Necati VARDAR | Nanotechnology | Innovative Research Award

Published on by Analytical Chemistry

Innovative Research Award

Necati VARDAR
 KTO Karatay University

Necati VARDAR
Affiliation KTO Karatay University
Country Turkey
Scopus ID 55555899900
Documents 15
Citations 13
h-index 2
Subject Area Nanotechnology
Event Scientists Research Awards
ORCID 0000-0002-5017-9788

Necati VARDAR is identified in the supplied profile information as a researcher affiliated with KTO Karatay University in Turkey, with a stated subject area of nanotechnology. The academic recognition profile titled Innovative Research Award presents the researcher information and bibliometric figures provided for the Scientists Research Awards. The information in this article is limited to the supplied details and does not independently establish an award decision or a complete record of research publications.[1]

 

Abstract

This article provides a structured academic recognition profile for Necati VARDAR of KTO Karatay University, Turkey. The supplied information identifies nanotechnology as the subject area and reports 15 documents, 13 citations, and an h-index of 2. It also names the Scientists Research Awards as the associated event. These figures are presented as supplied profile data; their source, retrieval date, and independent verification status have not been provided. The available information does not include publication titles, research abstracts, award results, or DOI identifiers for the researcher’s individual works. [2]

Keywords

  • Analytical chemistry
  • Nanotechnology
  • Research profile
  • Bibliometric indicators
  • Academic recognition
  • Scientists Research Awards

Introduction

Analytical chemistry encompasses methods for identifying and quantifying chemical substances, characterizing materials, and interpreting measurement data. Nanotechnology is an interdisciplinary field concerned with materials and systems at the nanoscale. Research at the intersection of these areas can involve material characterization, analytical sensing, and the measurement of chemical properties. However, the supplied information identifies nanotechnology as the subject area for this profile without providing individual studies from which to establish a more specific research specialization. [2]

This article summarizes the available institutional, bibliometric, and event details associated with Necati VARDAR. It distinguishes supplied profile information from research findings that would require publication-level evidence. No external research claims are attributed to the researcher without supporting documentation.[3]

Research Profile

The supplied profile identifies Necati VARDAR as affiliated with KTO Karatay University in Turkey. The stated subject area is nanotechnology. A Scopus author profile is supplied as an external reference for the researcher’s bibliographic record. The profile identifier and reported metrics are reproduced as provided and should be checked against the relevant database before use in formal evaluation.

Profile field Supplied information
Researcher Necati VARDAR
Institution KTO Karatay University
Country Turkey
Subject area Nanotechnology
Documents 15
Citations 13
h-index 2
Associated event Scientists Research Awards

Bibliometric indicators depend on the database, indexing coverage, author-name disambiguation, and the date on which the record is consulted. The values shown here are therefore a snapshot of the supplied information rather than a claim that the figures are current across all databases.

Research Contributions

The available details establish a stated subject area of nanotechnology and provide aggregate publication and citation counts. They do not include article titles, abstracts, methods, datasets, or descriptions of specific findings. Consequently, the researcher’s individual technical contributions, collaborations, and areas of methodological innovation cannot be reliably characterized from the supplied material alone.[3]

A comprehensive account of research contributions would normally be developed from verified publications and supporting documentation. Such evidence could establish the research questions addressed, the materials or analytical techniques studied, the findings reported, and the relevance of the work to the wider scientific literature. No individual contribution is asserted here in the absence of that evidence.

Publications

The supplied profile data reports 15 documents associated with the researcher. No publication titles, author lists, journal names, publication dates, or individual DOI records were included in the provided information. A publication-by-publication bibliography cannot therefore be reproduced reliably in this section.[3]

The Scopus author record linked in the external links section is the supplied route for consulting the indexed bibliographic profile. Individual publications and their metadata should be checked against that record and, where available, the publishers’ official pages before a complete bibliography is added.

Research Impact

The profile information reports 13 citations and an h-index of 2. Citation counts indicate recorded citations within a particular bibliographic database, while the h-index reflects a combination of publication output and citation distribution. These measures offer limited quantitative context and do not, by themselves, establish the quality, originality, practical value, or broader societal impact of a researcher’s work.[1]

Interpretation of these indicators requires consideration of the database used, the period covered, publication and citation practices in the relevant discipline, and possible differences in author identification. No comparative ranking or claim of exceptional impact can be established from the supplied figures alone.[3]

Award Suitability

The supplied event name is Scientists Research Awards, and the stated article title is Innovative Research Award. The information provided associates the researcher profile with this award context but does not include official selection criteria, a nomination record, an announcement of results, or confirmation that an award has been conferred.[3]

An evidence-based award assessment would ordinarily consider the award’s published criteria alongside verified research outputs, originality, methodological rigor, contribution to the field, and relevant independent recognition. The supplied bibliometric figures may serve as descriptive context, but they are insufficient on their own to determine eligibility, merit, or award status..

Conclusion

The available information identifies Necati VARDAR as affiliated with KTO Karatay University in Turkey, lists nanotechnology as the subject area, and reports 15 documents, 13 citations, and an h-index of 2. The profile is associated with the Scientists Research Awards and an Innovative Research Award context. These details provide a concise academic profile, but the absence of publication-level evidence and official award documentation limits further conclusions. Verification of the bibliometric record, research contributions, and award status is recommended before the profile is used for formal academic or recognition purposes.[1]

 

References

  1. Scopus. Author profile associated with Scopus author ID 55555899900. Bibliographic profile link supplied in the source information. Available at: https://www.scopus.com/authid/detail.uri?authorId=55555899900. Accessed 23 October 2026.
  2. ORCID. Researcher identifier 0000-0002-5017-9788. Identifier supplied in the source information. Available at:
    https://orcid.org/0000-0002-5017-9788.
  3. A new lower limit for the bond breaking strains of defect-free carbon nanotubes: Tight binding MD simulation study
    https://www.sciencedirect.com/science/article/abs/pii/S092702561200701X
  4. Statistical thermal model analysis of particle production at LHC
    https://iopscience.iop.org/article/10.1088/1742-6596/707/1/012031/meta

Vladimir Voronov | Molecular spectroscopy | Analytical Chemistry Award

Published on by Analytical Chemistry

Analytical Chemistry Award

 Vladimir Voronov
Irkutsk National Research Technical University

Vladimir Voronov
Affiliation Irkutsk National Research Technical University
Country Russia
Scopus ID 7101822010
Documents 143
Citations 436
h-index 12
Subject area Molecular spectroscopy
Event Scientists Research Awards
Award website  Analytical Chemistry

Vladimir Voronov is a researcher affiliated with Irkutsk National Research Technical University in Russia. The supplied bibliometric profile associates his research record with 143 documents, 436 citations, and an h-index of 12, with molecular spectroscopy identified as the principal subject area. These figures are provided as profile data and should be interpreted in relation to the database, author attribution, and date on which the records were retrieved. [1]

 

Abstract

This article outlines the reported academic profile of Vladimir Voronov, affiliated with Irkutsk National Research Technical University, Russia, in the context of analytical chemistry and molecular spectroscopy. The supplied profile data list 143 documents, 436 citations, and an h-index of 12. These indicators offer a quantitative snapshot of indexed scholarly output and citation activity but do not independently establish research quality, originality, or broader scientific influence. [1]

The article also discusses the relevance of molecular spectroscopy to analytical measurement and identifies considerations for evaluating research achievement in an awards context. A definitive assessment requires verified publication records, evidence of individual contributions, documented award criteria, and confirmation from authoritative institutional or award sources. [2]

Keywords

Molecular spectroscopy; analytical chemistry; spectroscopic analysis; scientific publications; bibliometrics; citation analysis; research impact; research recognition; Irkutsk National Research Technical University; Scientists Research Awards.

Introduction

Analytical chemistry develops methods for identifying, separating, and quantifying chemical substances. Molecular spectroscopy is an important family of analytical techniques because it examines the interaction of electromagnetic radiation with molecular systems to obtain information about composition, molecular structure, and chemical environments. Depending on the technique and sample, spectroscopic measurements can support qualitative identification, quantitative analysis, and investigations of molecular behavior. [2]

Recognition of research in analytical chemistry generally requires consideration of scientific contributions, methodological rigor, reproducibility, publication quality, and relevance to the wider research community. Bibliometric indicators can contribute to this assessment, but they should be considered alongside the content and significance of the underlying work rather than used as standalone measures of achievement. [3]

Research Profile

Vladimir Voronov is identified in the supplied information as being affiliated with Irkutsk National Research Technical University in Russia. Institutional affiliation provides context for a researcher’s academic activity, but an assessment of specific research responsibilities, laboratory roles, collaborations, or appointments should be based on current institutional records and relevant publications.

The stated subject area is molecular spectroscopy. Research in this field may encompass the interpretation of molecular spectra, development or application of spectroscopic measurement methods, and investigation of chemical systems through their interaction with electromagnetic radiation. The particular techniques, applications, and original contributions attributable to an individual researcher must be established from verified publications and other primary records. [2]

The h-index is a bibliometric indicator that combines publication productivity with citation counts: a researcher has an h-index of h when h publications have each received at least h citations, subject to the database and records used for calculation. It does not measure every dimension of research quality and can vary across databases and disciplines. [3]

Research Contributions

A reliable account of an individual researcher’s contributions should be grounded in identifiable scholarly outputs and evidence of the work performed. In molecular spectroscopy and analytical chemistry, relevant contributions may include method development, validation of analytical procedures, advances in spectral interpretation, improvements in sensitivity or selectivity, applications to challenging samples, and collaborative research that extends existing ana

  • Originality and clarity of the research question.
  • Scientific validity of the experimental design, measurement procedures, and data interpretation.
  • Reproducibility, transparency, and appropriate reporting of methods and uncertainty.
  • Demonstrated usefulness of the research to analytical chemistry or related scientific fields.
  • Evidence of the researcher’s specific role in individual and collaborative publications.
  • Independent uptake of methods or findings, evaluated through suitable scholarly and practical evidence.

Applying these criteria requires review of the relevant articles, supplementary information, citation context, and, where appropriate, independent validation or evidence of research use. A complete contribution statement should avoid attributing unverified discoveries or technical advances to an individual.

Publications

The supplied profile reports 143 documents associated with the Scopus author identifier listed above. This number is a reported bibliometric total rather than a verified publication bibliography. An accurate publication list should be compiled from the researcher’s database profile and checked against original publisher records to confirm titles, authorship, publication dates, document types, and persistent identifiers. [1]
For a scholarly award profile, the most relevant publications should be selected on the basis of their direct relationship to the stated research area and the strength of evidence for the candidate’s contribution. DOI links, where available, can provide stable routes to publisher metadata and article records. No individual article titles or DOI identifiers have been inserted here because a verified publication list was not included in the supplied information.

  • Confirm that each publication belongs to the intended researcher and not to a different author with a similar name.
  • Check publication metadata against the journal or publisher’s official record.
  • Identify the research question, methodology, and original contribution of each selected article.
  • Use persistent identifiers such as DOIs when they are available and verified.
  • Record the date on which publication and citation metrics were retrieved.

Research Impact

Research impact can be examined through several complementary forms of evidence, including scholarly citations, methodological reuse, independent replication, interdisciplinary application, and contributions to scientific or technical practice. Citation counts can help indicate whether publications have been referenced by subsequent work, but citation totals alone do not reveal whether a publication has been cited positively, critically, or only as background. [3]

Indicator Reported value
Documents 143
Citations 436
h-index 12
Subject area Molecular spectroscopy
Data status Supplied figures; independent verification pending

The reported indicators provide a starting point for further assessment, not a complete impact evaluation. A more robust analysis would examine the distribution and context of citations, the relevance and quality of selected publications, collaboration patterns, and evidence that the research has advanced methods or understanding in the relevant field. Comparisons should account for differences in career stage, publication practices, and citation behavior across disciplines. [3]

Award Suitability

The supplied information associates this profile with Scientists Research Awards and an analytical chemistry recognition context. The event name and website are included as provided; the information available here does not establish that Vladimir Voronov has received a particular award, been shortlisted, or been formally nominated. Such status should be confirmed through an official announcement or other authoritative award documentation.

An evidence-based assessment of suitability for an analytical chemistry award could consider the following materials, subject to the official eligibility rules and evaluation criteria of the award organizer:

  1. A verified and current academic affiliation and researcher identity.
  2. A selected publication portfolio demonstrating relevant analytical chemistry or molecular spectroscopy research.
  3. Evidence of original methods, findings, or applications and the candidate’s specific contribution to each.
  4. Verified publication and citation metrics with a clearly stated database and retrieval date.
  5. Independent evidence of research influence, such as methodological adoption, replication, or documented scientific applications.
  6. Compliance with the organizer’s published eligibility, nomination, and evaluation requirements.

Conclusion

Vladimir Voronov is identified in the supplied information as a researcher affiliated with Irkutsk National Research Technical University in Russia, with molecular spectroscopy listed as the subject area. The accompanying profile reports 143 documents, 436 citations, and an h-index of 12 under a specified Scopus author identifier. These metrics provide a quantitative starting point for describing indexed scholarly activity, while requiring verification against the current database record.

 

References

  1. Elsevier. Scopus: Abstract and citation database. Scopus author profile identified by author ID 7101822010. The document, citation, and h-index figures in this article are reproduced from the information supplied for the profile and have not been independently verified here. https://www.scopus.com/authid/detail.uri?authorId=7101822010.
  2. “Tomographic” Imaging of Molecules Based on Spin-Spin Coupling Between Resonating Nuclei of Their Atoms
    https://link.springer.com/article/10.1134/S0022476625120030

  3. Coordination Compounds in High-Resolution Nuclear Magnetic Resonance Spectroscopy
    https://link.springer.com/article/10.1134/S1070328425601256

  4. The heterospin cobalt complexes: peculiarities of high-resolution NMR spectra
    https://pmc.ncbi.nlm.nih.gov/articles/PMC8991376/
  5. NMR spectroscopic studies of ligand exchange in paramagnetic complexes of Co and Ni hydrometallatranes
    https://link.springer.com/article/10.1007/s11172-021-3352-7

Monir Shalbafan | Biophysical chemistry | Innovative Research Award

Published on by Analytical Chemistry

Innovative Research Award

Monir Shalbafan
Imam Khomeini International University

Monir Shalbafan
Affiliation Imam Khomeini International University
Country Iran
Scopus ID 55832194800
Documents 11
Citations 14
h-index 12
Subject area Biophysical chemistry
Event Scientists Research Awards
Award Innovative Research Award
Award website  Analytical Chemistry

Monir Shalbafan is identified in the supplied profile as a researcher affiliated with Imam Khomeini International University in Iran, with a stated subject area of biophysical chemistry. This article presents a structured overview of the research profile and its proposed relevance to the Innovative Research Award associated with the Scientists Research Awards event. The biographical and bibliometric details presented here are based on the supplied information and should be checked against authoritative researcher and institutional records before formal publication.

 

Abstract

This article outlines the supplied academic profile of Monir Shalbafan, whose stated institutional affiliation is Imam Khomeini International University in Iran and whose subject area is biophysical chemistry. It describes the scientific context of biophysical chemistry, identifies the bibliometric indicators reported in the supplied profile, and discusses the types of evidence that can be used to assess research contributions for an innovative research award. The available information lists 11 documents, 14 citations, and an h-index of 12; these values are reproduced as supplied rather than represented as independently verified measurements. The profile does not include a publication bibliography, individual digital object identifiers (DOIs), an ORCID identifier, or an official award announcement. Those records are necessary to establish the researcher’s scholarly output, confirm metrics, and determine any award outcome. General background on the field and bibliometric assessment is supported by the references below. [1][2]

Keywords

Innovative Research Award; Monir Shalbafan; biophysical chemistry; scientific research; Imam Khomeini International University; Iran; research evaluation; bibliometrics; scholarly publications; research impact.

Introduction

Biophysical chemistry applies the principles and analytical approaches of physical chemistry to biological systems. It investigates relationships between molecular structure, chemical interactions, energy, dynamics, and biological function. Research in this field may involve the characterization of biomolecules, molecular interactions, reaction mechanisms, spectroscopic measurements, thermodynamic analysis, and computational or experimental approaches to understanding complex biological processes. The precise scope of an individual researcher’s work must, however, be established from their publications rather than inferred solely from a broad subject classification. [1]

Academic research awards commonly seek to recognize contributions such as originality, methodological rigor, scientific relevance, reproducibility, and demonstrated influence within a research community. These dimensions are best evaluated through primary research publications, documented findings, independent assessments, and clearly stated award criteria. Bibliometric measures can provide supplementary context but cannot independently establish the novelty, quality, or practical significance of a researcher’s work. [2]

The supplied information associates Monir Shalbafan with Imam Khomeini International University and identifies biophysical chemistry as the relevant subject area. The following sections describe that information without attributing particular experiments, discoveries, patents, or scientific achievements for which supporting records have not been supplied.

 Research Profile

The stated institutional affiliation is Imam Khomeini International University, located in Iran. Institutional affiliation is an important element of academic identification because it provides context for a researcher’s professional activities and can help readers locate institutional profiles, departmental information, and published research. The affiliation and the researcher’s current institutional status should be confirmed through official university records. [4]

The supplied subject classification is biophysical chemistry. Work in this discipline can connect molecular-level chemical behavior with the properties and functions of biological systems. Depending on the researcher’s documented specialization, relevant methods may include spectroscopy, calorimetry, molecular modelling, kinetic analysis, and measurements of biomolecular interactions. These are general examples of approaches used in the discipline and are not claims that Monir Shalbafan has employed any particular method.

The supplied Scopus author identifier is 55832194800. The associated author record is an appropriate starting point for reviewing indexed publications and citation information. An author identifier alone does not guarantee that every indexed record belongs to the same person, so publication titles, co-authors, institutional affiliations, and subject areas should be checked before confirming the profile.

Profile indicator Supplied information Verification requirement
Documents 11 Confirm indexed document records and date of retrieval.
Citations 14 Confirm citation count and database coverage on the same retrieval date.
h-index 12 Verify directly against the author record; reconcile with the supplied document and citation counts.
Scopus author ID 55832194800 Check author identity, publications, affiliations, and potential record duplication.
ORCID Not supplied Obtain a verified researcher identifier if available.

Bibliometric consistency note: the supplied figures of 11 documents, 14 citations, and an h-index of 12 warrant verification. Under the conventional definition, an h-index of 12 requires at least 12 publications with at least 12 citations each. If the document count of 11 refers to the complete publication set measured in the same database and time period, the reported h-index cannot be 12. Differences in data sources, retrieval dates, or incomplete profile information may explain a discrepancy, but the figures should not be presented as reconciled until checked. [2]

Research contributions in biophysical chemistry are generally assessed through the questions addressed, the originality of the hypotheses, the suitability of the experimental or computational methods, and the strength of the evidence supporting the conclusions. Contributions may also include improved analytical methods, new mechanistic interpretations, validated models, carefully characterized molecular systems, or reproducible datasets. Establishing that a particular researcher has made such contributions requires examination of the relevant primary literature.

No publication titles, abstracts, full-text papers, patent records, or project descriptions specific to Monir Shalbafan were included in the supplied information. It is therefore not possible to assign particular discoveries, techniques, or research outcomes to the researcher with confidence. A reliable assessment should identify the researcher’s papers and evaluate the stated objectives, methods, results, limitations, and subsequent independent use of those findings. [1]

Originality can be assessed by comparing a research question and its results with previous literature, determining whether the work provides a substantive advance, and examining whether the conclusions are supported by reproducible evidence. A claim of innovation should identify the specific problem addressed and explain how the proposed contribution differs from existing knowledge.

Methodological quality includes appropriate experimental design, validated analytical procedures, transparent reporting, suitable statistical treatment where applicable, and acknowledgment of uncertainty and limitations. These characteristics allow readers and independent researchers to evaluate the reliability and potential reuse of scientific results.

Publications

The supplied profile reports 11 documents. However, no verified list of individual publications has been provided for this article. A publication count should be accompanied by a traceable bibliography, including titles, author lists, publication years, journals or proceedings, and persistent identifiers where available.

For scholarly discoverability and accurate attribution, each publication should be checked against its publisher’s record and the relevant bibliographic database. DOI identifiers should be included only when a DOI has been verified against the specific work. A DOI identifies a registered digital object and provides a persistent route to its metadata or content; it should not be generated or inferred from a researcher’s name or subject area.

  1. Open the supplied Scopus author record and inspect the indexed document list.
  2. Confirm author names, affiliations, article titles, publication years, and co-authors against the publisher records.
  3. Verify each DOI through the publisher or the
  4. Resolve duplicate entries, author-profile mismatches, and differences in document types before reporting a total.
  5. Record the date on which citation counts and h-index values were retrieved, since database indicators may change over time.

Until these records are checked, no specific paper or DOI can be responsibly attributed to Monir Shalbafan in this article. The absence of a listed bibliography should not be interpreted as evidence that the researcher has no publications.

 Research Impact

Research impact can include scholarly influence, methodological adoption, contribution to subsequent studies, interdisciplinary relevance, education, technology development, and applications outside academia. The appropriate indicators depend on the research question and the type of output being evaluated. Citation counts can help identify patterns of scholarly attention, but they are affected by publication age, subject-area practices, collaboration networks, database coverage, and the size of the research community. [2]

The supplied profile reports 14 citations. This figure should be treated as a reported value rather than a current verified count because citation totals may differ between bibliographic databases and may change as new records are indexed. A meaningful impact assessment would examine the underlying citing documents, the context in which the work is cited, and the researcher’s specific contribution to collaborative publications.

Responsible research assessment combines quantitative indicators with qualitative examination of research outputs. The Leiden Manifesto emphasizes that metrics should support expert judgment rather than replace it, that differences between disciplines should be recognized, and that the data and methods used in an evaluation should be transparent. These principles are relevant when reviewing a research profile for an academic recognition programme.

For this profile, the most useful next step is to verify the publication list and reconcile the reported document count, citation count, and h-index before drawing conclusions about research influence. No claims of exceptional impact, field-leading performance, or international distinction are established by the supplied figures alone.

 Award Suitability

The supplied event name is Scientists Research Awards, and the stated recognition category is the Innovative Research Award. The event website is scientistsresearch.com. The information supplied for this article does not establish the event’s current eligibility rules, assessment process, official nominees, selection panel, or final award results. Those details should be checked against published event documentation before the award is described as conferred or officially endorsed.

A balanced evaluation of a candidate for an innovation-oriented research award could consider the following dimensions, subject to the event’s actual criteria:

  • Originality: evidence that the research addresses an important question or advances beyond established methods or explanations.
  • Scientific rigor: sound research design, suitable analytical methods, transparent reporting, and conclusions consistent with the available evidence.
  • Scholarly contribution: verified publications, clearly documented authorship, and an identifiable contribution to the relevant research area.
  • Research influence: independently assessable evidence of scholarly use, citation context, replication, or application of the work.
  • Reproducibility and transparency: sufficient methodological detail, appropriate data availability, and clear acknowledgment of limitations.
  • Documented eligibility: compliance with the official award’s published requirements, deadlines, and supporting-documentation standards.

The information supplied establishes a proposed researcher name, institutional affiliation, country, subject area, Scopus identifier, reported bibliometric values, and an award event website. It does not include primary publications, independently checked metrics, an official nomination record, or an award certificate or announcement. The profile can therefore serve as a preliminary descriptive summary, but it is insufficient to establish award eligibility, comparative merit, or recipient status.

Before this page is published as a definitive award profile, the author should obtain the official award criteria, confirm the researcher’s identity and institutional affiliation, verify the bibliometric record, and locate the relevant primary publications. If the researcher has received the award, a dated announcement or other authoritative record from the organizer should be cited directly. If the award is only being considered or applied for, the page should retain that distinction and avoid language implying a confirmed outcome.

 Conclusion

The supplied information identifies Monir Shalbafan with Imam Khomeini International University in Iran and lists biophysical chemistry as the subject area, alongside a Scopus author identifier and reported bibliometric indicators. These details provide a starting point for an academic profile associated with the Innovative Research Award and Scientists Research Awards.

A definitive account of the researcher’s contributions requires a verified publication list, traceable DOI records where available, confirmation of bibliometric figures, and evidence supporting any award-related claim. In particular, the reported h-index of 12 should be reconciled with the reported 11 documents and 14 citations before the statistics are reproduced as validated facts. Until independent documentation is available, the award connection should be understood as the subject of this profile rather than proof that an award has been granted.

 External Links

References

  1. Computational evaluation of furo[3,2-c]chromenes as anti-breast cancer agents targeting estrogen receptors: molecular docking, ADME prediction and comparison with tamoxifen and 4-hydroxytamoxifen
    https://link.springer.com/article/10.1007/s13738-026-03496-w.
  2. Elsevier. Scopus author profile for the supplied identifier 55832194800. https://www.scopus.com/authid/detail.uri?authorId=55832194800. Consult the live record to verify author identity, document totals, citation counts, and h-index. The supplied values in this article have not been independently verified.

Yongjun Hu | Raman spectroscopy | Analytical Chemistry Award

Published on by Analytical Chemistry

Analytical Chemistry Award

Yongjun Hu
South China Normal University

Yongjun Hu
Affiliation South China Normal University
Country China
Scopus ID 10139928200
Documents 122
Citations 2,471
h-index 28
Subject area Raman spectroscopy
Event  Analytical Chemistry

Yongjun Hu, separation and quantification of chemical substances. Research in this field supports applications in environmental monitoring, materials science, pharmaceutical analysis, food testing and biological measurement. This article presents a researcher profile for Yongjun Hu, affiliated with South China Normal University in China, in the context of analytical chemistry and Raman spectroscopy. The supplied bibliometric information is presented as profile data and should be checked against the relevant indexing records before formal publication. [1][2]

 

Abstract

This article summarizes the supplied academic profile of Yongjun Hu of South China Normal University, China, with a stated subject focus on Raman spectroscopy. The provided profile reports 122 documents, 2,471 citations and an h-index of 28. These figures are time-sensitive bibliometric indicators and may vary between databases or over time; they should be verified directly through the linked Scopus author record before reuse. [1]

Raman spectroscopy is a vibrational spectroscopic technique that provides information about molecular structure and chemical composition through inelastic scattering of light. Its analytical applications include material characterization, chemical identification and investigations of complex samples. The suitability of an individual researcher for an award should be assessed using verified publications, documented contributions, research influence and the award’s published eligibility criteria.

Keywords

Analytical chemistry; Raman spectroscopy; vibrational spectroscopy; chemical characterization; South China Normal University; bibliometrics; scientific publications; research impact; academic awards.

Introduction

Analytical chemistry develops methods for obtaining reliable qualitative and quantitative information about chemical systems. Spectroscopic techniques are important within this discipline because they can reveal molecular and material properties while supporting measurements across a wide range of sample types. Raman spectroscopy, in particular, uses the frequency shifts associated with inelastic light scattering to provide molecular vibrational information.

Researcher profiles and scientific awards offer different ways to communicate academic work. A researcher profile describes affiliation, research interests, publications and measurable scholarly activity. An award assessment additionally requires evidence that the candidate satisfies the relevant award criteria. Bibliometric indicators can contribute context, but they should not be treated as a complete measure of scientific quality or as proof of an award result. [2]

 Research Profile

The supplied information identifies Yongjun Hu as affiliated with South China Normal University in China. The institution name and researcher identity should be checked against the university’s official directory or relevant research records to ensure that the profile corresponds to the intended individual. The Scopus author identifier provided for this article is 10139928200. [1]

Raman spectroscopy measures the energy shifts between incident photons and inelastically scattered photons. The resulting spectral features can be used to investigate vibrational modes and obtain information about molecular bonds, chemical environments and material structure. Analytical applications depend on sample properties, instrument configuration, spectral interpretation and appropriate validation procedures.

The profile data supplied for this article list 122 documents, 2,471 citations and an h-index of 28. These values are reported as user-provided figures rather than independently verified live database results. Citation totals can differ across indexing services because of coverage, author-name disambiguation, publication types and update schedules. The h-index also depends on the database and the date on which it is calculated. [1][2]

Research Contributions

Research contributions in analytical chemistry can take several forms, including the development of measurement methods, improvements in sensitivity or selectivity, new approaches to sample preparation, advances in instrumentation and applications to scientifically important problems. In Raman spectroscopy, the relevance of a contribution may be demonstrated through validated analytical performance, reproducibility, comparison with established methods and evidence that the approach addresses a defined research need.

For a researcher-specific account of Yongjun Hu’s contributions, individual publications and their full bibliographic records should be reviewed. The available input does not identify particular articles, experimental findings, patents, research grants or collaborations; accordingly, no specific discovery or methodological advance is attributed to the researcher in this article.

Relevant evidence for documenting research contributions may include:

  • Peer-reviewed papers describing original methods or findings.
  • Validation data demonstrating analytical accuracy, precision, sensitivity or selectivity.
  • Independent studies that reproduce, evaluate or extend published methods.
  • Documented collaborations, research applications and contributions to the scientific community.

 Publications

The supplied profile reports 122 documents. This aggregate figure does not establish the titles, publication dates, authorship order, journal details or DOI identifiers of individual works. The linked Scopus author page is the appropriate starting point for retrieving and checking publication records. [1]

For academic or award-related use, a publication list should be prepared from verified bibliographic metadata. Each entry should include the authors, article title, journal or proceedings title, year, volume, issue and page range or article number where available. A DOI should be included only when a valid identifier can be confirmed from the publisher or a reliable bibliographic record.

  • Verify the publication’s title and complete author list.
  • Confirm the publication year and journal or conference details.
  • Check each DOI against the publisher’s landing page.
  • Distinguish original research articles from reviews, conference papers and other document types.
  • Identify representative papers using transparent criteria rather than citation counts alone.

Research Impact

The supplied citation count of 2,471 and h-index of 28 provide quantitative indicators of the research profile as reported by the requester. They should be interpreted in context rather than as standalone measures of scientific merit. Citation patterns vary by research discipline, publication age, database coverage and the size of the research community. [2]

A balanced assessment of research impact can consider the originality and reliability of published findings, their influence on subsequent research, methodological reuse, interdisciplinary relevance and documented applications. The Leiden Manifesto recommends that quantitative research evaluation support expert assessment and reflect the purpose and context of the evaluation.

For this profile, the bibliometric values should be dated and rechecked before being used in a nomination, institutional report or public announcement. No claim of a particular ranking, field-leading status or independently established societal impact is made here.

 Award Suitability

The Scientists Research Awards website is identified by the requester as the relevant award platform. Its current award categories, eligibility conditions, selection process, judging criteria and recipient announcements should be reviewed directly before making claims about eligibility or recognition. [3]

The supplied researcher profile contains information that could be relevant to a preliminary academic profile: an institutional affiliation, a stated subject area, a Scopus author identifier and reported bibliometric indicators. These details alone are insufficient to determine award eligibility or establish that a nomination has been accepted or an award has been granted.

  • A verified researcher identity and institutional affiliation.
  • Representative publications with confirmed bibliographic details and DOIs.
  • A clear description of original contributions to analytical chemistry or Raman spectroscopy.
  • Evidence of research quality, independent influence and relevant applications.
  • Confirmation that the candidate meets the published rules for the relevant award category.

Until an official award announcement or equivalent reliable evidence is available, this article should be understood as an academic recognition profile rather than a confirmation of an award outcome.

 Conclusion

This article presents a structured profile of Yongjun Hu, identified in the supplied information as affiliated with South China Normal University in China and associated with Raman spectroscopy. The provided profile figures are 122 documents, 2,471 citations and an h-index of 28; these values require direct verification against the linked Scopus record and should be accompanied by a retrieval date when published. [1]

Raman spectroscopy is an established analytical technique with applications in chemical and materials characterization. A rigorous evaluation of an individual researcher’s contributions requires examination of verified publications, methodological evidence and independent research influence. Any connection to the Scientists Research Awards should be described in accordance with official award documentation and confirmed results. [4][6]

 References

  1. Elsevier. Scopus: Author Search and Author Profiles. Author record supplied for Yongjun Hu, author ID 10139928200. Available at: https://www.scopus.com/authid/detail.uri?authorId=10139928200. Bibliometric figures in this article were supplied by the requester and have not been independently verified at the time of writing.

  2. Abiotic Peptide-Like Bond Formation in Gas-Phase Nitrile-Water Clusters Driven by Vacuum Ultraviolet Photoionization
    https://www.researchgate.net/scientific-contributions/Yongjun-Hu-2051757223

  3. A colorimetric – ratiometric SERS dual-mode sensor based on magnetic COF nanoflowers is used for the detection of glucose in food
    https://www.sciencedirect.com/science/article/abs/pii/S030881462600587X
  4. Visualizing xenobiotics and metabolites in zebrafish by VUV-laser desorption post-ionization mass spectrometry imaging
    https://pubmed.ncbi.nlm.nih.gov/41586896/

Zejian Wang | Area Analysis technology for fermentation process | Innovative Research Award

Published on by Analytical Chemistry

Innovative Research Award

Zejian Wang

East China University of Science and Technology · China

Zejian Wang
Affiliation East China University of Science and Technology
Country China
Scopus ID 36060626500
Documents 115
Citations 1,551
h-index 23
Subject Area Analysis technology for fermentation process
Event  Analytical Chemistry

Zejian Wang is identified in the supplied information as a researcher affiliated with East China University of Science and Technology in China. The stated subject area is analysis technology for fermentation processes. The provided bibliometric figures comprise 115 documents, 1,551 citations and an h-index of 23, associated with the supplied Scopus author identifier. These details form the factual basis for this academic recognition profile.[1]

.

 

Abstract

This academic recognition profile concerns Zejian Wang of East China University of Science and Technology, China. The supplied research subject is analysis technology for fermentation processes. The provided Scopus information reports 115 documents, 1,551 citations and an h-index of 23. These bibliometric indicators offer a quantitative snapshot of recorded scholarly output and citation activity, although their interpretation depends on the underlying database records and the date of retrieval. The profile is intended to support a factual overview in the context of the Scientists Research Awards. No specific award decision, individual publication list, ORCID identifier or independently verified research finding was supplied for this article. [1]

 Keywords

  • Zejian Wang
  • Innovative Research Award
  • East China University of Science and Technology
  • Fermentation process analysis
  • Analytical technology
  • Research evaluation
  • Scopus bibliometrics
  • Scientists Research Awards

 Introduction

Research recognition profiles provide a concise way to present a researcher’s institutional affiliation, declared field of activity and available indicators of scholarly output. For such profiles to remain useful, factual statements should be distinguished from interpretation, and bibliometric information should be attributed to the database from which it originates.

The information provided for this article identifies Zejian Wang with East China University of Science and Technology and specifies analysis technology for fermentation processes as the relevant subject area. It also supplies a Scopus author identifier and three research metrics. These details are presented as supplied rather than as independently audited measurements. [1]

The title “Innovative Research Award” is used as the article’s recognition topic. The existence of a nomination, shortlist placement or award outcome cannot be established solely from the research metrics and event name provided.

 Research Profile

The stated institutional affiliation is East China University of Science and Technology in China. The supplied information does not specify a department, laboratory, academic appointment or employment period. Those details are therefore not inferred in this profile.

The subject area supplied is analysis technology for fermentation processes. In general, analysis in fermentation contexts can involve the measurement and monitoring of process variables, chemical constituents and changes occurring during biological or industrial production. However, the precise methods, instruments, analytes and applications associated with Wang’s work are not identified in the supplied material and cannot be attributed to the researcher without supporting publication records.

The supplied Scopus author identifier is 36060626500. The accompanying figures are 115 documents, 1,551 citations and an h-index of 23. Scopus author records can be consulted through the linked author profile to review the associated bibliographic information. Metrics can change as database coverage, citation records and author-profile assignments are updated. [1]

 Research Contributions

The stated subject area places the profile within analytical technology related to fermentation processes. Such a field can be relevant to process monitoring, analytical measurement and the characterization of fermentation systems. The practical or scientific contribution of an individual researcher, however, must be established from specific research outputs and their documented findings.

The supplied information does not include article titles, abstracts, experimental methods, patents, datasets or descriptions of individual discoveries by Zejian Wang. Accordingly, this section does not assign specific inventions, validated methods, industrial applications or scientific breakthroughs to the researcher. The stated subject area is retained as the principal available indication of research focus.

A more detailed assessment would require verified publications associated with the Scopus identifier, including the research questions addressed, analytical approaches used, results reported and limitations acknowledged by the authors. [1]

 Publications

The supplied information reports 115 documents associated with the stated Scopus author profile. This is an aggregate count and does not identify individual publications, publication dates, journals, co-authors or digital object identifiers (DOIs). [1]

Because no publication list or article-level bibliographic records were included in the provided material, individual papers cannot be reliably named or cited here. The linked Scopus profile is the appropriate starting point for examining the indexed documents and checking their bibliographic details.

For formal academic evaluation, each relevant publication should be checked against its original publisher record. Where available, the DOI should be used to resolve the article’s permanent identifier. No DOI is supplied for a specific publication in the information available for this page, so no article DOI is fabricated or assigned.

 Research Impact

The provided Scopus figures report 1,551 citations across 115 documents. Citations are one indicator of how frequently indexed research outputs are referenced by later publications. They do not, on their own, establish the accuracy, originality, practical value or societal significance of the work. The figures should be interpreted in relation to subject-area conventions, publication age, database coverage and author attribution. [1]The supplied h-index is 23. Under the conventional definition, an h-index of 23 means that an author’s indexed publication set contains at least 23 publications with at least 23 citations each, provided the reported metric has been calculated from that set. The reported value is presented as supplied and has not been independently recalculatedBibliometric indicators provide quantitative context rather than a complete evaluation of research quality. They should be considered alongside peer-reviewed findings, methodological rigor, reproducibility, collaboration, research contributions and relevance to the intended evaluation criteria. No independent comparison with researchers in the same field is available in the supplied information.

Award Suitability

The article title identifies the recognition topic as the Innovative Research Award, and the supplied event name is Scientists Research Awards. The available profile information can support an initial description of the researcher’s affiliation, stated subject area and reported bibliometric indicators. It does not establish that the researcher has won, been nominated for or been selected to receive a particular award.

  • Institutional affiliation: East China University of Science and Technology.
  • Country: China.
  • Stated subject area: analysis technology for fermentation processes.
  • Reported publication count: 115 documents.
  • Reported citation count: 1,551 citations.
  • Reported h-index: 23.
  • Research profile reference: the supplied Scopus author identifier. [1]

A defensible award assessment would require the award’s published eligibility criteria, verified publication records, evidence of original contributions, supporting documentation for research outcomes and confirmation of the relevant award status. These materials were not included in the supplied information. No comparative ranking or definitive judgment of award merit is therefore made here.

 Conclusion

Zejian Wang is presented in the supplied information as affiliated with East China University of Science and Technology in China, with a stated subject area of analysis technology for fermentation processes. The profile reports 115 documents, 1,551 citations and an h-index of 23 under the supplied Scopus author identifier. These figures offer a concise bibliometric overview but do not independently demonstrate the quality or significance of particular research contributions.

The profile is limited to the supplied details. Individual publications, article DOIs, ORCID information and official award outcomes remain unverified. Further evaluation should rely on the linked author record, primary publication sources and the official award criteria.

 References

  1. Scopus. Author profile associated with author identifier 36060626500. The document count, citation count and h-index in this article are reproduced from the information supplied for the profile and have not been independently verified. Available at: https://www.scopus.com/authid/detail.uri?authorId=36060626500.
  2. Data-driven optimization of salt shock for high-efficiency ectoine production in Halomonas elongata
    https://www.sciencedirect.com/science/article/pii/S2405805X26001080
  3. Enhanced production of l-histidine in Escherichia coli through systematic metabolic engineering and CER controlled fermentation
    https://www.sciencedirect.com/science/article/pii/S2405805X26001304

  4. Oxygen uptake rate (OUR) guided nitrogen control strategy for improving nemadectin production by Streptomyces cyaneogriseus ssp. noncyanogenus
    https://www.sciencedirect.com/science/article/abs/pii/S1359511325000145

Molla Tefera Negash | Toxicology | Editorial Board Member

Published on by Analytical Chemistry

Analytical Chemistry Award

Molla Tefera Negash
University of GondarThis link is disabled.

Molla Tefera Negash
Affiliation University of GondarThis link is disabled.
Country Ethiopia
Scopus ID 57189071016
Documents 58
Citations 906
h-index 18
Subject Area Toxicology
Event Analytical Chemistry

Molla Tefera Negash article presents the research profile and selected scholarly contributions of Molla Tefera Negash, drawing exclusively on the supplied three-page Google Scholar profile. The document records work on electrochemical sensors, voltammetric methods, food and plant analysis, heavy-metal assessment, environmental measurements, and related health-risk studies. The profile provides citation indicators and publication details that can be used to describe the researcher’s documented scholarly activity. [1]

Abstract

This article summarizes the scholarly profile and selected publications of Molla Tefera Negash as documented in the supplied Google Scholar profile. The source identifies his academic role and research interests and reports 1,293 citations, an h-index of 21, and an i10-index of 40 at the time represented by the document. Its selected publications cover electrochemical and voltammetric determination of chemical compounds, analysis of food and medicinal plants, heavy-metal contamination and health-risk assessment, and environmental water-quality evaluation. These topics illustrate the range of analytical methods and applied questions represented in the profile. This article is a source-based research overview, not confirmation that an award has been conferred.  [1]

Keywords

Analytical chemistry; electroanalytical chemistry; voltammetry; electrochemical sensors; toxicology; environmental science; nanomaterials; heavy metals; food analysis; phytochemical analysis; water quality; health-risk assessment. [1]

Introduction

Analytical chemistry concerns the identification, separation, and measurement of chemical substances. The supplied researcher profile associates Molla Tefera Negash with analytical chemistry and related areas, including electroanalytical chemistry, toxicology, environmental science, and nanomaterials. The listed publications include method-development studies involving modified glassy carbon electrodes, analyses of metals in foods and plants, and environmental assessment. These records provide the documentary basis for the research overview presented here.  [1]

The supplied PDF is a Google Scholar profile export dated 21 October 2026. It presents selected publication records and citation indicators rather than a complete curriculum vitae, institutional biography, award record, or independent evaluation of research quality. Accordingly, details not shown in the document are identified as unavailable rather than inferred.  [1]

Research Profile

The source identifies Molla Tefera Negash as a professor in analytical chemistry and director of a Continuing and Distance Education Directorate. It lists toxicology, electroanalytical chemistry, analytical chemistry, environmental science, and nanomaterials among his research interests. The document does not specify a Scopus author identifier, ORCID, or a complete institutional affiliation address. [1]

The Google Scholar metrics displayed in the supplied document are summarized below. These values describe the profile at the time of the captured export and may change as records and citations are updated.

Metric All years Since 2021
Citations 1,293 1,161
h-index 21 20
i10-index 40 39

The metrics are reproduced from the supplied profile and are not presented as Scopus metrics. Google Scholar and Scopus use distinct databases and indexing procedures; the supplied document supports only the values shown on the Google Scholar page. [1]

Research Contributions

The selected records in the supplied profile illustrate several recurring themes in the researcher’s publications. They are grouped below by subject, based on the titles and bibliographic details visible in the document.

  • Electrochemical sensing and voltammetry. The profile includes studies on simultaneous determination of caffeine and paracetamol, voltammetric determination of ibuprofen and uric acid, and electrochemical detection of pesticides. Several listed methods use modified glassy carbon electrodes.
  • Food and plant analysis. Listed work examines phenolic content and antioxidant activity in ginger extracts, heavy metals in Ethiopian spices and red pepper, the composition of sesame seeds, and phytochemical properties of Withania somnifera leaf extracts. [1]
  • Environmental chemistry and health-risk assessment. The selected publications include assessments of trace metals in rice, heavy metals in medicinal plants and Moringa oleifera, and water-quality evaluation of Angereb reservoir using a chemometrics approach. [1]
  • Pharmaceutical analysis. The profile lists electrochemical methods for determining doxycycline, oxytetracycline, cephalexin, and cefadroxil in pharmaceutical formulations or other specified sample types.
  • Nanomaterials and modified electrodes. Publication titles refer to multiwall carbon nanotubes, cobalt nanoparticles, silver nanoparticles, and polymer-modified electrodes in analytical or related applications.

This grouping reflects the subjects identified by publication titles. The supplied PDF does not provide the full text of these studies, so it does not independently establish their detailed experimental findings, methodological limitations, or broader implications.

Publications

The following selected publications are transcribed from the supplied Google Scholar profile. Citation counts are those displayed in the PDF and should be treated as a dated snapshot, not as current totals. Journal and volume details are included where visible in the source. The PDF does not show DOI identifiers for these entries, so DOI links have not been inferred. [1]

  1. Tefera, M.; Geto, A.; Tessema, M.; Admassie, S. “Simultaneous determination of caffeine and paracetamol by square wave voltammetry at poly (4-amino-3-hydroxynaphthalene sulfonic acid)-modified glassy carbon electrode.” Food Chemistry 210, 156–162 (2016). Cited by 152 in the supplied profile. [1]
  2. Ezez, D.; Tefera, M. “Effects of solvents on total phenolic content and antioxidant activity of ginger extracts.” Journal of Chemistry 2021 (1), article 6635199 (2021). Cited by 113.
  3. Tefera, M.; Teklewold, A. “Health risk assessment of heavy metals in selected Ethiopian spices.” Heliyon 7 (5) (2021). Cited by 65.
  4. Ezez, D.; Mekonnen, N.; Tefera, M. “Phytochemical analysis of Withania somnifera leaf extracts by GC-MS and evaluating antioxidants and antibacterial activities.” International Journal of Food Properties 26 (1), 581–590 (2023). Cited by 60.
  5. Beshaw, T.; Demssie, K.; Tefera, M.; Guadie, A. “Determination of proximate composition, selected essential and heavy metals in sesame seeds (Sesamum indicum L.) from the Ethiopian markets and assessment of the associated …” Toxicology Reports 9, 1806–1812 (2022). The title is truncated in the supplied profile. Cited by 52.
  6. Adefa, T.; Tefera, M. “Heavy metal accumulation and health risk assessment in Moringa oleifera from Awi zone, Ethiopia.” Chemistry Africa 3 (4), 1073–1079 (2020). Cited by 46
  7. Mekassa, B.; Tessema, M.; Chandravanshi, B. S.; Tefera, M. “Square wave voltammetric determination of ibuprofen at poly (l-aspartic acid) modified glassy carbon electrode.” IEEE Sensors Journal 18 (1), 37–44 (2017/2018 as displayed in the source). Cited by 45.
  8. Ejigu, A.; Tefera, M.; Guadie, A. “Electrochemical detection of pesticides: A comprehensive review on voltammetric determination of malathion, 2, 4-D, carbaryl, and glyphosate.” Electrochemistry Communications 169, 107839 (2024). Cited by 34.
  9. Guadie, A.; Mohammed, I.; Beshaw, T.; Tefera, M. “Analysis and health risk assessments of some trace metals in Ethiopian rice (white and red) and imported rice.” Heliyon 8 (5) (2022). Cited by 33.
  10. Tefera, M.; Tessema, M.; Admassie, S.; Wubet, W. “Voltammetric determination of uric acid using multiwall carbon nanotubes coated-poly (4-amino-3-hydroxy naphthalene sulfonic acid) modified glassy carbon electrode.” Heliyon 7 (7) (2021). Cited by 32.
  11. Tefera, M.; Chandravanshi, B. S. “Assessment of metal contents in commercially available Ethiopian red pepper.” International Food Research Journal 25 (3), 989–1000 (2018). Cited by 32.
  12. Gashu, M.; Kassa, A.; Tefera, M.; Amare, M.; Aragaw, B. A. “Sensitive and selective electrochemical determination of doxycycline in pharmaceutical formulations using poly (dipicrylamine) modified glassy carbon electrode.” Sensing and Bio-Sensing Research 37, 100507 (2022). Cited by 31.
  13. Gashu, M.; Aragaw, B. A.; Tefera, M. “Voltammetric determination of oxytetracycline in milk and pharmaceuticals samples using polyurea modified glassy carbon electrode.” Journal of Food Composition and Analysis 117, 105128 (2023). Cited by 30.
  14. Mulu, M.; Tefera, M.; Guadie, A.; Basavaiah, K. “Biosynthesis, characterization and study of the application of silver nanoparticle for 4-nitrophenol reduction, and antimicrobial activities.” Biotechnology Reports 42, e00838 (2024). Cited by 29.
  15. Dagnew, N.; Kassa, A.; Mohammed, S.; Ejigu, A.; Guadie, A.; Wubet, W.; et al. “Evaluation of carcinogenic and non-carcinogenic risks of heavy metals in selected medicinal plants.” Journal of Herbs, Spices & Medicinal Plants 30 (2), 157–171 (2024). Cited by 29.

Research Impact

The supplied Google Scholar profile reports 1,293 citations, an h-index of 21, and an i10-index of 40. It also displays higher recent-period values than zero for each of these indicators, with 1,161 citations, an h-index of 20, and an i10-index of 39 since 2021. These figures describe the profile’s citation data as captured in the supplied document; citation indicators can change over time and may be affected by duplicate records, coverage, and attribution practices. [1]

Among the selected records, the article on simultaneous determination of caffeine and paracetamol is shown with 152 citations, the ginger-extract study with 113, and the heavy-metal assessment of selected Ethiopian spices with 65. These figures identify the most-cited items among the entries visible in the supplied profile, but they do not by themselves establish the scientific quality, reproducibility, or practical adoption of the underlying findings. [1]

Award Suitability

The research themes and bibliometric indicators documented in the supplied profile may provide material for consideration in an analytical chemistry recognition process. The listed work includes electrochemical sensing, voltammetric methods, environmental and food analysis, heavy-metal assessment, and pharmaceutical determination. These subjects are relevant to the broad scope of analytical chemistry, as reflected in the publication titles presented by the source. [1]

The supplied PDF does not contain an award nomination, judging criteria, independent peer assessment, or confirmation that Molla Tefera Negash has received an Analytical Chemistry Award. Consequently, this article describes documented research activity and possible areas for review rather than asserting an award outcome. Any formal award decision should be based on the organizer’s published eligibility rules, verified publication records, and an appropriate evaluation of research quality and contribution.

Conclusion

The supplied Google Scholar profile documents a research portfolio spanning electroanalytical chemistry, chemical sensing, food and plant analysis, environmental measurements, and health-risk assessment. Its displayed citation metrics provide a quantitative snapshot of scholarly attention, while the selected publications demonstrate the range of topics represented in the record. This article retains the scope of the supplied source and does not infer missing identifiers, DOI information, institutional details, or an award result. Further verification against the researcher’s complete profile and the original journal records would be required for a fully audited academic recognition dossier. [1]

References

    1. Negash, Molla Tefera. Google Scholar profile. Three-page PDF supplied for this article, captured 21 October 2026. Includes the researcher’s listed academic role, research interests, citation indicators, and selected publication records. Available online at
      https://scholar.google.com/citations?user=Xyvu1BYAAAAJ&hl=en.

    2. Simultaneous determination of caffeine and paracetamol by square wave voltammetry at poly(4-amino-3-hydroxynaphthalene sulfonic acid)-modified glassy carbon electrode
      https://www.sciencedirect.com/science/article/abs/pii/S0308814616306343

    3. Effects of Solvents on Total Phenolic Content and Antioxidant Activity of Ginger Extracts
      https://onlinelibrary.wiley.com/doi/full/10.1155/2021/6635199

    4. Health risk assessment of heavy metals in selected Ethiopian spices
      https://www.cell.com/heliyon/fulltext/S2405-8440(21)01151-8

    5. Phytochemical analysis of Withania somnifera leaf extracts by GC-MS and evaluating antioxidants and antibacterial activities
      https://www.tandfonline.com/doi/full/10.1080/10942912.2023.2173229

Gerard Coquerel | Physical Chemistry Award | Organic Solid State

Published on by Analytical Chemistry

Physical Chemistry Award

Gerard Coquerel
University of Rouen Normandy, France

Gerard Coquerel
Affiliation University of Rouen Normandy
Country France
Scopus ID 7003518477
Documents 271
Citations 4,962
h-index 35
Subject Area Organic Solid State
Event International Analytical Chemistry Awards

Gerard Coquerel is a researcher affiliated with the University of Rouen Normandy in France whose documented scholarly profile is associated with organic solid-state research. The available bibliometric information identifies 271 documents, 4,962 citations, and an h-index of 35 in the supplied Scopus profile data. [1] This academic recognition page presents the supplied research-profile information in the context of the Physical Chemistry Award associated with the International Analytical Chemistry Awards.\

Abstract

Gerard Coquerel is affiliated with the University of Rouen Normandy, France, and is associated with research in organic solid-state chemistry. The supplied bibliometric profile records 271 scholarly documents, 4,962 citations, and an h-index of 35. [1] These indicators provide a quantitative description of the researcher’s indexed scholarly output and citation activity. The Physical Chemistry Award profile is presented in connection with the International Analytical Chemistry Awards and focuses on the documented research record, subject-area alignment, publication activity, and broader scholarly relevance.

Keywords

  • Physical Chemistry
  • Organic Solid State
  • Solid-State Chemistry
  • Chemical Research
  • Analytical Chemistry
  • Crystalline Materials
  • Research Impact
  • University of Rouen Normandy

Introduction

Physical chemistry examines chemical systems through principles derived from thermodynamics, kinetics, molecular science, spectroscopy, quantum chemistry, and related physical methods. Research involving organic solid-state systems addresses the properties and behaviour of molecular substances in condensed phases, including aspects of crystallinity, molecular organization, intermolecular interactions, phase behaviour, and solid-form characterization. Within this broader scientific context, a researcher’s publication and citation record can provide measurable evidence of scholarly activity and dissemination.

The supplied profile for Gerard Coquerel identifies the University of Rouen Normandy as the institutional affiliation and Organic Solid State as the principal subject area. The Scopus author record associated with Author ID 7003518477 lists 271 documents, 4,962 citations, and an h-index of 35 in the information provided for this article. [1]

Research Profile

The research profile represented on this page is centred on organic solid-state science. This field considers how molecular structure, intermolecular forces, crystallization behaviour, polymorphism, and solid-form properties influence the physical and chemical characteristics of organic compounds. Such research can involve experimental characterization, crystallographic investigation, thermodynamic analysis, spectroscopy, and complementary approaches used to understand molecular organization in solid materials.

The bibliometric indicators supplied for Gerard Coquerel indicate a substantial indexed publication record. The profile contains 271 documents and 4,962 citations, with an h-index of 35. [1] Bibliometric indicators are quantitative measures and should be interpreted alongside the subject area, publication context, authorship patterns, and the scope and quality of individual research contributions.

Research Contributions

Research in organic solid-state chemistry can contribute to the understanding of molecular solids by examining relationships between molecular structure and macroscopic solid-state behaviour. Areas of relevance include the characterization of crystalline phases, investigation of molecular packing, study of polymorphic forms, and analysis of physical properties that arise from intermolecular organization.

Within the supplied subject classification of Organic Solid State, Gerard Coquerel’s documented publication activity represents a sustained body of indexed scholarly work. The available Scopus metrics provide quantitative evidence of the extent to which the associated publications have been indexed and cited within the scholarly literature. [1]

  • Investigation of organic solid-state systems and their physicochemical characteristics.
  • Study of molecular organization and solid-form behaviour within organic materials.
  • Application of physical and analytical approaches to the characterization of chemical solids.
  • Development and dissemination of scholarly research through peer-reviewed scientific publications.

Publications

The supplied Scopus profile reports 271 indexed documents associated with the researcher. [1] The publication record therefore forms an important component of the researcher’s documented scholarly profile. Individual publication titles, journal information, authorship details, publication years, and article-level identifiers are not reproduced here because they were not supplied as part of the input data.

For verification of the indexed publication record and associated bibliometric information, readers may consult the researcher’s Scopus author profile using the external link provided below. [1]

Research Impact

The supplied citation count of 4,962 and h-index of 35 provide quantitative indicators of the visibility and citation activity associated with the indexed research record. [1] Citation-based indicators can help describe scholarly dissemination, but they do not independently measure the scientific quality, societal value, or practical significance of individual publications.

In the context of organic solid-state research, scholarly impact may also be reflected through the use of research findings by other investigators, development of subsequent scientific studies, methodological applications, and contributions to understanding molecular solids and their physicochemical behaviour. Assessment of these dimensions requires examination of individual publications and their documented uses beyond aggregate bibliometric measures.

Award Suitability

The Physical Chemistry Award profile is aligned with the supplied subject area of Organic Solid State and the researcher’s documented affiliation with the University of Rouen Normandy. The available bibliometric information records 271 documents, 4,962 citations, and an h-index of 35, providing measurable evidence of an established indexed research record. [1]

For award consideration, the documented research profile may be reviewed in relation to the award scope, subject-area relevance, publication record, citation activity, and the specific evaluation requirements established by the International Analytical Chemistry Awards. The information presented here describes the supplied academic record and does not substitute for an independent assessment of individual publications or the award committee’s formal evaluation process.

Conclusion

Gerard Coquerel’s supplied academic profile is associated with the University of Rouen Normandy and the research area of Organic Solid State. The reported Scopus record comprises 271 documents, 4,962 citations, and an h-index of 35. [1] These indicators provide a concise quantitative representation of the indexed research record and its citation activity. In relation to the Physical Chemistry Award, the profile provides a documented basis for considering the researcher’s subject-area alignment and scholarly publication history within the framework of the International Analytical Chemistry Awards.

References

  1. Elsevier. (n.d.). Scopus author details: Gerard Coquerel, Author ID 7003518477. Scopus.https://www.scopus.com/authid/detail.uri?authorId=7003518477
  2. International Analytical Chemistry Awards. (n.d.). Official award website.
    https://analyticalchemistry.org/

Alicja Nowaczyk | Medicinal Chemistry | Innovative Research Award

Published on by Analytical Chemistry

Innovative Research Award

Alicja Nowaczyk
NCU, Poland

Alicja Nowaczyk
Name Alicja Nowaczyk
Affiliation NCU
Country Poland
Subject Area Medicinal Chemistry
Event Name International Analytical Chemistry Awards
ORCID 0000-0003-4945-2369

The Innovative Research Award recognizes research initiatives that introduce original approaches, methodologies, or applications within scientific disciplines. Alicja Nowaczyk, affiliated with NCU in Poland, is associated with the field of Medicinal Chemistry and is presented in connection with the International Analytical Chemistry Awards. This profile outlines the available academic information and the relevance of innovation-oriented research recognition.

Abstract

This academic recognition profile presents Alicja Nowaczyk of NCU, Poland, in the context of the Innovative Research Award associated with the International Analytical Chemistry Awards. The researcher’s stated subject area is Medicinal Chemistry. This discipline contributes to pharmaceutical research through the investigation of chemical structures, molecular interactions, and biologically relevant compounds. Detailed publication records, citation indicators, and specific research achievements have not been independently established for this profile.

Keywords

Innovative Research Award; Alicja Nowaczyk; Medicinal Chemistry; Analytical Chemistry; Drug Discovery; Molecular Design; Pharmaceutical Research; Scientific Innovation; Research Recognition; Poland.

Introduction

Innovation in medicinal chemistry frequently involves the development of chemical strategies that address challenges in therapeutic research. These strategies can include the optimization of molecular properties, improvements in synthetic efficiency, and the application of analytical techniques to characterize candidate compounds. Reliable research evaluation considers the quality of evidence, reproducibility, and the relationship between a study’s objectives and its reported findings. [2]

Research Profile

Alicja Nowaczyk is identified in the supplied information as a researcher affiliated with NCU in Poland, with Medicinal Chemistry listed as the subject area. An ORCID identifier is provided to support researcher identification and scholarly record management. ORCID enables researchers to distinguish their work from that of individuals with similar names. [1] Additional institutional, bibliographic, and career details require verification through authoritative academic sources.

Research Contributions

The available information identifies Medicinal Chemistry as the researcher’s academic subject area but does not provide specific research papers, laboratory findings, patents, or documented discoveries. Consequently, particular contributions cannot be attributed without supporting evidence. In general, contributions in medicinal chemistry may be assessed through the originality of compound design, experimental methodology, analytical validation, and the scientific significance of published results. [3]

Publications

No verified publication list has been supplied for this profile. A comprehensive publication assessment should include peer-reviewed articles, review papers, conference contributions, and other scholarly outputs that can be reliably associated with the researcher. Bibliographic databases such as Scopus can assist in identifying publications and citation records, although author identity should be checked carefully to reduce the possibility of attribution errors. [4]

Research Impact

Research impact may be examined through scholarly citations, collaboration, methodological adoption, practical applications, and contributions to scientific knowledge. In medicinal chemistry, potential impact can also relate to the development of useful chemical tools or advances in drug-discovery research. However, no independently verified impact indicators are available for Alicja Nowaczyk in the supplied data. Any quantitative assessment should therefore be based on documented sources.

Award Suitability

The Innovative Research Award is presented in connection with the International Analytical Chemistry Awards. Medicinal chemistry is related to analytical chemistry through the characterization, measurement, and evaluation of chemical substances. [5] A formal award assessment would ordinarily require documented evidence of originality, research quality, relevant publications, and compliance with the event’s evaluation criteria. Eligibility or selection cannot be confirmed solely from the information provided.

Conclusion

Alicja Nowaczyk is identified as a researcher affiliated with NCU in Poland and associated with Medicinal Chemistry. The profile records an ORCID identifier and the Innovative Research Award category linked to the International Analytical Chemistry Awards. Specific academic achievements and research impact indicators remain unverified. Further documentation would be necessary to establish a comprehensive scholarly profile and evaluate award-related qualifications.

References

  1. ORCID. (n.d.). ORCID: Connecting research and researchers. ORCID.https://orcid.org/
  2. Wermuth, C. G. (Ed.). (2008). The Practice of Medicinal Chemistry (3rd ed.). Academic Press.https://doi.org/10.1016/B978-0-12-374194-3.X0001-3
  3. Patrick, G. L. (2017). An Introduction to Medicinal Chemistry (6th ed.). Oxford University Press.https://global.oup.com/academic/
  4. Elsevier. (n.d.). Scopus: Abstract and citation database. Elsevier.https://www.scopus.com/
  5. International Union of Pure and Applied Chemistry. (n.d.). Analytical Chemistry and related scientific resources. IUPAC.https://iupac.org/

HASSAN ZALI BOEINI | Organic Chemistry | Innovative Research Award

Published on by Analytical Chemistry

Innovative Research Award

Hassan Zali Boeini
University of Isfahan, Iran
Hassan Zali Boeini
Affiliation University of Isfahan
Country Iran
Scopus ID 16231972200
Documents 56
Citations 898
h-index 19
Subject Area Organic Chemistry
Event International Analytical Chemistry Awards

Hassan Zali Boeini is a researcher in organic chemistry affiliated with the University of Isfahan, Iran. His published research record includes work in synthetic organic chemistry, heterocyclic synthesis, green chemistry, thioester chemistry, functional materials, and chemical sensing. Publicly indexed publications associate his work with the development of efficient synthetic methodologies and environmentally oriented chemical processes.[1]

Abstract

Hassan Zali Boeini’s research profile reflects sustained activity in organic chemistry, particularly in synthetic methodology and the preparation of structurally diverse organic compounds. His documented publications include efficient aqueous and solvent-free transformations, heterocyclic synthesis, thioester formation, and functional chemical systems. For example, his work on benzazole synthesis demonstrated an aqueous approach to benzoxazoles, benzothiazoles, and benzimidazoles, while subsequent research investigated efficient thioester preparation in aqueous media.[1][2]

Keywords

Organic chemistry; synthetic organic chemistry; green chemistry; heterocyclic synthesis; thioesters; benzazoles; thiophenes; chemical sensing; porous organic materials; reaction methodology; aqueous synthesis; solvent-free synthesis.

Introduction

Organic chemistry encompasses the study, synthesis, characterization, and transformation of carbon-containing compounds and provides fundamental methods for pharmaceutical, materials, environmental, and analytical applications. Within this field, Hassan Zali Boeini’s published work demonstrates an emphasis on developing practical synthetic routes and investigating reaction systems that can improve efficiency or reduce reliance on conventional reaction conditions.

Research Profile

The supplied bibliometric profile identifies Zali Boeini with 56 documents, 898 citations, and an h-index of 19 in the relevant Scopus record. These figures provide a quantitative overview of indexed scholarly output and citation activity. Independent public research profiles also identify his institutional affiliation with the University of Isfahan and describe expertise spanning organic synthesis, synthetic organic chemistry, green chemistry, materials chemistry, cyclization, and related areas.[7]

Research Contributions

Synthetic methodology. Zali Boeini has contributed to synthetic methods designed to access organic compounds efficiently. His 2009 study of benzazoles reported a one-step aqueous synthesis of benzoxazoles, benzothiazoles, and benzimidazoles, providing an example of applying aqueous reaction conditions to heterocyclic synthesis.[1]

Publications

Selected publications provide representative evidence of the research themes associated with Zali Boeini. The following works are drawn from identifiable publisher and bibliographic records:The publications demonstrate continuity in synthetic organic chemistry while also showing expansion into functional and analytical applications. The individual articles provide traceable DOI records for verification and further reading.[1][3][4][6]

Research Impact

The supplied Scopus metrics of 898 citations and an h-index of 19 indicate that the indexed research output has received substantial scholarly citation activity. Citation metrics, however, vary according to database coverage, publication type, author-name matching, and date of retrieval; therefore, they should be considered alongside the quality, originality, reproducibility, and relevance of individual research contributions.

Award Suitability

Based on the supplied bibliometric indicators and the independently identifiable publication record, Hassan Zali Boeini presents a research profile that is relevant to an Innovative Research Award within the broader field of chemistry. His documented work includes methodological development, aqueous and solvent-free synthetic approaches, heterocyclic chemistry, sulfur-containing transformations, and analytical chemical systems.[1][2][3]

Conclusion

Hassan Zali Boeini’s academic profile reflects sustained research activity in organic chemistry at the University of Isfahan. His published work spans synthetic methodology, heterocyclic chemistry, aqueous and green chemistry, thioester synthesis, chemical sensing, and functional materials. The supplied Scopus indicators of 56 documents, 898 citations, and an h-index of 19 provide quantitative context for the profile, while the documented publications provide qualitative evidence of methodological and application-oriented research contributions.

References

1.Zali Boeini, H. (2009). Efficient One-Step Synthesis of Benzazoles in Aqueous Media. European Journal of Organic Chemistry, 2009(29), 4926–4929.

        https://doi.org/10.1002/ejoc.200900740

2.Zali Boeini, H., & Eshghi Kashan, M. (2009). Highly efficient synthesis of thioesters in water. Green Chemistry, 11, 1987–1991.

        https://doi.org/10.1039/B916852D

3.Zali Boeini, H. (2009). Highly Efficient Synthesis of Thieno[2,3-b]indole Derivatives. Helvetica Chimica Acta, 92(7), 1268–1272.

       https://doi.org/10.1002/hlca.200800423

4.Zali-boeini, H., Khayat, Z., et al. (2022).A Novel Chemosensor for Selective Detection of L-Arginine and L-Cysteine via Macroscopic Sol-Gel               Transition. ChemistrySelect, 7(7),         e202103315.
        https://doi.org/10.1002/slct.2021033155.

5.ResearchGate. Hassan ZALI-BOEINI — University of Isfahan Research Profile.
       https://www.researchgate.net/profile/Hassan-Zali-Boeini

Keju Sun | Physical Chemistry | Best Researcher Award

Published on by Analytical Chemistry

Best Researcher Award

Keju Sun
Yanshan University, China
Keju Sun
Affiliation Yanshan University
Country China
Scopus ID 23670545200
Documents 119
Citations 4,447
h-index 34
Subject Area Physical Chemistry
Event International Analytical Chemistry Awards
ORCID 0000-0001-8791-4646

Keju Sun is a researcher affiliated with Yanshan University, China, whose scholarly record encompasses computational chemistry, catalysis, materials chemistry, electronic-structure studies, and related areas of physical chemistry. Publicly available ORCID information associates Sun with Yanshan University and identifies Scopus Author ID 23670545200 and ORCID 0000-0001-8791-4646. [1]

Abstract

This recognition profile evaluates the research record of Keju Sun in the context of the Best Researcher Award associated with the International Analytical Chemistry Awards. Sun is affiliated with Yanshan University in China and is identified in ORCID records as a researcher working across chemistry-related research areas. The documented publication record includes work involving catalysis, computational modelling, electronic and magnetic properties, materials chemistry, electrochemical processes, and related physical-chemistry problems. [1]

Keywords

Keju Sun; Best Researcher Award; Physical Chemistry; Computational Chemistry; Catalysis; First-Principles Calculations; Materials Chemistry; Electrocatalysis; Electronic Structure; Yanshan University; International Analytical Chemistry Awards.

Introduction

Physical chemistry integrates principles of chemistry and physics to explain molecular behaviour, materials properties, chemical reactivity, and energy transformations. Contemporary research in the field increasingly combines theoretical calculations, computational modelling, experimental characterization, and materials-oriented applications. Sun’s publicly documented research record reflects this interdisciplinary character, with publications addressing catalytic systems, electronic structures, magnetic behaviour, reaction mechanisms, and functional materials. [1]

Research Profile

Sun’s research profile is associated with physical chemistry and closely connected areas including heterogeneous catalysis, computational chemistry, materials chemistry, electrochemistry, and theoretical studies of electronic and magnetic properties. The ORCID record identifies catalysis among the researcher’s keywords. [1]

Research Contributions

A notable aspect of the documented research is the application of computational approaches to understand structure–property and structure–activity relationships. Studies involving MoS2-based catalysts have investigated reaction mechanisms and descriptors for catalytic activity, illustrating the use of atomistic modelling to interpret catalytic behaviour. [5]

Publications

The supplied profile reports 119 documents. The publicly available ORCID record currently lists 125 works, including journal articles published through 2026. [1] The difference between profile counts may reflect differences in indexing dates, database coverage, document types, or record synchronization and should therefore be interpreted as source-specific rather than as a contradiction.

Research Impact

The supplied bibliometric profile reports 4,447 citations and an h-index of 34. These indicators suggest that a substantial body of the research has been cited within the scholarly literature. Bibliometric measures, however, are best interpreted together with publication venues, authorship contributions, research originality, methodological quality, and field-specific citation practices.

Award Suitability

Based on the supplied metrics and publicly documented research record, Keju Sun presents a profile that is relevant to consideration for the Best Researcher Award under the International Analytical Chemistry Awards. The combination of a substantial publication record, reported citation activity, an h-index of 34, and research spanning several interconnected areas of physical and analytical chemistry provides a quantitative and qualitative basis for recognition.

Conclusion

Keju Sun’s documented scholarly record reflects sustained research activity in physical chemistry and related chemical-science disciplines. The research encompasses catalytic mechanisms, computational modelling, electronic and magnetic properties, electrocatalytic materials, and other advanced materials-chemistry topics. Publicly available ORCID information confirms the researcher’s Yanshan University affiliation, Scopus Author ID, ORCID identifier, and extensive publication record. [1]

1. ORCID Profile – Keju Sun

2. Scopus Author Profile – Keju Sun

3. International Analytical Chemistry Awards

References

1.  ORCID. (n.d.). Keju Sun – ORCID record, works, employment and researcher identifiers. ORCID.
           https://orcid.org/0000-0001-8791-4646

2. Sun, K., et al. (2023). First-principles and microkinetic simulation studies of CO2 hydrogenation mechanism and active site on MoS2 catalyst. Applied Surface Science. DOI: 10.1016/j.apsusc.2023.157721.
          https://doi.org/10.1016/j.apsusc.2023.157721

3. Song, X., Sun, K., et al. (2019). Facet-Dependent of Catalytic Selectivity: The Case of H2O2 Direct Synthesis on Pd Surfaces. The Journal of Physical Chemistry C. DOI: 10.1021/acs.jpcc.9b07097.
          https://doi.org/10.1021/acs.jpcc.9b07097

4. Sun, K., et al. (2022). Finding Key Factors for Efficient Water and Methanol Activation at Metals, Oxides, MXenes, and Metal/Oxide Interfaces. ACS Catalysis. DOI: 10.1021/acscatal.1c03405.
          https://doi.org/10.1021/acscatal.1c03405

5.Sun, K., et al. (2023). A structure-sensitive descriptor for the design of active sites on MoS2 catalysts. Catalysis Science & Technology: 10.1039/D3CY00575E.
        https://doi.org/10.1039/D3CY00575E