Chiu, Chun-Hsiang邱俊祥

Postdoctoral Research Fellow

Research Interests

Exposure and risk assessment (including low frequency noise from wind turbine, heat-stress exposure and particulate matter), Air pollution control and technology, Synthesis of nanostructural adsorbents and catalysts for multipollutant (Hg/SOx/NOx) control, Environmental analytical chemistry (qualitative and quantitative determination of heavy metals in waste, waste water)

Representative Publications

C. H. Chiu, S. C. C. Lung*, (2020): Assessment of Low-Frequency Noise from Wind Turbines under Different Weather Conditions. Journal of Environmental Health Science and Engineering,

C. H. Chiu, H. P. Lin, T. H. Kuo, S. F. Lin, H. C. Hsi*, (2017): Multipollutant removal of Hg0/SO2/NO from simulated coal-combustion flue gases using metal oxide/mesoporous SiO2 composites, International Journal of Coal Geology, 170, 60-68.

C. H. Chiu, H. C. Hsi*, H. P. Lin, (2015): Multipollutant control of Hg/SO2/NO from coal-combustion flue gases using transition metal oxide-impregnated SCR catalysts. Catalysis Today, 245, 2-9.

C. H. Chiu, H. C. Hsi*, H. P. Lin, T. C. Chang, (2015): Effects of properties of manganese oxide-impregnated catalysts and flue gas condition on simultaneous control of Hg0/SO2/NO. Journal of Hazardous Materials, 291, 1-8.

C. H. Chiu, H. C. Hsi*, C. C. Lin, (2014): Control of mercury emissions from coal-combustion flue gases using CuCl2-modified zeolite and evaluating the cobenefit effects on SO2 and NO removal, Fuel Processing Technology, 126, 138-144.


Assessment of low-frequency noise from wind turbines  This work tries to estimate the sound power level of wind turbines (LW,A (dB)) at 20–200 Hz, which are not provided by manufacturers but essential for estimating LFN exposure (LAeq) of nearby residents. This study successfully determined and validated the LW,A of wind turbines of three brands, and subsequent residents’ LFN exposure (with 1.5 dB difference) at three wind farms. Accurately obtaining LFN exposure will serve as the basis for assessing LFN exposure-health relationship. As wind power widely use worldwide, health impact should be assessed based on validated LFN exposure assessment [1].
Reference: [1]. Chiu and Lung, 2020.

Effects of low-frequency noise from wind turbines on heart rate variability  The study assessed heart rate variability (HRV) response to LFN exposures and that evaluated the LFN exposure (dB, LAeq) for residents in households indoor. Our results showed that in every 1 dB (LAeq), subjects’ SDNN (standard deviation of all normal to normal R-R intervals) reduced by 0.43 %, in the range of 38.2-57.1 dB (LAeq). Results of household monitoring showed that indoor LFN exposures (LAeq) were 30.7-43.4 dB (LAeq) at a distance of 124-330 m from wind turbines. Moreover, households with concrete and airtight windows are the highest LFN differences between indoor and outdoor, compared with households with concrete and/or brick. In view of the adverse health impact of LFN exposure, there should be regulations on requisite distances of wind turbines from residential communities for health protection. (Paper to be submitted)

  • Ph.D.
    Graduate Institute of Engineering Technology-Doctoral (Environmental engineering and management)
    National Taipei University of Technology, Taiwan (2015)
  • M.S.
    Department of Environmental Engineering and Management
    Chaoyang University of Technology, Taiwan (2009)
  • B.A.
    Department of Environmental Engineering and Science
    Chia Nan University of Pharmacy & Science, Taiwan (2007)
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