Choose an application

• Reference Manager
• EndNote
• RefWorks (Direct export to RefWorks)

The book proposes extensive and varied design strategies for bone tissue engineering. The design process of materials for bone tissue scaffolds presently represents an issue of crucial importance and is being studied by many researchers throughout the world. A number of studies have been conducted, aimed at identifying the optimal material, geometry, and surface that the scaffold must possess to stimulate the formation of the largest amounts of bone in the shortest time possible.

Medicine --- starfish --- calcium carbonate --- porous calcium phosphate --- β-tricalcium phosphate --- bone substitute --- angiogenesis --- gellan gum --- hydroxyapatite --- lactoferrin --- bone biomaterials --- tissue engineering --- biomaterials --- mechanobiology --- scaffold design --- geometry optimization --- bone repair --- biomaterial --- alcoholism --- alcohol --- geometry optimization of scaffolds --- allograft --- block bone grafts --- custom made bone --- design techniques for scaffold --- precision and translational medicine --- bone regeneration --- graphene oxide --- mesenchymal stem and progenitor cells --- osteogenic differentiation --- poly(methyl methacrylate) --- computational mechanobiology --- bone tissue engineering --- python code --- parametric CAD (Computer Aided Design) model --- bone --- mesenchymal stem cells --- polycarbonate --- resveratrol --- polydatin --- focal adhesions --- bone health --- bacterial cellulose --- nanoAg --- antimicrobial composite --- porous implants --- bone implants --- metamaterials --- titanium --- mechanical properties --- pore size --- unit cell --- porosity --- elastic modulus --- compressive strength --- additive manufacturing --- animal model --- bone fracture --- bone healing --- posterolateral spinal fusion --- regenerative medicine --- bone morphogenetic proteins --- cell growth --- polylysine --- dental implants --- implantology --- epithelial growth --- porous materials

Choose an application

• Reference Manager
• EndNote
• RefWorks (Direct export to RefWorks)

The book proposes extensive and varied design strategies for bone tissue engineering. The design process of materials for bone tissue scaffolds presently represents an issue of crucial importance and is being studied by many researchers throughout the world. A number of studies have been conducted, aimed at identifying the optimal material, geometry, and surface that the scaffold must possess to stimulate the formation of the largest amounts of bone in the shortest time possible.

starfish --- calcium carbonate --- porous calcium phosphate --- β-tricalcium phosphate --- bone substitute --- angiogenesis --- gellan gum --- hydroxyapatite --- lactoferrin --- bone biomaterials --- tissue engineering --- biomaterials --- mechanobiology --- scaffold design --- geometry optimization --- bone repair --- biomaterial --- alcoholism --- alcohol --- geometry optimization of scaffolds --- allograft --- block bone grafts --- custom made bone --- design techniques for scaffold --- precision and translational medicine --- bone regeneration --- graphene oxide --- mesenchymal stem and progenitor cells --- osteogenic differentiation --- poly(methyl methacrylate) --- computational mechanobiology --- bone tissue engineering --- python code --- parametric CAD (Computer Aided Design) model --- bone --- mesenchymal stem cells --- polycarbonate --- resveratrol --- polydatin --- focal adhesions --- bone health --- bacterial cellulose --- nanoAg --- antimicrobial composite --- porous implants --- bone implants --- metamaterials --- titanium --- mechanical properties --- pore size --- unit cell --- porosity --- elastic modulus --- compressive strength --- additive manufacturing --- animal model --- bone fracture --- bone healing --- posterolateral spinal fusion --- regenerative medicine --- bone morphogenetic proteins --- cell growth --- polylysine --- dental implants --- implantology --- epithelial growth --- porous materials

Choose an application

• Reference Manager
• EndNote
• RefWorks (Direct export to RefWorks)

Irving Langmuir coined the name “plasma” to describe an ionized gas back in 1927. Just over 90 years later, plasma technology is becoming increasingly important in our daily life. For example, in the medical field and dentistry, plasma is used as a method of disinfection and sterilization. Moreover, additional potential novel applications of this technology in different forms of therapy have been proposed. In the agricultural sector, plasma technology could contribute to higher crop yields by enhancing seed germination and the growth of plants, as well as the preservation of foods by disinfection. Plasma technology could also be utilized in environmental applications, including water treatment and remediation, as well as treatment of exhaust gases. Although recent extensive studies have uncovered the broad potential of plasma technology, its mechanisms of action remain unclear. Therefore, further studies aimed at elucidating the molecular mechanisms of plasma technology are required. This book is composed of original articles and reviews investigating the molecular mechanisms of plasma biology. Relevant areas of study include applications in plasma medicine, plasma agriculture, as well as plasma chemistry. Studies on potential therapeutic approaches using plasma itself and plasma-treated solutions are also included.

Technology: general issues --- cold jet atmospheric pressure plasma --- reactive oxygen and nitrogen species --- backbone cleavage --- hydroxylation --- carbonyl formation --- cold atmospheric plasma --- autophagy --- silymarin nanoemulsion --- PI3K/mTOR pathway --- wound healing --- oncology --- regenerative medicine --- plasma --- atmospheric pressure plasma jets --- large-scale imaging --- machine learning --- cancer treatment --- cellular imaging --- reactive oxygen species --- mesoporous silica nanoparticles --- biomaterials --- bone regeneration --- cytotoxicity --- proliferation --- osteogenic differentiation --- plasma-activated medium --- TRAIL --- DR5 --- apoptosis --- ROS/RNS --- atmospheric-pressure plasma --- titanium --- amine --- mesenchymal stem cells --- antibiotic resistant bacteria --- antibiotic resistance gene --- disinfection --- E. coli --- inactivation --- sterilization --- cell migration --- endothelial cells VEGF --- gynaecological oncology --- vulva cancer --- risk factors --- plasma tissue interaction --- premalignant lesions --- cancer development --- patient stratification --- individualised profiling --- predictive preventive personalised medicine (PPPM/3PM) --- treatment --- Candida albicans --- cold plasma treatment --- genome --- hydrolytic enzyme activity --- carbon assimilation --- drug susceptibility --- malignant melanoma --- acidification --- nitrite --- acidified nitrite --- nitration --- membrane damage --- CAP --- cancer --- cold atmospheric pressure plasma --- hydrogen peroxide --- hypochlorous acid --- moDCs --- peroxynitrite --- RNS --- ROS --- non-thermal plasma --- biological activity --- breast cancer --- solution plasma process --- aqueous solutions --- chitin --- chitosan --- degradation --- deacetylation --- non-thermal atmospheric pressure plasma --- Pectobacteriaceae --- Dickeya spp. --- Pectobacterium spp. --- antibacterial --- plant protection --- agriculture --- selective cancer treatment --- reaction network --- mathematical modeling --- Mdm2-p53 --- plasma treatment --- molecular dynamic (MD) simulations --- cold jet atmospheric pressure plasma --- reactive oxygen and nitrogen species --- backbone cleavage --- hydroxylation --- carbonyl formation --- cold atmospheric plasma --- autophagy --- silymarin nanoemulsion --- PI3K/mTOR pathway --- wound healing --- oncology --- regenerative medicine --- plasma --- atmospheric pressure plasma jets --- large-scale imaging --- machine learning --- cancer treatment --- cellular imaging --- reactive oxygen species --- mesoporous silica nanoparticles --- biomaterials --- bone regeneration --- cytotoxicity --- proliferation --- osteogenic differentiation --- plasma-activated medium --- TRAIL --- DR5 --- apoptosis --- ROS/RNS --- atmospheric-pressure plasma --- titanium --- amine --- mesenchymal stem cells --- antibiotic resistant bacteria --- antibiotic resistance gene --- disinfection --- E. coli --- inactivation --- sterilization --- cell migration --- endothelial cells VEGF --- gynaecological oncology --- vulva cancer --- risk factors --- plasma tissue interaction --- premalignant lesions --- cancer development --- patient stratification --- individualised profiling --- predictive preventive personalised medicine (PPPM/3PM) --- treatment --- Candida albicans --- cold plasma treatment --- genome --- hydrolytic enzyme activity --- carbon assimilation --- drug susceptibility --- malignant melanoma --- acidification --- nitrite --- acidified nitrite --- nitration --- membrane damage --- CAP --- cancer --- cold atmospheric pressure plasma --- hydrogen peroxide --- hypochlorous acid --- moDCs --- peroxynitrite --- RNS --- ROS --- non-thermal plasma --- biological activity --- breast cancer --- solution plasma process --- aqueous solutions --- chitin --- chitosan --- degradation --- deacetylation --- non-thermal atmospheric pressure plasma --- Pectobacteriaceae --- Dickeya spp. --- Pectobacterium spp. --- antibacterial --- plant protection --- agriculture --- selective cancer treatment --- reaction network --- mathematical modeling --- Mdm2-p53 --- plasma treatment --- molecular dynamic (MD) simulations

Choose an application

• Reference Manager
• EndNote
• RefWorks (Direct export to RefWorks)

Irving Langmuir coined the name “plasma” to describe an ionized gas back in 1927. Just over 90 years later, plasma technology is becoming increasingly important in our daily life. For example, in the medical field and dentistry, plasma is used as a method of disinfection and sterilization. Moreover, additional potential novel applications of this technology in different forms of therapy have been proposed. In the agricultural sector, plasma technology could contribute to higher crop yields by enhancing seed germination and the growth of plants, as well as the preservation of foods by disinfection. Plasma technology could also be utilized in environmental applications, including water treatment and remediation, as well as treatment of exhaust gases. Although recent extensive studies have uncovered the broad potential of plasma technology, its mechanisms of action remain unclear. Therefore, further studies aimed at elucidating the molecular mechanisms of plasma technology are required. This book is composed of original articles and reviews investigating the molecular mechanisms of plasma biology. Relevant areas of study include applications in plasma medicine, plasma agriculture, as well as plasma chemistry. Studies on potential therapeutic approaches using plasma itself and plasma-treated solutions are also included.

cold jet atmospheric pressure plasma --- reactive oxygen and nitrogen species --- backbone cleavage --- hydroxylation --- carbonyl formation --- cold atmospheric plasma --- autophagy --- silymarin nanoemulsion --- PI3K/mTOR pathway --- wound healing --- oncology --- regenerative medicine --- plasma --- atmospheric pressure plasma jets --- large-scale imaging --- machine learning --- cancer treatment --- cellular imaging --- reactive oxygen species --- mesoporous silica nanoparticles --- biomaterials --- bone regeneration --- cytotoxicity --- proliferation --- osteogenic differentiation --- plasma-activated medium --- TRAIL --- DR5 --- apoptosis --- ROS/RNS --- atmospheric-pressure plasma --- titanium --- amine --- mesenchymal stem cells --- antibiotic resistant bacteria --- antibiotic resistance gene --- disinfection --- E. coli --- inactivation --- sterilization --- cell migration --- endothelial cells VEGF --- gynaecological oncology --- vulva cancer --- risk factors --- plasma tissue interaction --- premalignant lesions --- cancer development --- patient stratification --- individualised profiling --- predictive preventive personalised medicine (PPPM/3PM) --- treatment --- Candida albicans --- cold plasma treatment --- genome --- hydrolytic enzyme activity --- carbon assimilation --- drug susceptibility --- malignant melanoma --- acidification --- nitrite --- acidified nitrite --- nitration --- membrane damage --- CAP --- cancer --- cold atmospheric pressure plasma --- hydrogen peroxide --- hypochlorous acid --- moDCs --- peroxynitrite --- RNS --- ROS --- non-thermal plasma --- biological activity --- breast cancer --- solution plasma process --- aqueous solutions --- chitin --- chitosan --- degradation --- deacetylation --- non-thermal atmospheric pressure plasma --- Pectobacteriaceae --- Dickeya spp. --- Pectobacterium spp. --- antibacterial --- plant protection --- agriculture --- selective cancer treatment --- reaction network --- mathematical modeling --- n/a --- Mdm2–p53 --- plasma treatment --- molecular dynamic (MD) simulations --- Mdm2-p53