Biomedical engineering is a rapidly evolving discipline that combines engineering principles with medical science to improve healthcare diagnostics, treatments, and technologies. The OSHAA 30-Hours Professional Diploma in Biomedical Engineering is designed to offer participants a structured introduction to the foundational concepts and practical applications of this multidisciplinary field. Whether applied in hospitals, laboratories, research institutions, or the medical device industry, biomedical engineering is essential to modern healthcare systems.
This diploma equips participants with the technical knowledge and analytical skills necessary to understand how engineering solutions can be applied to biological systems. The course highlights key aspects such as medical instrumentation, biomechanics, biomaterials, imaging technologies, and emerging innovations in health technology.
The OSHAA 30-Hours Professional Diploma in Biomedical Engineering offers an essential introduction to one of the most impactful and forward-looking disciplines in science and healthcare. By blending engineering innovation with human physiology and medical application, this course empowers participants to contribute to safer, smarter, and more effective healthcare solutions.
For those looking to step confidently into the world of biomedical technology, this diploma provides a comprehensive and accessible foundation.
OSHAA 30-Hours Professional Diploma in Biomedical Engineering
Study Units
Learning Outcomes
Introduction to Biomedical Engineering and Its Applications (3 hours)
- Understand the scope and interdisciplinary nature of biomedical engineering
- Identify key subfields such as biomechanics, bioinstrumentation, and medical imaging
- Explore the role of biomedical engineers in clinical, industrial, and research settings
- Recognise emerging technologies and innovations in healthcare engineering
Basic Human Anatomy and Physiology for Engineers (3 hours)
- Understand the structure and function of major body systems relevant to biomedical applications
- Identify anatomical terms and physiological concepts applicable to device design
- Relate physiological functions to the development of biomedical technologies
- Interpret basic physiological data for engineering applications
Medical Instrumentation and Diagnostic Devices (4 hours)
- Describe the principles and functions of common diagnostic instruments such as ECG and blood pressure monitors
- Understand the role of sensors, electrodes, and signal acquisition in medical devices
- Evaluate the design and performance parameters of diagnostic tools
- Recognise the importance of accuracy, safety, and reliability in instrumentation
Biomechanics and Human Motion Analysis (6 hours)
- Understand the mechanical principles of human movement and posture
- Analyse forces, loads, and joint mechanics during physical activity
- Apply biomechanical concepts to the design of orthopaedic and rehabilitation devices
- Use motion analysis tools and techniques to assess human mobility
- Identify common biomechanical disorders and their implications for engineering solutions
- Interpret data from gait and posture studies for clinical and research applications
Biomaterials: Properties and Clinical Applications (5 hours)
- Identify different types of biomaterials including polymers, metals, and ceramics
- Understand biocompatibility, biofunctionality, and material selection criteria
- Explore applications of biomaterials in implants, prosthetics, and surgical devices
- Evaluate the interaction between biomaterials and biological tissues
- Assess safety, performance, and regulatory considerations for material use
Medical Imaging Technologies: MRI, CT, and Ultrasound (4 hours)
- Understand the physical principles behind major imaging modalities
- Compare the advantages, limitations, and clinical uses of MRI, CT, and ultrasound
- Interpret basic imaging outputs and their relevance to diagnosis
- Recognise the engineering considerations in image acquisition, resolution, and safety
Biomedical Signal Processing and Data Interpretation (3 hours)
- Understand the fundamentals of biomedical signal acquisition and processing
- Identify types of physiological signals such as ECG, EMG, and EEG
- Apply basic techniques for signal filtering, amplification, and analysis
- Interpret signal patterns to assess physiological conditions
Rehabilitation Engineering and Assistive Technologies (2 hours)
- Explore the design and application of assistive devices such as prosthetics, orthotics, and mobility aids
- Understand user needs and ergonomic considerations in rehabilitation technology
- Assess how engineering supports patient recovery and functional independence
- Examine innovations in adaptive and wearable assistive technologies
Course Benefits – OSHAA 30-Hours Professional Diploma in Biomedical Engineering
- Provides a solid foundation in the principles and applications of biomedical engineering, suitable for diverse professional settings
- Enhances understanding of how engineering solutions can improve patient care, diagnostics, and rehabilitation
- Equips participants with practical knowledge of medical instrumentation, imaging technologies, and biomaterials
- Builds interdisciplinary competence by integrating engineering, anatomy, physiology, and healthcare practices
- Supports career development in clinical engineering, medical technology, research, and healthcare innovation
- Develops analytical and problem-solving skills applicable to the design and evaluation of medical devices
- Prepares participants for further education or specialisation in biomedical science or engineering fields
- Encourages critical awareness of ethical, safety, and regulatory considerations in medical technology
- Promotes familiarity with current trends and innovations such as digital health, wearable devices, and smart systems
- Offers a recognised professional credential to strengthen CVs and support progression within engineering and healthcare industries
This course is ideal for participants interested in the intersection of engineering and healthcare, particularly those seeking to apply technical knowledge to improve medical outcomes. It is especially suitable for:
- Engineering professionals and technicians aiming to expand their expertise into the biomedical sector
- Science and engineering graduates exploring careers in medical technology, clinical engineering, or healthcare innovation
- Healthcare professionals interested in understanding the function and design of medical devices and equipment
- Researchers and innovators involved in the development of assistive technologies, prosthetics, or diagnostic tools
- Participants preparing for further study in biomedical sciences, bioinstrumentation, or health technology
- Individuals from technical backgrounds looking to transition into the healthcare industry with a focus on engineering applications
The course is designed for participants from both clinical and non-clinical settings who wish to gain practical and theoretical knowledge of biomedical engineering to support their professional growth.
