Advances due to for ex. SEM in biomimetic surface design for anticoagualant or oil/water-repelling or even adhesive propertys in the design of a coating or the surface/material itself are a cornerstone of modern design in medical/labequipement for more than 30 years now.

Artificial Organs are already implementing the most common biomimetic inspired materials like antimicrobial coatings/tubes,velcro,oled,immunoneutral materials and coatings in their design, so if you ask HOW this happened...

Trial and error. I do know. Do not ask me why.

Of course. Advances in biomimetic materials are crucial for artificial organs because they:

Enhance Biocompatibility: They mimic the body's own structures (like the extracellular matrix), reducing immune rejection and the need for strong immunosuppressant drugs.

Enable Integration: These materials act as smart scaffolds that encourage the patient's own cells to migrate, grow, and form functional, living tissue around the implant, even promoting vital blood vessel formation (vascularization).

Mimic Function: They can be designed with specific mechanical properties (like the elasticity of heart tissue) and nano-scale features to perform essential organ functions, such as filtering waste in an artificial kidney.

Reduce Complications: Surfaces that mimic the inner lining of blood vessels (endothelium) significantly lower the risk of dangerous blood clots, a major issue with devices like artificial hearts.

In short, biomimetic materials help move artificial organs from simple mechanical replacements to integrated, functional, and long-lasting bio-hybrid systems.

Human-driven activities, including conventional fossil fuels consumption, economic measures, and deforestation, have been associated with global warming. Greater use of gas, oil, and coal leads to an escalation in greenhouse emissions, causing climate change. The elimination of trees interferes with the world's capability to absorb carbon dioxide due to the loss of the natural carbon sink attributes of forests. Trees naturally store CO2, which they emit upon burning, cutting down, or die, preventing the greenhouse effect. The burning of forest releases a large amount of stored CO2 into the air and enhances global warming. In addition to that, activities like waste management, land use, and industrial operations raise greenhouse gas levels. When the mentioned activities release emissions into the earth's atmosphere, the resulting upsurge in temperatures leads to adverse environmental changes. In essence, the atmosphere tends to hold more greenhouse gas levels, with global temperatures increasingly rising, leading to diverse climate transformations.

Recent advances in biomimetic materials enhance artificial organ development by closely replicating the extracellular matrix, mechanical properties, and biochemical cues of native tissues. These materials promote cell adhesion, proliferation, and differentiation, enable controlled delivery of bioactive molecules, and improve biocompatibility and functional integration of engineered constructs with host tissue. Such approaches are critical for developing artificial organs that mimic physiological performance and durability.