Reprint

10th Anniversary of Inorganics: Inorganic Materials

Edited by
March 2024
450 pages
  • ISBN978-3-7258-0408-5 (Hardback)
  • ISBN978-3-7258-0407-8 (PDF)

This book is a reprint of the Special Issue 10th Anniversary of Inorganics: Inorganic Materials that was published in

Chemistry & Materials Science
Summary

To celebrate the 10th anniversary of the journal Inorganics and its first Impact Factor (Clerivate Analytics), the “Inorganic Materials” section has taken the initiative to launch a Special Issue entitled “10th Anniversary of Inorganics: Inorganic Materials”. The recent and numerous public demonstrations in support of climate and ecological justice and the recent energetic crisis revealed the actual importance of technological sustainability. The “Inorganic Materials” section in Inorganics strongly supports a transition towards a 'green' and sustainable future based on renewable energy and with closed life cycles for all used material. Therefore, this Special Issue focuses on the sustainable production of inorganic materials following alternative ecofriendly methods. In particular, the development of new protocols and strategies for the reuse of materials is important in order to save minerals and raw materials and reduce the production of waste and pollution of the environment. The aim of this Special Issue is to increase the knowledge of the latest advances, highlight challenges, address unresolved issues, and provide evidence for newly emerging areas of interest involving the sustainable use of inorganic materials.

Format
  • Hardback
License
© 2022 by the authors; CC BY-NC-ND license
Keywords
thin films; diffusion barriers; TiN; Sputtering; XRD; nanosized zirconia; tetragonal phase; hydrothermal method; propanetriol; ceramic reinforcement; mechanical alloying; planetary ball milling; bismuth antimony telluride; thermoelectric materials; NiPd; graphene; carbon-based hydrogen storage; hydrogen adsorption; basalt fiber; phosphorus building gypsum; working performance; mechanical properties; load deformation curve; TiO2; hydrogen peroxide H2O2; KOH; superoxide radical; pulsed EPR; hyperfine coupling; catalyst sludge; hexavalent chromium; reduction; neutralization; deposition; COVID-19; coronaviruses; personal protective equipment; nanomaterials; PPE; SARS-CoV-2; geopolymer; mechanical properties; recycled gypsum; side stream materials; environmental impact; inorganic flame retardants; sol–gel technology; nanoclays; functional nanofillers; functional coatings; cotton fabrics; lithium-ion battery; anode materials; CoMn2O4 nanoflower; graphene; film; catalyst promotor; mixed oxides; hydrogenated RuxTi1−xO2; propane combustion; hydrogen-induced variation in the activity; titania; polystyrene; core–shell; methylene blue; photocatalytic activity; Coupled Cluster; geometry optimization; N-N bond splitting; QTAIM analysis; electron structure; antimony; silsesquioxane; polyhedral oligomeric silsesquioxane; POSS; corner-capping reaction; N-doped TiO2; photocatalysis; contaminants of emerging concern; CO2 capture; CO2 conversion; dual function material; materials design; UO2(s); gadolinia doping; anodic oxidation; X-ray photoelectron spectroscopy; silicate and calcium ions; calcium hydroxide nanoparticles; inorganic nanoparticles; nano-delivery systems; antifungal efficacy; Botrytis cinerea; pH-responsive delivery; ALD; in-situ; operando; XPS; ellipsometry; QMS; MCM-41; industrial reactants; silanol group preservation; CO2 capture; COVID-19; exhaled breath analysis; CO; breathalyzer; biosensors; graphite/SiO2 film; hybrid organic–inorganic semiconductor; bisartan BV6; cyclic voltammetry; sensor; encapsulated pigment; BiVO4@SiO2; yellow color; thermal stability; resistance to chemical erosion; transesterification; CaO–ZnO; biodiesel; palm oil; core–shell heterostructure; n/a