{"currentpage":1,"firstResult":0,"maxresult":10,"pagecode":5,"pageindex":{"endPagecode":5,"startPagecode":1},"records":[{"abstractinfo":"The paper reports on the observation of nanoscale <span style=\"color:red\">morphology</span> on the tensile <span style=\"color:red\">fracture</span> surface of a brittle amorphous Fe-based ribbon. The formation of nanoscale damage cavity structure is a main characteristic <span style=\"color:red\">morphology</span> on the <span style=\"color:red\">fracture</span> surfaces. Approaching the ribbon boundary, these damage cavities assemble and form the nanoscale periodic corrugations, which are neither Wallner lines nor crack front waves. The periodic corrugations result from the interactions between the reflected elastic waves by the boundaries of amorphous ribbon and the stress fields of the crack tip.","authors":[{"authorName":"Xifeng LI","id":"7d0669ff-604f-4994-8598-9417a51c7f10","originalAuthorName":"Xifeng LI"},{"authorName":" Kaifeng ZHANG","id":"cc8c1429-1c0a-46c9-bd3c-6dd17f8f3bff","originalAuthorName":" Kaifeng ZHANG"},{"authorName":" Guofeng WANG","id":"f47d228e-7c1a-4d11-9423-9609655d952c","originalAuthorName":" Guofeng WANG"}],"categoryName":"|","doi":"","fpage":"745","id":"9b9dbb59-c7fc-41c2-b451-33c32b391b32","issue":"5","journal":{"abbrevTitle":"CLKXJSY","coverImgSrc":"journal/img/cover/JMST.jpg","id":"11","issnPpub":"1005-0302 ","publisherId":"CLKXJSY","title":"材料科学技术（英文）"},"keywords":[{"id":"4caeccb8-5c47-4f9b-a4c4-16c9b6803102","keyword":"Nanoscale periodic corrugation","originalKeyword":"Nanoscale periodic corrugation"},{"id":"eee2434e-06e0-4eaf-85a2-b808874ac325","keyword":"断裂空洞","originalKeyword":"断裂空洞"},{"id":"5cc3f0d4-231d-4699-bdf1-00ebb5889a06","keyword":"拉伸断裂","originalKeyword":"拉伸断裂"}],"language":"en","publisherId":"1005-0302_2008_5_17","title":"Nanoscale <span style=\"color:red\">Morphology</span> in Tensile <span style=\"color:red\">Fracture</span> of a Brittle Amorphous Ribbon","volume":"24","year":"2008"},{"abstractinfo":"Rolling Contact Fatigue(RCF) is a cumulative damage phenomenon when metals are subjected to repeated contact stresses. The fomation of pitting on the contact surface is the result of the rolling contact fatigue. The morphologies of rolling contact fatigue <span style=\"color:red\">fracture</span> of the har- dened steels (86CrHoV7, 42CrMo) show that strong resemblance in fractuye mechanisms exists between rolling contact fatigue and uni-axial fatigue. Since fatigue striations are hardly observed in hardened steels under uni-axial fatigue, it is interesting to note that the state of stress in rolling contact fatigue is more favor- able to ductile fractures than in uni-axial fatigue.","authors":[{"authorName":"WANG Xu","id":"41d9a8d5-d6c9-4672-b894-241ccfb6be64","originalAuthorName":"WANG Xu"},{"authorName":"ZHANG Shouhua","id":"a2c92eb2-4dc7-479c-8b11-9c8cfba1c082","originalAuthorName":"ZHANG Shouhua"},{"authorName":"CUI Peiyong Beijing University of Science and Technology","id":"40e6cbf2-c964-4bdf-9e70-f7808132613c","originalAuthorName":"CUI Peiyong Beijing University of Science and Technology"},{"authorName":" Beijing","id":"625dd621-3394-4a3e-8118-d47a8908ccd8","originalAuthorName":" Beijing"},{"authorName":" China. Central Iron and Steel Research Institute","id":"596d769f-902b-4298-a5bc-8b73d9729e69","originalAuthorName":" China. Central Iron and Steel Research Institute"},{"authorName":" Beijing","id":"a6efbc3a-f548-486f-a5d1-0cffed299325","originalAuthorName":" Beijing"},{"authorName":" China.","id":"8b02ed00-3d76-4957-b237-57977e467468","originalAuthorName":" China."}],"categoryName":"|","doi":"","fpage":"85","id":"65c8a4b7-2ea5-4bf4-951c-f3dae5af172a","issue":"2","journal":{"abbrevTitle":"CLKXJSY","coverImgSrc":"journal/img/cover/JMST.jpg","id":"11","issnPpub":"1005-0302 ","publisherId":"CLKXJSY","title":"材料科学技术（英文）"},"keywords":[{"id":"fa695b63-29b1-4e45-87e5-828f7078ecec","keyword":"rolling contact","originalKeyword":"rolling contact"},{"id":"1622de11-8797-47da-94e0-04674d83ad5f","keyword":"null","originalKeyword":"null"},{"id":"f041e40c-8cd6-4bf2-8330-87f3d9161ddd","keyword":"null","originalKeyword":"null"},{"id":"b2d768f8-ca4b-463c-9ad8-c6f4d9d8406d","keyword":"null","originalKeyword":"null"},{"id":"7dac9512-c20b-49ed-b9d6-077559c257f5","keyword":"null","originalKeyword":"null"},{"id":"74cd2074-b15f-4434-b451-4f88efcd8f51","keyword":"null","originalKeyword":"null"}],"language":"en","publisherId":"1005-0302_1989_2_14","title":"The <span style=\"color:red\">Morphology</span> of Rolling Contact Fatigue <span style=\"color:red\">Fracture</span> of Hardened Steels","volume":"5","year":"1989"},{"abstractinfo":"SEM photos for very coarse grained and high ductile polycrystalline pure Al show following characteristics:A few <span style=\"color:red\">fracture</span> sources are concentrated,the crack propagates in fan-shape near them,and the fatigue striations are cyclic cleavage facets.Each striation consists of a wide cleavage facet and a narrow cleavage stage.Those stages often blunt due to plastic deformation.The fatigue striations are clear and continual,and distribute over whole zone of stage Ⅱ crack propagation.Two kinds of fatigue striations form in different levels,are conjoined by a“twisted baked piece of pastry”band.The secondary crack along the fatigue striations was observed frequently.Some of them have already developed into secondary macrocracks and secondary fatigue striations were found clearly on secondary <span style=\"color:red\">fracture</span> sur- face.The <span style=\"color:red\">fracture</span> surface can be divided into two parts,initiation and propagation zone of the crack,however,no statical-<span style=\"color:red\">fracture</span> zone was observed.The mechanism to form striations was preliminarily discussed.","authors":[{"authorName":"XIA Yuebo WANG Zhongguang State Key Laboratory for Fatigue and Failure of Materials","id":"0dd92ad8-26e2-4600-8e79-c9f04d87c08a","originalAuthorName":"XIA Yuebo WANG Zhongguang State Key Laboratory for Fatigue and Failure of Materials"},{"authorName":"Institute of Metal Research","id":"f201325b-c4a5-4d1b-a662-5379676ffc87","originalAuthorName":"Institute of Metal Research"},{"authorName":"Academia Sinica","id":"91f30646-e828-41be-a204-a047c070c32e","originalAuthorName":"Academia Sinica"},{"authorName":"Shenyang","id":"11a0ceb7-720c-4745-a93f-a9c4b994f70a","originalAuthorName":"Shenyang"},{"authorName":"China","id":"c59db995-d662-47ec-a787-da7daf273f37","originalAuthorName":"China"}],"categoryName":"|","doi":"","fpage":"330","id":"de514e79-bb7c-4c2e-9ab8-7b47d0a8c4b2","issue":"5","journal":{"abbrevTitle":"JSXBYWB","coverImgSrc":"journal/img/cover/amse.jpg","id":"49","issnPpub":"1006-7191","publisherId":"JSXBYWB","title":"金属学报(英文版)"},"keywords":[{"id":"858f347b-f681-4e11-b78e-25b083799648","keyword":"fatigue crack","originalKeyword":"fatigue crack"},{"id":"b6249572-a2af-4438-926a-01a8ce288a5b","keyword":"null","originalKeyword":"null"},{"id":"fccec46d-222a-457c-beee-bc0bca113518","keyword":"null","originalKeyword":"null"},{"id":"67033a84-34b5-4788-b1b8-bf7088153d58","keyword":"null","originalKeyword":"null"},{"id":"abc39644-846e-4007-82a7-cebe0bbcfc0e","keyword":"null","originalKeyword":"null"}],"language":"en","publisherId":"1006-7191_1992_5_10","title":"CYCLIC DEFORMATION OF COARSE GRAINED POLYCRYSTALLINE PURE Al——Ⅱ.<span style=\"color:red\">FRACTURE</span> SURFACE <span style=\"color:red\">MORPHOLOGY</span>","volume":"5","year":"1992"},{"abstractinfo":"Microstructure, precipitates and <span style=\"color:red\">fracture</span> <span style=\"color:red\">morphology</span> in the weld metal and the heat-affected zone (HAZ) of Cr18Mo2 ferritic stainless steel have been studied by means of metalloscope, SEM,TEM and X-ray diffractometer. Experimental results indicate that crystalline grain coarsening in HAZ is one of the reason resulting in the embrittlement <span style=\"color:red\">fracture</span> in the welding zone of the ferritic stainless steel. Some precipitates (TiC, TiN and Cr2N) in the steel promote production and development of the brittle cracks. In practical applications. the welding heat input should be as small as possible to prevent embrittlement caused by HAZ grain coarsening.","authors":[{"authorName":"Yajiang LI","id":"ff96e2a5-6cb9-4086-8529-657231cd72f0","originalAuthorName":"Yajiang LI"},{"authorName":" Zengda ZOU and M. Thompson (Dept. of Materials Engineering","id":"37bfe8c9-535f-4001-a3cc-9d502def72ad","originalAuthorName":" Zengda ZOU and M. Thompson (Dept. of Materials Engineering"},{"authorName":" Shandong University of Technology","id":"76ad1c26-25bb-44f2-b27a-9df26f8118aa","originalAuthorName":" Shandong University of Technology"},{"authorName":" Jinan 250061","id":"e309815e-ae8b-4a20-a1ba-f0546aee976d","originalAuthorName":" Jinan 250061"},{"authorName":" China)(To whom correspondence should be addressed)","id":"500f93f0-a463-4e14-a8dd-01d8fe9a6992","originalAuthorName":" China)(To whom correspondence should be addressed)"}],"categoryName":"|","doi":"","fpage":"452","id":"7d6fbaca-949d-4295-80ec-545a24eeb684","issue":"6","journal":{"abbrevTitle":"CLKXJSY","coverImgSrc":"journal/img/cover/JMST.jpg","id":"11","issnPpub":"1005-0302 ","publisherId":"CLKXJSY","title":"材料科学技术（英文）"},"keywords":[],"language":"en","publisherId":"1005-0302_1996_6_14","title":"Microstructure and <span style=\"color:red\">Fracture</span> <span style=\"color:red\">Morphology</span> in the Welding Zone of Cr18Mo2 Ferritic Stainless Steel","volume":"12","year":"1996"},{"abstractinfo":"Typical <span style=\"color:red\">fracture</span> <span style=\"color:red\">morphology</span> of Mg-3%Al-1%Zn (AZ31) alloy after low cycle fatigue was investigated using SEM and optical microscope. It is shown that prolific lamellar Structure in the crack initiation and Crack stable propagation zone mainly results from twinning,while dimple structure formed in the unstable crack propagation and final rupture zone is mainly due to slip. The formation mechanisms of corresponding morphologies are proposed based on twinning and detwinning processes during compressive and tensile loading half cycles, respectively, for this alloy. (C) 2008 Elsevier B.V. All rights reserved.","authors":[],"categoryName":"|","doi":"","fpage":"397","id":"cfff43c1-4130-45a0-806d-6e1f1fdaabdd","issue":"42737","journal":{"abbrevTitle":"MSAEAMPMAP","id":"29fa6a83-07f2-4d3a-af3e-fac686227352","issnPpub":"0921-5093","publisherId":"MSAEAMPMAP","title":"Materials Science and Engineering a-Structural Materials Properties Microstructure and Processing"},"keywords":[{"id":"91a29394-37de-417e-a71a-1ef627d20d18","keyword":"Magnesium alloy;Twinning and detwinning;Low cycle fatigue;<span style=\"color:red\">Fracture</span>;<span style=\"color:red\">morphology</span>;high-cycle fatigue;magnesium alloys;mechanical anisotropy;crack;growth;mg alloys;zn alloys;behavior;twins;al;ductility","originalKeyword":"Magnesium alloy;Twinning and detwinning;Low cycle fatigue;Fracture;morphology;high-cycle fatigue;magnesium alloys;mechanical anisotropy;crack;growth;mg alloys;zn alloys;behavior;twins;al;ductility"}],"language":"en","publisherId":"0921-5093_2008_42737_48","title":"The role of twinning-detwinning on fatigue <span style=\"color:red\">fracture</span> <span style=\"color:red\">morphology</span> of Mg-3%Al-1%Zn alloy","volume":"494","year":"2008"},{"abstractinfo":"Microstructure performance in the welding zone of T91 heat-resistant steel under the condition of TIG welding was researched by means of metallography, X-ray diffraction and scanning electron microscope (SEM).Experimental results indicated that microstructure of T91 weld metal was austenite + a little amount of d ferrite when using TGS-9cb filler wire.Substructure inside the austenite grain was crypto-crystal lath martensite, on which some Cr23C6 blocky carbides were distributed. The maximum hardness (HRC44) in the welding zone is near the fusion zone. There existed no obvious softening zone in the heat-affected zone (HAZ). For T91 steel tube of F63 mm×5 mm, when increasing welding heat input (E) from 4.8 kJ/cm to 12.5 kJ/cm, <span style=\"color:red\">fracture</span> <span style=\"color:red\">morphology</span> in the fusion zone and the HAZ changed from dimple <span style=\"color:red\">fracture</span> into quasi-cleavage <span style=\"color:red\">fracture</span> (QC). Controlling the welding heat input of about 9.8 kJ/cm is suitable in the welding of T91 heat-resistant steel.","authors":[{"authorName":"Yajiang LI","id":"afbe466f-3fe9-4317-a71f-ceb0014d6283","originalAuthorName":"Yajiang LI"},{"authorName":" Bing ZHOU","id":"5c2b4a7b-523f-4cd1-a0b1-731e2a549e1d","originalAuthorName":" Bing ZHOU"},{"authorName":" Tao FENG","id":"0e504861-fbea-4d01-9f09-4c63f403d913","originalAuthorName":" Tao FENG"},{"authorName":" Jiangwei REN","id":"215a0a8f-79ec-49e3-8656-c6329a445a2e","originalAuthorName":" Jiangwei REN"}],"categoryName":"|","doi":"","fpage":"427","id":"3b6d77ca-8493-4eea-9c77-2b40deb31faf","issue":"5","journal":{"abbrevTitle":"CLKXJSY","coverImgSrc":"journal/img/cover/JMST.jpg","id":"11","issnPpub":"1005-0302 ","publisherId":"CLKXJSY","title":"材料科学技术（英文）"},"keywords":[{"id":"363db00e-b7f8-4696-a6a6-24eecd57d0ed","keyword":"T91 heat-resistant steel","originalKeyword":"T91 heat-resistant steel"},{"id":"33d83337-a481-478f-a7fe-8ccd66c90807","keyword":"null","originalKeyword":"null"},{"id":"90802a99-4cb3-4ee5-b963-47883c3cf16d","keyword":"null","originalKeyword":"null"}],"language":"en","publisherId":"1005-0302_2002_5_17","title":"Microstructure and <span style=\"color:red\">Fracture</span> <span style=\"color:red\">Morphology</span> in the Welding Zone of T91 Heat-resisting Steel Used in Power Station","volume":"18","year":"2002"},{"abstractinfo":"The stress-life fatigue behavior and <span style=\"color:red\">fracture</span> <span style=\"color:red\">morphology</span> of a (CU60Zr30Ti10)(99)Sn-1 bulk-metallic glass alloy was investigated under both three-point and four-point bending conditions. For all stress levels tested, the fatigue lifetimes tended to be higher for the three-point loading condition. The fatigue endurance limits (defined as 107 cycles without failure), based on the applied stress range, for three-point and four-point loading conditions were approximately 475 MPa and 350 MPa, respectively. All <span style=\"color:red\">fracture</span> surfaces were found to be composed of four main regions: a crack-initiation site, a stable crack-growth region, an unstable fast-<span style=\"color:red\">fracture</span> region, and a melting region. Finely spaced parallel marks, similar to fatigue striations found in crystalline alloys, oriented somewhat perpendicular to the direction of crack propagation were observed in the stable crack-growth region. Analyses of these marks found that their spacing increased with increasing stress-intensity-factor range. Damage was found to initiate from preexisting defects present on or near the surface.","authors":[],"categoryName":"|","doi":"","fpage":"374","id":"58e5e5db-ea06-4ea6-811e-c7e9e0b9b5c8","issue":"2","journal":{"abbrevTitle":"JOMR","id":"155c387a-c8cb-4083-85f3-6b58aeef4116","issnPpub":"0884-2914","publisherId":"JOMR","title":"Journal of Materials Research"},"keywords":[{"id":"14d05d42-ab80-41f4-b1f7-5f3647a08c18","keyword":"crack propagation;amorphous metal;alloys;deformation;mechanisms;composite","originalKeyword":"crack propagation;amorphous metal;alloys;deformation;mechanisms;composite"}],"language":"en","publisherId":"0884-2914_2007_2_1","title":"Stress-life fatigue behavior and <span style=\"color:red\">fracture</span>-surface <span style=\"color:red\">morphology</span> of a Cu-based bulk-metallic glass","volume":"22","year":"2007"},{"abstractinfo":"Studies on the high temperature creep and <span style=\"color:red\">fracture</span> behaviours in air or in SO_2 contaminated environment for the Fe-base superalloy GH302 with flat or zigzag grain boundaries(GB) and the Ni-base superalloy Rene 80 were carried out.Although the creep rupture properties of the GH302 with zigzag GB was remarkably superior to that of flat GB in air,the properties of both droped dramatically in 10% SO_2-air environment,the creep rupture properties of the directional solidified Rene 80 were much better than that of the conventionally cast alloy in air,and also kept the same property in SO_2 contaminated environment as in air.Owing to the interaction between creep and sulphidation,the failure mechanism relates to the formation of molten Ni-Ni-3S_2 eutectic along GB,led to the premature failure of the alloy.","authors":[{"authorName":"ZHANG Yuanhu SUN Jian XIANG Yi HU Gengxiang Shanghai Jiaotong University","id":"bb361893-c405-4583-af67-6108a2dfdb8b","originalAuthorName":"ZHANG Yuanhu SUN Jian XIANG Yi HU Gengxiang Shanghai Jiaotong University"},{"authorName":"Shanghai","id":"aa0d0447-d548-4323-8a2a-5f9151db573e","originalAuthorName":"Shanghai"},{"authorName":"ChinaLI Tiefan Institute of Corrosion and Protection of Metals","id":"f621acd6-dfd1-437d-a682-57aee4450aa6","originalAuthorName":"ChinaLI Tiefan Institute of Corrosion and Protection of Metals"},{"authorName":"Academia Sinica","id":"bdacca8c-dae8-4b37-bcfa-ad94cd37108c","originalAuthorName":"Academia Sinica"},{"authorName":"Shenyang","id":"41894d08-5b96-4614-ae9f-f6571ca93737","originalAuthorName":"Shenyang"},{"authorName":"China Yuanhu","id":"31159bf0-aba6-45bc-b0af-890cdcce04d6","originalAuthorName":"China Yuanhu"},{"authorName":"Department of Materials Science and Engineering","id":"25c4b299-6604-428b-84d1-19a1ea8c9d99","originalAuthorName":"Department of Materials Science and Engineering"},{"authorName":"Shanghai Jiaotong University","id":"d16914fa-e28c-4ed9-b645-4f76229539ac","originalAuthorName":"Shanghai Jiaotong University"},{"authorName":"Shanghai","id":"f8cf7b19-aeff-4b5d-bfd6-19698285ec34","originalAuthorName":"Shanghai"},{"authorName":"200030","id":"f204562a-8f62-471b-b58e-44235dd57cab","originalAuthorName":"200030"}],"categoryName":"|","doi":"","fpage":"118","id":"0e1830ca-65a1-4d85-b997-521e66260876","issue":"2","journal":{"abbrevTitle":"JSXBYWB","coverImgSrc":"journal/img/cover/amse.jpg","id":"49","issnPpub":"1006-7191","publisherId":"JSXBYWB","title":"金属学报(英文版)"},"keywords":[{"id":"36bfc0d1-434b-43b6-89a6-6d78cf4cec6d","keyword":"superalloy","originalKeyword":"superalloy"},{"id":"d06e1cf9-c14e-46ec-8900-879329ae18dd","keyword":"null","originalKeyword":"null"},{"id":"62f15024-1907-410f-b716-b129e737445a","keyword":"null","originalKeyword":"null"},{"id":"5e125098-eded-4e4b-8bb3-51f8b1d5d32b","keyword":"null","originalKeyword":"null"},{"id":"9169356d-f862-449f-bd1d-e643eb0c1543","keyword":"null","originalKeyword":"null"}],"language":"en","publisherId":"1006-7191_1991_2_11","title":"INFLUENCE OF GRAIN BOUNDARY <span style=\"color:red\">MORPHOLOGY</span> ON CREEP AND <span style=\"color:red\">FRACTURE</span> BEHAVIOURS OF SUPERALLOYS IN SULFUR-CONTAINING ENVIRONMENT","volume":"4","year":"1991"},{"abstractinfo":"The different <span style=\"color:red\">fracture</span> features developed during quasi-static and dynamic compressive deformation of Mg-based bulk metallic glass and composite reinforced by SiC particulate were investigated. Mg-based amorphous glass fractures on one major plane and shows a planar and smooth <span style=\"color:red\">fracture</span> surface upon quasi-static loading. The <span style=\"color:red\">fracture</span> surface of composite is rough,which is composed of a great deal of small mirror planes in quasi-static tests. Rugged <span style=\"color:red\">fracture</span> surfaces were observed both in Mg-based amorphous glass and composite during dynamic deformation. A large area of molten liquid spreads over the whole <span style=\"color:red\">fracture</span> surface, indicating more severe temperature rise occurs during dynamic deformation. When encountering SiC particulates during propagation, cracks cut through (sometimes being stopped inside the particulate) or bypass the particle. The fact that cracks cut through or bypass particles reflects the strong bonding at the particle-matrix interfaces and the effective load transfer from matrix to the reinforcing particles. The block function to crack propagation due to the presence of particles is expected for shear bands before cracking initiates inside the shear bands, avoiding the formation of major shear band and the catastrophic failure likely. (C) 2008 Elsevier B.V. All rights reserved.","authors":[],"categoryName":"|","doi":"","fpage":"827","id":"805d85ae-f907-4d1b-bea4-1f6963dcd7b2","issue":"42737","journal":{"abbrevTitle":"JOAAC","id":"de8b3eb8-d3c1-4889-812c-8ad260eabadc","issnPpub":"0925-8388","publisherId":"JOAAC","title":"Journal of Alloys and Compounds"},"keywords":[{"id":"bb8f8905-1f41-4306-8227-1e95c4d81408","keyword":"Metallic glasses;Composite;<span style=\"color:red\">Fracture</span> surface;matrix composites;mechanical-properties;crystallization;transition;strength;alloys","originalKeyword":"Metallic glasses;Composite;Fracture surface;matrix composites;mechanical-properties;crystallization;transition;strength;alloys"}],"language":"en","publisherId":"0925-8388_2009_42737_2","title":"<span style=\"color:red\">Fracture</span> surface <span style=\"color:red\">morphology</span> of Mg-based bulk metallic glass and composite during quasi-static and dynamic compressive deformation","volume":"478","year":"2009"},{"abstractinfo":"The compressive mechanical behavior and <span style=\"color:red\">fracture</span> process of Zr_52.5 Cu_17.9Ni_14.6 Al10 Ti5 bulky amorphous alloy were investigated in detail at a strain rate of 10-4s-1. The compressive <span style=\"color:red\">fracture</span> strength, elastic deformation and elastic modulus of the  alloy are 1770MPa, 2.1% and 82GPa, respectively. From SEM observation of <span style=\"color:red\">fracture</span> surface, the <span style=\"color:red\">fracture</span> process of bulky amorphous alloy can be described as a tearing process along shear bands. The increase of temperature in the local region was  calculated roughly.","authors":[{"authorName":"Z. Bian","id":"2add65fc-8cbc-4802-ac7f-886498f1868b","originalAuthorName":"Z. Bian"},{"authorName":" G. He and G.L. Chen (State Key Laboratory of Advanced Metals and Materials","id":"31f8076c-ec66-486b-90cd-755cafa99b80","originalAuthorName":" G. He and G.L. Chen (State Key Laboratory of Advanced Metals and Materials"},{"authorName":" University of Science and Technology Beijing","id":"4d634155-13a9-4f52-bf2f-da78e4b32e15","originalAuthorName":" University of Science and Technology Beijing"},{"authorName":"Beijing 100083","id":"28d68182-64aa-408f-8c5e-b4e5e3ab26ad","originalAuthorName":"Beijing 100083"},{"authorName":" China)","id":"7dbfa2d9-6cf8-4f0c-a1d6-067a0e017be7","originalAuthorName":" China)"}],"categoryName":"|","doi":"","fpage":"1141","id":"9a778c25-dde0-41f8-bec1-fbaf3165fda2","issue":"6","journal":{"abbrevTitle":"JSXBYWB","coverImgSrc":"journal/img/cover/amse.jpg","id":"49","issnPpub":"1006-7191","publisherId":"JSXBYWB","title":"金属学报(英文版)"},"keywords":[{"id":"b58a9d78-4e1f-4e1c-b3b7-5979d34549da","keyword":"bulky amorphous alloy","originalKeyword":"bulky amorphous alloy"},{"id":"afc3ac4b-0f0a-469e-8aa9-727c118958c1","keyword":"null","originalKeyword":"null"},{"id":"31f7ea66-ea98-400f-b736-effdfa7f55f6","keyword":"null","originalKeyword":"null"}],"language":"en","publisherId":"1006-7191_2000_6_2","title":"COMPRESSIVE MECHANICAL PROPERLIES AND <span style=\"color:red\">FRACTURE</span> <span style=\"color:red\">MORPHOLOGY</span> OF Zr_(52.5)Cu_(17.9)Ni_(14.6)Al_(10)Ti_5 BULKY AMORPHOUS ALLOY","volume":"13","year":"2000"}],"totalpage":190,"totalrecord":1898}