Resorptioncapable

Resorptioncapable is an adjective used to describe a substance or material that can undergo resorption within a biological environment. In this sense, resorption refers to the breakdown, dissolution, or absorption of material by physiological processes, often involving cellular activity or biochemical dissolution, so that the material is gradually removed and replaced by native tissue or bodily fluids.

The term is not widely standardized in medical dictionaries, and in practice it is often used informally to emphasize a material’s potential to be resorbed rather than merely degraded or excreted. It contrasts with terms like non-resorbable or permanently implanted materials. Resorption-capable materials are typically contrasted with truly inert implants or with substances designed to remain indefinitely in the body.

In biomaterials and tissue engineering, resorption-capable materials are designed to fulfill a temporary function and then be resorbed as new native tissue regenerates. Common examples include certain bioresorbable polymers (such as polylactic and polyglycolic acids), calcium phosphate-based cements, and some magnesium alloys. The resorption rate is influenced by material composition, crystallinity, porosity, surface treatment, and the local biological environment, including pH and mechanical load.

In dental and orthopedic applications, resorption-capable materials are used for bone graft substitutes, drug delivery systems, and temporary scaffolds. The goal is to balance mechanical support with timely resorption to allow natural bone formation without long-term foreign-body presence. Assessment of resorption typically involves imaging, histology, and in vivo studies to ensure predictable kinetics and biocompatibility.

Overall, resorption-capable materials are defined by their designed ability to be removed or integrated through natural physiological processes after fulfilling their functional role.