Young Scientist Award

Aprajita Joshi
Affiliation	IISER Bhopal
Country	India
Scopus ID	57210785548
Documents	13
Citations	323
h-index	6
Subject Area	Raman Spectroscopy
Event	Indian Scientist Awards

Aprajita Joshi is a researcher affiliated with the Indian Institute of Science Education and Research Bhopal (IISER Bhopal), India, whose stated subject area is Raman Spectroscopy. The academic profile supplied for this recognition article records 13 documents, 323 citations, and an h-index of 6. These bibliometric indicators provide a quantitative description of the research record represented in the supplied profile and are presented here without implying a comparison with other researchers.

Abstract

This academic recognition profile presents the research record of Aprajita Joshi of IISER Bhopal, India, in the field of Raman Spectroscopy. The profile information supplied for the article identifies 13 research documents, 323 citations, and an h-index of 6. Raman spectroscopy is an established spectroscopic technique used to investigate vibrational, structural, chemical, and material characteristics through the interaction of light with matter. The foundational Raman effect was reported in the early development of modern spectroscopy and subsequently became an important analytical approach across physical and chemical sciences [1] Contemporary Raman research encompasses conventional spectroscopy as well as enhanced and advanced measurement approaches applied to diverse scientific systems [2].

Keywords

Raman Spectroscopy; Spectroscopy; Molecular Vibrations; Materials Characterization; Scientific Research; IISER Bhopal; Young Scientist Award; Indian Scientist Awards.

Introduction

Raman spectroscopy is based on the inelastic scattering of light and provides information associated with molecular and lattice vibrations. Since the observation of the Raman effect, the technique has developed into a broad analytical methodology used in chemistry, physics, materials science, nanoscience, biology, and related fields [1]. Its ability to provide spectroscopic signatures without necessarily requiring extensive sample preparation has contributed to its widespread research use.

Developments in laser sources, detectors, microscopy, data processing, and surface-enhancement strategies have expanded the analytical capabilities of Raman-based methods. In materials research, Raman measurements can provide information about bonding, crystallinity, defects, strain, and other structural characteristics. For example, Raman spectroscopy has become an important characterization method for carbon-based materials, including graphene and related systems [2]

Within this scientific context, the supplied profile identifies Aprajita Joshi with Raman Spectroscopy as the principal subject area. The information presented in this article is intended to provide a structured academic overview of the supplied affiliation and bibliometric record.

Research Profile

Aprajita Joshi is identified in the supplied academic information as being affiliated with IISER Bhopal in India. The stated research subject is Raman Spectroscopy. The bibliometric information associated with the supplied Scopus profile records 13 documents, 323 citations, and an h-index of 6. Bibliometric indicators such as publication counts, citation counts, and h-index values are commonly used as quantitative descriptors of scholarly output and citation activity, although they represent only selected aspects of a research record.

Profile Attribute	Supplied Information
Researcher	Aprajita Joshi
Institution	IISER Bhopal
Country	India
Subject Area	Raman Spectroscopy
Documents	13
Citations	323
h-index	6

Research Contributions

The supplied subject specialization places Aprajita Joshi’s research profile within Raman Spectroscopy. Raman-based research can address the identification and interpretation of vibrational modes, structural characteristics, chemical composition, and material properties. Depending on the research system, Raman measurements may be used alongside complementary characterization methods to establish relationships between spectroscopic signatures and physical or chemical properties [1][2].

The academic profile contains a measurable publication and citation record, with 13 documents and 323 citations reported in the supplied information. These figures indicate that the profile has generated a body of indexed scholarly literature and that those publications have accumulated citations within the relevant scholarly databases. Detailed claims about individual research findings, experimental methodologies, co-authorship, or specific scientific discoveries are not made here because those details were not included in the supplied profile.

• Research specialization identified as Raman Spectroscopy.
• Academic affiliation identified as IISER Bhopal, India.
• 13 documents reported in the supplied Scopus profile.
• 323 citations and an h-index of 6 reported in the supplied profile.

Publications

The supplied profile records 13 documents associated with the researcher. The available input does not provide a verified publication-by-publication bibliography, article titles, journal names, publication years, co-authors, or individual DOI identifiers. Accordingly, this section records the publication volume without assigning specific publications or research findings to the researcher beyond the supplied bibliometric information.

For a complete publication bibliography, the researcher’s indexed author profile should be consulted directly through the external academic profile links provided below. The foundational and methodological references included in this article are background sources concerning Raman spectroscopy rather than publications attributed to Aprajita Joshi.

Research Impact

The supplied bibliometric record reports 323 citations across 13 documents and an h-index of 6. Citation counts can provide evidence of the extent to which published work has been referenced in subsequent scholarly literature, while the h-index combines publication and citation dimensions into a single indicator. Such metrics are dependent on database coverage, disciplinary citation practices, publication age, authorship patterns, and other factors and should therefore be interpreted as descriptive indicators rather than comprehensive measures of research quality.

Raman spectroscopy itself has broad scientific relevance because Raman measurements can contribute to the characterization of molecular, structural, and material properties. Its development from the original observation of the Raman effect into modern spectroscopic and microspectroscopic techniques illustrates the continuing role of spectroscopy in scientific research [1][2].

Award Suitability

The supplied nomination information identifies the recognition category as the Young Scientist Award under the Indian Scientist Awards event. The research profile provides an identifiable institutional affiliation, a stated specialization in Raman Spectroscopy, and quantitative publication and citation indicators. These elements provide a structured academic basis for documenting the nomination profile.

Award recognition should be understood within the criteria and evaluation procedures established by the organizing body. The information presented on this page summarizes the supplied academic profile and does not constitute an independent ranking or comparative assessment of researchers.

Conclusion

Aprajita Joshi, affiliated with IISER Bhopal, India, is presented in the supplied academic profile as a researcher working in Raman Spectroscopy. The profile reports 13 documents, 323 citations, and an h-index of 6. Raman spectroscopy is a well-established scientific technique with applications across spectroscopy, materials science, chemistry, physics, and related research areas [1][2]. The information assembled here provides a concise academic recognition profile while distinguishing supplied bibliometric information from broader contextual information about the research field.

External Links

• • Scopus Author Profile
  • Google Scholar Profile

References

1. Sb³⁺–Er³⁺‐Codoped Cs₂NaInCl₆ for Emitting Blue and Short‐Wave Infrared Radiation
   https://onlinelibrary.wiley.com/doi/abs/10.1002/anie.202201628
2. CdS/TiO2 heterojunction in glass matrix: synthesis, characterization, and application as an improved photocatalyst
   https://www.sciencedirect.com/science/article/abs/pii/S0169433219325644
3. Ultrabroad near infrared emitting perovskites
   https://onlinelibrary.wiley.com/doi/abs/10.1002/anie.202415003
4. Defect-mediated electron–phonon coupling in halide double perovskite
   https://pubs.aip.org/aip/apl/article-abstract/126/2/021902/3330598
5. Emergence of a spin-liquid-like phase in the quantum spin ladder compound with chemical substitution
   https://journals.aps.org/prb/abstract/10.1103/PhysRevB.109.L100405