biocompatibility – mycolab.ai

Poly(lactic Acid): A Versatile Biobased Polymer for the Future with Multifunctional Properties—From Monomer Synthesis, Polymerization Techniques and Molecular Weight Increase to PLA Applications

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PLA is an eco-friendly plastic made from renewable resources like corn and sugarcane that can break down naturally, making it a sustainable alternative to regular petroleum-based plastics. Scientists have developed various methods to manufacture PLA with different strengths and properties suitable for medical devices, packaging, and other applications. The review examines how different catalysts and manufacturing techniques affect the quality and durability of PLA products, and discusses its potential to help reduce plastic pollution.

Antimicrobial and prebiotic properties of Weissella confusa B4-2 exopolysaccharide and its effects on matrix metalloproteinase genes expression

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Researchers discovered that a bacterium called Weissella confusa produces a sticky substance (exopolysaccharide) that has multiple health benefits. This substance fights harmful bacteria, acts as an antioxidant, helps heal wounds, and may slow down skin aging by reducing proteins that break down collagen. Because this bacterium produces much more of this substance than other commonly studied bacteria, it could be used in food preservation, health supplements, and anti-aging skincare products.

Green nanobiopolymers for ecological applications: a step towards a sustainable environment

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This article explains how scientists are creating eco-friendly nanomaterials from natural sources like plants and crustacean shells to replace harmful plastic products. These green nanobiopolymers can break down naturally in the environment and are used in applications ranging from wound dressings to food packaging. The review covers how these materials are extracted and processed at the nanoscale to improve their properties for practical uses while reducing environmental pollution.

Leveraging polysaccharide-derived nanocarriers to open new horizons in oral vaccine activation

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Oral vaccines are easier to administer than injections, but the stomach’s harsh environment destroys them before they work. Scientists are developing special nanocarrier particles made from natural plant materials, especially those used in traditional Chinese medicine, that protect vaccine ingredients and trigger stronger immune responses in the gut. These carriers work like protective vehicles that deliver vaccines safely to immune cells in the intestines, potentially revolutionizing how we vaccinate people worldwide.

Deciphering the formation of biogenic nanoparticles and their protein corona: State-of-the-art and analytical challenges

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Scientists have developed environmentally friendly methods to create tiny metal particles (nanoparticles) using living organisms like bacteria, fungi, and plants instead of toxic chemicals. These bioengineered nanoparticles are coated with natural biological molecules that make them safer and more stable. This review explains how these particles are made, what analytical tools scientists use to study them, and their potential uses in medicine, environmental cleanup, and agriculture.

Fungal Biorefinery: Mushrooming Opportunities

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Scientists are discovering how fungi can be grown to create useful materials as alternatives to plastics and other petroleum-based products. By cultivating fungal filaments on agricultural waste, researchers can produce foam-like materials for packaging, strong fibers for textiles, and special carbon materials for energy storage. These fungi-based materials are biodegradable, help recycle waste, and require less energy to produce than traditional synthetic materials.

Innovative Bioactive Nanofibrous Materials Combining Medicinal and Aromatic Plant Extracts and Electrospinning Method

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This research explains how scientists use a technique called electrospinning to create tiny, beneficial fibers from medicinal plants. By combining plant extracts like turmeric with biodegradable polymers, researchers create advanced materials that can deliver medicine, promote wound healing, and fight bacteria. These innovative fibers represent a natural approach to healthcare, bringing ancient plant wisdom into modern nanotechnology for practical medical applications.

Antimicrobial Activity and Barrier Properties against UV Radiation of Alkaline and Enzymatically Treated Linen Woven Fabrics Coated with Inorganic Hybrid Material

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Scientists treated linen fabric with an enzyme from a fungus called Cerrena unicolor combined with copper and silica particles to create advanced protective textiles. The resulting fabrics provide excellent protection against harmful UV radiation and kill dangerous bacteria and fungi like E. coli, Staph, and Candida. This eco-friendly approach could be used for protective clothing, outdoor gear, and medical textiles requiring both UV and microbial resistance.

Gradient porous structures of mycelium: a quantitative structure–mechanical property analysis

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Scientists studied how mushroom root structures (mycelium) naturally develop different properties from bottom to top as they grow. They found that the thicker, older parts near the food source are stiffer and more densely packed with fibers, while the thinner, younger parts are more porous and flexible. This natural gradient could be useful for creating biodegradable materials for medical implants, filters, and other applications where changing properties are beneficial.

Sodium Alginate Modifications: A Critical Review of Current Strategies and Emerging Applications

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Sodium alginate is a natural substance from seaweed that is safe to eat and widely used in foods, medicines, and environmental cleanup. Scientists have developed various ways to modify sodium alginate to make it stronger, more stable, and better at specific jobs like delivering medicines or creating edible packaging. This review explains both the gentle, food-safe ways to modify alginate for food products and stronger chemical methods used for medical and environmental applications. The modifications allow alginate to work better in areas like wound healing, removing pollutants from water, and protecting food freshness.

Research Keyword: biocompatibility