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Beauty masks, diapers, wound dressings, wipes, protective clothes and biomedical products: all these high-value and/or large-volume products must be highly compatible with human skin and they should have specific functional properties, such as anti-microbial, anti-inflammatory and anti-oxidant properties. They are currently partially or totally produced using fossil-based sources, with evident issues linked to their end of life, as their waste generates an increasing environmental concern. On the contrary, biopolymers and active biomolecules from biobased sources could be used to produce new materials that are highly compatible with the skin and also biodegradable. The final products can be obtained by exploiting safe and smart nanotechnologies such as the extrusion of bionanocomposites and electrospinning/electrospray, as well as innovative surface modification and control methodologies. For all these reasons, recently, many researchers, such as those involved in the European POLYBIOSKIN project activities, have been working in the field of biomaterials with anti-microbial, anti-inflammatory and anti-oxidant properties, as well as biobased materials which are renewable and biodegradable. The present book gathered research and review papers dedicated to materials and technologies for high-performance products where the attention paid to health and environmental impact is efficiently integrated, considering both the skin-compatibility of the selected materials and their source/end of life.
Research & information: general --- pullulan --- biopolymers --- exopolysaccharides --- biodegradation --- biocompatibility --- poly(lactic acid) --- poly(butylene succinate) --- chitin nanofibrils --- starch --- skin compatibility --- anti-microbial --- poly(hydroxyalkanoate) --- biopolyesters --- beauty masks --- releasing --- skin compatible --- polyhydroxyalkanotes --- sugarcane molasses --- antibacterial materials --- essential oils --- coating --- poly(lactide) --- chitin–lignin nanocomplex --- grafting from --- lactide oligomers --- platelet-rich fibrin --- wound healing --- skin wounds --- wound dressing --- hyperspectral imaging --- principal component analysis --- spectroscopy --- chitosan --- partial least squares regression --- nir --- actives substances --- cn-nl/ga --- skin --- antifouling --- antimicrobial --- antiviral --- electrospinning --- breast implant --- ear prosthesis --- biomedical device --- chronic wound --- biopolymer --- bio-based --- surface modification --- nanolignin --- electrospray --- anti-inflammatory --- blends --- PLA --- PHBV --- nanocomposite --- tissue engineering --- biodegradable --- nanofiber --- n/a --- chitin-lignin nanocomplex
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Beauty masks, diapers, wound dressings, wipes, protective clothes and biomedical products: all these high-value and/or large-volume products must be highly compatible with human skin and they should have specific functional properties, such as anti-microbial, anti-inflammatory and anti-oxidant properties. They are currently partially or totally produced using fossil-based sources, with evident issues linked to their end of life, as their waste generates an increasing environmental concern. On the contrary, biopolymers and active biomolecules from biobased sources could be used to produce new materials that are highly compatible with the skin and also biodegradable. The final products can be obtained by exploiting safe and smart nanotechnologies such as the extrusion of bionanocomposites and electrospinning/electrospray, as well as innovative surface modification and control methodologies. For all these reasons, recently, many researchers, such as those involved in the European POLYBIOSKIN project activities, have been working in the field of biomaterials with anti-microbial, anti-inflammatory and anti-oxidant properties, as well as biobased materials which are renewable and biodegradable. The present book gathered research and review papers dedicated to materials and technologies for high-performance products where the attention paid to health and environmental impact is efficiently integrated, considering both the skin-compatibility of the selected materials and their source/end of life.
pullulan --- biopolymers --- exopolysaccharides --- biodegradation --- biocompatibility --- poly(lactic acid) --- poly(butylene succinate) --- chitin nanofibrils --- starch --- skin compatibility --- anti-microbial --- poly(hydroxyalkanoate) --- biopolyesters --- beauty masks --- releasing --- skin compatible --- polyhydroxyalkanotes --- sugarcane molasses --- antibacterial materials --- essential oils --- coating --- poly(lactide) --- chitin–lignin nanocomplex --- grafting from --- lactide oligomers --- platelet-rich fibrin --- wound healing --- skin wounds --- wound dressing --- hyperspectral imaging --- principal component analysis --- spectroscopy --- chitosan --- partial least squares regression --- nir --- actives substances --- cn-nl/ga --- skin --- antifouling --- antimicrobial --- antiviral --- electrospinning --- breast implant --- ear prosthesis --- biomedical device --- chronic wound --- biopolymer --- bio-based --- surface modification --- nanolignin --- electrospray --- anti-inflammatory --- blends --- PLA --- PHBV --- nanocomposite --- tissue engineering --- biodegradable --- nanofiber --- n/a --- chitin-lignin nanocomplex
Choose an application
Beauty masks, diapers, wound dressings, wipes, protective clothes and biomedical products: all these high-value and/or large-volume products must be highly compatible with human skin and they should have specific functional properties, such as anti-microbial, anti-inflammatory and anti-oxidant properties. They are currently partially or totally produced using fossil-based sources, with evident issues linked to their end of life, as their waste generates an increasing environmental concern. On the contrary, biopolymers and active biomolecules from biobased sources could be used to produce new materials that are highly compatible with the skin and also biodegradable. The final products can be obtained by exploiting safe and smart nanotechnologies such as the extrusion of bionanocomposites and electrospinning/electrospray, as well as innovative surface modification and control methodologies. For all these reasons, recently, many researchers, such as those involved in the European POLYBIOSKIN project activities, have been working in the field of biomaterials with anti-microbial, anti-inflammatory and anti-oxidant properties, as well as biobased materials which are renewable and biodegradable. The present book gathered research and review papers dedicated to materials and technologies for high-performance products where the attention paid to health and environmental impact is efficiently integrated, considering both the skin-compatibility of the selected materials and their source/end of life.
Research & information: general --- pullulan --- biopolymers --- exopolysaccharides --- biodegradation --- biocompatibility --- poly(lactic acid) --- poly(butylene succinate) --- chitin nanofibrils --- starch --- skin compatibility --- anti-microbial --- poly(hydroxyalkanoate) --- biopolyesters --- beauty masks --- releasing --- skin compatible --- polyhydroxyalkanotes --- sugarcane molasses --- antibacterial materials --- essential oils --- coating --- poly(lactide) --- chitin-lignin nanocomplex --- grafting from --- lactide oligomers --- platelet-rich fibrin --- wound healing --- skin wounds --- wound dressing --- hyperspectral imaging --- principal component analysis --- spectroscopy --- chitosan --- partial least squares regression --- nir --- actives substances --- cn-nl/ga --- skin --- antifouling --- antimicrobial --- antiviral --- electrospinning --- breast implant --- ear prosthesis --- biomedical device --- chronic wound --- biopolymer --- bio-based --- surface modification --- nanolignin --- electrospray --- anti-inflammatory --- blends --- PLA --- PHBV --- nanocomposite --- tissue engineering --- biodegradable --- nanofiber --- pullulan --- biopolymers --- exopolysaccharides --- biodegradation --- biocompatibility --- poly(lactic acid) --- poly(butylene succinate) --- chitin nanofibrils --- starch --- skin compatibility --- anti-microbial --- poly(hydroxyalkanoate) --- biopolyesters --- beauty masks --- releasing --- skin compatible --- polyhydroxyalkanotes --- sugarcane molasses --- antibacterial materials --- essential oils --- coating --- poly(lactide) --- chitin-lignin nanocomplex --- grafting from --- lactide oligomers --- platelet-rich fibrin --- wound healing --- skin wounds --- wound dressing --- hyperspectral imaging --- principal component analysis --- spectroscopy --- chitosan --- partial least squares regression --- nir --- actives substances --- cn-nl/ga --- skin --- antifouling --- antimicrobial --- antiviral --- electrospinning --- breast implant --- ear prosthesis --- biomedical device --- chronic wound --- biopolymer --- bio-based --- surface modification --- nanolignin --- electrospray --- anti-inflammatory --- blends --- PLA --- PHBV --- nanocomposite --- tissue engineering --- biodegradable --- nanofiber
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This reprint focuses on fundamental and applied research involving the combination of biomaterials and cancer cells to develop a three-dimensional (3D) tumor microenvironment in vitro, in which carcinogenesis mechanisms can be studied and therapies can be screened. Such models are becoming quite popular within the bioengineering community; thus, many technologies are being tested to obtain the best scaffold for each tumor. In any case, only a tight interaction of bioengineers with cancer biologists and oncologists can make such 3D models progress, with them finally reaching a clinical relevance. On the other hand, the medical community is approaching simpler 3D in vitro models not provided with sufficient extracellular matrix biomimicry, such as spheroids and organoids, which may not be self-exhaustive; therefore, cancer researchers could benefit from closer contact with bioengineers. The aim of this reprint is to help generate shared knowledge and promote strong interdisciplinary collaboration with the ultimate goal of contributing to the acceleration of the discovery and validation of more precise therapies to fight cancer.
Tissue engineering. --- Biomedical engineering --- Regenerative medicine --- Tissue culture
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