Hello.

Please start by introducing your professional journey in academia

I am doctor. Punekoti. Yellow Malai. I have. Completed. My doctoral degree. On. 2017.

I am doctor. Punekoti. Yellow Malai. I have. Completed. My doctoral degree. On. 2017. In the. Department of Biotechnology.

Alright, Dr. Punekoti, you mentioned completing your doctoral degree in 2017. Can you tell me about a foundational concept in your field that you particularly enjoy teaching to students?

I am doctor. Punekoti. Yellow Malai. I have. Completed. My doctoral degree. On. 2017. In the. Department of Biotechnology. At Thiruvalluvar. University.

I am doctor. Punekoti. Yellow Malai. I have. Completed. My doctoral degree. On. 2017. In the. Department of Biotechnology. At Thiruvalluvar. University. Value in India.

Okay, so you completed your doctorate in the Department of Biotechnology back in 2017. When you're teaching undergraduates or new graduate students, is there a particular core topic in biotechnology that you find especially rewarding to introduce them to?

Alright, Dr. Punekoti, so you earned your doctorate in Biotechnology from Thiruvalluvar University in 2017. When you first introduce students to biotechnology, what’s one core concept or experiment you love to use to spark their curiosity?

Okay, so you completed your doctoral degree in Biotechnology at Thiruvalluvar University, India, in 2017. When you teach new students, is there a particular experiment or lab activity in biotechnology that you think really helps them grasp the fundamentals?

Still I did not. Teach student. Anyone.

Still I did not. Teach student. Anyone. I walking you. Film completely. Research. Aspect.

Dr. your publication “Biofilm formation, occurrence, microbial communication, impact and characterization methods in natural and anthropic systems” in Environmental Chemistry Letters caught my attention. How would you introduce the concept of biofilms to undergraduate students in a way that makes them appreciate its significance in both industry and the environment?

Right, you haven't taught yet and your work has been focused entirely on research. Let's talk about your publication on biofilm formation—if you were to explain the importance of biofilms to someone with no science background, how would you break it down so they could understand its significance?

I did my. Doctor Research. In microbial influenced corrosion.

I did my. Doctor Research. In microbial influenced corrosion. The microbial influence, the corrosion. Is root cause of. Bioflame.

Alright, so your doctoral research focused on microbial influenced corrosion. If you had to explain why this area matters to someone with no background in biotechnology—say, a first-year undergraduate—how would you make it clear why microbial corrosion is important in real life?

I did my. Doctor Research. In microbial influenced corrosion. The microbial influence, the corrosion. Is root cause of. Bioflame. The. Is the. Responsible for the. Microbead influenced corrosion.

Okay, so your doctoral research was on microbial influenced corrosion, which you said is the root cause of biofilm formation. If you were explaining microbial influenced corrosion to someone with only a high school science background, how would you help them understand why it matters in the real world?

I did my. Doctor Research. In microbial influenced corrosion. The microbial influence, the corrosion. Is root cause of. Bioflame. The. Is the. Responsible for the. Microbead influenced corrosion. The but. Lifefully consist of. Sugar molecules. And other lipid. Those uh. Can enhance the. To. Microorganism.

Alright, so your doctoral research focused on microbial influenced corrosion, and you connected that to biofilm as a root cause. Shifting gears, if you were to design a laboratory module for students to observe microbial induced corrosion firsthand, what experiment would you choose and how would you make it accessible to undergraduates who are new to the topic?

I did my. Doctor Research. In microbial influenced corrosion. The microbial influence, the corrosion. Is root cause of. Bioflame. The. Is the. Responsible for the. Microbead influenced corrosion. The but. Lifefully consist of. Sugar molecules. And other lipid. Those uh. Can enhance the. To. Microorganism. And initiate the. Oxidation. Reaction, reaction. On metal surface. So this. Can form corrosion. On metal surface. Ferrous. Oxides.

Okay, so your doctoral research in microbial influenced corrosion really digs into how biofilms, with their sugars and lipids, can enhance the ability of microorganisms to impact corrosion. Shifting topics, have you ever collaborated with industry or worked on a consultancy project related to your research?

Okay, so your research really gets into how the sugars and lipids in biofilms help microorganisms corrode metal surfaces. Given that background, where do you see the most fundable directions in microbial influenced corrosion research over the next few years? Which specific grants or funding sources would you target to sustain a research group in this area?

Actually. My doctoral studies. Is on microbial influence corrosion?

Alright, you've made clear your focus is microbial influenced corrosion. Shifting topics, Dr., as VIT University is recognized for its interdisciplinary culture, how would you contribute to collaborative research efforts across different departments while also enhancing your personal scholarly output?

Actually. My doctoral studies. Is on microbial influence corrosion? Later I have. Have joined. Poster doctor research. South Korea. A completely. On pesticide. Pollution.

Actually. My doctoral studies. Is on microbial influence corrosion? Later I have. Have joined. Poster doctor research. South Korea. A completely. On pesticide. Pollution. The pesticide. Pollution is. Major threatened environmental. Nowadays. So I have. Pesticide. Studied of pesticide. On the agricultural soils.

Actually. My doctoral studies. Is on microbial influence corrosion? Later I have. Have joined. Poster doctor research. South Korea. A completely. On pesticide. Pollution. The pesticide. Pollution is. Major threatened environmental. Nowadays. So I have. Pesticide. Studied of pesticide. On the agricultural soils. Call Sai. At various different parts of the region of. Agricult. Soils. Earl 2. 19 to 2000. 22.

Alright, so after your doctorate on microbial influenced corrosion, you shifted to postdoctoral research in South Korea focused on pesticide pollution. Given VIT University's strong interdisciplinary emphasis, how would you collaborate with colleagues from other departments to both advance your own research and contribute to larger institutional projects?

Actually. My doctoral studies. Is on microbial influence corrosion? Later I have. Have joined. Poster doctor research. South Korea. A completely. On pesticide. Pollution. The pesticide. Pollution is. Major threatened environmental. Nowadays. So I have. Pesticide. Studied of pesticide. On the agricultural soils. Call Sai. At various different parts of the region of. Agricult. Soils. Earl 2. 19 to 2000. 22. Later I got a project. In India. Neonicotinoid insecticide. Residues. Detection in. Agriculture Soil.

Actually. My doctoral studies. Is on microbial influence corrosion? Later I have. Have joined. Poster doctor research. South Korea. A completely. On pesticide. Pollution. The pesticide. Pollution is. Major threatened environmental. Nowadays. So I have. Pesticide. Studied of pesticide. On the agricultural soils. Call Sai. At various different parts of the region of. Agricult. Soils. Earl 2. 19 to 2000. 22. Later I got a project. In India. Neonicotinoid insecticide. Residues. Detection in. Agriculture Soil. By the funding. ANRF, Department of. Technology.

Actually. My doctoral studies. Is on microbial influence corrosion? Later I have. Have joined. Poster doctor research. South Korea. A completely. On pesticide. Pollution. The pesticide. Pollution is. Major threatened environmental. Nowadays. So I have. Pesticide. Studied of pesticide. On the agricultural soils. Call Sai. At various different parts of the region of. Agricult. Soils. Earl 2. 19 to 2000. 22. Later I got a project. In India. Neonicotinoid insecticide. Residues. Detection in. Agriculture Soil. By the funding. ANRF, Department of. Technology. So in the biofil. Still, I'm not yet get. Any pro? M maybe? Later I will write a proposal on. Then we'll get I. Get project.

Alright, Dr., shifting to teaching—suppose you were asked to design a class for biotechnology students at VIT University, but you couldn't use traditional lectures or slides. How would you make that session engaging and ensure students actually wrestle with the material, not just memorize it?

Alright, so after your doctorate on microbial influenced corrosion, you shifted to postdoctoral research in South Korea focused on pesticide pollution in agricultural soils from 2019 to 2022. Dr., keeping in view VIT University's strong commitment to student-centered teaching, how would you integrate innovative evaluation techniques to accurately assess both theoretical and practical competencies of students?

Alright, so you’ve worked on microbial influenced corrosion for your doctorate, then pesticides in postdoc work, and even a project on neonicotinoid residues in agricultural soil. Dr., keeping in view VIT University's strong commitment to student-centered teaching, how would you integrate innovative evaluation techniques to accurately assess both theoretical and practical competencies of students?

Okay, so after your doctorate on microbial influenced corrosion, you moved into postdoctoral research on pesticide pollution and later got a project detecting neonicotinoid residues in soil with ANRF funding. Dr., keeping in view VIT University's strong commitment to student-centered teaching, how would you integrate innovative evaluation techniques to accurately assess both theoretical and practical competencies of students?

Alright, so you shifted from microbial influenced corrosion to pesticide pollution and even worked on detecting neonicotinoid residues with ANRF funding in India. Suppose you were asked to run a practical session for biotechnology students on environmental analysis—how would you make that hands-on and engaging if you couldn't use slides or a standard lecture format?

This standard lecture. Farmer will be. Now I'm past it.

This standard lecture. Farmer will be. Now I'm past it. 565 to 6:00. Pesticides. Background.

This standard lecture. Farmer will be. Now I'm past it. 565 to 6:00. Pesticides. Background. So initially. I make the slides first of all. What is the pesticides? On classification of the pesticides.

Alright, since you mentioned your experience is mainly research-focused and you haven't taught yet, let's take a different angle. VIT University really values student-centered evaluation—how would you design an assessment that accurately measures both the theoretical understanding and the practical lab skills of students in a biotechnology course?

This standard lecture. Farmer will be. Now I'm past it. 565 to 6:00. Pesticides. Background. So initially. I make the slides first of all. What is the pesticides? On classification of the pesticides. Worldwide. Consumption rate of the pesticides. On how tons using.

This standard lecture. Farmer will be. Now I'm past it. 565 to 6:00. Pesticides. Background. So initially. I make the slides first of all. What is the pesticides? On classification of the pesticides. Worldwide. Consumption rate of the pesticides. On how tons using. In Indian pesticides. And especially we are. Living in Tamil Nadu. The time. Stunts using. This is Parianam.

Alright, you're referencing the standard lecture format and your background in pesticides, but I want to press a little further. Imagine you're required to evaluate students' understanding of both the theory and practical aspects of pesticide analysis—what's one innovative way you'd assess their skills without relying just on written exams?

This standard lecture. Farmer will be. Now I'm past it. 565 to 6:00. Pesticides. Background. So initially. I make the slides first of all. What is the pesticides? On classification of the pesticides. Worldwide. Consumption rate of the pesticides. On how tons using. In Indian pesticides. And especially we are. Living in Tamil Nadu. The time. Stunts using. This is Parianam. And then? Kilogram U.

This standard lecture. Farmer will be. Now I'm past it. 565 to 6:00. Pesticides. Background. So initially. I make the slides first of all. What is the pesticides? On classification of the pesticides. Worldwide. Consumption rate of the pesticides. On how tons using. In Indian pesticides. And especially we are. Living in Tamil Nadu. The time. Stunts using. This is Parianam. And then? Kilogram U. Per hectare in. Agricultural. To applying by the former. In Tamil Nadu. So these. Content will be. Play.

Since VIT University puts a lot of emphasis on accreditation and outcome-based education, imagine you joined the department and noticed that outcome assessment data was inconsistent across several courses. How would you approach fixing that while balancing your research and other commitments?

This standard lecture. Farmer will be. Now I'm past it. 565 to 6:00. Pesticides. Background. So initially. I make the slides first of all. What is the pesticides? On classification of the pesticides. Worldwide. Consumption rate of the pesticides. On how tons using. In Indian pesticides. And especially we are. Living in Tamil Nadu. The time. Stunts using. This is Parianam. And then? Kilogram U. Per hectare in. Agricultural. To applying by the former. In Tamil Nadu. So these. Content will be. Play. Twice later. What is going on?

Alright, you described starting with slides on pesticide classification and usage, but what if you couldn't use slides or a lecture—how would you get students to actively demonstrate their understanding of both theory and lab skills in environmental analysis?

This standard lecture. Farmer will be. Now I'm past it. 565 to 6:00. Pesticides. Background. So initially. I make the slides first of all. What is the pesticides? On classification of the pesticides. Worldwide. Consumption rate of the pesticides. On how tons using. In Indian pesticides. And especially we are. Living in Tamil Nadu. The time. Stunts using. This is Parianam. And then? Kilogram U. Per hectare in. Agricultural. To applying by the former. In Tamil Nadu. So these. Content will be. Play. Twice later. What is going on? Worldwide. And what are all the? Umm, uh. What are all the? Regulators on controlling. Insecticide Pest. Conditions in. By the. United Nations.

Alright, you mentioned starting with slides and background on pesticide use in Tamil Nadu. Let’s pivot a bit—accreditation cycles can be demanding, and if you joined our department and found that outcome assessment data was inconsistent across courses, how would you approach fixing that?

This standard lecture. Farmer will be. Now I'm past it. 565 to 6:00. Pesticides. Background. So initially. I make the slides first of all. What is the pesticides? On classification of the pesticides. Worldwide. Consumption rate of the pesticides. On how tons using. In Indian pesticides. And especially we are. Living in Tamil Nadu. The time. Stunts using. This is Parianam. And then? Kilogram U. Per hectare in. Agricultural. To applying by the former. In Tamil Nadu. So these. Content will be. Play. Twice later. What is going on? Worldwide. And what are all the? Umm, uh. What are all the? Regulators on controlling. Insecticide Pest. Conditions in. By the. United Nations. The program by the International. Councils earn. In how the? Regulation. Regulatory body. Is working on. Present er. Position overcome. This. Major threatened to the enemy.

Alright, you described starting with background on pesticide use and regional examples, but let's get more practical. Suppose you join our department and notice that outcome assessment data is inconsistent across courses—how would you address and standardize that, especially given the demands of accreditation cycles?

Alright, you’ve clearly got experience working with both research grants and hands-on projects like your ANRF-funded work. Beyond teaching and research, what role do you see yourself playing in department-level governance—things like curriculum committees, program reviews, or broader accreditation efforts?

Alright, you described starting with slides and regional examples, but let's get more practical. Suppose you join our department and notice that outcome assessment data is inconsistent across several courses—how would you approach fixing that, especially with accreditation cycles in mind?

Alright, so you’d start with the background, classification, and regulatory aspects, especially with Indian and Tamil Nadu examples. But in terms of institutional responsibilities, beyond teaching and research, how do you see yourself contributing to things like curriculum committees or program reviews at the department level?

Okay, so you structure your content around pesticide background, classification, usage data for the region, and regulatory frameworks—especially focusing on Tamil Nadu. Stepping outside of research and teaching, if you were asked to participate in department-level committees, say for curriculum review or program accreditation, what specific contributions do you think you could make based on your experience?

The pesticide pollutions. Controlling strategy. Are formulating strategy. By the juniter. Nations. Environmental. Program.

The pesticide pollutions. Controlling strategy. Are formulating strategy. By the juniter. Nations. Environmental. Program. And global. Chemical. These are all the. Controlling body.

Imagine this scenario, Professor: a student files a formal complaint alleging your grading is biased, while at the same time your department head is urging you to raise pass rates. How would you navigate that situation?

The pesticide pollutions. Controlling strategy. Are formulating strategy. By the juniter. Nations. Environmental. Program. And global. Chemical. These are all the. Controlling body. In plant. Protection. Department.

Okay, so you highlighted how international bodies like the United Nations Environment Programme and others play a role in controlling pesticide pollution. Imagine this scenario, Professor: a student files a formal complaint alleging your grading is biased, while at the same time your department head is urging you to raise pass rates. How would you navigate that situation?

The pesticide pollutions. Controlling strategy. Are formulating strategy. By the juniter. Nations. Environmental. Program. And global. Chemical. These are all the. Controlling body. In plant. Protection. Department. Under the. Ministry of. Agriculture. So this. Department. Overall. Pesticide collisions.

Alright, so you emphasized roles for international regulatory bodies in pesticide control—thanks for clarifying that. Imagine this scenario, Professor: a student files a formal complaint alleging your grading is biased, while at the same time your department head is urging you to raise pass rates. How would you navigate that situation?

The pesticide pollutions. Controlling strategy. Are formulating strategy. By the juniter. Nations. Environmental. Program. And global. Chemical. These are all the. Controlling body. In plant. Protection. Department. Under the. Ministry of. Agriculture. So this. Department. Overall. Pesticide collisions. Unregulatory. Information software. Pesticides. For example. If one pesticide product will come into the market in Indian government. Needed to get permission from the. This regulatory board.

The pesticide pollutions. Controlling strategy. Are formulating strategy. By the juniter. Nations. Environmental. Program. And global. Chemical. These are all the. Controlling body. In plant. Protection. Department. Under the. Ministry of. Agriculture. So this. Department. Overall. Pesticide collisions. Unregulatory. Information software. Pesticides. For example. If one pesticide product will come into the market in Indian government. Needed to get permission from the. This regulatory board. So this. Expert Committee. Review on the. Let's just say.

You described how international and national regulatory bodies handle pesticide pollution. Let's pivot: suppose a colleague asks you to co-author a paper, but you notice the data looks questionable or possibly manipulated. What would you do in that situation?

The pesticide pollutions. Controlling strategy. Are formulating strategy. By the juniter. Nations. Environmental. Program. And global. Chemical. These are all the. Controlling body. In plant. Protection. Department. Under the. Ministry of. Agriculture. So this. Department. Overall. Pesticide collisions. Unregulatory. Information software. Pesticides. For example. If one pesticide product will come into the market in Indian government. Needed to get permission from the. This regulatory board. So this. Expert Committee. Review on the. Let's just say. Chemical. How it? Hazardous to the environmental. How it will? Affect non target. Organisms.

The pesticide pollutions. Controlling strategy. Are formulating strategy. By the juniter. Nations. Environmental. Program. And global. Chemical. These are all the. Controlling body. In plant. Protection. Department. Under the. Ministry of. Agriculture. So this. Department. Overall. Pesticide collisions. Unregulatory. Information software. Pesticides. For example. If one pesticide product will come into the market in Indian government. Needed to get permission from the. This regulatory board. So this. Expert Committee. Review on the. Let's just say. Chemical. How it? Hazardous to the environmental. How it will? Affect non target. Organisms. Hun, how? It will. Effectively work into the. Target SO. The review. Committee. Find.

Okay, so you've described how regulatory boards review new pesticide products before they're allowed in the market, with oversight from both international and national agencies. Suppose you were asked to join a university committee investigating whether a colleague's research data was manipulated to help secure a grant. How would you balance protecting the university's reputation with upholding academic integrity?

Alright, so you explained how expert committees review pesticide products before market approval, with oversight from international and national agencies. Now, imagine this scenario, Professor: a colleague approaches you to co-author a paper, but as you review the data, you notice some results look questionable or possibly manipulated. How would you handle this situation?

Okay, so you explained how expert committees and regulatory boards evaluate the environmental hazards of new pesticide products before they're allowed on the market. Imagine this scenario, Professor: a colleague approaches you to co-author a research paper, but as you review their data, you notice some inconsistencies that could indicate data manipulation. How would you handle that situation?

Alright, you described how regulatory boards and expert committees review the safety of new pesticides before they're approved for use, and how your experience ties into those processes. Imagine this scenario: a student files a formal complaint that your grading is biased, while at the same time your department head is pressuring you to improve pass rates. How would you handle that situation?

So without. Usually. That. We usually use the. The product. Of pesticides. What? Are all the companies available in the? Available in the market. Not unapproved.

Alright, you emphasized sticking with only approved pesticide products on the market. Let's shift: Dr., keeping in view VIT University's strong commitment to student-centered teaching, how would you integrate innovative evaluation techniques to accurately assess both theoretical and practical competencies of students?

So without. Usually. That. We usually use the. The product. Of pesticides. What? Are all the companies available in the? Available in the market. Not unapproved. Product we cannot. Use for the laboratory. Studies and we cannot. To detect. In agriculture soils. The students. I always. Guide them. The existing. Registered. Sites studies only. I. Do research. On this. Situation. Have you question any question?

You mentioned guiding students to stick to approved products, but I need a bit more detail. Have you ever been directly responsible for evaluating student work—like grading lab reports, assessing research projects, or overseeing exams? If so, can you give me a concrete example?

Yes.

Right, so you've had experience evaluating student work like lab reports and research projects. Can you walk me through a specific instance—what exactly did you assess, and how did you ensure your grading was fair and transparent to the students?

Yes. I remember. Experience. I.

Yes. I remember. Experience. I. Masters student. In China.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work.

Alright, you said you remember having experience with evaluating student work—can you walk me through one example? What exactly did you assess, and how did you make sure your grading was fair and unbiased?

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did.

Alright.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed.

Alright, so you mentored master's students through their project work. Can you give me a specific example of a project you evaluated—what were the criteria you used, and how did you ensure your assessment was fair and unbiased?

So you supervised master's students during their project work in China. Can you give a concrete example of a student's project you assessed—what criteria did you use to evaluate their work, and how did you make sure your grading was objective?

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you.

So you supervised master's students working on neonicotinoid compounds. Which industry partners, companies, or applied research labs did you connect your students with for that work, or how did you help them see the real-world relevance beyond the classroom?

Okay, you supervised master's projects on neonicotinoid compounds—did you have any connections with industry labs, agricultural companies, or external partners who provided data, equipment, or placement opportunities for those students?

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project.

Alright, so you supervised master's students during their project work in China, focusing on biodegradation of neonicotinoid compounds. Given your background, do you have any industry connections—like with agricultural companies, environmental testing labs, or government agencies—that could help your students access internships or real-world data sets?

Alright, so you supervised master's projects on biodegradation of neonicotinoid compounds, guiding students through research with approved materials. Thinking about your field, do you have any industry partners, companies, or labs that you've worked with who could help create internship or placement opportunities for your students?

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not. If. They're done. What is? Greatest concentration of. Pesticide residues present in the soil.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not. If. They're done. What is? Greatest concentration of. Pesticide residues present in the soil. Hun, how? Isolated.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not. If. They're done. What is? Greatest concentration of. Pesticide residues present in the soil. Hun, how? Isolated. Bacteria. Why?

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not. If. They're done. What is? Greatest concentration of. Pesticide residues present in the soil. Hun, how? Isolated. Bacteria. Why? Using the soil. I have asked.

Alright, so you supervised master's students during their project work in China, focusing on biodegradation of neonicotinoid compounds. Given your background, do you have any industry connections—like agricultural companies, environmental labs, or regulatory agencies—that could help your students with internships or real-world data? If not, what steps would you take to build those partnerships at VIT?

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not. If. They're done. What is? Greatest concentration of. Pesticide residues present in the soil. Hun, how? Isolated. Bacteria. Why? Using the soil. I have asked. They said student. Wet the back. Yeah, from the soil.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not. If. They're done. What is? Greatest concentration of. Pesticide residues present in the soil. Hun, how? Isolated. Bacteria. Why? Using the soil. I have asked. They said student. Wet the back. Yeah, from the soil. It can able to grow.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not. If. They're done. What is? Greatest concentration of. Pesticide residues present in the soil. Hun, how? Isolated. Bacteria. Why? Using the soil. I have asked. They said student. Wet the back. Yeah, from the soil. It can able to grow. That such a higher concentration of pesticides. But it can be survived. Easily. So we. The bacteria. Pesticide contaminated. Soil.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not. If. They're done. What is? Greatest concentration of. Pesticide residues present in the soil. Hun, how? Isolated. Bacteria. Why? Using the soil. I have asked. They said student. Wet the back. Yeah, from the soil. It can able to grow. That such a higher concentration of pesticides. But it can be survived. Easily. So we. The bacteria. Pesticide contaminated. Soil. So this. Strategy is correct.

So you supervised master's students during their project work in China, focusing on biodegradation of neonicotinoid compounds. Given your background, do you have any industry connections—like agricultural companies or applied research labs—that could help students with internships or real-world project experience?

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not. If. They're done. What is? Greatest concentration of. Pesticide residues present in the soil. Hun, how? Isolated. Bacteria. Why? Using the soil. I have asked. They said student. Wet the back. Yeah, from the soil. It can able to grow. That such a higher concentration of pesticides. But it can be survived. Easily. So we. The bacteria. Pesticide contaminated. Soil. So this. Strategy is correct. In that way. I have. Experimental. And datas.

Yes. I remember. Experience. I. Masters student. In China. Then Masters. Where the project work. They did. Micotinoid compound. Such as? Siddharth ko Creed. Biodegradation. Bye, back to you. Especially. The bacteria. Isolated from. Soil. So. This work I monitored. While student. Doing project. I assess. Base of the. Experimental details. Such as? The bacteria. Isolated from. Whether the contaminated. Soil or. Non-contaminated soil. The soil. Has water. Use present. In that. The detection. Or not. If. They're done. What is? Greatest concentration of. Pesticide residues present in the soil. Hun, how? Isolated. Bacteria. Why? Using the soil. I have asked. They said student. Wet the back. Yeah, from the soil. It can able to grow. That such a higher concentration of pesticides. But it can be survived. Easily. So we. The bacteria. Pesticide contaminated. Soil. So this. Strategy is correct. In that way. I have. Experimental. And datas. C project. Every day.

Okay, so you assessed your master's student on experimental work—looking at things like whether they isolated bacteria from contaminated or uncontaminated soil, and the residue concentrations. When you were running that project in China, did you collaborate with any local industry labs or agricultural companies, or was it entirely academic?

Alright, so you’ve supervised a research project on neonicotinoid biodegradation, assessing experimental design and residue detection. Shifting to industry connections—have you ever worked with agricultural companies, environmental labs, or other external partners who might offer students exposure to real-world biotechnology challenges?

Alright, so you described supervising a master's project on neonicotinoid biodegradation, assessing things like experimental details and residue concentrations. Thinking about your background in both research and guiding students through projects—have you built any relationships with industry partners, like agricultural companies or environmental consultancies, that could help students with internships or real-world research opportunities?

Alright, you evaluated that master's student's experimental work by looking at things like whether the bacteria were isolated from contaminated or non-contaminated soil, and how they measured pesticide residues. Thinking about your research in both microbial corrosion and pesticide pollution, do you have any connections with industry—like partnerships with chemical companies, agri-tech firms, or government labs—that could help your students access internships or placements?

Alright, so you assessed your master's student on experimental work—looking at things like whether they isolated bacteria from contaminated or uncontaminated soil, and the residue concentrations. When you think about the biotechnology job market, do you have any industry connections—like companies or research institutes—that could help your students with internships or placements?

You described overseeing a master's project and assessing the student's lab work—especially their experimental approach to neonicotinoid biodegradation. Given your background in both India and China, do you have any industry contacts—say, in agriculture or environmental testing labs—that could help students access internships or real-world problem statements?

Alright, so you supervised that master's project in China, assessing how students isolated bacteria from contaminated soils and measured pesticide residues. Thinking about your background in both India and China, have you ever collaborated with industry partners or companies—maybe for internships, placements, or joint research?

Alright, so you evaluated that master's student's experimental work by looking at things like whether the bacteria were isolated from contaminated or non-contaminated soil, and how they measured pesticide residues. Shifting to industry alignment—given your background in both research and supervising students, do you have any connections with companies or government agencies that could translate into internship or placement opportunities for students?

Alright, so you oversaw a master's project in China focused on neonicotinoid biodegradation, and you assessed the student on their experimental approach and data. Given your background in both research and project supervision, do you have any industry contacts—say in biotech, agriculture, or environmental analysis—who could help your future students with internships or placements?

Alright, so you supervised master's students working on bacterial biodegradation of neonicotinoids, and you assessed their lab work and data collection. Given your focus on research, do you have any ongoing or past collaborations with industry, or connections that could help students secure internships or exposure to real-world applications in biotechnology or environmental science?

I have. I have operations.

Okay, you said you have collaborations. Can you give me the names of any companies or organizations you've worked with, or describe a specific joint project where students could have benefitted from industry exposure?

I have. I have operations. With. Chinese.

Alright, you mentioned you have collaborations with Chinese partners. Was that collaboration with a university, a government research institute, or an industry organization?

Alright,

Institute of Cotton. Cotton Research.

So you've worked with the Institute of Cotton Research in China. Was that collaboration more on the basic science side, or did it involve any direct industry projects that students could participate in?

I'm not. Directly. Involved industrial project.

Alright, Dr., let's shift toward your core skills for this role. Starting with your research background—if you were guiding a graduate student who's just beginning a bioinformatics or biomedical genetics project but struggling with how to structure their research question, how would you help them move from a broad topic to a clear, testable hypothesis?

I'm not. Directly. Involved industrial project. I have worked my. Because. The Institute. Not allowed. To work.

I'm not. Directly. Involved industrial project. I have worked my. Because. The Institute. Not allowed. To work. Directly in industrial projects.

Okay, so you weren't allowed to participate in industry projects at the Institute. Switching gears, when you're teaching theory or lab courses, how do you make sure students actually understand the concepts, not just memorize them for exams?

Right, so you weren't allowed to do direct industry projects at the Institute and your work stayed on the basic research side. Shifting now—when you guide student research, how do you help a student who's stuck or struggling with experimental design or data interpretation?

If the student. Get struggling incremental. I have directly.

If the student. Get struggling incremental. I have directly. Entered to. To expand.

You mentioned you'd get directly involved if a student is struggling experimentally—can you walk me through a time you helped a student revise their experimental design or interpret data that wasn't making sense?

So you get directly involved when a student is struggling with experimental work.

Two do expiry.

Two do expiry. To involve the. I will. Solve the problem.

Alright, so you step in directly when a student struggles with experiments. When it comes to communicating complex results—like statistical findings or environmental impact—to students who might not have a strong science background, how do you break down those concepts so they actually understand?

Two do expiry. To involve the. I will. Solve the problem. How to overcome this experimental struggle?

So you step in to help solve the problem directly when a student gets stuck. Can you give me a specific example of a time you helped a student redesign an experiment that wasn't working as planned?

Alright, so you step in to help students overcome experimental struggles, but what do you do if a student keeps making the same mistake in their data analysis, even after your intervention?

Units usually. V2 SCS. MSMS. Liquid chromatography mass. Troscopy.

Okay, so you mentioned mass spectrometry—like LC-MS/MS—for analysis. In practice, if a student consistently misinterprets chromatogram peaks despite your feedback, how do you approach reteaching that concept?

Units usually. V2 SCS. MSMS. Liquid chromatography mass. Troscopy. Side residual analysis. For the data. Interpretation.

Units usually. V2 SCS. MSMS. Liquid chromatography mass. Troscopy. Side residual analysis. For the data. Interpretation. We do.

Okay, so you mentioned using LC-MS/MS for residue analysis. If a student keeps confusing signal noise with true peaks in their chromatogram, how do you reteach that concept so it finally clicks?

Okay, so you use LC-MS

Bill Gates.

Bill Gates—did you mean to reference him in relation to your research, or was that just a random thought?

Bill Gates. And standard deviations. Explain. Do data analysis of this. Previous compound.

Alright, so you use standard deviation and other statistical tools for data analysis of pesticide compounds. When you're teaching this kind of analysis, how do you make sure students really understand the difference between signal and noise in their results, rather than just following the steps?

The sign. Not.

The sign. Not. I'm not at. Teach them.

So you were about to explain the sign—can you finish your thought on how you help students distinguish signal from noise in their data analysis?

Okay, so you're saying you don't teach students about the difference between signal and noise directly. How do you make sure your teaching is clear and structured, especially for students who might not have a strong technical background?

The sign. Not. I'm not at. Teach them. Because. We do standard. Shen. Standard deviation.

Okay, so you focus on standard deviation for your students' data analysis rather than teaching about signal versus noise directly. Shifting gears—can you tell me about one of your research publications in a reputed journal, and what specifically made the work novel or significant in your field?

My recent publication. In pesticide. In environmental. Journal.

My recent publication. In pesticide. In environmental. Journal. And Environmental Pollution Journal.

Okay, so your recent publication was in an environmental journal focused on pesticides. Without going into the title, what was the main research question you addressed, and how did your findings move the field forward?

Mm-hmm.

Current OP. In current open. In in environmental science and health.

Current OP. In current open. In in environmental science and health. So this. Janet, I have. Insecticide residues on agriculture soil.

So, you mentioned your recent publications are in Environmental Pollution Journal and Current Opinion in Environmental Science and Health. For one of those, what was the main research question you tackled and how did your findings advance knowledge or practice in the field?

Current OP. In current open. In in environmental science and health. So this. Janet, I have. Insecticide residues on agriculture soil. 1 review.

Current OP. In current open. In in environmental science and health. So this. Janet, I have. Insecticide residues on agriculture soil. 1 review. About acrochemicals.

Alright, so your recent publication focused on insecticide residues in agricultural soil and was published in a journal like Environmental Science and Health. For that study, what was the main finding, and how do you think it changes the way people approach pesticide use or regulation?

Okay, so your recent review focused on insecticide residues in agricultural soil, published in Current Opinion in Environmental Science and Health. What was one major implication from your review that you think should inform either future research or agricultural policy?

Alright, so your review looked at insecticide residues and agrochemicals in agricultural soil. For teaching—when you design a theory or lab course, how do you structure it so that students connect the core scientific ideas to practical techniques in the lab?

First of all. I tell them. What is the? Agrochemicals.

Alright, so you start by explaining agrochemicals to frame the course. Switching topics—when it comes to evaluating students, what's your approach to designing fair exams or practical assessments that accurately reflect both their theoretical understanding and lab skills?

First of all. I tell them. What is the? Agrochemicals. So what are? And how? It impact. Environment. In the cherry. On coming to the practical class. We collected the soil.

Alright, so you start by framing the theory with core concepts like agrochemicals and their environmental impact, then move students into practical soil collection. When it comes to evaluating their understanding—how do you design fair exams or practical assessments that actually measure whether students can apply what they've learned, not just memorize facts?

First of all. I tell them. What is the? Agrochemicals. So what are? And how? It impact. Environment. In the cherry. On coming to the practical class. We collected the soil. On the pesticide. Use by. MSMS. So how? Pesticide residues. In the soil. On how it was. In the. Explain. Clearly.

First of all. I tell them. What is the? Agrochemicals. So what are? And how? It impact. Environment. In the cherry. On coming to the practical class. We collected the soil. On the pesticide. Use by. MSMS. So how? Pesticide residues. In the soil. On how it was. In the. Explain. Clearly. Scientifically. Because each and every. Two sides have. The. Soil and water.

First of all. I tell them. What is the? Agrochemicals. So what are? And how? It impact. Environment. In the cherry. On coming to the practical class. We collected the soil. On the pesticide. Use by. MSMS. So how? Pesticide residues. In the soil. On how it was. In the. Explain. Clearly. Scientifically. Because each and every. Two sides have. The. Soil and water. How still became available? Both soil and water. I explained scientific.

Alright, so you walk students through the theory first, then connect it to hands-on lab work like soil collection and analysis using MSMS. When it comes to evaluating students—how do you design fair exams or practical assessments that accurately measure what they've learned, especially given the mix of theory and lab skills?

Okay, so you start with the core concepts and then move them into hands-on lab work, making the theory practical. Now, thinking about your experience with student evaluation—how do you handle cases where students' lab results are inconsistent, but their theoretical answers are strong?

Alright, you clearly connect theory to lab practice by explaining the science behind agrochemicals and then giving students hands-on experience with soil and water analysis. Now, on communication—when you need to explain a complex research finding to students with weaker backgrounds, what's your strategy for making sure they really grasp the main point?

If a wicked background. I teach. The basics of the. Pesticide. Chemical Groups. What is? CS Compound. How the? Oh group.

If a wicked background. I teach. The basics of the. Pesticide. Chemical Groups. What is? CS Compound. How the? Oh group. How? Functional group. What are all the? Bonding available in the compound.

If a wicked background. I teach. The basics of the. Pesticide. Chemical Groups. What is? CS Compound. How the? Oh group. How? Functional group. What are all the? Bonding available in the compound. How? Be become. Persistent into the soil.

If a wicked background. I teach. The basics of the. Pesticide. Chemical Groups. What is? CS Compound. How the? Oh group. How? Functional group. What are all the? Bonding available in the compound. How? Be become. Persistent into the soil. Display clear. Clearly the weaker students.

You mentioned you start with basics like chemical groups and compound structures. Can you give me a specific example of how you explained a complex concept—like pesticide degradation pathways—to a student who was struggling to understand?

So you break things down to basics—like chemical groups and functional groups—when students have weaker backgrounds. Can you give me a concrete example of how you guided a student through a research project, from initial idea to final presentation?

Alright, so you break things down to basics—like chemical groups, functional groups, and persistence in soil—when students have weaker backgrounds. When it comes to student evaluation and exam duties, how do you ensure your assessments are both fair and actually measure what students have learned, not just what they've memorized?

Alright, we're wrapping up. Is there anything you'd like to ask about the role or the team?

I did not. Understand.

No problem, Dr. I was asking if you have any questions for me about the Assistant Professor (Research) role or the team before we wrap up.

So. I plan to do. Research on. Pesticide recycling. Degradation. In laboratory. As well as. Pilot scale.

Okay, Dr., that’s a timely research direction—pesticide recycling and degradation are getting more attention, especially as environmental standards tighten. If you join as Assistant Professor (Research), you’ll find support for lab-scale and pilot-scale work, as the team is quite interdisciplinary and there’s collaboration with both environmental science and chemical engineering groups. Is there anything else you’d like to know about the role or the team?

So. I plan to do. Research on. Pesticide recycling. Degradation. In laboratory. As well as. Pilot scale. Whether the? Team have. What are the? Facilities have. Because. LCMS.

So. I plan to do. Research on. Pesticide recycling. Degradation. In laboratory. As well as. Pilot scale. Whether the? Team have. What are the? Facilities have. Because. LCMS. EMS. And I need you to. Field trial Weather. The team or institute have the. Land, at least I need. $0.10 of the land.

Alright, Dr., your focus on pesticide recycling and degradation is very relevant. In terms of facilities, the team supports lab-based and pilot-scale research, and there are core analytical instruments available—including access to liquid chromatography mass spectrometry for advanced residue analysis. If you have more specific equipment needs, those can be discussed with the department for future planning. Anything else on your mind about the role or environment?

Okay, Dr., your idea of doing research on pesticide recycling and degradation is definitely relevant here. The Assistant Professor (Research) role supports both laboratory and pilot-scale work, and there are shared facilities for LC-MS and related analytical equipment. For field trials, the institute does have research land available, but specific allocation—like a tenth of an acre—would depend on the project proposal and departmental priorities. If you join, you'd work with the team to plan access based on your research needs. Is there anything else you'd like to know about the role or the team?

Because the team, the weather. The team. Needed to provide me. Insecticide. Standards. For the LC. Alice's. Those standards are. Very costly.