be a system that allows to detect overspeeding cars. Current speed detection systems are handheld guns held by police personnel that allow them to check car speed and then manually inform authorities about the vehicle. Whereas this proposed system does not need any human interception and records car speed as well as wirelessly informs authorities of overspeeding detections.
Tuesday, 9 February 2016
Programmable Sequential Load Operation Controlled By Android Application Project
Our project is designed to switch industrial loads by making use of
android app through logic control device programmed by user. The system
is made to be used in repetitive nature works. This remote controlling
task is achieved through the use of any android based device
(phone/tablet) running on an android OS.
Using programmable logical in order to achieve sequential switching of
loads proves a very costly operation. Here we propose a simple and cost
effective alternative to the issue by making use of 8051
microcontrollers. The controlling part is provided on an android
application.
Various tasks and in today’s industries work on repeated operations in
varied orders and intervals. Consider an example there a motor needs to
run after every 3 seconds. So for this purpose we program the
microcontroller to work in three different options: Set option, Manual
option and Auto option.
When the set option is selected, the system works according to time
intervals entered by user. In auto option the system now works as per
default time settings while in the manual option it operated on pressing
the selective switches as and when needed by the user. All modes and
status are displayed on an LCD display.
Our project thus provides very cost effective system to automate industry loads as an alternative to high cost PLC’s used.
Monday, 8 February 2016
Robotic Arm Vehicle Controlled By Touch Screen Display
The project proposes a touch screen operated robotic vehicle that can be
operated remotely. The touch screen remote is used as the transmitter
to send out RF control signals. The robotic vehicle consists of
receivers used to capture those signals and perform required tasks.
The project uses an 8051 microcontroller for this purpose. The touch
screen device is used as the transmitter to send out movement commands
to the robotic vehicle. The receiver on the vehicle receives those
commands and operates the vehicle using an 8051 microcontroller.
The microcontroller is interfaced with four motors, two are used for
vehicle movement controlling, the other two motors are used to handle
the arm movement and gripping respectively.
The use of Rf technology for transmitting and receiving commands
provides a wide range of operation (upto 220 meters). The vehicle
receiver decodes this received rf commands and then feeds it to the
microcontroller. The microcontroller then controls the four motor
movements through a driver IC.
The system has the enhanced functionality of the catching, grabbing ability along with vehicular movement.
Saturday, 6 February 2016
Speech Detector Robotic Vehicle Control
Our proposed project aims at a robotic vehicle operated by human speech
commands. The system operates with the use of a android device which
transmits voice commands to an 8051 microcontroller to achieve this
functionality.
The transmitter consists of the android phone bluetooth device. The
voice commands recognized by the module are transmitted by through the
Bluetooth transmitter. These commands are detected by the robotic
vehicle in order to move it in left, right, backwards and front
directions.
The bluetooth receiver mounted on top of the vehicle is used to
recognize the transmitted commands and decode them. After decoding these
commands are passed on to the 8051 microcontroller.
The microcontroller then drives the vehicle motors to move it
accordingly. This is done with the use of a driver IC used to control
the motor movements.
The Bluetooth technology used to transmit and receive data allows for remotely operating the system within a good range.
Hardware Specifications
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Software Specifications
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Block Diagram |
Friday, 5 February 2016
Android Controlled Fire Fighter Robot
Our proposed project aims to develop an android controlled fire fighter
robot that can be used to extinguish fires through remote handling. The
vehicle consists of a water tank along with a pump which can throw water
when needed. The system uses an 8051 microcontroller for this purpose.
The android device is used as a transmitter to send over controlling
commands to the vehicle. The android device provides a good touch based
gui for controlling the robotic vehicle.
The Bluetooth receiver on the vehicle is used to receive those commands
sent by the android device. These are then fed to the motors responsible
for controlling the vehicle movements in front, back, left and right
directions.
The Bluetooth receiver is interfaced with an 8051 microcontroller for
this purpose. The microcontroller after receiving input commands,
operates the motors through a driver IC for vehicle movements.
The use of android has one more advantage in addition to improved GUI.
It allows use of Bluetooth technology for communication allowing the
vehicle to operate in a good range from the device. The system can also
be later enhanced through the use of a wireless camera to be used for
monitoring purposes.
Thursday, 4 February 2016
Industry Temperature Control System
Our project aims to monitor and control the temperature of devices as
per it’s requirements in the industrial use. It is also used to show the
current temperature on an LCD display. An 8051 microcontroller is used
for this purpose.
We here use IC DS1621 to sense temperature. IC DS1621 is a Digital
Thermometer as well as a Thermostat that is used to provide a 9 bit
temperature reading that indicates the temperature control of device. An
EEPROM is used as a non-volatile user desired temperature settings.
This is done through an 8051 microcontroller.
A set of switches are used to get input temperatures from the user. The
switch input is stored in EEPROM -24C02. Pressing set button allows user
to adjust the minimum and maximum temperature settings thus allowing to
set temperature range.
In the same way for a DEC button we connect a relay from a
microcontroller through a transistor driver. The contact point of the
relay, ie a lamp demonstrates as a load. Instead of it a high power
heater is to be used in real time systems.
The system uses a power supply of 12V DC and voltage 5 volts through a
regulator using a transformer along with rectifier and capacitors.
Hardware Specifications
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Software Specifications
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Android Controlled Fire Fighter Robot
Our proposed project aims to develop an android controlled fire fighter
robot that can be used to extinguish fires through remote handling. The
vehicle consists of a water tank along with a pump which can throw water
when needed. The system uses an 8051 microcontroller for this purpose.
The android device is used as a transmitter to send over controlling
commands to the vehicle. The android device provides a good touch based
gui for controlling the robotic vehicle.
The Bluetooth receiver on the vehicle is used to receive those commands
sent by the android device. These are then fed to the motors responsible
for controlling the vehicle movements in front, back, left and right
directions.
The Bluetooth receiver is interfaced with an 8051 microcontroller for
this purpose. The microcontroller after receiving input commands,
operates the motors through a driver IC for vehicle movements.
The use of android has one more advantage in addition to improved GUI.
It allows use of Bluetooth technology for communication allowing the
vehicle to operate in a good range from the device. The system can also
be later enhanced through the use of a wireless camera to be used for
monitoring purposes.
Monday, 1 February 2016
Motion Based Automatic Door Opener
Our system puts forward an automatic and precise door opening system
based on human movement sensing near the door. Well opening a door in
places like hotels, Shopping complexes, and offices can be a tedious
task and sometimes requires hiring a person just for the sake of opening
door whenever a person arrives.
Well this project proposes a system that allows for automatic door
opening solution by sensing human presence near it. Our system achieves
this functionality with the help of PIR sensors. PIR stands for passive
infrared sensors. Every live body emits some infrared energy. This
energy is sensed by a PIR sensor from a good distance. This signal is
then processed and door is opened and closed based on this data.
When a living being arrives within the sensor range, it detects its
presence and sends out a command that opens the door. The door then
automatically closes after a specific time delay if there is no further
motion near the door.
The system can be later enhanced by integrating counter mechanism so as
to keep track of the number of persons inside the facility.
Hardware Specifications
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Software Specifications
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Block Diagram |
Multi Microcontroller Networking System
Our system aims at connecting and coordinating multiple microcontrollers
in order to achieve the desired output. Modern generation automobiles
widely use this technology today.
Increasing number of microcontrollers are used these days for various
industrial and domestic applications. Today’s cars have a good variety
and number of microcontrollers working in it.
With an increase in the number of microcontrollers it becomes important
to maintain proper coordination among them. The issue with such systems
is that if one MC fails it is likely to affect the working of other
connected MC’s.
Our project is used to demonstrate this by making use of an RS232 based
command monitoring tool. The system uses a combination of three
microcontrollers for this purpose. One is used to operate the load,
second one is used to display output on LCD display and the third one is
used to take user input through a keypad.
The input keypad is used to input a password. The password is taken
through first microcontroller, second microprocessor processes the
password, if right then third one switches on the lamp else if password
is wrong a buzzer is activated. Well this operation can be performed by
a single microcontroller too, but our system demonstrates how multiple
microcontrollers can synchronize for doing a task collectively, since
in real time environments its not possible for a single microprocessor
to perform all these tasks alone.
Consider a situation which requires 15 connections for a display unit
from microcontroller, and 7 connections from keypad. So instead of using
single microprocessor and multicore cables for kilometres we use a
single cable and more microcontrollers to simplify the working and
reduce costs.
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