TABLE 1.
Study | Animals and model | Noise scenario | Major outcome of noise exposure | Ref |
---|---|---|---|---|
Peterson 1981 | Rhesus Monkey | 85 dB, 97 dB peak, unknown type, 9 months | Blood pressure elevation ∼30 mmHg | Peterson et al. (1981) |
Borg 1981 | Rat | 80 dB, 100 dB, unknown type, 10 h, lifelong | Noise-exposed spontaneously hypertensive rats had shorter lifespan and higher incidence of cardiovascular disease, but no differences were found in normotensive rats | Borg and Jarplid (1981) |
Peterson 1984 | Macaque Monkey | 86.6 dB, construction noise, 4 h/8 h, 97 days | Mean blood pressure elevation remained elevated after noise cessation, but heart rate returned to normal relatively quickly | Peterson et al. (1984b) |
Kirby 1984 | Macaque Monkey | 95 dB, broadband noise, 30 m | Offspring of hypertensive monkeys were more sensitive to blood pressure increases from loud noise | Kirby et al. (1984) |
Dengerink 1985 | Guinea Pigs | 120 dB, white noise, 30 m | Effects in cochlear vessel lumen and RBC behavior appear to normalize after 2 days of “noise washout” | Dengerink et al. (1985) |
Paparelli 1992 | Rat | 100 dB, white noise, 12 h | Increased density of noradrenergic cardiac fibers in young animals. In aged animals, increased aortic maximal response to the α-agonist on the aortic musculature and reduced responsiveness to the β-agonist in cardiac fibers | Paparelli et al. (1992) |
Morvai 1994 | Rat | 95 dBA, industrial noise, 6 h, 3 weeks | Noise and alcohol modify the α-adrenergic effect of noradrenaline | Morvai et al. (1994) |
Herrmann 1994 | Rat | 65 dBA, unknown type, 52 weeks | Increased microvessel area, cardiac fibrosis, and ischemic myocardial lesions in SHR exposed to noise | Herrmann et al. (1994) |
Breschi 1995 | Rat | 100 dB, white noise, 1 h/6 h | Diazepam and clonazepam pre-treatment reversed the effects of noise on CBR binding and protected cardiac tissue and aortic responses from the effects of 6 h noise stress | Breschi et al. (1995) |
Salvetti 2000 | Rat | 100 dBA, white noise, 6/12 h | Significant decrease in the binding sites availability of peripheral benzodiazepine receptors following noise | Salvetti et al. (2000) |
Singewald 2000 | Rat | 95 dB, unknown type, 3 m | Noise stress resulted in exaggerated glutaminergic responses in the amygdala of SHR versus Wistar-Kyoto | Singewald et al. (2000) |
Bauer 2001 | Sheep | 161 dB, airborne impulse noise, 20 impulses | Fetal heart rate was affected in both REM and NREM sleep, power of delta, theta, and alpha band power was reduced and cortical activity was detected | Bauer et al. (2001) |
Gesi 2002 | Mouse | 100 dBA, white noise, 6 h | Cardiomyocytes from the right atria and left ventricles display disarranged cristae and matrix dilution in mitochondria | Gesi et al. (2002) |
Lenzi 2003 | Rat | 100 dBA, white noise, 12 h | Increased catecholamine content in myocardium, DNA damage in cardiomyocytes, mitochondrial membrane swelling in right atrium | Lenzi et al. (2003) |
Frenzilli 2004 | Rat | 100 dBA, white noise, 12 h | DNA damage in the adrenal gland, possible redox involvement | Frenzilli et al. (2004) |
Baldwin 2007 | Rat | 90 dB, unknown type, 15 m, 3/5 weeks | Noise increased leakiness of mesenteric arteries, mitigated by vitamin c | Baldwin and Bell (2007) |
Antunes 2013 | Rat | 90 dB, low frequency, unknown duration | Significant myocardial fibrosis detected via CAB staining and alterations in connexin 43 and collagen expression in noise-exposed rats | Antunes et al. (2013a); Antunes et al. (2013b); Antunes et al. (2013c) |
Arpornchayanon 2013 | Guinea Pigs | 106 dB, unknown type, 30 m | TNF-α signaling is activated in the cochlea following noise exposure, causing vessel constriction. Improved by etanercept. | Arpornchayanon et al. (2013) |
Gannouni 2013 | Rat | 70 dB, 80 dB, unknown type, 6 h, 90 days | Increased corticosterone levels, affected various parameters of the endocrine glands and cardiac function. Markers of oxidative stress (catalase, superoxide dismutase and lipid peroxidation) were increased | Gannouni et al. (2013) |
Gannouni 2014 | Rat | 70 dBA, unknown type, 6 h/day, 3/5 m | Structural alterations within the adrenal gland consistent with chronic stress. Signs of necrosis and inflammation in myocardium | Gannouni et al. (2014) |
Said 2016 | Rat | 80–100 dB, chronic and intermittent, unknown type, 8 h, 20 days | Increases in plasma levels of corticosterone, adrenaline, noradrenaline, endothelin-1, nitric oxide and malondialdehyde. Decreases in superoxide dismutase | Said and El-Gohary (2016) |
Lyamin 2016 | Beluga Whale | 140–175 dB, unknown type, 2–4 h, 60 events | Heart rate acceleration following noise exposure. Calves were more susceptible to the effects of noise and did not habituate | Lyamin et al. (2016) |
Konkle 2017 | Rat | 87.3 dBA, unknown type, 15 min–1 h, 21 days | Plasma ACTH, adrenal gland weight, IL6, IL1b levels were unchanged following noise exposure. Increases in TNFα and CRP were seen. | Konkle et al. (2017) |
Lousinha 2018 | Rat | 120 dB, high intensity infrasound, 28 days | Exposed mice had prominent perivascular tissue with notable fibrosis that was mitigated by dexamethasone treatment. | Lousinha et al. (2018) |
Yang 2020 | Mouse | 105 dB SPL, unknown type, 1/4 h | DNA damage response genes appear to fail to respond to noise-induced DNA damage in cochlea, heart, liver, and cortex | Yang and Guthrie (2020) |
Lousinha 2020 | Rat | 120 dB, high intensity infrasound, 12 weeks | Atrial interstitial fibrosis was increased and connexin 43 weas decreased following noise exposure | Lousinha et al. (2020) |
Kvandova 2020 | Mouse | 72 dBA, intermittent aircraft, 4 days | Oxidative parameters and DNA damage increased following noise exposure with synergetic increases in Ogg-/- mice. | Kvandova et al. (2020) |
Gogokhia 2021 | Rat | High intensity white noise, 1 h, 10 days | Male rats show higher anxiety-like response following noise | Gogokhia et al. (2021) |
Bayo Jimenez 2021 | Mouse | 72 dBA, intermittent aircraft, 4 days | Induction of NRF2/HO-1 protected against oxidative damage, normalized blood pressure, and vascular endothelial function | Bayo Jimenez et al. (2021) |
Table was taken from PhD thesis of Katie Frenis.