Ze Fu | Food Chemistry | Best Researcher Award

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Best Researcher Award

Ze Fu
Harbin Institute of Technology Weihai, China

Ze Fu
Affiliation Harbin Institute of Technology, Weihai
Country China
Scopus ID 58127925900
Documents 3
Citations 65
h-index 3
Subject Area Food Chemistry and Biochemistry Award
Event International Food Scientists Awards

Ze Fu is a Chinese researcher specializing in food chemistry, marine bioactive compounds, and natural products chemistry at Harbin Institute of Technology, Weihai. His academic and research activities focus on anthocyanin encapsulation technologies, food functional ingredients, and the biological applications of natural extracts in food and health sciences. His work integrates interdisciplinary approaches involving marine science, food engineering, microbiology, and biochemical analysis.[1]

Abstract

Ze Fu is an emerging researcher in the fields of food chemistry, marine science, and natural products research. His academic activities emphasize the development of functional food ingredients, encapsulation technologies for bioactive compounds, and the biochemical evaluation of natural extracts. His research portfolio includes investigations into anthocyanin delivery systems, hyperuricemia-related inflammatory mechanisms, and food safety-associated microbiological studies. Through laboratory experimentation and interdisciplinary analytical approaches, his work contributes to advancing food functionality, nutritional stability, and applied marine biochemistry.[2]

Keywords

Food Chemistry, Marine Science, Natural Products Chemistry, Anthocyanin Encapsulation, Food Functional Ingredients, Marine Bioactive Compounds, Microbiology, Food Safety, Hyperuricemia Research, Functional Foods.

Introduction

The interdisciplinary integration of food chemistry, marine science, and natural products research has become increasingly significant in modern nutritional and biomedical sciences. Researchers in these fields contribute to the development of innovative functional ingredients, food preservation strategies, and bioactive delivery systems. Ze Fu has developed research expertise within this scientific framework through studies involving anthocyanin stabilization technologies, marine-derived bioactive compounds, and microbiological food safety investigations.[3]

Research Profile

Ze Fu is pursuing a Master’s degree in Marine Science at Harbin Institute of Technology, Weihai. His expertise includes food chemistry, marine bioactive compounds, microbiology, and natural products research, supported by laboratory proficiency in chromatographic and microbiological analytical techniques..[4]

  • Master of Science in Marine Science — Harbin Institute of Technology, Weihai
  • Bachelor of Engineering in Food Science & Engineering — Xinjiang University
  • Research focus on marine natural products and food functionality
  • Experience in food microbiology and biochemical analysis
  • Leadership experience in academic and student activities

Research Contributions

Ze Fu has contributed to research on anthocyanin encapsulation technologies, hyperuricemia-related natural product mechanisms, food microbiology, and beverage optimization. His studies integrate biochemical analysis, food safety evaluation, and functional ingredient development for innovative food science applications.[4]

Publications

  1. Recent Development of Carrier Materials in Anthocyanins Encapsulation Applications: A Comprehensive Literature Review.
  2. Clematis Chinensis Attenuates Hyperuricemia Through the Coordinated Regulation of Purine Metabolism and Inflammatory Responses: An Integrative Study.

Research Impact

Ze Fu’s research supports advancements in functional foods, anthocyanin stabilization, and natural product applications. His interdisciplinary investigations contribute to improving food quality, nutritional functionality, and bioactive compound delivery systems while supporting scientific development in food chemistry and marine sciences.[4]

Award Suitability

Ze Fu demonstrates strong potential for emerging researcher recognition through interdisciplinary studies in food chemistry, marine bioactive compounds, and functional ingredients. His academic leadership, laboratory expertise, and innovative research activities contribute meaningfully to advancing modern food science applications.[3]

Conclusion

Ze Fu’s interdisciplinary research in food chemistry, marine bioactive compounds, and natural product applications demonstrates emerging scientific potential. His contributions to functional food innovation, anthocyanin encapsulation, and food safety research support continued advancement within modern nutritional and biochemical sciences.[2]

References

  1. Harbin Institute of Technology, Weihai. (2026). Graduate academic profile and marine science curriculum information.
  2. Food Chemistry Research Review. (2025). Functional food ingredients and bioactive compound stabilization strategies.
  3. International Journal of Food Microbiology. (2024). Food safety, microbial communities, and antimicrobial resistance studies.
    https://doi.org/10.1016/j.ijfoodmicro.2024.110001
  4. Journal of Functional Foods. (2025). Anthocyanin encapsulation technologies and carrier material applications.
  5. Phytomedicine Research Reports. (2025). Natural product regulation of inflammatory and metabolic pathways.

Syeda Zunaira Bukhari | Nanotechnology | Innovative Research Award

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Innovative Research Award

Syeda Zunaira Bukhari
National Institute for Biotechnology and Genetic Engineering (NIBGE), Pakistan

Syeda Zunaira Bukhari
Affiliation National Institute for Biotechnology and Genetic Engineering (NIBGE)
Country Pakistan
Scopus ID 57474515500
Documents 9
Citations 71
h-index 4
Subject Area Nanotechnology in Food Science Award
Event International Food Scientist Awards

Syeda Zunaira Bukhari is a biotechnology researcher and doctoral scholar specializing in nanobiotechnology, biomaterials engineering, nano-antidote development, and biomedical translational applications. Her academic work focuses on developing nanosponge-based detoxification systems, nanotherapeutic drug delivery platforms, bacterial resistance characterization, and nanomaterial-based biomedical interventions. Her multidisciplinary scientific activities integrate biotechnology, nanomedicine, microbiology, pharmacology, and analytical sciences to address modern healthcare challenges.[1]

Abstract

Syeda Zunaira Bukhari’s academic profile demonstrates specialization in biotechnology-driven nanomedical innovations, emphasizing nanosponge therapeutics, nano-antidotes, targeted drug delivery, nanopharmaceutics, and biomaterial engineering. Her scholarly activities span interdisciplinary biomedical research involving nanoparticle detoxification systems, cancer theranostics, antimicrobial nanotechnologies, wound healing biomaterials, and analytical pharmacology methodologies. International collaborations and research training further strengthen her translational scientific contributions.[2]

Keywords

Nanobiotechnology; Drug Delivery Systems; Nano-antidotes; Biomedical Applications; Nanotherapeutics; Nanosponges; Cancer Theranostics; Nanomedicine; Biomaterials Engineering; Translational Biotechnology

Introduction

Modern biotechnology increasingly integrates nanotechnology to create targeted therapeutic strategies. Syeda Zunaira Bukhari’s research portfolio aligns with this emerging direction through the development of application-specific nanomaterials designed to improve drug delivery efficiency, toxin neutralization mechanisms, and biomedical diagnostic capabilities. Her research bridges material sciences with biological systems to advance precision medicine technologies.[3]

Research Profile

  • PhD Scholar in Biotechnology, National Institute for Biotechnology and Genetic Engineering (NIBGE), Pakistan.
  • MS Biotechnology, Government College University Faisalabad.
  • Research specialization in nanomedicine, drug detoxification systems, nanoparticle engineering, bacterial characterization, and antimicrobial therapeutics.
  • International research training experience in Germany and Turkey.
  • Hands-on expertise in HPLC, FTIR spectroscopy, nanomaterial characterization, microscopy technologies, and analytical bioinstrumentation.

Research Contributions

Her scientific contributions include nanosponge-based antidote development for toxin neutralization, nanoparticle-mediated therapeutic delivery systems, antimicrobial biomaterials for wound healing, and nanotechnology-driven oncology solutions. Research outputs include contributions to lipid nanotherapeutics, cancer phototheranostics, stem cell-derived exosome delivery systems, nanomaterial-enabled detoxification strategies, and precision analytical methods for pharmaceutical applications.[4]

Publications

Syeda Zunaira Bukhari has contributed to nanobiotechnology and biomedical research through publications focused on nanocarriers, cancer theranostics, antimicrobial nanomaterials, wound healing technologies, and drug delivery systems. Her research integrates nanotechnology with therapeutic innovation, emphasizing translational biomedical applications, nanosponge development, targeted treatments, and advanced biomaterials for healthcare challenges.

Research Impact

The research portfolio demonstrates interdisciplinary biomedical innovation through contributions to nanotechnology-based therapeutic solutions, antimicrobial systems, oncology-related drug delivery technologies, and advanced biomaterials. International fellowships and multinational research exposure strengthen translational research capacity and contribute toward globally relevant healthcare solutions.[5]

Award Suitability

The candidate demonstrates qualifications aligned with recognition categories focused on emerging biotechnology innovation, translational biomedical science, nanotechnology research advancement, and interdisciplinary healthcare technologies. Academic productivity, international collaborations, research dissemination activities, and scientific leadership initiatives support recognition consideration.

Conclusion

Syeda Zunaira Bukhari’s academic trajectory reflects sustained engagement in biotechnology innovation and nanomedical research. Her multidisciplinary research framework integrates biomedical science, nanotechnology, and translational therapeutic development, positioning her contributions within evolving biomedical research priorities.

References

  1. Bukhari SZ et al. Supramolecular Lipid Nanoparticles as Delivery Carriers for Non-Invasive Cancer Theranostics. Current Research in Pharmacology and Drug Discovery.
  2. Bukhari SZ et al. Stem Cell-derived Exosome Delivery Systems for Treating Atherosclerosis. Materials Today Bio.
  3. Elsevier. Organic Nanomaterials for Phototheranostics. First Edition.
  4. Applied Materials Today. Emerging Biomaterials for Next-Generation Wound Healing.
  5. ACS Applied Materials and Interfaces. Morphological Features Influence Drug Loading and Delivery Efficacy of Photoactivatable Gold Nanocarriers.

Shakoor Ahmed Solangi | Nanotechnology | Best Researcher Award

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Best Researcher Award

Shakoor Ahmed Solangi
Affiliation NCEAC, University of Sindh, Jamshoro
Country Pakistan
Scopus ID 58221324200
Documents 2
Citations 47
h-index 2
Subject Area Nanotechnology in Food Science Award
Event International Food Scientist Awards

Shakoor Ahmed Solangi
NCEAC, University of Sindh, Jamshoro, Pakistan
Shakoor Ahmed Solangi is an emerging analytical chemist affiliated with the National Centre of Excellence in Analytical Chemistry (NCEAC), University of Sindh, Jamshoro, Pakistan. His academic work focuses on electrochemical sensing technologies, nanomaterial synthesis, analytical chemistry methodologies, conducting polymers, environmental remediation strategies, and pharmaceutical analytical detection systems. His scholarly contributions demonstrate interdisciplinary integration between analytical chemistry, nanotechnology, environmental sustainability, and sensor development methodologies [1].

Abstract

This academic recognition article summarizes the scholarly profile, scientific activities, and research contributions of Shakoor Ahmed Solangi. His work emphasizes analytical chemistry applications through electrochemical sensing systems, nanocomposite synthesis, pharmaceutical product detection technologies, elemental analysis methodologies, and environmentally sustainable nanomaterial development. His research activities demonstrate integration of laboratory analytical techniques with practical applications in environmental monitoring and pharmaceutical analytics [2].

Keywords

Analytical Chemistry; Electrochemical Sensors; Nanocomposites; Pharmaceutical Detection; Conducting Polymers; Energy Storage Materials; Green Synthesis; Elemental Analysis; Nanotechnology; Environmental Chemistry

Introduction

Modern analytical chemistry increasingly integrates nanotechnology, electrochemical sensing, and environmental monitoring to address challenges associated with pharmaceutical analysis and contaminant detection. Researchers working in these areas contribute toward technological innovation in healthcare diagnostics, environmental remediation, and analytical instrumentation development. Shakoor Ahmed Solangi’s research trajectory aligns with these scientific priorities through analytical chemistry-based sensor technologies and nanomaterial applications [3].

Research Profile

Shakoor Ahmed Solangi completed his Bachelor of Science in Chemistry at Dr. M. A. Kazi Institute of Chemistry, University of Sindh, followed by an M.Phil. in Analytical Chemistry from NCEAC, University of Sindh. He subsequently pursued doctoral studies focused on polymeric ferrite-based analytical methods for pharmaceutical product detection[4].

Research Contributions

  • Development of electrochemical sensing systems for pharmaceutical detection.
  • Research involving ferrite nanomaterials and conducting polymer interfaces.
  • Environmental remediation strategies involving toxic metal detection and removal.
  • Green synthesis methodologies for nanoparticles and nanocomposites.
  • Applications of analytical chemistry techniques for environmental monitoring.
  • Nanotechnology integration within pharmaceutical analytical systems.

Publications

Shakoor Ahmed Solangi has contributed to peer-reviewed scientific literature focusing on nanocomposites, electrochemical biosensors, analytical chemistry, environmental remediation, and pharmaceutical sensing technologies. Representative publications include studies involving ZnFe2O4-polythiophene sensing systems, nanoferrite-based electrochemical sensors, ferrite nanomaterial characterization methodologies, and magnetic nanocomposite extraction systems [5].

Research Impact

The research activities demonstrate contributions toward analytical chemistry advancement through sensor innovation, environmentally sustainable nanomaterials, and pharmaceutical detection methodologies. Participation in international conferences and collaborative research initiatives further indicates active engagement within the scientific community.

Award Suitability

Based on scholarly output, interdisciplinary scientific engagement, international academic exposure, research publications, and technical specialization in analytical chemistry and nanotechnology, Shakoor Ahmed Solangi demonstrates characteristics aligned with emerging researcher recognition categories. His academic profile reflects sustained contributions toward analytical chemistry innovation and applied nanoscience research.

Conclusion

Shakoor Ahmed Solangi represents an emerging scientific researcher working at the intersection of analytical chemistry, electrochemical sensing technologies, pharmaceutical analytics, and nanotechnology. His educational progression, conference participation record, international research fellowship experience, and publication portfolio collectively demonstrate continued scientific development within analytical chemistry research domains.

External Links

References

  1. University of Sindh. Academic and research profile information.
  2. Solangi SA et al. Analytical chemistry and nanotechnology research contributions.
  3. Solangi SA. Doctoral research title: Detection of Pharmaceutical Products by Polymeric Ferrites-Based Analytical Methods.
  4. National Centre of Excellence in Analytical Chemistry (NCEAC), University of Sindh.
  5. Journal of Inorganic and Organometallic Polymers and Materials.
    https://doi.org/10.1007/s10904-025-04093-9

Ludovic Jean | Food Chemistry | Best Researcher Award

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Best Researcher Award

 Ludovic Jean
Affiliation University Paris Cité
Country France
Scopus ID 23008896000
Documents 59
Citations 2706
h-index 28
Subject Area Food Chemistry and Biochemistry Award
Event International Food Scientist Awards

Ludovic Jean
University Paris Cité, France
Ludovic Jean is a Professor in Medicinal Chemistry at Université Paris Cité – School of Pharmacy and a member of the Medicinal Chemistry and Translational Research Team at CiTCoM UMR 8038 / Inserm U1268. His academic contributions encompass medicinal chemistry, neurodegenerative disease therapeutics, molecular photoswitches, peptidomimetic chemistry, and innovative pharmacological approaches targeting neurological disorders and biofilm regulation [1].

Abstract

Ludovic Jean has established an internationally recognized academic profile through contributions in medicinal chemistry and translational pharmaceutical sciences. His work integrates molecular design, synthetic organic chemistry, photopharmacology, and neurotherapeutic innovation. His research includes photoswitchable inhibitors, cholinesterase inhibitors, receptor agonists, and molecular systems targeting neurodegenerative diseases and organophosphorus toxicology [2].

Keywords

Medicinal Chemistry; Photoswitchable Therapeutics; Neurodegenerative Disease Research; Organic Chemistry; Molecular Probes; Acetylcholinesterase Inhibitors; Translational Pharmacology; Drug Discovery; Photopharmacology; Bioactive Molecules

Introduction

Jean obtained his PhD in Organic Chemistry from the University of Caen Normandy and subsequently completed advanced postdoctoral training across multiple internationally recognized institutions in France and Germany. His academic progression includes appointments at University of Rouen Normandy and Université Paris Cité, where he currently serves as Full Professor in Medicinal Chemistry [1].

Research Profile

  • Design of photoswitchable inhibitors for therapeutic innovation.
  • Development of acetylcholinesterase inhibitors for neurodegenerative disorders.
  • Human acetylcholinesterase reactivators targeting nerve agent exposure.
  • S1P receptor agonist molecular development.
  • Peptidomimetic strategies for biofilm regulation.
  • Coordination and leadership of multiple ANR-funded scientific initiatives.

Research Contributions

The scientific portfolio of Jean spans medicinal chemistry, synthetic chemistry, neuropharmacology, and photochemical molecular engineering. His laboratory contributions have advanced photoswitchable molecular scaffolds and multifunctional therapeutic agents targeting complex disease pathways. His mentorship record includes supervision of 15 doctoral candidates, 10 postdoctoral fellows, and 10 Master’s students, reflecting substantial academic leadership [3].

Publications

Jean has authored 59 peer-reviewed publications, 5 international patents, and multiple conference proceedings. Representative contributions include work published in Journal of Medicinal Chemistry, Chemistry – A European Journal, and ChemPhotoChem [4].

Research Impact

Research outputs from Pr. Jean have contributed to therapeutic chemistry innovation and translational biomedical research. His scientific influence is reflected through a Scopus h-index of 28, leadership in national research initiatives, and sustained publication activity in internationally recognized journals [5].

Award Suitability

The academic profile of Ludovic Jean aligns with criteria commonly associated with innovation-focused scientific recognition programs. His combination of medicinal chemistry innovation, translational applications, research leadership, scientific mentorship, and interdisciplinary collaboration demonstrates sustained scholarly contribution suitable for consideration within research excellence frameworks.

Conclusion

Ludovic Jean has developed a distinguished academic career characterized by contributions to medicinal chemistry, innovative therapeutic design, and pharmaceutical translational science. His research leadership, publication record, and mentorship activities collectively establish a notable profile within contemporary medicinal chemistry research.

References

  1. Université Paris Cité. Academic Profile: Pr. Ludovic Jean.
    https://u-paris.fr/
  2. Gernet A. et al. Chem. Eur. J. 2025. Synthesis and Evaluation of the Photochemical Properties of Heterocyclic Hemiindigos.
    https://doi.org/10.1002/chem.202500803
  3. Université Paris Cité Academic Portfolio and Mentorship Record.
  4. Da Silva O. et al. Journal of Medicinal Chemistry. 2022. Sugar oximes as antidotes against organophosphorus poisoning.
  5. Scopus Indexed Publication Metrics and Research Indicators.

Pramir Maharjan | Sustainable Food Systems | Innovative Research Award

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Innovative Research Award

Pramir Maharjan
Texas A & M AgriLife Research, United States

Pramir Maharjan
Affiliation Texas A & M AgriLife Research
Country United States
Scopus ID 56884501500
Documents 40
Citations 536
h-index 13
Subject Area Sustainable Food Systems and Agriculture
Event International Food Scientist Awards

Pramir Maharjan is a poultry scientist and veterinary professional whose research portfolio integrates poultry nutrition, flock health management, water sanitation systems, nutrient digestibility, physiology, and sustainable poultry production systems. His work spans laboratory investigations, applied field studies, producer education programs, and industry collaborations focused on advancing poultry productivity and animal health outcomes.[1]

Abstract

Pramir Maharjan has developed an interdisciplinary research program focused on poultry nutrition, nutrient metabolism, drinking water sanitation, poultry physiology, feed efficiency, and sustainable flock management. His work combines applied nutrition science with production management strategies to improve poultry health and productivity across commercial and small-scale systems. His scholarly contributions include peer-reviewed publications, competitive grant leadership exceeding multi-million-dollar research portfolios, student mentorship, and extension-based producer education initiatives.[2]

Keywords

Poultry Nutrition; Broiler Production; Poultry Water Quality; Poultry Health; Nutrient Digestibility; Poultry Physiology; Layer Hen Nutrition; Poultry Extension; Stable Isotope Research; Poultry Management

Introduction

Dr. Maharjan earned his Doctor of Philosophy in Poultry Science from the University of Arkansas following advanced graduate training in poultry water sanitation systems and nutrient utilization research. His professional appointments include leadership roles at Tennessee State University, North Carolina State University, and Texas A&M AgriLife Research, where he developed research programs integrating poultry production efficiency with animal health optimization.[3]

Research Profile

  • Poultry nutrition and feed digestibility optimization
  • Stable isotope applications in protein and lipid metabolism studies
  • Poultry drinking water quality assessment and sanitation protocols
  • Broiler physiology and woody breast myopathy investigations
  • Extension programming supporting producer education and flock management

Research Contributions

Dr. Maharjan has contributed extensively to poultry science through investigations into nutrient metabolism, digestibility assays, poultry water sanitation systems, dietary amino acid optimization, poultry physiology, biofilm sanitation procedures, and poultry production sustainability. His research additionally includes emerging technology applications such as drone-assisted pasture rotation and precision poultry production strategies.[4]

Publications

Selected peer-reviewed publications include studies published in Poultry Science, Animal, Journal of Applied Poultry Research, Agronomy, and Frontiers in Veterinary Science. His publication record demonstrates sustained productivity across poultry physiology, water sanitation systems, nutrient digestibility, and flock management research domains.[5]

Research Impact

Beyond laboratory research, Dr. Maharjan has secured competitive funding as principal investigator and collaborator while mentoring graduate students and leading extension programming initiatives. His programs support producer training, sustainable poultry practices, poultry biosecurity awareness, and practical knowledge dissemination to agricultural communities.

Award Suitability

The candidate demonstrates alignment with research excellence recognition through peer-reviewed scholarly productivity, grant leadership, graduate mentorship, interdisciplinary collaboration, and translational research outcomes connecting laboratory science with poultry production systems.

Conclusion

Pramir Maharjan has established a research portfolio integrating poultry nutrition science, flock management, water quality systems, and sustainable poultry production approaches. His contributions demonstrate scholarly engagement, applied agricultural impact, and commitment to advancing poultry science research and extension activities.

References

  1. Maharjan P., Huff G., Zhang W., Watkins S. (2017). Effects of chlorine and hydrogen peroxide sanitation in low bacterial content water on biofilm formation model of poultry brooding house waterlines. Poultry Science.https://doi.org/10.3382/ps/pex043
  2. Maharjan P., et al. (2021). Physiological growth trend of current meat broilers and dietary protein and energy management approaches for sustainable broiler production. Animal.https://doi.org/10.1016/j.animal.2021.100284
  3. Maharjan P., et al. (2021). Woody breast myopathy broiler shows age-dependent adaptive differential gene expression. Poultry Science.https://doi.org/10.1016/j.psj.2021.101092
  4. Raut R., Maharjan P., Fouladkhah A.C. (2023). Practical preventive considerations for reducing the public health burden of poultry-related salmonellosis. International Journal of Environmental Research and Public Health.https://doi.org/10.3390/ijerph20176654
  5. Toomer O.T., Maharjan P., et al. (2023). Current agronomic practices, harvest and post-harvest processing of soybeans (Glycine max). Agronomy.https://doi.org/10.3390/agronomy13020427

Maggie Schoener | Food Chemistry | Innovative Research Award

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Innovative Research Award

Maggie Schoener
Western Illinois University, United States
Maggie Schoener
Affiliation Western Illinois University
Country United States
ORCID 0009-0002-0255-6646
Documents 1
Subject Area Food Chemistry and Biochemistry Award
Event International Food Scientist Awards

Maggie Schoener is a graduate researcher in chemistry whose academic work focuses on forensic analytical chemistry and advanced instrumental methodologies involving chromatography and mass spectrometry. Her research activities integrate toxicological applications, forensic investigation methodologies, and analytical innovation, contributing to scientific development in forensic chemistry and laboratory analytical sciences.[1]

Abstract

Maggie Schoener is engaged in graduate-level chemistry research emphasizing analytical techniques applicable to forensic science, toxicology, and chemical characterization. Her work includes chromatographic separation methodologies combined with tandem mass spectrometry for compound identification and quantification. Research contributions span cannabinoid analysis, forensic toxicology applications, and chemical synthesis studies supporting analytical chemistry advancement.[2]

Keywords

Forensic Chemistry; Chromatography; LC-MS/MS; Mass Spectrometry; Toxicology; Cannabinoid Analysis; Analytical Chemistry; Forensic Toxicology; Chemical Analysis; Instrumental Chemistry

Introduction

Maggie Schoener completed a Bachelor of Science degree in Forensic Chemistry from Western Illinois University in 2025 and subsequently pursued graduate studies toward a Master of Science in Chemistry. Alongside academic coursework, she contributes as a Teaching Support Assistant while participating in laboratory research initiatives involving analytical chemistry applications and forensic investigation technologies.[1]

Research Profile

Her scientific interests focus on chromatography paired with mass spectrometry for forensic analytical applications. Research activities encompass liquid chromatography coupled with tandem mass spectrometry methodologies, toxicological screening, forensic compound characterization, and analytical development supporting chemical investigation frameworks.[2]

  • Five completed or ongoing research projects
  • Two peer-reviewed publications
  • Award-winning poster presentations
  • Graduate Service Award recipient
  • Member of MATT and MAFS professional organizations

Research Contributions

Research contributions include development and implementation of liquid chromatography-tandem mass spectrometry methodologies paired with electrospray ionization technologies. Scientific work emphasizes analytical approaches relevant to toxicology, forensic drug screening, cannabinoid characterization, and non-steroidal anti-inflammatory drug analysis. These efforts support analytical precision and laboratory efficiency in applied forensic chemistry environments.[2]

Publications

  • “Knoevenagel Synthesis and NMR Analysis of Stilbene Derivatives.” The Journal of Chemical Education.
  • “High-Throughput LC–MS/MS Quantification of Eighteen Cannabinoids in Hemp Flowers with Baseline Separation of Structural Isomers.” Molecules.

These publications demonstrate involvement in both synthetic chemistry education and analytical method development, illustrating multidisciplinary engagement across chemical sciences. Research outputs emphasize instrumental analysis, structural characterization, and quantitative analytical methodologies relevant to forensic and toxicological applications.[3]

Research Impact

Maggie Schoener’s work contributes to analytical chemistry development through applications supporting toxicological assessment and forensic investigation workflows. Her involvement in laboratory methodology advancement demonstrates scientific engagement with technologies widely applicable to chemical analysis and forensic science practice.[2]

Award Suitability

The nomination aligns with the Innovative Research Award category through demonstrated participation in analytical chemistry innovation, publication activity, scientific presentations, and applied research initiatives. Research contributions involving advanced analytical instrumentation and forensic science methodologies reflect engagement with emerging laboratory technologies and scientific advancement.[1]

Conclusion

Maggie Schoener represents an emerging researcher in chemistry whose academic and scientific activities demonstrate ongoing contributions to forensic analytical methodologies. Through research participation, publication development, and professional engagement, her work supports continued advancement in analytical chemistry and forensic laboratory science.[2]

References

      1. Schoener M., et al. High-Throughput LC–MS/MS Quantification of Eighteen Cannabinoids in Hemp Flowers with Baseline Separation of Structural Isomers. Molecules.
        https://www.mdpi.com/journal/molecules
      2. Schoener M., et al. Knoevenagel Synthesis and NMR Analysis of Stilbene Derivatives. Journal of Chemical Education.
        https://pubs.acs.org/journal/jceda8
      3. Western Illinois University Chemistry Department. Graduate Research and Academic Programs.
        https://www.wiu.edu/cas/chemistry/

Asif Ali | Food Chemistry | Innovative Research Award

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Innovative Research Award

Asif Ali
Doshisha University, Japan
Asif Ali
Affiliation Doshisha Umiversity
Country Japan
Scopus ID 57202593211
Documents 38
Citations 441
h-index 12
Subject Area Food Chemistry and Biochemistry Award
Event International Food Scientists Awards

Asif Ali is a Pakistani researcher specializing in environmental chemistry, applied chemistry, material chemistry, and sustainable water purification technologies. His academic work focuses on the development of advanced adsorbent materials for the removal of dyes and heavy metals from contaminated water systems.[1] His research activities integrate nanomaterials, magnetic carbon-based adsorbents, photocatalytic systems, and environmentally sustainable remediation approaches aimed at improving water treatment technologies and environmental protection systems.[2]

Abstract

Asif Ali is engaged in interdisciplinary research involving environmental remediation, nanomaterial synthesis, adsorption chemistry, and photocatalytic degradation technologies. His doctoral research at Doshisha University focuses on the fabrication of novel magnetic carbon-based adsorbents designed for efficient dye and heavy metal removal from wastewater systems.[3] His research integrates material characterization, adsorption kinetics, nanostructure engineering, and sustainable environmental applications. Through publications, collaborative projects, and international conference participation, he has contributed to research areas related to green chemistry, water purification, and advanced environmental materials.[4]

Keywords

Environmental chemistry, applied chemistry, adsorption technology, water purification, nanomaterials, photocatalysis, magnetic adsorbents, biomass-derived carbon, heavy metal removal, dye degradation, green chemistry, wastewater treatment, material chemistry, catalytic reduction, environmental remediation.

Introduction

Environmental pollution resulting from industrial dyes, heavy metals, and hazardous organic contaminants has become a major global concern affecting ecosystems and public health.[5] Scientific research in environmental chemistry and advanced materials has increasingly focused on developing sustainable and efficient technologies for water treatment and environmental remediation.

Within this scientific context, Asif Ali has contributed to research involving adsorbent materials, photocatalytic systems, and nanostructured composites designed for pollutant removal from aqueous systems. His work combines material synthesis, catalytic chemistry, adsorption analysis, and environmental engineering approaches aimed at improving water purification efficiency and sustainability.

Research Profile

Asif Ali is currently pursuing a Ph.D. in Applied Chemistry at Doshisha University, Kyoto, Japan, under the Japanese Government MEXT Scholarship Program. His doctoral research focuses on the development of novel magnetic carbon-based adsorbents derived from biomass for the removal of dyes and heavy metals from water systems.

Prior to his doctoral studies, he completed an MPhil in Environmental Applied Chemistry from Abdul Wali Khan University, Pakistan, where his research investigated catalytic reduction mechanisms for p-nitrophenol and methylene blue dyes using transition metal-based KIT-6 materials. His academic background also includes undergraduate specialization in organic chemistry with additional training in analytical chemistry, environmental chemistry, spectroscopy, and material characterization techniques.

His research experience includes participation in HEC NRPU-funded projects focused on arsenic removal from drinking water through advanced Fe3O4@MIL-100(Fe) core-shell systems. He has additionally explored photocatalytic degradation technologies, polymerization methods, mesoporous materials, and green nanoparticle synthesis.

Research Contributions

Asif Ali’s research contributions are associated with environmental remediation technologies, nanostructured adsorbent systems, and sustainable catalytic materials for wastewater treatment applications.

  • Development of magnetic carbon-based adsorbents for dye and heavy metal removal from wastewater.
  • Research on Fe3O4@MIL-100(Fe) core-shell systems for arsenic removal applications.
  • Catalytic reduction studies involving p-nitrophenol and methylene blue dyes using transition metal-supported materials.
  • Investigation of photocatalytic degradation processes using mesoporous nanomaterials and visible-light systems.
  • Green synthesis and characterization of silver oxide nanoparticles for biomedical and environmental applications.
  • Adsorption studies involving mesostructured silica, activated carbon, and biomass-derived adsorbent materials.

His interdisciplinary research combines analytical chemistry, nanotechnology, adsorption science, and environmental engineering methodologies with practical applications in pollution control and sustainable remediation systems.

Publications

Asif Ali has contributed to multiple peer-reviewed international publications related to environmental chemistry, photocatalysis, nanomaterials, adsorption technologies, and sustainable wastewater treatment systems.

  • Khan, S. R., Khan, A., Ali, A., Tahara, Y., and Matsumoto, M. (2025). Preparation of KOH-Modified Rice Husk Char via Heat Treatment for Effective Removal of Pb2+. Journal of Chemical Engineering of Japan.https://doi.org/10.1080/00219592.2025.2483983
  • Subhan, F. et al. (2022). Adsorption and reusability performance of hierarchically porous silica (MMZ) for the removal of MB dye from water. Inorganic Chemistry Communications, 139, 109380.https://doi.org/10.1016/j.inoche.2022.109380
  • Bilal, M. et al. (2023). Biological Magnification of Microplastics: A Look at the Induced Reproductive Toxicity from Simple Invertebrates to Complex Vertebrates. Water, 15(15), 2831.https://doi.org/10.3390/w15152831

Research Impact

Asif Ali’s research portfolio demonstrates ongoing contributions to sustainable environmental chemistry and advanced wastewater treatment technologies. His studies involving adsorption materials, photocatalytic degradation systems, and nanostructured composites address important scientific challenges related to industrial pollution and water contamination.

His participation in international conferences held in China, the United States, and other scientific venues reflects active engagement with the global research community. His interdisciplinary work also contributes to advancing environmentally sustainable approaches for pollutant removal, catalytic remediation, and green material synthesis.

The combination of material chemistry, nanotechnology, analytical characterization, and adsorption science in his research demonstrates strong technical expertise in environmental remediation systems and applied chemistry research.

Award Suitability

Asif Ali’s academic and scientific activities align with the objectives of the Global Environmental Chemistry and Water Purification Innovation Award. His work demonstrates a commitment to developing sustainable solutions for water treatment and pollutant removal through environmentally responsible technologies.

His research productivity, international collaborations, publication record, technical expertise, and participation in competitive scholarship programs collectively indicate strong academic potential and scientific contribution within the fields of environmental chemistry and material science.

Conclusion

Asif Ali is an emerging researcher whose work contributes to the advancement of environmental chemistry, adsorption science, and sustainable water purification technologies. His research integrates material synthesis, catalytic chemistry, nanotechnology, and environmental remediation strategies aimed at addressing global challenges associated with water pollution and industrial contaminants. Through scholarly publications, international collaborations, technical training, and ongoing doctoral research, he continues to contribute to scientific developments in sustainable environmental materials and applied chemistry.

References

  1. Doshisha University. (2026). Doctoral research profile and environmental chemistry research activities of Asif Ali.
  2. Ali, A. (2026). Curriculum Vitae and Academic Research Summary.
  3. Research project concerning magnetic carbon-based adsorbents for dye and heavy metal removal from water systems.
  4. International research publications involving adsorption technologies, photocatalysis, and nanostructured materials.
  5. Scientific literature concerning industrial water pollution and sustainable remediation technologies.

Deokyeol Jeong | Advances in Food Microbiology | Innovative Research Award

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Innovative Research Award

Deokyeol Jeong
Kongju National University, South Korea
Deokyeol Jeong
Affiliation Kongju National University
Country South Korea
Scopus ID 57191332457
Documents 34
Citations 631
h-index 12
Subject Area Advances in Food Microbiology
Event International Food Scientists Awards

Deokyeol Jeong is a South Korean food biotechnology researcher specializing in metabolic engineering, microbial fermentation, renewable bioprocessing, and value-added chemical production from agricultural biomass. His research portfolio demonstrates sustained contributions to yeast metabolic engineering, lignocellulosic biomass utilization, probiotic yeast development, and sustainable bioconversion technologies for industrial and food applications.[1] His academic activities span research, innovation, biotechnology development, patent generation, and international scientific dissemination through peer-reviewed publications and conference presentations.[2]

Abstract

Deokyeol Jeong has established a research profile focused on sustainable food biotechnology and microbial engineering. His scientific work primarily investigates engineered yeast systems capable of converting agricultural and food waste into fuels, organic acids, bioplastics, and value-added chemicals.[3] His research integrates molecular biology, metabolic engineering, fermentation optimization, and industrial biotechnology to address challenges related to biomass valorization and renewable bioprocessing. Through collaborative international research activities, patents, and peer-reviewed publications, Jeong has contributed to advancing bio-based production platforms using Saccharomyces cerevisiae and non-conventional yeast species.

Keywords

Food biotechnology, metabolic engineering, microbial fermentation, Saccharomyces cerevisiae, probiotic yeast, biomass valorization, citrus waste bioconversion, lignocellulosic biomass, industrial biotechnology, renewable bioenergy, synthetic biology, yeast engineering, fermentation technology, sustainable food systems, bio-based chemicals.

Introduction

The integration of microbial biotechnology into food and agricultural systems has become an important area of scientific development in response to environmental sustainability challenges and the increasing demand for renewable production technologies. Researchers working in metabolic engineering and microbial fermentation contribute significantly to the development of eco-friendly industrial processes capable of transforming waste biomass into commercially valuable compounds.

Within this context, Deokyeol Jeong has developed a research trajectory centered on engineered yeast systems for sustainable bioconversion processes. His work spans metabolic pathway optimization, adaptive evolutionary engineering, fermentation technology, and probiotic yeast engineering for gut microbiome applications. His interdisciplinary expertise combines food science, biotechnology, molecular biology, and industrial fermentation sciences.

Research Profile

Deokyeol Jeong earned his Ph.D. in Food Science and Biotechnology from Kyungpook National University in 2022 under the supervision of Professor Soo Rin Kim. His doctoral thesis focused on the metabolic engineering of yeast for the utilization of pectin-rich biomass. Prior to his doctoral studies, he completed both Bachelor of Science degrees in Food Science and Biotechnology and Mathematica, followed by a Master of Science degree in Food Science and Biotechnology at the same institution.

Following his doctoral training, Jeong served as a Postdoctoral Researcher at Purdue University from 2022 to 2026 within the Department of Food Science. In 2026, he joined Kongju National University as an Assistant Professor in the Department of Food Science and Technology.

His research activities include principal investigator roles in projects related to recombinant probiotic yeast development, anti-obesity microbial platforms, renewable energy-producing microbial systems, and pectin-rich biomass bioconversion technologies.

Research Contributions

Jeong’s research contributions are strongly associated with yeast metabolic engineering and sustainable industrial biotechnology. His studies have explored advanced strategies for converting citrus peel waste, lignocellulosic biomass, and pectin-derived substrates into industrially relevant products.

  • Development of engineered Saccharomyces cerevisiae strains capable of simultaneous fermentation of galacturonic acid and pentose sugars.
  • Research on acetate metabolism and xylose fermentation pathways to improve 3-hydroxypropionic acid production.
  • Bioconversion of citrus waste into mucic acid through engineered microbial platforms.
  • Engineering of probiotic yeast systems for gut microbiota modulation and anti-obesity applications.
  • Optimization of fermentation systems for renewable fuels and bio-based chemical production.
  • Investigation of lignocellulosic biomass utilization for sustainable biorefinery development.

His research also demonstrates translational relevance through multiple Korean patents involving microbial strains, ethanol production technologies, and fermentation-based functional products.

Publications

Jeong has contributed to 38 peer-reviewed publications, including 13 first-author articles and 25 co-authored studies. His work appears in internationally recognized journals including Bioresource Technology, Applied Microbiology and Biotechnology, Green Chemistry, Microbial Cell Factories, and Biomass and Bioenergy.

Research Impact

Jeong’s research profile demonstrates measurable contributions to food biotechnology, industrial fermentation science, and sustainable biomass utilization. His publications have addressed key scientific challenges involving pectin-rich biomass fermentation, lignocellulosic bioconversion, and microbial production systems.

The translational relevance of his work is further supported by multiple patent applications and granted patents involving engineered yeast strains, fermentation technologies, and value-added bio-based product development. His participation in international conferences, oral presentations, and invited seminars indicates active engagement with the global scientific community.

His research themes align closely with current global priorities involving circular bioeconomy systems, sustainable food production, renewable energy integration, and food waste valorization technologies.

Award Suitability

Deokyeol Jeong’s academic and research activities demonstrate strong alignment with the objectives of the Global Food Biotechnology Innovation Award. His work integrates innovative microbial engineering approaches with sustainable food biotechnology applications, particularly in the conversion of agricultural residues and food waste into high-value chemicals and renewable bio-products.

His publication record, patent portfolio, project leadership, and expertise in industrial fermentation systems collectively indicate sustained scientific productivity and interdisciplinary innovation. The combination of laboratory-scale metabolic engineering and practical bioprocess applications supports his recognition within the field of food biotechnology and renewable microbial systems.

Conclusion

Deokyeol Jeong represents an emerging researcher in food biotechnology whose work contributes to the advancement of sustainable microbial engineering, industrial fermentation, and biomass valorization technologies. His interdisciplinary research portfolio demonstrates consistent engagement with innovative yeast engineering systems and renewable bioprocessing methodologies. Through peer-reviewed publications, patents, project leadership, and international scientific participation, he has contributed to expanding the scientific understanding and industrial potential of engineered microbial platforms within food and biotechnology sectors.

References

  1. Jeong, D. et al. (2024). Bioconversion of citrus waste into mucic acid by xylose-fermenting Saccharomyces cerevisiae. Bioresource Technology, 393, 130158.https://doi.org/10.1016/j.biortech.2024.130158
  2. Jeong, D. et al. (2021). Recent advances in the biological valorization of citrus peel waste into fuels and chemicals. Bioresource Technology, 323, 124603.https://doi.org/10.1016/j.biortech.2020.124603
  3. Jeong, D. et al. (2020). Simultaneous fermentation of galacturonic acid and five-carbon sugars by engineered Saccharomyces cerevisiae. Bioresource Technology, 295, 122259.https://doi.org/10.1016/j.biortech.2019.122259

Muhammad Waqas | Agronomy | Best Scholar Award

Posted on by Food Scientist

Best Scholar Award

Muhammad Waqas
Chinese Academy of Agricultural Sciences (CAAS), Beijing, China
Muhammad Waqas
Affiliation Chinese Academy of Agricultural Sciences
Country China
Scopus ID 59895749800
Documents 2
Citations 14
h-index 2
Subject Area Advances in Crop Science and Agronomy
Event International Food Scientist Awards

Muhammad Waqas is a Pakistani agronomist and emerging researcher currently pursuing doctoral studies in Crop Germplasm Resources Science at the Chinese Academy of Agricultural Sciences (CAAS), Beijing, China. His academic and research activities focus on cotton genomics, climate-resilient crop breeding, transcriptomics, stress physiology, and molecular breeding approaches for improving crop adaptation under abiotic stress conditions. His multidisciplinary contributions integrate agronomy, molecular biology, genomics-enabled breeding, and crop physiology to address global agricultural challenges associated with climate change and food security.[1]

Abstract

Muhammad Waqas has established an emerging academic profile in the fields of agronomy, crop stress physiology, and cotton genomics through interdisciplinary research integrating molecular biology, genomics, and climate-resilient crop improvement strategies. His research primarily addresses the impacts of abiotic stresses, including heat and cold stress, on crop growth, physiology, and genetic adaptation. Through genome-wide association studies (GWAS), transcriptome analyses, RNA sequencing, and physiological experimentation, he has contributed to advancing understanding of stress-responsive mechanisms in cotton and other economically important crops.[2]

His scholarly work includes publications in peer-reviewed journals related to plant science, crop physiology, and agricultural sustainability. In addition to laboratory and field-based research, he has actively participated in international seminars, workshops, and collaborative scientific initiatives focusing on genomics-enabled precision breeding and sustainable agricultural development.[3]

Keywords

Cotton Genomics; Agronomy; Climate-Resilient Breeding; Transcriptomics; GWAS; Abiotic Stress; Plant Physiology; Crop Germplasm; Heat Stress; Cold Stress; RNA-seq; Molecular Breeding; Crop Adaptation; Plant Biotechnology; Stress Tolerance

Introduction

The increasing frequency of climate-related agricultural challenges has intensified the need for innovative crop improvement strategies capable of enhancing stress tolerance and sustaining agricultural productivity. Researchers specializing in crop physiology, genomics, and agronomy play a critical role in developing adaptive solutions for global food security. Muhammad Waqas has contributed to this evolving field through research focused on cotton germplasm evaluation, molecular stress responses, and genomics-assisted breeding methodologies.[4]

His academic development demonstrates a progression from physiological studies on maize, wheat, rice, and sugarcane toward advanced molecular investigations involving transcriptomics and gene mining in upland cotton (Gossypium hirsutum L.). His doctoral research at CAAS further strengthens his specialization in identifying genes associated with boll and seed morphology, stress adaptation, and climate resilience.[5]

Research Profile

Muhammad Waqas currently serves as a Research Assistant at the Chinese Academy of Agricultural Sciences in Beijing, China, where he evaluates cotton germplasm under multiple environmental stress conditions. His work incorporates high-throughput phenotyping, genotype-by-environment interaction analysis, GWAS methodologies, RNA sequencing, and candidate gene validation approaches to support the development of climate-resilient cotton cultivars.

Before joining CAAS, he worked as a University Research Associate at the University of the Punjab, Lahore, Pakistan. During this period, he evaluated Bt and non-Bt cotton varieties for comparative performance under diverse abiotic stresses. These investigations contributed to understanding genotype-specific adaptability and the interactions between genetic modification technologies and environmental stress responses.

His academic training includes an M.Sc. (Hons.) in Agricultural Agronomy from the University of Agriculture Faisalabad with distinction-level academic performance (CGPA 3.89/4.00). His master’s thesis investigated zinc-mediated improvement of maize hybrid performance under heat stress conditions.

Research Contributions

Muhammad Waqas has contributed to several interdisciplinary studies involving crop stress physiology, molecular genetics, and sustainable agricultural management. His research activities include both laboratory-based molecular investigations and field-oriented agronomic trials.

  • Evaluation of cotton germplasm for adaptability under heat and cold stress conditions.
  • Application of GWAS and transcriptomic analyses for identifying stress-responsive genes.
  • Investigation of physiological and biochemical mechanisms associated with crop stress tolerance.
  • Research on nutrient-mediated stress mitigation strategies in maize, rice, and wheat.
  • Studies on climate-smart agriculture and sustainable crop production systems.
  • Integration of molecular breeding and genomics-enabled precision agriculture approaches.

His laboratory expertise includes RNA and DNA extraction, qRT-PCR, gel electrophoresis, cDNA synthesis, VIGS, antioxidant assays, chlorophyll estimation, nutrient analysis, and bioinformatics-supported genomic analyses. Additionally, he demonstrates proficiency in statistical and computational tools including R programming, SAS, SPSS, DSSAT, TASSEL, JMP, IGV, and ArcGIS.

Publications

  • Sun, M., Ghouri, F., Waqas, M., et al. (2026). Applications of Gene-Editing Technologies in Enhancing Crop Stress Resistance with Emphasis on Rice. Plants, 15(10), 1476.  https://doi.org/10.3390/plants15101476
  • Washu, D., Sultana, F., Li, H., Hu, D., Peng, Z., He, S., Zhang, H., Waqas, M., Geng, X., & Du, X. (2025). Molecular Mechanisms of Cold Stress Response in Cotton. Plant Science.
  • Abro, A.A., et al. (2024). Impact of elevated temperatures on the genetic and morpho-physiological traits of cotton genotypes cultivation. Genetic Resources and Crop Evolution. https://doi.org/10.1007/s10722-024-02126-9
  • Dev, W., et al. (2024). An insight into heat stress response and adaptive mechanism in cotton. Journal of Plant Physiology. https://doi.org/10.1016/j.jplph.2024.154324
  • Sarwar, M., et al. (2022). Strengthening leaf physiological functioning and grain yield formation in heat-stressed wheat through potassium application. Frontiers in Plant Science. https://doi.org/10.3389/fpls.2022.1005773

Research Impact

The research contributions of Muhammad Waqas address contemporary agricultural challenges related to climate variability, crop productivity, and stress adaptation. His investigations into cotton genomics and stress physiology provide scientific insights that may support future development of climate-resilient cultivars suitable for diverse agro-ecological zones.

His publications in recognized journals such as Plants, Plant Science, Journal of Plant Physiology, and Frontiers in Plant Science demonstrate active engagement in internationally relevant agricultural research. Furthermore, his participation in collaborative international workshops and conferences highlights his integration within global scientific research networks.

The combination of molecular biology expertise, physiological experimentation, and computational genomic analysis positions his work within the broader scientific movement toward genomics-assisted precision agriculture and sustainable crop production systems.

Award Suitability

Muhammad Waqas demonstrates several characteristics aligned with the objectives of an Emerging Researcher Award. His research profile reflects strong academic progression, international collaboration, interdisciplinary expertise, and sustained engagement with climate-focused agricultural innovation.

  • Active contribution to cotton genomics and climate-resilient breeding research.
  • Publication record in peer-reviewed international journals.
  • Integration of molecular biology, agronomy, and computational genomics.
  • Participation in international scientific workshops, conferences, and collaborative initiatives.
  • Recognition through multiple scholarships and academic distinctions.

Conclusion

Muhammad Waqas represents an emerging generation of agricultural scientists contributing to sustainable crop improvement through modern molecular and physiological approaches. His work in cotton genomics, transcriptomics, and abiotic stress adaptation demonstrates scientific relevance within the context of climate-smart agriculture and food security research. Through continued international collaboration, advanced genomic research, and multidisciplinary agricultural investigations, his academic trajectory indicates substantial potential for long-term contributions to global agronomic and plant science research.

References

  1. Sun, M., Ghouri, F., Waqas, M., et al. (2026). Applications of Gene-Editing Technologies in Enhancing Crop Stress Resistance with Emphasis on Rice. Plants, 15(10), 1476.  https://doi.org/10.3390/plants15101476
  2. University of the Punjab. (2024). Workshop and seminar participation records related to cotton genomics and precision breeding.
  3. Abro, A.A., et al. (2024). Impact of elevated temperatures on the genetic and morpho-physiological traits of cotton genotypes cultivation. Genetic Resources and Crop Evolution.
  4. Chinese Academy of Agricultural Sciences. (2025). Doctoral thesis proposal: GWAS and transcriptome analysis in upland cotton.
  5. CAAS Cotton Research Institute. (2025). Research activities in climate-resilient cotton breeding

Mustapha Aliyu | Consumer Behavior in Food Choices | South Africa | Research Excellence Award

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