Safety of Nanomaterials along Their Lifecycle: Release, Exposure, and Human HazardsWendel Wohlleben, Thomas A.J. Kuhlbusch, Jürgen Schnekenburger, Claus-Michael Lehr CRC Press, 3 déc. 2014 - 472 pages The incorporation of nanomaterials into products can improve performance, efficiency, and durability in various fields ranging from construction, energy management, catalysis, microelectronics, plastics, coatings, and paints to consumer articles such as foods and cosmetics. But innovation never comes at zero risk. The potential hazards resulting fr |
Table des matières
AsProduced Intrinsic PhysicoChemical Properties and Appropriate Characterization Tools | 3 |
Characterization Methods for the Determination of Inhalation Exposure to Airborne Nanomaterials | 25 |
Classification Strategies for Regulatory Nanodefinitions | 47 |
Analyzing the Biological Entity of Nanomaterials Characterization of Nanomaterial Properties in Biological Matrices | 59 |
Lessons Learned from Unintentional Aerosols | 99 |
Lessons Learned from Pharmaceutical Nanomaterials | 111 |
Measurement of Nanoparticle Uptake by Alveolar Macrophages A New Approach Based on Quantitative Image Analysis | 137 |
Toxicological Effects of Metal Oxide Nanomaterials | 159 |
Release from Composites by Mechanical and Thermal Treatment Test Methods | 247 |
Field and Laboratory Measurements Related to Occupational and Consumer Exposures | 277 |
Mechanisms of Aging and Release from Weathered Nanocomposites | 315 |
Emissions from Consumer Products Containing Engineered Nanomaterials over Their Lifecycle | 335 |
ConcernDriven Safety Assessment of Nanomaterials An Integrated Approach Using Material Properties Hazard Biokinetic and Exposure Data and C... | 357 |
Case Study Paints and Lacquers with Silica Nanoparticles | 381 |
Case Study The Lifecycle of Conductive Plastics Based on Carbon Nanotubes | 399 |
Case Study Challenges in Human Health Hazard and Risk Assessment of Nanoscale Silver | 417 |
Toxicological Effects of Metal Nanomaterials | 191 |
Uptake and Effects of Carbon Nanotubes | 213 |
Measurement and Monitoring Strategy for Assessing Workplace Exposure to Airborne Nanomaterials | 233 |
Back Cover | 437 |
Autres éditions - Tout afficher
Safety of Nanomaterials Along Their Lifecycle: Release, Exposure, and Human ... Taylor & Francis Group Aucun aperçu disponible - 2021 |
Expressions et termes fréquents
abrasion ACS Nano aerosol agglomerates airborne alveolar analysis anatase Asbach assay biological carbon nanotubes cell culture cell lines characterization chemical CNTs coatings comet assay composition cytotoxicity degradation detected diameter dispersion distribution dust effects emissions Environ environmental evaluation example Fibre Toxicol Figure genotoxicity gold nanoparticles hazard human induced inflammation inhalation exposure interaction intratracheal Kuhlbusch Landsiedel lifecycle lung lining fluid macrophages materials matrix measurement mechanisms metal oxide nanoparticles methods mice MWCNTs nano-objects nanocomposites nanofillers nanoGEM nanomaterials nanomedicine Nanopart Res nanopharmaceuticals nanoscale nanosilica nanosilver nanotechnology Nanotoxicology number concentration OECD oxidative stress paint particle number physicochemical polymer potential properties protein corona pulmonary rats relevant risk assessment sampling sanding scenarios SciTechnol sedimentation serum silica silica nanoparticles silver nanoparticles SiO2 studies surface area ticles tier TiO2 nanoparticles tion titanium dioxide toxicity toxicological uptake vitro vivo Wang Wohlleben workplace ZrO2 µg/mL