A complete prepaid electricity system just like the cellular mobile service you use exactly how much u      pay  plus you can recharge any time

    : The voting system for four candidates with memory
    backup to restore the results to be viewed with password
    : It will check the faults like ASMover temperature, humidity, power failur e, over voltage etc. at the
    monitor. One can link this with RF data encoders/decoder for
    wireless link.
    : The
    project is to read the rpm of a automobile and according to that it
    limits the speed as Speed Governor. One can change the speed with
    variable control

To Book  mail us at 

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or Visit

August 25, 2009 Posted by | buyproject, project ideas, projects list, Uncategorized, VHDL PROJECT SYNOPSIS | , , , , , , , , , | 95 Comments

Latest List of ASP .NET projects for Computer science Students

Latest list Asp .NET projects (Dot Net)

1. Online Shopping website
2. School Management Software
3. N.G.O. Website
4. E-Commerce Website
5. Coaching Management Software
6. Inventory System
7. Medical Store Manager
8. Payroll System
9. Tours & Travels Website
10. Book Publication company Software
11. Online Music download Store
12. computer Store Management System
13. Job Portal
14. Library Management system
15. Online banking
16. Product Distributor Software
17. College Website
18. Dispensary Management System
19. Attendance Management System
20. Courier Management Service
21. E-Bazaar
22. Student Management System

Call us any time at 09717408885 YoGesh Yaday. OR 9711281416 Anshul Jha (OUR .NET EXPERT)






CALL US NOW 09717408885 ,9868816785



August 3, 2009 Posted by | project ideas, Uncategorized | , , , , , , , , , , | 157 Comments

Intelligent Train Engines ( New-Latest)

Intelligent Train Engines( Click here to book this project)

We know that the railway network of India is the biggest in south Asia and perhaps the most complicated in all over the world. There are so many different types of trains local, fast, super fast, passenger, goods…. etc. and their so many multiple routs. Although the time table is perfect it is not at all possible to maintain it. And that’s why the train accidents are becoming more and more usual. So why not we add a kind of intelligence to the train engines itself so that it tries to avoid accidents.

The idea is whenever any engine observes a red signal on its track it will start decreasing its speed gradually and stops automatically at some distance from the signal pole. After then when it gets green signal the driver can manually start the train and go on. In the mean time when train has not stopped yet and a red signal becomes green then it crosses the signal pole with low speed and then driver can slowly increase the speed.

So now before the driver observes the red signal the engine itself observes it and automatically starts decreasing speed and then stops. The driver can feel relax in driving because he doesn’t have to take care about red signal. Even if he forgets to take any action on red signal then also we can avoid accidents by the implementation of this idea.

General description:

What we have to do is we have to attach a transmitter with signal pole which will start transmitting signals only when the red light is on. If there is green light no transmission. The engine has a receiver which catches these transmitted signals and takes desire actions.

Both the transmitter and receiver are of RF type with minimum range of 2 Km. so that train can get enough time to decrease its speed and stop before the signal pole with minimum swapping distance of 100-200 mt.

Here in our project we have used IR transmitter and receiver instead of RF for demo purpose. But same idea can be easily implemented with RF also with a little more cost.

Lets first discuss the demonstration model.

Demonstration Model:

The train engine runs on 24V DC motor so that we can easily vary its speed by varying applied voltage. The switching voltage is applied in step of 18 V, 15 V, 12 V and 9 V (min speed). The 230 VAC is step-down to 24 VAC by 12-0-12, 2 Ampere step down transformer. As shown in figure this 24 VAC line runs parallel with track at the top of the train. Movable tapping are taken from this line and fed to the internal circuit of engine. These tapping slides as the train runs on the track and give continuous supply to circuit. The IR sensor is placed at the top of the engine, senses the signals transmitted by IR transmitter attached to signal pole. Train track is straight and 20 ft long. Signal pole is placed at the end of track and train starts from farther end.

Model of Intelligent Train Engines

The project is divided in two parts

The transmitter is housed in signal pole and it is activated only when red light is ON.

The receiver is housed in engine which senses the IR signals and takes suitable action.

Signal Pole IR Transmitter:-
The figure shows the schematic diagram of IR transmitter.

Schematic diagram of IR transmitter.

The heart of the circuit is IC555. The main component of the circuit is only IC555.


Both ICs are connected in astable mode. The frequency of U2 is 0.5 Hz and U1 is 38 KHz. This is decided by RC components connected with it. The output of U2 is connected with reset pin (4) of U1. Thus the output of U2 controls the operation of U1 means it will switch on or off the output of U1. The output of U1 is fed to two IR LEDs through Darlington pair made up of Q1, Q2 and R5. The 9V DC battery is connected with circuit through SPDT switch SW1 as shown.


As shown in figure when SW1 is in position as shown the transmitter is On and also the red LED is also ON. When switch changes its position the red LED and transmitter is off and only green LED will on. When the circuit is energized U2 will start generating high pulse at every 1 sec. as this pulse is fed to reset pin of U1 it will generate 38 KHz square wave and give it to IR leds. IR leds will generate IR beam of 38 KHz for the same time. Thus after every one second the IR beam of 38 KHz is generated for one second only. This cycle repeats till the red light is on.

Note: The range of this transmitter is limited to 10 ft only.

89C51 based IR receiver for Engine:
The IR receiver circuit housed in engine is as shown below.

IR receiver circuit

The main components of the circuit are IR sensor TSOP 1738, microcontroller 89C51, current driver chip ULN2003A and all voltage regulator ICs (78XX series).

24 VAC is rectified by diode bridge D1 and filtered through C1 and given to all the regulated ICs as input.
The output of 7805 is connected to 89C51 and TSOP and also to all the LEDs.
Output of 7812 (last one) is connected to common coil terminal and to ULN
The outputs of middle four regulated ICs are connected to DC motor through relay contacts.
Output of TSOP is connected with pin P3.3 (INT1) of microcontroller
All five leds are connected with port P0 as shown
Input of ULN is connected with Port 1 pins P1.0-P1.3, and outputs are connected with second terminal of relay coil.

TSOP will detect the 38 KHz IR beam and gives the interrupt to 89C51.
89C51 will indicate the interrupt event on first (green) LED and energizes only one particular relay through ULN chip.
When any of the four relay get energized the motor will get supply from it and it will start running
As voltage is less it will run with less speed
So now its the function of microcontroller to receive signal from IR sensor, decrease the speed of train gradually in four steps and then stop it. And this is done by software embedded in to 89C51.

How the project works?
Initially when you switch on the supply 89C51 will switch all the relays RL1- RL4 one by one. So motor will get 9-12-15-18 V supply in steps and gradually increases its speed reaches max speed indicated by first red LED (P0.0).
Now if the signal is green then train will cross the pole with same pole
But if signal becomes red in between then IR sensor will detect IR beam and interrupts the 89C51
Getting first interrupt 89C51 will switch off RL4 and switch on RL3 so now motor will get 15 V supply and its speed will be decreased. That’s indicated by second red LED (P0.1)
Now 89C51 will wait for some time (2 to 3 sec) and train goes on with same speed. Again if still red signal is on 89C51 will be interrupted and this time it will switch on RL2. so now motor gets 12V supply and again its speed will be decreased indicated by third red LED (P0.2)
The same procedure repeats if 89C51 is interrupted third times. Now motor runs at min speed (9 V) indicated by fourth red LED (P0.3)
After same delay on receiving fourth interrupt all the relays will be switched off and motor is now stop so the train is also stopped. This is indicated by green LED.
After this interrupts will be disabled. So now when red signal becomes green driver must reset the controller to start the train again.

The complete pseudo code with necessary comments is as given

org 00h
mov r0,#01h ; initialize the counter to count no. of interrupts
sjmp over ; jump above the interrupt subroutine
org 0013h ; interrupt 1 subroutine location
mov ie,#00h ; disable interrupt first
clr p0.0 ; interrupt indication on green led
inc r0 ; increment counter
acall delay ; call 0.1 sec delay
setb p0.0 ; reset green led
cjne r0,#02h,nxt2 ;if counter is 2 then decrease speed be one step (15 V)
mov p0,#0fbh
mov p1,#04h ; give indication on second red led
sjmp out
nxt2: cjne r0,#03h,nxt3 ; if counter is 3 then decrease speed be two step (12 V)
mov p0,#0f7h
mov p1,#02h ; give indication on third red led
sjmp out
nxt3: cjne r0,#04h,nxt4 ; if counter is 4 then decrease speed be three step (9 V)
mov p0,#0efh
mov p1,#01h ; give indication on fourth red led
sjmp out
nxt4: cjne r0,#05h,out ; if counter is 5 then stop the train
mov p0,#0feh
mov p1,#00h ; indicate it by green led.
out: acall dely ; call 2 sec delay every time when speed is changed
mov ie,#84h ; enable interrupt again
reti ; return from interrupt
over:mov p1,#01h ; main program starts from here starts train with min speed
acall dely ; and gradually increase it to max in four step
mov p1,#02h ; with 2 sec delay in between
acall dely
mov p1,#04h
acall dely
mov p1,#08h
mov p0,#0fdh
mov ie,#84h ; enable the interrupt
here: sjmp here ; continue loop
mov r6,#64h ; 0.1 sec delay
lop2:mov r5,#0FAh
djnz r5,lop1
djnz r6,lop2
mov r7,#15h ; 2 sec delay
lop5:mov r6,#64h
lop4:mov r5,#0FAh
djnz r5,lop3
djnz r6,lop4
djnz r7,lop5

Please mail Us to Book this project or call us at our contact numbers

indianengineer is also available at:-      09717408885


August 3, 2009 Posted by | project ideas, Uncategorized | 37 Comments

Vehicle Monitoring and Security System (latest)

ABSTRACT: In this modern, fast moving and insecure world, it is become a basic necessity to be aware of one’s safety. Maximum risks occur in situations wherein an employee travels for money transactions. Also the Company to which he belongs should be aware if there is some problem. What if the person traveling can be tracked and also secured in the case of an emergency?! Fantastic, isn’t it? Of course it is and here’s a system that functions as a tracking and a security system. It’s the VMSS. This system can deal with both pace and security.

The VMSS (Vehicle Monitoring and Security System) is a GPS based vehicle tracking system that is used for security applications as well. The project uses two main underlying concepts. These are GPS (Global Positioning System) and GSM (Global System for Mobile Communication). The main application of this system in this context is tracking the vehicle to which the GPS is connected, giving the information about its position whenever required and for the security of each person travelling by the vehicle. This is done with the help of the GPS satellite and the GPS module attached to the vehicle which needs to be tracked. The GPS antenna present in the GPS module receives the information from the GPS satellite in NMEA (National Marine Electronics Association) format and thus it reveals the position information. This information got from the GPS antenna has to be sent to the Base station wherein it is decoded. For this we use GSM module which has an antenna too. Thus we have at the Base station; the complete data about the vehicle.

Along with tracking the vehicle, the system is used for security applications as well. Each passenger/employee will have an ID of their own and will be using a remote containing key for Entry, Exit and Panic. The Panic button is used by the driver or the passenger so as to alert the concerned of emergency conditions. On pressing this button, an alarm will be activated which will help the passenger/employee in emergencies and keep them secure throughout the journey. The vehicle can also be immobilized remotely.


Of all the applications of GPS, Vehicle tracking and navigational systems have brought this technology to the day-to-day life of the common man. Today GPS fitted cars, ambulances, fleets and police vehicles are common sights on the roads of developed countries. Known by many names such as Automatic Vehicle Locating System (AVLS), Vehicle Tracking and Information System (VTIS), Mobile Asset Management System (MAMS), these systems offer an effective tool for improving the operational efficiency and utilization of the vehicles.

GPS is used in the vehicles for both tracking and navigation. Tracking systems enable a base station to keep track of the vehicles without the intervention of the driver whereas navigation system helps the driver to reach the destination. Whether navigation system or tracking system, the architecture is more or less similar. The navigation system will have convenient, usually a graphic display for the driver which is not needed for the tracking system. Vehicle tracking systems combine a number of well-developed technologies.

To design the VMSS system, we combined the GPS’s ability to pin-point location along with the ability of the Global System for Mobile Communications (GSM) to communicate with a control center in a wireless fashion. The system includes GPS-GSM modules and a base station called the control center.

Let us briefly explain how VMSS works. In order to monitor the vehicle, it is equipped with a GPS-GSM VMSS system. It receives GPS signals from satellites, computes the location information, and then sends it to the control center. With the vehicle location information, the control center displays all of the vehicle positions on an electronic map in order to easily monitor and control their routes. Besides tracking control, the control center can also maintain wireless communication with the GPS units to provide other services such as alarms, status control, and system updates.

The design takes into consideration important factors regarding both position and data communication. Thus, the project integrates location determination (GPS) and cellular (GSM) – two distinct and powerful technologies in a single system.

VMSS is based on a PIC microcontroller-based system equipped with a GPS receiver and a GSM Module operating in the 900 MHz band. We housed the parts in one small plastic unit, which was then mounted on the vehicle and connected to GPS and GSM antennas. The position, identity, heading, and speed are transmitted either automatically at user-defined time intervals or when a certain event occurs with an assigned message (e.g.; accident, alert, or leaving/entering an admissible geographical area).

The GPS Module outputs the vehicle location information such as longitude, latitude, direction, and Greenwich Time every five minutes. The GSM wireless communications function is based on a GSM network established in a valid region and with a valid service provider. Via the SMS provided by the GSM network, the location information and the status of the GPS-GSM VMSS are sent to the control center. Meanwhile, the VMSS receives the control information from the control center via the same SMS. Next, the GPS-GSM VMSS sends the information stored in the microcontroller via an RS-232 interface.

There are two ways to use the VMSS’ alarm function, which can be signified by either a buzzer or presented on LCD. The first way is to receive the command from the control center; second way is to manually send the alarm information to the control center with the push of a button.

The base station consists of landline modem(s) and GIS workstation. The information about the vehicle is received at a base station and is then displayed on a PC based map. Vehicle information can be viewed on electronic maps via the Internet or specialized software. Geographic Information Systems (GIS) provides a current, spatial, visual representation of transit operations. It is a special type of computerized database management system in which geographic databases are related to one via a common set of location coordinates.


Driver starts his trip from the transport office.
VMSS transmits the Driver I.D and the Vehicle I.D along with the position of the vehicle to the base station.

Taxi picks up the employee/passenger from their residence.
VMSS transmits the Passenger I.D and the Vehicle I.D along with the position of the vehicle to the base station. Therefore base station will be able to keep a track of the vehicle and thus the employee/passenger.

Taxi drops the employee/passenger to the workplace.
VMSS transmits the Passenger I.D and the Vehicle I.D along with the position of the vehicle to the base station.
Taxi picks the employee/passenger from the workplace.
VMSS transmits the Passenger I.D and the Vehicle I.D along with the position of the vehicle to the base station. Therefore this enables the base station to estimate the time if required and also keep a track of the vehicle, passenger and the driver.

Taxi drops the employee/passenger to their residence.
VMSS transmits the Passenger I.D and the vehicle I.D along with the position of the vehicle to the base station and makes sure that the job is 100% complete.

The Project Cost  is 20,000  to book call us 9717408885

August 3, 2009 Posted by | project ideas, Uncategorized | 80 Comments

Line Robot


Line Robot

many kind of robot contests have being opened and some interesting reports of
the challenge are found on the web. The Line Following is a kind of the robot
contests to vie running speed on the line. I build a tiny line following robot
which can run on the desk, moving the key board aside will do. It is for only
a personal toy reduced its size less than one fifth compared to typical line
following robots, not in formura. But I believe that it is suitable for home
use in the small Japanese houses said that rabbit burrow…(^_^;. Of course
I have also no time to take part in the robot contests 😦

About Line Follower

The line follower is one of the self operating robot that follows a line
that drawn on the floor. The basic operations of the line following are as follows:

  1. Capture line position with optical sensors mounted at front end of the
    robot. Most are using several number of photo-reflectors, and some leading
    contestants are using an image sensor for image processing. The line sensing
    procss requires high resolution and high robustness.
  2. Steear robot to track the line with any steearing mechanism. This is
    just a servo operation, any phase compensation will be required to stabilize
    tracking motion by applying digital PID filter or any other servo argolithm.
  3. Control speed according to the lane condition. Running speed is limited
    during passing a curve due to friction of the tire and the floor.

There are two line styles, white line on the black floor and black line on
the white floor. Most contest are adopting the first one in line width of between
15 and 25 millimeters.



Right image shows bottom view and side view of the built line following robot.
All mechanical and electrical parts are mounted on a proto board, and it also
constitutes the chasis.

The line following robot is upheld in three points of two driving wheels
and a free wheel. The driving wheels are made with a 7 mm dia ball bearing and
a rubber tire. The free wheel is a 5 mm dia ball bearing attached loosely. To
drive driving wheels, two tiny
vibration motors that used
for cellular phone, pager or any mobile equipment are used. Its shaft is pressed
onto the tire with a spring plate, the output torque is transferred to the wheels.

The steearing mechanism is realized in differential drive that steear
the robot by difference in rotation speed between the left wheel and the right
wheel. It does not require any additional actuator, only controling the wheel
speed will do.


Controller ATmega8 (Atmel)
Line sensor Six photo-reflectors
Power supply Two CR2032 lithium cells
(One is for controller, the other is for motors)
Motor Two micromotors for
left wheel and right wheel
Dimensions 45(L), 33(W), 12.5(H)
Weight 15 grams (Body:8g,
Performance 53 centimeter per second
at oval course

An Atmel ATmega8 is used for the controller and it is powered by a lithium
coin cell. The other lithium coin cell is for only motors. Separating the power
supply into two cells is to avoid accidental reset of the microcontroller due
to voltage dip by motor start current. Six photo-reflectors are mounted at front
end of the chasis. They sense reflection rate of the floor under them. Motors
are driven in PWM to control rotation speed lineary. The latest circuit diagram
is here.


Using photo-reflectors

To detect a line to be followed, most contestants are using two or more number
of poto-reflectors. Its output current that proportional to reflection rate
of the floor is converted to voltage with a resister and tested it if the line
is detected or not. However the threshold voltage cannot be fixed to any level
because optical current by ambent light is added to the output current like
the image shown right.

Most photo-detecting modules for industrial use are using modurated light
to avoid interference by the ambient light. The detected signal is filtered
with a band pass filter and disused signals are filtered out. Therefore only
the modurated signal from the light emitter can be detected. Of course the detector
must not be saturated by ambient light, this is effective when the detector
is working in linear region.

In this project, pulsed light is used to cancel ambient light. This is suitable
for arraied sensors that scanned in sequence to avoid interference from next
sensor. The microcontroller starts to scan the sensor status, sample an output
voltage, turn on LED and sample again the output voltage. The difference between
the two samples is the optical current by LED, output voltage by the ambient
light is canceled. The other sensors are also scanned the same avobe in sequence.

Signal processing of line detection

Right image shows the actual line posisiton vs detected line position in
center value of 640. The microcontroller scans six sensors and calcurates the
line position by output ratio of two sensors near the line. Thus the line position
can be detected lineary with only six sensors. All the sensor outputs are captured
as analog value that proportioning to reflection ratio, and the sensitivity
have variety between each one of them. In this system, to remove the variations
from the outputs, calibration parameters for each sensor can be held into non-volatile
memory. This can be done with online mode. The microcontroler enters the online
mode when an ISP
cable is attached, and it can be controlled with a terminal program in serial
format of N81 38.4kbps. S1 command monitors sensor values, and S2 command calibrates
variation of sensor gain on the reference surface (white paper). The ATmega8
must be set to 8MHz internal osc.

Tracking control

The line position is compeared to the center value to be tracked, the position
error is processed with Proportional/Integral/Diffence filters to generate steering
command. The line folloing robot tracks the line in PID control that the most
popular argolithm for servo control.

The proportional term is the commom process in the servo system. It is only
a gain amplifire without time dependent process. The differencial term is applied
in order to improve the responce to disturbance, and it also compensate phase
lag at the controled object. The D term will be required in most case to stabilize
tracking motion. The I term is not used in this project from following resons.
The I term that boosts DC gain is applied in order to remove left offset error,
however, it often decrease servo stability due to its phase lag. The line following
operation can ignore such tracking offset so that the I term is not required.

When any line sensing error has occured for a time due to getting out of
line or end of line, the motors are stopped and the microcontroller enters sleep
state of zero power consumption.


  • Development diary [Ja]
  • Circuit diagram
  • Firmware May 23, 2004
  • Following motion
    with only P control
    This is a video file of line following motion with only P control. The servo
    system oscllated.
  • Following motion
    with P and D controls
    Adding D control could improve the servo stability. The robot follows the
    line correctly. Therefore the servo parameter must be optimized for mechanical
    characterristics to improve the tracking stability.




December 18, 2008 Posted by | project ideas, Uncategorized | 11 Comments

serial infrared transmitter circuit by indian engineer

September 22, 2008 Posted by | Uncategorized | 4 Comments

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