Kseniia Grafskaia | Sensor Materials | Innovative Research Award

Innovative Research Award

Kseniia Grafskaia · Aramco Innovations · Russia

Kseniia Grafskaia
Researcher Profile
Affiliation Aramco Innovations
Country Russia
Scopus ID 56958569000
Documents 12
Citations 57
h-index 5
Subject Area Sensor Materials
Award Innovative Research Award
Event Global Sensor Awards
ORCID 0000-0003-1610-3250

Kseniia Grafskaia is identified in the supplied profile information as a researcher affiliated with Aramco Innovations, with sensor materials listed as her subject area. Her academic profile includes a Scopus author identifier, an ORCID identifier, and bibliometric figures of 12 documents, 57 citations, and an h-index of 5, as provided for this article. These identifiers offer starting points for reviewing scholarly records and research outputs. [1] [2]

The profile is presented in connection with the Innovative Research Award and the Global Sensor Awards. Sensor materials research is relevant to the development of materials and structures that detect, respond to, or facilitate the measurement of physical, chemical, and biological conditions. Such materials support advances in environmental monitoring, industrial sensing, energy systems, and analytical technologies. [3]

Abstract

This article presents an academic recognition profile for Kseniia Grafskaia, whose supplied details identify Aramco Innovations as her affiliation and sensor materials as her subject area. The profile records the provided researcher identifiers and bibliometric indicators and describes the broader scientific context of sensor materials research. Materials used in sensing systems influence sensitivity, selectivity, stability, durability, and performance under different operating conditions. Advances in functional materials, nanostructured surfaces, conductive materials, and responsive compounds contribute to the development of sensing technologies for industrial, environmental, and scientific applications. [3]

The article also documents the stated association with the Innovative Research Award and Global Sensor Awards. Bibliometric figures are reproduced from the information supplied for this profile and should be checked against the current database records before formal publication. The discussion of sensor materials provides subject-area context rather than attributing specific experiments, publications, or technical inventions to the researcher without supporting evidence.

Keywords

Kseniia Grafskaia; Innovative Research Award; Global Sensor Awards; Aramco Innovations; Russia; sensor materials; functional materials; sensing technology; materials science; sensor development; research impact; scholarly publications; ORCID; Scopus.

Introduction

Sensor materials form an important part of modern sensing systems because their physical, chemical, electrical, optical, or mechanical properties influence how a device detects and converts changes in its surroundings into measurable signals. Depending on the application, these materials may respond to temperature, pressure, strain, light, gases, humidity, chemical species, or biological targets. Material composition, microstructure, surface characteristics, and interactions with the target environment can affect measurement accuracy and long-term reliability. [3]

Research in this field draws on materials science, chemistry, physics, electrical engineering, nanotechnology, and device fabrication. Key challenges include improving sensitivity while maintaining selectivity, reducing interference, enhancing durability, enabling repeatable manufacturing, and integrating materials with readout electronics and data-processing systems. These research directions support applications ranging from industrial process control to environmental monitoring and healthcare diagnostics. [4]

Academic recognition profiles provide a structured way to document a researcher’s affiliation, identifiers, subject area, and stated recognition. Bibliographic identifiers can help readers distinguish individual authors and locate their scholarly work, although identity matching and database coverage require care. [1] [2]

Research Profile

Kseniia Grafskaia is listed in the supplied information as affiliated with Aramco Innovations and associated with the subject area of sensor materials. The profile provides Scopus author ID 56958569000 and ORCID identifier 0000-0003-1610-3250. These identifiers can be used to investigate the corresponding scholarly records and improve the traceability of research outputs. [1] [2]

Sensor materials research encompasses several broad technical areas. The following topics describe the wider discipline and should not be interpreted as a verified list of the researcher’s individual projects or specializations.

  • Functional materials designed to generate measurable responses to environmental or chemical changes.
  • Nanostructured materials and engineered surfaces for improved sensing performance.
  • Conductive, semiconducting, optical, and electrochemical materials used in transducer systems.
  • Material stability, selectivity, repeatability, and resistance to environmental degradation.
  • Integration of functional materials with sensor architectures, electronics, and measurement systems.

A complete professional biography may also include verified educational qualifications, research appointments, project participation, technical expertise, and documented collaborations. Such information should be drawn from authoritative institutional sources, researcher publications, or other reliable records.

Research Contributions

The supplied information establishes a subject-area association with sensor materials but does not identify particular inventions, experiments, patents, research projects, or technical advances attributable to Kseniia Grafskaia. Specific individual contributions therefore require confirmation through published research, institutional records, patent databases, or other primary sources.

More broadly, innovation in sensor materials can improve how sensing devices interact with their surroundings and translate environmental changes into usable information. Research may address the selection of responsive materials, the engineering of surfaces and interfaces, the optimization of electrical or optical properties, and the evaluation of sensor performance under realistic operating conditions. [3]

The evaluation of materials for sensing applications commonly considers several technical characteristics:

  1. Sensitivity: the extent to which a measurable signal changes in response to a target quantity.
  2. Selectivity: the ability to distinguish a target from interfering substances or environmental influences.
  3. Stability: the capacity to maintain performance over time and under specified operating conditions.
  4. Reproducibility: the consistency of material properties, fabrication processes, and sensor measurements.
  5. Integration: compatibility with device structures, signal-processing electronics, and practical deployment requirements.

These characteristics provide a general framework for understanding innovation in the field. They are not presented as measured outcomes or verified achievements of the researcher.

Publications

The supplied profile reports 12 documents associated with the Scopus author identifier 56958569000. The document count is reproduced as provided and has not been independently confirmed against a live database record. The Scopus author profile is the principal starting point for reviewing indexed publications and checking authorship attribution. [1]

A publication list intended for academic or professional use should include verified bibliographic information such as article title, author names, journal or conference, publication year, volume, issue, pages or article number, and DOI where available. Each record should be checked against the publisher’s page to reduce errors arising from duplicate author names, incorrect profile assignments, or incomplete indexing.

The following publication categories provide a framework for organizing the researcher’s confirmed scholarly output. Individual titles are not listed here because publication-level metadata was not supplied with the profile.

  • Peer-reviewed journal articles related to sensor materials, where verified.
  • Conference papers and proceedings documenting relevant research, where verified.
  • Reviews, book chapters, patents, or other scholarly outputs, where applicable and independently confirmed.

No publication-specific DOI is attributed to Kseniia Grafskaia in this article without a verified match between a DOI and an individual work. A DOI included in the references below supports the general discussion of sensing materials rather than representing one of the researcher’s publications.

Research Impact

The supplied bibliometric figures for Kseniia Grafskaia are 57 citations and an h-index of 5, alongside 12 documents. These values are presented as supplied profile information rather than independently verified live metrics. Citation counts and author-level indicators can change as databases index new publications and citations, merge records, or correct attribution errors. [1]

The h-index is a bibliometric indicator that combines publication output and citation counts: an author 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 independently measure originality, methodological quality, practical value, or the wider societal significance of research. Comparisons between researchers should therefore consider differences in discipline, career stage, publication practices, and database coverage. [5]

Research impact in sensor materials may also be demonstrated through reproducible experimental results, improved device performance, industrial implementation, technology transfer, collaborations, or contributions to measurement and testing practices. These forms of impact require evidence appropriate to the particular claim. The supplied metrics alone do not establish any specific commercial outcome, invention, or technological adoption.

Award Suitability

The supplied information associates Kseniia Grafskaia with the Innovative Research Award under the Global Sensor Awards and identifies sensor materials as her subject area. Research in sensor materials is relevant to sensing technology because advances in material composition, functional response, and device integration can contribute to more capable measurement systems. The scientific relevance of this field provides context for the recognition profile, while any formal award outcome or selection decision should be verified through official event documentation. [6]

An evidence-based assessment of research innovation can consider the originality of the research question, the validity of the methodology, the significance of the findings, the reproducibility of results, and the relevance of the work to scientific or technological needs. Depending on the award’s published rules, relevant evidence may also include peer-reviewed publications, patents, research collaborations, demonstrated applications, and independently documented research impact.

For a transparent evaluation, the following criteria may be relevant where they align with the official award guidelines:

  • Originality and scientific significance of research related to sensing materials.
  • Quality and reproducibility of experimental methods and reported results.
  • Evidence of peer-reviewed scholarly output and verified research contributions.
  • Demonstrated relevance to sensing performance, measurement reliability, or practical applications.
  • Compliance with the eligibility criteria and evaluation procedures published by the award organizer.

The Global Sensor Awards website should be consulted for official information about award categories, eligibility, and recognition. [6] This article records the supplied award designation and does not independently verify the selection process, the award’s formal conferral, or the researcher’s specific contributions to an award-winning project.

Conclusion

Kseniia Grafskaia is identified in the supplied information as a researcher affiliated with Aramco Innovations, with sensor materials listed as her subject area. The profile records Scopus author ID 56958569000, ORCID 0000-0003-1610-3250, 12 documents, 57 citations, and an h-index of 5. These bibliometric values should be checked against the current author record before being used for formal evaluation or comparison. [1] [2]

The Innovative Research Award profile provides a structured overview of the supplied academic identifiers and the broader significance of sensor materials research. A more comprehensive biography could incorporate verified publications, project descriptions, research achievements, and documented award information. Maintaining clear distinctions between supplied data, independently sourced facts, and general scientific context supports the reliability and scholarly usefulness of the article.

References

  1. Elsevier. (n.d.). Scopus author details: Kseniia Grafskaia, Author ID 56958569000. Scopus. The author record is a source for reviewing indexed publications and associated bibliometric information; its current contents should be checked directly.
    https://www.scopus.com/authid/detail.uri?authorId=56958569000
  2. ORCID. (n.d.). ORCID record: 0000-0003-1610-3250. ORCID provides persistent digital identifiers intended to distinguish researchers and connect them with their scholarly activities.
    https://orcid.org/0000-0003-1610-3250
  3. Janata, J. (2009). Principles of Chemical Sensors (2nd ed.). Springer. This scholarly text provides background on chemical sensing principles, sensing materials, and the relationship between material properties and sensor response.
    https://doi.org/10.1007/978-0-387-69931-8
  4. Dey, A. (2018). Semiconductor metal oxide gas sensors: A review. Materials Science and Engineering: B, 229, 206–217. This review discusses metal oxide sensing materials and factors that affect gas-sensor performance.
    https://doi.org/10.1016/j.mseb.2017.12.036
  5. Hirsch, J. E. (2005). An index to quantify an individual’s scientific research output. Proceedings of the National Academy of Sciences, 102(46), 16569–16572. This article introduces the h-index as a bibliometric indicator of scientific output and citation impact.
    https://doi.org/10.1073/pnas.0507655102
  6. Global Sensor Awards. (n.d.). Official website. The official website is the primary online resource for checking current event information, award categories, eligibility requirements, and program details.
    https://globalsensorawards.com/

Mohammad Rezaul Re Karim | Solid State Sensors | Innovative Research Award

Innovative Research Award

Mohammad Rezaul Karim
Affiliation King Saud University
Country Saudi Arabia
Scopus ID 56820318000
Documents 215 Publications
Citations 6,411 (WoS)
8,221 (Google Scholar)
h-index 42 (WoS)
48 (Google Scholar)
Subject Area Solid State Sensors
Event Global Sensor Awards

Mohammad Rezaul Karim
King Saud University, Saudi Arabia

Mohammad Rezaul Karim, is a distinguished academic researcher and Professor at the Center of Excellence for Research in Engineering Materials (CEREM), King Saud University, Riyadh, Saudi Arabia. His scholarly work spans nanotechnology, electrospinning nanofiber membranes, renewable energy systems, supercapacitors, advanced nanocomposites, water treatment technologies, and biomedical materials engineering. Over the course of his academic career, Professor Karim has established a globally recognized research profile through interdisciplinary scientific innovation, international collaborations, high-impact publications, and technology-oriented material development.[1]

He has contributed extensively to the fields of nanomaterials synthesis, polymer engineering, graphene-based technologies, solar cells, energy storage systems, and advanced membrane fabrication. His research output includes more than 215 scientific publications, multiple patents, book chapters, graduate supervision, and participation in globally collaborative research initiatives involving institutions across Saudi Arabia, South Korea, Australia, Japan, Canada, Malaysia, and the United Kingdom.[2]

Abstract

Professor Mohammad Rezaul Karim is internationally recognized for his multidisciplinary research contributions in nanotechnology, advanced engineering materials, renewable energy applications, electrochemical energy storage systems, and environmental remediation technologies. His academic work integrates chemistry, materials science, nanofabrication, and engineering innovation to address emerging challenges associated with sustainability, clean energy, healthcare materials, and industrial nanotechnology applications. His investigations into electrospun nanofibrous membranes, conductive polymers, graphene-based composites, quantum dots, supercapacitors, and advanced solar cell systems have generated substantial scholarly impact and technological relevance.[3]

The researcher has received multiple prestigious recognitions, including the King Saud University Award for Scientific Excellence and inclusion among the world’s top 2% scientists. His publication portfolio reflects sustained academic productivity in high-ranking international journals, while his collaborative research projects demonstrate strong engagement with global scientific communities and innovation-oriented research ecosystems.[4]

Keywords

Nanotechnology; Electrospinning; Nanofiber Membranes; Renewable Energy; Supercapacitors; Graphene; Quantum Dots; Conducting Polymers; Water Treatment; Energy Storage; Solar Cells; Nanocomposites; Electrochemical Engineering; Biomedical Materials; Sustainable Materials Science; Thin Film Solar Cells; Advanced Composites; Membrane Distillation; Sensors; Hydrogen Generation.

Introduction

Mohammad Rezaul Karim completed his PhD in Physical Chemistry from Kyungpook National University, South Korea, where he specialized in electrically conducting polymer nanomaterials and property modification techniques. Prior to his doctoral studies, he completed both his B.Sc. (Honors) and M.Sc. in Applied Chemistry and Chemical Technology from the University of Dhaka, Bangladesh.[5]

Following his doctoral training, he served as a postdoctoral researcher in South Korea before joining King Saud University in 2009. Over the years, he progressed through academic ranks from Assistant Professor to Associate Professor and subsequently to Full Professor at CEREM. His academic responsibilities have included graduate teaching, research supervision, collaborative project leadership, and international research coordination.[6]

His career demonstrates strong interdisciplinary integration between chemistry, nanotechnology, engineering materials, and sustainable energy applications. The breadth of his research reflects both scientific depth and translational potential across industrial, biomedical, and environmental sectors.[7]

Research Profile

Professor Karim’s research portfolio is centered on advanced nanomaterials engineering and multifunctional material systems. His investigations into electrospun nanofiber membrane composites have contributed to applications involving water purification, toxic material removal, drug delivery systems, sensors, tissue engineering, dentistry, agricultural technologies, and microelectronics.[8]

Another major focus of his work involves intrinsically conducting polymer nanomaterials and their hybridization with nanoparticles, metal oxides, activated carbon, graphene, carbon nanotubes, and quantum dots. His studies have expanded the functional performance of conductive polymer systems for energy storage, sensing technologies, and electrochemical applications.[9]

His research activities additionally include solar cell engineering, thin-film photovoltaic systems, graphene-based materials development, hydrogen generation technologies, wastewater treatment systems, photocatalysis, and supercapacitor electrode engineering. These contributions collectively support sustainable energy innovation and environmentally responsive engineering solutions.[10]

Research Contributions

Professor Karim has contributed significantly to the development of electrospun polymeric nanofibers with multifunctional structural properties. His work on PBAT/PLA-based electrospun protective clothing systems introduced enhanced superhydrophobicity, breathability, thermal insulation, and protective characteristics suitable for disability-oriented wearable technologies.[11]

In the area of renewable energy and electrochemical storage systems, he has published influential research concerning Zn-ion hybrid supercapacitors, graphene-based electrode systems, MOF-derived oxide composites, and advanced nanoporous carbon materials for hydrogen storage and electrochemical applications.[12]

His investigations into nanofibrous membranes for wastewater remediation have demonstrated practical strategies for removing heavy metal ions, sulfathiazole contaminants, and industrial pollutants using advanced polymeric and carbon-based nanostructures.[13]

Professor Karim’s collaborative research activities further include partnerships with Swansea University, National University of Malaysia, NIMS Japan, Queensland universities, KAUST, KFUPM, and several globally recognized researchers. These collaborations have strengthened international research exchange and interdisciplinary technological development.[14]

Publications

Professor Karim has authored and co-authored more than 215 scholarly publications in internationally indexed journals. His research articles appear in leading journals such as Chemical Engineering Journal, Journal of Energy Storage, ACS Applied Materials & Interfaces, Renewable and Sustainable Energy Reviews, Desalination, Polymers, Journal of Materials Chemistry A, and International Journal of Hydrogen Energy.[15]

Several of his publications focus on supercapacitor development, electrospinning technologies, photocatalytic nanostructures, hydrogen storage materials, membrane engineering, and renewable energy conversion systems. His research output also includes patents, books, book chapters, and graduate supervision contributions.[16]

Among his highly cited publications are works related to graphene nanostructures for energy storage, perovskite solar cells, CdTe solar cell fabrication, activated porous carbon nanosheets, and advanced wastewater treatment nanocomposites.[17]

Research Impact

The scholarly influence of Professor Karim is reflected through strong citation metrics and sustained publication activity across multidisciplinary research domains. According to Web of Science records, he maintains an h-index of 42 with more than 6,400 citations, while Google Scholar reports over 8,200 citations and an h-index of 48.[18]

His inclusion among the world’s top 2% scientists highlights the international recognition of his research contributions and scientific productivity. Furthermore, his role in multiple funded projects supported by organizations such as MEWA, K.A. CARE, NPST, and King Salman Center for Disability Research demonstrates the practical and strategic relevance of his scientific investigations.[19]

Professor Karim has also played a substantial academic mentorship role through graduate supervision and advanced postgraduate teaching in nanotechnology, nanocomposite science, characterization of nanostructures, solar cell technology, and advanced composite engineering.[20]

Award Suitability

Professor Mohammad Rezaul Karim demonstrates a highly suitable profile for recognition under an international research excellence award category due to his extensive scholarly output, sustained interdisciplinary innovation, impactful scientific collaborations, and contributions to sustainable engineering technologies. His academic record reflects consistent engagement with high-impact research addressing energy sustainability, advanced materials development, environmental remediation, and biomedical engineering challenges.[21]

The combination of internationally recognized publications, global research collaborations, patents, teaching leadership, graduate supervision, and prestigious academic honors collectively establish his standing as a distinguished contributor to contemporary materials science and nanotechnology research.[22]

Conclusion

Mohammad Rezaul Karim has established a prominent international academic profile through impactful research in nanotechnology, advanced engineering materials, electrochemical energy systems, and environmental applications. His interdisciplinary scientific approach integrates fundamental chemistry, materials engineering, and applied technological innovation to support sustainable and high-performance engineering solutions.[23]

Through extensive scholarly publications, collaborative international projects, patents, and academic mentorship, he has contributed meaningfully to the advancement of nanomaterials science and renewable energy technologies. His research achievements and sustained global academic influence continue to strengthen his recognition within the international scientific community.[24]

References

  1. King Saud University. (n.d.). Faculty profile: Mohammad Rezaul Karim.
    http://fac.ksu.edu.sa/mkarim/
  2. Elsevier Scopus. (n.d.). Author details: Mohammad Rezaul Karim, Author ID 56820318000.
    https://www.scopus.com/authid/detail.uri?authorId=56820318000
  3. Karim, M. R., et al. (2024). Electrospun PEI/PAN membrane for advanced Zn ion hybrid supercapacitors. Journal of Energy Storage.
    https://doi.org/10.1016/j.est.2024.110974
  4. Aijaz, M. O., et al. (2023). Anti-fouling/wetting electrospun nanofibrous membranes for membrane distillation desalination: A comprehensive review.
    https://doi.org/10.1016/j.desal.2023.116475
  5. Immanuel, S., et al. (2021). Graphene based nanostructures for energy storage and biomedical applications.
    https://doi.org/10.1002/asia.202100139

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Prof Dr. Rajendra Kumar | Sensor | Editorial Board Member

Prof Dr. Rajendra Kumar | Sensor | Editorial Board Member 

Prof Dr. Rajendra Kumar | Sensor | Editorial Board Member | Rama University | India

Prof. Dr. Rajendra Kumar is a distinguished academician and researcher in Physics and Engineering Sciences whose extensive career reflects deep expertise in sensing materials, thin films, nanotechnology, plasma-based polymerization techniques, and gas-sensing device development. With a Ph.D. in Physics from Ch. Charan Singh University, Prof. Dr. Rajendra Kumar has accumulated over two decades of higher education experience, serving in progressively responsible roles including Principal of RIG Institute of Hospitality & Management, Professor and Ph.D. Research Coordinator at the Faculty of Engineering & Technology, Rama University, and earlier appointments as Associate Professor and Assistant Professor in Engineering Physics across leading institutions in Kanpur. His research interests span nanofibrous polyaniline thin films, plasma-induced polymerization, semiconductor device modeling, materials characterization, agricultural material studies, and microwave-assisted metallurgy, supported by multiple international workshops, STTPs, and FDPs in machine learning, MATLAB-based scientific approaches, examination reforms, and intellectual property rights. His research skills include advanced thin-film fabrication, polymer material analysis, electronic device evaluation, plasma-based material processing, data interpretation, scientific instrumentation handling, and interdisciplinary experimentation. Prof. Dr. Rajendra Kumar has notable scholarly contributions with internationally indexed works in IEEE, Scopus, and reputed scientific journals, particularly in the areas of gas-sensor development, nanostructured material synthesis, and analytical modeling of semiconductor devices. His professional profile is visible through his Scopus Author ID 57211907190, ORCID, ResearchGate, and Google Scholar, demonstrating impactful research with measurable citation records. Throughout his academic journey, he has earned recognitions and honors for excellence in teaching, research mentorship, and institutional development while contributing to academic committees, research coordination, and university-level quality enhancement efforts.

Professional Profiles: ORCID | Google Scholar | Scopus

Featured Publications 

  1. Tiwari, A., Kumar, R., Prabaharan, M., Pandey, R. R., Kumari, P., Chaturvedi, A., … (2010). Nanofibrous polyaniline thin film prepared by plasma-induced polymerization technique for detection of NO₂ gas. Polymers for Advanced Technologies. Citations: 97

  2. Kumar, R., Singh, S., & Misra, A. K. (2010). Development of NO₂ gas sensor based on plasma polymerized nanostructure polyaniline thin film. Journal of Minerals & Materials Characterization & Engineering. Citations: 24

  3. Gupta, D., Singh, S., Jain, V., & Kumar, R. (2015). Joining of bulk cast iron through microwave energy. International Journal for Technological Research in Engineering. Citations: 5

  4. Kumar, R., Singh, M., & Singh, V. P. (2007). Heterosis and inbreeding depression in relation to seed yield in Indian mustard. National Seminar on Changing Global Vegetable Oils Scenario. Citations: 5

  5. Kumar, R., Prasad, C. M., Singh, S. K., Prasad, S., Singh, R. N., & Turi, D. N. (2004). Effect of grazing on growth rate of pigs under different feeding regimen at farmers’ door. Indian Veterinary Medicine Journal. Citations: 5

  6. Dutt, M. B., Nath, R., Kumar, R., & Sharma, B. L. (2002). An analytical model for pinchoff voltage evaluation of ion-implanted GaAs MESFETs. IEEE Transactions on Electron Devices. Citations: 5

  7. Khan, M. R., Siddiqui, M. B., Kumar, R., & Singh, S. K. (1987). Effect of Meloidogyne incognita on three seasonal ornamental plants. Citations: 5