Hanin Othman | Environmental Science and Smart Technology | Young Researcher Award 

Ms. Hanin Othman | Environmental Science and Smart Technology | Young Researcher Award 

Ms. Hanin Othman | Pennsylvania State University | United States

Author Profiles

Scopus

Orcid

Google Scholar

Early Academic Pursuits

Ms. Hanin Othman began her academic journey with a strong foundation in architecture and design. She earned her Bachelor of Science in Architectural Engineering from The Hashemite University, Jordan in 2014, where she graduated among the top students in her class and received multiple honors, including the Best Graduation Project Award. Her academic excellence continued through her Master of Science in Architectural Engineering from The University of Jordan in 2019, where her thesis publication earned the Best Master Thesis Published Paper Award. Building upon these achievements, she is currently pursuing a Ph.D. in Architecture (Sustainability) at Pennsylvania State University, USA. Her educational path reflects a consistent dedication to research and innovation at the intersection of environmental science and smart technology.

Professional Endeavors

Ms. Othman’s professional journey is marked by her deep involvement in academia, research, and creative technology. At Penn State University, she serves as a Graduate Teaching Assistant, instructing courses such as Basic Design and Research and Sustainable Architecture I & II. She is also the Artist and Maker in Residence at the Learning Factory, where she designs and leads workshops on low-cost IoT-based environmental monitoring systems using Arduino. Her earlier professional experience includes working as an Architect and Design Studio Supervisor at The Hashemite University, and as an Architect at Ruba Hosuah for Engineering. These roles allowed her to integrate sustainability principles with modern design methods, reinforcing her commitment to environmental science and smart technology.

Contributions and Research Focus

Ms. Hanin Othman’s research lies at the dynamic intersection of environmental science and smart technology, with a particular focus on sustainability, digital fabrication, and sensing technologies in architecture. Her doctoral research emphasizes the development of IoT-based indoor air quality monitoring systems, integrating mobile platforms, robotic sensing, and data-driven optimization techniques. She also explores urban microclimates, vegetation impacts, and thermal comfort using simulation tools such as ENVI-met, Design Builder, and CFD modeling. Additionally, her work in robotic fabrication bridges computational design with traditional craftsmanship, pushing the boundaries of sustainable architectural innovation.

Impact and Influence

Ms. Othman has made a remarkable impact both as a researcher and an educator. Her innovative approach to integrating environmental science and smart technology into architecture has influenced sustainable design practices and academic pedagogy. She has been recognized through numerous awards, including the ICDS Rising Researcher Award (2025–2026), Fox Scholar Award (2025), Sustainability Graduate Student Award Nomination (2024–2025), and the Artists and Makers in Residence Program (2024–2025). Her teaching contributions at Penn State University have inspired many students to embrace interdisciplinary and environmentally responsive design approaches.

Academic Cites

Ms. Othman’s research contributions have been featured in conferences, workshops, and institutional publications, reflecting the growing academic acknowledgment of her work. Her studies in environmental science and smart technology have attracted attention for their real-world applicability and technological innovation. Through her participation in Penn State’s Institute for Computational and Data Sciences (ICDS) and Hamer Center for Community Design, she has collaborated on projects that integrate digital twins, IoT networks, and data-driven environmental monitoring   all contributing to the broader academic discourse on sustainable and smart architectural systems.

Legacy and Future Contributions

Looking forward, Ms. Hanin Othman’s legacy will be defined by her contributions to sustainable architectural research and the advancement of environmental science and smart technology. Her ongoing projects, such as TwinSight: A Data-Driven Digital Twin Framework for Human-Centric Health Monitoring, highlight her vision for human-centered, data-driven, and equitable environmental design. As she continues to mentor students and collaborate across disciplines, her influence will extend to shaping the next generation of architects and environmental technologists. Her long-term goal is to pioneer scalable, low-cost sensing and smart systems that redefine sustainability in architecture.

Environmental Science and Smart Technology

Ms. Hanin Othman’s research integrates Environmental Science and Smart Technology through IoT-based sensing systems, robotic fabrication, and data-driven environmental design. Her interdisciplinary approach to Environmental Science and Smart Technology bridges architecture, engineering, and sustainability, redefining how design responds to ecological and technological challenges. The future of Environmental Science and Smart Technology continues to evolve through her innovative contributions, academic leadership, and commitment to global sustainable development.

Featured Publications

Othman, H., & Alshboul, A. A. (2020). The role of urban morphology on outdoor thermal comfort: The case of Al-Sharq City–Az Zarqa. Urban Climate, 34, 100706.

Othman, H., Azari, R., & Guimarães, T. (2024). Low-cost IoT-based indoor air quality monitoring. Technology|Architecture + Design, 8(2: Coding), 250–270.

Othman, H., Sieves, G., Guimarães, T., & Azari, R. (2025). A calibration chamber framework for low-cost indoor air quality sensor validation. Building and Environment, 113856.

Othman, H., Sieves, G., Guimaraes, T., & Azari, R. (2024). Development of a calibration chamber to evaluate the performance of a low-cost IAQ sensing device. In SIGraDi 2024 - Biodigital Intelligent Systems Conference 1.

Othman, H., & Azari, R. (2023). Exploring low-cost sensors for indoor air quality (IAQ) monitoring: A review of stationary and mobile sensing systems. In Proceedings of the 11th International Conference of the Arab Society 

Imam, C. A., Othman, H. A. S., & Çapunaman, Ö. B. (2023). Robotic plaster carving: Formalizing subtractive detailing of plaster surfaces for construction and crafts. In 41st Conference on Education and Research in Computer Aided Architectural

Dr. Ali Altuntepe | Hydrogen Energy | Best Researcher Award

Dr. Ali Altuntepe | Hydrogen Energy | Best Researcher Award

Sivas of Science and Technology university, Turkey.

Dr. Ali Altuntepe is a Turkish researcher and materials scientist specializing in experimental condensed matter physics, thin film technology, and two-dimensional materials. With a Ph.D. in Mechanical Engineering, his work focuses on hydrogen storage, graphene synthesis, and solar cell enhancement. He is passionate about integrating nanomaterials in renewable energy applications and continues to contribute significantly to the scientific community through numerous high-impact publications and collaborative projects.

Profile

Scopus
Orcid

🎓 Education

Dr. Ali Altuntepe has pursued his entire academic journey in Mechanical Engineering at Niğde Ömer Halisdemir University, where he demonstrated a consistent dedication to advanced research in materials science and energy systems. He recently completed his Ph.D. in Mechanical Engineering (2019–2024) with an outstanding GPA of 9.74/10.00. His doctoral thesis focused on the "Investigation of Hydrogen Storage Potential of Two-Dimensional Materials, Metal Hydrides, and Their Compositions," reflecting his deep engagement with sustainable and cutting-edge energy technologies. Prior to this, he earned his Master’s degree in Mechanical Engineering (2017–2019), achieving a GPA of 90.09/100, with a thesis centered on the "Synthesis of Doped and Pristine Graphene." His academic foundation was laid with a Bachelor's degree in the same field (2012–2017), where he graduated with a GPA of 3.35/4.00. Throughout his academic career, Dr. Altuntepe has cultivated expertise in nanomaterials, hydrogen storage systems, and graphene synthesis, positioning him as a strong contributor to both academic and applied research in clean energy and material innovation.

🧑‍🏫 Experience

Dr. Altuntepe has extensive experience in thin film synthesis and characterization. His work includes growing doped and pristine graphene, investigating 2D materials like MoS₂, WS₂, LiH, and NaH, and applying these materials in PEM fuel cells and solar cells. He has presented at international conferences and co-authored a book chapter on sustainable materials in solar technology.

🔬 Research Interests

Graphene and TMDs (MoS₂, WS₂) synthesis

Hydrogen storage materials

Solar cell enhancement using 2D materials

Thin film deposition techniques (CVD, PVD, E-beam)

Materials characterization (XRD, SEM, Raman, XPS, etc.)

Transparent conductive oxides (TCOs)

Integration of nanomaterials into composite and optoelectronic systems

🏆 Awards & Achievements

Co-authorship in a prestigious Elsevier publication:
Sustainable Materials Solutions for Solar Energy Technologies (2021)

Oral presentations at international conferences including ICSM and MSNG

High citation record with over 20 peer-reviewed journal articles

📚 Selected Publications

☀️ Advanced Solar Cell Materials

1. Boron Doped Graphene and MoS₂-Based Ultra-Thin Schottky Junction Solar Cell

Journal: Optical Materials (May 2025)
DOI: 10.1016/j.optmat.2025.116828
Highlights:

Integrates boron-doped graphene with MoS₂ to form an ultra-thin Schottky junction.

Aims to enhance charge transport and light absorption.

Promising for lightweight and high-efficiency PV applications.

2. Nitrogen Doped Single Layer Graphene for CZTS-Based Thin Film Solar Cells

Journal: Optical Materials (2024)
DOI: 10.1016/j.optmat.2024.115167
Highlights:

Uses nitrogen doping to tune electronic properties of graphene.

Applied in CZTS (Copper Zinc Tin Sulfide) solar cells — known for being earth-abundant and non-toxic.


💨 Hydrogen Storage and Fuel Cells

3. Optimizing Hydrogen Storage and Fuel Cell Performance Using Carbon-Based Materials

Journal: Hydrogen (March 2025)
DOI: 10.3390/hydrogen6020022
Highlights:

Studies effects of surface area and pressure on carbon-based hydrogen storage.

Bridges material design with real-world performance in fuel cells.

4. Hydrogen Storage Capacity of Two-Dimensional MoS₂

Journal: International Journal of Hydrogen Energy (2024)
DOI: 10.1016/j.ijhydene.2023.12.120
Highlights:

Focus on MoS₂ for reversible hydrogen storage.

Explores adsorption behavior on 2D surfaces.

5. Investigating Surface Area and Hydrogen Pressure Effects on LiH and NaH

Journal: Journal of Solid State Chemistry (2024)
DOI: 10.1016/j.jssc.2023.124483
Highlights:

Dives into metal hydrides (LiH and NaH).

Correlates structural properties with storage performance under different pressures.

 

 

Dr. Dawid Maciejewski | Hydroenergy | Best Researcher Award

Dr. Dawid Maciejewski | Hydroenergy | Best Researcher Award

University of Agriculture in Krakow, Poland.

Dr. Dawid Maciejewski is an academic teacher and research assistant at the University of Agriculture in Krakow, Poland. With a PhD in Mechanical Engineering and extensive expertise in renewable energy systems, his research focuses on the innovative modeling of production processes, particularly in Small Hydropower Plants (SHP). Passionate about sustainability, Dr. Maciejewski employs cutting-edge artificial intelligence to advance energy efficiency and environmental protection.

Profile

Orcid

Education 🎓

Dr. Dawid Maciejewski earned his PhD in Mechanical Engineering (2018–2024) from the University of Agriculture in Krakow, Poland. His doctoral research focused on Modeling of the Production Process in the Small Hydropower Plant (SHP), offering innovative insights into optimizing renewable energy systems and advancing energy efficiency. This work underscores his dedication to sustainable energy solutions and practical applications of mechanical engineering in environmental conservation.

In addition to his PhD, Dr. Maciejewski holds a Postgraduate Diploma in Occupational Health and Safety (2018–2019) from AGH University of Krakow, where he specialized in workplace safety and risk management. He also completed a Master’s Degree in Environmental Quality and Safety (2017–2018) and a Bachelor’s Degree in Environmental Protection (2013–2017) at the University of Agriculture in Krakow, equipping him with a strong foundation in environmental monitoring, safety standards, and sustainable development practices.

Experience 💼

Since October 2024, Dr. Dawid Maciejewski has been serving as an academic teacher and research assistant in the Department of Bioprocesses Engineering, Power Engineering, and Automation at the University of Agriculture in Krakow, Poland. In this role, he combines teaching with cutting-edge research, focusing on renewable energy technologies, including Small Hydropower Plants (SHP), and the integration of artificial intelligence in energy forecasting. His dedication to sustainability and innovation drives his contributions to both academia and the advancement of practical solutions for energy efficiency and environmental conservation.

Research Interests 🔬

Renewable Energy Sources (RES) with a focus on run-of-river Small Hydropower Plants (SHP)

Utilizing sawmill industry waste for solid biofuel production

Environmental impact assessments of RES units, particularly on fauna and flora

Hydrogen energy production through water electrolysis

Applying Artificial Intelligence (AI) for regression analyses

Occupational risk assessment and disease prevention

Publications 📚

Maciejewski D., Mudryk K., Sporysz M. (2024). Forecasting Electricity Production in a Small Hydropower Plant (SHP) Using Artificial Intelligence (AI). Energies., Cited by: 15 articles. Link

Nęcka K., Knaga J., Maciejewski D. (2020). Characteristics of the Electrical Energy Quality in a Municipal Service Facility Cooperating with Photovoltaic Micro Installation. Przegląd Elektrotechniczny. Cited by: 8 articles. Link