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Materials (Basel, Switzerland)
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Bibliographies
[1]
The Alternatives to Traditional Materials for Subsoil Stabilization and Embankments.
[2]
Leaching of elements from cement activated fly ash and slag amended soils.
[3]
Separation of Levofloxacin from Industry Effluents Using Novel Magnetic Nanocomposite and Membranes Hybrid Processes.
[4]
Screening of candidate corrosion resistant materials for coal combustion environments -- Volume 4. Final report, January 31, 1997
[5]
fabrication of slag-glass composite with controlled porosity
[6]
equivalencia entre medidas eléctricas y difracción de rayos x en la formación de fases cristalinas de pastas de cemento
[7]
silicon production using long flaming coal and improvement of its quality indicators
[8]
A Comprehensive Review on the Ground Granulated Blast Furnace Slag (GGBS) in Concrete Production
[9]
Rheological and the Fresh State Properties of Alkali-Activated Mortars by Blast Furnace Slag
[10]
Successful Development and Optimisation of Lead ISASMELT™ Furnace Slag Tapping System at Kazzinc Ltd.
[11]
Utilization and efficiency of ground granulated blast furnace slag on concrete properties – A review
[12]
Solubility, structure and probable effects on marine environment of slag from the iron and steel works in Iskenderun.
[13]
Compressive strength, pore structure and chloride transport properties of alkali-activated slag/fly ash mortars
[14]
Mechanical behavior of inert steel slag ballast for heavy haul rail track: Laboratory evaluation
[15]
Effect of cooling rate on microstructure and mechanical properties in the CGHAZ of electroslag welded pearlitic rail steel
[16]
Lightweight cement-free alkali-activated slag plaster for the structural retrofit and energy upgrading of poor quality masonry walls
[17]
Verslag van de Vergadering, tevens herdenkingsbijeenkomst van het 25-jarig bestaan, der Nederlandsche Vereeniging voor Microbiologie, Gehouden Zaterdag 23 Mei 1936, in het Gemeente Ziekenhuis, Zuidwal 83, te 's-Gravenhage
[18]
Verslag van de Vergadering der Nederlandsche Vereeniging voor Microbiologie - Gehouden Zaterdag 11 Mei 1935, voorm. 10.15 uur, in het Gemeente Ziekenhuis aan den Coolsingel te Rotterdam
[19]
Verslag van de Vergadering der Nederlandsche Vereeniging voor Microbiologie - gehouden op Zaterdag 5 Mei 1934, in het Phytopathologisch Laboratorium, Javalaan 6, te Baarn
[20]
Action research als relevante vorm van interventieonderzoek: Verslag van het World Congress on Action Learning and Action Research & Participatory Action Research 2006
[21]
Influence of Titanium Dioxide Nanoparticles on the Sulfate Attack upon Ordinary Portland Cement and Slag-Blended Mortars
[22]
Evaluation of Slag Reaction Efficiency in Slag-Cement Mortars under Different Curing Temperature.
[23]
Slag Substitution as a Cementing Material in Concrete: Mechanical, Physical and Environmental Properties.
[24]
An all-in-one strategy for the adsorption of heavy metal ions and photodegradation of organic pollutants using steel slag-derived calcium silicate hydrate.
[25]
Low carbon design of an Ultra-High Performance Concrete (UHPC) incorporating phosphorous slag
[26]
Study of buildup factor of gamma ray photons in bismuth-ground granulated blast furnace slag concrete
[27]
Slag recycling in submerged arc welding and its effects on the quality of stainless steel claddings
[28]
Recycling steel slag from municipal wastewater treatment plants into concrete applications – A step towards circular economy
[29]
Mechanism for alkaline leachate reduction through calcium carbonate precipitation on basic oxygen furnace slag by different carbonate sources: Application of NaHCO and CO gas.
[30]
A nondestructive EIS method to evaluate the compressive strength of slag-blended cement paste under steam curing
[31]
Immobilization of cesium with alkali-activated blast furnace slag.
[32]
Effect of Early Age-Curing Methods on Drying Shrinkage of Alkali-Activated Slag Concrete.
[33]
MECHANICAL STRENGHT’S RESEARCH OF THE THERMAL POWER STATION’S SLAG
[34]
Thermal Properties of Alkali Activated Slag Plaster for Wooden Structures.
[35]
Performance of electric arc furnace slag as oxygen carrier in chemical-looping combustion process
[36]
Effect of ground granulated blast furnace slag (GGBFS) on mechanical properties of roller-compacted concrete pavement
[37]
Laboratory study of the effects of using magnesium slag on the geotechnical properties of cement stabilized soil
[38]
High calcium fly ash geopolymer stabilized lateritic soil and granulated blast furnace slag blends as a pavement base material.
[39]
Laboratory Investigation of Cement-Stabilized Marginal Lateritic Soil by Crushed Slag-Fly Ash Replacement for Pavement Applications
[40]
The influence of the volatiles on the slag composition for the heating process
[41]
Effects of carbide slag, lodestone and biochar on the immobilization, plant uptake and translocation of As and Cd in a contaminated paddy soil.
[42]
Effects of steel slag amendments on accumulation of cadmium and arsenic by rice (Oryza sativa) in a historically contaminated paddy field.
[43]
Leaching of elements from cement activated fly ash and slag amended soils.
[44]
Study on thermal properties of steel slag asphalt concrete for snow-melting pavement
[45]
Slag Formation during Entrained Flow Gasification: Calcium-Rich Bark Fuel with KHCO3 Additive
[46]
effect of roasting temperature on phase transformation in co-reduction roasting of nickel slag
[47]
stochastic modeling of compressive strength of phosphorus slag content cement
[48]
multi-stage control of waste heat recovery from high temperature slags based on time temperature transformation curves
[49]
fabrication of slag-glass composite with controlled porosity
[50]
the efficiency of dolomitic limestone, basic slag and peat ash as liming agents, and as calcium and magnesium sources for turnip rape
[51]
improving beneficiation of copper and iron from copper slag by modifying the molten copper slag
[52]
pengaruh penggunaan limbah steel slag sebagai pengganti agregat kasar ukuran ½” dan 3/8” pada campuran hrs_wc
[53]
potential modification of hydration of alkali activated mixtures from granulated blast furnace slag and fly ash
[54]
assessment of activity moduli and acidic resistance of slag-based geopolymer concrete incorporating pozzolan
[55]
analysis of fractionated fly ash and slag at kemerovo state district power plant
[56]
reactivation of a retarded suspension of ground granulated blast-furnace slag
[57]
leaching and recovery of zinc and copper from brass slag by sulfuric acid
[58]
implementation of industrial waste ferrochrome slag in conventional and low cement castables: effect of calcined alumina
[59]
leaching test of vitrified fly ash and ceramic slag from an incinerator of municipal solid waste (msw) treated with ca(oh)2 at different concentrations and with marlstone
[60]
jaarverslag 1966
[61]
effect of different curing methods on the compressive strength development of pulverized copper slag concrete
[62]
estimating phosphate capacities of multi-component slags by mass triangle model
[63]
jaarverslag 1984
[64]
melting features and viscosity of sio2-cao-mgo-al2o3-feo nickel slag in laterite metallurgy
[65]
shrinkage reduction and crack prevention of alkali-activated phosphorous slag cement
[66]
jaarverslag 1955. verslag verificatie-commissie 1955
[67]
jaarverslag over 1950
[68]
tiling problems on baumslag-solitar groups.
[69]
microstructural changes induced by co2 exposure in alkali-activated slag/metakaolin pastes
[70]
utilização do subproduto da recuperação metálica de escórias de aços inoxidáveis na síntese de pigmentos cerâmicos; caracterização da matéria-prima by-product utilization of metallic recovering of stainless steel slags in the ceramic pigments synthesis; raw material characterization
[71]
hedendaagse populêre voorligting oor die verhouding tussen die manlike en vroulike geslag: besinning oor ’n evolusionistiese etiek
[72]
durability and acoustics of concrete with slag of cupola furnace as fine aggregate replacement
[73]
physico-chemical characterization of slag occurrences at tilva njagra locality, bor region, eastern serbia
[74]
design of inorganic polymer mortar from ferricalsialic and calsialic slags for indoor humidity control
[75]
status over teledata i danmark. hvorfor er teledata ikke blevet en mere slagkraftig offentlig teletjeneste i danmark sammenlignet med f.eks. det franske teletel?
[76]
effect of copper and iron ions on the sulphidizing flotation of copper oxide in copper smelting slag
[77]
agronomic use of basic slag
[78]
ecological and technologycal aspects of ash and slag wastes utilization
[79]
measurement of cao-sio2-sacl2 slag density by an improved archimedean method
[80]
reisverslag in twee stemme en agt gedigte
[81]
die verhouding tussen ouer en jonger geslagte in die nuwe testament: ’n filologiese studie
[82]
pengendapan uranium dan thorium hasil pelarutan slag ii
[83]
study of effect of electric arc furnace slag on expansion of mortars subjected to alkali-aggregate reaction
[84]
analysis of the possibility of estimation ecological slag propriety with use the database
[85]
corrigendum: reisverslag in twee stemme en agt gedigte
[86]
yeterlilik kurulları İç yönerge taslağı
[87]
Case study on field trials of developed geopolymer (Slag and fly ash based) precast concrete paver blocks
[88]
Performance of slag-fly ash based alkali activated concrete for paver applications utilizing powdered waste glass as a binding ingredient
[89]
Hoe om ’n vakkundige verslag saam te stel
[90]
Effect of blast-furnace slag on physicochemical properties of pozzolan-based geopolymers
[91]
Fly ash geopolymer mortar: Impact of the substitution of river sand by copper slag as a fine aggregate on its thermal resistance properties
[92]
Physical and mechanical properties and micro characteristics of fly ash-based geopolymer paste incorporated with waste Granulated Blast Furnace Slag (GBFS) and functionalized Multi-Walled Carbon Nanotubes (MWCNTs)
[93]
Cyclic behaviour of clay stabilised with fly-ash based geopolymer incorporating ground granulated slag
[94]
Rheological behavior of geopolymer mortar with fly ash, slag and their blending
[95]
Impact of electric arc furnace slag on geopolymer composites exposed to sulphate solution
[96]
EFFECTS OF BLAST-FURNACE SLAG ON NATURAL POZZOLAN-BASED GEOPOLYMER CEMENT
[97]
Facile fabrication of metakaolin/slag-based zeolite microspheres (M/SZMs) geopolymer for the efficient remediation of Cs and Sr from aqueous media.
[98]
Controlled preparation of cerium oxide loaded slag-based geopolymer microspheres (CeO@SGMs) for the adsorptive removal and solidification of F from acidic waste-water.
[99]
Effects of Slag Composition and Impurities of Alloys on the Inclusion Transformation during Industrial Ladle Furnace Refining
[100]
A Comprehensive Review on the Ground Granulated Blast Furnace Slag (GGBS) in Concrete Production
[101]
Rheological and the Fresh State Properties of Alkali-Activated Mortars by Blast Furnace Slag