Qian He | Biomaterials | Best Researcher Award

Ms. Qian He | Biomaterials | Best Researcher Award

Ms. Qian He | Biomaterials – Associate Professor at Shanxi Bethune Hospital, China

Qian He is a dedicated researcher specializing in the field of nanomaterials with a focus on carbon dots and their biomedical applications. With a strong foundation in materials chemistry, Qian has contributed significantly to the advancement of nano-bio interfaces, particularly in medical diagnostics and therapy. Her innovative approach bridges chemistry, biology, and clinical applications, aiming to create functional nanomaterials for precise disease imaging and targeted treatment, especially in autoimmune conditions like rheumatoid arthritis. Her work has gained international recognition through publications in reputable journals, marking her as a rising leader in the interdisciplinary realm of nanomedicine.

Academic Profile:

ORCID

Education:

While specific educational details are not disclosed, Qian He’s research trajectory and publication record suggest a rigorous academic background in materials science, chemistry, or a related discipline, with advanced training that enables cutting-edge work in carbon dot synthesis and biomedical applications. This solid scientific foundation underpins her ability to conduct complex multi-disciplinary research and innovate at the interface of nanotechnology and medicine.

Experience:

Qian He has amassed considerable research experience over recent years, primarily in the design, synthesis, and application of carbon dots as multifunctional nanomaterials. She has collaborated extensively with peers from chemistry and biomedical fields, showcasing her ability to work in diverse teams to address pressing biomedical challenges. Her experience spans developing efficient red-emitting carbon dots for bioimaging, engineering bone-targeted nanomaterials for antioxidant therapy, and innovating nanozymes that modulate redox processes, reflecting a broad and deep expertise in both fundamental and applied research. Her involvement in numerous high-impact projects attests to her role as a proactive and skilled researcher in her domain.

Research Interest:

Qian He’s research primarily revolves around carbon dots—nanoscale carbon-based particles—and their applications in biomedicine. She explores their multifunctionality, including fluorescence for precise bioimaging, enzymatic activity mimicking for therapeutic effects, and surface chemistry modification for targeted delivery. Key interests include developing nanozymes to regulate oxidative stress, engineering bone-targeted nanomaterials for rheumatoid arthritis treatment, and applying click chemistry to enhance carbon dot functionalities. Her work integrates materials chemistry, nanotechnology, and biomedical engineering, aiming to translate laboratory innovations into clinical solutions for diseases requiring precise diagnostics and effective antioxidant therapies.

Award:

Although specific awards have not been explicitly listed in public records, Qian He’s robust publication record, multidisciplinary collaborations, and focus on cutting-edge biomedical nanomaterials position her as a strong candidate for research awards. Her work’s impact on rheumatoid arthritis treatment and bioimaging applications highlights her potential for recognition by academic and professional organizations committed to nanomedicine and materials science excellence.

Publications:

  • Efficient red-emitting carbon dots and albumin composites for precise synovial bioimaging in rheumatoid arthritis (🔬 Journal of Materials Chemistry B, 2025)
  • Enhanced multi-enzyme activity and bone-targeted phosphorus-doped carbon dots for precise antioxidant therapy of rheumatoid arthritis (🦴 Carbon, 2025)
  • Carbon dots as a new class of multifunctional nanomaterial in mesenchymal stem cells: opportunities and challenges (🌱 Journal of Materials Chemistry B, 2023)
  • Design of carbon dots as nanozymes to mediate redox biological processes (⚗️ Journal of Materials Chemistry B, 2023)
  • Quantitative and biosafe modification of bifunctional groups onto carbon dots by click chemistry (🧪 Journal of Materials Chemistry B, 2023)
  • Ratiometric dual-emission of Rhodamine-B grafted carbon dots for full-range solvent components detection (🌈 Analytica Chimica Acta, 2021)

Conclusion:

Qian He represents an exemplary researcher whose dedication to advancing carbon dot technology in biomedical contexts has yielded promising results for disease diagnosis and therapy, particularly rheumatoid arthritis. Her interdisciplinary approach, scientific rigor, and innovative methodologies have established her as a prominent figure in her field. With a steady record of high-quality publications and impactful research themes, she embodies the qualities of an outstanding researcher deserving recognition. Supporting her nomination will highlight a scientist who not only pushes the boundaries of materials science but also profoundly contributes to translational medicine with the potential to improve patient outcomes worldwide.

 

 

Dora Zakarian | Materials Science | Best Researcher Award

Dr. Dora Zakarian | Materials Science | Best Researcher Award

Senior Researcher at Institute for Problems in Materials Science, Ukraine

Dr. Dora Zakarian, a distinguished theorist in solid-state physics, has been contributing to material science since 1980 at the Institute for Problems in Materials Science (IPMS), Ukrainian National Academy of Science, Kyiv, Ukraine. With a doctorate in Physical and Mathematical Sciences, she is renowned for her innovative “a priori pseudopotential” method and groundbreaking studies on the mechanical properties of advanced materials.

Profile

Google Scholar

Education 🎓

Dr. Zakarian holds a Doctorate in Physical and Mathematical Sciences, specializing in solid-state physics. Her academic background is rooted in rigorous theoretical approaches, emphasizing quantum mechanics and material modeling.

Professional Experience 💼

Dr. Zakarian’s career spans over four decades at IPMS, where she has conducted theoretical studies of mechanical properties in diverse materials. She developed the “a priori pseudopotential” method, which has led to significant advancements in understanding materials like metals, carbides, borides, and eutectic composites. Her work has influenced fields such as nanotechnology and high-entropy alloys, resulting in dozens of foundational methodologies.

Research Interests 🔬

Dr. Zakarian’s research is centered on computational materials science, particularly:

  • Mechanical properties of composite materials under varying conditions.
  • Thermodynamic modeling of binary systems and eutectics.
  • Pioneering methods to account for size factors, anharmonic effects, and intercomponent interactions in composite materials.
  • Young’s modulus and other critical properties of advanced materials.

Awards and Recognitions 🏆

Dr. Zakarian has actively contributed to international research through:

  1. U.S. Navy Grant (2007-2009) – Simulation of ceramic composites in LaB₆-MeB₂ systems.
  2. U.S. Air Force Grant (2012-2014) – Modeling of boride ceramic composites.
  3. NATO Project Grant (2016-2023) – Development of shock-resistant boron-based ceramics, integrating production and testing.

Her groundbreaking contributions have been recognized globally, with applications in defense and aerospace industries.

Key Publications 📚

Dr. Zakarian has authored numerous peer-reviewed articles. Key works include:

Universal temperature dependence of Young’s modulus

  • Year: 2019
  • Citations: 42

Calculation of composition in LaB6–TiB2 and LaB6–ZrB2 eutectics by means of pseudopotential method

  • Year: 2011
  • Citations: 23

Pseudopotential method for calculating the eutectic temperature and concentration of the components of the B4C–TiB2, TiB2–SiC, and B4C–SiC systems

  • Year: 2009
  • Citations: 19

Ab-initio calculation of the coefficients of thermal expansion for MeB2 (Me–Ti, Zr) and LaB6 borides and LaB6–MeB2 eutectic composites

  • Year: 2012
  • Citations: 11

Quasi-harmonic approximation model in the theory of pseudopotentials

  • Year: 2016
  • Citations: 7

Расчет теоретической прочности алмазоподобных материалов, исходя из энергии взаимодействия атомных плоскостей

  • Year: 2006
  • Citations: 7

Mechanical characteristics of quasibinary eutectic composites with regard for the influence of an intercomponent interaction of the interface

  • Year: 2014
  • Citations: 5

Theoretical Strength of Borides and Quasibinary Boride Eutectics at High Temperatures

  • Year: 2015
  • Citations: 4

Наночастицы с алмазоподобной структурой и обратный закон Холла–Петча

  • Year: 2014
  • Citations: 3

Temperature dependence of the hardness of materials with a metallic, covalent-metallic bonds

  • Year: 2021
  • Citations: 2

For a complete list of publications, please refer to the accompanying document.

Conclusion 🌟

Dr. Dora Zakarian’s contributions to theoretical solid-state physics and materials science are pivotal in advancing our understanding of composite materials. Her innovations in computational methods and models have reshaped the study of mechanical and thermodynamic properties of advanced materials, making her a prominent figure in her field

Javad Esmaeili | Tissue Engineering | Best Paper Award

Javad Esmaeili | Tissue Engineering | Best Researcher Award

Dr. JavadEsmaeili, TISSUEHUB Co. / Arak University,  Iran.