Stem Cell Research

Dr Rajneesh Verma | Progaram Specific Researcher | CIRA, Kyoto University - Japan

What is Stem Cell Research?

There are many nuances of a Career in Stem Cell Research. Unfortunately, it is very difficult to find information about What Stem Cell Research actually is. Most pages on the internet just talk about How to get into Stem Cell Research. The most authoritative source of information on Stem Cell Research is someone with real experience in it.

Progaram Specific Researcher Dr Rajneesh Verma has worked in Stem Cell Research for 4 years & 11 months. Here is how Progaram Specific Researcher Dr Rajneesh Verma detailed Stem Cell Research:

Stem cells are biological cells that can differentiate into other types of cells and can divide to produce more of the same type of stem cells. They are found in multicellular organisms. Stem cells are a class of undifferentiated cells that are able to differentiate into specialized cell types. Commonly, stem cells come from two main sources: Embryos formed during the blastocyst phase of embryological development (embryonic stem cells) and adult tissue (adult stem cells).

How Progaram Specific Researcher Dr Rajneesh Verma got into Stem Cell Research?

I m Reproductive Bio-technologist and a stem cell Scientist from Monash University, Melbourne (Australia). In 2011, I was the First one in the world to generate Induced pluripotent Stem Cells (iPSC) of wild cats namely, Snow Leopard, Bengal Tiger, Jaguar and Serval. Having worked on various projects in the field of stem cells, in 2017, I joined CIRA, Kyoto (Koji Eto group) as a Program Researcher.

Progaram Specific Researcher Dr Rajneesh Verma's Talk on Stem Cell Research

The Journey of Stem Cell Research What Is Stem Cell Research Stem Cell Research Stem cell research is the scientific study of undifferentiated cells that have the potential to develop into specialized cell types. Researchers investigate how these cells function, differentiate, and can be manipulated for medical applications, aiming to understand development, treat diseases, and advance regenerative medicine. Stem cell research is a transformative field with far-reaching implications for medicine, biology, and biotechnology. For professionals in this area, the work is both intellectually stimulating and socially impactful, as it addresses some of the most challenging medical conditions. The benefits include the potential to develop regenerative therapies for injuries and degenerative diseases, the ability to model human development and disease in the laboratory, and the advancement of personalized medicine. These breakthroughs not only improve patient outcomes but also drive innovation in drug discovery and tissue engineering, making stem cell research a cornerstone of modern biomedical science. A professional in stem cell research might work on developing new treatments for spinal cord injuries. By isolating stem cells from a patient’s own tissue, the researcher can coax these cells to become nerve cells in the laboratory. These newly formed nerve cells are then studied for their ability to repair damaged spinal tissue. Through rigorous experimentation and collaboration with clinicians, the researcher helps translate laboratory findings into clinical trials, aiming to restore movement and sensation in patients who have suffered paralysis. This process exemplifies how stem cell researchers bridge the gap between basic science and real-world medical solutions, offering hope for conditions once thought untreatable. Education Biology Biology is the scientific study of living organisms, encompassing their structure, function, growth, evolution, distribution, and taxonomy. As a foundational life science, biology provides essential insights into cellular processes, genetics, and physiology, making it indispensable for anyone pursuing academic or professional work in the field of Stem Cell Research. A deep understanding of biology is vital for anyone preparing for or working in stem cell research because it forms the bedrock upon which all advanced concepts are built. Knowledge of cellular biology, molecular genetics, and developmental biology is crucial for comprehending how stem cells function, differentiate, and interact within living systems. This foundational expertise enables professionals to design experiments, interpret results, and troubleshoot problems effectively. Over the long term, mastery of biology not only enhances research capabilities but also fosters adaptability as the field evolves, ensuring that professionals remain at the forefront of scientific innovation and can contribute meaningfully to advancements in regenerative medicine and therapeutic applications. Consider a stem cell researcher working to develop a new therapy for spinal cord injuries. Each day, they rely on their understanding of biology to culture stem cells, monitor their differentiation, and assess their viability. When unexpected cellular behaviors arise, the researcher draws upon their knowledge of cellular signaling pathways and genetic regulation to identify potential causes and adjust experimental conditions accordingly. This theoretical grounding in biology allows them to interpret complex data, make informed decisions about experimental design, and communicate findings with clarity to both scientific peers and clinical collaborators. Ultimately, their expertise in biology is what enables them to translate laboratory discoveries into real-world medical solutions. Practical Knowledge Practical knowledge refers to the hands-on skills and experiential understanding gained through direct involvement in laboratory procedures, experiments, and problem-solving activities. In the context of stem cell research, it bridges the gap between theoretical concepts and real-world application, enabling researchers to effectively translate scientific principles into tangible results and innovations. Developing practical knowledge is essential for anyone pursuing a career in stem cell research because it transforms abstract theories into actionable skills. Mastery of laboratory techniques, familiarity with specialized equipment, and the ability to troubleshoot experimental challenges are all rooted in practical experience. This foundation not only enhances a researcher’s confidence and competence but also fosters adaptability in the face of evolving scientific questions. Over time, practical knowledge supports professional growth by enabling individuals to contribute meaningfully to research teams, drive innovation, and maintain high standards of safety and accuracy. As the field of stem cell research continues to advance, those with strong practical skills are better positioned to lead projects, mentor others, and adapt to new technologies and methodologies. Consider a stem cell researcher tasked with differentiating induced pluripotent stem cells into neural cells for a disease modeling study. While theoretical knowledge provides an understanding of the signaling pathways and growth factors involved, practical knowledge is crucial for executing precise cell culture techniques, monitoring cell morphology, and adjusting protocols in response to unexpected results. The researcher must skillfully handle delicate cells, maintain sterile conditions, and interpret subtle changes in cell behavior, all of which require hands-on expertise. By applying practical knowledge, the researcher ensures the reliability and reproducibility of experiments, ultimately contributing to meaningful scientific discoveries and advancements in regenerative medicine. Research & Development Research & Development (R&D) refers to the systematic process of investigating, designing, and creating new knowledge, products, or technologies. In the context of Stem Cell Research, R&D encompasses both the exploration of fundamental biological mechanisms and the translation of discoveries into innovative therapies, making it essential for scientific advancement and application. Understanding Research & Development is crucial for anyone entering or advancing in the field of Stem Cell Research. Mastery of R&D principles equips professionals with the skills to design robust experiments, critically analyze data, and innovate solutions to complex biological challenges. This knowledge forms the backbone of scientific inquiry, ensuring that research is conducted ethically, efficiently, and with a clear purpose. Over the long term, proficiency in R&D enables professionals to contribute to groundbreaking discoveries, secure funding, and collaborate effectively across multidisciplinary teams. It also enhances career prospects by demonstrating a commitment to rigorous scientific standards and the ability to drive progress from initial hypothesis to clinical application. Consider a stem cell researcher tasked with developing a new protocol for differentiating pluripotent stem cells into cardiac cells. Drawing on their R&D expertise, the researcher begins by reviewing existing literature to identify knowledge gaps and formulates a hypothesis for a novel differentiation pathway. They design controlled experiments, optimize culture conditions, and systematically collect data to assess outcomes. Throughout the process, the researcher applies critical thinking to troubleshoot unexpected results and iterates on their methodology. By integrating theoretical R&D principles with hands-on experimentation, the researcher not only advances scientific understanding but also lays the groundwork for potential therapeutic applications, demonstrating the indispensable role of R&D in daily stem cell research operations. Skills Communication Communication is the effective exchange of information, ideas, and emotions through speaking, writing, or other mediums, ensuring mutual understanding and collaboration. In stem cell research, communication is vital for sharing complex scientific findings, collaborating with multidisciplinary teams, and translating discoveries into clinical applications. It enables researchers to articulate goals, challenges, and results clearly, fostering innovation and progress. Strong communication skills directly enhance performance in stem cell research by enabling professionals to present data clearly, collaborate efficiently with colleagues from diverse backgrounds, and secure funding through compelling grant proposals. Employers and clients highly value individuals who can explain intricate scientific concepts to both expert and non-expert audiences, as this bridges gaps between research, clinical practice, and public understanding. Cultivating communication skills involves regular practice in writing scientific papers, presenting at conferences, and engaging in interdisciplinary discussions. Over time, seeking feedback, participating in workshops, and observing effective communicators can further refine one’s ability to convey information with clarity and confidence. Imagine a stem cell researcher who discovers a promising new method for differentiating stem cells into cardiac tissue. To advance this breakthrough, the researcher must clearly communicate the methodology and results to a team of biologists, clinicians, and bioengineers. By organizing a well-structured presentation and facilitating open discussion, the researcher ensures that each team member understands the process and its implications. This collaborative clarity leads to a successful grant application and the initiation of a clinical trial. Without effective communication, misunderstandings could stall progress or result in missed opportunities, but with it, the team moves forward cohesively, maximizing the impact of their discovery. Hard Work Hard work is the consistent application of effort, perseverance, and dedication toward achieving challenging goals, often requiring sustained focus and resilience in the face of setbacks. In stem cell research, hard work is indispensable because the field demands rigorous experimentation, meticulous data analysis, and the ability to navigate complex scientific challenges over extended periods. Hard work directly enhances performance in stem cell research by enabling professionals to persist through lengthy experiments, troubleshoot unexpected results, and refine methodologies until reliable outcomes are achieved. Employers and clients value this trait because it ensures that projects are completed with thoroughness and integrity, even when obstacles arise. Cultivating hard work involves setting clear goals, maintaining discipline, and developing a mindset that embraces challenges as opportunities for growth. Over time, consistently pushing through difficulties and learning from failures builds both expertise and resilience, making hard work an essential driver of innovation and progress in this demanding scientific field. Imagine a stem cell researcher facing repeated setbacks while attempting to differentiate pluripotent stem cells into a specific cell type for a regenerative medicine project. Despite numerous failed attempts and inconclusive results, the researcher demonstrates hard work by meticulously documenting each experiment, analyzing data for patterns, and seeking advice from colleagues. Through long hours in the lab and persistent refinement of protocols, the researcher eventually identifies a key variable affecting cell differentiation. This breakthrough not only advances the project but also contributes valuable knowledge to the scientific community, illustrating how hard work can turn persistent challenges into meaningful success in stem cell research. Interpersonal Skills Interpersonal skills refer to the ability to communicate, collaborate, and build relationships effectively with others, including colleagues, clients, and stakeholders. In stem cell research, these skills are crucial for fostering teamwork, navigating complex ethical discussions, and ensuring clear communication across multidisciplinary teams, ultimately driving successful scientific outcomes. Interpersonal skills directly enhance performance in stem cell research by enabling seamless collaboration among scientists, clinicians, and regulatory bodies. Employers and clients highly value professionals who can articulate ideas clearly, listen actively, and resolve conflicts diplomatically, as these abilities lead to more productive research environments and innovative solutions. Cultivating interpersonal skills involves seeking feedback, engaging in active listening, participating in team projects, and reflecting on interactions to continuously improve communication and empathy. Over time, these efforts help professionals build trust, manage diverse perspectives, and contribute positively to the collective goals of their research teams. Imagine a stem cell researcher working on a collaborative project involving biologists, clinicians, and bioethicists. During a critical phase, ethical concerns arise regarding the use of certain cell lines. The researcher leverages strong interpersonal skills to facilitate an open discussion, ensuring all voices are heard and respected. By mediating differing viewpoints and clarifying misunderstandings, the researcher helps the team reach a consensus that aligns with both scientific objectives and ethical standards. This not only resolves the immediate issue but also strengthens team cohesion and trust, demonstrating how interpersonal skills are vital for navigating complex challenges and achieving success in stem cell research. Patience Patience is the ability to remain calm, composed, and persistent in the face of delays, setbacks, or prolonged effort, without becoming frustrated or discouraged. In stem cell research, patience is indispensable because experiments often require extended periods to yield results, and progress can be slow due to the complexity of biological systems. Patience directly enhances performance in stem cell research by allowing professionals to meticulously follow protocols, repeat experiments as needed, and carefully analyze data without rushing to conclusions. Employers and clients value this quality because it ensures that research is thorough, reliable, and less prone to errors caused by haste. Cultivating patience involves embracing the iterative nature of scientific inquiry, learning from setbacks, and maintaining a long-term perspective on success. Over time, researchers can develop greater patience by reflecting on past achievements that required perseverance and by seeking mentorship from experienced colleagues who exemplify this trait. Imagine a stem cell researcher working on differentiating pluripotent stem cells into specialized neurons for a neurodegenerative disease model. The process is painstakingly slow, with each stage requiring careful monitoring and adjustment. Unexpectedly, a batch of cells fails to differentiate as expected, threatening months of work. Instead of reacting impulsively, the researcher exercises patience, systematically reviewing protocols, consulting with peers, and repeating the experiment with minor modifications. This calm, persistent approach not only salvages the project but also leads to a deeper understanding of the differentiation process, ultimately contributing to a breakthrough in the research. Patience, in this scenario, transforms a potential setback into a valuable learning opportunity and scientific advancement. Positives Personal Satisfaction Personal satisfaction is the deep sense of fulfillment and contentment that arises from engaging in meaningful work, achieving personal goals, and making a positive impact on others’ lives. In stem cell research, this feeling is amplified by the knowledge that one’s efforts contribute to scientific advancement and the potential to transform healthcare. The personal satisfaction derived from a career in stem cell research is a powerful motivator that sustains professionals through challenges and setbacks. This sense of fulfillment enhances job satisfaction, as researchers witness the tangible results of their work in the form of new discoveries and improved patient outcomes. It fosters a sense of purpose, encouraging continuous learning and professional growth. Each day, stem cell researchers experience the reward of knowing their dedication may lead to breakthroughs in treating diseases, regenerating tissues, or even saving lives. This ongoing impact not only boosts morale but also creates a positive work environment where passion and commitment thrive, making the profession both meaningful and inspiring. Imagine a stem cell researcher who has spent years developing a new therapy for spinal cord injuries. After countless experiments and late nights in the lab, the therapy finally shows promising results in clinical trials, allowing patients to regain mobility. Witnessing a patient take their first steps after a devastating injury fills the researcher with immense personal satisfaction. This moment of triumph validates the years of hard work and sacrifice, reminding them of the profound difference their research can make. The gratitude expressed by patients and their families becomes a lasting source of motivation, reinforcing the researcher’s commitment to advancing the field and inspiring them to continue pursuing innovative solutions. Contribution to Society Contribution to Society means making a meaningful difference in the lives of others by advancing knowledge, improving well-being, and addressing pressing challenges faced by communities. In stem cell research, this concept drives professionals to develop innovative therapies, enhance healthcare, and offer hope to patients, ultimately shaping a healthier and more equitable world. The opportunity to contribute to society is a profound motivator for those in stem cell research. Knowing that their work has the potential to alleviate suffering, cure diseases, and improve quality of life gives researchers a deep sense of purpose. This positive aspect fosters a strong sense of job satisfaction, as professionals witness the tangible outcomes of their efforts in patient recovery and scientific breakthroughs. The daily pursuit of solutions to complex medical problems encourages continuous learning and personal growth, while the collaborative nature of the field builds a supportive community. Ultimately, the knowledge that their research can transform lives and advance medicine inspires stem cell researchers to push boundaries and remain passionate about their work. Imagine a stem cell researcher who has spent years developing a new treatment for spinal cord injuries. After countless experiments and setbacks, the therapy is finally ready for clinical trials. The researcher meets a patient who, after receiving the treatment, regains partial mobility and hope for a more independent life. Witnessing the patient’s progress and gratitude, the researcher feels an overwhelming sense of fulfillment, knowing their dedication has directly improved someone’s future. This real-world impact exemplifies how contributing to society through scientific innovation not only changes patients’ lives but also reinforces the researcher’s commitment and pride in their profession. Recognition Recognition is the acknowledgment and appreciation of an individual’s contributions, achievements, or expertise by peers, institutions, or society at large. In stem cell research, recognition validates the dedication, innovation, and impact of scientists, fostering a sense of accomplishment and motivating them to continue advancing the field for the greater good. Recognition in stem cell research is a powerful motivator that elevates both personal and professional fulfillment. When researchers receive acknowledgment for their discoveries or breakthroughs, it reinforces the value of their hard work and perseverance. This positive feedback not only boosts morale but also encourages continued innovation and collaboration. Recognition can lead to increased opportunities for career advancement, funding, and invitations to participate in influential projects or conferences. On a daily basis, professionals experience this benefit through peer appreciation, institutional awards, or public acknowledgment, all of which contribute to a supportive and inspiring work environment. Ultimately, recognition helps stem cell researchers feel that their efforts are meaningful and impactful, driving them to reach new heights in their careers. Imagine a stem cell researcher who, after years of meticulous experimentation, publishes a groundbreaking study on regenerative therapies. The scientific community takes notice, and the researcher is invited to present their findings at an international conference. Colleagues express admiration, and patients share stories of hope inspired by the research. The institution highlights the achievement in its communications, and the researcher’s work is cited by others in the field. This widespread recognition not only affirms the value of the researcher’s dedication but also opens doors to new collaborations and funding opportunities. The sense of pride and validation gained from such acknowledgment fuels the researcher’s passion, inspiring them to continue pushing the boundaries of scientific discovery. Challenges Thought Process In the context of Stem Cell Research, "Thought Process" refers to the complex mental activity required to analyze data, design experiments, interpret ambiguous results, and anticipate ethical implications. This cognitive demand is heightened by the field’s rapid advancements, intricate methodologies, and the necessity to integrate multidisciplinary knowledge, making it exceptionally challenging. The demanding nature of thought processes in stem cell research can lead to cognitive fatigue, decision paralysis, and slower progress in experimental work. Professionals must constantly adapt to new findings, troubleshoot unexpected results, and maintain ethical vigilance, all of which require significant mental resilience. This challenge often results in extended hours of critical thinking and problem-solving, sometimes under pressure to achieve breakthroughs. Successful researchers manage these constraints by cultivating a growth mindset, seeking collaborative input, and practicing reflective thinking. They regularly step back to reassess their approaches, embrace constructive feedback, and prioritize mental well-being, which helps them maintain clarity and creativity despite the field’s inherent complexities. Consider a stem cell biologist tasked with developing a protocol for differentiating pluripotent stem cells into neural cells. Initial experiments yield inconsistent results, prompting the researcher to systematically analyze each step, question underlying assumptions, and consult with colleagues from bioinformatics and clinical backgrounds. By methodically deconstructing the problem and integrating diverse perspectives, the scientist identifies a subtle variable affecting cell fate decisions. Through perseverance and adaptive thinking, the researcher refines the protocol, ultimately achieving reproducible outcomes. This scenario illustrates how a deliberate and collaborative thought process enables professionals to overcome intellectual obstacles, drive innovation, and contribute meaningfully to the advancement of stem cell research. Competition Competition in stem cell research refers to the intense race among scientists, laboratories, and institutions to make groundbreaking discoveries, publish influential papers, and secure limited funding. This environment is demanding because it requires constant innovation, rapid progress, and the ability to stand out in a field crowded with talented, driven professionals. The pressure of competition in stem cell research can shape daily routines, often leading to long hours, frequent grant applications, and the need to publish results quickly. This environment can be stressful, demanding resilience and adaptability from professionals who must balance collaboration with the drive to achieve individual recognition. Successful researchers manage this challenge by building strong professional networks, staying updated with the latest advancements, and maintaining a clear focus on their unique research goals. They often seek interdisciplinary collaborations, which can open new avenues for discovery and reduce direct competition. By fostering a supportive lab culture and prioritizing mental well-being, they create an environment where innovation thrives despite the competitive landscape. Consider a stem cell biologist working on a novel technique for regenerating damaged heart tissue. Aware that several other groups are pursuing similar goals, she proactively forms collaborations with bioengineers and clinicians, combining expertise to accelerate progress. By sharing preliminary findings at conferences and engaging in open scientific discussions, she gains valuable feedback and establishes her team as a leader in the field. When a competing lab publishes related results, she leverages her network to refine her approach and identify new research angles, ensuring her work remains relevant and impactful. Through strategic partnerships and adaptability, she successfully navigates the competitive environment, advancing both her career and the broader field of stem cell research. Risk Involved "Risk Involved" in stem cell research refers to the inherent uncertainties and potential hazards associated with experimental procedures, ethical considerations, and unpredictable outcomes. This challenge is demanding because it encompasses scientific, legal, and reputational risks, requiring professionals to navigate complex regulations and the possibility of unintended consequences in both research and clinical applications. The presence of significant risk in stem cell research affects daily work by introducing uncertainty into experimental design, data interpretation, and clinical translation. Researchers must constantly evaluate safety protocols, anticipate regulatory changes, and address ethical dilemmas, all of which can slow progress and increase stress. This environment demands resilience, as setbacks and unexpected results are common. Successful professionals manage these constraints by fostering a culture of transparency, maintaining rigorous documentation, and engaging in continuous education about evolving best practices. They also collaborate closely with regulatory bodies and ethics committees to ensure compliance and minimize risk, allowing them to advance their research responsibly while protecting both participants and their own professional integrity. Consider a stem cell researcher developing a new therapy for a degenerative disease. During preclinical trials, unexpected immune reactions in animal models highlight a significant safety risk. Rather than proceeding hastily, the researcher pauses the project to conduct additional safety studies and consults with immunologists and regulatory experts. By transparently communicating findings to stakeholders and adapting the research protocol, the professional not only mitigates potential harm but also strengthens the scientific validity of the project. This careful, collaborative approach allows the researcher to address the risk head-on, ultimately leading to a safer, more robust therapy and reinforcing trust within the scientific and medical communities. A Day Of Stem Cell Research The hum of incubators and the soft glow of lab equipment greet stem cell researchers long before the world outside fully wakes. In this high-stakes environment, every minute matters and every movement is deliberate. The day unfolds in a rhythm dictated by living cells—fragile, potent, and full of promise. Here, curiosity meets precision, and the pursuit of discovery is balanced by the responsibility of safeguarding tomorrow’s medical breakthroughs. For those who thrive beyond the desk, a day in stem cell research is a blend of anticipation, focus, and collaboration, where the smallest details can lead to the biggest revelations. As dawn breaks, the lab is a sanctuary of calm. Researchers arrive early to don their lab coats and review the previous day’s notes, scanning for any anomalies or urgent updates. The first task is always to check on the cell cultures, ensuring they have survived the night and are thriving in their controlled environments. This involves careful inspection under the microscope, assessing cell morphology, and recording any changes. The early hours are also spent preparing fresh media, calibrating equipment, and setting up the day’s experiments—each step performed with meticulous attention to sterility and detail. By mid-morning, the lab is alive with activity. This is the heart of the day, when researchers conduct their most critical experiments. Whether it’s inducing pluripotency, differentiating stem cells into specialized types, or testing new compounds, every action is guided by rigorous protocols. Pipettes click, timers beep, and data streams onto computer screens as samples are processed and results are logged in real time. Collaboration is key during this phase, with team members troubleshooting unexpected results, sharing insights, and ensuring that every variable is accounted for. The pace is intense, but the sense of purpose is palpable. After a quick lunch, the afternoon shifts toward collaboration and execution. Researchers gather for team meetings, where they discuss the morning’s findings, review data trends, and strategize next steps. These sessions often spark lively debates about experimental design or interpretation of results, leading to protocol adjustments or the planning of follow-up studies. The afternoon may also involve hands-on training with new techniques, coordinating with collaborators in other departments, or preparing samples for external analysis. Communication and adaptability are essential as the team works together to push the boundaries of what’s possible. As the day winds down, the focus turns to thorough documentation and planning. Researchers meticulously record their observations, update digital lab notebooks, and analyze preliminary data to identify patterns or anomalies. Administrative tasks, such as ordering supplies or responding to regulatory queries, are handled with the same care as experimental work. Before leaving, the team reviews the next day’s agenda, ensuring that all materials are prepared and that ongoing cultures are properly maintained. The lab grows quiet once more, but the sense of anticipation lingers—tomorrow holds new questions, and perhaps, new answers.

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How to get into

Stem Cell Research?

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Links for this Talk

Progaram Specific Researcher Dr Rajneesh Verma's LifePage:

[LifePage]
https://www.lifepage.in/page/rajneeshverma

LifePage Career Talk on Stem Cell Research

[Career]
https://www.lifepage.in/careers/stem-cell-research

[Full Talk]
https://lifepage.app.link/20180430-0001

[Trailer]
https://www.youtube.com/watch?v=Wq3Xr07bivg

(Stem Cell Research, Dr Rajneesh Verma, CIRA, Program Specific Research, Research, Biotechnology, iPS Cell, iPS Science)

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[ 19 years & 1 month Experience ]

Chemistry is a branch of science that involves the study of the composition, structure and properties of matter. Often known as the central science, it is a creative discipline chiefly concerned with atomic and molecular structure and its change, for instance through chemical reactions.

"After completing my B Sc & M Sc in Chemistry, I went on to do a PG Diploma in Pulp & Paper Technology. I also have a Ph D in Polymer Chemistry. I have taught at Thapar Group of Institutions & Dolphin Institute. I joined Uttaranchal University in 2008 as Assistant Professor & HOD Chemistry and am now Dean & HOD Chemistry at Uttaranchal College of Applied and Life Sciences."

Policy Research

Udisha Saklani
Policy Consultant | National University Of Singapore

[ 3 years & 4 months Experience ]

The study of public policy includes the analysis of both the process of policymaking and the contents of policy. Policy analysis includes substantive area research, program evaluation and impact studies, and policy design.

"I did my Schooling from Welham Girls' School, Dehradun and my Graduation in Maths (Hons) from St Stephens College, Delhi University. I then did my Masters in Public Policy from National University of Singapore. Currently, I work as a a Policy Researcher at the Institute of Water Policy, National University of Singapore."

Astronomy Popularization

R C Kapoor
Astronomer | Various Assignments

[ 48 years & 1 month Experience ]

Astronomy is such a fascinating subject that attracts not only students but also layman and amateurs. Curiosity to understand the subjects is very common in all age groups. Historically, Astronomy is one of the oldest sciences concerned with the study of planets, stars, galaxies & other celestial objects and phenomena. From time immemorial the night sky has fascinated many cultures in the past including the Indians, Babylonians, Egyptians, Chinese & the Greeks and it continues to fascinate us even today.

"My inclination towards astronomy led to my graduation and then post graduation in Astrophysics. In 1971, I started my career and joined Observatory (now Aryabhatta Research Institute of Observational Sciences, ARIES) at Nainital in observational astronomy. Then, in 1974 until 2010, I was with the Indian Institute of Astrophysics (IIA), Bangalore where I worked on various topics in relativistic astrophysics - black holes, white holes, quasars and pulsars etc. His association with the institution continues. In 1980, I completed my Ph D from Agra University. I actively participate in popularization of astronomy and have also published research papers in peer-reviewed international journals and presented papers in national and international conferences. I have also published on the physical-chemical nature of bhasmas in the Indian Systems of Medicine."

Materials Research

Dr. Arun Kumar Shah
Assistant Director | DRDO

[ 30 years Experience ]

Materials science is an interdisciplinary field concerned with the understanding and application of the properties of matter. Materials scientists study the connections between the underlying structure of a material, its properties, its processing methods and its performance in applications.

"After doing my schooling from Dehradun and Jhansi, I did B Tech in Metallurgy at IIT Roorkee and then M Tech from IIT Kanpur. I did my Ph D in Metallurgy from IIT Bombay and PG Diploma in Metallurgy from Germany. I also attended the National Defence College in Delhi. I worked in DRDO for 30 years in Materials Research and Building Technology."

Public Policy Research

Abhishek Jain
Senior Program Lead | Council on Energy, Environment and Water

[ 5 years Experience ]

Public policy analysis is a large, sprawling intellectual enterprise involving numerous academic disciplines, private research organizations, and governmental agencies each sharing a common concern with the formulation, implementation, or consequences of public policy decisions.

"I did B Tech in Mechanical Engineering from IIT Roorkee and M Phil in Engineering for Sustainable Development from University of Cambridge. I have worked with Nestle as Energy & Project Engineer. In 2014, I joined Council on Energy, Environment & Water and currently working as Senior Program Lead."