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Lithografie door elektronenbundel --- Lithographie par faisceau d'électrons --- Lithography [Electron beam ] --- Photolithography --- Photopolymerization --- Photolithographie --- Photopolymérisation --- 621.9.047 --- 621.9.048 --- Chemical and electrochemical working and machining. Etching. Electrolytic machining etc. --- Erosion machining, blasting. Spark erosion. Ultrasonic, vibration machining. Machining with particle beams. Electron-beam machining etc. --- Lasertoepassingen --- Lithografie (druktechniek) --- Lasertoepassingen. --- Lithografie (druktechniek). --- 621.9.048 Erosion machining, blasting. Spark erosion. Ultrasonic, vibration machining. Machining with particle beams. Electron-beam machining etc. --- 621.9.047 Chemical and electrochemical working and machining. Etching. Electrolytic machining etc.
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Tamara Bernadette Aigner designed a set of biocompatible and biodegradable poly(organophosphazenes). In order to tailor their biological and chemical properties, she further modified these macromolecules by adding functional moieties via thiol-ene chemistry. The author used the same photochemistry for crosslinking to obtain a mechanically stable network. She further altered the degradation rate of the matrix as well as the mechanical properties by adding blending agents and created a porous matrix, which is necessary for cell invasion and communication, by a newly developed photocrosslinking particulate-leaching method. Thus, a modular hybrid system was established which is able to adapt to different microenvironments based upon tissue type. Contents Polyphosphazenes as Biocompatible and Biodegradable Polymers Functionalization and Crosslinking with Thiol-ene Chemistry Matrix Formation Using a Photocrosslinking Particulate-Leaching Technique Tailored Physical and Biochemical Properties by Blending Target Groups Researchers and students in the field of chemistry and biology with a focus on polymerchemistry and tissue engineering The Author Tamara Bernadette Aigner completed her master’s thesis in biological chemistry at Johannes Kepler University in Linz and South Bohemian University in České Budĕjovice.
Materials Science. --- Biomaterials. --- Medicinal Chemistry. --- Inorganic Chemistry. --- Chemistry, inorganic. --- Biochemistry. --- Biochimie --- Health & Biological Sciences --- Biomedical Engineering --- Porous materials. --- Photopolymerization. --- Tissue engineering. --- Polyphosphazenes. --- Porous media --- Phosphazene polymers --- Polyorganophosphazenes --- Materials science. --- Inorganic chemistry. --- Medicinal chemistry. --- Biomedical engineering --- Regenerative medicine --- Tissue culture --- Photochemistry --- Polymerization --- Materials --- Porosity --- Phosphazo compounds --- Inorganic chemistry --- Chemistry --- Inorganic compounds --- Biological chemistry --- Chemical composition of organisms --- Organisms --- Physiological chemistry --- Biology --- Medical sciences --- Biocompatible materials --- Biomaterials --- Medical materials --- Medicine --- Biocompatibility --- Prosthesis --- Composition --- Bioartificial materials --- Hemocompatible materials --- Chemistry, Medical and pharmaceutical --- Chemistry, Pharmaceutical --- Drug chemistry --- Drugs --- Medical chemistry --- Medicinal chemistry --- Pharmacochemistry --- Biomaterials (Biomedical materials)
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This reprint contains a collection of state-of-the-art reviews and original research articles from leaders in the field of 3D/4D printing. It focuses on 3D/4D printing materials with novel and/or advanced functionalities, novel applications of 3DP material, and material synthesis and characterization techniques.
3D printing --- additive manufacturing --- dental forceps --- CFR (continuous fiber reinforcement) --- fatigue test --- mechanical testing --- composite --- carbon --- scanning electron microscopy --- polyphenylsulfone --- PPSF --- fire-resistant --- aircraft interior --- selective laser sintering --- direct writing --- PVC gel --- artificial muscle --- rheological behavior --- integrated printing --- 4D printing --- fused deposition modelling --- stereolithography --- polymers --- FEM --- FDM --- microstructure behavior --- linear analysis --- RVE --- polyimide --- aerogels --- chemical smoothing --- vapor smoothing --- PVB --- carbon fiber mold --- polylactic acid --- sound reflection --- excitation frequency --- porosity --- 3D printing technique --- thickness --- air gap --- FluidFM --- microstructures --- nanostructures --- biofunctionalization --- mechanical properties --- scanning probe lithography --- copper complex --- photocomposite --- LED --- laser write --- free radical photopolymerization --- bio-inspired spider silks --- adjustable mechanical properties --- shape morphing --- stimulus response --- n/a
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Additive manufacturing (AM) methods have grown and evolved rapidly in recent years. AM for polymers is particularly exciting and has great potential in transformative and translational research in many fields, such as biomedicine, aerospace, and even electronics. The current methods for polymer AM include material extrusion, material jetting, vat polymerization, and powder bed fusion. In this Special Issue, state-of-the-art reviews and current research results, which focus on the process–structure–properties relationships in polymer additive manufacturing, are reported. These include, but are not limited to, assessing the effect of process parameters, post-processing, and characterization techniques.
Technology: general issues --- History of engineering & technology --- Materials science --- tray location --- build direction --- surface finish --- matte --- glossy --- magnetic polymer composites --- anisotropic properties --- dual-cure resin --- polymer casting --- additive manufacturing --- thermoplastic polyurethane --- polylactic acid --- trachea scaffold --- 3D filament --- selective laser sintering --- di-carboxylic acids --- plasticizers --- solid oral forms --- printability --- heating temperature --- Peano curve --- composite --- PolyJet 3D printing --- rule of mixture --- multi-material printing --- biodegradable polyesters --- polyglycolic acid (PGA) --- fused deposition modeling (FDM) --- triply periodic minimal surfaces (TPMS) --- mechanical property --- poly(lactic acid) --- optimization --- simulation --- finite element analysis (FEA) --- polymers --- material jetting --- 3D printing --- airfoil --- aerodynamic model --- design of experiments --- surface roughness --- photopolymerization --- curing strategy --- reaction heat --- shrinkage and warpage --- powder bed fusion --- laser sintering --- isothermal --- low temperature laser sintering --- selective laser melting --- tray location --- build direction --- surface finish --- matte --- glossy --- magnetic polymer composites --- anisotropic properties --- dual-cure resin --- polymer casting --- additive manufacturing --- thermoplastic polyurethane --- polylactic acid --- trachea scaffold --- 3D filament --- selective laser sintering --- di-carboxylic acids --- plasticizers --- solid oral forms --- printability --- heating temperature --- Peano curve --- composite --- PolyJet 3D printing --- rule of mixture --- multi-material printing --- biodegradable polyesters --- polyglycolic acid (PGA) --- fused deposition modeling (FDM) --- triply periodic minimal surfaces (TPMS) --- mechanical property --- poly(lactic acid) --- optimization --- simulation --- finite element analysis (FEA) --- polymers --- material jetting --- 3D printing --- airfoil --- aerodynamic model --- design of experiments --- surface roughness --- photopolymerization --- curing strategy --- reaction heat --- shrinkage and warpage --- powder bed fusion --- laser sintering --- isothermal --- low temperature laser sintering --- selective laser melting
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This reprint contains a collection of state-of-the-art reviews and original research articles from leaders in the field of 3D/4D printing. It focuses on 3D/4D printing materials with novel and/or advanced functionalities, novel applications of 3DP material, and material synthesis and characterization techniques.
Technology: general issues --- History of engineering & technology --- Materials science --- 3D printing --- additive manufacturing --- dental forceps --- CFR (continuous fiber reinforcement) --- fatigue test --- mechanical testing --- composite --- carbon --- scanning electron microscopy --- polyphenylsulfone --- PPSF --- fire-resistant --- aircraft interior --- selective laser sintering --- direct writing --- PVC gel --- artificial muscle --- rheological behavior --- integrated printing --- 4D printing --- fused deposition modelling --- stereolithography --- polymers --- FEM --- FDM --- microstructure behavior --- linear analysis --- RVE --- polyimide --- aerogels --- chemical smoothing --- vapor smoothing --- PVB --- carbon fiber mold --- polylactic acid --- sound reflection --- excitation frequency --- porosity --- 3D printing technique --- thickness --- air gap --- FluidFM --- microstructures --- nanostructures --- biofunctionalization --- mechanical properties --- scanning probe lithography --- copper complex --- photocomposite --- LED --- laser write --- free radical photopolymerization --- bio-inspired spider silks --- adjustable mechanical properties --- shape morphing --- stimulus response --- 3D printing --- additive manufacturing --- dental forceps --- CFR (continuous fiber reinforcement) --- fatigue test --- mechanical testing --- composite --- carbon --- scanning electron microscopy --- polyphenylsulfone --- PPSF --- fire-resistant --- aircraft interior --- selective laser sintering --- direct writing --- PVC gel --- artificial muscle --- rheological behavior --- integrated printing --- 4D printing --- fused deposition modelling --- stereolithography --- polymers --- FEM --- FDM --- microstructure behavior --- linear analysis --- RVE --- polyimide --- aerogels --- chemical smoothing --- vapor smoothing --- PVB --- carbon fiber mold --- polylactic acid --- sound reflection --- excitation frequency --- porosity --- 3D printing technique --- thickness --- air gap --- FluidFM --- microstructures --- nanostructures --- biofunctionalization --- mechanical properties --- scanning probe lithography --- copper complex --- photocomposite --- LED --- laser write --- free radical photopolymerization --- bio-inspired spider silks --- adjustable mechanical properties --- shape morphing --- stimulus response
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This reprint contains a collection of state-of-the-art reviews and original research articles from leaders in the field of 3D/4D printing. It focuses on 3D/4D printing materials with novel and/or advanced functionalities, novel applications of 3DP material, and material synthesis and characterization techniques.
Technology: general issues --- History of engineering & technology --- Materials science --- 3D printing --- additive manufacturing --- dental forceps --- CFR (continuous fiber reinforcement) --- fatigue test --- mechanical testing --- composite --- carbon --- scanning electron microscopy --- polyphenylsulfone --- PPSF --- fire-resistant --- aircraft interior --- selective laser sintering --- direct writing --- PVC gel --- artificial muscle --- rheological behavior --- integrated printing --- 4D printing --- fused deposition modelling --- stereolithography --- polymers --- FEM --- FDM --- microstructure behavior --- linear analysis --- RVE --- polyimide --- aerogels --- chemical smoothing --- vapor smoothing --- PVB --- carbon fiber mold --- polylactic acid --- sound reflection --- excitation frequency --- porosity --- 3D printing technique --- thickness --- air gap --- FluidFM --- microstructures --- nanostructures --- biofunctionalization --- mechanical properties --- scanning probe lithography --- copper complex --- photocomposite --- LED --- laser write --- free radical photopolymerization --- bio-inspired spider silks --- adjustable mechanical properties --- shape morphing --- stimulus response --- n/a
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Additive manufacturing (AM) methods have grown and evolved rapidly in recent years. AM for polymers is particularly exciting and has great potential in transformative and translational research in many fields, such as biomedicine, aerospace, and even electronics. The current methods for polymer AM include material extrusion, material jetting, vat polymerization, and powder bed fusion. In this Special Issue, state-of-the-art reviews and current research results, which focus on the process–structure–properties relationships in polymer additive manufacturing, are reported. These include, but are not limited to, assessing the effect of process parameters, post-processing, and characterization techniques.
Technology: general issues --- History of engineering & technology --- Materials science --- tray location --- build direction --- surface finish --- matte --- glossy --- magnetic polymer composites --- anisotropic properties --- dual-cure resin --- polymer casting --- additive manufacturing --- thermoplastic polyurethane --- polylactic acid --- trachea scaffold --- 3D filament --- selective laser sintering --- di-carboxylic acids --- plasticizers --- solid oral forms --- printability --- heating temperature --- Peano curve --- composite --- PolyJet 3D printing --- rule of mixture --- multi-material printing --- biodegradable polyesters --- polyglycolic acid (PGA) --- fused deposition modeling (FDM) --- triply periodic minimal surfaces (TPMS) --- mechanical property --- poly(lactic acid) --- optimization --- simulation --- finite element analysis (FEA) --- polymers --- material jetting --- 3D printing --- airfoil --- aerodynamic model --- design of experiments --- surface roughness --- photopolymerization --- curing strategy --- reaction heat --- shrinkage and warpage --- powder bed fusion --- laser sintering --- isothermal --- low temperature laser sintering --- selective laser melting --- n/a
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Additive manufacturing (AM) methods have grown and evolved rapidly in recent years. AM for polymers is particularly exciting and has great potential in transformative and translational research in many fields, such as biomedicine, aerospace, and even electronics. The current methods for polymer AM include material extrusion, material jetting, vat polymerization, and powder bed fusion. In this Special Issue, state-of-the-art reviews and current research results, which focus on the process–structure–properties relationships in polymer additive manufacturing, are reported. These include, but are not limited to, assessing the effect of process parameters, post-processing, and characterization techniques.
tray location --- build direction --- surface finish --- matte --- glossy --- magnetic polymer composites --- anisotropic properties --- dual-cure resin --- polymer casting --- additive manufacturing --- thermoplastic polyurethane --- polylactic acid --- trachea scaffold --- 3D filament --- selective laser sintering --- di-carboxylic acids --- plasticizers --- solid oral forms --- printability --- heating temperature --- Peano curve --- composite --- PolyJet 3D printing --- rule of mixture --- multi-material printing --- biodegradable polyesters --- polyglycolic acid (PGA) --- fused deposition modeling (FDM) --- triply periodic minimal surfaces (TPMS) --- mechanical property --- poly(lactic acid) --- optimization --- simulation --- finite element analysis (FEA) --- polymers --- material jetting --- 3D printing --- airfoil --- aerodynamic model --- design of experiments --- surface roughness --- photopolymerization --- curing strategy --- reaction heat --- shrinkage and warpage --- powder bed fusion --- laser sintering --- isothermal --- low temperature laser sintering --- selective laser melting --- n/a
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The 3D printing (3DP) process was patented in 1986; however, only in the last decade has it begun to be used for medical applications, as well as in the fields of prosthetics, bio-fabrication, and pharmaceutical printing. 3DP or additive manufacturing (AM) is a family of technologies that implement layer-by-layer processes in order to fabricate physical models based on a computer aided design (CAD) model. 3D printing permits the fabrication of high degrees of complexity with great reproducibility in a fast and cost-effective fashion. 3DP technology offers a new paradigm for the direct manufacture of individual dosage forms and has the potential to allow for variations in size and geometry as well as control dose and release behavior. Furthermore, the low cost and ease of use of 3DP systems means that the possibility of manufacturing medicines and medical devices at the point of dispensing or at the point of use could become a reality. 3DP thus offers the perfect innovative manufacturing route to address the critical capability gap that hinders the widespread exploitation of personalized medicines for molecules that are currently not easy to deliver. This Special Issue will address new developments in the area of 3D printing and bioprinting for drug delivery applications, covering the recent advantages and future directions of additive manufacturing for pharmaceutical products.
Medicine --- digital pharmacy --- fused deposition modeling 3D printing --- modified drug release --- personalized medicines --- telemedicine --- three dimensional printing --- additive manufacturing --- 3D printed drug products --- printlets --- personalised medicines --- personalized pharmaceuticals --- multiple units --- spheroids --- beads --- acetaminophen --- 3D printing --- fused filament fabrication --- lignin --- antioxidant materials --- wound dressing --- modified release --- filament extrusion --- fused layer modeling --- theophylline --- high API load --- three-dimensional printing --- fixed-dose combinations --- tablets --- multiple-layer dosage forms --- stereolithography --- vat polymerisation --- fused deposition modeling --- polylactic acid --- chemical modification --- MTT assay --- biofilm formation --- warfarin --- semisolid extrusion 3D printing --- inkjet printing --- orodispersible film --- oral powder --- pediatric --- hospital pharmacy --- personalized medicine --- on-demand manufacturing --- drug delivery --- micromedicine --- drug development --- micro-swimmer --- micro-implant --- oral dosages --- microneedle --- high-precision targeting --- controlled release --- geometry --- resolution --- feature size --- release profile --- vascularization --- digital light processing technology --- neural networks --- optimization --- prediction --- FMD --- pregabalin --- gastric floating --- complex structures --- patient-specific --- structural design --- gums --- Fused Deposition Modeling 3D Printing --- processing parameters --- pharmaceutical quality control --- hot-melt extrusion --- solid dosage forms --- 3D printed oral dosage forms --- sustained drug release tablets --- photopolymerization --- paracetamol (acetaminophen) --- aspirin (acetylsalicylic acid) --- amorphous solid dispersion --- poor solubility --- fixed dose combination --- stencil printing --- pharmacoprinting --- orodispersible discs --- orodisperible films --- floating systems --- pulsatile release --- chronotherapeutic delivery --- wound-healing --- 3D bio-printing --- pectin --- propolis --- cyclodextrin --- 3D bio-inks --- fused deposition modelling --- extrusion --- vaginal meshes --- mechanical properties --- drug release --- anti-infective devices --- pelvic organ prolapse --- stress urinary incontinence --- gastro-retentive floating system --- dissolution kinetics --- implantable devices --- subcutaneous --- biodegradable --- prolonged drug delivery --- polymers --- pharmaceuticals --- extrusion-based 3D printing --- fused deposition modeling (FDM) --- pressure-assisted microsyringe (PAM) --- materials --- process --- 3D bioprinting --- polymeric ink --- pseudo-bone --- implantable scaffold --- computer-aided design (CAD) design --- bioprinting --- computer-aided design (CAD) --- pharmaceutics --- digital pharmacy --- fused deposition modeling 3D printing --- modified drug release --- personalized medicines --- telemedicine --- three dimensional printing --- additive manufacturing --- 3D printed drug products --- printlets --- personalised medicines --- personalized pharmaceuticals --- multiple units --- spheroids --- beads --- acetaminophen --- 3D printing --- fused filament fabrication --- lignin --- antioxidant materials --- wound dressing --- modified release --- filament extrusion --- fused layer modeling --- theophylline --- high API load --- three-dimensional printing --- fixed-dose combinations --- tablets --- multiple-layer dosage forms --- stereolithography --- vat polymerisation --- fused deposition modeling --- polylactic acid --- chemical modification --- MTT assay --- biofilm formation --- warfarin --- semisolid extrusion 3D printing --- inkjet printing --- orodispersible film --- oral powder --- pediatric --- hospital pharmacy --- personalized medicine --- on-demand manufacturing --- drug delivery --- micromedicine --- drug development --- micro-swimmer --- micro-implant --- oral dosages --- microneedle --- high-precision targeting --- controlled release --- geometry --- resolution --- feature size --- release profile --- vascularization --- digital light processing technology --- neural networks --- optimization --- prediction --- FMD --- pregabalin --- gastric floating --- complex structures --- patient-specific --- structural design --- gums --- Fused Deposition Modeling 3D Printing --- processing parameters --- pharmaceutical quality control --- hot-melt extrusion --- solid dosage forms --- 3D printed oral dosage forms --- sustained drug release tablets --- photopolymerization --- paracetamol (acetaminophen) --- aspirin (acetylsalicylic acid) --- amorphous solid dispersion --- poor solubility --- fixed dose combination --- stencil printing --- pharmacoprinting --- orodispersible discs --- orodisperible films --- floating systems --- pulsatile release --- chronotherapeutic delivery --- wound-healing --- 3D bio-printing --- pectin --- propolis --- cyclodextrin --- 3D bio-inks --- fused deposition modelling --- extrusion --- vaginal meshes --- mechanical properties --- drug release --- anti-infective devices --- pelvic organ prolapse --- stress urinary incontinence --- gastro-retentive floating system --- dissolution kinetics --- implantable devices --- subcutaneous --- biodegradable --- prolonged drug delivery --- polymers --- pharmaceuticals --- extrusion-based 3D printing --- fused deposition modeling (FDM) --- pressure-assisted microsyringe (PAM) --- materials --- process --- 3D bioprinting --- polymeric ink --- pseudo-bone --- implantable scaffold --- computer-aided design (CAD) design --- bioprinting --- computer-aided design (CAD) --- pharmaceutics
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This book aims to summarize the latest achievements in the development and manufacturing of modern biomaterials used in modern medicine and dentistry, for example, in cases where, as a result of a traffic or sports accident, aging, resection of organs after oncological surgery, or dangerous inflammation, there is a need to replace lost organs, tissues, and parts of the human body. The essence of biomedical materials is their constant contact with living tissues, organisms, or microorganisms and, therefore, they should meet numerous requirements from various fields, including medicine, biology, chemistry, tissue engineering, and materials science. For this reason, biomaterials must be compatible with the organism, and biocompatibility issues must be addressed before using the product in a clinical setting. The production and synthesis of biomaterials require the use of various technologies and methods to obtain the appropriate material, which is then processed using advanced material processing technologies. Often, however, it is necessary to directly manufacture a specific product with individualized geometric features and properties tailored to the requirements of a particular patient. In such cases, additive manufacturing methods are increasingly used. In this sense, it can be considered that the Biomaterials 4.0 stage has been reached, and detailed information is included in the individual chapters of this book on the achievements in the development and manufacturing of modern biomaterials used in modern regenerative medicine, regenerative dentistry, and tissue engineering.
Technology: general issues --- sol-gel phase transitions --- injectable scaffolds --- chitosan --- calcium β-glycerophosphate --- rheology --- bone tissue engineering --- diblock copolymers --- drug delivery systems --- nanoparticles --- nanoprecipitation --- self-assembly --- implant --- stainless steel --- nickel --- leaching --- nitrogen --- cytotoxicity --- nanodendrites --- nanostar --- fibroblast cells --- gelatin --- one-pot synthesis --- hollow mesoporous silica --- porous silica --- high drug loading capacity --- drug delivery system --- fretting --- fretting wear --- Ni-Cr-Mo --- dental alloys --- titaniumcarbonitride --- Ti(C, N) coating --- thin films --- zirconium carbide --- antimicrobial properties --- medical implants --- 316L stainless steel --- sintering --- surface nitriding --- nitrogen absorption --- response surface methodology --- sodium alginate --- hydrogel material --- regenerative medicine --- urethra --- hybrid materials --- hydroxyapatite --- FEA --- V-shaped tooth defects --- fillings --- glass-ionomer cement --- flowable composite --- stomatognathic system --- prosthetic restorations --- surgical guide --- dental prosthesis restoration manufacturing center --- CBCT tomography --- dental implants --- implant-scaffolds --- hybrid multilayer biological-engineering composites biomaterials --- CAD/CAM methods --- additive manufacturing technologies --- selective laser sintering --- stereolithography --- Dentistry 4.0 --- Industry 4.0 --- robocasting --- bioactive glass --- scaffold --- sol–gel --- 45S5 Bioglass® --- biomaterials --- biomedical implants --- additive manufacturing --- dental prosthetic restorations --- Ti6Al4V dental alloy --- structural X-ray analysis --- energy-dispersive X-ray spectroscope --- metallography --- tensile and bending strength --- corrosion resistance --- tribological tests --- in-vitro tests --- industry 4.0 --- dentistry 4.0 --- SARS-CoV-2 pandemic --- SPEC strategy --- elimination clinical aerosol at the source --- dendrological matrix --- photopolymer materials --- additive digital light printing --- dentistry sustainable development --- dental prophylaxis --- dental interventionistic treatment --- caries --- periodontology --- toothlessness --- endodontics --- dental implantology --- dental prosthetics --- dentist safety --- dentist ethics --- Co–Cr dental alloys --- corrosion --- porcelain firing --- SLM --- MSM --- CST --- light-cured composites --- photopolymerization process --- microhardness --- optimization --- regression analysis --- health --- well-being --- long and healthy life policy --- medicine --- dentistry --- medical ethics --- COVID-19 pandemic --- bioengineering --- medical engineering --- dental engineering --- biomedical materials --- Bioengineering 4.0 --- engineers’ ethics --- filling materials --- sealants --- obturation --- gutta-percha --- Resilon --- procedural benchmarking --- comparative matrices --- virtual approach --- digital twin --- scanning electron microscopy --- n/a --- sol-gel --- Co-Cr dental alloys --- engineers' ethics --- Waddawalla / Well 40 (Great Sandy Desert WA SF51-08)