Noisiness of the Surfaces on Low-Speed Roads

被引:8
|
作者
Gardziejczyk, Wladyslaw [1 ]
Gierasimiuk, Pawel [1 ]
Motylewicz, Marek [1 ]
机构
[1] Bialystok Tech Univ, Fac Civil & Environm Engn, Div Rd Engn, Wiejska St 45E, PL-15351 Bialystok, Poland
关键词
road surface; tire/road noise; statistical pass-by (SPB) method; PERFORMANCE; DURABILITY; TIME;
D O I
10.3390/coatings6020015
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Traffic noise is a particular threat to the environment in the vicinity of roads. The level of the noise is influenced by traffic density and traffic composition, as well as vehicle speed and the type of surface. The article presents the results of studies on tire/road noise from passing vehicles at a speed of 40-80 kph, carried out by using the statistical pass-by method (SPB), on seven surfaces with different characteristics. It has been shown that increasing the speed from 40 kph to 50 kph contributes to the increase in the maximum A-weighted sound pressure level by about 3 dB, regardless of the type of surface. For larger differences in speed (30 kph-40 kph) increase in noise levels reaches values about 10 dB. In the case of higher speeds, this increase is slightly lower. In this article, special attention is paid to the noisiness from surfaces made of porous asphalt concrete (PAC), BBTM (thin asphalt layer), and stone mastic asphalt (SMA) with a maximum aggregate size of 8 mm and 5 mm. It has also been proved that surfaces of porous asphalt concrete, within two years after the commissioning, significantly contribute to a reduction of the maximum level of noise in the streets and roads with lower speed of passing cars. Reduction of the maximum A-weighted sound pressure level of a statistical car traveling at 60 kph reaches values of up to about 6 dB, as compared with the SMA11. Along with the exploitation of the road, air voids in the low-noise surface becomes clogged and acoustic properties of the road decrease to a level similar to standard asphalt.
引用
收藏
页数:9
相关论文
共 50 条
  • [31] LOW-SPEED DATA ACQUISITION SYSTEM
    LENNEMAN.E
    INSTRUMENTS & CONTROL SYSTEMS, 1971, 44 (09): : 105 - &
  • [32] Control of Low-Speed Airfoil Aerodynamics
    Gad-el-Hak, Mohamed, 1600,
  • [33] A LOW-SPEED MAGNETIC MEMORY DEVICE
    CHOW, W
    IEEE TRANSACTIONS ON COMMUNICATION TECHNOLOGY, 1965, CO13 (01): : 65 - &
  • [34] STABILITY OF LOW-SPEED REACTING FLOWS
    MAHALINGAM, S
    CANTWELL, BJ
    FERZIGER, JH
    PHYSICS OF FLUIDS A-FLUID DYNAMICS, 1991, 3 (06): : 1533 - 1543
  • [35] On The Vortical Developments of Low-Speed Jets
    Yeh, Yung-Lan
    JOURNAL OF AERONAUTICS ASTRONAUTICS AND AVIATION, 2018, 50 (03): : 257 - 265
  • [36] LOW-SPEED NONISOTHERMAL WALL JET
    ALBRIGHT, LD
    SCOTT, NR
    JOURNAL OF AGRICULTURAL ENGINEERING RESEARCH, 1974, 19 (01): : 25 - 34
  • [37] Aeroacoustic Modelling of Low-Speed Flows
    W.Z. Shen
    J.N. Sørensen
    Theoretical and Computational Fluid Dynamics, 1999, 13 : 271 - 289
  • [38] Model identification of a low-speed UUV
    Ridao, P
    Battle, J
    Carreras, M
    CONTROL APPLICATIONS IN MARINE SYSTEMS 2001 (CAMS 2001), 2002, : 395 - 400
  • [39] QUANTITATIVE LOW-SPEED WAKE SURVEYS
    BRUNE, GW
    JOURNAL OF AIRCRAFT, 1994, 31 (02): : 249 - 255
  • [40] PARTICLE DIFFUSION IN LOW-SPEED FLOWS
    FRIEDLAN.SK
    JOURNAL OF COLLOID AND INTERFACE SCIENCE, 1967, 23 (02) : 157 - &