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Alumni Interaction





        We conducted a lecture series where our alumni shared their research work and experience to engage our
        research students with various opportunities.

        Erasmus Mundus Master: exploring European Culture, Universities and Large-Scale Facilities
        Ms. Sreelakshmi Kottarappilly Balachandran, Erasmus Mundus Joint Master Degree, Technical University of Munich, Munich,
                            th
        Germany, February 10
        MaMaSELF+ is a two-year international Master’s course in Materials Science fully taught
        in  English,  delivering  multiple  master’s  degrees,  and  recognized  as  a  European
        formation  of  excellence  in  this  field  since  2007.  The  consortium  includes  6  primary
        European  Universities  in  the  field  of  Materials  sciences,  Engineering  Physics,  and
        Chemistry  in  France,  Germany,  Italy,  and  Poland.  The  joint  program  covers  the
        fundamentals of Materials: structure and dynamics of condensed matter, and chemical,
        mechanical and physical properties of materials. One specific aim of the MaMaSELF
        program is to emphasize the application of "Large scale facilities" for the characterization
        and  development  of  materials.  The  program  structure  consists  of  3  semesters  of  lectures  and  a
        4thsemester dedicated to a Master-thesis / internship in highly recognized European Universities.

        Applications of Different Types of Optical waveguides
                                                                                                 th
        Dr. Ritapa Bhattacharjee, Post-Doctoral Fellow - City University of London, United Kingdom, China, April 18
        Optical waveguides provide a non-destructive technique to find different types of testing
        and detection application in several fields. The designing of optical waveguides plays a
        key  role  to  determine  their  operation.  Some  common  optical  waveguides  are  optical
        fibers, rigid bulk waveguides, slot waveguides, etc. It is possible to regulate the effective
        refractive  index  of  light  by  changing  the  size,  shape,  and  material  of  a  particular
        waveguide. Optical waveguides have various uses in dispersion engineering, harmonic
        generation,  ultrafast  optics,  etc.  Here  application  of  photonic  quasi-crystal  fibers  for
        second harmonic generation and the application of slot waveguides as the sensor will be mainly focused
        on. Further, it will be shown how the geometry and material of a particular waveguide affect the effective
        refractive index and power of light passing through the waveguide and thus affects the required applications.

        Recent advances in plasmonic sensor-based fiber optic probes for biological sensors
                                                                                        th
        Dr. Aruna Gandhi MS, Post-Doctoral Fellow - Peking University, China, June 23
                                              Diagnostic  tools  have  been  the  need  of  the  hour
                                              owing  to  the  several  threatful  diseases  in  human
                                              society.  With  the  appreciable  increase  in  the
                                              incidences of risk factors, there is a great need for a
                                              tool that can be quick and reliable with high accuracy
                                              in  detecting  infected  bioagents  in  biological
                                              samples. The fiber-based biosensor can serve as a
                                              low-cost,    efficient    device     for   day-to-day
                                              applications. Fiber optic plasmonic sensors use an
        optical field to measure biological agents. Due to their unique sensing performances, fiber optic plasmonic
        sensors turn out to be potential alternatives to conventional fiber optic sensors. Fiber optic plasmonic
        sensors use optical transduction mechanisms to enhance sensitivity and resolution. The transduction


        CFM Newsletter Jan. – Dec. 2022                         25                                    Vol – 2
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