Khaydar Yunusov | Drug Discovery and Development | Best Researcher Award

Khaydar Yunusov | Drug Discovery and Development | Best Researcher Award

Prof. Khaydar Yunusov at Institute of Polymer Chemistry and Physics Uzbekistan Academy of Sciences, Uzbekistan.

Prof. Khaydar Yunusov is a distinguished polymer chemist from Uzbekistan with extensive expertise in nanotechnology, cellulose chemistry, and biomaterials. Since 2007, he has held key research and leadership roles at the Institute of Polymer Chemistry and Physics, contributing significantly to polymer-based biomedical innovations. 💊 He holds a Doctor of Science and leads groundbreaking projects on nanostructured antibacterial films, antiviral eye medications, and burn treatments. 📘 With several patents, international collaborations 🌍, and editorial roles in leading journals, Prof. Yunusov is a pioneering force in sustainable polymer research and nanomedical applications.

Publication Profile 

Orcid

Education

Prof. Khaydar Yunusov began his academic journey at the Tashkent Chemical Technological Institute, earning a Bachelor’s degree in Chemistry (2006) and a Master’s in Cellulose, Paper Chemistry, and Technology (2008). 📘 Driven by scientific excellence, he pursued a Doctor of Science in Technical Sciences (2009–2016), focusing on advanced polymer research. Since 2018, he has served as a Senior Scientific Researcher in Nanochemistry, Nanophysics, and Nanotechnology. 🧪 His research delves into nanostructured bactericidal preparations based on cellulose and its derivatives, emphasizing synthesis, properties, and production technologies. 🧬 His academic background provides a solid foundation for pioneering innovations in polymer science.

Experience

Prof. Khaydar Yunusov has cultivated a rich professional career in polymer science, beginning in 2007 as a researcher at the Institute of Polymer Chemistry and Physics, Uzbek Academy of Sciences, Tashkent. 📍 Over the years, he advanced through roles including junior researcher, senior researcher, and project manager, earning his Doctor of Science along the way. 🔬 His expertise spans polymer and cellulose chemistry, nanotechnology, and biomaterials. From 2019 to 2023, he served as a lab and project manager, driving innovation in nanostructured materials. 💼 Prof. Yunusov’s professional path reflects unwavering dedication to scientific discovery and technological advancement.

Research Focus 

Prof. Khaydar Yunusov is a pioneering scientist whose research spans polymer chemistry, cellulose technology, and nanochemistry. His core focus lies in designing biocompatible nanomaterials 🧫 such as nanostructured drug delivery systems, microneedles, hydrogels, and functional films for medical applications 🎯. He actively explores biodegradable polymers, nanoparticle synthesis (silver, selenium, zinc oxide), and antimicrobial and anticancer therapies 💊. His work intersects biotechnology, materials science, and pharmaceutical engineering, advancing targeted treatments and regenerative medicine 🧠🦠. With numerous high-impact publications, Prof. Yunusov is shaping the future of smart biomaterials and sustainable polymeric solutions.

Publication Top Notes

  • A red cell membrane-camouflaged nanoreactor for enhanced starvation/chemodynamic/ion interference therapy for breast cancer
  • A three-dimensional printable conductive composite dressing for accelerating wound healing under electrical stimulation
  • Core-shell structured microneedles with programmed drug release functions for prolonged hyperuricemia management ( vol 12, pg 1064, 2024)
  • Fabrication of hollow microneedles with double-layer shell structure for rapid and prolonged local anesthesia
  • Homemade isothermal amplification-initiated Cas14a assay for rapid quantitative detection of aquatic RNA virus gene with no PAM
  • Iontophoresis-driven transdermal drug delivery system based on porous microneedles for hyperuricemia treatment
  • Real-time microbial growth curve (RMGC) system: an improved microplate reader with a graphical interface for automatic and high-throughput monitoring of microbial growth curves
  • Two-directions mechanical strength and high-barrier mechanisms of cellulose nanocrystal- based hybrids reinforced packaging with nacre-mimetic structure
  • Physico-chemical characteristics of dialdehyde carboxymethylcellulose/sericin graft copolymer
  • Synthesis, Characterization, and Cytotoxic Activity of Stable Selenium Nanoparticles‐Incorporated Carboxymethylcellulose Solution
  • Impact of cellulose supramolecular structure on its carboxymethylation reaction activity
  • Advances in the formation and properties of nanofiber biomaterials from polyvinyl alcohol/carboxymethylcellulose/nanosilver systems for medical applications
  • Obtaining Dialdehyde Carboxymethylcellulose Through Microwave Treatment
  • Core-shell structured microneedles with programmed drug release functions for prolonged hyperuricemia management

Qun Tang | Drug Discovery and Development | Best Researcher Award

Qun Tang | Drug Discovery and Development | Best Researcher Award

Dr. Qun Tang, Nanchang university, China

Dr. Qun Tang earned his Ph.D. in Chemistry from USTC in 2005. Following postdoctoral research in South Korea and Sweden, he launched his independent lab at Nanchang University in 2010. His research focuses on Mn-based contrast agents 🧲, arsenic-derived anticancer drugs 💊, and innovative treatments for liver diseases using low phosphate stress (LPS) approaches 🧬. With 46 SCI papers, 1,489 citations 📚, and 3 authorized patents, Dr. Tang is a key contributor to pharmaceutical sciences. He is a Standing Committee Member of Jiangxi Pharmaceutical Society and collaborates with leading researchers to advance drug development globally.

Publication Profile 

Scopus

Education

Dr. Qun Tang earned his Ph.D. in January 2005 from the University of Science and Technology of China (USTC) 🎓. After postdoctoral collaborations in South Korea and Sweden 🌍, he returned to Nanchang University in March 2010 to begin his independent research career 🔬. His work has focused on manganese (Mn)-based materials for medical imaging contrast agents 🧲 and the development of novel arsenic-based anticancer drugs 💊. Currently, Dr. Tang is pioneering research on low phosphate (Pi) stress (LPS)-based strategies for the prevention and treatment of diseases, particularly targeting liver-related conditions 🧬. His contributions continue to shape pharmaceutical innovation globally.

Professional Memberships

Dr. Qun Tang holds a distinguished position as a Standing Committee Member of the Jiangxi Provincial Pharmaceutical Society 🏛️. This prestigious role reflects his commitment to advancing pharmaceutical sciences within the region and contributing to public health initiatives at the provincial level 📈. Through this membership, Dr. Tang actively engages in scientific discourse, policy guidance, and collaborative research opportunities with fellow experts across Jiangxi and beyond 🤝. His leadership within the society underscores his dedication to professional excellence and innovation in drug development and pharmaceutical research 💊🔬. This role further enhances his influence within China’s scientific and medical communities.

Research Focus

Dr. Qun Tang’s research squarely targets phosphate‑modulated liver oncology and theranostics 🧬🩺. He engineers inorganic‑phosphate binders and polymeric drug‑loading beads 🟤 to perform trans‑arterial embolization, simultaneously starving tumors and reshaping the micro‑environment 🎯. By blocking XPR1‑mediated phosphate efflux, his team triggers mitochondrial dysfunction in hepatocellular carcinoma cells ⚡️, while low‑Pi stress irreversibly repolarizes tumor‑associated macrophages 🛡️ and dampens angiogenesis 🌱. Tang also discovers how binders like sevelamer deactivate hepatic stellate cells to reverse fibrosis 🧫. Overall, his work fuses immunometabolism, interventional radiology, and targeted drug delivery to forge next‑gen therapies for liver cancer and chronic liver disease.

Publication Top Notes

  • Transarterial Embolization Using an Inorganic Phosphate Binder Modulates Immunity- and Angiogenesis-Related Factors in a Rat Model of Liver Cancer
  • Design and progress of drug-loading polymeric bead for tumor embolization
  • Inhibition of XPR1-dependent phosphate efflux induces mitochondrial dysfunction: A potential molecular target therapy for hepatocellular carcinoma?
  • Sevelamer reverses liver fibrosis by deactivation of hepatic stellate cells
  • Irreversible repolarization of tumour-associated macrophages by low-Pi stress inhibits the progression of hepatocellular carcinoma