Evolution of in Situ Refractories in the 20th Century
暂无分享,去创建一个
[1] William E Lee,et al. The “Direct Bond” in Magnesia Chromite and Magnesia Spinel Refractories , 1995 .
[2] J. Drennan,et al. Structural characterization of the thermal transformation of halloysite by solid state NMR , 1993 .
[3] E. Litovsky,et al. Gas Pressure and Temperature Dependences of Thermal Conductivity of Porous Ceramic Materials: Part 2, Refractories and Ceramics with Porosity Exceeding 30% , 1992 .
[4] T. Log. Transient Hot-Strip Method for Simultaneous Determination of Thermal Conductivity and Thermal Diffusivity of Refractory Materials , 1991 .
[5] M. Akinc,et al. Role of Ceria in Enhancing the Resistance of Aluminosilicate Refractories to Attack by Molten Aluminum Alloy , 1989 .
[6] R. Bradt,et al. Linear Thermal Expansion Coefficients of Mullite‐Matrix Aluminosilicate Refractory Bodies , 1983 .
[7] H. Abe,et al. Crack Stability in the Work‐of‐Fracture Test: Refractory Applications , 1981 .
[8] V. G. Sivash,et al. Glaze for carbon-containing refractories , 1980 .
[9] B. Brezny. Equilibrium Partial Pressure of Mg, SiO, Ca, and CO in Carbon‐Containing Doloma Refractories , 1976 .
[10] J. Simonato,et al. Arc‐Imaging Technique for Measuring High‐Temperature Thermal Conductivity and Diffusivity of Refractory Oxides , 1975 .
[11] D. Hasselman,et al. Unified Theory of Thermal Shock Fracture Initiation and Crack Propagation in Brittle Ceramics , 1969 .
[12] Junn Nakayama. A Bending Method for Direct Measurement of Fracture Energy of Brittle Material , 1964 .
[13] D. Hasselman,et al. Elastic Energy at Fracture and Surface Energy as Design Criteria for Thermal Shock , 1963 .
[14] A. Muan. Reactions Between Iron Oxides and Alumina‐Silica Refractories , 1958 .
[15] M. S. Crowley,et al. Effects of High-Conductivity Gases on the Thermal Conductivity of Insulating Refractory Concrete , 1958 .
[16] R. Snow,et al. Reaction Between K2O and Al2O3-SiO2 Refractories as Related to Blast-Furnace Linings , 1957 .
[17] W. H. Gitzen,et al. Properties of Some Calcium Aluminate Cement Compositions , 1957 .
[18] L. E. Mong,et al. Dynamic and Static Tests for Mechanical Properties of Fired Plastic Refractories and Other More Resilient Materials , 1956 .
[19] A. W. Allen,et al. Application of Sonic Moduli of Elasticity and Rigidity to Testing of Heavy Refractories , 1954 .
[20] R. A. Heindl,et al. Permeability and Some Other Properties of a Variety of Refractory Materials: I , 1953 .
[21] N. N. Ault,et al. Sonic Analysis for Solid Bodies , 1953 .
[22] J. B. Austin. Thermal Expansion of Nonmetallic Crystals , 1952 .
[23] J. E. Comeforo,et al. Wetting of Al2O3-SiO2 Refractories by Molten Glass: I, Measurement of Wetting , 1952 .
[24] J. F. Wygant. Elastic and Flow Properties of Dense, Pure Oxide Refractories , 1951 .
[25] E. S. Fitzsimmons. Thermal Diffusivity of Refractory Oxides , 1950 .
[26] W. Kingery. Fundamental Study of Phosphate Bonding in Refractories: I, Literature Review , 1950 .
[27] K. A. Baab,et al. SONIC METHOD FOR DETERMINING YOUNG'S MODULUS OF ELASTICITY , 1948 .
[28] L. E. Mong. ELASTIC BEHAVIOR AND CREEP OF REFRACTORY BRICK UNDER TENSILE AND COMPRESSIVE LOADS , 1947 .
[29] J. Winckler. SPHERICAL FURNACE CALORIMETER FOR DIRECT MEASUREMENT OF SPECIFIC HEAT AND THERMAL CONDUCTIVITY , 1943 .
[30] H. G. Schurecht. REACTIONS OF SLAG WITH REFRACTORIES: I, SURFACE REACTIONS* , 1939 .
[31] R. Fehling,et al. INFLUENCE OF FLUIDITY, HYDRODYNAMIC CHARACTERISTICS, AND SOLVENT ACTION OF SLAG ON THE DESTRUCTION OF REFRACTORIES AT HIGH TEMPERATURE* , 1939 .
[32] F. Norton. A CRITICAL EXAMINATION OF THE LOAD TEST FOR REFRACTORIES , 1939 .
[33] J. B. Austin. LINEAR THERMAL EXPANSION OF “BETA-ALUMINA”* , 1938 .
[34] R. A. Heindl,et al. Deformation and Young's modulus of fire-clay brick in flexure at 1,220 degrees C , 1937 .
[35] R. A. Heindl,et al. Young's modulus of elasticity, strength, and extensibility of refractories in tension , 1936 .
[36] N. W. Taylor,et al. KINETICS OF SOLID‐PHASE REACTIONS OF CERTAIN CARBONATES WITH MULLITE, SILICA, AND ALUMINA* , 1935 .
[37] J. B. Austin,et al. CONSTITUTION AND THERMAL EXPANSION OF SILICA COKEOVEN BRICK AFTER SERVICE , 1933 .
[38] J. B. Austin. THE THERMAL EXPANSION OF SOME REFRACTORY OXIDES1 , 1931 .
[39] R. F. Ferguson,et al. A REVIEW OF THE LITERATURE ON LABORATORY SLAG TESTS FOR REFRACTORIES1 , 1928 .
[40] H. R. Goodrich. SPALLING AND LOSS IN COMPRESSIVE STRENGTH OF FIRE BRICK1 , 1927 .
[41] W. Turner. THE ATTACK OF ARSENIC COMPOUNDS ON FIRECLAY REFRACTORY MATERIAL1 , 1926 .
[42] F. Norton. THE THERMAL EXPANSION OF REFRACTORIES1 , 1925 .
[43] R. B. Sosman. SOME FUNDAMENTAL PRINCIPLES GOVERNING THE CORROSION OF A FIRE CLAY REFRACTORY BY A GLASS1 , 1925 .
[44] H. Insley. NOTES ON THE BEHAVIOR OF REFRACTORIES IN GLASS MELTING FURNACES1 , 1924 .
[45] J. W. Greig,et al. THE SYSTEM: Al2O3.SiO2 , 1924 .
[46] Charles I. Rose. A PROPOSED METHOD FOR STUDYING THE ATTACK OF MOLTEN SLAGS AND GLASSES UPON REFRACTORY MATERIALS1 , 1923 .
[47] W. Darby,et al. THE DISINTEGRATION OF REFRACTORY BRICK BY CARBON MONOXIDE1 , 1923 .
[48] J. W. Cobb,et al. THE REVERSIBLE THERMAL EXPANSION OF REFRACTORY MATERIALS , 1923 .
[49] R. Pike. NEED FOR MORE REFRACTORY HEAT INSULATORS Proposed Conductometers for Measuring Thermal Conductivity1 , 1922 .
[50] W. E. Lee,et al. Microstructural evolution in self-forming spinel/calcium aluminate-bonded castable refractories , 1998 .
[51] J. Sharp,et al. Microstructural evolution in fired kaolinite , 1998 .
[52] Udayan Senapati,et al. Porcelain—Raw Materials, Processing, Phase Evolution, and Mechanical Behavior , 1998 .
[53] R. Bradt,et al. Stengths of fused and tabular alumina refractory grains , 1988 .
[54] R. Moore,et al. Refractory of the past for the future: mullite and its use as a bonding phase , 1988 .
[55] R. Bradt. Fracture measurements of refractories: past, present, and future , 1988 .
[56] T. Darroudi,et al. Effects of temperature and stressing rate on fracture strength of a series of high AL2O3 refractories , 1987 .
[57] D. Hasselman,et al. Comparison of Data for Thermal Diffusivity Obtained by Laser‐Flash Method Using Thermocouple and Photodetector , 1985 .
[58] C. Cooper,et al. The role of graphite in the thermal shock resistance of refractories , 1985 .
[59] J. Halloran,et al. Fracture of phosphate-bonded high-alumina refractories , 1983 .
[60] J. Halloran,et al. STRENGTH AND MICROSTRUCTURE OF PHOSPHATE-BONDED ALUMINA REFRACTORIES. , 1981 .
[61] T. Robson. Refractory Concretes: Past, Present, and Future , 1978 .
[62] R. J. Leonard,et al. Significance of Oxidation‐Reduction Reactions Within BOF Refractories , 1972 .
[63] R. Davidge,et al. THERMAL SHOCK AND FRACTURE IN CERAMICS. , 1967 .
[64] L. E. Mong,et al. Elasticity, Strength, and Other Related Properties of Some Refractory Castables , 1958 .
[65] G. D. Elliot,et al. Ironmaking at the appleby-frodingham works of the United Steel Companies, Limited , 1944 .
[66] C. C. Furnas. KINETICS OF SOME REACTIONS OF INTEREST TO CERAMISTS The Disintegration of Blast‐Furnace Linings Due to Carbon Deposition , 1936 .
[67] F. Norton. THE THERMAL CONDUCTIVITY OF SOME REFRACTORIES1 , 1927 .
[68] M. Beecher. DEVELOPMENTS IN THE MANUFACTURE OF REFRACTORIES OF FUSED ALUMINA , 1923 .
[69] E. Griffiths. The thermal conductivity of materials employed in furnace construction , 1917 .