Development and Applications of a Pressurized Water-Filled Impedance Tube

被引:2
|
作者
Shen, Zong-You [1 ]
Huang, Ching-Jer [1 ,2 ]
Liu, Kuan-Wen [1 ]
机构
[1] Natl Cheng Kung Univ, Dept Hydraul & Ocean Engn, Tainan 70101, Taiwan
[2] Natl Cheng Kung Univ, Coastal Ocean Monitoring Ctr, Tainan 70101, Taiwan
关键词
pressurized water-filled impedance tube (WFIT); three-parameter calibration method (3PCM); reflection coefficient; water-air interface; porous rubber material; DUCT ACOUSTIC PROPERTIES; SOUND; LIQUID; PROPAGATION; ABSORPTION; SPEED;
D O I
10.3390/s22103827
中图分类号
O65 [分析化学];
学科分类号
070302 ; 081704 ;
摘要
In this study, a pressurized, water-filled impedance tube (WFIT) was developed to measure the reflection coefficients of sound-absorbing materials under various hydrostatic pressures. The developed WFIT was calibrated using a two-microphone, three-parameter calibration method (3PCM). The accuracy and repeatability of the measured reflection coefficients for the water-air interface in the WFIT were determined by comparing these coefficients with corresponding theoretical reflection coefficients. The WFIT was then used to measure the acoustic reflection coefficient of a porous rubber specimen on three dates, and the corresponding measurement results exhibited satisfactory repeatability. The aforementioned impedance tube was also used to measure the reflection coefficient of a porous rubber specimen under a hydrostatic pressure of 4 P-atm three times on the same day, and one time each on three days, using the same experimental setup and measurement procedure. The results obtained in the aforementioned tests also exhibited satisfactory repeatability. Finally, the WFIT was used to measure the reflection coefficients of porous rubber specimens with various thicknesses under different hydrostatic pressures. The results of this study indicate that the developed WFIT calibrated with the 3PCM can achieve suitable repeatability in the measurement of the reflection coefficients of sound-absorbing materials under various hydrostatic pressures.
引用
收藏
页数:23
相关论文
共 50 条
  • [41] RESONANT VIBRATIONS IN A WATER-FILLED PIPING SYSTEM
    CALLAWAY, DB
    TYZZER, FG
    HARDY, HC
    [J]. JOURNAL OF THE ACOUSTICAL SOCIETY OF AMERICA, 1951, 23 (05): : 631 - 631
  • [42] Repetitive operation of water-filled Blumlein generator
    Katsuki, S
    Takano, D
    Namihira, T
    Akiyama, H
    Majima, T
    [J]. REVIEW OF SCIENTIFIC INSTRUMENTS, 2001, 72 (06): : 2759 - 2763
  • [43] A bimodal muffler for narrow water-filled pipes
    Mironov, MA
    Orekhov, DE
    [J]. ACOUSTICAL PHYSICS, 1997, 43 (04) : 455 - 461
  • [44] Stability and meromixis in a water-filled mine pit
    Stevens, CL
    Lawrence, GA
    [J]. LIMNOLOGY AND OCEANOGRAPHY, 1998, 43 (05) : 946 - 954
  • [45] The behaviour of ions in narrow water-filled pores
    Edmonds, DT
    [J]. BIOSCIENCE REPORTS, 1998, 18 (06) : 313 - 327
  • [46] Water-Filled Vesicles of Choroid Plexus Tumors
    Aydin, Mehmet Dumlu
    Kanat, Ayhan
    Karaavci, Nuh Cagri
    Sahin, Hakan
    Ozmen, Sevilay
    [J]. JOURNAL OF CRANIOFACIAL SURGERY, 2019, 30 (07) : 2171 - 2173
  • [47] Advancements, Challenges, and Prospects of Water-Filled Antennas
    Sayem, Abu Sadat Md.
    Lalbakhsh, Ali
    Esselle, Karu P.
    Moloudian, Gholamhosein
    Buckley, John L.
    Simorangkir, Roy B. V. B.
    [J]. IEEE ACCESS, 2023, 11 : 8301 - 8323
  • [48] Torsional failure of water-filled carbon nanotubes
    Ye, Hongfei
    Li, Rui
    Zheng, Yonggang
    Zhang, Zhongqiang
    Zong, Zhi
    Zhang, Hongwu
    [J]. INTERNATIONAL JOURNAL OF DAMAGE MECHANICS, 2016, 25 (01) : 87 - 97
  • [49] Electrical breakdown of a bubble in a water-filled capillary
    Bruggeman, P. J.
    Leys, C. A.
    Vierendeels, J. A.
    [J]. JOURNAL OF APPLIED PHYSICS, 2006, 99 (11)
  • [50] The ignition dynamics of the water-filled fuel compositions
    Egorov, Roman I.
    Antonov, Dmitry V.
    Valiullin, Timur R.
    Strizhak, Pavel A.
    [J]. FUEL PROCESSING TECHNOLOGY, 2018, 174 : 26 - 32