Methods for predicting noise in the vicinity of signalized intersections

To accurately estimate the noise at a signalized intersection, it is necessary to precisely reproduce the traffic volume, signal cycle and traffic noise for each vehicle behavior and driving state. Precise reproduction requires considerable effort, such as continuous calculations of vehicles and the...

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Veröffentlicht in:Acoustical Science and Technology 2010/01/01, Vol.31(1), pp.87-94
Hauptverfasser: Namikawa, Yoshiharu, Yoshinaga, Hiroshi, Tajika, Terutoshi, Oshino, Yasuo, Yoshihisa, Koichi, Yamamoto, Kohei
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container_end_page 94
container_issue 1
container_start_page 87
container_title Acoustical Science and Technology
container_volume 31
creator Namikawa, Yoshiharu
Yoshinaga, Hiroshi
Tajika, Terutoshi
Oshino, Yasuo
Yoshihisa, Koichi
Yamamoto, Kohei
description To accurately estimate the noise at a signalized intersection, it is necessary to precisely reproduce the traffic volume, signal cycle and traffic noise for each vehicle behavior and driving state. Precise reproduction requires considerable effort, such as continuous calculations of vehicles and the setting of parameters such as engine speed, engine load and velocity. A simple method that involves using A-weighted sound power levels (LWA) under nonsteady running conditions has already been proposed for estimating noise at signalized intersections in a previous paper. In this study, the authors developed two simple methods for predicting noise in which the effects of acceleration and deceleration by signals is reflected. One method is based on a microsimulation traffic model, in which equivalent continuous A-weighted sound pressure levels (LAeq) is calculated by adding the noise of vehicles passing a green signal and the noise of vehicles decelerating and stopping at a red signal then accelerating when the signal turns green. The other method is even simpler and involves the assumption that an intersection zone is an unsteady running section and that LWA for a nonsteady running section is larger than that for a steady running section. Noise predicting by the three simple methods is compared with actual measurements at 10 sites. The two new methods had slightly improved accuracy relative to the measured results.
doi_str_mv 10.1250/ast.31.87
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subjects A-weighted sound power level
ASJ RTN-Model
Equivalent continuous A-weighted sound pressure level
Intersection
Noise
title Methods for predicting noise in the vicinity of signalized intersections
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