Biomedical Engineering Level 3

Biomedical Engineering Level 3

Biomedical Engineering Level 3 introduces learners to the principles connecting engineering, biology and healthcare. The course explores biomedical engineering alongside human anatomy and physiology, biomedical science, sensors, epidemiology, bioinstrumentation, medical imaging, biomaterials and COSHH awareness. Learners gain broad subject knowledge across technologies, biological systems, healthcare applications and workplace safety. This course is relevant to learners interested in biomedical engineering, healthcare technology, medical equipment, scientific research or related technical fields. It can provide useful foundational knowledge for understanding how engineering concepts and biomedical sciences intersect, while supporting further learning and career exploration. It does not replace a degree or regulated training.

• Biomedical Engineering and Biomedical Science
• Human Anatomy and Physiology
• Biomedical Sensors and Bioinstrumentation
• Medical Imaging and Biomaterials
• Epidemiology and COSHH Awareness

Course Overview

What is biomedical engineering? It is an interdisciplinary field that applies engineering knowledge to healthcare, biological systems, medical technologies and patient applications. Biomedical Engineering Level 3 introduces learners to core areas including anatomy and physiology, biomedical science, sensors, bioinstrumentation, medical imaging, biomaterials, epidemiology and COSHH awareness. This breadth of study can be especially useful for learners exploring healthcare technology, medical equipment, scientific research, laboratory environments and engineering-related careers. Relevant roles include biomedical engineer, clinical engineer, biomedical scientist and other technical positions, although many professional roles require additional degrees, training or registration. The course can therefore support learners who want to understand biomedical engineering before pursuing further study or exploring related employment areas and further academic planning. Its curriculum connects biological knowledge with technologies, scientific concepts and safety concepts, helping learners build a foundation for understanding the biomedical engineering field and its applications across healthcare and engineering workplaces. It offers breadth.

Description

Biomedical Engineering Level 3 covers foundations of biomedical engineering and related subjects. Learners begin with biomedical engineering before exploring human anatomy and physiology and biomedical science. The curriculum then introduces biomedical sensors, epidemiology, bioinstrumentation, medical imaging and biomaterials, followed by COSHH awareness. Together, these modules provide knowledge of biological systems, healthcare technologies, measurement, imaging, materials and workplace safety. It is relevant to learners researching biomedical engineering careers, healthcare technology or further study. It also develops familiarity with terminology connecting engineering, medicine, biology and scientific practice. Learners can use the foundation when considering further study or related learning in this field.

Course Curriculum

Module 1: Biomedical Engineering

This module introduces the central field of biomedical engineering and its relationship with engineering, biology and healthcare.

Main learning topics:

• Biomedical engineering
• Engineering and healthcare
• Biomedical applications
• Medical technology

Module 2: Human Anatomy and Physiology

This module covers the human body, its anatomical structures and physiological processes, providing biological context for biomedical engineering.

Main learning topics:

• Human anatomy
• Human physiology
• Body structures
• Physiological processes

Module 3: Biomedical Science

This module introduces biomedical science and its role within healthcare and scientific environments.

Main learning topics:

• Biomedical science
• Biological sciences
• Healthcare science
• Scientific applications

Module 4: Biomedical Sensors

This module explores biomedical sensors and their relevance to measuring and monitoring biological or physiological information.

Main learning topics:

• Biomedical sensors
• Measurement
• Monitoring
• Biomedical applications

Module 5: Epidemiology

This module introduces epidemiology and its connection with the study of health, disease and patterns within populations.

Main learning topics:

• Epidemiology
• Health patterns
• Disease
• Populations

Module 6: Bioinstrumentation

This module introduces bioinstrumentation and the use of instruments and technologies within biomedical applications.

Main learning topics:

• Bioinstrumentation
• Biomedical instruments
• Measurement
• Healthcare technology

Module 7: Medical Imaging

This module explores medical imaging as an important area of biomedical technology used within healthcare.

Main learning topics:

• Medical imaging
• Imaging technology
• Biomedical applications
• Healthcare technology

Module 8: Biomaterials

This module introduces biomaterials and their importance within biomedical engineering and healthcare applications.

Main learning topics:

• Biomaterials
• Biomedical materials
• Engineering applications
• Healthcare applications

Module 9: COSHH Awareness

This module introduces COSHH awareness, providing knowledge relevant to working safely around substances that may be hazardous to health.

Main learning topics:

• COSHH
• Hazardous substances
• Workplace safety
• Health protection

Who Is This Course For?

This course is suitable for learners who want to explore biomedical engineering and understand how engineering, biology and healthcare technologies connect. It may be particularly useful for aspiring biomedical engineers and clinical engineers who want introductory knowledge before pursuing the qualifications and professional training normally required for these careers.

It is also relevant to learners interested in biomedical science, healthcare technology, medical equipment, biomedical sensors, medical imaging, bioinstrumentation or biomaterials. Existing learners or professionals in science, engineering or healthcare-related environments may find the broad curriculum useful for expanding their subject knowledge.

The course can also suit career changers and beginners who are researching biomedical engineering jobs or considering a future biomedical engineering degree. It should be viewed as foundational learning rather than a replacement for a relevant university degree, professional training or registration where these are required.

Requirements

No formal entry requirements have been supplied for Biomedical Engineering Level 3. Therefore, learners should not assume that specific GCSEs, A levels, previous qualifications, professional experience or registration are required unless separately stated by the course provider.

A general interest in biomedical engineering, healthcare technology, biology, engineering or scientific subjects may make the curriculum easier to engage with, but this is not presented as a formal entry requirement.

Learners intending to progress into professional biomedical engineering, clinical engineering or biomedical science roles should check the current education, training, experience and registration requirements for their intended UK career. For example, professional biomedical engineering and biomedical science pathways can require additional degree-level study and, for some roles, professional registration.

Skills You Can Develop

Biomedical Engineering Knowledge — Develop foundational understanding of biomedical engineering and its relationship with engineering, biology and healthcare.

Human Anatomy and Physiology Knowledge — Build knowledge of human body structures and physiological processes relevant to biomedical applications.

Biomedical Science Knowledge — Develop familiarity with biomedical science and its role in healthcare and scientific environments.

Biomedical Sensor Awareness — Understand the role of sensors in biomedical measurement and monitoring.

Bioinstrumentation Knowledge — Develop an understanding of biomedical instruments and their applications.

Medical Imaging Awareness — Build knowledge of medical imaging as an area of healthcare technology.

Biomaterials Knowledge — Develop foundational understanding of materials used or considered within biomedical applications.

Epidemiology Knowledge — Understand the basic subject area of epidemiology and its relationship with health and disease patterns.

COSHH Awareness — Develop awareness of hazardous substances and workplace health and safety considerations.

Biomedical Technology Awareness — Build broader understanding of how technologies, biological knowledge and healthcare applications intersect.

Learning Outcomes

By the end of the course, learners should be able to:

1. Understand the fundamental subject area of biomedical engineering.
2. Explain the relationship between biomedical engineering, biology and healthcare.
3. Describe key aspects of human anatomy and physiology.
4. Explain the role of biomedical science within the wider healthcare and scientific context.
5. Identify the purpose and applications of biomedical sensors.
6. Describe the role of bioinstrumentation in biomedical applications.
7. Explain the importance of medical imaging within healthcare technology.
8. Recognise the relevance of biomaterials to biomedical engineering.
9. Describe the basic focus of epidemiology in relation to health and disease.
10. Recognise key COSHH awareness principles relating to hazardous substances and workplace safety.

Career Paths

The course can provide foundational subject knowledge for learners exploring several healthcare science, biomedical engineering and technology-related career areas. It does not, by itself, qualify learners for regulated or degree-entry professional roles.

Biomedical Engineer

Typical UK Salary: £30,000–£36,500 starting; £37,000–£45,000 with experience; £46,000–£53,000+ at senior levels, according to Prospects’ 2026 career information.

How the course is relevant: The curriculum directly covers biomedical engineering, biomedical sensors, bioinstrumentation, medical imaging and biomaterials. These areas overlap with the subject knowledge used in biomedical engineering environments. However, becoming a biomedical engineer in the UK normally requires a relevant degree, and NHS clinical engineering pathways can involve further postgraduate training.

Clinical Engineer

Typical UK Salary: £26,000–£75,000, based on National Careers Service guidance.

How the course is relevant: Clinical engineers work with medical equipment and technologies used to diagnose and treat patients. The course’s biomedical engineering, sensors, bioinstrumentation, medical imaging and biomaterials modules provide relevant introductory subject knowledge. Professional entry normally requires additional education or an NHS training pathway.

Biomedical Scientist

Typical UK Salary: £30,000–£53,000, according to the National Careers Service.

How the course is relevant: Biomedical science, human anatomy and physiology, epidemiology and related scientific subjects provide relevant foundational knowledge for learners exploring biomedical science. However, working as a biomedical scientist in the UK requires HCPC registration and an appropriate education and training pathway.

Medical Physicist

Typical UK Salary: £40,000–£65,000, according to the National Careers Service.

How the course is relevant: Medical imaging and biomedical technology are relevant areas for learners exploring healthcare technology and medical physics. However, becoming a medical physicist normally requires a relevant degree and further NHS Scientist Training Programme or equivalent professional development.

Clinical Scientist

Typical UK Salary: £49,000–£65,000, according to the National Careers Service.

How the course is relevant: The course introduces biomedical science, medical imaging, bioinstrumentation, anatomy and other scientific areas that can help learners understand the broader clinical science environment. Professional clinical scientist roles require additional qualifications and training, including established NHS pathways for relevant specialisms.

Salary figures are indicative rather than guaranteed. Actual earnings vary according to experience, location, employer, specialism, qualifications and level of responsibility.

FAQs

What is biomedical engineering?

Biomedical engineering is an interdisciplinary field connecting engineering, biology and healthcare. It includes areas such as biomedical sensors, bioinstrumentation, medical imaging and biomaterials. Biomedical engineers can work on technologies and equipment used in healthcare settings.

What does the Biomedical Engineering Level 3 course cover?

The course covers nine areas: biomedical engineering, human anatomy and physiology, biomedical science, biomedical sensors, epidemiology, bioinstrumentation, medical imaging, biomaterials and COSHH awareness.

Is this course suitable for someone interested in a biomedical engineering degree?

Yes. The course can provide broad introductory knowledge across important biomedical engineering and related scientific subjects. Learners considering a biomedical engineering degree should separately check the entry requirements of their chosen university.

What jobs are related to biomedical engineering?

Related UK career areas include biomedical engineering and clinical engineering, while the wider curriculum also connects with biomedical science, medical imaging and healthcare science. Professional roles may require additional qualifications, training or registration.

What is the typical biomedical engineering salary in the UK?

Biomedical engineering salaries vary by employer, experience and level. Prospects reports starting salaries of around £30,000–£36,500, increasing with experience and seniority, while the National Careers Service lists clinical engineer salaries from £26,000 to £75,000.