１．製法プロセス
1.1 溶湯法1)

16) Paulin, I.: Synthesis and characterization of Al foams
produced by powder metallurgy route using dolomite

Byakova, A. et al.: The role of foaming agent andprocessing route in mechanical performance ofand titanium hydride as a foaming agents, Mater. andtech., 48 (2014) 943–947.

fabricated aluminum foams, Procedia Mater. Sci., 4(2014), 109-114.

17) Shiomi, M., et al.: Forming of aluminum foams byusing rotating mold, Procedia Eng., 81 (2014)

Byakova, A. et al.: Fabrication method for closed-cellaluminium foam with improved sound absorption

664-669.
18) 半谷禎彦ほか: マルチパス摩擦粉末焼結法によるability, ibid., 4 (2014), 9-14.
Fukui, T. et al.: Fabrication of Al-Cu-Mg alloy foams

ポーラスアルミニウム板の作製，日本機械学会論文集, DOI:10.1299/transjsme.14-00600.

using Mg as thickener through melt route andreinforcement of cell walls by heat treatment, ibid., 419) Hangai, Y., et al.: Large-scale aluminum foam platefabricated by enhanced friction powder compaction(2014), 33-37.
4) 福井貴明ほか: A2024 と A7075 を用いた発泡材料

process based on sintering and dissolution process, J.
Mater. Proc. Tech., 214 (2014) 1721–1727.の作製と気孔率や熱処理が機械的性質に及ぼす影
響,日本機械学会論文集, 80 (2014), 1-9.

20) 圖子田幸佑ほか: ツール走査型摩擦粉末焼結法によるポーラスアルミニウムの作製，軽金属, 64

Szamel, G. et al.: Rheological behaviour of liquid
ALUHAB aluminium foams, Procedia Mater. Sci., 4(2014) 582–586.
21) 久森紀之: 初学者のためのバイオマテリアル Ⅰ.

6)(2014), 75-79.
Babcsan, N. et al.: Pilot production and properties of

バイオマテリアルの現状と応用，材料, 8 (2014)
1721-1727.

7)

ALUHAB aluminium foams, ibid., 4 (2014), 127-132.
Garcıa-Moreno, F. et al.: Analysis of liquid metal

1.3 その他製作法・塑性加工・複合化
22) 秋田恵ほか: チェーンボール状鈴形 MHS 成形体

foams through X-ray radioscopy and microgravity
experiments, Soft Matter, 10 (2014), 6955-6962.の製造法および機械特性, 65回塑加連講論, (2014),
1-2.

Heim, K. et al.: The rupture of a single liquidaluminium alloy film, Soft Matter, 10 (2014),

23) Yoshimura H., et al.: Initial load of ‘Kushidango’
metallic hollow sphere structure under compression,

4711-4716.
Yang, Q.Q. et al.: Pore structure of unidirectional

Procedia Mater. Sci., 4 (2014), 181-186.
24) 関野智之ほか: アルミニウム繊維焼結体を用いた

solidified lotus-type porous silicon, Trans. Nonferrous
Met. Soc. China, 24 (2014), 3517−3523.

衝撃吸収機構の開発 , 65回塑加連講論, (2014),
17-18.

10) Ide, T. et al.: Fabrication of porous copper withdirectional pores by continuous casting technique25) 中山昇ほか: 純アルミニウム繊維と純水の化学反応により成形した多孔質材料の機械的性質, 同上,

through thermal decomposition of hydride, Metall.
Mater. Trans., 45B (2014), 1418-1424.

(2014), 15-16.
26) 加藤公明ほか: 整形外科インプラント表面用チタ

11) Licavoli, J.L. et al. : Processing and pore growthmechanisms in aluminum Gasarites produced byン多孔体の研究, 日本機械学会2014年度年次大会
講論 (2014), J0320301.

thermal decomposition, ibid., 45A (2014), 911-917.
12) Hayashida, T. et al.: Fabrication of porous aluminum27) Murakami T., et al.: Development of porous iron basedmaterial by slag foaming and its reduction, Procedia

alloys with aligned unidirectional pores by dipping
pipes into liquid and semi-solid base metals, Procedia

Mater. Sci., 4 (2014), 27-32.
28) Utsunomiya H., et al.: Deformation processes of porous

Mater. Sci., 4 (2014), 82-86.
13) Suganuma, K. et al.: Effect of ECAE on structure andmetals and metallic foams (Review), ibid., 4 (2014),
245-249.

strength of porous A6061 alloy with aligned
unidirectional pores, Key Eng. Mater., 622-623 (2014),

29) Matsumoto R., et al.: Fabrication of nonporous layer on
surface of ALPORAS by friction stir incremental

148-154.
14) Suzuki, S. et al.: Fabrication of porous aluminum alloys

forming, ibid., 4 (2014), 239-243.
30) 金谷重宏ほか: レーザ積層造形による発泡アルミ

with aligned unidirectional pores by joining pipes andmelt through continuous casting and their mechanical

ニウム表面への樹脂緻密層の形成, 65回塑加連講論, (2014), 9-10.

2)

3)

5)

8)

9)

properties, Procedia Mater. Sci., 4 (2014), 87-91.
1.2 粉末法31) Hangai Y., et al.: Aluminum alloy foam core sandwich
panels fabricated from die casting aluminum alloy by15) Lázaroa, J., et. al.: Heat treatment of aluminium foamprecursors: effects on foam expansion and finalfriction stir welding route, J. Mater. Proc. Technol.,
214-9 (2014), 1928-1934.

cellular structure, Procedia Mater. Sci., 4 (2014)
287–292.

32) Duarte I., et al.: Dynamic and quasi-static bending
behaviour of thin-walled aluminium tubes filled with

aluminium foam, Comp. Struct., 109 (2014), 48-56.
33) Hangai Y., et al.: Fabrication of aluminum foam-filledォーム／アルミニウムフォーム相互浸透複合材料の 圧 縮 変 形 挙 動 の 解 析 ， 同 上 ， 64-11 (2014),

thin-wall steel tube by friction welding and its
compression properties, Materials, 7-9 (2014),

598-603.
49) Niu, Z. et al.: Mesh generation of porous metals from6796-6810.
34) He S.-Y., et al.: Preparation of density-graded

X-ray computed tomography volume data, J. Mech.
Sci. Technol., 28-7 (2014), 2445-2451.

aluminum foam, Mater. Sci. Eng. A, 618 (2014),496-499.

50) Amirirad, Y. et al.: Analysis of porosity-induced stressintensity factors for the evaluation of inline-computer35) Hangai Y., et al.: Fabrication and compression
properties of functionally graded foam with uniform

tomography scans of cast parts, Int. J. Adv. Manuf.
Technol., 74-9-12 (2014), 1469-1485.

pore structures consisting of dissimilar A1050 and
A6061 aluminum alloys, ibid., 613 (2014), 163-170.

51) Kadkhodapour, J. et al.: Investigating internalarchitecture effect in plastic deformation and failure

２．機械的性質
2.1 実験的研究

for TPMS-based scaffolds using simulation methods
and experimental procedure, Mater. Sci. Eng. C, Mater.

36) 小川聡ほか: 炭酸水素ナトリウムによるポーラス
Zn-22Al 超塑性合金の作製とそのセル形態，平成

Biol. Appl., 43 (2014), 587-597.
52) Winter, R.E. et al.: Plate-impact loading of cellular26塑加春講論, (2014), 105-106.
37) 小川聡ほか: 炭酸水素ナトリウム粉末を用いて作

structures formed by selective laser melting, Model.
Simul. Mater. Sci. Eng., 22-2 (2014), 025021, 1-23.

製されたポーラス Zn-22Al 合金の圧縮特性，65回
塑加連講論, (2014), 19-20.

53) Kim, K. et al.: Compliant cellular materials withcompliant porous structures: a mechanism based38) 石原綾乃ほか: 摩擦粉末焼結法によるポーラスア
ルミニウム合金の作製，同上, (2014), 11-12.

materials design, Int. J. Solids Struct., 51-23-24 (2014),
3889-3903.

39) Fei, Q., et al.: A Novel Way to prepare hollow sphereceramics, J. Am Ceram. Soc., 97-10 (2014),

54) Belhouideg, S. & Lagache, M.: Effects of thedistribution and geometry of porosity on the3341-3347.
40) Santa M. J. A., et al.: Effect of hollow sphere size

macroscopic poro-elastic behavior: Compacted
exfoliated vermiculite, Int. J. Mech., 8-1 (2014),

distribution on the quasi-static and high strain ratecompressive properties of Al-A380-Al2O3 syntactic

223-230.
55) Yibin F., et al.: Sandwiched hollow sphere structures: Afoams, J. Mater. Sci., 49-3 (2014), 1267-1278.
41) Sheng, Z. et al.: Effect of scan line spacing on porestudy of ballistic impact behavior using numericalsimulation, Proc. Inst. Mech. Eng. Part C, 228-12

characteristics and mechanical properties of porous
Ti6Al4V implants fabricated selective laser melting,(2014), 2068-2078.
３．熱，電気，その他の性質

Mater. and Des., 63 (2014), 185-193.
42) Monika, K. et al.: Mechanical properties of porous56) Mendes, M.A.A., et al: An improved model for theeffective thermal conductivity of open-cell porous

Si3N4 ceramics, Key. Eng. Mater., 586 (2014),
166-169.

foams, Int. J. Heat and Mass Trans., 75 (2014),224-230.

43) 則武孝郁ほか: 軽量中空鋼球シートサンドイッチ
構造体の曲げ特性に関する研究，平成26塑加春講57) Fiedler, T., et al: Determination of the thermal
conductivity of periodic APM foam models, ibid., 75論, (2014), 109-110.
44) 則武孝郁ほか: 軽量中空鋼球シートサンドイッチ(2014), 826-833.
58) Pia, G. & Sanna, U.: An intermingled fractal units

構 造 体の 曲げ 成形 性の 検討 , 65 回 塑加 連講 論 ,(2014), 3-4.

model to evaluate pore size distribution influence on
thermal conductivity values in porous materials, Appl.

45) Yoshida, Y., et al.: Development of metal hollow spheresandwich construction and its formability andTherm. Eng., 65 (2014), 330-336.
59) Kumar, P., et al: Determination of effective thermal

mechanical property, Key. Eng. Mater., 611/612-2(2014), 963-968.

conductivity from geometrical properties: Application
to open cell foams, Int. J. Therm. Sci., 81 (2014),

46) 中野ゆき子ほか: ポーラスアルミニウムコア充填
パイプにおける摩擦圧接の有効性, 65回塑加連講13-28.
60) Ma, M.Y., & Ye, H.: An image analysis method to論, (2014), 13-14.
2.2 解析・シミュレーション

obtain the effective thermal conductivity of metallicfoams via a redefined concept of shape factor, Appl.

47) 桑水流理ほか: ポーラスアルミニウムのイメージ
ベース有限要素解析とその精度検証，軽金属 ,Therm. Eng., 73 (2014), 1279-1284.
61) Mendes, M.A.A., et al.: Detailed and simplified models

64-11 (2014), 551-556.
48) 成瀬亘ほか: X 線 CT を用いたシンタクティックフ

for evaluation of effective thermal conductivity of
open-cell porous foams at high temperatures inpresence of thermal radiation, Int. J. Heat and MassTrans., 75 (2014), 612-624.

76) Liu, S., et al.: Design optimization of porous fibrousmaterial for maximizing absorption of sounds under62) Contento, G., et al.: The prediction of radiation heattransfer in open cell metal foams by a model based on

set frequency bands, Appl. Acoustic, 76 (2014),
319-328.

the Lord Kelvin representation, ibid., 75 (2014),
499-508.

77) Williams, P.T., et al.: Measurement of the bulk acoustic
properties of fibrous materials at high temperatures,63) Mendes, M.A.A.: Experimental validation of simplified
conduction–radiation models for evaluation ofibid., 77 (2014), 29-36.
78) Leteller, M., et al.: Tortuosity studies of cellular

Effective Thermal Conductivity of open-cell metalfoams at high temperatures, ibid., 75 (2014), 112-120.

vitreous carbon foams, Carbon, 80 (2014), 193-202.
５．ナノポーラス材料

64) Randrianalisoa, J. & Baillis: D., Thermal conductiveand radiative properties of solid foams: Traditional79) Kang, J. L. et al.: Self-grown oxy-hydroxide@
nanoporous metal electrode for high-performanceand recent advanced modelling approaches, Comptes
Rendus Physique, 15 (2014), 683-695.

supercapacitors, Adv. Mater. 26-2 (2014), 269-272.
80) Hakamada, M. et al.: Photocatalysis of ZnO deposited

Dietrich, B., et al: Optical parameters forcharacterization of thermal radiation in ceramic

on strained nanoporous Au, Appl. Phys. A 114-4(2014), 1061-1066.

65)

sponges – Experimental results and correlation, Int. J.
Heat and Mass Trans., 75 (2014), 655-665.

81) Hakamada, M. et al.: Fabrication of
nanotube/NiOx(OH)y nanocomposite bycarbonpulsed66) Wulf, R., et al: Experimental and numericaldetermination of effective thermal conductivity ofelectrodeposition for supercapacitor applications, J.
Power Sources 245 (2014), 324-330.

open cell FeCrAl-alloy metal foams, Int. J. Therm.
Sci., 86 (2014), 95-103.

82) Zhang, P. et al.: ZIF-derived in situ nitrogen-doped
porous carbons as efficient metal-free electrocatalysts67) Antenucci, A., et al: Improvement of the mechanicaland thermal characteristics of open cell aluminumfor oxygen reduction reaction, Energy Environ. Sci.
7-1 (2014), 442-450.

foams by the electrodeposition of Cu, Mater. and Des.,59 (2014), 124-129.

83) Wada T. et al., Bulk-nanoporous-silicon negativeelectrode with extremely high cyclability for68) Xiao, X., et al: Effective thermal conductivity of
open-cell metal foams impregnated with pure paraffinlithium-ion batteries prepared using a top-down
process, Nano Lett. 14-8 (2014), 4505-4510.

for latent heat storage, Int. J. Therm. Sci., 81 (2014),
94-105.

６．２次加工84) 菅沼光太郎ほか: ECAE 加工による方向性気孔を69) Zhu, Y. et al: Heat transfer measurements andcorrelation of refrigerant flow boiling in tube filled

有するポーラスアルミニウム合金の強化と変形挙動, 平成26塑加春講演, (2014), 111-112.

with copper foam, Int. J. Refrigeration, 38 (2014),215-226.

85) Matsumoto, R. et al.: Fabrication of nonporous layer
on surface of ALPORAS by friction stir incremental70) Zaragoza, G., et al.: Development of a device for themeasurement of thermal and fluid flow properties offorming, Procedia Mater. Sci., 4(2014), 239-243.
86) Kanatani, S., et al.: H.: Filling of pores of aluminumheat exchanger materials, Measurement, 56 (2014),37-49.

foam surface with aluminum powder by selective laser
melting, Key Eng. Mater., 622-623 (2014), 861-867.

71) Pranoto, I., et al.: An experimental study of flow
boiling heat transfer from porous foam structures in a87) 金谷重宏ほか: レーザ積層造形による発泡アルミ
ニウム表面への樹脂緻密層の形成, 65回塑加連講

channel, Appl. Therm. Eng., 70 (2014), 100-114.
72) Mancin, S., et al, Liquid and flow boiling heat transfer論, (2014), 9-10.
88) Takekoshi, I., et al.: Deformation behavior in die

inside a copper foam, Procedia Mater. Sci., 4 (2014),365-370.

forging of aluminum foam sandwich, Procedia Eng.,
81 (2014), 564-567.

73) Fernandez-Morales, P., et al.: A conceptual design ofenergy exchange system for recovery of residual heat89) Mata, H., et al.: Study on the forming of sandwich
shells with closed-cell foam cores, Int. J. of Mater.

using aluminum foams, ibid., 4 (2014), 371-376.
74) Li, Y., et al.: Air flow resistance and sound absorption

Form., 7-4 (2014), 413-424.
90) 田口裕規ほか: 摩擦攪拌法によって作製したポー

behavior of open-celled aluminum foams withspherical cells, ibid., 4 (2014), 187-190.

ラスアルミニウム/アルミニウム板サンドイッチ
パネルの曲げ試験, 日本機械学会2014年度年次大75) Petrone, G.. et al.: Numerical and experimental
investigations on the acoustic power radiated by

会 DVD 講演論文集, (2014), J0320304 (3 pages).
91) 久保田直之ほか: A1050と ADC12を用いた複合ポ

aluminium foam sandwich panels, Comp. Struct., 118(2014), 170-177.

ーラス Al の衝撃圧縮特性評価 , 同上 , (2014),J0320203.

92) Shiomi, M., et al.: Influence of gravity and mold shapeon molding of aluminum foams, Adv. Mater. Research,
875-877 (2014), 1280-1284.
93) Cambronero, et al.: Weld structure of joined
aluminium foams with concentrated solar energy, J.
Mater. Proc. Technol., 214-11(2014), 2637-2643.
94) Quadrini, F., et al.: Numerical simulation of laser
forming of aluminum sponges: Effect of temperatureand heat treatments, Key Eng. Mater., 611-612(2014),
981-988.