期刊论文

当前位置:首页  研究成果  期刊论文

声学、噪音控制、超材料

作者: 访问量:537时间:2021-04-04

1.             Wang, X.L. & Lu, T.J., “Optimized acoustic properties of cellular solids”, J. Acous. Soc. Am. 106, 756-765, 1999.

2.             Lu, T.J., Hess, A. & Ashby, M.F., “Sound absorption in metallic foams”, J. Applied Physics85, 7528-7539, 1999.

3.             Lu, T.J., Chen, F. & He, D.P., “Sound absorption of cellular metals with semiopen cells”, J. Acous. Soc. Am. 108, 1697-1709, 2000.

4.             Wang, J., Lu, T.J., Woodhouse, J. & Langley, R.S., “Sound transmission through lightweight double-leaf partitions: theoretical modeling”, J. Sound and Vibration286, 817-847, 2005.

5.             卢天健,Dupere, I.D.J.Dowling, A.P.多孔泡沫材料的声吸收特性,《西安交通大学学报》,41(9): 1003-1011, 2007.

6.             Dupere, I.D.J., 卢天健,Dowling, A.P.声学多孔材料的孔结构优化”, 《西安交通大学学报》,41(11): 1251-1256, 2007

7.             Zhou, X.M., Hu, G.K. & Lu, T.J., “Elastic wave transparency of a coated sphere with metamaterials”, Phys. Review B, 77: 024101, 2008.

8.             Xin, F.X, Lu, T.J. & Chen, C., Sound transmission through lightweight all-metallic sandwich panels with corrugated cores”, Adv. Mater. Research 47-50, 57-60, 2008.

9.             Lu, T.J.,Kepets, M. & Dowling, A.P., “Acoustics properties of sintered FeCrAlY foams with open cells: I. Static flow resistance” (Invited contribution), Science in China: E – Tech Sci51(11), 1803-1811, 2008

10.         Lu, T.J.,Kepets, M. & Dowling, A.P., “Acoustic properties of sintered FeCrAlY foams with open cells: II. Sound attenuation” (Invited contribution), Science in China: E – Tech Sci51(11), 1812-1837, 2008

11.         Xin, F.X, Lu, T.J. & Chen, C., “Vibroacoustic behavior of clamp mounted double-panel partition with enclosure air cavity”, J. Acous. Soc. Am.124, 3604-3612, 2008.

12.         Xin, F.X & Lu, T.J., “Analytical and experimental investigation on transmission loss of clamped double panels: Implication of boundary effects”, J. Acous. Soc. Am. 125 (3), 1506-1517, 2009.

13.         辛锋先,卢天健,陈常青,轻质金属三明治板的隔声性能研究《声学学报》33(4), 340-347, 2008 

14.         卢天健,高国钦,马守林,金峰,金东范, “二维四方排列半圆铝管/空气声子晶体的禁带特性《中国科学E辑》39(1), 57-64, 2009

15.         Lu, T.J.,Gao, G.Q., Ma, S.L., Jin, F. & Kim, T., “Acoustic band gaps in two-dimensional square arrays of semi-hollow circular cylinders”, Science in China: E – Tech Sci 52(2): 303-312, 2009.

16.         Xin, F.X, Lu, T.J. & Chen, C., “Sound transmission across lightweight all-metallic sandwich panels with corrugated cores”, Chinese J. Acous.28 (3), 231-243, 2009.

17.         Xin, F.X, Lu, T.J. & Chen, C., “External mean flow influence on noise transmission through double-leaf aeroelastic plates”, AIAA J.47(8), 1939-1951, 2009.

18.         Xin, F.X, Lu, T.J. & Chen, C., “Dynamic response and acoustic radiation of double-leaf aluminum panel partition under sound excitation”, Comput. Mater. Sci.46, 728-732, 2009.

19.         Xin, F.X, Lu, T.J. & Chen, C., “Sound transmission through simply supported finite double-panel partitions with enclosed air cavity”, ASME J. Vib. Acous.132(1), 011008, 2010.

20.         Xin, F.X & Lu, T.J., Analytical modeling of fluid loaded orthogonally rib-stiffened sandwich structures: Sound transmission”, J. Mech. Phys. Solids58, 1374-1396, 2010.

21.         Xin, F.X & Lu, T.J., Analytical modeling of sound transmission from simply supported rectangular panel in convected fluids”, J. Acous. Soc. Am.128(3), 1087-1107, 2010.

22.         Xin, F.X & Lu, T.J., Sound radiation of orthogonally rib-stiffened sandwich structures with cavity absorption”, Compos. Sci. Tech.70(15), 2198-2206, 2010.

23.         高国钦,马守林,金峰,金东范,卢天健,声波在二维固/流声子晶体中的禁带特性研究《物理学报》59(1), 393-400, 2010。(Gao, G.Q., Ma, S.L., Jin, F., Kim, T. & Lu, T.J., “Acoustic band gaps in finite-sized two-dimensional solid/fluid phononic crystals”, Acta Physica Sinica59(1), 393-400, 2010

24.         辛锋先,张钱城,卢天健,轻质三明治材料及结构的振动和声学性能研究进展(特邀稿件),《力学进展40(4): 375-399, 2010

25.         沈承,金峰,辛锋先,卢天健,对边简支三明治加筋板的隔声性能研究,《西安交通大学学报》45(7): 1-10, 2011

26.         Xin, F.X & Lu, T.J., Transmission loss of orthogonally rib-stiffened double-panel structures with cavity absorption”, J. Acous. Soc. Am.129(4), 1919-1934, 2011.

27.         Xin, F.X & Lu, T.J., Analytical modeling of wave propagation in orthogonally rib-stiffened sandwich structures: Sound radiation”, Computers and Structures89(5-6), 507-516, 2011.

28.         Xin, F.X & Lu, T.J., Effects of core topology on sound insulation performance of lightweight all-metallic sandwich panels”, Materials and Manufacturing Process (special issue Multi-functional Materials) 26(9), 1213-1221, 2011.

29.         Xin, F.X & Lu, T.J., Analytical modeling of sound transmission through clamped triple-panel partition separated by enclosed air cavities”, European J. Mechanics – A/Solids 30, 770-782, 2011.

30.         Xin, F.X & Lu, T.J., Sound radiation of parallelly stiffened plates under convected harmonic pressure excitation”, Science in China E: Technical Sciences 55(2), 496-500, 2012.

31.         Meng, H., Xin, F.X & Lu, T.J., “External mean flow effects on sound transmission through double-leaf plates filled with porous materials”, AIAA J. 50(10), 2268-2276, 2012.

32.         Shen, C., Xin, F.X & Lu, T.J., Theoretical model for sound transmission through finite sandwich structures with corrugated core”, Int. J. Non-Linear Mechanics42, 1066-1072, 2012.

33.         Shen, C., Xin, F.X, Cheng, L. & Lu, T.J., Sound radiation of orthogonally stiffened laminated composite plates under transverse and in plane excitation”, Comp. Sci. Tech. 84, 51-57, 2013.

34.         Xin, F.X & Lu, T.J., Effects of mean flow on transmission loss of orthogonally rib-stiffened aeroelastic plate”, J. Acous. Soc. Am.133(6), 3909-3920, 2013.

35.         Xin, F.X & Lu, T.J., “External mean flow effects on noise radiation from orthogonally rib-stiffened aeroelastic plates”, AIAA J. 51(2): 406-415, 2013.

36.         任树伟,辛锋先,卢天健,蜂窝层芯夹层板结构振动与传声特性研究《力学学报》 45(3), 349-358, 2013.

37.         Shen, C., Xin, F.X & Lu, T.J., “A 3-D elasticity theory based model for acoustic radiation from multilayered anisotropic plates”, J. Acous. Soc. Am.135(5), EL232-EL238, 2014.

38.         Meng, H., Xin, F.X & Lu, T.J., “Sound absorption optimization of graded semi-open cellular metals by adopting the genetic algorithm method”, ASME J. Vib. Acous. 136(6), 061007, 2014.

39.         Meng, H., Ao, Q.B., Tang, H.P., Xin, F.X & Lu, T.J., “Dynamic flow resistivity based model for sound absorption of multi-layer sintered fibrous metals”, Sci. in China - Technol. Sci. 57(11), 2096-2105, 2014.

40.         孟晗,卢天健,辛锋先,多孔纤维吸声材料填充蜂窝结构的声学性能《中国科学E辑》 44(6), 599-609, 2014.

41.         任树伟,辛锋先,卢天健,考虑尺度效应的微平板声振耦合特性研究《中国科学E辑》 44(2), 201-208, 2014.

42.         辛锋先,卢天健, “轻质板壳结构振动与声学耦合特性的理论及实验研究应用数学和力学》35(6), 1-7, 2014.

43.         宁景锋,赵桂平,穆林,卢天健,含有空气背衬层的分层多孔材料的吸声性能研究,《振动工程学报27(5), 734-740, 2014.

44.         任树伟,孟晗,辛锋先,张钱城,卢天健,慈军,耿丽,方形蜂窝夹层曲板的振动特性研究,《西安交通大学学报》49(3), 129-135, 2015.

45.         Ren, S.W., Meng, H., Xin, F.X. & Lu, T.J., “Sound absorption enhancement by thin multi-slit hybrid structures”, Chin. Phys. Lett. 32(1), 014302, 2015.

46.         Meng, H., Ao, Q.B., Ren, S.W., Xin, F.X., Tang, H.P. & Lu, T.J., “Anisotropic acoustical properties of sintered fibrous metals”, Comp. Sci. Tech. 107, 10-17, 2015.

47.         Shen, C., Xin, F.X & Lu, T.J., “Transmission loss of orthogonally stiffened composite laminates”, Int. J. Mech. Sci. Tech. 29(1), 59-66, 2015.

48.         Yang, X.H., Ren, S.W., Wang, W.B., Liu, X., Xin, F.X. & Lu, T.J., “A simplistic analytical model for sound adsorption of cellular foams with fully/semi-open cells”, Comp. Sci. Tech. 118, 276-283, 2015.

49.         Re, S.W., Meng, H., Xin, F.X & Lu, T.J., “Ultrathin multi-slit metamaterial as excellent sound absorber: Influence of micro-structure”, J. Appl. Phys.119(1), 014901, 2016.

50.         Shen, C., Xin, F.X & Lu, T.J., “Sound transmission across composite laminate sandwiches: influence of orthogonal stiffeners and laminate layup”, Comp. Struc. 143, 310-316, 2016.

51.         Meng, H., Xin, F.X & Lu, T.J., “Sound absorption optimization of gradient sintered metal fiber felts”, Sci. in China - Technol. Sci. 59(5), 699-708, 2016.

52.         Meng, H., Yang, X.H., Ren, S.W., Xin, F.X & Lu, T.J., “Sound propagation in composite micro-tubes with surface- mounted fibrous roughness elements”, Comp. Sci. Tech. 127, 158-168, 2016.

53.         Xin, F.X & Lu, T.J., “Tensional acoustomechanical soft metamaterials”, Scientific Reports 6, 27432, 2016.

54.         Xin, F.X & Lu, T.J., “Acoustomechanics of semicrystalline polymers”, Theor. Appl. Mech. Lett. 6(1), 38-41, 2016

55.         Xin, F.X & Lu, T.J., “Generalized method to analyze acoustomechanical stability of soft materials”, ASME J. Appl. Mech. 83(7), 071004,2016.

56.         Xin, F.X & Lu, T.J., “Acoustomechanical soft elastomers with interpenetrating networks”, Smart Mater. Struc. 25(7), 07LT02, 2016.

57.         Chen, W.H., Chen, T.N., Xin, F.X, Wang, X.P., Du, X.W. & Lu, T.J., “Modeling of sound absorption based on the fractal microstructures of porous fibrous metals”, Mater. Design 105, 386-397, 2016.

58.         Xin, F.X & Lu, T.J., “True method to analyze electromechanical stability of dielectric elastomers”, Europhys. Lett. (EPL) 114(2), 26002, 2016.

59.         Xin, F.X & Lu, T.J., “Acoustomechanical constitutive theory of soft materials”, Acta Mech. Sinica 32(5), 828-840, 2016. 第四届中国科协优秀科技论文

60.         Xin, F.X., Jiang, C.Y., Lu, T.J. & Huang, L.X., “Equivalent gradient properties of porous material with macro void structures”, J. Acous. Soc. Am.140(4), 2016.

61.         叶昌铮,孟晗,辛锋先,卢天健,基于传递函数法的水下消声层声学性能研究《力学学报》 48(1) 213-224, 2016

62.         唐宇帆,任树伟,辛锋先,卢天健,MEMS系统中微平板结构声振耦合性能研究《力学学报》 48(4)907-9162016

63.         Xin, F.X & Lu, T.J., “A nonlinear acoustomechanical field theory of polymeric gels”, Int. J. Solids Struc. 112, 133-142, 2017.

64.         Xin, F.X & Lu, T.J., “A plane strain elasticity model for the acoustical properties of rib-stiffened composite plates”, European Journal of Mechanics A Solids 62, 1-13, 2017.

65.         Xin, F.X, Gong, J.Q., Ren, S.W. & Lu, T.J., “Thermoacoustic response of a simply supported isotropic rectangular plate in graded thermal environments”, Applied Mathematical Modeling 44, 456-469, 2017.

66.         Xin, F.X & Lu, T.J., “Nonlinear large deformation of acoustomechanical soft materials”, Mech. Mater. 107, 71-80, 2017.

67.         Xin, F.X., Jiang, C.Y., Lu, T.J.& Huang, L.X., “Equivalent gradient properties of porous material with macro void and panel structures”, J. Acous. Soc. Am. 140(4), 2993-2999, 2017.

68.         Tang, Y.F., Reng, S.W., Meng, H., Xin, F.X., Huang, L.X. & Lu, T.J., “Hybrid acoustic metamaterial as super absorber for broadband low-frequency sound”, Scientific Reports 7, 43340, 2017.

69.         Tang, Y.F., Xin, F.X., Huang, L.X. & Lu, T.J., “Deep subwavelength acoustic metamaterial for low-frequency sound absorption”, Europhys. Lett. (EPL) 118, 44002, 2017.

70.         Song, S.Y., Yang, X.H., Xin, F.X., Reng, S.W. & Lu, T.J., “Modeling of roughness effects on acoustic properties of micro-slits”, Journal of Physics D: Applied Physics 50(23), 235303, 2017.

71.         Reng, S.W., Ao, Q.B., Meng, H., Xin, F.X. & Lu, T.J., “A semi-analytical model for sound propagation in sintered fiber metal materials”, Composites B 126, 17-26, 2017.

72.         Xin, F.X & Lu, T.J., “Self-controlled wave propagation in hyperelastic media”, Scientific Reports 7, 7581, 2017.

73.         Peng, X.J., He, W., Liu, Y.F., Xin, F.X & Lu, T.J., “Optomechanical soft metamaterials”, Acta Mech. Sinica 33(3), 575-584, 2017.

74.         Meng, H., Galland, M.A., Ichchou, M., Xin, F.X. & Lu, T.J., “Small perforations in corrugated sandwich panel significantly enhance low frequency sound absorption and transmission loss”, Comp. Struc. 182, 1-11, 2017.

75.         Reng, S.W., Liu, X.W., Gong, J.Q., Tang, Y.F., Xin, F.X. & Lu, T.J., “Tunable acoustic absorbers with periodical micro-perforations having varying pore shapes”, Europhys. Lett. (EPL) 120(4), 44001, 2017.

76.         Cai, X.B., Hu, G.K., Lu, T.J. and Yang, J., “Sound absorption by acoustic microlattice with optimized pore configuration”, J. Acous. Soc. Am. 144(2), EL138-EL143, 2017.

77.         Song, S.Y., Yang, X.H., Xin, F.X. & Lu, T.J., “Modeling of surface roughness effects on stokes flow in circular pipes”, Phys. Fluids30, 023604, 2018.

78.         Ye, C.Z., Liu, X.W., Xin, F.X. & Lu, T.J., “Influence of hole shape on sound absorption of underwater anechoic layers”, J Sound Vib. 426, 54-74, 2018.

79.         Xin, F.X & Lu, T.J., “Acousto-thermo-mechanical deformation of hydrogels coupled with chemical diffusion”, Proc. Roy. Soc. A474(2217), 20180293, 2018.

80.         张俊,陈卫华,任树伟,辛锋先,陈天宁,卢天健,高温环境下梯度烧结金属纤维吸声性能及其结构优化研究,《西安交通大学学报》 52, 143-150, 2018.

81.         徐志敏,宋思远,辛锋先,杨肖虎,卢天健,Reynolds数下粗糙圆管中黏性流场的理论解,《应用数学和力学》39(2), 123-136, 2018.

82.         张丰辉,唐宇帆,辛锋先,卢天健,微穿孔蜂窝-波纹复合超材料吸声行为《物理学报》 67(23)234302, 2018.

83.         Xin, F.X & Lu, T.J., “Modulation of acoustomechanical instability and bifurcation behavior of soft materials”, Scientific Reports 8(1), 2018.

84.         Reng, S.W., Xin, F.X., Lu, T.J. & Zhang, C.Z., “A semi-analytical model for the influence of temperature on sound propagation in sintered metal fiber materials”, Mater. Design, 134, 513-522, 2018.

85.         Reng, S.W., Belle, L.V., Claeys, C. F., Xin, F.X., Lu, T.J., Deckers, E., Desmet, W., “Improvement of sound absorption of flexible micro-perforated panels by local resonance”, Mechanical Systems and Signal Processing 117, 138-156, 2019.

86.         Xu, Z.M., Song, S.Y., Xin, F.X. & Lu, T.J., “Mathematical modeling of Stokes flow in petal shaped pipes”, featured article, Phys. Fluids 31(1), 013602, 2019.

87.         Ye, C.Z., Liu, X.W., Xin, F.X. & Lu, T.J., “Underwater acoustic absorption of composite anechoic layers with inner holes”, J Vib. Acoust., 1-22, 2019.

88.         Xu, Z.M., Peng, X.J., Xin, F.X. & Lu, T.J., “Modified theory of microperforated panel with roughened perforations”, Europhys. Lett. (EPL) 125, 34004, 2019.

89.         Meng, H., Galland, M.A., Ichchou, M., Xin, F.X. & Lu, T.J., “On the low frequency sound absorption and transmission loss of multifunctional honeycomb sandwich panels with micro-perforated faceplates: modeling and parametric survey”, Appl. Acoustics 152, 31-40, 2019.

90.         Tang, Y.F., Xin, F.X. & Lu, T.J., “Sound absorption of novel micro-perforated sandwich panel with perforated honeycomb-corrugation hybrid core at high temperatures”, Comp. Struc. 226, 111285, 2019.

91.         Tang, Y.F., Xin, F.X. & Lu, T.J., “Nonlinear sound absorption of ultralight haybrid-cored sandwich panel”, Mechanical Systems and Signal Processing 135, 106428, 2020.

92.         Peng, X.J., He, W., Xin, F.X., Genin, G. & Lu, T.J., “Standing surface acoustic waves, and the mechanics of acoustic tweezer manipulation of eukaryotic cells”, J. Mech. Phys. Solids 145(12), 104-134, 2020.

93.         Xu, Z.M., He, W., Peng, X.J., Xin, F.X. & Lu, T.J., “Sound absorption theory for micro-perforated panel with petal-shaped perforations”, J. Acous. Soc. Am.148, 18-24, 2020.

94.         Peng, X.J., He, W., Xin, F.X & Lu, T.J., “The acoustic radiation force of a focused ltrasound beam on a suspended eukaryotic cell”, Ultrasonics 108, 106205, 2020.

95.         Xu, Z.M., He, W., Xin, F.X. & Lu, T.J., “Sound propagation in porous materials containing rough tubes”, Editor’s pick, Phys. Fluids32(9): 093604, 2020.

96.         Duan, M.Y., Yu, C.L., Xu, Z.M., Xin, F.X & Lu, T.J., “Acoustic impedance regulation of Helmholtz resonators for perfect sound absorption via roughened embedded necks”, Appl. Phys. Lett.117(15), 151904 2020.

97.         Duan, M.Y., Yu, C.L., Xin, F.X & Lu, T.J., “Tunable underwater acoustic metamaterials via quasi-Helmholtz resonance: from low-frequency to ultra-broadband”, Appl. Phys. Lett.118(7), 071904, 2021.

98.         Lei, J.C., Xu, Z.M., Xin, F.X. & Lu, T.J., “Dynamics of capillary flow in an undulated tube”, Phys. Fluids33, 052109, 2021.

99.         Yu, C.L., Duan, M.Y., He, W., Xin, F.X. & Lu, T.J., “Underwater anechoic layer with parallel metallic plate insertions: Theoretical modelling”, J. Micromech. Microeng.31(7), 74002, 2021.

100.      He, W., Liu, M.L., Peng, X.J., Xin, F.X & Lu, T.J., “Sound absorption of petal shaped micro-channel porous materials”, Phys. Fluids33(6), 063606, 2021.

101.      Duan, M.Y., Yu, C.L., He, W., Xin, F.X & Lu, T.J., “Perfect sound absorption of Helmholtz resonators with embedded channels in petal shape”, J. Appl. Phys.130(13), 135102, 2021.

102.      Kang, R., Xin, F.X., Shen, C. & Lu, T.J., “3D free vibration analysis of functionally graded plates with arbitrary boundary conditions in thermal environment”, Advanced Engineering Materials, 2100636, 2021.

103.      胥强荣,沈承,韩峰,卢天健,“一种准零刚度声学超材料板的低频宽频带隔声行为”,《物理学报》70(24), 163-174, 2021.

104.      W. He, X. Peng, F. Xin, T.J. Lu, Ultralight micro-perforated sandwich panel with hierarchical honeycomb core for sound absorption, Journal of Sandwich Structures & Materials24(1), 201-217, 2022.

105.      Peng, X.J., Liu, Y.F., He, W., Hoppe, E.D., Zhou, L.H., Xin, F.X., Haswell, E., Pickard, B.G., Genin, G.M. & Lu, T.J., “Acoustic radiation force on a long cylinder, and potential sound transduction by tomato trichomes”, Biophysical J., 2022, submitted to be published.

106.      Shen, C., Kong, Y.F., Lu, T.J. & Yang, S.S., Localization of elastic waves in one-dimensional detuned phononic crystals with flexoelectric effect, International Journal of Smart and Nano Materials, 2022, in press.

107.      He, W., Peng, X.J., Xin, F.X & Lu, T.J., “A microstructure-based model of transport properties and sound absorption for woven fabrics”, Composite Science and Technology, 2022, submitted.

108.      Kang, R., Shen, C. & Lu, T.J., “A three-dimensional theoretical model of free vibration for multifunctional sandwich plates with honeycomb-corrugation hybrid cores”, Composite Structures, 2022, submitted.

109.      Lei, J.C., Zhao, Z.Y., Liu, S.B. & Lu, T.J., “DynL amics of capillary flow in a conical tube with undulated inner wall”, Microgravity Science and Technology, 2022, under review.

110.      Shen, C., Kong, Y., Lu, T. J., & Yang, S., “Localization of elastic waves in one-dimensional detuned phononic crystals with flexoelectric effect”, Int. J. Smart. Nano Mater. 13(2), 244-262, 2022.

111.      Kang, R., Xin, F., Shen, C., & Lu, T. J, “3D free vibration analysis of functionally graded plates with arbitrary boundary conditions in thermal environment”, Adv. Eng. Mater. 24(5), 2100636, 2022.

112.      He, W., Peng, X., Xin, F., & Lu, T. J., “A microstructure-based model of transport parameters and sound absorption for woven fabrics”, Compos. Sci. Technol. 227, 109607, 2022.

113.      Isomursu, A., Park, K. Y., Hou, J., Cheng, B., Mathieu, M., Shamsan, G., Lu, T. J., ... & Odde, D. J., “Negative durotaxis: cell movement toward softer environments”, Nat. Mater. 21(9), 1081, 2022.

114.      Yu, C., Duan, M., He, W., Chen, X., Xin, F., & Lu, T. J., “Grating‐like anechoic layer for broadband underwater sound absorption”, Int. J. Mech. Sys. Dyna 2(3), 265-277, 2022.

115.      Kang, R., Shen, C., & Lu, T. J., “A three-dimensional theoretical model of free vibration for multifunctional sandwich plates with honeycomb-corrugated hybrid cores”, Compos. Struct. 298, 115990, 2022.

116.      Jiang, Y., Shen, C., Meng, H., He, W., & Lu, T., “Design and optimization of micro-perforated ultralight sandwich structure with N-type hybrid core for broadband sound absorption”, Appl. Acoust. 202, 109184, 2023.

117.      Duan, M., Yu, C., Xin, F., & Lu, T. J., “Deep subwavelength hybrid metamaterial for low-frequency underwater sound absorption by quasi-Helmholtz resonance”, AIP Adv. 13(2), 2023.

118.      Xiao, T., Lu, L., Yu, C., Shu, G., Yang, X., & Lu, T. J., “Analytical fractal model of sound absorption for cellular foams with randomly distributed fully/semi-open pores”, Acta Mech. Sin. 40(2), 423109, 2024.

119.      Yu, C., Duan, M., Ti, F., **n, F., Zhao, G., Lu, T. J., ... & Chen, X., “Dual‐Scale Spiral Material for Balancing High Load Bearing and Sound Absorption”, Adv. Sci. 2400250, 2024.

120.      Yu, C., Chen, X., Duan, M., Li, M., Wang, X., Mao, Y., ... & Lu, T. J., “Adjustable sound absorbing metastructures for low-frequency variable discrete sources”, Int. J. Mech. Sci 267, 108965, 2024.

121.      王江涛,陈帅,沈承,高金翎,刘家贵,赵振宇, ... & 卢天健,“吸波材料/结构及吸波-承载功能一体化结构研究进展”,Acta Materiae Compositae Sinica41(8)2024.


下一页:传热学(热流体)

地址:江苏省南京市秦淮区御道街 29 号 邮政编码: 210016

Copyright 2021 多功能轻量化材料与结构工信部重点实验室保留所有权利