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Analysis of Sectional Girder Flexion Calculate of Tapered Canal Bi-Material CHEN Lina1,2, a *, LI Zhi3 and QIN Liqing4 1 School of Science, Wuhan University of Technology, Hubei, China 2 Hubei ChuAn Construction Co.
The sectional flexural torque analysis of Bi-material sectional girder.
Two kinds of materials such as shown in Figure 2 section： Fig.2 Schematic diagram of Bi-material section Assuming that the axial elastic ratio of inner layer 1is ,thickness is ,density is ,section inertia moment is ,the flexural torque that bear in the process of bending is,the axial elastic ratio of outer layer 2 is,thickness is , density is ,section inertia moment is ,the flexural torque that bear in the process of bending is ,total flexural torque is .
Journal of Shenyang Jianzhu University (Natural Science), 2006,22(2) :224~227 [2] Amir Z F , Sami H R.
Confinement model for axially loaded concrete confined by circular FRP tubes [J ] .Structure Journal ,2001 ,98 (4) :451 - 461

Tang., "Optimizing the hot-forging process parameters for connecting rods made of PM titanium alloy," Journal of Materials Science, 47 (2012) 3837-3848
Kopp., "Densification of sintered molybdenum during hot upsetting: experiments and modelling," Materials Science and Engineering: A, 264 (1999) 17-25
Yang, "Densification behaviour of titanium alloy powder during hot pressing," Materials Science and Engineering: A, 313 (2001) 46-52
Thomas, "A new yield function for compressible P/M materials," International Journal of Mechanical Science, 26 (1984) 527-535
Tvergaard, "On localization in ductile materials containing spherical voids," International Journal of Fracture, 18 (1982) 237-252

Integrated Phase-Field and Machine Learning Study of Microstructure Evolution During Interface-Controlled Spinodal Decomposition Owais Ahmad∗†a, Rakesh Maurya†b, Rajdip Mukherjeec, Somnath Bhowmickd Department of Materials Science and Engineering, Indian Institute of Technology Kanpur, India a*owaisah@iitk.ac.in, brakeshm22@iitk.ac.in, crajdipm@iitk.ac.in, dbsomnath@iitk.ac.in Keywords: Phase-field Model, interface mobility, machine learning, autoencoder, ConvLSTM, microstructure, spinodal decomposition.
This study leverages artificial intelligence (AI) to advance materials science, focusing on microstructural evolution in binary alloys during spinodal decomposition.
The innovative use of an Autoencoder- ConvLSTM model enables precise, low-error microstructural transformation predictions, demonstrating AI’s potential in materials science research.
Materials science is no exception to this trend, with a burgeoning research focus on employing AI for accelerated discoveries.
Hilliard, “Free energy of a nonuniform system. i. interfacial free energy,” The Journal of chemical physics, vol. 28, no. 2, pp. 258–267, 1958

Journal of Materials Processing Technology. 2004, 151:133–140
Journal of materials processing technology. 1997,63(1-3): 67-71
International Journal of Mechanic Sciences. 2001, 43 (10):2331–2347
Journal of Mechanical Sciences. 1998, 33 (1):91-97
Journal of material processing technology. 2003,139 (1):1-7

School of Materials Science and Engineering, Tianjin University of Technology, Tianjin 300384, China a. qingsuoliu@eyou.com c. 280224734@qq.com Keyword: NiTi SMA thin film; PZT; Damping; response frequency characteristic Abstract: The materials deposited NiTi SMA Thin Film on PZT Substrate is prepared by using the magnetron sputtering method and crystallizing at 600℃.
Journal of Intelligent Material Systems and Structures, 6 (1): 62-70
Materials for Mechanical Engineering, 31(9):58-60.
Mechanical and dielectric loss related to ferroelectric and relaxer phase transitions and domain walls, Chinese Journal Of Materials Research, 8(1):2-10.
Preparation and characterization of the ferroelectric-ferroelastic PZT-NiTi multilayer films, Journal of Functional Materials and Devices, 1999, 5(4):255-261.

Numerical computation of complex stress intensity factors of interface cracks in bi-materials based on photoelastic theory Pengcheng Li1,a and Bangcheng Yang1,b 1Faculty of Civil Engineering and Architecture, Kunming University of Science and Technology, Kunming 650500, China alipengcheng@kmust.edu.cn, byangbc5@163.com Keywords: complex stress intensity factor; interface crack; bi-materials; K domain; photoelastic isochromatic fringe.
In 2001 and 2012，Christina Bjerken et al.[4] and Nao-Aki Noda et al.[5] have been calculated stress intensity factors for interface cracks in bi-materials by FEM.
In this research, we made photoelastic model with an interface crack in bi-materials by epoxy material and have carried out the photoelastic experiments.
Substituting ψ into the following equations and adding a non-singular items σ0, (2) We get (3) (4) (5) In which (6) (7) In the above formulas, G1 and G2 are the shear modulus of elasticity of the two materials; μ1 and μ2 are the Poisson's ratio of the two materials.
Last, we have made into the photoelastic specimen of the bi-materials with the interface crack by the slicing, grinding and other processes.

Kant: Journal of Natural Science Vol. 04 (2012), p. 22 [2] N.
Mahmoudi: Journal of Hazardous Materials Vol. 168 (2009), p. 806-812
Ravi: Journal of Materials Letters Vol. 60 (2006), p. 1425 [16] M.
Solis: Journal of Materials Research Vol. 5 (2017), p. 1322 [17] S.
Dwivedi: Journal of Materials Science: Materials in Electronics Vol. 25 (2014), p. 1915

Research on Database for Aluminum Alloys Yuan Du 1, Gu Ping 1, Zeng Jianmin 1, a, Chen Ping 2 and Zheng Yulin 2 1 College of Materials Science and Engineering, Guangxi University, Nanning 530004, China 2 Guangxi Nannan Aluminum Co, Ltd, Nanning 530004, China a zjmg@gxu.edu.cn Keywords: Aluminum alloy; data management system; material selection; JavaEE Abstract.
Query parameters and performance of the materials according to serial number.
CEBON: Materials: Engineering, Science, Processing and Design (Butterworth-Heinemann, England, 2007) [4] C.
JOM Journal of the Minerals, Metals and Materials Society.
Oikawa: JOM Journal of the Minerals, Metals and Materials Society.

Duxson et al.: Geopolymer technology: the current state of the art, Journal of Materials Science Vol. 42 (2007), p. 2917 – 2933
Škvára et al.: Material and structural characterization of alkali activated low-calcium brown coal fly ash, Journal of Hazardous Materials Vol. 168 (2009), p. 711-720
Fernández-Jiménez et al.: Immobilization of cesium in alkaline activated fly ash matrix, Journal of Nuclear Materials Vol. 346 (2005), p. 185-193
Constantinides et al.: Grid indentation analysis of composite microstructure and mechanics: Principles and validation, Materials Science and Engineering A (2006), p. 189-202
Perera: Influence of curing schedule on the integrity of geopolymers, Journal of Materials Science Vol. 42 (2007), p. 3099-3106

It is known that the failure waves propagation always depends on the stress state in the materials.
The failure waves and spallations in homogeneous brittle materials.
Journal de Physique IV. 1991, 1(C3), p. 639
Compressive failure of brittle materials under shock wave loading.
Journal of Applied Physics. 2000, 87(4), p. 1693