BEng (Hons) Biomedical and Healthcare Engineering
| Program start date | Application deadline |
| 2024-09-01 | - |
Program Overview
This interdisciplinary Biomedical and Healthcare Engineering program combines engineering principles with health sciences, focusing on advanced topics like biomechanics, biomaterials, and biosignal analysis. It equips students with a solid foundation in engineering and health sciences, fostering critical thinking and preparing them for careers in the biomedical and healthcare engineering domain. The program emphasizes group learning, industry involvement, and hands-on experiences, providing students with a comprehensive understanding of the field.
Program Outline
Extracted Information from Context:
Degree Overview:
Overview:
This interdisciplinary BEng (Hons) Biomedical and Healthcare Engineering degree program offers a unique combination of engineering principles with health sciences, focusing on advanced topics such as biomechanics, biomaterials, and biosignal analysis.
Objectives:
- Equipping students with a solid foundation in key engineering fields and health sciences.
- Fostering critical thinking and curiosity through teamwork and independent study.
- Preparing students for future careers in the biomedical and healthcare engineering domain.
Program Description:
- Combines theoretical, experimental, and computational study to provide a comprehensive understanding of the field.
- Utilizes a hands-on approach with group design projects, simulations, and testing.
- Places emphasis on group learning and communication skills through presentations and collaborative work.
- Offers opportunities for students to benefit from industry and NHS involvement through projects and guest lectures.
Outline:
Program Content:
- Year 1: Building a foundation in mathematics, engineering, physics, electronics, and computing, including anatomy, physiology, and pathology.
- Year 2: Applying engineering analysis to practical systems, studying biomedical design, and advancing knowledge in biomedical instrumentation, biomaterials, biomechanics, and rehabilitation engineering.
- Year 3: Deepening specialization in topics such as biosignals, biosensors, medical physics and imaging, physiological fluid mechanics, and biological system modeling.
Structure:
- The program is divided into three years, with each year focusing on specific areas of study.
- Each year consists of a combination of lectures, tutorials, group design exercises, laboratory classes, and engineering workshops.
- An optional placement year is available in year 3 to enhance employability.
Individual Modules:
- Year 1:
- The Engineering in Society - Social Responsibility
- Anatomy and Physiology
- Introductory Mathematics and Programming
- Electronics I
- Engineering Science
- Mathematics I
- Introduction to Thermodynamics and Fluid Mechanics
- Engineering Design I
- Year 2:
- The Engineer in Society: Sustainability and Circular Economy
- Mathematics II
- Engineering Design II – Biomedical
- Biomedical Instrumentation
- Data Analysis for Engineers
- Biomaterials
- Biomechanics and Rehabilitation Technology
- Electrophysiology and Cardiorespiratory Measurements
- Year 3:
- Individual project (30 credits)
- The Engineer in Society – Healthcare for all
- Biomedical Signal Processing
- Biomedical Sensors
- Biological Systems Modelling
- Medical Physics and Imaging
- Physiological Fluid Mechanics
Assessment:
Assessment Methods:
- Coursework assignments
- Examinations
- Group project reports
- Individual research project
- Laboratory work
- Data analysis
Assessment Criteria:
- Understanding of key concepts and principles
- Ability to apply knowledge to practical problems
- Critical thinking and problem-solving skills
- Communication and teamwork skills
- Technical and practical skills
Teaching:
Teaching Methods:
- Lectures
- Tutorials
- Group design exercises
- Laboratory classes
- Engineering workshops
- Project supervision
- Guest lectures
Faculty:
- Academics from active research centers
- Specialist professionals from industry
- Visiting lecturers from research institutions
Unique Approaches:
- Emphasis on group learning and communication skills
- Industry and NHS involvement
- Access to cutting-edge facilities and equipment
- Opportunity for an optional placement year
Careers:
Potential Career Paths:
- Research and development engineer
- Biomedical engineer
- Clinical engineer
- Biomaterials scientist
- Biomechanics specialist
- Regulatory affairs specialist
- Management consultant
- Academic researcher
Employment Opportunities:
- Medical technology companies
- Research institutions
- Hospitals and healthcare organizations
- Government agencies
- Management consulting firms
- Pharmaceutical companies
Outcomes:
- Graduates are well-prepared for careers in the biomedical and healthcare engineering industry.
- Many graduates pursue further studies at postgraduate level.
- The program provides a strong foundation for professional development and career progression.
Other:
Accreditation:
The program is expected to receive full accreditation from the Institute of Physics Engineering in Medicine (IPEM), the Institute of Engineering and Technology (IET), and the Institute of Measurement and Control (InstMC).
Fees:
Please refer to the official City, University of London website for information on fees.
Admission Requirements:
Please refer to the official City, University of London website for information on admission requirements.
Application Process:
Applications must be made through the Universities and Colleges Admissions Service (UCAS). Please refer to the City, University of London website for information on application deadlines and procedures.
Note:
The extracted information is based on the provided context. Please refer to the official City, University of London website for the most up-to-date and complete information.
Tuition Fees and Payment Information:
Home/UK: £9,250 International: £20,760 The tuition fees indicated are for the 2024/25 academic year only. Fees for future years may be subject to an inflationary increase in the region of 5%.
