TY - BOOK ID - 133426911 TI - Innovative Materials for Construction AU - Frigione, Mariaenrica AU - de Aguiar, José Barroso PY - 2021 PB - Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute DB - UniCat KW - Research & information: general KW - Technology: general issues KW - isogrid KW - aircraft load-bearing structures KW - finite elements method KW - nonlinear numerical analyses KW - stability KW - equilibrium path KW - cement KW - gypsum KW - hydraulic lime KW - mechanical properties KW - mortars KW - phase-change materials (PCM) KW - sustainable materials for buildings KW - thermal energy storage KW - glass fiber-reinforced polymer (GFRP) rebar KW - ultra-high-performance concrete (UHPC) KW - concrete headed GFRP rebar KW - bond strength KW - development length KW - flexural strength KW - precast concrete deck KW - material selection KW - project performance KW - material property KW - analytic hierarchy process (AHP) KW - building construction KW - concrete system form KW - phase change material (PCM) KW - thermal energy storage (TES) KW - thermal properties KW - Ca7ZrAl6O18 KW - 27Al MAS NMR KW - Sr-rich (Sr,C)3AH6 KW - cement hydration KW - refractories KW - immobilization of radioactive Sr KW - shrinkage-reducing agent KW - compressive strength KW - splitting tensile strength KW - freezing and thawing KW - spacing factor KW - cultural heritage KW - durability KW - mechanical characterization KW - retrofitting KW - strengthening KW - quasi-brittle material KW - three-point bending test KW - energy fracture KW - NHL KW - composite material KW - jute KW - MICP KW - ureolytic bacteria KW - biocement KW - natural plant fiber KW - ladle furnace slag KW - reclaimed asphalt pavements KW - cold in-place recycling KW - simple compressive strength KW - bitumen emulsion KW - waste KW - circular economy KW - bacteria KW - biocementation KW - construction KW - microbially induced calcium carbonate precipitation KW - n/a UR - https://www.unicat.be/uniCat?func=search&query=sysid:133426911 AB - Most of the typical materials employed in today’s constructions present limitations, especially concerning their durability, in either common or severe environmental conditions, and their impact on the environment. In response to these issues, academic and industrial efforts around the world have been devoted to developing new smart materials that can provide efficient alternatives, improve the energy efficiency of buildings, or can upgrade, repair, or protect existing infrastructures. Different and wide technological innovations are, therefore, quickly fostering advancements in the field of construction materials. A new generation of materials (bricks, cement, coatings, concrete, FRP, glass, masonry, mortars, nano-materials, PCM, polymers, steel, wood, etc.) is gaining a prominent position in modern building technology, since they can overcome various limits and flaws of conventional materials employed in constructions, without neglecting the smart applications of pioneering materials in ancient constructions and historic buildings. Even though the adoption of innovative materials in the construction field has been a successful route in achieving enhanced performance, or even new and unexpected characteristics, some issues have not been completely solved. On top of them, the cost/performance ratio of novel solutions, since their introduction must be convenient, without compromising quality. Other concerns are related to their sustainability, with eco-friendly options, possibly exploiting recycled materials or by-products from other productions, being the most desirable solution. Finally, the use of materials or systems that are unconventional in this field raises the need to update or develop new specifications and standards. This special issue aims at providing a platform for discussing open issues, challenges, and achievements related to innovative materials proposed for the construction industry. ER -