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The Development of UMo/Al Dispersion Fuel Xiao Liu1, a, Da zhi Qian1,b and Tie cheng Lu2,c 1Institute of Nuclear Physics and Chemistry, China Academy of Engineering Physics, Mianyang 621900,China 2Physics Department of Sichuan University, Key Laboratory for Radiation Physics and Technology of the Education Ministry, Chengdu 610064, China aemail:liuxiao6161@163.com, bemail:qiandazhi@126.com, cemail: lutiecheng@vip.sina.com Keywords: UMo dispersion fuel, high uranium density fuel, interaction layer, irradiation swelling.
RRFM is an international forum for researchers, operators and decision-makers to discuss all significant aspects of research reactor utilization and help improve operational efficiency and fuel safety.
Advanced Test Reactor [60-61].The experiments appear to have behaved acceptably.
The Development of UMo/Al Dispersion Fuel in China In China, Nuclear Power Institute of China(NPIC),China Academy of Engineering Physics(CAEP),202 plant,China Institue of Atomic Energy have carried out the study of UMo fuel.202 fuel plant and China Institute of Atomic Energy have done some works only on the UMo alloy powder preparation.
Acknowledgements This work was financially supported by National Science Foundation of China (11005094) and Science Foundation of China Academy of Engineering Physics(2010B0103007).

In total, it accounts for almost 20% of the total manufacturing output of the economy, and it is also an important source of advanced technology and skills development for the rest of the manufacturing sector.
For instance, engineering design has shifted offshore, as has various testing and quality functions.
It is not an incremental technology upgrade from where domestic production foundries are at the moment, but would require substantial investment in automated plant, equipment and in engineering skills.
This demonstrates that not only engineering innovation and policy interventions are needed, but that business and strategic innovation will be required to recapture lost market share.
The NFTN and AFSA are much closer to the reality of the automotive foundries and must continue to participate in various automotive and policy fora to promote the automotive sector.

The majority of the high-performance Cu alloy consist of Cu-Be, Cu-Ti, Cu-Ni-Al, Cu-Ni-Si, Cu-Ni-Mn, and Cu-Ni-Sn series,etc[2], which have been widely applied in the fields of aeronautics/astronautics, electric engineering, satellite navigation, and radar systems, etc.[3] Cu-Ni-Sn series alloys are a typical type of amplitude decomposition reinforced alloy[4], and have become a research hotspot at home and abroad because of its excellent physical and chemical properties.
Corresponding author: LIU Fuping (1963- ), professor, mainly engaged in the research and development of metal materials, powder metallurgy and advanced powder welding materials.
Effect of alterative and homogenization on the microstructure of Cu-20Ni-5Sn alloy[C]// Materials Science Forum.
Effect of heat treatment on microstructure and properties of Cu-15Ni-8Sn alloys, Rare Metal Materials and Engineering, 147(2018) 286-291
Constitutive analysis in hot working, Materials Science and Engineering A, 322(2002) 43-63

The melting simulation process seems to be very complex for engineers because it involves thermal driven flow coupled with a moving interface.
The importance of cooling can not be overemphasized in order to achieve desired thermal performance in engineering and industrial area such as atomic reactors, power manufacturing, pharmaceutical industries, industrial cooling, and so on.
Gbadeyan et al. [18] advanced on [17] by including variable thermal conductivity and viscosity to study Casson nanofluid flow with convective heating and velocity slip.
Kumar, Melting and heat absorption effects in boundary layer stagnation-point flow towards a stretching sheet in a micropolar fluid, Ain Shams Engineering Journal, 9 (2018) 861–868
Defect and Diffusion Forum, 393 (2019) 103-120

The Effect of Leaching Time on ZrO2 Synthesis through Alkali Fusion and Acid Leaching Erlina Yustanti1,2,a*, Lestari Artrisanti1,b and Eko Sulistiyono3,c 1Department of Metallurgical Engineering, Faculty of Engineering, Sultan Ageng Tirtayasa University, Jl.
Sudirman KM. 03, Cilegon Banten 42435, Indonesia 2Nanomaterials and Process Technology Laboratory, Centre of Excellence, Faculty of Engineering Sultan Ageng Tirtayasa University, Jl.
You, RSC Advances In situ spectroscopic studies of decomposition of ZrSiO4 during alkali fusion process using various, RSC Advances.
Paschoal, High Purity Zirconia and Silica Powders via Wet Process: Alkali Fusion of Zircon Sand, Materials Science Forum, (2008) 591–593, p. 771–776. doi: 10.4028/www.scientific.net/MSF.591-593.771

At present, there are various submarine engineers in the sea seismic areas.
Acknowledgements This paper was supported by the Scientific Research Key Project of the Shandong Province’s Geoscience Forum (LDXHLT-2008-10-001) and the Geological Survey Project of CGS (200213000022).
[5] Hongshui TIAN, Zhongjie WAN, Hualin WANG: Geological Review Vol. 49(2003), p. 123-131(in Chinese) [6] Hongshui TIAN, Zengqi ZHANG, Banghua ZHANG, et al.: Geology in China Vol. 33(2006), p. 1137-1143(in Chinese) [7] Hongshui TIAN, Hongkui LI, Zengqi ZHANG, et al.: Acta Geoscientica Sinica Vol. 28(2007), p. 496-506(in Chinese) [8] Hongshui TIAN, Banghua ZHANG, Jiewang ZHU, et al.: Journal of Palaeogeography Vol. 13(2011), p. 645-656(in Chinese) [9] Hongshui TIAN, Jing YUAN, Shenhe ZHANG, et al.: Acta Sedimentologica Sinica Vol. 24(2006), p. 496-501(in Chinese) [10] Hongshui TIAN, Zengqi ZHANG: Chinese Journal of Geotechnical Engineering Vol. 27(2005), p. 1453-1457(in Chinese) [11]Pratt B R: Sedimentary Geology Vol. 117(1998), p.1-10 [12] Xiufu QIAO, Haibing LI: Journal of Palaeogeography Vol. 11(2009), p. 593-610 (in Chinese) [13] Xiaonan GONG: Advanced Soil Mechanics.
(in Chinese ) [14] Minghua Zhao, Xiao Yu: Soil Mechanics and Foundation Engineering. ( Wuhan University of Science and Technology Press, China 2009).

Basalt Reinforced Plastic - Development and Modeling of Part VOSÁHLO Josef1,a*, RYVOLOVA Martina1,b 1Institute for Nanomaterials, Advanced Technology and Innovation, Bendlova 1407/7, Liberec, Czech Republic ajosef.vosahlo@tul.cz, bmartina.ryvolova@tul.cz Keywords: technical fibers, basalt fibers reinforced plastics, mechanical properties, tensile strength, weight reduction, FEM model Abstract.
The wide range of basalt fibers properties allows application of in various areas: civil engineering, automotive, wind turbine blades, production of high-pressure vessels, wastewater filters, corrosion resistant tanks and pipes.
Fibrous and Composite Materials for Civil Engineering Applications, Woodhead Publishing Series in Textiles, 2011, Pages 3-28, https://doi.org/10.1533/9780857095583.1.3
Basalt fiber reinforced hybrid polymer composites, Mater Sci Forum, 2005; 473–474:59–66

Comprehensive Analysis of Clean Mobility Technologies, Sustainability Evaluation, Pathways, and Policies for Transitioning Energy Markets for Sustainable Development Mukesh Kumar1,a*, Nadeem2,b, Vivek Solanki3,c and Abhishek4,d 1-4Department of Mechanical Engineering, Satyug Darshan Institute of Engineering and Technology, Faridabad-121002, Haryana, India.
The amended “algorithm” for the “employment rate” of “urban residents”, the quantity of “persons accommodated”, and the financial income is “more reasonable”, signifying that the “algorithm” can progress the “sustainability” of the “urban tourism environment” [19].Emerging economies often face severe environmental degradation, which hinders their sustainable development into “advanced economies”.
With four published volumes, the journal has established itself as a well-regarded forum for multidisciplinary research in energy and environment.
Results in Engineering 19 (2023) 101344. https://doi.org/10.1016/j.rineng.2023.101344

Belhamel, ‘’ Use of On/Off Mode for Regulation of a Solar Heating System for Building ’’, Procedia Engineering, Vol. n°33, (2012), 313-320. doi: 10.1016/j.proeng.2012.01.1209
Aour, Numerical Simulation of heat Exchanges for a desert house Type Adrar, Advanced Engineering Forum, Vol. n°24, (2017), 63-75. doi: org/10.4028/www.scientific.net/AEF.24.63
Ben boudjema, ‘’ Evaluation of the contribution of boundary and initial conditions in the chemo-thermal analysis of a massive concrete structure’’, Engineering Structures, Vol n°80, (2014), 173-188. doi: org/10.1016/j.engstruct.2014.08.050

Effect of Grain Size on the Fracture Toughness of Bimodal Nanocrystalline Materials Yingguang Liu1,a*, Xiaodong Mi1,b, Songfeng Tian1,c 1School of Energy and Power Engineering, North China Electric Power University, Baoding 071003, Hebei, People’s Republic of China ayingguang266@126.com, bmixiao.dong@163.com, ctiansongfeng@163.com Keywords:Bimodal nanocrystalline materials; Cohesive zone; Fracture toughness; Grain size Abstract:To research the effect of grain size on the fracture toughness of bimodal nanocrystalline (BNC) materials which are composed of nanocrystalline (NC) matrix and coarse grains, we have developed a theoretical model to study the critical stress intensity factor KΙC (which characterizes toughness) of BNC materials by considering a typical case where crack lies at the interface of two neighboring NC grains and the crack tip intersect at the grain boundary of the coarse grain, the cohesive zone size is assumed to be equal to the grain size d of the NC matrix.
As the deficiency of low ductility and the associated loss of toughness in some materials stop their applications in engineering.
According to engineering practice and theoretical experience, people always build a composite structure to enhance the ductility of such materials [6-8].
McSpadden, Characterization techniques for composites and other advanced materials, Composites: Part B 30 (1999) 631–646
Forum 553 (1992) 88–90