A. Basic Courses

1. Crystallographic aspects of Materials and their functionalities including point and space group

2. Growth of single crystalline materials in different forms including thin films

  a. Bulk growth

      Solution growth including Low Temperature and High Temperature

      Melt growth including Bridgman – Stockbarger , Cz, Float – Zone etc.,

  b. Thin films – LPE, VPE, MOCVD, MBE, Sputtering, PLD etc

3. Introduction to Phase diagrams and phase transitions

4. Characterisation

   i. Structural (X-ray, synchrotron, surface etc.,) and memory materials

   ii. Optical (Linear and Nonlinear)

   iii. Crystal Defects

   iv. FTIR/Raman

   v. Modelling

5. Growth Kinetics

    Theoretical and experimental aspects of crystal growth

    Nucleation and growth of thin films

6. Applications

  · Importance and challenge associated with selected functional materials

  · Hetero structures of functional semiconductors

  · Materials for white light emitting devices( including demonstration)

  · Quantum wells and super lattices

  · Magnetic and superconducting thin films

  · Piezo, pyro and ferro electric based devices

  · Thermoelectric based devices

B. Special courses

1. Evolution in the Capacity to Create Crystalline Materials by Design, Computational Techniques

2. Ferroelectrics and relaxer materials

3. The Development of Next-Generation Crystalline Materials— New States of Matter and New Materials—for Future Information and Communications Technologies. Industrial Crystallization

4. Dielectric & Wide Bandgap Materials, SiC, semiconductor

5. Processing of crystals and other solid state materials (cutting, grinding, lapping, polishing, formatting) and Testing of auxiliary materials  (e.g. crucibles and thermal insulation materials) under extreme conditions

Crystal Characterisation

1. Fundamental analysis using XRD: Crystal structure, Diffraction of X-rays, Reciprocal lattice, Miller indices, Unit cells, Stereographic projection, Equilibrium shape of crystals

2. Thermo-analytical investigations (TG, DTA, TSC, coupled with mass spectrometry)

3. A great variety of methods for the physical characterization of crystalline material with respect to structural perfection, optical and  electrical  properties

4. Electrical properties of grown crystal (Ferroelectric, dielectric, pyroelectric, piezoelectric, photoelectric properties)

5. Qualitative and quantitative chemical analysis of major and minor constituents and traces of impurities by most advanced physical and chemical analytical techniques

Laboratory

Hands on training of growing single crystals and realisation of devices

1. Crystal Growth

    Training on Crystal Growth of single crystals by Solution growth, Melt grown crystals by Bridgeman method, Chokrolski method and Top seeded solution growth method.

2. Thin film

    Training on thin film preparation by PECVD, Sputtering etc.,

3. Characterisation of the grown crystals

4. Device fabrication of the grown crystals

Popular lectures/Evening Lectures

**This is a tentative program guide. Content may change slightly.

Applications are invited from research scholars, post-doctoral fellows and young faculty with research interests in related areas, for participation in this school. Few final year students of M.Sc. and M.Tech. with strong motivation to pursue research in these areas will be selected.

All the selected participants will be provided to and fro train fare and local hospitality. Interested persons should send the following to the school director through email or post,

(i) curriculum vitae including full postal and email address

(ii) brief write up of current research areas

(iii) list of publications, if any

iv) letter of recommendation from head of the department

(v) a short write up on how the candidate is expected to benefit from the school to enhance his research activities.