Department of Biomedical Engineering
School of Electrical Systems Engineering (SESE) • Federal University of Technology, Akure
About the Department
The Department of Biomedical Engineering at the Federal University of Technology, Akure (FUTA) is a premier center for healthcare technology education and research within the School of Engineering and Engineering Technology (SEET). Our department is dedicated to producing world-class biomedical engineers who will advance healthcare delivery through innovative technology solutions, improving diagnostics, treatment, and patient care across Nigeria and beyond.
Biomedical Engineering is the application of engineering principles and design concepts to solve problems in medicine and biology for healthcare purposes. Our comprehensive curriculum integrates engineering fundamentals with biology, anatomy, physiology, and clinical sciences. Students develop expertise in medical device design, biomechanics, medical imaging, clinical engineering, biomaterials, and tissue engineering through intensive coursework, laboratory work, and clinical exposure.
The department emphasizes hands-on learning with state-of-the-art equipment including medical imaging systems, patient monitoring devices, surgical instruments, and diagnostic equipment. We leverage modern tools for design, simulation, and testing of biomedical devices. Strong linkages with hospitals, medical device manufacturers, and research institutions provide students with real-world clinical experience and professional development opportunities.
Our graduates are recognized for their unique blend of engineering expertise and healthcare knowledge. They demonstrate proficiency in designing medical equipment, troubleshooting clinical devices, and implementing technology-driven healthcare solutions. Graduates pursue careers in hospitals, medical device companies, research institutions, pharmaceutical firms, and regulatory agencies, contributing significantly to Nigeria's healthcare system development.
What We Offer
Academic Programs
- B.Tech in Biomedical Engineering - 5-year undergraduate program
- M.Tech in Biomedical Engineering - Postgraduate studies
- M.Phil in Biomedical Engineering - Research-based Masters
- Ph.D in Biomedical Engineering - Doctoral research program
Specialized Areas
- Medical Device Design and Development
- Biomechanics and Rehabilitation Engineering
- Medical Imaging and Signal Processing
- Clinical Engineering and Hospital Equipment
- Biomaterials and Tissue Engineering
- Biomedical Instrumentation
- Medical Electronics and Biosensors
- Healthcare Technology Management
Laboratory Facilities
Medical Imaging Laboratory
X-ray systems, ultrasound, imaging processing, diagnostic equipment simulation
Biomedical Instrumentation Lab
Patient monitors, ECG/EEG systems, pulse oximeters, biosignal acquisition
Biomechanics Laboratory
Motion analysis, prosthetics design, rehabilitation equipment, force measurement
Research Focus Areas
Our department conducts cutting-edge research at the intersection of engineering and medicine:
Medical Device Design and Development
Designing diagnostic equipment, therapeutic devices, surgical instruments; prototyping; product development; FDA/NAFDAC compliance; device testing and validation.
Biomechanics and Rehabilitation Engineering
Human body mechanics; prosthetics and orthotics design; rehabilitation devices; assistive technology; gait analysis; ergonomics; musculoskeletal modeling.
Medical Imaging and Signal Processing
Image acquisition and reconstruction; MRI, CT, ultrasound technologies; biosignal analysis; ECG/EEG interpretation; image-guided surgery; computer-aided diagnosis.
Clinical Engineering and Healthcare Technology
Medical equipment management; hospital technology planning; equipment maintenance; clinical systems integration; health informatics; telemedicine systems.
Biomaterials and Tissue Engineering
Biocompatible materials; implant design; artificial organs; scaffold development; cell-material interactions; regenerative medicine; drug delivery systems.
Biomedical Electronics and Biosensors
Medical electronic circuits; sensor design; wearable health monitors; point-of-care devices; implantable electronics; neural interfaces; biometric systems.
Medical Robotics and AI in Healthcare
Surgical robots; robot-assisted therapy; AI diagnostics; machine learning in medicine; automated drug dispensing; smart prosthetics; telesurgery.
Career Opportunities
Graduates of Biomedical Engineering enjoy diverse and rewarding career paths:
Clinical Engineer
Hospital equipment management, maintenance, training, technology planning
Medical Device Designer
Product development, prototyping, testing, regulatory compliance
Medical Equipment Manufacturer
Design engineering, quality assurance, production, technical support
Research Scientist
Biomedical research, product innovation, clinical trials, academic research
Regulatory Affairs Specialist
NAFDAC compliance, FDA regulations, quality management, product registration
Academia & Teaching
University lecturers, researchers, lab demonstrators, curriculum development
Pharmaceutical Industry
Drug delivery systems, medical devices for drug administration, R&D
Healthcare Consultant
Technology advisory, equipment procurement, hospital planning
Healthtech Entrepreneur
Medical device startup, healthcare innovation, digital health solutions
Course Materials & Resources
Access comprehensive learning materials, textbooks, lecture notes, and study resources organized by academic level.
100 Level Resources
Foundation courses in mathematics, physics, chemistry, and biology.
First Semester
Comprehensive Study Resources Available
All 100 Level first semester materials including lecture notes, past questions, textbooks, and practical guides are available in our offline study packs.
Access Offline Study PacksSecond Semester
Complete Course Materials
Second semester study materials covering basic sciences and introductory concepts are fully available.
Go to Offline Study PacksFoundation Year
100 Level focuses on basic sciences and engineering foundations. Courses include General Mathematics, General Physics, General Chemistry, General Biology, Technical Drawing, Use of English, and Introduction to Computing.
200 Level Resources
Core engineering and biological sciences including anatomy, physiology, and basic engineering.
Download 200 Level Materials
Complete course materials, lecture notes, practical manuals, and past examination questions available in offline study packs.
Access Study PacksHuman Anatomy
Body systems, organs, tissues, skeletal and muscular systems
Human Physiology
Body functions, homeostasis, cardiovascular, respiratory systems
Electric Circuit Theory
Circuit analysis, Kirchhoff's laws, network theorems
Engineering Mechanics
Statics, dynamics, force analysis, equilibrium
Introduction to Biomedical Engineering
Field overview, applications, career pathways
Engineering Drawing
Technical drawing, CAD basics, design documentation
300 Level Resources
Core biomedical engineering courses including biomechanics, instrumentation, and materials.
Download 300 Level Materials
Advanced course materials, practical guides, and comprehensive study resources.
Access Study PacksBiomechanics
Mechanics of human body, stress analysis, motion
Biomedical Instrumentation
Medical sensors, transducers, signal conditioning
Biomaterials
Biocompatible materials, implants, material selection
Medical Electronics
Electronic circuits for medical devices, amplifiers
Biosignal Processing
ECG, EEG, EMG analysis, digital signal processing
SWEP/SIWES I
Workshop experience, hospital attachment, clinical exposure
400 Level Resources
SIWES II (Industrial Training) - Clinical and hospital equipment practical training.
Industrial Training Year
400 Level includes extended SIWES (6 months) at hospitals, medical device companies, and healthcare facilities. Students gain hands-on experience with clinical equipment.
Access SIWES ResourcesSIWES II Logbook
Documentation of clinical training activities and learning
Technical Report Writing
Guidelines for industrial training report preparation
Clinical Equipment Training
Hands-on experience with hospital equipment operation and maintenance
500 Level Resources
Final year advanced courses, specialization, and research project.
Download 500 Level Materials
Final year resources including research methodology, project guides, and comprehensive revision materials.
Access Study PacksMedical Imaging
X-ray, CT, MRI, ultrasound, image processing
Tissue Engineering
Scaffolds, cell culture, regenerative medicine
Clinical Engineering
Hospital technology management, equipment lifecycle
Medical Robotics
Surgical robots, rehabilitation robotics, automation
Regulatory Affairs
Medical device regulations, NAFDAC, FDA compliance
Research Project
Independent research, thesis writing, oral defense
Admission Requirements
UTME Requirements
- Minimum UTME score of 180+
- Subject combination: English, Physics, Chemistry, Biology/Mathematics
- Five O'Level credits including English Language, Mathematics, Physics, Chemistry, and Biology
- Credits obtainable in maximum of two sittings
Direct Entry Requirements
- Two A'Level passes in Chemistry and any one of Physics, Biology, or Mathematics
- ND/HND upper credit in Biomedical Engineering, Electrical/Electronics Engineering, or related field
- JUPEB passes in relevant subjects
- Plus O'Level requirements as stated above
Contact the Department
Department Office
Department of Biomedical Engineering
School of Electrical Systems Engineering
Federal University of Technology, Akure
PMB 704, Akure, Ondo State, Nigeria
gabriel@legacybygabriel.com.ng
+234 (0) 913-209-1205
Office Hours
Monday - Friday: 8:00 AM - 5:00 PM
Saturday: By Appointment
Sunday: Closed