IIT Hiring PhD Chemistry

IIT Hiring PhD Chemistry. Apply Now!

IIT Kanpur welcomes applications from PhD graduates in Chemistry and Chemical Engineering for the position of Post-doctoral Fellow. Join our prestigious institution to pursue advanced research opportunities and contribute to cutting-edge scientific advancements.

Job Title: Project Post-doctoral Fellow

Institute: IIT Kanpur

Job Description: The candidate will work on the designing the lab scale set up for CO2 Capture from flue gas/direct air. The candidate will synthesis novel porous adsorbent and characterize it for finding suitable materials for CO2 capture & conversion to useful chemicals.

IIT Hiring PhD Chemistry. The essential qualification is :

  • Ph.D. in Chemical Engineering/ Chemistry with quality publications.
  • The candidate should have strong experience in synthesis porous adsorbents, and its use in gas separation and storage.
  • Candidate should have strong experience with GCMS, BET, FTIR, etc.
  • Candidate with experience on MOF preparation and characterization would be preferred.

Duration of Appointment:

  • The appointment will be upon satisfactory performance in the interview.
  • The appointment for the above posts initially will be for 1 year, which is extendable for 1 years.
  • The post is purely temporary and on a contractual basis.

Salary: INR 60,000/ per month (consolidated).

Last date for receipt of application: Sep

30, 2023. Interested candidates should send their application along with the resume to [email protected]


IIT Hiring PhD Chemistry. The possible interview Q & A to help you with:

Q: Can you describe your experience in designing and setting up lab-scale systems for CO2 capture?

A: Certainly. In my previous role as a researcher at [Previous Institution], I was responsible for designing and implementing lab-scale setups for CO2 capture from various sources, including flue gas and direct air. I collaborated with a multidisciplinary team to develop custom equipment and establish the necessary protocols to simulate real-world conditions for efficient CO2 capture.

Q: What methods or techniques have you previously used for the synthesis and characterization of porous adsorbents, and what were the outcomes of your research?

A: In my research, I have employed a combination of techniques such as sol-gel synthesis, chemical vapor deposition, and various spectroscopic and microscopic characterization methods to develop and analyze porous adsorbents. For instance, one of my projects involved synthesizing zeolite-based adsorbents, which exhibited high CO2 adsorption capacities and excellent stability under cyclic adsorption-desorption conditions.

Q: Could you provide an example of a challenging situation you encountered during your research on CO2 capture and how you successfully addressed it?

A: During my research, we faced challenges related to optimizing the pore structure of the adsorbent to enhance CO2 capture efficiency. To overcome this, we conducted an extensive parameter study and modified the synthesis process. Through systematic experimentation and analysis, we ultimately achieved a breakthrough by tailoring the adsorbent’s properties for improved performance.

Q: How do you prioritize and select materials for CO2 capture and conversion? What criteria do you consider when characterizing and evaluating their suitability?

A: Material selection is critical for effective CO2 capture and conversion. I prioritize materials based on factors like high adsorption capacity, selectivity, thermal stability, and regenerability. Characterization methods such as BET surface area analysis, X-ray diffraction, and FTIR spectroscopy are essential to evaluate these properties and ensure the suitability of the materials for the specific application.

Q: Can you share any specific examples of your previous work where you successfully converted captured CO2 into useful chemicals, and what were the key findings or applications of that research?

A: Certainly. In a previous project, we captured CO2 from flue gas using a tailored adsorbent and subsequently converted it into formic acid through a catalytic process. This work contributed to sustainable carbon utilization and the production of a valuable chemical feedstock. Our key findings included a significant reduction in greenhouse gas emissions and the potential for scaling up the process for industrial applications.


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