Dr. Nirmala Kumari Jangid
Chemistry, Banasthali Vidyapith, Jaipur, India
Assistant Professor, Department of Chemistry, Banasthali Vid...
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Academic Career Length
14Years (2013-Present)
(Calculated once Scilit publication data is synced: current year − year of first publication + 1)
Representative Publications
View All Publications13 August 2020 in Environmental Chemistry Letters
Journal Article
Sapana JadounRARizwan Arif
Rizwan ArifNirmala Kumari JangidRMRajesh Kumar Meena
Rajesh Kumar Meena7 August 2020 in Polymer Bulletin
Journal Article
Nirmala Kumari JangidSapana JadounAYAnjali Yadav
Anjali Yadav
MSManish Srivastava
Manish Srivastava
NKNavjeet Kaur
Navjeet Kaur
Journal Article
ABAnjali Banger
Anjali BangerSGSakshi Gautam
Sakshi GautamSapana JadounNirmala Kumari JangidASANAMIKA SRIVASTAVA
ANAMIKA SRIVASTAVAMSManish Srivastava
Manish Srivastava +2
In the recent decade, carbon dots have drawn immense attention and prompted intense investigation. The latest form of nanocarbon, the carbon nanodot, is attracting intensive research efforts, similar to its earlier analogues, namely, fullerene, carbon nanotube, and graphene. One outstanding feature that distinguishes carbon nanodots from other known forms of carbon materials is its water solubility owing to extensive surface functionalization (the presence of polar surface functional groups). These carbonaceous quantum dots, or carbon nanodots, have several advantages over traditional semiconductor-based quantum dots. They possess outstanding photoluminescence, fluorescence, biocompatibility, biosensing and bioimaging, photostability, feedstock sustainability, extensive surface functionalization and bio-conjugation, excellent colloidal stability, eco-friendly synthesis (from organic matter such as glucose, coffee, tea, and grass to biomass waste-derived sources), low toxicity, and cost-effectiveness. Recent advances in the synthesis and characterization of carbon dots have been received and new insight is provided. Presently known applications of carbon dots in the fields of bioimaging, drug delivery, sensing, and diagnosis were highlighted and future applications of these astounding materials are speculated.
21 May 2021 in Current Organic Chemistry
Journal Article
NKNavjeet Kaur
Navjeet Kaur
NANeha Ahlawat
Neha Ahlawat
YVYamini Verma
Yamini Verma
PGPooja Grewal
Pooja Grewal
PBPranshu Bhardwaj
Pranshu Bhardwaj
Nirmala Kumari Jangid: Heterocyclic compounds are the largest and most diverse family of organic compounds. Among them, aromatic heterocyclic compounds are the structural motifs found in many biologically active synthetic and natural compounds, agrochemicals, and medicines. Moreover, aromatic heterocyclic compounds are extensively utilized to form dyes and polymeric materials of great importance. In organic synthesis, there are several reports on the uses of aromatic heterocyclic compounds as intermediates. In this review article, we have focused on the synthesis of heterocycles using crown ethers.
23 January 2020 in Synthetic Communications
Journal Article
Navjeet KaurYVYamini Verma
Yamini Verma
PGPooja Grewal
Pooja Grewal
NANeha Ahlawat
Neha Ahlawat
PBPranshu Bhardwaj
Pranshu Bhardwaj
Nirmala Kumari JangidFew conversions cannot take place with ground-state reactions even with the help of a catalyst, therefore they are made to occur under photochemical conditions. The transfer of electrons took place even with the photochemical excitement of one molecule where redox reaction cannot occur at the ground state. The ground-state reactions resulted in the formation of side products. The substrates did not require any sort of chemical activation for C–N bond construction in the course of photochemical reactions. The source of energy; light has always been the interest of researchers in order to induce chemical reactions ever since the starting of scientific chemistry. The present review encloses the chemistry of photochemical transformations with a focus on their synthetic uses. The organic photochemical reactions prevent the polluting or harmful reagents thus, provides a possibility for sustainable procedures as well as green chemistry. This review article displays the formation of numerous of five-membered fused nitrogen-heterocyclic compounds.
10 December 2024 in Environmental Science & Technology Letters
Journal Article
Sapana JadounSCSampath Chinnam
Sampath Chinnam
SJShagufta Jabin
Shagufta Jabin
YUYachana Upadhyay
Yachana Upadhyay
Nirmala Kumari JangidJZJannatun Zia
Jannatun Zia
About Me
Dr. Nirmala Kumari Jangid is an Assistant Professor in the Department of Chemistry at Banasthali Vidyapith, Rajasthan, India, with more than nine years of teaching and research experience. She holds a PhD in Chemistry from Mohanlal Sukhadia University, Udaipur, and is CSIR-NET JRF qualified. Her research interests include plastic waste recycling and valorization; environmental and water remediation; green synthesis of nanomaterials; photocatalysis; and conducting polymers, particularly polyaniline and its derivatives. SciRank Global (2025) has recognized her among the world’s Top 5% Scientists. Dr. Jangid’s prolific contributions to science are evidenced by her extensive publication record, including over 70 articles in prestigious international journals, one authored book and three edited books, three published and one granted patent, 70 book chapters, accumulating more than 2700 citations (H-index: 19), and approximately 40 presentations at national and international forums. Her research contributions have earned awards including the Young Researcher Award (2022), the Best Paper Presentation Award (2026), and recognition by the Royal Society of Chemistry as an Excellent Women Researcher (2026). She is a Member of the Royal Society of Chemistry (MRSC), Rajasthan Science Congress, VIBHA, and the Asian Polymer Association.
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