Biomedical Engineering (BIE)

Section Information

Biomedical Engineering focuses on the development and application of engineering principles, technologies, and analytical methods to improve human health, medical diagnosis, treatment, and rehabilitation. It integrates engineering, biology, medicine, and computational science to create tools, devices, systems, and models that support clinical practice and biomedical research.

Modern research in this field includes biomedical imaging, biomaterials, biomechanics, biosensors, bioinstrumentation, tissue engineering, regenerative medicine, neural engineering, medical devices, digital health, and computational modeling of biological systems. Advances in microfabrication, nanotechnology, AI, robotics, and personalized medicine continue to expand biomedical engineering applications.

This section publishes experimental studies, engineering designs, computational analyses, clinical translational work, reviews, and case studies addressing medical technologies, diagnostic and therapeutic systems, biological modeling, and innovations that advance patient care and biomedical understanding.

Scope

Biomedical Imaging and Diagnostic Technologies
- Imaging system development including MRI, CT, ultrasound, and optical imaging
- Image reconstruction, enhancement, and quantitative analysis
- AI-driven diagnostic systems and radiomics
- Point-of-care diagnostics and portable imaging systems
Biomaterials and Tissue Engineering
- Polymeric, metallic, ceramic, and composite biomaterials
- Scaffold design, cell–material interactions, and regenerative strategies
- 3D bioprinting and organ-on-chip technologies
- Drug delivery systems and controlled-release technologies
Biomechanics and Biotransport
- Mechanical behavior of tissues, organs, and biological systems
- Computational biomechanics, finite element modeling, and simulation
- Fluid dynamics in cardiovascular, respiratory, and microfluidic systems
- Applications in orthopedics, prosthetics, and rehabilitation
Bioinstrumentation, Sensors, and Medical Devices
- Wearable sensors, biosignal acquisition, and physiological monitoring
- Lab-on-chip, microfluidics, and point-of-care testing
- Therapeutic and assistive devices, including ventilators and pumps
- Device design, safety, regulation, and clinical implementation
Computational and Systems Biology
- Mathematical modeling of biological systems and processes
- Bioinformatics, multi-omics integration, and data-driven biology
- Machine learning methods for biological prediction and analysis
- Network modeling, systems-level simulations, and digital twins
Neural Engineering and Brain–Machine Interfaces
- Neuroprosthetics, neural stimulation, and electrophysiological systems
- Brain–computer interfaces and cognitive engineering
- Modeling of neural circuits and neurotechnology development
- Therapeutic systems for neurological disorders
Rehabilitation Engineering and Assistive Technologies
- Prosthetics, orthotics, and wearable exoskeletons
- Rehabilitation robots and therapy support systems
- Human–machine interaction and ergonomic design
- Sensor-based functional assessment and mobility enhancement
Digital Health, Healthcare Technology, and Innovation
- Telemedicine, mobile health systems, and remote monitoring
- Health informatics, decision-support systems, and medical AI
- Automation, robotics, and workflow optimization in healthcare
- Regulatory science, quality assurance, and clinical translation