HTTP Streaming of Workshops

Course Objective

Topics in the workshop will include:
1. Course planning
    A. Developing learning objectives-what, why, how
    B. Hierarchy of cognitive levels for learning objectives
    C. Concept maps for course planning and corresponding open-source tools

2. Writing effective assessment questions
    A. Alignment of assessment to learning objectives
    B. Writing higher order assessment questions (Apply, analyze, evaluate, and create levels)

3. Visualizing scientific content
    A. Benefits of visualizations such as animation and simulation for engineering teaching & learning
    B. How to find suitable visualizations for your course
    C. How to effectively teach using visualizations

4. Creating an active-learning classroom
    A. Why active-learning and how to achieve it
    B. Specific active-learning techniques such as Peer instruction and Think-pair-share

5. Flipped classroom-what, why, how
    A. The out-of-class part: videos, Spoken-Tutorials for content
    B. The in-class part: activities for students based on above content

6. Promoting student collaboration
    A. Benefits of promoting student interaction
    B. Tools to promote student collaboration - blogs, wikis, and forums

7. Exploring ET tools
8. Evaluating effectiveness of teaching strategies

Following lectures are available under this courseware.

Course Objective

Topics in the workshop will include:
1. Course planning
    A. Developing learning objectives-what, why, how
    B. Hierarchy of cognitive levels for learning objectives
    C. Concept maps for course planning and corresponding open-source tools

2. Writing effective assessment questions
    A. Alignment of assessment to learning objectives
    B. Writing higher order assessment questions (Apply, analyze, evaluate, and create levels)

3. Visualizing scientific content
    A. Benefits of visualizations such as animation and simulation for engineering teaching & learning
    B. How to find suitable visualizations for your course
    C. How to effectively teach using visualizations

4. Creating an active-learning classroom
    A. Why active-learning and how to achieve it
    B. Specific active-learning techniques such as Peer instruction and Think-pair-share

5. Flipped classroom-what, why, how
    A. The out-of-class part: videos, Spoken-Tutorials for content
    B. The in-class part: activities for students based on above content

6. Promoting student collaboration
    A. Benefits of promoting student interaction
    B. Tools to promote student collaboration - blogs, wikis, and forums

7. Exploring ET tools
8. Evaluating effectiveness of teaching strategies

Following lectures are available under this courseware.

Course Objective

Objective

Following lectures are available under this courseware.

Course Objective

Following lectures are available under this courseware.

Course Objective

The workshop will provide training to participants on teaching pedagogy to make extensive use of Technology, and will cover teaching of the following topics:

* Secret Key Cryptography
* Public Key Cryptography
* Applications of the Crypto Hash
* Key Management and PKI
* Network Security
* DDoS Attacks
* Authentication Protocols
* Transport Layer Security (SSL/TLS)
* Access Control and Firewalls
* Software Security
* Worms, Viruses, Bots etc
* Malware Protection
* Web Application Security
* Browser Security
* Intrusion Detection and Prevention
* Security Tools - Wireshark, Snort, Metasploit, etc.

Following lectures are available under this courseware.

Course Objective

Introduction

Following lectures are available under this courseware.

Course Objective

Following topics will be conversed in this workshop.

�  Algorithms
�  Elements of C/C++ programming languages
�  Basic data types
�  Sequential and conditional execution
�  Iterative solutions
�  Arrays, matrices, and their applications
�  Functions
�  Basics of Sorting and searching
�  Elements of string processing
�  Introduction to pointers
�  Software Engineering concepts
�  Pointers
�  Structures
�  File processing
�  Handling graphics
�  Introduction to Object Oriented Programming
�  Classes and Methods, C++ Standard Library

Following lectures are available under this courseware.

Course Objective

Following lectures are available under this courseware.

Course Objective

Introduction and Course content

Cyber Security- an overview

 Basic Cryptography

Security Protocols

Network Security

Access Control

Web Security

Malware Protection

IT Infrastructure Security

 Intrusion Detection and Prevention

Future Trends

Following lectures are available under this courseware.

Course Objective

Following lectures are available under this courseware.

Course Objective

Introduction and Course Content

Following lectures are available under this courseware.

Course Objective

Following topics will be conversed in this workshop.

�  Algorithms
�  Elements of C/C++ programming languages
�  Basic data types
�  Sequential and conditional execution
�  Iterative solutions
�  Arrays, matrices, and their applications
�  Functions
�  Basics of Sorting and searching
�  Elements of string processing
�  Introduction to pointers
�  Software Engineering concepts
�  Pointers
�  Structures
�  File processing
�  Handling graphics
�  Introduction to Object Oriented Programming
�  Classes and Methods, C++ Standard Library

Following lectures are available under this courseware.

Course Objective

Essentials of Engineering Mechanics:

Introduction: Fundamentals Concepts and Principles, Review of Vector Mechanics
Equivalent System of Forces: Reduction of System of Forces to One Force and One Couple, Resultant of Distributed Force System.
Equilibrium of Rigid bodies: Equilibrium in two and three dimensions, reactions at supports and connections, Equilibrium of a two force body and a three force body.
Analysis of Structures: Equilibrium of Trusses: Method of Joints, Method of Sections Compound Truss, Equilibrium of Frames and Machines.
Friction: Laws of Dry Friction, Coefficient of Friction, Angle of Friction, Problems Involving Dry Friction, Belt Friction.
Energy Methods: Work of a Force, Principle of Virtual Work, Application of Principle of Virtual Work to Real Structures Potential Energy and Equilibrium, Stability of Equilibrium
Dynamics and Vibrations: Free Vibrations of Mass-Spring Systems, Simple Harmonic Motion, Equation of Motion, Natural Frequency of Vibration, Free Vibration of Rigid Bodies

Following lectures are available under this courseware.

Course Objective

Essentials of Engineering Mechanics:

• Introduction: Fundamentals Concepts and Principles, Review of Vector Mechanics
• Equivalent System of Forces: Reduction of System of Forces to One Force and One Couple, Resultant of Distributed Force System
• Equilibrium of Rigid bodies: Equilibrium in two and three dimensions, reactions at supports and connections, Equilibrium of a two force body and a three force body.
• Analysis of Structures: Equilibrium of Trusses Method of Joints, Method of Sections Compound Truss, Equilibrium of Frames and Machines
• Friction: Laws of Dry Friction, Coefficient of Friction, Angle of Friction, Problems Involving Dry Friction, Belt Friction
• Energy Methods: Work of a Force, Principle of Virtual Work, Application of Principle of Virtual Work to Real Structures
• Potential Energy and Equilibrium, Stability of Equilibrium
• Dynamics and Vibrations: Free Vibrations of Mass-Spring Systems, Simple Harmonic Motion, Equation of Motion, Natural Frequency of Vibration, Free Vibration of Rigid Bodies.

Following lectures are available under this courseware.

Course Objective

Buildings contribute to one-third of the total energy consumption in India. With the rising urban population and booming construction sector, a rapid growth in buildings is expected in the next few decades. Steering this growth to more green and energy efficient buildings is hence of paramount importance to address the energy and climate change crisis. This lecture will give a macro level overview of the relationship between building sector and energy sector and touch upon the following topics:

• Energy production and consumption and the role of building sector in India
• Typical energy usage in buildings
• Life-cycle energy analysis of buildings
• Passive solar architecture and integration of sustainable technologies in buildings
• Green building rating systems
• Buildings, its occupants and the larger environment

Successful or appropriate design is that which meets the users` requirements and aspirations, is economical, safe, durable, aesthetically pleasing and socially relevant. The fast depletion of resources and environmental concerns has led to sustainability also becoming a major design issue. There is a growing concern to limit over consumption due to the increase in our technological prowess. We need to overcome our culture of use and throw, and replace it with reduce, reuse and recycle. This would help to ensure that our future generations have a better world to live in.

"We have not inherited the world from our forefathers but have borrowed it from our children" -

This lecture discusses the context sensitive approach to sustainable building design. Traditional wisdom has always propagated this approach, it just needs to be rediscovered or reinvented for contemporary times. Context in this lecture refers to climatic, regional, economical and technological. This is illustrated by case studies in a rural and an urban setting. The lecture will aim at answering the following questions:

• Is sustainable design difficult to achieve?
• What about cost?
• Does sustainable design restrict design freedom?
• Are there tools available?

The intention of this lecture is to help students, faculty and professionals to overcome misgivings about sustainable design. It should not be perceived as an obstacle but as an opportunity to design better, influence and develop new thoughts, as well as to enhance career prospects.

The quantification of the thermal performance of a building is desirable to evaluate various designs and help in evolving suitable design for realizing energy efficiency. The lecture would explain various heat exchange processes taking place in a building and external environment. Several techniques are available for estimating the performance of building. They would briefly be discussed and the type of results available would be indicated.

Sustainability is not really an original concept; especially for Indians. Since generations, the idea of sustainability has pervaded every aspect of our lives and it has manifested itself in the built form as well.

And that`s exactly what vernacular traditions are all about. There is a rich legacy of settlements, buildings and structures of all kinds and scales that are truly inspirational and living examples of sustainability. There is a huge diversity of materials, climatic response and building technology as the country has a very varied terrain, geology and cultural diversity along with the climatic variations. So this is almost like a built encyclopedia that is a time tested proven technology that belongs to everyone and no one in particular.

However, a lot of things have changed in the recent past, the last century in particular. The major events that have changed life, the perspective towards it and particularly the approach to built forms and sustainability have been factors like an explosive population growth, urbanization, globalization, mass production and the accompanying consumerism and ease of transportation and of course, the dwindling finite resources. Along with these there have been inventions of new materials, building technologies and digital tools.

The question then, is how and to what extent can this source of vernacular be carried forward and how far is it applicable and in what ways. What is the way ahead for sustainability in the scenario where the population numbers and their lifestyle aspirations have the biggest impact on the morphology of settlements, the way people want their living and work spaces to function and the way architects respond to these stimuli.

Buildings account for a significant portion of society’s energy use. The end uses are cooking, space cooling, space heating, refrigeration, lighting, motive power and appliances. We review the renewable energy technologies available for meeting these loads – solar thermal, solar photovoltaics, wind, geothermal heat pumps and biomass gasification . We provide some examples of applications and indications of the advantages and barriers of the use of renewable energy for buildings.

This would be a brief lecture about the framework of the competition and the concept house that we have designed so far. The lecture would touch upon the need for sustainable construction to meet India`s exponentially growing energy and housing demands. It also contains some information about the innovations made by the team of students to navigate this complex problem. Finally, we share some insights on the importance of building interdisciplinary design processes to reach an optimum solution that is both architecturally appealing and technically sound.

Following lectures are available under this courseware.

Course Objective

Following lectures are available under this courseware.

Course Objective

Following lectures are available under this courseware.

Course Objective

Following topics will be covered in the workshop
Android Apps Programming
� Getting Started with Android
� Setting up Eclipse for Android Software Development
� Android Building Blocks
� Layouts and UI Control.
� Android Application Resources.
� Introduction to Animation and Graphics.
� Data Storage.
� Web Application Development.
� Publishing your Application.

Following lectures are available under this courseware.

Course Objective

Topics in the workshop will include:
� What are different types of research problems in educational technology.
� How to read and analyze a research paper in educational technology.
� How to convert your innovative teaching and learning idea into a research study.
� How to plan, conduct, and analyze your experimental study in educational technology.
� What are various techniques to evaluate the effectiveness of your study.
� How to create robust measurement instruments (such as questionnaires).

Following lectures are available under this courseware.

Course Objective

Topics in the workshop will include:
� What are different types of research problems in educational technology.
� How to read and analyze a research paper in educational technology.
� How to convert your innovative teaching and learning idea into a research study.
� How to plan, conduct, and analyze your experimental study in educational technology.
� What are various techniques to evaluate the effectiveness of your study.
� How to create robust measurement instruments (such as questionnaires).

Following lectures are available under this courseware.

Course Objective

Introduction to thermodynamics. Historical development.
Basic definitions. Properties of systems. Equilibrium, processes, interactions. The work interaction. Thermodynamic definition, characteristics, and evaluation of work.

The First Law. Energy of a system. The heat interaction. Zeroth law.
Scales of temperature. Ideal gas temperature scale. The state principle.
Equations of state. Properties of fluids. Introduction to steam tables.

The Second Law. Kelvin-Planck statement. Carnot theorem. Kelvin scale.
Equivalence of scales.
Clausius inequality. Definition of entropy. Formulation of second law for closed systems. Property relations.
Applications to equations of state.

First law for open systems. Derivation of the general form. Special cases. Steady-flow energy equation. Second law for open systems.

Availability and energy. Lost work. Introduction to cycles. Classifications of cycles. Implementation of cycles. Gas power cycles.
Vapour power cycles. Refrigeration (reversed) cycles.

Following lectures are available under this courseware.

Course Objective

Introduction to thermodynamics. Historical development.
Basic definitions. Properties of systems. Equilibrium, processes, interactions. The work interaction. Thermodynamic definition, characteristics, and evaluation of work.

The First Law. Energy of a system. The heat interaction. Zeroth law.
Scales of temperature. Ideal gas temperature scale. The state principle.
Equations of state. Properties of fluids. Introduction to steam tables.

The Second Law. Kelvin-Planck statement. Carnot theorem. Kelvin scale.
Equivalence of scales.
Clausius inequality. Definition of entropy. Formulation of second law for closed systems. Property relations.
Applications to equations of state.

First law for open systems. Derivation of the general form. Special cases. Steady-flow energy equation. Second law for open systems.

Availability and energy. Lost work. Introduction to cycles. Classifications of cycles. Implementation of cycles. Gas power cycles.
Vapour power cycles. Refrigeration (reversed) cycles.

Following lectures are available under this courseware.

Course Objective

The objective of this workshop is to introduce the tablet computers in general, and Aakash tablets in particular, to the participating faculty. The emphasis will be on using applications specially developed for Aakash at IIT Bombay, for effective use of these tablets in the educational process.

Following topics will be covered in the workshop
- Introduction to tablet computers and Aakash.
- Applications available on Android platform
- Storing and accessing contents using Aakash
- Special educational applications:
   Clicker software for conducting tests.
   Proximity application to develop interactive  lessons
   Programming environment on Aakash (C, C++, Python, Scilab)
   Engineering application
- Robot Control
- Research and Development projects involving Aakash
- Future roadmap for Aakash

Following lectures are available under this courseware.

Course Objective

The objective of this workshop is to introduce the tablet computers in general, and Aakash tablets in particular, to the participating faculty. The emphasis will be on using applications specially developed for Aakash at IIT Bombay, for effective use of these tablets in the educational process. Following topics will be covered in the workshop.

• Introduction to tablet computers and Aakash.
• Applications available on Android platform
• Special educational applications:
• Clicker software for conducting tests.
• Proximity application to develop interactive lessons
• Programming environment on Aakash(C, C++, Python)
• Engineering application - Robot Control

Following lectures are available under this courseware.

Course Objective

The objective of this workshop is to introduce the tablet computers in general, and Aakash tablets in particular, to the participating faculty. The emphasis will be on using applications specially developed for Aakash at IIT Bombay, for effective use of these tablets in the educational process. Following topics will be covered in the workshop.

• Introduction to tablet computers and Aakash.
• Applications available on Android platform
• Special educational applications:
• Clicker software for conducting tests.
• Proximity application to develop interactive lessons
• Programming environment on Aakash(C, C++, Python)
• Engineering application - Robot Control

Following lectures are available under this courseware.

Course Objective

This course will provide an introduction to research for scientists and engineers. The goal of the course is to take a researcher through the various aspects and steps of a research project. Topics covered in the course are classified into the following main categories:
* Productive Thinking Skills
* Scientific Method and Experimentation Skills
* Communication Skills - Written and Oral
* Management of research - Time management, stress management, professional ethics

Following lectures are available under this courseware.

Course Objective

Part I : Essentials of Fluid Mechanics and Introduction to Finite Difference Method.
1. Introduction, Mathematical background.
2. Integral analysis of fluid dynamics and its applications to a few problems.
3. Kinematics of fluid motion: Eulerian and Lagrangian approaches, rates of change, graphical descriptors of fluid motion, kinematic decomposition of fluid motion.
4. Differential analysis of fluid dynamics: derivations of governing equations (mass, momentum, energy), sub-models for simplified situations, non-dimensionalization of the governing equations.
5. Some analytical solutions to the Navier-Stokes equations in cartesian and cylindrical geometries.
6. Introduction to the Finite Difference Method of numerical solution: Application to diffusion equation - explicit and implicit methods of solution, Application to Laplace equation - iterative method of solution.

Part II : Finite Volume Method for Fluid Dynamics and Heat Transfer Governing Equations.
1. 1-D and 2-D Unsteady State Heat Conduction: Finite Volume Discretization; Explicit and Implicit methods; Implementation details; Solution algorithm. Special topics: Multi-solid and non-linear Heat Conduction. Example problems.
2. 1-D and 2-D Unsteady State Heat Advection and Convection: Finite Volume Discretization; advection schemes; Implementation details; solution algorithm; Example Problems.
3. 2-D Unsteady State Fluid Flow and Heat Transfer: Finite Volume Discretization; pressure-velocity coupling; Explicit and Implicit methods; Semi-explicit and Semi-Implicit Method, Solution Methodology on Staggered and Colocated Grid, Solution algorithm; Example problems on Isothermal flow and Forced/Mixed/Natural Convection Heat Transfer.
4. Grid Generation: Structured Grid. Algebraic and Elliptic method.

Following lectures are available under this courseware.

Course Objective

This course will provide an introduction to research for scientists and engineers. The goal of the course is to take a researcher through the various aspects and steps of a research project. Topics covered in the course are classified into the following main categories:
* Productive Thinking Skills
* Scientific Method and Experimentation Skills
* Communication Skills - Written and Oral
* Management of research - Time management, stress management, professional ethics

Following lectures are available under this courseware.

Course Objective

Essentials of Fluid Mechanics :
Introduction; Eulerian and Lagrangian descriptions of fluid motion; Kinematics of fluid motion.
Derivation of governing differential equations and their Nondimensionalization; Sub-models for simplified situations; Some analytical solutions of the Navier-Stokes equations; An example of numerical solution of a model equation, using the Finite Difference Method.
Integral form of the governing equations of motion, and their physical interpretation.

Finite Volume Method for Fluid Dynamics and Heat Transfer Governing Equations:
2-D Unsteady State Heat Conduction: Finite Volume Discretization; Explicit and Implicit methods; Implementation details; Solution algorithm. Special topics: Multi-solid and nonlinear Heat Conduction. Example problems.
2-D Unsteady State Heat Convection (Advection-Diffusion): Finite Volume Discretization; advection schemes; solution
algorithm; Example Problems.
2-D Unsteady State Fluid Flow and Heat Transfer: Finite Volume Discretization; pressure-velocity coupling; Explicit and Implicit methods; Solution algorithm; Example problems. Grid Generation: Structured Grid. Algebraic and Elliptic method.

Following lectures are available under this courseware.

Course Objective

Objective

Following lectures are available under this courseware.

Course Objective

Part 1: Solar PV Fundamentals and Technologies.
Introduction to semiconductor Physics, theory of P-N junction, operation of P-N junction as solar cells, parameters of solar cells, design of solar cells, solar cell materials and technologies, fabrication of crystalline Si solar cells, solar PV modules, PV module output as function of temperature and solar radiation.

Part 2: Applications of Solar PV Technologies.
Introduction to power electronics devices, off-grid and grid-connected PV systems, components of solar PV systems, charge controller, DC-DC converter, DC-AC inverter, maximum power point tracking, energy storage options for solar PV systems, availability of solar radiation at a given location, design of off-grid PV systems, design of grid-connected PV systems, Life cycle cost analysis.

Following lectures are available under this courseware.

Course Objective

Following lectures are available under this courseware.

Course Objective

Objective

Following lectures are available under this courseware.

Course Objective

Introduction to heat transfer
Introduction, Introduction to one dimensional conduction, conduction rate equation, thermal conductivity, thermal diffusivity, Heat diffusion equation, Initial and boundary conditions,

Conduction
One dimensional steady state conduction, Plane wall, composite wall, cylinder, sphere, Critical radius of insulation, summary of all cases, One dimensional steady state conduction in plane wall and radial systems with thermal energy generation, Fins - Fin efficiency, effectiveness, length of the fin, Transient conduction- Lumped capacitance, Heisler charts, semi-infinite medium.

Convection
Physical Mechanism of Convection, Basics of fluid mechanics, Differential Convection Equations - Navier stokes equation, Energy equation, boundary layer equations for both momentum and heat transfer, Solutions of convection equations for a flat plate, Normalised dimensionless equations and similarity, analogies of heat transfer, Convective heat transfer in external flows, for general configurations, Internal forced convection - average velocity and bulk mean temperature, laminar and turbulent flow in tubes, and Natural convection.

Heat Exchangers
Types, overall heat transfer coefficient, fouling factor, Analysis of heat exchangers, Log mean temperature difference for parallel and counterflow heat exchangers, multipass and cross flow heat exchangers, use of correction factor, NTU method - Effectiveness relations for all heat exchangers, along with the charts, selection of heat exchangers.

Thermal Radiation
Introduction, thermal radiation, black body radiation - Stefan Boltzmann law,Plancks law, Wiens displacement law, Radiation intensity, solid angle, intensity of emitted radiation, incident radiation, radiosity, spectral quantities, Radiative properties, Kirchoffs law, Greenhouse effect, Radiation heat transfer - view factor, view factor relations, Black surfaces , diffuse and gray surfaces, Net radiation heat transfer between any two surfaces, methods of solving radiation problems, radiation heat transfer in two and three surface enclosure, radiation shields and radiation effects.

Boiling and Condensation
Introduction to Two-Phase Flow, Nusselts theory of condensation, Pool boiling curve, Thermodynamic aspects of boiling and evaporation, Rosehnows pool boiling correlation.

Following lectures are available under this courseware.

Course Objective

Following topics will be covered in this workshop during the each weekend

• Linux Tools
• Version control systems
• LaTeX
• Basic Python
• Advanced Python
• Test Driven Development

Following lectures are available under this courseware.

Course Objective

Introduction to heat transfer
Introduction, Introduction to one dimensional conduction, conduction rate equation, thermal conductivity, thermal diffusivity, Heat diffusion equation, Initial and boundary conditions,

Conduction
One dimensional steady state conduction, Plane wall, composite wall, cylinder, sphere, Critical radius of insulation, summary of all cases, One dimensional steady state conduction in plane wall and radial systems with thermal energy generation, Fins - Fin efficiency, effectiveness, length of the fin, Transient conduction- Lumped capacitance, Heisler charts, semi-infinite medium.

Convection
Physical Mechanism of Convection, Basics of fluid mechanics, Differential Convection Equations - Navier stokes equation, Energy equation, boundary layer equations for both momentum and heat transfer, Solutions of convection equations for a flat plate, Normalised dimensionless equations and similarity, analogies of heat transfer, Convective heat transfer in external flows, for general configurations, Internal forced convection - average velocity and bulk mean temperature, laminar and turbulent flow in tubes, and Natural convection.

Heat Exchangers
Types, overall heat transfer coefficient, fouling factor, Analysis of heat exchangers, Log mean temperature difference for parallel and counterflow heat exchangers, multipass and cross flow heat exchangers, use of correction factor, NTU method - Effectiveness relations for all heat exchangers, along with the charts, selection of heat exchangers.

Thermal Radiation
Introduction, thermal radiation, black body radiation - Stefan Boltzmann law,Plancks law, Wiens displacement law, Radiation intensity, solid angle, intensity of emitted radiation, incident radiation, radiosity, spectral quantities, Radiative properties, Kirchoffs law, Greenhouse effect, Radiation heat transfer - view factor, view factor relations, Black surfaces , diffuse and gray surfaces, Net radiation heat transfer between any two surfaces, methods of solving radiation problems, radiation heat transfer in two and three surface enclosure, radiation shields and radiation effects.

Boiling and Condensation
Introduction to Two-Phase Flow, Nusselts theory of condensation, Pool boiling curve, Thermodynamic aspects of boiling and evaporation, Rosehnows pool boiling correlation.

Following lectures are available under this courseware.

Course Objective

Following topics will be covered in this workshop during the each weekend

• Linux Tools
• Version control systems
• LaTeX
• Basic Python
• Advanced Python
• Test Driven Development

Following lectures are available under this courseware.

Course Objective

Tentative syllabus as followed in IIT Bombay for a course on Basic Electronics, is given below :

• Semiconductor Devices: Diode, Zener circuits
• BJT: simple biasing methods, Power supply
• OPAMP based circuits including Schmitt trigger and astable multivibrator
• Feedback amplifiers, Oscillators, Boolean logic, basic gates, truth tables, logic minimization using K maps, combinatorial and sequential circuits, DAC and ADC
• Introduction to Communication Engineering

Following lectures are available under this courseware.

Course Objective

Introduction

Following lectures are available under this courseware.

Course Objective

Part 1: Solar PV fundamentals and technologies (about 20 hours) Introduction to semiconductor Physics, theory of P-N junction, operation of P-N junction as solar cells, parameters of solar cells, design of solar cells, solar cell materials and technologies, fabrication of crystalline Si solar cells, solar PV modules, PV module output as function of temperature and solar
radiation.

Part 2: Applications of solar PV technologies (about 20 hours) Introduction to power electronics devices, off-grid and grid-connected PV systems, components of solar PV systems, charge controller, DC-DC converter, DC-AC inverter, maximum power point tracking, energy storage options for solar PV systems, availability of solar radiation at a given location, design of off-grid PV systems, design of grid-connected PV systems, Life cycle cost analysis.

Following lectures are available under this courseware.

Course Objective

Tentative syllabus as followed in IIT Bombay for a course on Basic Electronics is given below :
Semiconductor Devices: Diode, Zener circuits,
BJT: simple biasing methods, Power supply
OPAMP based circuits including Schmitt trigger and astable multivibrator.
Feedback amplifiers, Oscillators, Boolean logic, basic gates, truth tables, logic minimization using K maps, combinatorial and sequential circuits, DAC and ADC.
Introduction to Communication Engineering.

Following lectures are available under this courseware.

Course Objective

Objective

Following lectures are available under this courseware.

Course Objective

The Course contents includes the following concept of Database Management Systems :
(a) Introduction to Database Management System.
(b) Introduction to Relational Model, Entity - Relationship (ER) Model and Relational Database Design.
(c) Introduction to Structured Query Language, Set Operations, Aggregate Functions and Joins.
(d) Nested Sub-queries.
(e) Intermediate SQL and Advanced SQL.
(f) Application Design and Development.
(g) Storage and file Structure.
(h) Indexing and Hashing.
(i) Query Processing and Optimization.
(j) Transactions, Concurrency Control and Recovery System.
(k) Map Reduce, Distributed Data Stores and NoSQL Databases.

Following lectures are available under this courseware.

Course Objective

The Course contents includes the following concept of Database Management Systems :
(a) Introduction to Database Management System.
(b) Introduction to Relational Model, Entity - Relationship (ER) Model and Relational Database Design.
(c) Introduction to Structured Query Language, Set Operations, Aggregate Functions and Joins.
(d) Nested Sub-queries.
(e) Intermediate SQL and Advanced SQL.
(f) Application Design and Development.
(g) Storage and file Structure.
(h) Indexing and Hashing.
(i) Query Processing and Optimization.
(j) Transactions, Concurrency Control and Recovery System.
(k) Map Reduce, Distributed Data Stores and NoSQL Databases.

Following lectures are available under this courseware.

Course Objective

Objective

Following lectures are available under this courseware.

Course Objective

Objective

Following lectures are available under this courseware.

Course Objective

Introduction

Following lectures are available under this courseware.

Course Objective

This specific pilot proposal is to execute one complete life cycle for a subject covering all aspects of the designed methodology. The subject chosen for the pilot is ‘Effective teaching and learning of Computer Programming’. This course is taught in all engineering/MCA colleges in the country. An estimated 7,00,000 students study this subject every year, taught by about 7000 to 10000 teachers for lectures, tutorials and labs, typically in the first year of all branches of engineering.

Following lectures are available under this courseware.

Course Objective

Introduction

Following lectures are available under this courseware.

Course Objective

There has been an increase in the number of young and ambitious people, who are keenly exploring technology entrepreneurship. There have been many efforts to encourage this trend, notably by the National Entrepreneurship Network (NeN) run by Wadhwani foundation, and by the Department of Science and Technology through its active support for setting up Technology incubators.

The youth involved in these start-ups, have a fair idea of the technology being used. They understand the basics of building a company from scratch, making and altering business plans, estimating cash flows, engagement with VCs, etc. However, one challenge that is faced is the lack of understanding the importance of marketing. Even those who learn the basics of marketing, are often unable to apply these to the real life situation of a start-up.

IIT Bombay, had conducted workshop to address this special need. The lectures were transmitted live, and were received at various remote centres across the country, through synchronous distance mode, along with the interaction of participants.

The topic includes:
Elaborate on the basics of marketing, Address specific issues, which are of prime concern to young technology start-ups
Help them decide the right marketing approach and strategy.

Need for Marketing Mantra
Marketing and Customer Values
Segmentation and Targeting
Discussion on Case of RHINO ALMIRAHS
Product Brands and Differentiation
Marketing Research
A Hands on Guide to Market
Why Network?
Experimental Skills

Following lectures are available under this courseware.

Course Objective

There is a huge need for manpower training in the area of VLSI Design and Embedded Systems. The widely quoted report from Dr. F. C. Kohli and several reports from the Indian Semiconductor Association have emphasized the growing gap between the demand and availability of quality manpower in these areas. Simultaneously, there is a great shortfall in the number of trained faculty required in these areas. Therefore, we need a series of courses, which will enable faculty with the required background to teach courses in this important area. The courses should be tailored to cover the topics included in the courses for VLSI and Embedded Systems curricula. This course is the first in a series of courses planned. In this short-term course, we will explain how to teach the topics included in the course Analog and Mixed Signal Design.

Following lectures are available under this courseware.

Course Objective

Indian Institute of Technology Bombay has been actively involved in providing support to start-up enterprises ever since 1999 when it set up an IT business incubator in the Kanwal Rekhi School of Information Technology. The success of this incubator led to the establishment of a full-fledged technology business incubator to include companies from non-IT sectors as well. The Society for Innovation and Entrepreneurship (SINE) was set up in 2004 to administer this incubator. The success enjoyed by SINE and its incubatee companies initiated the urge to take entrepreneurship incubation further, and to assist in the development of incubation activities happening elsewhere in the country.

The three-and-a-half day workshop on œEstablishing and operating a Business Incubator� is aimed towards sharing the knowledge and the expertise gained by IIT Bombay and SINE during the past years, with other individuals and institutes interested in setting up similar incubators. The workshop intends to take the participants through an exhaustive guided tour of the entire process of setting up of a business incubator and of operating it using best-of-breed processes to help entrepreneurs build strong and lasting business companies. The workshop will include talks by leading experts in the field, and sharing of experiences by past and present companies of the IIT Bombay incubator and SINE.

Following lectures are available under this courseware.

Course Objective

The course is designed to take a research scholar through the various steps that confront him/her when he/she begins the research project. Some of the salient topics covered are:
Thinking, Problem finding, Scientific Method, Experimentation, Modeling, Dimensions of Communication, Technical communication, Time / stress management and Professional ethics.

Following lectures are available under this courseware.

Course Objective

The couuse will ingtroduce the concepts of relational data bases to existing prograrammers familer with procedural programming languages and conventional file systems.

Introduction to Data base, Relational model, Schema disign, SQL Programming, Transaction, Recovery, Migration from legacy systems.

Following lectures are available under this courseware.

Course Objective

As enterprises seek to keep up with fast changing market conditions, the software platform that they operate their businesses on must change at the same pace. However the existing software paradigms of client server or even multi-tier computing with standards such as J2EE do allow for rapid evolution of IT environments. A new paradigm is in its evolutionary stages where software functionality is bundled as services and the service is available for run time access as opposed to a component that must be compiled into the application. During this workshop we will discuss service orientation and the current set of standards known as Web Services in this space.

The course will first provide an introduction to the concept of service orientation using Web services as the implementation platform.

Following lectures are available under this courseware.

Course Objective

In the recent years, many advanced technologies have been evolved in engineering field such as remote sensing, GIS, artificial neural networks, genetic algorithms, etc. along with the optimization techniques. Solution to most of the engineering problems, have become easier by application of these technologies. Water Resources is the thrust area where we need advance technologies for overall management.

The short-term course aims to include the following themes with particular emphasis to water resources: Artificial Neural Networks Genetic Algorithms Optimization Techniques Remote Sensing Techniques Geographic Information Systems Advanced numerical methods Hydroinformatics

Following lectures are available under this courseware.

Course Objective

The course provides hands-on practice with different teaching methods in engineering and gives opportunities to participants to equip themselves for transferring their learning to their colleagues. The main topics to be covered are:
Changed role of Engineering Teachers today and Teaching Effectiveness. Evaluation and Analysis of Teaching Effectiveness
-Demos by two Effective Teachers of Engineering
-Understanding the Learning Process - Motivating Students to learn better.
Preparing a Course Outline and writing Instructional Objectives
- Designing the Curriculum
- Interactive Teaching Methods and Good Lecturing.
Testing and Grading Etiquette for Teachers
- Preparing a Career Path
- Time and Stress Management
- How to write Research Theses/Papers/ Project Proposals.

Following lectures are available under this courseware.

Course Objective

The course will first provide a rapid introduction to the Python programming language (ideally participants should be familiar with the language before the workshop begins) and the standard library. The following topics will then be covered:

* Efficient array processing in Python using NumPy.
* Interactive 2D plotting using matplotlib.
* SciPy for general purpose numerical algorithms.
* Interfacing Python with FORTRAN, C and C++ using f2py and SWIG.
* The notion of MVC design and the use of Traits/TraitsUI to easily create sophisticated graphical user interfaces.
* Adding 2D plots to applications using the Chaco toolkit.
* An overview of the Visualization Toolkit library and the TVTK package for 3D visualizations from Python.
* Extensible plugin-based application frameworks using Envisage.
* Scientific data visualization using MayaVi2.
* Building a sample application using the above tools.

Following lectures are available under this courseware.

Course Objective

Mechatronics is an integration of mechanical design, information technology and automatic control systems. This course introduces participants to actuators, sensors, servo control, and digital systems and how these are brought together in Mechatronics. There is also an introduction to robotics, some principles of control of servo manipulators and to other types of robots.

Following lectures are available under this courseware.

Course Objective

The course starts by refreshing the basics of distillation and phase equilibrium, and then concentrates on each of the different distillation types. The conventional distillation systems with their unique features are dealt with in the beginning. Focus then shifts to azeotropic distillation (both homogeneous and heterogeneous), extractive distillation and Reactive distillation, which are both challenging as well as have novel theoretical tools being developed to understand them better. A few lectures also address other related issues that are of relevance like Heat-Integrated Distillation Columns (HIDC), some features of process control of distillation columns, etc.
Experiments to generate VLE data and obtain the interaction parameters using a commercial simulator, and distillation experiments on a lab-scale plant, are a part of the course. The ability of a simulator to predict this experimental data using an appropriate model is demonstrated in the tutorials. Use of tools like conceptual design in obtaining a column sequence, deciding the product purity for a given feed composition, etc. are also dealt with. Talks by experts from the industry on relevant issues are also included.

Following lectures are available under this courseware.