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Der Frischbetondruck wird wesentlich durch die rheologischen Eigenschaften der verarbeiteten Betone beeinflusst. Dies gilt sowohl für frische Normalbetone als auch frische selbstverdichtende Betone. In der vorliegenden Arbeit konnte, unter Einbeziehung der einbaudynamischen und schalungskonstruktiven Prozesse, der Zusammenhang zwischen den rheologischen Eigenschaften frischer Betone und ihrem Frischbetondruck aufgezeigt werden. Die entwickelten Materialmodelle Sie bieten dem planenden Ingenieur bzw. Betontechnologen ein Werkzeug, den Frischbetondruck wirklichkeitsnah abzuschätzen.
selbstverdichtender Beton --- Normalbeton --- Frischbetondruck --- rheologische Eigenschaften --- Materialmodelle --- Schalungskonstruktion
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Boek + CD-rom Het handboek Betonbouw is uitgegroeid tot een standaardwerk. Deze nieuwe versie houdt rekening met de meest courante wijzigingen. Het rekenprogramma brengt de student of de professionele gebruiker beter inzicht in de materie. Tevens kan men met dit gebruiksvriendelijke programma snel rekenresultaten bekomen, bewaren en uitprinten.
691 --- 691.3 --- 624.012.46 --- 691.32 --- 693.5 --- Betonbouw --- Grenstoestanden --- Voorgespannen elementen --- beton --- betonbouw --- betonconstructies --- 693.5 Concrete construction work. Concreting. In-situ concrete. Mass concrete. Reinforced concrete. Prestressed concrete --- Concrete construction work. Concreting. In-situ concrete. Mass concrete. Reinforced concrete. Prestressed concrete --- 691.32 Concrete. Concrete buiding elements --- Concrete. Concrete buiding elements --- 624.012.46 Structures in prestressed concrete --- Structures in prestressed concrete --- Bouwmaterialen (architectuur) --- Beton --- Voorgespannen beton --- Betonconstructies --- constructief beton --- Bouw --- 624.012 --- Constructies --- PXL-Tech 2016 --- bouwkunde
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Collection of selected, peer reviewed papers from the Fourth Annual Meeting on Testing and Evaluation of Inorganic Materials, June 7-9, 2013, Guilin, China. The 77 papers are grouped as follows: Chapter 1: Chemical Composition and Microstructure; Chapter 2: Mechanical and Physical Properties; Chapter 3: Testing Techniques and Devices. The meeting focused on the mechanical, chemical, and physical properties and the microstructure of ceramics, glass, and concrete and on techniques for testing such properties. The 77 papers include discussions of the microstructure and chemical composition of bor
Materials --- Ceramics --- Glass --- Concrete --- Beton --- Building materials --- Amorphous substances --- Glazing --- Ceramic technology --- Industrial ceramics --- Keramics --- Chemistry, Technical --- Clay --- Testing
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Transport Properties of Concrete covers how to measure the ability of ions and fluids to move through concrete material, and how to use the results to model performance. These transport properties largely determine the durability of concrete and of steel embedded within it, as well as the effectiveness of structures such as landfill containment barriers. The book begins by explaining in detail what transport properties are and how to write computer models for transport processes. Early chapters present and explain computer models written in basic code. Coverage then proceeds
Concrete -- Quality control. --- Concrete -- Transport properties. --- Concrete. --- Concrete --- Chemical & Materials Engineering --- Engineering & Applied Sciences --- Materials Science --- Transport properties --- Transport properties. --- Beton --- Building materials
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The State-of-the-Art Report of RILEM Technical Committee 228-MPS on Mechanical properties of Self-Compacting Concrete (SCC) summarizes an extensive body of information related to mechanical properties and mechanical behaviour of SCC. Due attention is given to the fact that the composition of SCC varies significantly. A wide range of mechanical properties are considered, including compressive strength, stress-strain relationship, tensile and flexural strengths, modulus of elasticity, shear strength, effect of elevated temperature, such as fire spalling and residual properties after fire, in-situ properties, creep, shrinkage, bond properties, and structural behaviour. A chapter on fibre-reinforced SCC is included, as well as a chapter on specialty SCC, such as light-weight SCC, heavy-weight SCC, preplaced aggregate SCC, special fibre reinforced SCC, and underwater concrete.
Aggregates (Building materials). --- Concrete -- Mechanical properties. --- Sealing compounds. --- Self-consolidating concrete --- Chemical & Materials Engineering --- Engineering & Applied Sciences --- Materials Science --- Mechanical properties --- Concrete --- Self-consolidating concrete. --- Mechanical properties. --- SCC (Concrete) --- Self-compacting concrete --- Beton --- Engineering. --- Mechanics. --- Mechanics, Applied. --- Building materials. --- Structural materials. --- Building Materials. --- Structural Materials. --- Theoretical and Applied Mechanics. --- Building materials --- Building construction. --- Materials. --- Mechanics, applied. --- Applied mechanics --- Engineering, Mechanical --- Engineering mathematics --- Engineering --- Engineering materials --- Industrial materials --- Engineering design --- Manufacturing processes --- Materials --- Classical mechanics --- Newtonian mechanics --- Physics --- Dynamics --- Quantum theory --- Architectural materials --- Architecture --- Building --- Building supplies --- Buildings --- Construction materials --- Structural materials
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The aim of this book is to present the latest findings in the properties and application of Supplementary Cementing Materials and blended cements currently used in the world in concrete. Sustainability is an important issue all over the world. Carbon dioxide emission has been a serious problem in the world due to the greenhouse effect. Today many countries agreed to reduce the emission of CO2. Many phases of cement and concrete technology can affect sustainability. Cement and concrete industry is responsible for the production of 7% carbon dioxide of the total world CO2 emission. The use of supplementary cementing materials (SCM), design of concrete mixtures with optimum content of cement and enhancement of concrete durability are the main issues towards sustainability in concrete industry.
Concrete. --- Waste products. --- Building materials. --- Concrete -- Additives. --- Concrete -- Testing. --- By-products --- Products, Waste --- Utilization of waste --- Waste materials --- Earth sciences. --- Mineralogy. --- Earth Sciences. --- Building Materials. --- Ceramics, Glass, Composites, Natural Methods. --- Industrial wastes --- Trades-waste --- Manufacturing processes --- Factory and trade waste --- Recycling (Waste, etc.) --- Refuse and refuse disposal --- Scrap materials --- Substitute products --- Waste spills --- Beton --- Building materials --- Building construction. --- Ceramics, Glass, Composites, Natural Materials. --- Physical geology --- Crystallography --- Minerals --- Ceramics. --- Glass. --- Composites (Materials). --- Composite materials. --- Composites (Materials) --- Multiphase materials --- Reinforced solids --- Solids, Reinforced --- Two phase materials --- Materials --- Amorphous substances --- Ceramics --- Glazing --- Ceramic technology --- Industrial ceramics --- Keramics --- Chemistry, Technical --- Clay --- Architectural materials --- Architecture --- Building --- Building supplies --- Buildings --- Construction materials --- Structural materials
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One marker of the majesty of ancient Rome is its surviving architectural legacy, the stunning remains of which are scattered throughout the circum-Mediterranean landscape. Surprisingly, one truly remarkable aspect of this heritage remains relatively unknown. There exists beneath the waters of the Mediterranean the physical remnants of a vast maritime infrastructure that sustained and connected the western world's first global empire and economy. The key to this incredible accomplishment and to the survival of structures in the hostile environment of the sea for two thousand years was maritime
Concrete construction --- Marine engineering --- Technology --- Architecture, Roman. --- Geology --- Construction en béton --- Mécanique navale --- Technologie --- Architecture romaine --- Géologie --- History. --- Research --- Histoire --- Recherche --- Rome --- Mediterranean Region --- Méditerranée, Région de la --- Antiquities. --- Antiquités --- Volcanic ash, tuff, etc. --- Analysis. --- ROMACONS Project. --- Construction en béton --- Mécanique navale --- Géologie --- Méditerranée, Région de la --- Antiquités --- Volcanic ash, tuff, etc --- History --- Analysis --- Ocean engineering --- Underwater archaeology --- Buildings --- Civil engineering --- Concrete --- Engineering --- Public works --- Edifices --- Halls --- Structures --- Architecture --- Archaeology, Submarine --- Marine archaeology --- Maritime archaeology --- Nautical archaeology --- Submarine archaeology --- Archaeology --- Underwater exploration --- Marine archaeologists --- Deep-sea engineering --- Oceaneering --- Submarine engineering --- Underwater engineering --- Marine resources --- Oceanography --- Equipment and supplies --- Rim --- Roman Empire --- Roman Republic (510-30 B.C.) --- Romi (Empire) --- Byzantine Empire --- Rome (Italy) --- Buildings, structures, etc. --- Beton --- Building materials --- Built environment --- Pyroclastics --- Rocks, Volcanic --- Tephra --- Tuff --- Volcanic ejecta --- Volcanic rocks --- Igneous rocks --- Andosols --- Roman architecture --- Applied science --- Arts, Useful --- Science, Applied --- Useful arts --- Science --- Industrial arts --- Material culture --- Engineering, Marine --- Marine technology --- Naval engineering --- Naval architecture --- Building, Concrete --- Concrete building --- Construction, Concrete --- Building --- Roman Maritime Concrete Survey --- Roman Maritime Concrete Study
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