Analysis reveals advantages and disadvantages of metals and ceramics in biomaterials, suggesting optimal choices for prosthetic applications.
This article looks at the comparative advantages and disadvantages of metals and ceramics as biomaterials in medical prosthetics. Biomaterials play a crucial role in improving patient outcomes in various clinical applications, including dental implants, joint prostheses, and cardiovascular devices. Metals, such as titanium and cobalt alloys, offer superior mechanical strength, flexibility, and electrical conductivity, but face challenges related to corrosion, allergic reactions, aesthetic limitations, and fracture risks. On the other hand, ceramics, including zirconium oxide and bioactive ceramics, offer excellent aesthetics, wear resistance, biocompatibility, and chemical inertness, but have drawbacks such as brittleness, limitations in mechanical strength, and processing difficulties. The article highlights the importance of choosing the right material according to the specific clinical application, highlighting recent innovations such as nanomaterials, metal-ceramic composites, and emerging technologies such as 3D printing. These advances promise to improve the performance and personalization of biomaterials, thereby advancing the quality of care and patient satisfaction. As the field continues to evolve, understanding the unique properties of each type of biomaterial will be critical to optimizing treatment outcomes and advancing the future of medical prosthetics.
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MOCANU et al. (2024) studied this question.
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