Ceyhun Karpuz | Best Researcher Award | Microwave Technology

Best Researcher Award

Ceyhun Karpuz
Pamukkale University, Turkey

Ceyhun Karpuz
Affiliation Pamukkale University
Country Turkey
Scopus ID 35562069100
Documents 127
Citations 893
h-index 14
Subject Area Microwave Technology
Event International Research Awards on Network Science & Graph Analytics
ORCID 0000-0002-3752-4727

Ceyhun Karpuz is a Professor in Electrical and Electronics Engineering at Pamukkale University, Turkey, whose documented research activities include microwave engineering, electromagnetic fields and waves, microwave circuit design, planar microwave filters, resonators, transmission lines, power dividers, antennas, and related radio-frequency technologies. Pamukkale University’s academic staff profile identifies Karpuz as a professor and lists electromagnetic field theory, electromagnetic wave theory, microwave theory, microwave circuit design, microwave measurements, planar microwave filters, and numerical methods in electromagnetics among his research areas. [1]

Abstract

Ceyhun Karpuz’s research profile is centered on microwave and electromagnetic engineering, with work spanning microwave filters, resonators, transmission-line structures, power dividers, diplexers, RFID-related structures, and electromagnetic applications. His ORCID record describes research interests including electromagnetic theory, microwave theory, microwave circuit design, and construction and miniaturization, while documenting academic appointments at Pamukkale University. [2] His publication record includes studies addressing compact filter structures, multi-band filtering, power-divider configurations, and microwave systems for contemporary wireless applications. [3]

Keywords

Microwave Technology; Microwave Engineering; Electromagnetic Fields; Microwave Filters; Microstrip Filters; Resonators; Power Dividers; RF Engineering; Antennas; Transmission Lines; Wireless Communications; 5G Filters; Electromagnetic Compatibility.

Introduction

Microwave engineering supports the design of high-frequency communication, sensing, filtering, and electromagnetic systems. Within this field, compact resonators, microstrip filters, power dividers, and related passive structures are important for achieving desired frequency responses while controlling physical size and implementation complexity. Karpuz’s documented research addresses several of these engineering problems through analytical, computational, and experimental approaches. Pamukkale University’s profile specifically identifies microwave theory, microwave circuit design, microwave measurements, planar microwave filters, and electromagnetic numerical methods as areas of study. [1]

Research Profile

Karpuz’s academic career has been associated with electrical and electronics engineering. His ORCID biography records undergraduate, master’s, and doctoral education at Erciyes University and describes subsequent academic appointments at Niğde University and Pamukkale University, where he progressed to professor. The same record identifies transmission lines, slow-wave structures, microwave resonators and filters, conformal mapping, fuzzy logic, electromagnetic fields and waves, antennas, microwave power dividers, and electromagnetic compatibility and interference among his research interests. [2]

External scholarly profiles likewise associate his publication activity with microwave engineering, microwave and waveguide research, antenna technologies, electromagnetic compatibility, and related electrical and electronic engineering topics. [4]

Research Contributions

A recurring theme in Karpuz’s research is the development and analysis of compact microwave filtering structures. His 2007 work on miniature dual-mode microstrip filters investigated meander-based dual-mode resonators and transmission-zero behavior, with fabricated filters used to validate the design approach. [5] Earlier work on a uniplanar compact wideband bandstop filter examined bent open-ended stubs and a connecting transmission-line structure for wideband rejection while reducing the physical area of the filter. [6]

More recent research has addressed multi-band filters and power-divider structures relevant to modern wireless systems. A 2023 study proposed an Nth/2Nth-order two-band bandpass-filter concept for sub-6 GHz 5G applications using square-loop resonators, capacitive perturbation, and short-circuited stubs. The reported prototypes were fabricated and tested to examine the proposed design methodology. [7] Another 2023 publication investigated N-way Wilkinson power dividers using alternative transmission-line arrangements and slow-wave structures for power-halving applications. [8]

His research also includes chipless RFID structures, where a 2021 IEEE Transactions on Microwave Theory and Techniques publication described a multibit tag design based on transitions between closed- and open-loop resonators. [9] These studies demonstrate a sustained focus on passive microwave structures and their application to filtering, identification, communication, and RF system design.

Research Impact

The supplied researcher profile reports 127 documents, 893 citations, and an h-index of 14. These values are presented here as the nomination-profile metrics supplied for this recognition page and may change as bibliographic databases are updated. Independent scholarly profiles also document a substantial publication history in microwave engineering and related electrical and electronic engineering fields. [4]

The publication record includes work appearing in specialist venues such as IEEE Microwave and Wireless Components Letters, IEEE Transactions on Microwave Theory and Techniques, Electronics, and other engineering journals. His recent work also connects microwave filter and power-divider research with sub-6 GHz 5G systems and contemporary RF technologies. [7]

Award Suitability

For the Best Researcher Award associated with the International Research Awards on Network Science & Graph Analytics, the documented record provides several assessable elements for academic recognition. These include sustained activity in microwave and electromagnetic engineering, an established academic position at Pamukkale University, a body of peer-reviewed publications, and research covering filters, resonators, power dividers, RFID structures, and wireless technologies. [1] [2]

The publication examples further provide identifiable evidence of research activity across multiple periods, from foundational work on compact and dual-mode microwave filters to more recent studies involving sub-6 GHz filtering and Wilkinson power-divider configurations. [5] [7] [8] Final award decisions should be based on the organizers’ published evaluation procedures and the complete nomination documentation.

Conclusion

Ceyhun Karpuz has an established academic profile in microwave and electromagnetic engineering, with documented interests spanning microwave theory, circuit design, filters, resonators, transmission lines, antennas, power dividers, and electromagnetic applications. His publication record includes both foundational and recent studies of compact microwave structures and wireless-system components. [1] [2] The supplied bibliometric profile and publicly documented publications provide a structured basis for considering his research record within an academic award assessment.

References

  1. ORCID. Ceyhun Karpuz, ORCID record 0000-0002-3752-4727. The record includes biography, employment history, research interests, and selected works.
    ORCID Profile.
  2. ResearchGate. Ceyhun Karpuz research profile, including publications and research areas in microwave engineering and related fields.
    Research Profile.
  3. Rankless. Ceyhun Karpuz author profile, documenting publication and subject-area information across electrical and electronic engineering, microwave engineering, antenna technologies, and related research fields. Author Profile.
  4. Görür, A.; Karpuz, C. “Miniature Dual-Mode Microstrip Filters.” IEEE Microwave and Wireless Components Letters, 17(1), 37–39, 2007. DOI: 10.1109/LMWC.2006.887249.
  5. Görür, A.; Karpuz, C. “Uniplanar Compact Wideband Bandstop Filter.” IEEE Microwave and Wireless Components Letters, 13(3), 114–116, 2003. DOI: 10.1109/LMWC.2003.810114.
  6. Karpuz, C.; Özdemir, P.Ö.; Unuk, G.B.F. “Novel Nth/2Nth Order Two-Band Bandpass Filters for Sub-6 GHz 5G Applications.” Electronics, 12(3), 626, 2023. DOI: 10.3390/electronics12030626.
  7. Karpuz, C.; Çakır, M.E.; Görür, A.K.; Görür, A. “Design of N-Way Wilkinson Power Dividers with New Input/Output Arrangements for Power-Halving Operations.” Applied Sciences, 2023. DOI: 10.3390/app13116852.
  8. Görür, A.K.; Doğan, E.; Ayas, G.; Karpuz, C.; et al. “Multibit Chipless RFID Tags Based on the Transition Among Closed- and Open-Loop Resonators.” IEEE Transactions on Microwave Theory and Techniques, 2021. DOI: 10.1109/TMTT.2021.3122795.

 

Xinhao Ding | Innovative Research Award | Microwave Antenna

Innovative Research Award

Xinhao Ding
Nantong University, China
Xinhao Ding
Affiliation Nantong University
Country China
Scholar  ID P75mmNMAAAAJ
Documents 29
Citations 547
h-index 11
Subject Area Microwave Antenna
Event International Research Awards on Network Science & Graph Analytics

Xinhao Ding is a researcher affiliated with Nantong University, China, whose stated subject area is microwave antenna research. The recognition profile records 29 documents, 547 citations, and an h-index of 11. This page presents the research profile and award context in a neutral academic format, with emphasis on documented scholarly activity and antenna-related research.

Abstract

The Innovative Research Award profile recognizes the research activities of Xinhao Ding of Nantong University, China, in the field of microwave antennas. The available research record indicates scholarly activity involving antenna design and related wireless communication applications. One documented publication involving Ding presents a compact broadband planar inverted-F antenna with dual-resonant modes for 5G applications, illustrating the relevance of compact and broadband antenna engineering to contemporary wireless systems. [1]

The supplied academic metrics associated with this profile comprise 29 documents, 547 citations, and an h-index of 11. These indicators provide quantitative context for the research record but do not, by themselves, constitute a complete assessment of research quality or significance.

Keywords

  • Microwave antenna
  • Antenna design
  • Planar inverted-F antenna
  • Broadband wireless communication
  • 5G antenna technology
  • Dual-resonant modes

Introduction

Microwave antenna research is an important component of modern wireless communication engineering. Antenna structures must increasingly address requirements involving compact form factors, operating bandwidth, radiation characteristics, impedance matching, and compatibility with evolving communication platforms. Research into planar and broadband antenna configurations therefore contributes to the engineering knowledge needed for wireless devices and communication infrastructure.

Within this broader field, Xinhao Ding’s documented publication record includes work on a compact broadband planar inverted-F antenna. The reported design uses dual-resonant modes to support broadband operation, with the study considering an antenna configuration intended for 5G applications. [1] Such work places antenna geometry, resonant behavior, and frequency coverage within the context of practical wireless-system requirements.

Research Profile

Xinhao Ding is identified in the supplied profile as being affiliated with Nantong University in China, with microwave antenna listed as the principal subject area. The profile reports 29 documents, 547 citations, and an h-index of 11. These figures describe the supplied bibliometric record and may change as databases update publication and citation information.

Research Contributions

A documented contribution associated with Xinhao Ding concerns the development of a compact broadband planar inverted-F antenna with dual-resonant modes. The published study describes the use of horizontal slots to modify the resonant behavior of the antenna and combine operating modes, providing a mechanism for broadband operation in a compact structure. [1]

The research is relevant to several recurring engineering considerations in microwave antenna development, including miniaturization, bandwidth enhancement, resonant-mode control, and application-oriented antenna design. The documented 5G orientation further connects the work to the requirements of contemporary wireless communication systems. [1]

  • Investigation of compact planar antenna configurations.
  • Exploration of dual-resonant behavior for broadband operation.
  • Application-oriented antenna development for 5G wireless communication.
  • Design approaches addressing antenna size and operating-band requirements.

Publications

The supplied profile records 29 documents. A publicly indexed publication provides a verifiable example of research associated with Xinhao Ding in the microwave antenna domain:

  1. Qi, Z.; Ding, X.; Yang, W.; Chen, J. “A Compact Broadband Planar Inverted-F Antenna with Dual-Resonant Modes.” Applied Sciences, 2022, 12(17), 8915. The article reports a compact broadband planar inverted-F antenna with dual-resonant modes for 5G applications. DOI:
    https://doi.org/10.3390/app12178915. [1]

Research Impact

The supplied bibliometric record of 547 citations and an h-index of 11 indicates that the research profile has accumulated measurable scholarly attention. Citation counts and h-index values are indicators of research visibility, although they should be interpreted alongside publication quality, authorship contributions, methodological rigor, reproducibility, and broader disciplinary context.

The documented antenna research also has an application-oriented dimension. Work on compact broadband antenna structures can contribute to the engineering literature surrounding wireless devices and communication systems, particularly where antenna size, bandwidth, and resonant performance must be considered together. The published 5G antenna study provides a specific example of this research direction. [1]

Award Suitability

The Innovative Research Award profile is supported by the supplied record of research activity in microwave antenna technology, together with the documented publication on compact broadband planar inverted-F antenna design. [1] The reported publication and bibliometric indicators provide identifiable evidence for consideration within a research-recognition framework.

Relevant evidence for an academic award assessment may include the originality of research methods, technical contribution, publication record, scholarly influence, practical relevance, and sustained contribution to the field. The available information supports consideration of these dimensions, while a complete award assessment would require the full nomination materials and the specific evaluation criteria established by the awarding organization.

Conclusion

Xinhao Ding’s supplied research profile is centered on microwave antenna technology and is associated with Nantong University, China. The record lists 29 documents, 547 citations, and an h-index of 11. A documented publication on a compact broadband planar inverted-F antenna with dual-resonant modes provides a specific example of research addressing antenna design for 5G applications. [1] Together, these materials establish a scholarly profile relevant to the stated Innovative Research Award category, subject to verification against the complete nomination and evaluation record.

References

  1. A broadside shared aperture antenna for (3.5, 26) GHz mobile terminals with steerable beam in millimeter-waveband
    https://scholar.google.com/citations?view_op=view_citation&hl=en&user=P75mmNMAAAAJ&citation_for_view=P75mmNMAAAAJ:u5HHmVD_uO8C