Biomedical Engineering

Biomedical Engineering

Biomedical EngineeringEngineeringHealthcare Technology

Overview

Projected Job Growth

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since last year

Duration of Study

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Annual Average Salary

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since last year

Career Opportunities

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new jobs available

Program Description

Biomedical Engineering applies engineering and technology to healthcare. In this program you study mathematics, physics, biology, chemistry, electronics, programming, and design. You will learn to design, build, test, and maintain medical devices, diagnostic tools, and healthcare systems using CAD, sensors, and embedded systems. Practical lab work, projects, and internships help you solve real medical problems. Graduates can work as biomedical engineers, clinical engineers, medical device designers, quality assurance or maintenance technicians, and can transition into related roles like software, electrical, mechanical, or IT engineering. This program prepares you to innovate for Ghana's hospitals, clinics, health startups, and research labs, while building strong technical and problem-solving skills.

Aims and Objectives

  • Develop practical skills in designing and prototyping biomedical devices using CAD and electronics.

  • Master programming for data analysis, embedded systems, and device control using languages like Python and C.

  • Understand human biology, medical device safety, and regulatory needs to design appropriate health technologies.

  • Create and test mathematical models and simulations to predict device behavior and patient outcomes.

  • Apply project management, technical documentation, and testing procedures to deliver reliable engineering solutions.

Why Choose This Program?

  • High impact work

    Work on technologies that directly improve patient care, from diagnostics to rehabilitation equipment.

  • Strong job prospects

    Demand exists in hospitals, clinics, device companies, research labs, and government health agencies in Ghana and beyond.

  • Interdisciplinary skills

    Gain engineering, biology, programming, and design skills that open pathways to electrical, mechanical, and software roles.

  • Hands-on learning and internships

    Opportunities for practical labs, clinical engineering attachments, and industry internships to build real experience.

  • Innovation and entrepreneurship

    Skills support starting health tech projects or joining startups focused on telemedicine, wearables, and automation.

Skills Students Will Acquire

  • Use SolidWorks or AutoCAD to create device models and prepare 3D prints and prototypes for testing.

  • Program microcontrollers with C or Arduino, and use Python for data analysis and device control.

  • Apply MATLAB or Python to model physiological systems, analyze signals, and validate device performance.

  • Design circuits, use sensors and ADCs, and test signals with oscilloscopes and multimeters for accurate measurements.

  • Plan projects, write technical reports, follow testing protocols, and prepare maintenance and user manuals.

Tools and Resources Students Will Use

  • SolidWorks

  • AutoCAD

  • MATLAB

  • LabVIEW

  • Python (with NumPy, SciPy)

Challenges Students Face and Helpful Tips

Challenges

  • Steep math and science requirements.

  • Balancing theory and practical skills.

Tips & Advice

  • Strengthen core maths and physics early with extra lessons and practice problems each week.

  • Join lab groups, do hands-on projects, and apply classroom concepts to real devices regularly.

Video Guide

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