So thanks for the opportunity. My name is Alexandra. I completed my. I think. From. I'm proud. Completed my master's degree and best reading. Into the community. HPC and. Uh, my assistant. Focused on developing nanomaterials. And understand if micro property. Microsecond. So the defects are less important. So generally. It is structured from the refrigeration property. Uh, I'm assuming I'm working as a discharge that. The Government College, Phillips I would like to introduce. About the There's now a technique like a. Personal energy license photocopy. The well known technique for. Defect Analysis.

I would like to introduce. About the There's now a technique like a. Personal energy license photocopy. The well known technique for. Defect Analysis. So that will. Introduce tennis students about the. The normal technique on the entity owner kind of entity techniques.

I would like to introduce. About the There's now a technique like a. Personal energy license photocopy. The well known technique for. Defect Analysis. So that will. Introduce tennis students about the. The normal technique on the entity owner kind of entity techniques. That you have analyzed all sort of research.

I would like to introduce. About the There's now a technique like a. Personal energy license photocopy. The well known technique for. Defect Analysis. So that will. Introduce tennis students about the. The normal technique on the entity owner kind of entity techniques. That you have analyzed all sort of research. The material and also. Certain materials like. The solid semiconductor metal. They understand these properties like it will quantify the defect size. And is it? Concentration and is. Picture like what kind of stuff?

I would like to introduce. About the There's now a technique like a. Personal energy license photocopy. The well known technique for. Defect Analysis. So that will. Introduce tennis students about the. The normal technique on the entity owner kind of entity techniques. That you have analyzed all sort of research. The material and also. Certain materials like. The solid semiconductor metal. They understand these properties like it will quantify the defect size. And is it? Concentration and is. Picture like what kind of stuff? So that will. Make more interest on the on students. To understand the. Umm, material behavior. Other than the AT Michael Ultra microscope is. So so I would like to introduce above on. Personal action spectroscopy.

I would like to introduce. About the There's now a technique like a. Personal energy license photocopy. The well known technique for. Defect Analysis. So that will. Introduce tennis students about the. The normal technique on the entity owner kind of entity techniques. That you have analyzed all sort of research. The material and also. Certain materials like. The solid semiconductor metal. They understand these properties like it will quantify the defect size. And is it? Concentration and is. Picture like what kind of stuff? So that will. Make more interest on the on students. To understand the. Umm, material behavior. Other than the AT Michael Ultra microscope is. So so I would like to introduce above on. Personal action spectroscopy. Now the novel technique. Unwellknown technique further.

So you mentioned the personal energy license technique for defect analysis—how do you actually explain the practical importance of defect analysis to students who might not see why it matters in real-world physics?

Okay, so you bring in defect analysis techniques like personal energy loss spectroscopy to your classes. When you're introducing those methods, how do you actually explain the practical importance of defect analysis to students who might not see why it matters in real-world physics or engineering?

Okay, so you use personal energy loss spectroscopy as a way to introduce defect analysis techniques to students. When you're explaining why defect analysis matters, how do you connect it to real-world physics or engineering problems so students really see the relevance?

Alright, so you're introducing students to defect analysis with those techniques, and tying it to materials like semiconductors and metals. When you teach this, how do you get students to actually engage with the data—do you use lab demos, simulations, or some other approach?

Alright, you're bringing in personal action spectroscopy to help students quantify defect sizes and concentrations in materials like semiconductors and metals. When you're teaching that, how do you make sure students really grasp the connection between those microscopic defects and the actual performance of devices they might use in the real world?

Alright, so you're using personal action spectroscopy to spark interest and help students understand material behavior beyond microscopy. When you first introduce this technique, how do you get students to actually engage with it—do you use lab demos, case studies, or some other approach?

Uh, actually this is the. A Positron IELTS and license spectroscopy. Or passing. OK, uh. That assisted earlier. This is well known technique. Uh. To analyze the defect properties on the material. Kolkata Material. So so I. I would like to introduce. To students through the exclusive portion. By the more. The instrument to the students. Well, sample. And the different sort of sample. So first I will introduce the basic. Concepts with students. Like with the simple analogy. To understand what sort of. Mechanism between what is the physical? Real physical meaning of the. So from that I will say introduce. The physical concept. And how did something? Then I will show the live demo on the. Like how the instrument is functioning. Like from starting onwards how person evolved? And I'll get injected to the material. I will get annihilated. I will use record of the character. I will take pulse process. How is the data spectrum? As a recorded so everything. I will introduce the students. So that they will understand very easily. So meantime I will. Go with very simple analogy. Will make easier. So students can understand.

Uh, actually this is the. A Positron IELTS and license spectroscopy. Or passing. OK, uh. That assisted earlier. This is well known technique. Uh. To analyze the defect properties on the material. Kolkata Material. So so I. I would like to introduce. To students through the exclusive portion. By the more. The instrument to the students. Well, sample. And the different sort of sample. So first I will introduce the basic. Concepts with students. Like with the simple analogy.

Uh, actually this is the. A Positron IELTS and license spectroscopy. Or passing. OK, uh. That assisted earlier. This is well known technique. Uh. To analyze the defect properties on the material. Kolkata Material. So so I. I would like to introduce. To students through the exclusive portion. By the more. The instrument to the students. Well, sample. And the different sort of sample. So first I will introduce the basic. Concepts with students. Like with the simple analogy. To understand what sort of. Mechanism between what is the physical? Real physical meaning of the. So from that I will say introduce. The physical concept. And how did something?

Dr., I noticed your publication in Europhysics Letters on defect evolution in nanoporous gold using low-energy positron beam experiments. When you discuss this research with undergraduates, how do you bridge the gap between the advanced methods and concepts in your paper and what a student just learning materials science can grasp?

Okay, so you start by building the basic concepts with analogies, then move to exposing students to the actual instrument and different samples. When you’re making that leap from the fundamental physics to the hands-on technique, what’s one way you help students who are struggling to connect the theory to what they’re seeing in the lab?

You mentioned using simple analogies and live demos to help students grasp the physical meaning behind positron annihilation spectroscopy. When a student struggles with the data interpretation side—say, reading a spectrum or connecting the results to defect properties—what strategies do you use to help them get over that hurdle?

In general, that. So these kind of spectrum. Unless it is through software. Uh. I'll start with a simple, uh, well known sample. Is like a metal or the semiconductor. Like the metal in case of metal like I will go with aluminum. Gold sample. Which is very defective. Mater. Then I will introduce the defective material. So that they will distinguish the real difference between the defects. Here as well as the. The physical properties are rather defect properties of the. Material, yeah. So. So in in case of understanding the spectrum. By seeing the. By seeing the spectrum, we can easily identify the. Depict material defect free material. Sorry, go with. Reference material. I'll go with real sample material.

In general, that. So these kind of spectrum. Unless it is through software. Uh. I'll start with a simple, uh, well known sample. Is like a metal or the semiconductor. Like the metal in case of metal like I will go with aluminum. Gold sample. Which is very defective. Mater. Then I will introduce the defective material. So that they will distinguish the real difference between the defects. Here as well as the. The physical properties are rather defect properties of the. Material, yeah. So. So in in case of understanding the spectrum. By seeing the. By seeing the spectrum, we can easily identify the. Depict material defect free material. Sorry, go with. Reference material. I'll go with real sample material. So that. They will get real picture of the. Sample.

In general, that. So these kind of spectrum. Unless it is through software. Uh. I'll start with a simple, uh, well known sample. Is like a metal or the semiconductor. Like the metal in case of metal like I will go with aluminum. Gold sample. Which is very defective. Mater. Then I will introduce the defective material. So that they will distinguish the real difference between the defects. Here as well as the. The physical properties are rather defect properties of the. Material, yeah.

In general, that. So these kind of spectrum. Unless it is through software.

Okay, so you use software to help students interpret those spectra. When you introduce the analysis tools, do you walk students through hands-on exercises, or do you let them explore on their own first?

So you're starting students with a simple metal sample like aluminum, then switching to more defective materials so they can see the difference in spectrum and defect properties. When students compare those results, what do you look for in their analysis or discussion to know they've really grasped the underlying physics?

So you walk students through reference materials and real samples so they can spot differences in defect spectra—sounds hands-on. When you connect this technique to broader concepts in physics, like semiconductor device reliability or quantum computation, how do you bridge that gap for students who might not have the background yet?

So you're starting students with a familiar metal like aluminum and then a more defective sample, so they can really see the change in the spectrum and connect it to physical defect properties. When students compare those results, do you find they come up with their own interpretations, or do you guide them to a particular analytical framework?

Yeah, I'll I, I guide them the. Particular analytical framework. That well known software. And well known. Like. Pulpit and the LT9 like software. That that digital that is dedicated for analysting this kind of. Past life and spectroscopy. And more than I will introduce about developing cyptoscopy as well. So. Not only person like and scoping. A double of money unless is petroscopy also. He can understand the defect material. And the real? Defect property of the material. So. So I will go with a simple frame, simple analytical tool. Like. And I'll, uh, and I will teach them each and every four of their material. So they will get so soon she will get easily. To understand the. Material and they will easily. I understand that the real spectrum limit is. Today, the DC can't be the Roy wound.

Yeah, I'll I, I guide them the. Particular analytical framework. That well known software. And well known. Like. Pulpit and the LT9 like software.

Alright, let's shift gears a bit. Given your work in nanomaterials and defect analysis, where do you see the most fundable research directions over the next three years? Which grants or funding sources would you target for those projects?

Alright, so you guide students through the analysis using dedicated software like Pulpit and LT9, and you layer in other techniques like Doppler broadening to help them understand defects. Switching gears, can you discuss any experience you have in academic quality assurance and how it would help you contribute to maintaining high standards in both teaching and research at VIT?

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being.

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being. And in years. I work less visiting uh. Post.

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being. And in years. I work less visiting uh. Post. In that in there. I developed. Uh, the construction and development project on. Digital Pulse copy. So that I got the Internet exposure. So that that found under the more industrial collaboration. So so. That interests expose and more collaboration. Umm, I got the instrumentation pass. And as well as. Well, strong in person and against bratoscopy. Technique and. Moreover, in teaching side, I'm working as a guest lecture in gom dot college. So there I am, teaching. On bachelors as well as master. Students in physics. So that will help. Feet under that will help. The help me to. Convey the both. Research and physical teaching ideas to students. So that will be. In football, uh Yeah, in theoretical approach, I would like to introduce the DfT calculation on the battery materials. And then let incorporate personal lifetime and. That will help to further.

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being. And in years. I work less visiting uh. Post. In that in there. I developed. Uh, the construction and development project on. Digital Pulse copy. So that I got the Internet exposure.

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being. And in years. I work less visiting uh. Post. In that in there. I developed. Uh, the construction and development project on. Digital Pulse copy.

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being. And in years. I work less visiting uh. Post. In that in there. I developed. Uh, the construction and development project on. Digital Pulse copy. So that I got the Internet exposure. So that that found under the more industrial collaboration. So so. That interests expose and more collaboration. Umm, I got the instrumentation pass. And as well as. Well, strong in person and against bratoscopy. Technique and. Moreover, in teaching side, I'm working as a guest lecture in gom dot college.

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being. And in years. I work less visiting uh. Post. In that in there. I developed. Uh, the construction and development project on. Digital Pulse copy. So that I got the Internet exposure. So that that found under the more industrial collaboration.

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being. And in years. I work less visiting uh. Post. In that in there. I developed. Uh, the construction and development project on. Digital Pulse copy. So that I got the Internet exposure. So that that found under the more industrial collaboration. So so. That interests expose and more collaboration. Umm, I got the instrumentation pass. And as well as. Well, strong in person and against bratoscopy. Technique and. Moreover, in teaching side, I'm working as a guest lecture in gom dot college. So there I am, teaching. On bachelors as well as master. Students in physics.

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being. And in years. I work less visiting uh. Post. In that in there. I developed. Uh, the construction and development project on. Digital Pulse copy. So that I got the Internet exposure. So that that found under the more industrial collaboration. So so. That interests expose and more collaboration. Umm, I got the instrumentation pass. And as well as. Well, strong in person and against bratoscopy. Technique and. Moreover, in teaching side, I'm working as a guest lecture in gom dot college. So there I am, teaching. On bachelors as well as master. Students in physics. So that will help.

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being. And in years. I work less visiting uh. Post. In that in there. I developed. Uh, the construction and development project on. Digital Pulse copy. So that I got the Internet exposure. So that that found under the more industrial collaboration. So so. That interests expose and more collaboration. Umm, I got the instrumentation pass. And as well as. Well, strong in person and against bratoscopy. Technique and. Moreover, in teaching side, I'm working as a guest lecture in gom dot college. So there I am, teaching. On bachelors as well as master. Students in physics. So that will help. Feet under that will help. The help me to. Convey the both.

To my peak history, I completed a couple of. PDF and uh. Israel as well as. So the first period. I complete in Hebrew University of Jerusalem in. That I developed the instrumentation part of personal life past. Sorry, first time being. And in years. I work less visiting uh. Post. In that in there. I developed. Uh, the construction and development project on. Digital Pulse copy. So that I got the Internet exposure. So that that found under the more industrial collaboration. So so. That interests expose and more collaboration. Umm, I got the instrumentation pass. And as well as. Well, strong in person and against bratoscopy. Technique and. Moreover, in teaching side, I'm working as a guest lecture in gom dot college. So there I am, teaching. On bachelors as well as master. Students in physics. So that will help. Feet under that will help. The help me to. Convey the both. Research and physical teaching ideas to students.

So you developed instrumentation for positron lifetime spectroscopy during your time in Jerusalem. Thinking about your experience with academic quality assurance—can you give a concrete example of how you maintained or improved standards in either your teaching or research, maybe through a process, audit, or peer review?

Okay, so you’ve had postdoctoral experience at Hebrew University and developed instrumentation for positron lifetime spectroscopy. Given your background, how would you contribute to curriculum development at VIT—especially aligning content with accreditation standards and advances in theoretical physics or quantum computation?

So you worked on instrumentation development during your postdoc at Hebrew University, and contributed to digital pulse spectroscopy projects. Given that experience, how would you contribute to curriculum development at VIT—especially in aligning content with accreditation standards and advancements in theoretical physics or quantum computation?

Okay, so you developed instrumentation for positron lifetime spectroscopy during your time in Jerusalem. Thinking about your experience with academic quality assurance—can you give a concrete example of how you've contributed to maintaining high standards in either teaching or research, maybe through peer review, curriculum audits, or lab safety protocols?

So you developed instrumentation for positron lifetime spectroscopy during your time in Jerusalem and worked on digital pulse spectroscopy with international exposure. That kind of hands-on collaboration can really raise standards. Given your experience, how would you contribute to curriculum development at VIT, especially aligning content with accreditation standards and advances in theoretical physics or quantum computation?

Okay, so you gained international exposure and hands-on experience developing instrumentation during your postdoc in Jerusalem, and you've been teaching as a guest lecturer. Given your background working on cutting-edge techniques and collaborating with industry, where do you see the most fundable research directions over the next three years, and what specific grants or funding sources would you pursue to support that work?

Okay, so you got strong international exposure working with instrumentation and digital pulse spectroscopy, plus hands-on teaching experience at Gom Dot College. Given your background, where do you see the most fundable research directions in nanomaterials or semiconductor physics over the next three years? What kinds of grants would you actually pursue?

You talked about international exposure and hands-on instrumentation work, plus teaching both bachelor’s and master’s students. Given your background, where do you see the most fundable research directions in nanomaterials or defect analysis over the next few years? What kind of grants would you pursue to support that work?

You guided students through analysis using tools like Pulpit and LT9, and you emphasized hands-on teaching with both bachelor’s and master’s levels. Let's shift a bit—how would you contribute to curriculum development efforts at VIT, especially in aligning course content with accreditation standards and advancements in theoretical physics and quantum computation?

Alright, so you got international exposure in instrumentation development and digital pulse spectroscopy, plus solid teaching experience at both bachelor’s and master’s levels. Thinking about VIT’s curriculum—how would you contribute to curriculum development, especially in aligning content with accreditation standards and advances in theoretical physics or quantum computation?

Yeah, in theoretical approach, I would like to introduce the DfT calculation on the battery materials. And then let incorporate personal lifetime and. That will help to further. The Vt or the the cutting edge research is ongoing. Indeed, and the novel analysis. Technician for the. Uh, calculation. On the. Battery materials. In company with the personal license stethoscope. The result?

Yeah, in theoretical approach, I would like to introduce the DfT calculation on the battery materials. And then let incorporate personal lifetime and. That will help to further. The Vt or the the cutting edge research is ongoing. Indeed, and the novel analysis. Technician for the. Uh, calculation. On the. Battery materials. In company with the personal license stethoscope. The result? That is one of the ways to understand. Honey it will useful for. Add in the meeting with. So the dealing calculation like DfT calculation.

Yeah, in theoretical approach, I would like to introduce the DfT calculation on the battery materials. And then let incorporate personal lifetime and. That will help to further. The Vt or the the cutting edge research is ongoing. Indeed, and the novel analysis. Technician for the. Uh, calculation. On the. Battery materials. In company with the personal license stethoscope. The result? That is one of the ways to understand. Honey it will useful for. Add in the meeting with. So the dealing calculation like DfT calculation. Is to support this. Doesn't like this the cookie reset?

Alright, let's shift gears a bit. You mentioned using analogies and hands-on demos in your teaching. Suppose you had a large class—say, 200 students—and you couldn't use slides. How would you make sure everyone stays engaged and actually wrestles with the material, not just listens?

You mentioned DFT calculations combined with positron lifetime analysis to keep curriculum current and research-focused. In your view, what's the best way to help students actually connect these advanced topics to real-world applications—do you use industry projects, guest lectures, or something else?

Alright, you’d introduce DFT calculations alongside positron lifetime analysis to bring in cutting-edge techniques for battery materials. That’s pretty current. When you’re thinking about integrating these advances into the curriculum, how do you make sure students of different backgrounds and skill levels can actually follow and participate—especially if they’re new to quantum computation or theoretical modeling?

Alright, shifting focus a bit. Accreditation cycles can be demanding—if you joined our department and found that outcome assessment data was inconsistent across courses, how would you approach fixing that?

Uh, I'd like to. Uh, like. Avoid the other outcome in existence. Uh, like I go with the. I'll go with very basic fund, fundamental basic. Knowledge.

You said you'd start with basic fundamentals to address inconsistent outcome data, but I need a bit more detail there—what practical steps would you take to actually bring the courses in line, especially if you found gaps in assessment or reporting?

Uh, I'd like to. Uh, like. Avoid the other outcome in existence. Uh, like I go with the. I'll go with very basic fund, fundamental basic. Knowledge. And meantime, I'll go with the cuttingist research and innovative teaching. Experience that will help you. At the teaching side of our. Appeasing side of mind and. Professor in Physics C. How? Yeah, helping in representing physics by. Go with innovative research and. Cutting 36 and the university teaching is uh. Oops.

You said you'd start with fundamental knowledge and mix in innovative research and teaching practices to address inconsistent outcome data, but I need a bit more detail there—what practical steps would you take to actually bring the courses in line, especially when the department needs concrete evidence for accreditation?

MMM.

Professor, imagine this scenario: a student formally

OK, can you repeat the?

Of course, I'll repeat that question. If you joined our department and found that outcome assessment data was inconsistent across courses, how would you approach fixing that?

I would like to start introducing the fundamental. Concept Critical concept to the students. Analogy techniques and. The live real life. They real well.

I would like to start introducing the fundamental. Concept Critical concept to the students. Analogy techniques and. The live real life. They real well. On. I will teach them in like. Very strong way and I'll go with. Lesson as well as the real time real world analogy and application. Then so. That way I try to overcome. That is 0.

Alright, you’d start by introducing critical concepts with analogies and real-life examples. Let’s say you do all that, but the department head disagrees with your methods—maybe they want a more standardized approach and push back against your curriculum changes. How would you handle that situation?

Alright, you’re saying you’d use strong fundamentals, real-world analogies, and practical applications to bring students up to speed and address gaps. Let’s say you do all that, but the department head disagrees with your approach—maybe they want a more standardized, traditional method instead. How would you handle that conflict?

The standard is and the traditional method also. Work well in terms of. How come the issue? I will handle both like. I will. Stick with the traditional as well as I will handle the novel approach. So that will try to. Startup details.

So you’d balance both approaches—keeping the traditional methods the department head wants, but still trying to introduce your own more innovative techniques where possible. If you felt that sticking too closely to tradition might actually compromise student learning or academic integrity, how would you address that concern with your department head?

In that case I will. The academic integrity of. For frontlining.

In that case I will. The academic integrity of. For frontlining. The traditional method works in some cases.

In that case I will. The academic integrity of. For frontlining. The traditional method works in some cases. In the other case in other way. The novel approach. They will. That will help to understand. The real. Picture of the. Concepts.

Alright, Professor, now let’s talk about connecting your academic work with real-world industry outcomes. Given your background in semiconductor physics and spectroscopic techniques, do you have any industry connections or collaborations that could translate into internship or placement opportunities for students at VIT?

In that case I will. The academic integrity of. For frontlining. The traditional method works in some cases. In the other case in other way. The novel approach. They will. That will help to understand. The real. Picture of the. Concepts. So compared to the television method. So. Kind of. Double gun. So we can use uh. And traditional methods. As well as the innovative teaching. Tell a simple analogy.

In that case I will. The academic integrity of. For frontlining. The traditional method works in some cases. In the other case in other way. The novel approach. They will. That will help to understand. The real. Picture of the. Concepts. So compared to the television method. So. Kind of. Double gun.

You’re saying the academic integrity is your priority, and traditional methods can work in some cases. Alright, let’s wrap this section up. Given your experience in both teaching and instrumentation, what concrete steps would you take to connect students with industry placements or internships—have you built any relationships with companies or labs that could help with that?

You emphasized academic integrity and said traditional methods work for some cases, but novel approaches help students grasp the real concepts. Given your experience in both teaching and instrumentation, how would you bring real-world industry problems into your classroom at VIT—have you done any consulting or industry collaboration that could help students connect with employers or internships?

You mentioned digital pulse spectroscopy and semiconductor physics earlier, so I want to start there. Imagine you're designing a course module on semiconductor device physics—how would you help students connect theory to experiments, especially when lab resources are limited?

You emphasized that combining traditional and novel teaching methods, along with real-world analogies, helps students see the real picture behind concepts—so you’re clearly thinking about pedagogy at a deep level. Now, turning to research: can you walk me through a recent publication or research project of yours in theoretical physics, and explain what made your approach or findings distinctive?

For undercat. The like to introduce. Uh, like missing language too? Like for Python. That is. Oh, for national learning. Uh. Umm. In terms of difficult? MMM. I think Python look for the machine learning. I think that will work better.

Okay, so you’d use Python as the language and introduce machine learning concepts that way. Can you give me a specific example of a physics problem or experiment where you’d have students use machine learning—like what dataset would you pick, what would the model do, and how would you tie it into the course?

In terms of. Personal license at the copied itself. To understand that. I will go with the Python code.

You mentioned using Python code to help students understand the experiment with personal license spectroscopy, but I’d like you to walk me through how you’d actually structure that assignment—what dataset would you use, what machine learning method, and what would students need to demonstrate by the end?

In terms of. Personal license at the copied itself. To understand that. I will go with the Python code. That will. Analyze the real. Data structure in checking that. And moreover, uh. The real uh. Examples like. In Prandtl. Oh. I think the the lifetime stethoscope is spectrum analysis. You see, patent will be allowed. More than I couldn't able to recollect that. Thanks very much.

You mentioned using Python code to analyze real data from personal license spectroscopy, and you referenced spectrum analysis—so you’re thinking about tying machine learning to actual experimental physics. Let’s switch to quantum computation for a moment: if you were designing an undergraduate lab that introduces quantum algorithms, what’s one experiment or simulation you’d have students run to help them understand qubit superposition or entanglement?

Uh, I'm not much knowledge on. Have not much knowledge about counterpart. I'm think umm. The vocation problems.

Uh, I'm not much knowledge on. Have not much knowledge about counterpart. I'm think umm. The vocation problems. Mine is completely on. Experimental Physics. So. Remember my favorite airport counter company?

No worries if quantum computation isn’t your strongest area. Let’s switch to semiconductor device physics. If you were mentoring a student working on a project involving MOSFETs and they were struggling with threshold voltage drift over time, how would you guide them to investigate and address the issue?

No problem if quantum computation isn’t your main area. Let’s switch to semiconductor device physics. If you were mentoring a student working on a project involving MOSFETs and they were struggling with threshold voltage drift over time, what practical steps would you advise them to take to diagnose and address the issue?

I haven't, uh, worked on maspeth. Uh, before. So. If you ask question now.

I haven't, uh, worked on maspeth. Uh, before. So. If you ask question now. Uh, like. Metal flight. Copper or. Flow, and particularly nanoporous metals and the porous silicon.

I haven't, uh, worked on maspeth. Uh, before. So. If you ask question now. Uh, like. Metal flight. Copper or. Flow, and particularly nanoporous metals and the porous silicon. Uh, particularly badly materials. I would like to answer that question.

Alright, you haven't worked on MOSFETs, so let's move on. For research publications—can you walk me through one of your recent papers or conference presentations, focusing on the main research question and how you approached answering it?

Alright, sounds like your background is more with nanoporous metals and porous silicon than with MOSFETs. For research publications—can you walk me through one of your recent papers or conference presentations, focusing on the main research question and how your findings contributed to the field?

Alright, you’re more comfortable with nanoporous metals and porous silicon, not MOSFETs. Let’s shift to your research publications—can you walk me through one of your recent papers or conference presentations, focusing on the main research question, your methodology, and the impact of your findings?

Recently one of the recent paper on nanoporous gold. Probing 2.

You mentioned probing nanoporous gold in your recent paper. Can you walk me through the methodology you used for that research—what experimental techniques did you rely on, and how did you interpret your data to reach your main findings?

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1.

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1. So to understand this, you can't pay with ligament size.

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1. So to understand this, you can't pay with ligament size. So if you modify. Chemically at a thermally or physically? The effectively. Totally change along with the defect.

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1. So to understand this, you can't pay with ligament size. So if you modify. Chemically at a thermally or physically? The effectively. Totally change along with the defect. So my interest. To understand this microsecond along with. Is detect and how it's a wall? How it can't divide? How how it? The get. Out.

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1. So to understand this, you can't pay with ligament size. So if you modify. Chemically at a thermally or physically? The effectively. Totally change along with the defect. So my interest. To understand this microsecond along with. Is detect and how it's a wall? How it can't divide? How how it? The get. Out. Through business bin. 1st and be. In that recent paper. I prefer the nanopore cold material through D align method. Like some alloying of aligned material of silver, gold align. So I just dissolved silver away and gold ring interconnect gold. Make a nanopore structure. The tempered non of the sister again I remodified as. Reddy's Nagpur School. The surface will be more. Atomically clean structure with pure. Gold attempts. With the ligament size of. Fundianometer compared to the one. I mean we find an able to live money. So there are four sides and agreement sides, probably different from and the chemical environment probably different from the. Apply to. So in that sample I tried to understand how person will get behaviour.

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1. So to understand this, you can't pay with ligament size. So if you modify. Chemically at a thermally or physically? The effectively. Totally change along with the defect. So my interest. To understand this microsecond along with. Is detect and how it's a wall? How it can't divide? How how it? The get. Out. Through business bin. 1st and be. In that recent paper. I prefer the nanopore cold material through D align method.

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1. So to understand this, you can't pay with ligament size. So if you modify. Chemically at a thermally or physically? The effectively. Totally change along with the defect. So my interest. To understand this microsecond along with. Is detect and how it's a wall? How it can't divide? How how it? The get. Out. Through business bin. 1st and be. In that recent paper. I prefer the nanopore cold material through D align method. Like some alloying of aligned material of silver, gold align.

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1. So to understand this, you can't pay with ligament size. So if you modify. Chemically at a thermally or physically? The effectively. Totally change along with the defect. So my interest. To understand this microsecond along with. Is detect and how it's a wall? How it can't divide? How how it? The get. Out. Through business bin. 1st and be. In that recent paper. I prefer the nanopore cold material through D align method. Like some alloying of aligned material of silver, gold align. So I just dissolved silver away and gold ring interconnect gold. Make a nanopore structure. The tempered non of the sister again I remodified as. Reddy's Nagpur School. The surface will be more. Atomically clean structure with pure. Gold attempts. With the ligament size of. Fundianometer compared to the one. I mean we find an able to live money. So there are four sides and agreement sides, probably different from and the chemical environment probably different from the. Apply to. So in that sample I tried to understand how person will get behaviour. And I understand is mechanical property.

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1. So to understand this, you can't pay with ligament size. So if you modify. Chemically at a thermally or physically? The effectively. Totally change along with the defect. So my interest. To understand this microsecond along with. Is detect and how it's a wall? How it can't divide? How how it? The get. Out. Through business bin. 1st and be. In that recent paper. I prefer the nanopore cold material through D align method. Like some alloying of aligned material of silver, gold align. So I just dissolved silver away and gold ring interconnect gold. Make a nanopore structure. The tempered non of the sister again I remodified as. Reddy's Nagpur School. The surface will be more. Atomically clean structure with pure. Gold attempts. With the ligament size of. Fundianometer compared to the one. I mean we find an able to live money. So there are four sides and agreement sides, probably different from and the chemical environment probably different from the. Apply to. So in that sample I tried to understand how person will get behaviour. And I understand is mechanical property. So. Here I found that defect. Play the new. Important vital role. To understand. Personal behavior as well as the mechanical behavior.

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1. So to understand this, you can't pay with ligament size. So if you modify. Chemically at a thermally or physically? The effectively. Totally change along with the defect. So my interest. To understand this microsecond along with. Is detect and how it's a wall? How it can't divide? How how it? The get. Out. Through business bin. 1st and be. In that recent paper. I prefer the nanopore cold material through D align method. Like some alloying of aligned material of silver, gold align. So I just dissolved silver away and gold ring interconnect gold. Make a nanopore structure. The tempered non of the sister again I remodified as. Reddy's Nagpur School. The surface will be more. Atomically clean structure with pure. Gold attempts. With the ligament size of. Fundianometer compared to the one. I mean we find an able to live money. So there are four sides and agreement sides, probably different from and the chemical environment probably different from the. Apply to. So in that sample I tried to understand how person will get behaviour. And I understand is mechanical property. So. Here I found that defect. Play the new. Important vital role. To understand. Personal behavior as well as the mechanical behavior. So. If you would the defect. If you're only learning about the detect. That will find out, uh. That will introduce. The losing of. Or not so. The difficulty. Vital role. To improve the hardness management.

Alright, you mentioned probing nanoporous gold and three-dimensional ligaments in your recent paper. Let’s switch to industry projects or consultancy—have you worked on any collaborations with companies or applied your research in a practical industrial setting? If so, can you describe one project, the role you played, and the outcome?

Recently one of the recent paper on nanoporous gold. Probing 2. Uh, let Nanakore. Gold materials are buying condensed credit. Today, Mr. Kind of spectrum with the ligament. 4. So this kind of by continuation. 3 dimensional 1. So to understand this, you can't pay with ligament size. So if you modify. Chemically at a thermally or physically? The effectively. Totally change along with the defect. So my interest. To understand this microsecond along with. Is detect and how it's a wall? How it can't divide? How how it? The get. Out. Through business bin. 1st and be. In that recent paper. I prefer the nanopore cold material through D align method. Like some alloying of aligned material of silver, gold align. So I just dissolved silver away and gold ring interconnect gold. Make a nanopore structure. The tempered non of the sister again I remodified as. Reddy's Nagpur School. The surface will be more. Atomically clean structure with pure. Gold attempts. With the ligament size of. Fundianometer compared to the one. I mean we find an able to live money. So there are four sides and agreement sides, probably different from and the chemical environment probably different from the. Apply to. So in that sample I tried to understand how person will get behaviour. And I understand is mechanical property. So. Here I found that defect. Play the new. Important vital role. To understand. Personal behavior as well as the mechanical behavior. So. If you would the defect. If you're only learning about the detect. That will find out, uh. That will introduce. The losing of. Or not so. The difficulty. Vital role. To improve the hardness management. So in that what Bublé and NIMBY? And last year?

Okay, you were looking at ligament size in nanoporous gold and its three-dimensional structure—sounds like your research is pretty focused on material properties at the nanoscale. Have you had any involvement in industry projects or consulting, maybe working with a company on applying these materials, or collaborating on practical applications?

So you looked at modifying nanoporous gold ligaments chemically, thermally, and physically, and tracked how defects and structure changed—sounds like pretty hands-on experimental work. Have you had any industry collaborations or consultancy projects where you applied this kind of research to solve a real-world engineering or manufacturing problem?

Alright, you were focused on nanoporous gold and how modifying ligaments affects defects and structure. Shifting to industry projects or consultancy—have you had any direct involvement with companies or external partners, maybe applying your research in an industrial setting or advising on a real-world project?

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

Right, so your recent paper focused on nanoporous gold, using alloying and modifying ligaments to explore defect behavior and material properties. Dr., we're wrapping up now. Is there anything you'd like to ask about the role or the team before we finish?

Okay, so you alloyed silver and gold, then dissolved the silver to create a nanoporous gold structure, modifying the surface for atomic-level purity and studying how defect behavior changed with different ligament sizes. Dr., we're wrapping up now. Is there anything you'd like to ask about the role or the team before we finish?

Okay, so your recent paper focused on nanoporous gold, using alloying and modifying ligaments to explore defect behavior and material properties. Dr., we're wrapping up now. Is there anything you'd like to ask about the role or the team before we finish?

Alright, you were focused on nanoporous gold and how modifying ligaments affects defects and structure. Dr., we're wrapping up now. Is there anything you'd like to ask about the role or the team before we finish?

So, you explored how defects in nanoporous gold affect both mechanical and personal behaviors, using alloying and dealloying methods to manipulate ligament size and surface structure. Dr., we're wrapping up now. Is there anything you'd like to ask about the role or the team before we finish?

Okay, so your recent paper focused on nanoporous gold, using alloying and modifying ligaments to explore defect behavior and material properties. Dr., we're wrapping up now. Is there anything you'd like to ask about the role or the team before we finish?

Uh, currently what sort of continuous research? Going on like, uh. People. To work on uh. Uh, like. Radiation tolerant materials are direct correlation properties in battery materials.

Uh, currently what sort of continuous research? Going on like, uh. People. To work on uh. Uh, like. Radiation tolerant materials are direct correlation properties in battery materials. So what's what current race is going on? In. Creativity Deputy Department.

You're asking about ongoing research in areas like radiation-tolerant materials and battery material properties. I can't speak for every group's current work, but those topics are definitely active and relevant—many teams are exploring advanced materials for energy storage and durability under extreme conditions. Anything else you'd like to know about the role or the department?

You're asking about active research in areas like radiation-tolerant materials and battery properties. Those themes are definitely in play among several groups—there's ongoing collaboration on advanced materials, energy storage, and radiation effects. If you want specifics, I can share more about the department's recent projects. Any other questions about the role, the team, or the academic environment you'd like to discuss before we wrap up?

I'd like to discuss the economic environment in. Our department, uh. Can you start this?

You’d like to talk about the economic environment in the department. Typically, funding comes from a mix of

I'm talking about academic environment.

I'm talking about academic environment. Uh, what's really going on in? Economically, you know what I mean.

Right, you're asking about the academic environment in the department. Generally, faculty here value collaboration, open discussion, and mentorship—there’s a strong emphasis on interdisciplinary research and supporting early-career academics. Anything else you’d like to know before we wrap up, Dr.?

Right, you’re asking about the academic environment—how things feel day-to-day in the department. It’s pretty collaborative, with a lot of open-door discussions and cross-group research. People encourage new ideas, but there’s also a strong respect for established methods. Anything else you’d like to know about the role, the team, or how we operate? You can ask one more question.

I'd like to ask. I'd like to also know about. The role as well as the team. Can I explain that?