Ali Fardoost | Engineering | Best Researcher Award

Mr. Ali Fardoost | Engineering | Best Researcher Award

Graduate Research Assistant, Rutgers University,  United States

Ali Fardoost is a Ph.D. student in Electrical Engineering at Rutgers University, with a strong focus on biosensing, biosensor fabrication, and nanobiotechnology. His research involves the development of innovative cancer biomarker detection systems, microfluidics, and nanowell-based biosensors. With a B.Sc. from the University of Tehran, his academic achievements include a top ranking and an award-winning thesis on cancer detection using real-time impedance measurement. Ali has hands-on experience in cleanroom environments and expertise in advanced software tools. His contributions are demonstrated in several publications, reflecting his dedication to advancing healthcare diagnostics and nanotechnology.

Publication Profile :

Scopus

Educational Background :

Ali Fardoost holds a Ph.D. in Electrical Engineering from Rutgers University and a B.Sc. from the University of Tehran, with excellent academic records (GPA of 4/4 and 3.64/4, respectively). His B.Sc. thesis, which developed a system for differentiating healthy and cancerous lymph nodes, reflects a focus on real-world, critical health issues. Being ranked in the top 0.07% of a national university entrance exam and being recognized as an exceptional talent at the University of Tehran further underscore his academic excellence and intellectual prowess.

Professional Background :

Ali Fardoost is a dedicated researcher currently pursuing his Ph.D. in Electrical Engineering at Rutgers University, with a focus on biosensor development for cancer biomarker detection. He is a Graduate Research Assistant in the NanoBioElectronics Lab, where he designs and fabricates nanowell-based biosensors for healthcare applications. His prior experience includes research on blood impedance spectroscopy for breast cancer diagnosis at the University of Tehran. Ali has developed and tested various biosensors, combining his skills in microfabrication and data analysis. His work aims to innovate in biomedical diagnostics, with a particular focus on cancer detection technologies.

Research Interests :

Ali Fardoost’s research interests span a range of cutting-edge topics in biosensing, biosensor fabrication, microfluidics, nanobioelectronics, and cancer biomarker detection. His focus on developing biosensors for cancer detection, particularly using microfabrication techniques and impedance spectroscopy, aligns with the forefront of bioengineering research. Additionally, his work on nanobiotechnology indicates his commitment to advancing interdisciplinary research, blending electrical engineering with biomedical applications. These areas are pivotal for innovations in healthcare, specifically in diagnosing and monitoring cancer, a critical global health concern.

Research Experience :

Ali has extensive research experience at both Rutgers University and the University of Tehran. His work includes fabricating biosensors for cancer biomarker detection, performing blood impedance spectroscopy for breast cancer diagnosis, and measuring the impedance of thyroid nodules for intraoperative assessment. His hands-on expertise in microfabrication, sensor design, and real-time diagnostics, coupled with his contributions to impactful projects such as cancer detection, demonstrates his deep engagement in the practical application of his research.

Award And Recognition :

Ali Fardoost has been recognized for his exceptional academic and research achievements. He was awarded the Best B.Sc. Thesis Award at the University of Tehran in 2023 for his innovative work on cancer detection using impedance measurement. Additionally, he was accepted for a Master’s program without the need for an entrance exam due to his exceptional academic performance. Ranked 25th among all undergraduate students at the University of Tehran’s College of Electrical and Computer Engineering, Ali also placed in the top 0.07% of participants in Iran’s highly competitive Nationwide University Entrance Exam (Konkoor).

Conclusion :

Ali Fardoost’s strong academic background and cutting-edge research in biosensing, cancer biomarker detection, and nanobiotechnology make him a highly suitable candidate for the Research for Best Researcher Award. His Ph.D. work at Rutgers University and B.Sc. from the University of Tehran demonstrate his exceptional academic performance, while his research projects reflect a deep commitment to solving real-world healthcare challenges. His achievements in microfluidics and biosensor fabrication, along with his focus on cancer diagnosis, show his potential for meaningful contributions to biomedical engineering. Overall, his innovative research and dedication make him a deserving candidate for this prestigious award.

Publication Top Notes :

  • Optimization of Nanowell-Based Label-Free Impedance Biosensor Based on Different Nanowell Structures – Fardoost, A., Raji, H., Javanmard, M. (2024) 📅 Biosensors, 14(9), 426 | Cited by: 0
  • Intraoperative Assessment of High-Risk Thyroid Nodules Based on Electrical Impedance Measurements: A Feasibility Study – Beheshti Firoozabadi, J., Mahdavi, R., Shamsi, K., Akbari, M.E., Abdolahad, M., Fardoost, A. (2022) 📅 Diagnostics, 12(12), 2950 | Cited by: 0

George Nnanna | Engineering | Best Researcher Award

Prof Dr. George Nnanna | Engineering | Best Researcher Award

Prof Dr. George Nnanna, The University of Texas Permian Basin, United States

Based on the provided information, Prof. Dr. George Nnanna would be a suitable candidate for the Research for Best Researcher Award due to his extensive contributions in academia, strategic planning, and research leadership. Below is an analysis of his achievements:

Publication profile

Strategic Planning and Leadership

Prof. Dr. Nnanna has demonstrated a strong capacity for strategic planning, having led the development of four strategic plans and actively participated in two university-level strategic plans. His leadership in these initiatives, such as targeting increased graduation rates amidst challenges due to the local economic climate, highlights his ability to navigate complex issues and implement effective strategies.

Fundraising and Resource Management

Dr. Nnanna’s experience in managing a substantial budget of nearly $21 million and collaborating on major fundraising efforts totaling $9.74 million underscores his capability in financial stewardship and resource allocation. His involvement in the $55 million Engineering Building project further reflects his skills in securing and managing large-scale investments.

Research Funding and Grants

With over $14 million in external grants generated as a Principal Investigator (PI) or Co-Principal Investigator (Co-PI), Dr. Nnanna’s success in securing diverse funding sources—federal, industry, city, and state—demonstrates his expertise in research proposal writing and his ability to attract significant research support.

Academic Achievements and Honors

His academic background, including a Ph.D. in Mechanical Engineering from The University of Texas at Arlington and executive leadership training from Harvard University and Oxford University, positions him as a well-rounded scholar and leader. His numerous honors, including a fellowship with the American Society of Mechanical Engineers and recognition by the Carnegie African Diaspora Fellowship, further affirm his stature in the academic community.

Contributions to Education and Accreditation

Prof. Dr. Nnanna’s role as Founding Dean and his leadership in ABET accreditation processes for engineering programs demonstrate his commitment to maintaining high educational standards. His involvement in teaching advanced engineering courses and advancing student learning experiences emphasizes his dedication to academic excellence.

Publication Top Notes

  • Enhanced solar-driven evaporation and mineral extraction from hypersaline produced water using low-cost microporous photothermal foam 🧪🌞
    • Nnanna, A.G.A., Nnanna, N.A., Heliyon, 2024, 10(8), e29321.
    • Cited by: 0
  • Compositional Analysis of Conventional and Unconventional Permian Basin-Produced Waters: A Simple Tool for Predicting Major Ion Composition 💧🔍
    • Ogbuji, B., Agwu Nnanna, A.G., Engle, M., Amesquita, R., SPE Production and Operations, 2022, 37(3), pp. 383–396.
    • Cited by: 6
  • A novel activated carbon enabled steam generation system under simulated solar light 🌞🔋
    • Mishra, A., Nnanna, A.G.A., Journal of Electronic Packaging, 2019, 141(3), 031015.
    • Cited by: 0
  • Optimization of Water Consumption in Hybrid Evaporative Cooling Air Conditioning Systems for Data Center Cooling Applications 🌬️💻
    • Ndukaife, T.A., Nnanna, A.G.A., Heat Transfer Engineering, 2019, 40(7), pp. 559–573.
    • Cited by: 19
  • Enhancement of Performance and Energy Efficiency of Air Conditioning System Using Evaporatively Cooled Condensers ❄️⚡
    • Ndukaife, T.A., Nnanna, A.G.A., Heat Transfer Engineering, 2019, 40(3-4), pp. 375–387.
    • Cited by: 10
  • Membrane fouling mitigation in water filtration using piezoelectrics 💧📊
    • Aronu, O., Abramowitz, H., Nnanna, A.G., ASME International Mechanical Engineering Congress and Exposition, 2019, 8.
    • Cited by: 0
  • Net-zero water (NZW) reuse desiccant assisted evaporative cooling system for data centers 🌱💧
    • Okposio, D., Agwu Nnanna, A.G., Abramowitz, H., ASME International Mechanical Engineering Congress and Exposition, 2019, 8.
    • Cited by: 1
  • High-Resolution Large-Ensemble Nanoparticle Trapping with Multifunctional Thermoplasmonic Nanohole Metasurface 🧲🔬
    • Ndukaife, J.C., Xuan, Y., Nnanna, A.G.A., Wereley, S.T., Boltasseva, A., ACS Nano, 2018, 12(6), pp. 5376–5384.
    • Cited by: 46
  • Development of a low cost self-sustaining water distillation system using activated carbon nanofluids 💧🔥
    • Mishra, A., Nnanna, A.G.A., ASME International Mechanical Engineering Congress and Exposition, 2018, 6B-2018.
    • Cited by: 0
  • Smartphone-based device for monitoring chemical pollutants in water 📱🧪
    • Ozeh, S., Nnanna, A.G.A., Ndukaife, J.C., ASME International Mechanical Engineering Congress and Exposition, 2018, 3.
    • Cited by: 1

Conclusion

Prof. Dr. George Nnanna’s strategic vision, leadership in resource management, successful acquisition of research funding, and commitment to academic and educational excellence make him a strong contender for the Research for Best Researcher Award. His multifaceted contributions to engineering education and his proactive approach to overcoming institutional challenges highlight his significant impact in the field.

 

Mohammad Hossein Khosravi | Engineering | Best Researcher Award

Mohammad Hossein Khosravi | Engineering | Best Researcher Award

Dr Mohammad Hossein Khosravi, University of Birjand,Iran

Dr. Mohammad Hossein Khosravi is an Associate Professor at the University of Birjand’s Department of Mining Engineering. He specializes in geotechnical engineering, with research interests in physical modeling, slope engineering, and tunneling. Dr. Khosravi has received multiple accolades, including the best paper award at the 10th International Conference on Earthquake Engineering in Tokyo and a postdoctoral fellowship from the Center for Urban Earthquake Engineering in Japan. His prolific publication record and commitment to advancing geomechanics demonstrate his expertise and dedication to the field. 🌍📚🔬

Publication profile

google scholar

Academic 

Dr. Mohammad Hossein Khosravi has a robust academic background in engineering, specializing in geotechnical and rock mechanics. His journey began with a Bachelor of Science in Mining Engineering from Shahid Bahonar University in Kerman, Iran, where he laid the foundation for his expertise in the field. Building upon this solid groundwork, he pursued a Master of Science in Rock Mechanics at the University of Tehran, further honing his skills and understanding of geological structures and materials.

 

Research focus

Mohammad Hossein Khosravi’s research focus revolves around geomechanics, particularly in the areas of physical modeling 🏗️, rock/soil slope engineering 🏔️, and tunneling and retaining structures 🚇. His work delves into understanding the behavior of geomaterials under various conditions, employing both experimental and theoretical approaches. With a keen interest in arching effects, earth pressure analysis, and stability assessments, Khosravi contributes significantly to the fields of geotechnical engineering and mining 🪨. Through his extensive publications and affiliations with prestigious academic societies, he continues to advance knowledge and techniques in geomechanics, enhancing safety and efficiency in construction and mining industries.

Publication top notes

Experimental and numerical study of asperity degradation in the direct shear test

Experimental analysis of earth pressure against rigid retaining walls under translation mode

Stability analysis of slide-toe-toppling failure

Theoretical analysis of earth pressure against rigid retaining walls under translation mode

A new classification of failure mechanisms at tunnels in stratified rock masses through physical and numerical modeling

Performance of counterweight balance on stability of undercut slope evaluated by physical modeling

Arch action over an excavated pit on a stable scarp investigated by physical model tests

Physical modeling of tunnel induced displacement in sandy grounds

Physical and theoretical modeling of rock slopes against block-flexure toppling failure

In-flight excavation of slopes with potential failure planes

Physical modeling of arch action in undercut slopes with actual engineering practice to Mae Moh open-pit mine of Thailand

Active earth pressures for non-planar to planar slip surfaces considering soil arching

Arching effect in geomaterials with applications to retaining walls and undercut slopes

Investigation of stability and failure mechanism of undercut slopes by three-dimensional finite element analysis

Numerical analysis of slide-head-toppling failure

Excavation problems in Mae Moh lignite open-pit mine of Thailand

DEM analysis of backfilled walls subjected to active translation mode

A numerical analysis on the performance of counterweight balance on the stability of undercut slopes

Stresses and a failure mode from physical and numerical models of undercut slope lying on inclined bedding plane

Semianalytical solution for evaluating bearing capacity of a footing adjacent to a slope