Noise pollution

Traffic is the main source of noise pollution in cities and other places .
A Qantas Boeing 747-400 passes close to houses shortly before landing at London Heathrow Airport.

Noise pollution, also known as pollution of sound environmental noise or sound pollution, is the propagation of noise with harmful impact on the activity of human or animal life. The source of outdoor noise worldwide is mainly caused by machines, transport (especially planes) and propagation systems.[1][2] Poor urban planning may give rise to noise pollution, side-by-side industrial and residential buildings can result in noise pollution in the residential areas. Some of the main sources of noise in residential areas include loud music, transportation noise, lawn care maintenance, nearby construction, explosions, or young people yelling (sports games). Noise pollution associated with household electricity generators is an emerging environmental degradation in many developing nations. The average noise level of 97.60 dB obtained exceeded the WHO value of 50 dB allowed for residential areas.[3] Research suggests that noise pollution is the highest in low-income and racial minority neighborhoods.[4] Documented problems associated with urban environment noise go back as far as ancient Rome.[5]

High noise levels can contribute to cardiovascular effects in humans and an increased incidence of coronary artery disease.[6][7] In animals, noise can increase the risk of death by altering predator or prey detection and avoidance, interfere with reproduction and navigation, and contribute to permanent hearing loss.[8] While the elderly may have cardiac problems due to noise, according to the World Health Organization, children are especially vulnerable to noise, and the effects that noise has on children may be permanent.[9] Noise poses a serious threat to a child’s physical and psychological health, and may negatively interfere with a child's learning and behavior.[10]

Humans[edit]

Noise level from a leaf blower using the NIOSH Sound Level Meter app showing 95.3 decibels.
Noise level from a leaf blower using NIOSH Sound Level Meter app

Noise pollution affects both health and behavior. Unwanted sound (noise) can damage physiological health. Noise pollution can cause hypertension, high stress levels, tinnitus, hearing loss, sleep disturbances, and other harmful and disturbing effects.[11][12][13][14] According to a 2019 review of the existing literature, noise pollution was associated with faster cognitive decline.[15]

A sound level meter, is one of the main tools for measuring sounds in the environment and the workplace

Sound becomes unwanted when it either interferes with normal activities such as sleep or conversation, or disrupts or diminishes one's quality of life.[16] Noise-induced hearing loss can be caused by prolonged exposure to noise levels above 85 A-weighted decibels.[17] A comparison of Maaban tribesmen, who were insignificantly exposed to transportation or industrial noise, to a typical U.S. population showed that chronic exposure to moderately high levels of environmental noise contributes to hearing loss.[18]

Noise exposure in the workplace can also contribute to noise-induced hearing loss and other health issues. Occupational hearing loss is one of the most common work-related illnesses in the U.S. and worldwide.[19]

Less addressed is how humans adapt to noise subjectively. Indeed, tolerance for noise is frequently independent of decibel levels. Murray Schafer's soundscape research was groundbreaking in this regard. In his work, he makes compelling arguments about how humans relate to noise on a subjective level, and how such subjectivity is conditioned by culture.[20] Schafer also notes that sound is an expression of power, and as such, material culture (e.g., fast cars or Harley Davidson motorcycles with aftermarket pipes) tend to have louder engines not only for safety reasons, but for expressions of power by dominating the soundscape with a particular sound. Other key research in this area can be seen in Fong's comparative analysis of soundscape differences between Bangkok, Thailand and Los Angeles, California, US. Based on Schafer's research, Fong's study showed how soundscapes differ based on the level of urban development in the area. He found that cities in the periphery have different soundscapes than inner city areas. Fong's findings tie not only soundscape appreciation to subjective views of sound, but also demonstrates how different sounds of the soundscape are indicative of class differences in urban environments.[19]

Noise pollution can have negative affects on adults and children on the autistic spectrum.[21] Those with Autism Spectrum Disorder (ASD) can have hyperacusis, which is an abnormal sensitivity to sound.[22] People with ASD who experience hyperacusis may have unpleasant emotions, such as fear and anxiety, and uncomfortable physical sensations in noisy environments with loud sounds.[23] This can cause individuals with ASD to avoid environments with noise pollution, which in turn can result in isolation and negatively affect their quality of life. Sudden explosive noises typical of high-performance car exhausts and car alarms are types of noise pollution that can affect people with ASD.[24]

Wildlife[edit]

Noise can have a detrimental effect on animals, increasing the risk of death by changing the delicate balance in predator or prey detection and avoidance, and interfering the use of the sounds in communication, especially in relation to reproduction and in navigation. These effects then may alter more interactions within a community through indirect (“domino”) effects.[25] Acoustic overexposure can lead to temporary or permanent loss of hearing.

European robins living in urban environments are more likely to sing at night in places with high levels of noise pollution during the day, suggesting that they sing at night because it is quieter, and their message can propagate through the environment more clearly.[26] The same study showed that daytime noise was a stronger predictor of nocturnal singing than night-time light pollution, to which the phenomenon often is attributed. Anthropogenic noise reduced the species richness of birds found in Neoptropical urban parks.[27]

Zebra finches become less faithful to their partners when exposed to traffic noise. This could alter a population's evolutionary trajectory by selecting traits, sapping resources normally devoted to other activities and thus leading to profound genetic and evolutionary consequences.[28]

Underwater noise pollution due to human activities is also prevalent in the sea. Cargo ships generate high levels of noise due to propellers and diesel engines[29] [30]. This noise pollution significantly raises the low-frequency ambient noise levels above those caused by wind[31]. Animals such as whales that depend on sound for communication can be affected by this noise in various ways. Even marine invertebrates, such as crabs (Carcinus maenas), have been shown to be negatively affected by ship noise.[5][32] Larger crabs were noted to be negatively affected more by the sounds than smaller crabs. Repeated exposure to the sounds did lead to acclimatization.[33]

Higher ambient noise levels also cause animals to vocalize more loudly, which is called the Lombard effect. Researchers have found that humpback whales' song lengths were longer when low-frequency sonar was active nearby.[34]

Noise pollution may have caused the death of certain species of whales that beached themselves after being exposed to the loud sound of military sonar.[35] (see also Marine mammals and sonar)

The sound tube in Melbourne, Australia is designed to reduce roadway noise without detracting from the area's aesthetics.
A man inserting an earplug in his ear to reduce his noise exposure
A man inserting an earplug in his ear to reduce the noise exposure

The Hierarchy of Controls concept is often used to reduce noise in the environment or the workplace. Engineering noise controls can be used to reduce noise propagation and protect individuals from overexposure. When noise controls are not feasible or adequate, individuals can also take steps to protect themselves from the harmful effects of noise pollution. If people must be around loud sounds, they can protect their ears with hearing protection (e.g., ear plugs or ear muffs).[36] In recent years, Buy Quiet programs and initiatives have arisen in an effort to combat occupational noise exposures. These programs promote the purchase of quieter tools and equipment and encourage manufacturers to design quieter equipment.[37]

Noise from roadways and other urban factors can be mitigated by urban planning and better design of roads. Roadway noise can be reduced by the use of noise barriers, limitation of vehicle speeds, alteration of roadway surface texture, limitation of heavy vehicles, use of traffic controls that smooth vehicle flow to reduce braking and acceleration, and tire design. An important factor in applying these strategies is a computer model for roadway noise, that is capable of addressing local topography, meteorology, traffic operations, and hypothetical mitigation. Costs of building-in mitigation can be modest, provided these solutions are sought in the planning stage of a roadway project.

Aircraft noise can be reduced by using quieter jet engines. Altering flight paths and time of day runway has benefited residents near airports.

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  18. ^ Schafer, Murray (1977). The Soundscape. Destiny Books.
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  20. ^ a b "Autism & Anxiety: Parents seek help for extreme reaction to loud noise". Autism Speaks. Retrieved 2018-11-05.
  21. ^ "Tinnitus and Hyperacusis: Overview". American Speech-Language-Hearing Association. Retrieved 2019-04-12.
  22. ^ Stiegler, L. N.; Davis, R. (2010). "Understanding Sound Sensitivity in Individuals with Autism Spectrum Disorders". Focus on Autism and Other Developmental Disabilities. 25 (2): 67–75. doi:10.1177/1088357610364530.
  23. ^ Barton, Brandon T.; Hodge, Mariah E.; Speights, Cori J.; Autrey, Anna M.; Lashley, Marcus A.; Klink, Vincent P. (10 July 2018). "Testing the AC/DC hypothesis: Rock and roll is noise pollution and weakens a trophic cascade". Ecology and Evolution. 8 (15): 7649–7656. doi:10.1002/ece3.4273. PMC 6106185. PMID 30151178.
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  25. ^ Perillo, A.; Mazzoni, L. G.; Passos, L. F.; Goulart, V. D. L. R.; Duca, C.; Young, R. J. (2017). "Anthropogenic noise reduces bird species richness and diversity in urban parks". Ibis. 159 (3): 638–646. doi:10.1111/ibi.12481.
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  • Robert Bartholomew (1974), Sonic environment and human behavior, Exchange Bibliography (565), US: Council of Planning Librarians, ISSN 0010-9959 – via Internet Archive Free to read

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