Exploring Curriculum-Industry Alignment and Career Perceptions Among Ghanaian Biomedical Engineering Undergraduates

In many parts of the world, the field of biomedical engineering acts as a vital bridge between two complex worlds: the precise logic of engineering and the intricate needs of human health. Professionals in this discipline design the machines that keep patients alive, create the tools doctors use to see inside the body, and maintain the sophisticated equipment that powers modern hospitals. For countries with growing healthcare systems, training these specialists is not just an academic exercise but a strategic necessity to ensure that medical technology works reliably for everyone. However, a successful career in this field requires more than just knowing how a machine works; it demands that the person operating or building it understands the real-world environment where the technology lives. This involves a clear path from the classroom to the workplace, where students learn not only theory but also how to solve actual problems, navigate hospital systems, and perhaps even invent new solutions. When the training a student receives does not match the needs of the industry, the result is often a talented graduate who feels unprepared and uncertain about their future.

A team of researchers at Academic City University in Ghana set out to investigate exactly this disconnect within their own country. They focused on undergraduate students studying biomedical engineering, asking how these young people view their chosen field, what they hope to do with their degrees, and whether their university training is actually preparing them for the jobs that exist. The researchers were guided by two main ideas about how people choose careers. One idea suggests that people stick with a path when they feel capable of doing the work and believe that the effort will lead to a good outcome. The other idea proposes that people constantly reshape their career stories to fit the reality of their surroundings, especially when those surroundings are difficult or uncertain. By combining these perspectives, the team wanted to see if the students felt confident in their skills, if they saw a future for themselves in Ghana, and if the curriculum they were studying was relevant to the medical and industrial sectors.

To find the answers, the researchers surveyed 58 students from six different universities across Ghana. These students were at various stages of their education, from their first year to their final year. The team asked them a series of questions about their motivations for choosing the major, their confidence in their technical abilities, and their views on the job market. They also asked open-ended questions to let the students explain their thoughts in their own words. The goal was to get a clear picture of the student experience, from the moment they decided to study the subject to their current feelings about graduating and entering the workforce.

The results revealed a group of students who are deeply motivated but significantly worried. Most of the students entered the program with a genuine interest in science and technology, often encouraged by family or mentors. They understood that biomedical engineering could help solve important health problems in their country. However, as they progressed through their studies, their confidence in their own readiness to work began to waver. Fewer than 14 percent of the students reported feeling highly confident in their technical preparation. Instead, the majority felt only moderately ready, citing a lack of hands-on experience with the actual devices and technologies they would encounter in a real job.

A major source of this anxiety is the perception of the job market. Over 80 percent of the students believe that there are not enough job opportunities for biomedical engineers in Ghana. This belief has shaped their career outlook in a profound way. While many still hope to work in hospitals maintaining equipment, a large number are considering leaving the field entirely, pursuing further studies abroad, or shifting to different careers. The students feel that the path to a stable career is unclear and that the local industry does not have enough defined roles for them. This uncertainty is compounded by the fact that many students have never had a structured internship or a clear mentorship experience during their training. For those who did manage to secure an internship, the experience often clarified the gap between what they learned in class and what happens in a hospital, sometimes revealing that their role was limited to basic repairs rather than the innovation they had hoped for.

The study also looked closely at the curriculum itself. The students reported that their courses are heavily focused on theory, with too little time spent on practical application, clinical exposure, or the design of new medical devices. They felt that their education did not teach them enough about programming, data analysis, or how to navigate the regulatory systems that govern medical technology. When the researchers analyzed the data, they found a strong link between how relevant a student felt their curriculum was and how committed they were to staying in the field. Those who felt their training was useful and connected to real-world needs were more likely to plan a future in biomedical engineering. Conversely, those who felt their education was too abstract were more likely to doubt their future in the profession.

Despite these challenges, the students showed a surprising amount of hope for the future, particularly regarding innovation. A significant number expressed a strong desire to start their own companies or develop new medical technologies, but they noted that they lack the necessary support systems to make this happen. They mentioned a shortage of funding, incubation centers, and mentors who could guide them through the process of turning an idea into a business. The researchers observed that while the students have the ambition and the technical spark, the environment around them does not yet provide the structure needed to turn that potential into reality.

The findings suggest that the problem is not a lack of talent or interest among Ghanaian students, but rather a misalignment between their education and the demands of the industry. The students are eager to contribute to their country's health system, but they feel unprepared because their training is too theoretical and disconnected from the practical realities of hospitals and medical device companies. The researchers concluded that for biomedical engineering to thrive in Ghana, the education system needs to change. This would involve creating more opportunities for students to work in hospitals and industries while they are still studying, updating the curriculum to include more practical skills and design projects, and establishing clear policies that define the role of a biomedical engineer in the national health system.

The study also highlighted the importance of partnerships between universities, hospitals, and the private sector. Without these connections, students remain in a bubble, learning about machines they have never touched and solving problems they have never seen. The researchers recommend that institutions work together to create structured internship programs and mentorship schemes that expose students to the full range of what a biomedical engineer can do. This includes not just fixing broken equipment, but also designing new tools, managing technology systems, and even starting new ventures.

Ultimately, the paper paints a picture of a generation of engineers who are ready to work but are waiting for the door to open. They have the drive and the basic knowledge, but they need the practical experience and the professional pathways to feel secure in their future. The researchers believe that by addressing these gaps, Ghana can build a workforce that is not only technically skilled but also capable of driving innovation and improving healthcare for the entire population. The path forward requires a coordinated effort to ensure that the education students receive today matches the needs of the healthcare system of tomorrow.