The field of biomechanics focuses only on human motion.

Statics in biomechanics involves studying motion with acceleration

Kinetics in biomechanics studies the forces causing motion.

Kinesiology and biomechanics are identical fields of study.

Macro-level biomechanics research includes whole-body sports performance like sprinting and high jump.

Micro-level biomechanics investigates gene function and cell growth.

Biomechanics can be applied to both performance enhancement and injury prevention

Orthotic treatments are unrelated to biomechanics.

Exoskeletons in military applications are an example of biomechanics achievement.

Biomaterials refer to any substance, including drugs, that interacts with biological systems.

Metals used as biomaterials are typically strong and good conductors.

Polymers are typically brittle and have high strength.

Ceramics are elastic, brittle, and generally non-conductive.

Composite materials combine two or more different materials.

Biomaterials are used only for external medical devices.

Bone cement and bone scaffolds are examples of biomaterial applications in orthopedics.

Artificial skin, dental implants, and stents are examples of biomaterial applications.

Tissue engineering combines principles of engineering and life sciences to develop biological substitutes.

Tissue engineering does not require knowledge of cellular biology.

A scaffold in tissue engineering supports cell attachment, migration, and nutrient transfer

Closed-pore scaffold morphology allows easy mass transfer of nutrients

Tissue engineering can use nanofiber scaffolds to study diseases like lung cancer.

Tissue engineering is limited to bone and muscle tissue.

3D printing is one of the latest technologies in tissue construction