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Dennis, E.L.
Latta, A.L.
Ip et. al.
Maas et al., Long-term evaluation of Bennett's fracture: A comparison between open and closed reduction, J Hand Surg, 19B (1994) 373-377
Vilcioiu, et al., Experimental evaluation on rat model of different bioresorbable materials potentially used as orthopedic biomaterials.

Pang, et al: European Polymer Journal (2019), in press
El-Sheikh: BioResources Vol. 9 (2014), pp. 8-23
Cai, et al: Industrial Crops and Products Vol. 65 (2015), pp. 27-35
Sun, et. al: Carbohydrate Polymers Vol. 37 (1998), pp. 351-359
Filho, et al: Carbohydrate Polymers Vol. 73 (2008), pp. 74-82

S., El-Kheshen, A.
A., et al.
[10] Koumpouri, D., Karatasios, I., Psycharis, V., et al.
[11] Kacimi, L., Simon-Masseron, A., Salem, S., et al.
R., et al.

The variation of the [4]Al, [5]Al and [6]Al content with Td is presented and discussed.
The respective atom percentages of [4]Al, [5]Al and [6]Al were quantified to 25, 20 and 55% [5].
The average values of and ΔCS between the three [n]Al sites show the same hierarchy whatever the temperature of deposition: ([4]Al) > ([5]Al) > ([6]Al) and ΔCS([4]Al) > ΔCS([5]Al) > ΔCS([6]Al) [20].
The structure of γ-Al2O3 is made of tetrahedral [4]Al and octahedral [6]Al sites in the atomic ratio [6]Al/[4]Al ≥ 2.
El-Mashri, L.

Meshless approximations have received much interest since Nayroles et al [42] proposed the diffuse element method.
Later, Belyschko et al [43] and Liu et al [44] proposed element-free Galerkin method (EFGM) and reproducing kernel particle methods, respectively.
Recently, Atluri et al presented a family of Meshless methods, based on the Local weak Petrov-Galerkin formulation (MLPGs) for arbitrary partial differential equations [45] with moving least-square (MLS) approximation.
[30] Franco-Nava, J.M. and El-Zafrany, A, Hyper-singular boundary element method for elastoplastic fracture mechanics analysis with large deformation.
[31] Albuquerque, E.L.; Sollero, P.; Aliabadi, M.H.

References [1] Liu A X, Wang C Y, Wang J, et al.
[6] William G Kepner, Christopher J Watts, Curtis M Edmondos, et al.
[11] Mao F, Sun H, Zhang Y H, el al.
[12] Ma C, Jiang Q G, Chen F Z, et al.
[13] Zhang C G, Pan W H, Chen H, et al.

Wang at el. [1, 3, 4] have presented methods to design optimum scarf repairs.
[4] Wang, C.H., et al., Residual strength of composite laminates containing scarfed and straight-sided holes.
[12] Shah, P.D., et al., Evaluation of Notched Strength of Composite Laminates for Structural Design.
[14] Wang, C.H., et al., Residual strength of composite laminates containing scarfed and straight-sided holes.
[15] Chishti, M., et al., Characterising fibre compression fracture toughness of composites using bearing tests.

Nakayama et al. [6] reported that apatite-type structure of compositions Ln10-xSi6O26+y (Ln = La Sm, Nd, Dy, Gd, x = 8 to 11) materials exhibited ionic conductivity.
Tao et al. [17] reported that the relative densities for La10Si6O27 sintered at 1400 0C for 20h and for a three day period have resulted in densification of 69% and 74%, theoretical density respectively.
El-Koury, et al.
Zhang et al., Low temperature solid oxide fuel cells based on Sm 0.2Ce0.8 O1.9 films fabricated by slurry spin coating, J Power Sources 159 (2006) 637-640
Aono, et al., Ionic Conductivity of Lanthanide Silicates, Ln10(SiO4)6O3 (Ln = La, Nd, Sm, Gd, Dy, Y, Ho, Er and Yb), J.

., et al. [4] reported the synthesis of cordierite from andalusite.
K., et al. [5] applied mechanical force by attrition milling on the synthesis of cordierite.
Yalamac, E. and Akkurt, S. [6] used kaolin, talc and Al(OH)3 as raw materials for cordierite synthesis and investigated the effects of raw mixture milling parameters on the final product.
Endothermic reaction peaks at 556°C and 704°C in un-milled precursors corresponded to decomposition of talc to enstatite and silica. [8, 10] In milled precursor, decomposition peak of talc shifted to 505°C due to the influence of milling process. [6] Similar results were reported by Benhammou, A., et al. and Goren, R., et al. [4, 11].
El Hafiane, A.

Dimin Xie [6] et al. provided a quadratic fitting curve model of tensile strength of concrete after high temperature (Fig. 1).
Zhuangxiao Jian et al. [7] believed that the compressive strength of concrete after high temperature gradually decreased with the increase of the highest temperature, and the residual compressive strength after high temperature was lower than that at high temperature.
Noumowe et al. [9] studied in the different of heat transfer, pore structure and thermal stability of ordinary concrete and high strength concrete, and thought the dense pore structure of high strength concrete slows down the steam loss, easy to burst between 250 ~ 300°C.
Youwang Zheng et al. [10] considered that the low melting point fiber and high melting point fiber mixed method (steel fiber, polypropylene fiber) can improve the high temperature performance of high-performance concrete.
Through fire tests on steel lining in abandoned mine tunnels, El-Arabi et al. [11] believes that the thermal characteristics of lining and stratum, especially when groundwater occurs, will have a great impact on the actual temperature distribution in the lining.