H25 年度文献

Intermetallics, 42 (2013), 32-34.
17) Capec, J.: Properties of porous magnesium prepared

1. 作製プロセス
1) Elahi, S.H. et al.: Investigating viscosity variations ofby powder metallurgy, Mater. Sci. Eng. C, 33 (2013),564-569.

molten aluminum by calcium addition and stirring,
Mater. Lett., 91 (2013), 376-378.

18) Yamada, T. et al.: Preparation of micro-porous Si
particles from Mg2Si powder, Mater. Lett., 98 (2013),

2) Heim, K. et al.: Drainage of particle-stabilizedaluminium composites through single films and157-160.
19) 阪上雅昭: 繊維を用いた金属ポーラス材料とそ

plateau borders, Colloids Surfaces A, 438 (2013), 8592.の応用, 第 2 回ポーラス材料研究討論会概要,(2013), 7.

3) Mu, Y.L. et al.: Metal foam stabilization by coppercoated carbon fibers, Scripta Mater., 68 (2013), 459-

20) 吉村英徳ほか: ボールチェーン状鈴形 MHS 成形体の開発, 64 回塑加連講論, (2013), 369-370.

462.
4) 関戸健治ほか: 溶湯発泡法で作製されたポーラ

21) 村上太一ほか: 溶融スラグのフォーミングと還元プロセスによる多孔質鉄の開発, 64 回塑加連ス Zn-22Al 超塑性合金のセル形態に及ぼす発泡条件の影響, 日本金属学会誌, 77 (2013), 497-502.

講論, (2013), 373-374.
22) 鈴木進補ほか: ショットピーニングによるロー5) Kumar, G.S.V. et al.: Reduced-pressure foaming ofaluminum alloys, Metall. Mater. Trans. A, 44 (2013),

タス銅のノンポーラススキン層形成機構と強化,
64 回塑加連講論, (2013), 355-356.

419-426.
6) Fan, X.L. et al.: Bubble formation at a submerged23) 宇都宮登雄ほか: 摩擦攪拌法による ADC12 フォームコアサンドイッチパネルの作製と引張り特orifice for aluminum foams produced by gas injection
method, Metall. Mater. Trans. A, 44 (2013), 729-737.

性, 日本金属学会誌, 77 (2013), 385-390.
24) 齋藤雅樹ほか: 摩擦圧接によるポーラスアルミ

7) Yang, F. et al.: Pore formation and compressive
deformation in porous TiAl–Nb alloys containing

ニウム / 薄肉パイプ複合部材の創製, 機論 A,79 (2013), 1066-1070.

directional pores, Mater. Design, 49 (2013), 755-760.
8) Zhang, X.M. et al.: Fabrication of a three-25) 齋藤公佑ほか: Al/Al-Mg-Si/Al-Si-Cu 合金からなる 3 層傾斜機能ポーラスアルミニウムの機械的dimensional bimodal porous metal, Mater. Lett., 106(2013), 417-420.

特性, 日本金属学会誌, 77 (2013), 430-434.
26) Yilbas, B.S. et al.: Laser hole cutting in aluminum

9) Hayashida, T. et al.: Fabrication of porous AlCualloys with aligned unidirectional pores by dipping

foam: Influence of hole diameter on thermal stress,Opt. Lasers Eng., 51 (2013), 23-29.

pipes in melt and semi-solid slurry, Mater. Trans., 54(2013), 2102-2108.

2. 機械的性質27) 竹腰功ほか：アルミニウムフォームサンドイッ

10) Ichikawa, J. et al.: Compressive properties of porousaluminum alloy fabricated by joining pipes and melt

チの部分圧縮成形における変形挙動，64 回塑加
連講論(2013), 363-364．

through continuous casting, Mater. Sci. Forum, 761(2013), 151-155.

28) 鎌田裕仁ほか：ADC12 ポーラス Al/緻密 ADC6
板サンドイッチパネルの気孔率と引張強度の関11) 羽賀俊雄ほか: アルミニウム合金の通孔材，64
回塑加連講論，(2013), 375-376.

係，64 回塑加連講論, (2013), 365-366．
29) 圖子田幸佑ほか：摩擦発熱現象を利用したポー

12) Bafti, H. et al.: Compressive properties of aluminum
foam produced by powder-Carbamide spacer route,

ラス Al の作製およびツール走査による大型化の検討，64 回塑加連講論, (2013), 361-362．

Mater. Design, 52 (2013), 404-411.
13) Li, B.Q. et al.: Effect of pore structure on the30) 岸本哲ほか：ハイブリッド化新規機能付与ツールとしてのポーラス材料を用いた材料特性制御，

compressive property of porous Ti produced bypowder metallurgy technique, Mater. Design, 50

64 回塑加連講論, (2013), 371-372．
31) 関戸健治ほか：ポーラス Zn-22Al 合金の超塑性(2013), 613-619.
14) Hangai, Y. et al.: Friction powder compaction process

特性に及ぼすセル形態の影響, 64 回塑加連講論,(2013), 377-378．

for fabricating open-celled Cu foam by sinteringdissolution process route using NaCl space holder,32) Fielder, T. et al.：Mechanical properties and microdeformation of sintered metal hollow sphere structure,

Mater. Sci. Eng. A, 585 (2013), 468-474.
15) 久米裕二ほか：ポーラスアルミニウムの圧縮特Comp. Mat. Sci., 74 (2013), 143-147.
33) Riegel, H. et al. ： Laser beam welded sandwich性に及ぼす合金組成およびスキン層の影響, 軽金属, 63-12 (2013), 446-451.

structures
withhollowsphere
core,
Materialwissenschft unt Werkstofftechnik, 44 (2013),16) Kobashi, M. et al.: Hierarchical open cellular porous
TiAl manufactured by space holder process,481-490.
34) Kashef, S. et al.: Fracture mechanics of stainless steel

foams, Mater. Sci. Eng. A, 578 (2013), 115-124.
35) Yu, M. et al.: Effects of particle clustering on the49) Smith, D.S. et al.: Thermal conductivity of porous
materials, J. Mater. Res. 28-17 (2013), 2260-2272.

tensile properties and failure mechanisms of hollow
spheres filled syntactic foams: A numerical50) Klostermann, J. et al.: Meshing of porous foam
structures on the micro-scale, Engineering withinvestigation by microstructure based modeling,
Mater. Design, 47 (2013), 80-89.

Computers, 29 (2013), 95-110.
51) Storm, J. et al.: Geometrical modelling of foam36) Karagiozova, D. et al.: Compaction of metal foam
subjected to an impact by a low-density deformablestructures using implicit functions, Int. J. Solids
Structures, 50 (2013), 548-555.

projectile, Int. J. Impact Eng., 62 (2013), 196-209.
37) Maîtrejean, G. et al.: Density dependence of the

3. 熱，電気，その他の性質
52) Tian, Y. et al.: Thermal and energetic analysis ofsuperelastic behavior of porous shape memory alloys:
Representative volume element and scaling relation

metal foam-enhanced cascaded thermal energy
storage (MF-CTES), Int. J. Heat Mass Transfer, 58

approaches, Computational Mater. Sci., 77 (2013),93-101.

(2013), 86-96.
53) Liu, Z. et al.: Numerical modeling for solid-liquid38) Costas, M. et al.: Static and dynamic axial crushinganalysis of car frontal impact hybrid absorbers, Int. J.

phase change phenomena in porous media: Shelland-tube type latent heat thermal energy storage,

Impact Eng., 62 (2013), 166-181.
39) Qi, C. et al.: Numerical simulation of force

Appl. Energy, 112 (2013), 1222-1232.
54) Bianchi, E. et al.: Heat transfer properties of metalenhancement by cellular material under blast load,
Adv. Mech. Eng., (2013), 1-10.

foam supports for structured catalysts: Wall heattransfer coefficient, Catalysis Today, 216 (2013),

40) Betts, C. et al.: The effect of morphologicalimperfections on damage in 3D FE analysis of open-121-134.
55) Kamath, P. M. et al.: Convection heat transfer fromcell metal foam core sandwich panels, Int. J. Mech.
Sci., 75 (2013), 377-387.

aluminum and copper foams in a vertical channel-Anexperimental study, Int. J. Thermal Sci., 64 (2013), 1-41) Lainé, C. et al.: Analytical, numerical andexperimental study of the bifurcation and collapse

10.
56) Madani, B. et al.: Experimental analysis of upward

behavior of a 3D reinforced sandwich structure underthrough-thickness compression, ibid, 67 (2013), 42-flow boiling heat transfer in a channel provided withcopper metallic foam, Appl. Thermal Eng., 52 (2013),

52.
42) Xia, F. et al.: Numerical simulation of impact

336-344.
57) Odabaee M. et al.: Metal foam heat exchangers forresponses on through-thickness stitched foam core
sandwich composite, Appl. Comp. Mater., 20 (2013),

thermal management of fuel cell system – Anexperimental study, Experimental Thermal and Fluid

1041-1054.
43) Jing, L. et al.: Energy absorption and failure

Science, 51 (2013), 214-219.
58) Mendes, M. A. A. et al.: A simple and efficientmechanism of metallic cylindrical sandwich shells
under impact loading, Mater. Design, 52 (2013), 470-

method for the evaluation of effective thermalconductivity of open-cell foam-like structure, Int. J.

480.
44) Wang, J. et al.: Failure analysis of hydroforming ofHeat Mass Transfer, 66 (2013), 412-422.
59) Fiedler, T. et al.: Experimental analysis on thesandwich panels, J. Manufacturing Processes, 15(2013), 256-262.

thermal anisotropy of syntactic hollow spherestructures, Experimental Thermal and Fluid Sci., 4445) Hosseini, S.M.H. et al.: Numerical simulation ofLamb wave propagation in metallic foam sandwich(2013), 637-641.
60) Gong, L. et al.: Thermal conductivity of highly

structures: a parametric study, Comp. Structures, 97(2013), 387-400.

porous mullite material, Int. J. Heat Mass Transfer,
67 (2013), 253-259.

46) Su, Y. et al.: A geometry factor for natural convection
in open cell metal foam, Int. J. Heat Mass Transfer,

61) Shimizu, T. et al.: Thermal conductivity of highporosity alumina refractory bricks made by a slurry62 (2013), 697-710.
47) Ghafarian, M. et al.: Analysis of heat transfer ingelation and foaming method, J. Euro. Ceramics Soc.,
33 (2013), 3429-3435

oscillating flow through a channel filled with metal
foam using computational fluid dynamics, Int. J.

62) Navacerrada, M. A. et al.: Thermal and acoustic
properties of aluminum foams manufactured by theThermal Sci., 66 (2013), 42-50.
48) Lin, W. et al.: A performance analysis of porous

infiltration process, Appl. Acoustics, 74 (2013), 496501.

graphite foam heat exchangers in vehicles, Appl.
Thermal Eng., 50 (2013), 1201-1210.

63) Carlesso, M. et al.: Improvement of sound absorption
and flexural compliance of porous alumina-mulliteceramics by engineering the microstructure andsegmentation into topologically interlocked blocks, J.
Euro. Ceramics Soc., 33 (2013), 2549-2558.
4. ナノポーラス材料
64) Daniel, C. et al.: Monolithic nanoporous crystalline
aerogels, Macromol. Rapid Commun., 34 (2013),
1194-1207.
65) Md Jani, A. M. et al.: Nanoporous anodic aluminium
oxide: Advances in surface engineering and emerging
applications, Prog. Mater. Sci., 58 (2013), 636-704.
66) Na, K. et al.: Recent advances in the synthesis ofhierarchically nanoporous zeolites, Microporous
Mesoporous Mater., 166 (2013), 3-19.
67) Zhang, X. et al.: Unsupported nanoporous gold forheterogeneous catalysis, Catal. Sci. Technol., 3(2013), 2862-2868.
68) Hakamada, M. et al.: Fabrication, microstructure, andproperties of nanoporous Pd, Ni, and their alloys bydealloying, Crit. Rev. Solid State Mater. Sci., 38(2013), 262-285.
69) Patel, H. A. et al.: Unprecedented high-temperature
CO2 selectivity in N2-phobic nanoporous covalentorganic polymers, Nat. Commun., 4 (2013), 1357.
70) Qiu, X. et al.: Selective separation of similarly sized
proteins with tunable nanoporous block copolymer
membranes, ACS Nano, 7-1 (2013), 768-776.
71) Hou, Y. et al.: Ultrahigh capacitance of nanoporous
metalenhancedconductivepolymer
pseudocapacitors, J. Power Sources, 225 (2013), 304310.
5. 工業的応用72) 松田一晃ほか: ロータス型ポーラス銅の構造および機械的性質に及ぼすショットピーニング加工の影響, 銅と銅合金, 52-1(2013), 92-96.
73) 松本 良ほか: 摩擦撹拌インクリメンタルフォーミング法により成形された表面緻密層を有する発泡アルミニウムの圧縮特性, 64 回塑加連講論, (2013), 351-352.
74) 金谷重宏ほか: 粉末焼結積層造形法による発泡アルミニウムへの表面緻密層の形成, 64 回塑加
連講論, (2013), 353-354.
75) Crupi, V. et al.: Comparison of aluminium
sandwiches for lightweight ship structures:
Honeycomb vs. Foam, Marine Structures, 30 (2013),
74-96.
76) Quadrini, F. et al.: Numerical simulation of laser
bending of aluminum foams, Key Eng. Mater., 554557 (2013), 1864-1871.
77) Utsunomiya, H. et al.: Lubrication using porous
surface layer for cold drawing of steel wire, CIRP
Annals - Manufacturing Technol., 62-1 (2013), 235238.