Interdisciplinary Nanotechnology Centre
Courses offered
Courses Offered
Program Name: Ph.D
Specialization: (Nanotechnology)
Number of Seats : Vacancies are shown on the website of Controller of
Exams
Post Graduate Programme
Programme Name: Master of Technology in Nanotechnology
Number of Seats : 15
Eligibility Criteria :
Jobs Prospects :
Research and Development in industry and academia.
Programme Name : Advance Post Graduate Diploma in Nanotechnology
Number of Seats : 10
Eligibility Criteria :
Jobs Prospects :
Program Educational Objectives (PEO's) and Program Outcomes (PO's)
Program Educational Objectives (PEO's):
PEO-1: To prepare students with sound theoretical and experimental knowledge in the multidisciplinary field of nanotechnology.
PEO-2: To inculcate state-of-the–art skills in the students for producing various nanomaterials useful for energy, environment, medicine, agriculture and defense.
PEO-3: To encourage students to pursue research in this field and/or become entrepreneurs.
Program Outcomes (PO's):
Ability to apply knowledge of physics, chemistry, biology and mathematics to formulate and analyze nanotechnological problems and to develop nanomaterials.
Ability to design and solve problems related to the needs of the society.
Ability to use modern tools and techniques for solving the problems in emerging areas.
Ability to identify and solve research problems in core and related multidisciplinary areas for rapidly changing technologically advancing society.
Ability to develop effective written and oral communication skills.
Ability to understand the ethical, professional and societal responsibilities.
Ability to manage nanotechnological projects and problems effectively under practical and environmental constraints.
Ability of independent thinking and lifelong learning.
Course Outcomes (COs)
Fundamentals
of Nanotechnology
After
completion of this course, students shall be able to:
1. Understand the history, background and nature of nanoscience and
nanotechnology as well as the quantum
and nanosized scale effects on materials.
2. Understand the ethical aspects of
nanotechnology
3.
get acquainted with the relation between biological materials
and nanotechnology
4. acquire theoretical understanding of different types of carbon
materials and its application in nanotechnology
Quantum Mechanics
After
completion of this course, students shall be able to:
1. understand a working knowledge of the foundations, techniques and
key results of quantum mechanics
2.
become aware of the necessity
for quantum methods in the analysis of physical systems of atomic and solid
state physics
3.
Appreciate the applications of
quantum mechanics in physics, engineering, and
related fields
4.
understand scientifically the
new applications of quantum physics
in computation
5.
gain advanced studies involving
applications of quantum mechanics
Physics and
Chemistry of Solids
After
completion of this course, students shall be able to:
1. analyze their experimental results in terms of structural,
electrical properties and the effect of different imperfections on them
2.
Apply core concepts in solids
to solve engineering problems and possess the skills and techniques necessary for modern materials
engineering practice
3.
understand the professional and
ethical responsibilities of a solid state physicist and engine
Elements of
Physical Chemistry
After
completion of this course, students shall be able to:
1.
understand the foundation of
physical chemistry
2. realizes the importance of thermodynamics which is the main gradient
of this course in nanotechnology and in fact in any technology.
3.
Apply the thermodynamic
reasoning in the synthesis of nanomaterials
Synthesis and
characterization of Nanomaterials
After
completion of this course, students shall be able to:
1.
familiarise the student with
various existing techniques used in nanotechnology
2. understand the physical principles/concepts involved in fabrication of the materials
at nano scale
3.
fabricate /synthesize the nano
material in the laboratory
4.
characterize the prepared
materials with different available technique
Nanobiotechnology
After
completion of this course, students shall be able to:
1.
understand the structure
and function of basic biological
entity
2.
get familiarized with the biological synthesis of
Nanoparticles.
3.
designing
nanoparticle-biomolecule hybrid systems for bioelectronics devices
4.
understand the idea of
therapeutic application of nanoparticles and nanodevices
Properties
of Nanomaterials
After
completion of this course, students shall be able to:
1. understand the concept of
various kinds of account different properties in
terms of variation of size of the particles
2.
express
their results in terms of quantum mechanical confinement which are occurring
below certain size of the particle
3. design and manipulate nanomaterials in terms
of their particle size
Nanocomposites
After completion
of this course, students shall be able to:
1.
Nanocomposites and explore
different aspects of their preparation techniques
2. Discuss various properties of nanocomposites and study mechanical
properties of super hard nanocomposites
3.
Design super hard nanocomposites
4.
Learn about preparation and
characterization of polymer based nanocomposites
Nanosensors
and Nanodevices
After
completion of this course, students shall be able to:
1.
understand the basic concept of
nanosensor, biosensor and biochip
2.
learn the characteristics and
physical effects of nanosensor
3.
probe and understand various
biological sensors
4. learn and implement the knowledge in designing the nanosensor for
various applications
Carbon
nanotubes and its functionalization
After
completion of this course, students shall be able to:
1. get comprehensive knowledge of carbon nanotubes, their properties
and applications.
2. understand various methods of synthesis and characterisation of carbon nanotubes
3.
understand the physics behind
the unusual properties displayed by
carbon nanotubes
4. understand the functionalization of carbon nanotubes with various
inorganic functional groups
Molecular Nanoelectronics
After completion of this course, students shall be able to:
1. get the basic knowledge of molecular nanoelectronics used in future
electronic industry
2. have an idea of designing various nanoelectronic devices
3. get familiarize with theory and applications of spintronics
Semiconductor
nanostructure & nanoparticles
After
completion of this course, students shall be able to:
1.
have the knowledge of
semiconductors nanoparticles and their synthesis
2.
design an application of these
nanoparticles in LED and solar cells
3.
learn the application
strategies in semiconductor nanowires
MEMS and their
applications
After
completion of this course, students shall be able to:
1.
understand the concept of MEMS
and its compatibility with microelectronics
2.
learn the techniques of
material processing
3. understand how to use these materials for sensing applications in
high temperature and harsh environment
Nano-Entrepreneurship
After completion
of this course, students shall be able to:
1. explain the general working structure and different issues involved
in various industries
2. understand the Indian business laws
3.
acquire knowledge of
nanotechnology entrepreneurship
Graphene and
its applications
After
completion of this course, students shall be able to:
1.
learn the methods of synthesis & characterisation of graphene and graphene oxide
2.
understand the physics behind
the unusual properties displayed by graphene
3. understand its application in graphene transistors, transparent
conducting electrodes, photo detectors, light emitting diodes, photo voltaics,
graphene sensors etc.
NTC-6900 Lab I
After
completion of this course, students shall be able to:
1. learn different tools of experimental setup like Four probe
resistivity, Hall Effect, FTIR. etc.
2. use these tools to enhance the knowledge for understanding
nanomaterials in a fascinating way.
3. present the performed experiment in form of reports
NTC-6910 Lab II
After
completion of this course, students shall be able to:
1. learn different tools of experimental setup like Resistivity by two
probe method, Frequency dependence of dielectric, Curie temperature of BaTiO3, etc.
2. use these tools to enhance the knowledge for understanding
nanomaterials in a fascinating way.
3. present the performed experiment in form of reports