Fabrication, properties, and applications of porous metals with directional pores.
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[1] H. Nakajima,et al. Heat Transfer Capacity of Lotus-Type Porous Copper Heat Sink , 2003 .
[2] H. Nakajima. Fabrication, properties, and applications of porous metals with directional pores , 2010, Proceedings of the Japan Academy. Series B, Physical and Biological Sciences.
[3] H. Nakajima,et al. Effect of solidification velocity on pore morphology of lotus-type porous copper fabricated by unidirectional solidification , 2003 .
[4] H. Nakajima. Invariant Reaction of Liquid → Solid + Gas - Gas-Evolution Crystallization Reaction - , 2001 .
[5] I. Egry,et al. Surface tension measurement of molten silicon by the oscillating drop method using electromagnetic levitation , 1995 .
[6] Herbert F. Wang,et al. Single Crystal Elastic Constants and Calculated Aggregate Properties. A Handbook , 1971 .
[7] L. Gibson,et al. The compressive behaviour of porous copper made by the GASAR process , 1997 .
[8] J. Kováčik. The tensile behaviour of porous metals made by GASAR process , 1998 .
[9] K. Murakami,et al. Pore Morphology and Microstructure of Porous Magnesium Alloys Fabricated by Unidirectional Solidification Under Hydrogen Atmosphere , 2003 .
[10] J. Park,et al. Fabrication of Lotus-Type Porous Aluminum through Thermal Decomposition Method , 2009 .
[11] Harold H. Demarest,et al. Cube‐Resonance Method to Determine the Elastic Constants of Solids , 1971 .
[12] O. Vizika,et al. Macroscopic Conductivity of Vugular Porous Media , 2002 .
[13] H. Nakajima,et al. Sound absorption characteristics of lotus-type porous copper fabricated by unidirectional solidification , 2004 .
[14] A. A. Cosner,et al. Effective Thermal Conductivities of Fibrous Composites , 1981 .
[15] T. Unagami,et al. Structure of Porous Silicon Layer and Heat‐Treatment Effect , 1978 .
[16] J. Beech,et al. The development of blowholes in the ice/water/carbon dioxide system , 1975 .
[17] A. Evans,et al. Porous and cellular materials for structural applications , 1998 .
[18] K. Murakami,et al. Anisotropic mechanical properties of porous copper fabricated by unidirectional solidification , 2001 .
[19] K. Phani. Young's modulus-porosity relation in gypsum systems , 1986 .
[20] H. Bergmann,et al. Mechanical properties of structures of semifinished products joined to aluminium foams , 2001 .
[21] A. Makaya,et al. Study on the production of Fe–Cr–Mn–C–Si foam by nitrogen solubility difference between the liquid and solid phases , 2005 .
[22] E. Fromm,et al. Gases and carbon in metals , 1980 .
[23] K. Nagata,et al. Discontinuity in normal spectral emissivity of solid and liquid copper at the melting point , 1997 .
[24] H. Nakajima,et al. Fabrication of Porous Copper with Directional Pores through Thermal Decomposition of Compounds , 2008 .
[25] J. Simmons,et al. Overview: high-nitrogen alloying of stainless steels , 1996 .
[26] H. Nakajima,et al. Measurement and analysis of effective thermal conductivities of lotus-type porous copper , 2004 .
[27] H. Nakajima,et al. Fabrication of lotus-type silver with directional pores by unidirectional solidification in oxygen atmosphere , 2005 .
[28] K. Murakami,et al. Fabrication of porous copper by unidirectional solidification under hydrogen and its properties , 2001 .
[29] A. Boccaccini,et al. Determination of stress concentration factors in porous materials , 1996 .
[30] G. Mala,et al. Pressure-driven water flows in trapezoidal silicon microchannels , 2000 .
[31] A. Agogino. Notch Effects, Stress State, and Ductility , 1978 .
[32] I. Ohno,et al. FREE VIBRATION OF A RECTANGULAR PARALLELEPIPED CRYSTAL AND ITS APPLICATION TO DETERMINATION OF ELASTIC CONSTANTS OF ORTHORHOMBIC CRYSTALS , 1976 .
[33] Henry Eyring,et al. Hydrogen in metals , 1948 .
[34] Robert E. Reed-Hill,et al. Physical Metallurgy Principles , 1972 .
[35] H. Nakajima,et al. Weld fusion property of lotus-type porous copper by laser beam irradiation , 2003 .
[36] H. Inui,et al. High-temperature structural intermetallics , 2000 .
[37] H. Nakajima,et al. Vibration–damping capacity of lotus-type porous magnesium , 2006 .
[38] C. J. Smithells,et al. Smithells metals reference book , 1949 .
[39] H. Kleebe,et al. Grain‐Boundary Viscosity of Preoxidized and Nitrogen‐Annealed Silicon Carbides , 2004 .
[40] Hirotsugu Ogi,et al. Contactless mode-selective resonance ultrasound spectroscopy: Electromagnetic acoustic resonance , 1999 .
[41] Charles S. Smith,et al. Ultrasonic equation of state of iron: I. Low pressure, room temperature , 1966 .
[42] H. Nakajima,et al. Characteristics of Sound Absorption in Lotus-Type Porous Magnesium , 2004 .
[43] Shinsuke Suzuki,et al. Effect of transference velocity and hydrogen pressure on porosity and pore morphology of lotus-type porous copper fabricated by a continuous casting technique , 2007 .
[44] H. Nakajima,et al. Elastic constants of lotus-type porous magnesium: Comparison with effective-mean-field theory , 2004 .
[45] H. Nakajima,et al. Internal friction in lotus-structured porous copper with hydrogen pores , 2003 .
[46] C. Tien,et al. Effects of thermal dispersion on forced convection in fibrous media , 1988 .
[47] H. Nakajima,et al. Tensile deformation of anisotropic porous copper with directional pores , 2010 .
[48] Lawrence H. Bennett,et al. Binary alloy phase diagrams , 1986 .
[49] D. R. Turner. Electropolishing Silicon in Hydrofluoric Acid Solutions , 1958 .
[50] H. Feichtinger,et al. On the Solubility of Nitrogen in Liquid Iron and Steel Alloys Using Elevated Pressure / Über die Löslichkeit von Stickstoff in Eisen- und Stahllegierungen unter erhöhtem Druck , 1991 .
[51] H. Nakajima,et al. Evaluation of elastic and thermoelastic properties of lotus-type porous metals via effective-mean-field theory , 2006 .
[52] H. Nakajima,et al. Heat Transfer Capacity of Lotus-type Porous Copper Heat Sink for Air Cooling , 2010 .
[53] H. Nakajima,et al. Fabrication of lotus-type porous iron and its mechanical properties , 2004 .
[54] T. Ichitsubo,et al. Effective-mean-field approach for macroscopic elastic constantsof composites , 2004 .
[55] A. G. Cullis,et al. Visible light emission due to quantum size effects in highly porous crystalline silicon , 1991, Nature.
[56] Y. Levinsky. Pressure Dependent Phase Diagrams of Binary Alloys , 1997 .
[57] H. Nakajima,et al. Fabrication of Porous Iron by Unidirectional Solidification in Nitrogen Atmosphere , 2002 .
[58] R. Peterson. Stress Concentration Design Factors , 1953 .
[59] Martin L. Dunn,et al. Elastic constants of textured short-fiber composites , 1996 .
[60] J. Banhart. Manufacture, characterisation and application of cellular metals and metal foams , 2001 .
[61] J. C. Fisher. The Fracture of Liquids , 1948 .
[62] B. Chalmers. Principles of Solidification , 1964 .
[63] Shripad P. Mahulikar,et al. Experimental verification of the role of Brinkman number in microchannels using local parameters , 2000 .
[64] H. Nakajima,et al. Fabrication of lotus-type porous stainless steel by unidirectional solidification under hydrogen atmosphere , 2002 .
[65] H. Nakajima,et al. Anisotropic yield behavior of lotus-type porous iron: Measurements and micromechanical mean-field analysis , 2005 .
[66] Michael F. Ashby,et al. Cellular metals and metal foaming technology , 2001 .
[67] H. Nakajima,et al. Fabrication of Lotus-type Porous Ni3Al Intermetallics , 2004 .
[68] B. Chalmers,et al. How Water Freezes , 1959 .
[69] A. Sangani,et al. Transport Processes in Random Arrays of Cylinders. I. Thermal Conduction , 1988 .
[70] L. Gibson,et al. The tensile strength of porous copper made by the GASAR process , 1996 .
[71] Ernst Behrens,et al. Thermal Conductivities of Composite Materials , 1968 .
[72] H. Nakajima,et al. Anisotropic compressive properties of porous copper produced by unidirectional solidification , 2003 .
[73] H. Nakajima,et al. Fabrication of lotus-type porous silicon by unidirectional solidification in hydrogen , 2004 .
[74] T. Lu,et al. Sound absorption in metallic foams , 1999 .
[75] Bending properties of porous copper fabricated by unidirectional solidification , 2004 .
[76] PengSheng Wei,et al. Shape of a pore trapped in solid during solidification , 2000 .
[77] M. Koiwa,et al. TWIST EFFECT OF V-H, Nb-H AND Ta-H ALLOYS ASSOCIATED WITH THE PRECIPITATION OF HYDRIDES , 1983 .
[78] Ya. E. Geguzin,et al. Crystallization of a gas-saturated melt , 1981 .
[79] V. Raghavan. Phase diagrams of ternary iron alloys , 1987 .
[80] H. Nakajima,et al. Fabrication of Lotus-Type Porous Brass by Zinc Diffusion into Porous Copper , 2003 .
[81] K. Murakami,et al. Evaluation of porosity in porous copper fabricated by unidirectional solidification under pressurized hydrogen , 2001 .
[82] H. Nakajima,et al. Fabrication of lotus-type porous stainless steel by continuous zone melting technique and mechanical property , 2005 .
[83] K. Murakami,et al. Formation of Pores during Unidirectional Solidification of Water Containing Carbon Dioxide. , 2002 .
[84] K. Murakami,et al. Direct observation of pore growth in unidirectionally solidified water-carbon dioxide solution , 2003 .
[85] J. Kováčik,et al. Aluminium foam—modulus of elasticity and electrical conductivity according to percolation theory , 1998 .
[86] H. Nakajima,et al. Anisotropic elastic constants of lotus-type porous copper: measurements and micromechanics modeling , 2002 .