[1] 张士宏. 金属材料的超声塑性加工. 金属成形工艺, 1994 (3): 7-11.
[2] 曹凤国, 张勤俭. 超声加工技术. 北京: 化学工业出版社,2004.
[3] Komarov S V, KuwabarA M, Abramov O V. High power ultrasonics in pyrometallurgy: current status and recent development．ISIJ International, 2005, 45(12): 1765-1782.
[4] Eskin G I．Broad prospects for commercial application of the ultrasonic (Cavitation) melt treatment of light alloys．Ultrasonics Sonochemistry, 2001(8):319-325.
[5] 赵君文, 戴光泽, 韩靖, 等. 功率超声在金属焊接中应用的研究进展. 金属铸锻焊技术, 2012, 41(9): 144-150.
[6] 陈思忠．我国功率超声技术近况与应用进展．声学技术, 2002, 21(1-2): 46-49.
[7] 朱政强, 吴宗辉, 范静辉. 超声波金属焊接的研究现状与展望. 焊接技术, 2010, 39(12): 1-6.
[8] HE Xiaohua ,SHI Huiji ,ZHANG Yuduo , et al. In-situ scanning electron microscopy studies of small fatigue crack growth in ultrasonic consolidation bonded aluminum 2024 laminated structure. Materials Letters, 2013(112): 47–50.
[9] Friel R J, Harris R A. Ultrasonic additive manufacturing-a hybrid production process for novel functional products// The Seventeenth CIRP Conference on Electro Physical and Chemical Machining(ISEM), Procedia CIRP , 2013: 35-40.
[10] Christopher D, Hopkins B S. Development and characterization of optimum process parameters for metallic composites made by ultrasonic consolidation[D]. Logan, Utah: Dissertation of Utah State University, 2010: 4-100.
[11] Sriraman M R, Matt Gonser, Hiromichi T Fujii ,et al. Thermal transients during processing of materials by very high power ultrasonic additive manufacturing. Journal of Materials Processing Technology, 2011(211): 1650- 1657.
[12] Foster D R, Dapino M J, Babu S S. Elastic constants of ultrasonic additive manufactured Al 3003-H18. Ultrasonics, 2013 (53): 211-218.
[13] Mariani E, Ghassemieh E. Microstructure evolution of 6061 O al alloy during ultrasonic consolidation: An insight from electron backscatter diffraction. Acta Materialia, 2010(58): 2492-2503.
[14] Ryan Hahnlen, Marcelo J Dapino. NiTi–Al interface strength in ultrasonic additive manufacturing composites. Composites: Part B, 2014 (59): 101-108.
[15] Kong C Y, Soar R C, Dickens P M. Ultrasonic consolidation for embedding SMA fibres within aluminium matrices. Composite Structures, 2004 (66): 421-427.
[16] Obielodana J O,Stucker B E, et al. Optimization of the shear strengths of ultrasonically consolidated Ti/Al 3003 dual-material structures. Journal of Materials Processing Technology, 2011(211): 988-995.
[17] YANG Y, Janaki Ram G D, Stucker B. Bond formation and fiber embedment during ultrasonic consolidation. Journal of Materials Processing Technology, 2009(209): 4915-4924.
[18] Sano Tomoko, Catalano James, Casem Daniel, et al. Micritructural and mechanical behavior characterization of ultrasonically consolidated titanium-aluminium laminates. TMS Annual Meeting, Vol.1, TMS2008-137th Annual Meeting and Exhibition Supplemental Proceedings: Materials Processing and Properties,vs, 2008: 417-422.
[19] John Obielodan, Brent Stucker. A fabrication methodology for dual-material engineering structures using ultrasonic additive manufacturing. International Journal of Advanced Manufacturing Technology, 2014(70): 277-284.
[20] LI Dezhi, Rupert C Soar. Plastic flow and work hardening of Al alloy matrices during ultrasonic consolidation fibre embedding process. Materials Science and Engineering A, 2008 (498) :421-429.
[21] Yang Y ,Janaki Ram G D , Stucker B E. Bond formation and fiber embedment during ultrasonic consolidation. Journal of Materials Processing Technology, 2009(209): 4915–4924.
[22] Daavari M,Sadough Vanini S A . Corrosion fatigue enhancement of welded steel pipes by ultrasonic impact treatment. Materials Letters, 2015(139): 462-466.
[23] LI Guodong , LI Zhouxin , LI Hui, et al. Development of an Er-doped Mg-Zn-Al solder by ultrasonic treatment and its joint property. Materials Letters, 2014(136): 59-62.
[24] Sougata Roy, John W Fisher, Ben T Yen. Fatigue resistance of welded details enhanced by ultrasonic impact treatment(UIT). International Journal of Fatigue, 2003(25): 1239-1247.
[25] LIU Yang ,WANG Dongpo , DENG Caiyan, et al. Influence of re-ultrasonic impact treatment on fatigue behaviors of S690QL welded joint. International Journal of Fatigue, 2014(66): 155-160.
[26] YANG Xinjun, LING Xiang,ZHOU Jianxin . Optimization of the fatigue resistance of AlSi304 stainless steel by ultrasonic impact treatment. International Journal of Fatigue, 2014(61): 28-38.
[27] Marteau J , Bigerelle M, Mazeran P E,et al. Relation between roughness and processing conditions of AlSi 316L stainless steel treated by ultrasonic shot peening. Tribology International, 2015, 82: 319-329.
[28] Marteau J , Bigerelle M. Relation between surface hardening and roughness induced by ultrasonic shot peening. Tribology International, 2015, 83: 105-113.
[29] YIN Fei , HUA Lin, WANG Xiaoming,et al. Numerical modeling and experimental approach for surface morphology evaluation during ultrasonic shot peening. Computational Materials Science, 2014(92): 28-35.
[30] Badreddine J, Remy S,Micoulau Mt,et al. CAD based model of ultrasonic shot peening for complex industrial parts. Advances in Engineering Software, 2014(76): 31-42.
[31] Al-Hassani S T S , Duncan J L, Johnson W. On the parameters of the magnetic forming process. Journal of Mechanical Engineering Science, 1974, 16(1):1-9.
[32] ZHANG T,WANG D P ,WANG Y , et al . Surface alloying method of ultrasonic shot peening on iron surface. Applied Surface Science, 2013 (265): 671-676.
[33] 尹丹青, 王东坡, 刘哲. Q235钢和16Mn钢接头超长寿命疲劳行为及疲劳寿命设计.天津大学学报, 2009, 42(6): 513-517.
[34] Rasoli M A, Abdullah A, Farzin M. Influence of ultrasonic vibrations on tube spinning process. Journal of Materials Processing Technology, 2012(212): 1443-1452.
[35] 王哲. 超声旋压材料流变规律及机理研究. 中南大学, 2012.
[36] 何霞辉. 超声旋压装置设计与研究. 中南大学, 2012.
[37] 杨飞. 超声旋压工具头的结构设计及谐振性能研究. 中南大学, 2013.
[38] 卜佳南, 张旭, 李新和. 超声旋压变幅器的设计与分析. 中国机械工程, 2014, (25)15: 2004-2008.
[39] 侯红亮,余肖放,王耀奇.国内旋压设备及其相关技术的发展与现状.锻压设备与制造技术,2009(12):16-19.
2015, 
