Health & Medical Sciences
Orthotics and Prosthetics
Orthotics and Prosthetics focuses on the design, fabrication, and fitting of artificial limbs (prosthetics) and supportive devices (orthotics) to improve mobility and function for patients with physical impairments. Students learn biomechanics, materials science, and patient care to create customized solutions that enhance quality of life.
Program objectives
- 01Understand human anatomy, biomechanics, and gait analysis.
- 02Learn to design, fabricate, and fit custom orthotic and prosthetic devices.
- 03Develop skills in patient assessment, rehabilitation, and follow-up care.
- 04Gain hands-on experience with modern materials and manufacturing technologies like 3D printing.
Why choose this program
Direct, visible impact on patients
You will help individuals regain mobility and independence, making a profound difference in their daily lives.
Blend of engineering and healthcare
The field uniquely combines technical design skills with compassionate, hands-on patient care.
Growing technological innovation
Advances in robotics, microprocessors, and 3D printing are rapidly expanding what is possible in limb restoration.
Skills you'll build
- Biomechanical assessment
- CAD/CAM design for prosthetics
- Gait analysis
- Material science and fabrication
- Empathy
- Patient communication
- Problem-solving
- Attention to detail
Tools & software
- CAD software
- 3D printers
- Gait analysis labs
- Sculpting and molding tools
Challenges to expect
Academic
- Mastering the complex intersection of anatomy, physics, and materials science.
Technical
- Fabricating devices requires high precision; small measurement errors can cause significant patient discomfort.
Financial
- Specialized fabrication equipment and materials can be expensive, though typically provided by the university.
Personal
- Working with patients who have experienced trauma or chronic disability requires strong emotional resilience and empathy.
Tips from the field
- Seek clinical observation hours early to understand the patient-practitioner dynamic.
- Develop strong spatial reasoning and manual dexterity through hobbies like woodworking or 3D modeling.
- Stay updated on emerging technologies like myoelectric prosthetics and advanced polymer materials.
Career paths
- Certified Prosthetist
- Certified Orthotist
- Clinical Specialist
- Rehabilitation Engineer
- Medical Device Sales
Where you can study this
| Name | Latest cutoff | Tuition (annual) |
|---|---|---|
| University of Health and Allied SciencesBSc | — | GHS 4,459.29–16,135.54 |
FAQs
Is this the same as physical therapy?+
No. Physical therapists focus on exercises and treatments to improve movement, while orthotists and prosthetists design and build the actual devices that support or replace body parts.
Do I need to be good at math and physics?+
Yes, a solid understanding of physics (especially mechanics) and basic math is essential for understanding gait, force distribution, and material stress.
Will I work directly with patients?+
Yes, patient interaction is a core part of the job. You will assess their needs, take measurements, fit the devices, and provide ongoing adjustments and support.
How long does it take to become certified?+
After completing a bachelor's degree, you typically need to complete a clinical residency and pass national or regional board certification exams, which can take an additional 1-2 years.
Is 3D printing really used in this field?+
Yes, 3D printing is increasingly used to create custom sockets and components, making the process faster, cheaper, and more precise.
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