Monday, 11 February 2013

JNTUK MATERIALS FOR ALL BRANCHES

MATERIALS FOR ALL BRANCHES (CSE ,IT,EEE,ECE,CIVIL,MECH,) ::::::::::
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THIS materials are very important if we learn easily .IN this materials prepare for some of the good professors and text book readers.all subjects here and also all branches......



A

ACA - CLICK

ADS - CLICK

AWP - CLICK

B

BEE - CLICK

C

CG - CLICK

CN - CLICK

Computer Organization - CLICK

Control Systems - CLICK

CPDS  C & DS - CLICK

D

DAA  - CLICK

DCS - CLICK

Digital Communications Lecture Notes - CLICK

Digital Image Processing - CLICK

DLD - CLICK

DSP - CLICK

DWDM - CKICK

Design Patterns - CLICK

E

Electronics Circuit Analysis (ECA) Notes and Summary - CLICK

Embedded Systems - CLICK

Engineering Chemistry - CLICK

ET NOTES and Material - CLICK

E-Commerce - CLICK

EDP (Drawing) Materials - CLICK

H

HCI - CLICK

I

Information Security(IS)  Download

J

JAVA - CLICK

M

Microwaves - CLICK

MEFA - CLICK

Mobile Computing notes - CLICK

MPI - CLICK

Mathematical Methods(MM) Download

Mathematics(M1) - CLICK

N

Network Programming(NP)[All 8 Units] - CLICK

Network Programming(NP)[Extra notes] - CLICK

NMS - CLICK


L

LICA - CLICK


O
OOPS
 - CLICK

Optical - CLICK

OS - CLICK

P


Production Planning And Control - click

R

S

Satellite communication by Dennis rood  - click

SS - click

STM - click

Surface Chemistry - click

T

TV - click

UNIX - click


WT  - click



Re meaning Materials will be Updated soon..

--------------------------------------    Thank you    --------------------------------------------






RAILWAY GATE CONTROL

RAILWAY GATE CONTROL  :::::






Description of the Project:-

Content-addressable memory (CAM) is a special type of computer Memory used in certain very high speed searching applications. It is also known as associative memory, associative storage, or associative array.

Content-addressable memory (CAM) is frequently used in applications,

such as lookup tables, databases, associative computing, and networking, that require high-speed searches due to its ability to improve application performance by using parallel comparison to reduce search time. Although the use of parallel comparison results in reduced search time, it also significantly increases power consumption. In this paper, we propose a Block-XOR approach to improve the efficiency of low power precomputation- based CAM (PB-CAM). Compared with the ones-count PB-CAM system, the experimental results show that our proposed approach can achieve on average 30% in power reduction and 32% in power performance reduction. The major contribution of this paper is that it presents practical proofs to verify that our proposed Block-XOR PB-CAM system can achieve greater power reduction without the need for a special CAM cell design. This implies that our approach is more flexible and adaptive for general designs

OBJECTIVE:

The aim of this project is to Automate unmanned railway gate using mechatronics.

Project Definition:

The objective of this project is to manage the control system of railway gate using the microcontroller. When train arrives at the sensing point alarm is triggered at the railway crossing point so that the people get intimation that gate is going to be closed. Then the control system activates and closes the gate on either side of the track. once the train crosses the other end control system automatically lifts the gate. For mechanical operation of the gates 1.8 step angle stepper motors are employed. Here we are using embedded controller built around the 8051 family (AT89C52) for the control according to the data pattern produced at the input port of the micro controller, the appropriate selected action will be taken.. The logic is produced by the program written in Embedded C language. The software program is written, by using the KEIL micro vision environment. The program written is then converted in HEX code after simulation and burned on to microcontroller using FLASH micro vision. 

WORKING METHODOLOGY:

Present project is designed using 8051 microcontroller to avoid railway accidents happening at unattended railway gates, if implemented in spirit. This project utilizes two powerful IR transmitters and two receivers; one pair of transmitter and receiver is fixed at up side (from where the train comes) at a level higher than a human being in exact alignment and similarly the other pair is fixed at down side of the train direction. Sensor activation time is so adjusted by calculating the time taken at a certain speed to cross at least one compartment of standard minimum size of the Indian railway. We have considered 5 seconds for this project. Sensors are fixed at 1km on both sides of the gate. We call the sensor along the train direction as ‘foreside sensor’ and the other as ‘after side sensor’. When foreside receiver gets activated, the gate motor is turned on in one direction and the gate is closed and stays closed until the train crosses the gate and reaches aft side sensors. When aft side receiver gets activated motor turns in opposite direction and gate opens and motor stops. Buzzer will immediately sound at the fore side receiver activation and gate will close after 5 seconds, so giving time to drivers to clear gate area in order to avoid trapping between the gates and stop sound after the train has crossed. 

GATE CONTROL

Railways being the cheapest mode of transportation are preferred over all the other means .When we go through the daily newspapers we come across many railway accidents occurring at unmanned railway crossings. This is mainly due to the carelessness in manual operations or lack of workers. We, in this project has come up with a solution for the same. Using simple electronic components we have tried to automate the control of railway gates. As a train approaches the railway crossing from either side, the sensors placed at a certain distance from the gate detects the approaching train and accordingly controls the operation of the gate. Also an indicator light has been provided to alert the motorists about the approaching train.

Introduction:

The objective of this project is to manage the control system of railway gate using the microcontroller. When train arrives at the sensing point alarm is triggered at the railway crossing point so that the people get intimation that gate is going to be closed. Then the control system activates and closes the gate on either side of the track. once the train crosses the other end control system automatically lifts the gate. For mechanical operation of the gates 1.8 step angle stepper motors are employed. Here we are using embedded controller built around the 8051 family (AT89C52) for the control according to the data pattern produced at the input port of the micro controller, the appropriate selected action will be taken.. The logic is produced by the program written in Embedded C language. The software program is written, by using the KEIL micro vision environment. The program written is then converted in HEX code after simulation and burned on to microcontroller using FLASH micro vision. 

AT89C51 Microcontroller

The Micro controller (AT89C51) is a low power; high performance CMOS 8-bit micro controller with 4K bytes of Flash programmable and erasable read only memory (PEROM). The on-chip Flash allows the program memory to be reprogrammed in-system or by a conventional non-volatile memory programmer. By combining a versatile 8-bit CPU with Flash on a monolithic chip, the Atmel AT89C51 is a powerful microcomputer, which provides a highly flexible and cost-effective solution to many embedded control applications. By using this controller the data inputs from the smart card is passed to the parallel port of the pc and accordingly the software responds. The IDE for writing the embedded program used is KEI L software.

Keil Micro vision Integrated Development Environment.

Keil Software development tools for the 8051 micro controller family support every level of developer from the professional applications engineer to the student just learning about embedded software development.The industry-standard Keil C Compilers, Macro Assemblers, Debuggers, Real-time Kernels, and Single-board Computers support ALL 8051-compatible derivatives and help you get your projects completed on schedule.

The source code is written in assembly language .It is saved as ASM file with an extension. A51.the ASM file is converted into hex file using keil software. Hex file is dumped into micro controller using LABTOOL software. At once the file is dumped and the ROM is burnt then it becomes an embedded one.

Step Motor Advantages

Step motors convert electrical energy into precise mechanical motion. These motors rotate a specific incremental distance per each step. The number of steps executed controls the degree of rotation of the motor’s shaft. This characteristic makes step motors excellent for positioning applications. For example, a 1.8° step motor executing 100 steps will rotate exactly 180° with some small amount of non-cumulative error. The speed of step execution controls the rate of motor rotation. A 1.8° step motor executing steps at a speed of 200 steps per second will rotate at exactly 1 revolution per second.

Step motors can be very accurately controlled in terms of how far and how fast they will rotate. The number of steps the motor executes is equal to the number of pulse commands it is given. A step motor will rotate a distance and at a rate that is proportional to the number and frequency of its pulse commands.

Step motors have several advantages over other types of motors. One of the most impressive is their ability to position very accurately. NMB’s standard step motors have an accuracy of +/-5%. The error does not accumulate from step to step. This means that a standard step motor can take a single step and travel 1.8° +/-0.09°. Then it can take one million steps and travel 1,800,000° +/-0.09°. This characteristic gives a step motor almost perfect repeatability. In motor terms, repeatability is the ability to return to a previously held position. A step motor can achieve the same target position, revolution after revolution.

COMPONENTS

The project consists of three main parts:

• 8051 microcontroller

• IR Transmitter

• IR Receiver

• Stepper Motor Circuit

• 8051 CONTROLLER

The I/O ports of the 8051 are expanded by connecting it to an 8255 chip. The 8255 is programmed as a simple I/O port for connection with devices such as LEDs, stepper motors and sensors. 

The following block diagram shows the various devices connected to the different ports of an 8255. The ports are each 8-bit and are named A, B and C. The individual ports of the 8255 can be programmed to be input or output, and can be changed dynamically. The control register is programmed in simple I/O mode with port A, port B and port C (upper) as output ports and port C (lower) as an input port.

IR CIRCUITS

This circuit has two stages: a transmitter unit and a receiver unit. The transmitter unit consists of an infrared LED and its associated circuitry.

IR TRANSMITTER

The IR LED emitting infrared light is put on in the transmitting unit. To generate IR signal, 555 IC based astable multivibrator is used. Infrared LED is driven through transistor BC 548. IC 555 is used to construct an astable multivibrator which has two quasi-stable states. It generates a square wave of frequency 38kHz and amplitude 5Volts. It is required to switch ‘ON’ the IR LED.

IR RECEIVER:

The receiver unit consists of a sensor and its associated circuitry. In receiver section, the first part is a sensor, which detects IR pulses transmitted by IR-LED. Whenever a train crosses the sensor, the output of IR sensor momentarily transits through a low state. As a result the monostable is triggered and a short pulse is applied to the port pin of the 8051 microcontroller. On receiving a pulse from the sensor circuit, the controller activates the circuitry required for closing and opening of the gates and for track switching. The IR receiver circuit is shown in the figure below.

STEP MOTOR ADVANTAGES

Step motors convert electrical energy into precise mechanical motion. These motors rotate a specific incremental distance per each step. The number of steps executed controls the degree of rotation of the motor’s shaft. This characteristic makes step motors excellent for positioning applications. For example, a 1.8° step motor executing 100 steps will rotate exactly 180° with some small amount of non-cumulative error. The speed of step execution controls the rate of motor rotation. A 1.8° step motor executing steps at a speed of 200 steps per second will rotate at exactly 1 revolution per second.

Step motors can be very accurately controlled in terms of how far and how fast they will rotate. The number of steps the motor executes is equal to the number of pulse commands it is given. A step motor will rotate a distance and at a rate that is proportional to the number and frequency of its pulse commands.

Step motors have several advantages over other types of motors. One of the most impressive is their ability to position very accurately. NMB’s standard step motors have an accuracy of +/-5%. The error does not accumulate from step to step. This means that a standard step motor can take a single step and travel 1.8° +/-0.09°. Then it can take one million steps and travel 1,800,000° +/-0.09°. This characteristic gives a step motor almost perfect repeatability. In motor terms, repeatability is the ability to return to a previously held position. A step motor can achieve the same target position, revolution after revolution.

EMBEDDED SYSTEMS

Introduction:

An Embedded system is a combination of computer hardware and software, and perhaps additional mechanical or other parts, designed to perform a specific function.

Embedded systems are usually a part of larger, complex system. Dedicated applications, designed to execute specific activities, are implemented and embedded in systems. These embedded applications are required to collaborate with the other components of an enclosed system. Embedded application components interact mostly with the non-human external environment. They continuously collect data from sensors or other computer components and process data within real-time constraints. Embedded systems are usually associated with dedicated hardware and specific software.

• Embedding an application into system

• Application and system are closely tied together

• Collaborative application

• Dedicated H/W and specific S/W

• Interaction with non-human external environment

• Real-time systems are embedded systems

CIRCUIT BREAKER PROJECT


CIRCUIT BREAKER ::::






Abstract:-

An circuit breaker is an automatically-operated electrical switch designed to protect an electrical circuit from damage caused by overload or short circuit. Its basic function is to detect a fault condition and, by interrupting continuity, to immediately discontinue electrical flow. Unlike a fuse, which operates once and then has to be replaced, a circuit breaker can be reset (either manually or automatically) to resume normal operation. Circuit breakers are made in varying sizes, from small devices that protect an individual household appliance up to large switchgear designed to protect high voltage circuits feeding an entire city.
This project is the related with the automation of currently available circuit breakers.

Full Project Report:- READMORE

ELCTRONICS COMPONENT TESTING

COMPONENT TESTING PROJECTS ::::








Introduction:-

The main objective of this paper is to design a device which can test the electronic components accurately. In this paper we will discuss the testing of electronic components and how to repair them. A multi meter like device is designed by using a 8051 micro controller. By using this we cannot know the operational parameters of the device but we know only whether the device is working or not.

Micro controller working:

We will select an AT89C52 microcontroller which comes under the family of 8051. It is an low power and high performance 8 bit cmos microcontroller. The special feature of this microcontroller is that it has 8kb of internal flash memory which is not available in most of the microcontrollers. It is a powerful and highly flexible for the design of embedded control applications. It is a 40 pin device in which 32 pins can be used for input and output purpose and it has 256 bytes of ram. It has idle mode which halts the normal execution and allows the interrupt to continue execution.

Testing process:

An IC555 timer is used to generate a pulse which is used for testing the electronic component. The pulse is fed to the input line of the micro controller. A control unit is present in the circuit so as to adjust the pulse frequencies accordingly. At the output line of the micro controller we connect the electronic components to check its working. We can see the output values in the led. By using this device we can check the working of transistors and diodes. The present available multi meters have only specific capability of checking only diodes or transistors. We cannot know the operational parameters of the components so cannot know at what point of value the component cannot work in the circuit. Thus we can conclude that this device is high performance capable and low cost when compare to that of available multi meters.


Full Project Report:- VIEW

ECG TELE MONITORING



ECG TELE MONITORING ::









 Abstract ECG Tele Monitoring Project:

This paper presents a new revolutionary concept in the field of medical sciences, with the rapid advancement of electronics in medical applications has paved path for the invention of a virtual heath monitoring system rather than conventional manually operated ECG system, here we implemented a new system “ECG telephone monitoring system comprised of an portable ECG terminal with an health monitoring system.

This system is capable of transmitting the human body signals effectively for monitoring purpose by analyzing them perfectly. In emergency condition there is an intense need of immediate and accurate diagnosis based on the condition and the body signals from the electrocardiography (ECG). This conventional method of analyzing the health conditions of the patient takes a lot of time so with an intent to reduce the reaction time we implemented this new ECG TELEMONITORING system.

This system is also known as telemetric ECG it can perform the direct transmissions in real time with in shorter duration of time facilitates a continuous monitoring over the varying parameters. And the transmission of the signal can be either through wire or wireless. Standard telephonic wires are used to transmit the data where as in wireless transmission for monitoring and transmitting the ECG signals of the patients we implement the monitoring center server based on ZIGBEE link. By this the doctor can take the prevention steps based on the ECG signals delivered by the ECG compatible software.

The design and operation of this remote ECG monitoring is clearly explained in the coming sections. Apart from several methods of recording and analyzing these ECG signals this new concept of using mobile phone in monitoring purposes, offer many advantages in real time applications. By this we can monitor the patient condition and an accurate therapy can be provided, it is a low cost and high distance coverage, can easily interface with the peripheral devices for the efficient exchange of data.

Tuesday, 5 February 2013

JNTUK 1ST YEAR PREVIOUS PAPERS

                  JNTUK B-TECH 1ST YEAR PREVIOUS QUESTION PAPERS (R10)

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                               Jntuk 1st B-tech common subjects in all branches.   




                             ENGINEERING CHEMISTRY - I === clickhere 
                            ENGINEERING PHYSICS - I  ===      clickhere
                            ENGLISH – I            ===                     clickhere 
                            C Programming    ===                       clickhere
                           MATHEMATICAL METHODS  ===       clickhere
                            MATHEMATICS - I  ===                      clickhere 
                            ENVIRONMENTAL STUDIES  ===       clickhere 






                           Hi friends this subjects are common in all branches.




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JNTUK MAIN PROJECT TOPICS

                                          MAIN PROJECT TOPICS

                    JNTUK final project topics in all branches and also provide projects.


Cut Detection in Wireless Sensor Networks ::


 

  



The algorithm allows each node to detect DOS events and a subset of nodes to detect CCOS events. The algorithm we propose is distributed and asynchronous: it involves only local communication between neighboring nodes, and is robust to temporary communication failure between node pairs. A key component of the DCD algorithm is a distributed iterative computational step through which the nodes compute their (fictitious) electrical potentials. The convergence rate of the computation is independent of the size and structure of the network.


Design and Implementation of TARF ::

we have implemented a low-overhead TARF module in TinyOS; as demonstrated, this implementation can be incorporated into existing routing protocols with the least effort. Based on TARF, we also demonstrated a proof-of-concept mobile target detection application that functions well against an anti-detection mechanism.

 Clustering with Multi-Viewpoint based Similarity Measure ::

We compare them with several well-known clustering algorithms that use other popular similarity measures on various document collections to verify the advantages of our proposal.

A Bandwidth-Efficient Cooperative Authentication Scheme for Filtering Injected False Data in Wireless Sensor Networks ::


We introduce a new stronger injecting false data attack, called gang injecting false data attack, in wireless sensor networks. This kind of attack is usually launched by a gang of compromised sensor nodes controlled and moved by an adversary A. As shown in Fig. 2, when a compromised source node is ready to send a false data, several compromised nodes will first move and aggregate at the source node, and then collude to inject the false data. Because of the mobility, the gang injecting false data attack is more challenging and hard to resist.

                                        



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HOW TO MAKE FINAL PROJECTS

                         JNTUK B-TECH FINAL YEAR PROJECTS IN ALL BRANCHES
                   
                             ::::::::::::::::::::::::: GUID THE FINAL PROJECTS ::::::::::::::::::::::::::::
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    The objective of this document is to present the general guidelines for the writing up of a proper Final-project report.

All JNTU B-Tech IV-II students have to do a project in the given time period by the university.

By this time u would have got some idea about the project work as u have done with your mini project in III-II Semester.As in most of the colleges we were given choice to a study project or kit based and this could be done in an Institute,Industry or own.Most of chose to do a study project and were given permission for this and had to work on project during your IV-II Semester & we had to submit this report by the end of IV-II Class work.This project will be evaluated at the end of semester (The mini project and its report shall be evaluated with this final project work).

Basically in this Final project student can take up any Industry oriented application in his/her field of interest in their respective field/branch.First one has to submit an Abstract of the project to their concerned department head (HOD) and once he approves it ,he will assign a project guide to the individual or batch after this project work is to be started. Generally batch for a final project may have 1 to 3 members in it.


Important Points:

1) Final Project will be your key to success because when ever u attend interviews in any company the first question would be "Tell me about your project ?". so do the project with a proper attention on it.

2) Better to do the projects in the fields of latest upcoming technologies so that it would fetch u a plus point during the evaluation of project & also during the interviews.

3) If your role in the project is limited to few modules,Try to have a complete idea on the project (i.e., know about all the modules & steps involved in the project) because during the project evaluation the project supervisor (i.e., evaluator) may put forward few questions regarding the other modules also.

4) Out of a total 200 marks for the project work
For JNTU-HYD (R09) : 50 marks shall be for Internal Evaluation & 150 marks for the End Semester Examination.
For JNTU-KAKINADA (R07) : 40 marks shall be for Internal Evaluation & 160 marks for the End Semester Examination.
For JNTU-ANANTAPUR (R09) : 60 marks shall be for Internal Evaluation & 140 marks for the End Semester Examination.

The internal Evaluation shall be on the basis of two seminars given by each student on the topic of his project.The End Semester Examination (viva-voce) shall be conducted by the same committee appointed for industry oriented mini project. In addition the project supervisor shall also be included in the committee.

5) The topics for industry oriented mini project, seminar and project work shall be different from each other.

6) The mini project and its report shall be evaluated with the project work in IV year II semester.

Guidelines to prepare project documentation
Sample Project Documentation

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B-TECH LAB MANUALS IN ALL BRANCHES


       LAB MANUALS  ::

                       
                  ENGLISH LANGUAGE AND COMMUNICATION SKILLS--(ELCS)
                  PHYSICS
                  ENGINEERING CHEMISTRY
                  Personal Digital Cellular (PDC)
                  BASIC ELECTRICAL ENGINEERING (BEE)
                  ELECTRONIC DEVICES AND CIRCUITS (EDC)
                 C-PROGRAMMING LAB
                 Compiler Design Lab (CD)
                 IT WORK SHOP LAB
                 ADVENCED DATA STRUCTERES (ADS)
                 WEB TECHNOLOGIES (WT)
                 MICRO PROCESS AND INTERFACE(MPI)
                 MMAD
                 CN & OS LAB
                 OPERATING SYSTEMS (OS)
                 DATABASE MANAGEMENT SYSTEMS ( DBMS)
                 UNIX
                 UML
                 JAVA - Programs
                 MWT
                 ECAD Lab Manual
                DSP LAB MANUAL
                LICA LAB Manual
                Embedded systems(ES)


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NOTE :: This lab manuals will be very help full to your external lab exams .particular subjects is to be learn more help full to your carrier like WT ,UNIX,DBMS,JAVA,C.......
                           
 

JNTUK B-TECH 1ST YEAR MATERIALS

      JNTUK B-TECH 1ST YEAR MATERIALS IN ALL BRANCHES.
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Jntuk b-tech 1st year material in all branches.This materials will be very help full your final exams.I provide in all branches materials and text book .(CSE,ECE,EEE,IT,MECH,CIVIL)

           ECE -- Mathematics - I
                      Mathematical Methods.
                      Applied Physics.
                      Engineering Chemistry .
                      C Programming and Data Structures.
                      Electronic Devices and circuits.

         EEE -- AdvancedEngineeringMathematics.
                     IntegratedElectronics.
                     IntroductiontoSolidStatePhysics .
                     LetUsC - YashwantKanetkar.
                     mathematical_methodsCSE1.Advance Engineering C Tutor Book2.Let... 


         First year common subjects in all branches.just change in electrical subjects only and also provide lab manuals also. Be prepare all the best for your exams.