VISION
The School of Applied Medical Sciences (SAMS) at the German Jordanian University (GJU) aspires to be a regional leader in impactful education and innovative research. By addressing pressing healthcare challenges and promoting environmental sustainability, SAMS aims to empower future professionals and researchers to contribute meaningfully to the advancement of healthcare and well-being in Jordan and beyond.
OBJECTIVES
Our research, aligned with Strategy 2030, prioritizes innovation and collaboration to improve well-being. We promote a rigorous research environment, encouraging interdisciplinary collaboration and the translation of scientific findings into practical and sustainable solutions.
The School of Applied Medical Sciences (SAMS) aims to:
- Deliver Applied and Practice-Based Education: Continuously develop and update undergraduate and graduate programs to meet evolving industry and healthcare market needs. Emphasize practical, hands-on learning and collaboration with industry professionals to prepare graduates equipped with advanced technical, language, and cross-cultural skills to succeed in regional and international markets.
- Foster Research, Innovation, and Entrepreneurship: Build a research culture that emphasizes innovation, interdisciplinary collaboration, and solving real-world healthcare challenges. Invest in state-of-the-art laboratories, advanced equipment, and digital tools to support impactful research and projects leading to entrepreneurship and the commercialization of ideas.
- Enhance Infrastructure and Research Capabilities: Develop cutting-edge research facilities and practice-based education environments to enable excellence in education, research, and innovation while promoting interdisciplinary and collaborative efforts across disciplines.
- Strengthen Community and Industry Engagement: Establish robust partnerships with industry, community stakeholders, and alumni to align education and research outcomes with societal needs, promote knowledge transfer, and foster a positive societal impact.
- Promote Sustainable Development and Capacity Building: Integrate sustainability principles into education, research, and infrastructure to address environmental challenges in healthcare practices, infrastructure, and manufacturing. Provide faculty and students with opportunities for professional training, conferences, and exchange programs, ensuring continuous growth and adaptability.
PRIORITY RESEARCH AREAS
Our research is organized into five key areas:
1. Biomedical Innovation and Advanced Therapeutics
This core research theme focuses on the development and improvement of innovative treatments and therapies. Key areas include:
- Optimized Drug Delivery Systems: Research into novel drug delivery methods to enhance therapeutic efficacy, reduce side effects, and improve patient compliance. This encompasses targeted delivery, controlled release, and the utilization of advanced materials.
- Biomedical Devices and Instrumentation: The design, development, and rigorous testing of new diagnostic tools, therapeutic devices, and implantable systems, with a focus on improved accuracy, safety, and usability. https://www.gju.edu.jo/content/nanolab-gju-14664
- Biologics and Biosimilars: Research into the production, purification, and therapeutic application of biologics and biosimilars, including investigation of novel manufacturing methods and comprehensive biosimilarity assessments.
- Medicinal Chemistry and Drug Discovery: The discovery and development of novel therapeutic agents, involving design, synthesis, and evaluation of drug candidates to achieve improved efficacy and reduced toxicity.
2. Nanoporous Materials for Advanced Life Sciences and Renewable Energy Applications
This area explores the potential of nanoporous materials for applications in healthcare and renewable energy:
- Nanoporous Materials in Drug Delivery and Diagnostics: Synthesis and characterization of novel nanoporous materials for use in advanced drug delivery systems and improved diagnostics.
- Nanoporous Materials in Renewable Energy: Application of nanoporous materials to enhance the efficiency and sustainability of renewable energy technologies, including solar cells and energy storage systems.
3. AI-Driven Human-Centered Computing and Advanced Data Analytics in Healthcare: Integrating IoT for Enhanced Patient Care
This theme uses computational tools and big data to improve healthcare outcomes:
- AI-powered Personalized Medicine: Development and implementation of AI algorithms to analyze patient data and create personalized treatment plans tailored to individual needs and characteristics. This includes predictive modeling of patient outcomes and risk stratification.
- ML-enhanced Medical Image Analysis: Utilizing machine learning techniques to improve the accuracy and efficiency of medical image analysis, leading to faster and more precise diagnoses. This involves the development and application of algorithms for automated image analysis, 3D reconstruction, and the integration of image data with other clinical information.
- IoT-enabled Remote Patient Monitoring: Integration of IoT devices (wearable sensors, smart medical equipment) to collect real-time patient data (vital signs, activity levels, etc.) for early detection of potential health issues and proactive intervention. This allows for remote monitoring, reducing hospital readmissions and improving patient outcomes.
4. Environmental Sustainability in Healthcare
This theme is dedicated to research focused on minimizing the environmental impact of healthcare practices and promoting sustainable solutions. Key areas include:
- Waste Management and Reduction in Healthcare: Development and implementation of strategies to reduce waste generation and improve waste management practices within healthcare settings.
- Sustainable Healthcare Infrastructure: Research into the design and construction of sustainable healthcare facilities, focusing on energy efficiency, water conservation, and the use of eco-friendly building materials.
- Life Cycle Assessment of Healthcare Products: Conducting life cycle assessments of healthcare products to identify environmental hotspots and develop strategies for minimizing their environmental impact.
5. Sustainable Healthcare Manufacturing and Supply Chain Optimization
This theme addresses the critical need for environmentally responsible and cost-effective manufacturing processes within the healthcare industry. Research includes:
- Green Manufacturing Processes: The development and implementation of eco-friendly manufacturing processes for pharmaceutical products and medical devices, encompassing the use of renewable resources and waste minimization strategies.
- Supply Chain Resilience: Strategies to improve the resilience of healthcare supply chains and mitigate potential disruptions, ensuring the reliable availability of essential medical products, particularly during crises.
- Circular Economy Principles in Healthcare: Exploration and implementation of circular economy principles within healthcare manufacturing, including waste reduction, reuse, and recycling of materials.
We will achieve these goals by focusing our efforts on key areas Collaborative Research and Technology Transfer:
- Public-Private Partnerships: Strategic partnerships with industry to facilitate knowledge transfer and commercialization of research findings.
- Technology Transfer and Commercialization: Support for researchers in obtaining patents and licensing technologies to ensure broader impact.
- Community Engagement: Community outreach to share research findings and address local healthcare needs, promoting collaboration and knowledge sharing.