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1.
Cogn Emot ; 33(6): 1099-1118, 2019 09.
Article in English | MEDLINE | ID: mdl-30409082

ABSTRACT

With over 560 citations reported on Google Scholar by April 2018, a publication by Juslin and Gabrielsson (1996) presented evidence supporting performers' abilities to communicate, with high accuracy, their intended emotional expressions in music to listeners. Though there have been related studies published on this topic, there has yet to be a direct replication of this paper. A replication is warranted given the paper's influence in the field and the implications of its results. The present experiment joins the recent replication effort by producing a five-lab replication using the original methodology. Expressive performances of seven emotions (e.g. happy, sad, angry, etc.) by professional musicians were recorded using the same three melodies from the original study. Participants (N = 319) were presented with recordings and rated how well each emotion matched the emotional quality using a 0-10 scale. The same instruments from the original study (i.e. violin, voice, and flute) were used, with the addition of piano. In an effort to increase the accessibility of the experiment and allow for a more ecologically-valid environment, the recordings were presented using an internet-based survey platform. As an extension to the original study, this experiment investigated how musicality, emotional intelligence, and emotional contagion might explain individual differences in the decoding process. Results found overall high decoding accuracy (57%) when using emotion ratings aggregated for the sample of participants, similar to the method of analysis from the original study. However, when decoding accuracy was scored for each participant individually the average accuracy was much lower (31%). Unlike in the original study, the voice was found to be the most expressive instrument. Generalised Linear Mixed Effects Regression modelling revealed that musical training and emotional engagement with music positively influences emotion decoding accuracy.


Subject(s)
Auditory Perception/physiology , Emotions/physiology , Music/psychology , Adult , Aged , Female , Humans , Male , Middle Aged , Young Adult
3.
Occup Environ Med ; 71(7): 472-6, 2014 Jul.
Article in English | MEDLINE | ID: mdl-24790053

ABSTRACT

BACKGROUND: Hearing disorders have been associated with occupational exposure to music. Musicians may benefit from non-amplified and low-intensity music, but may also have high risks of music-induced hearing loss. AIMS: To compare the incidence of hearing loss (HL) and its subentities in professional musicians with that in the general population. METHODS: We performed a historical cohort study among insurants between 19 and 66 years who were employed subject to social insurance contributions. The study was conducted with data from three German statutory health insurance providers covering the years 2004-2008 with about 7 million insurants. Incidence rates with 95% CIs of HL and the subentities noise-induced hearing loss (NIHL), conductive HL, sensorineural HL, conductive and sensorineural HL, as well as tinnitus were estimated stratified by age, sex and federal state. A Cox regression analysis was conducted to estimate adjusted HRs and two-sided 95% CIs for HL and its subentities. RESULTS: More than 3 million insurants were eligible, of whom 2227 were identified as professional musicians (0.07%). During the 4-year observation period, 283,697 cases of HL were seen, 238 of them among professional musicians (0.08%), leading to an unadjusted incidence rate ratio of 1.27. The adjusted hazard ratio of musicians was 1.45 (95% CI 1.28 to 1.65) for HL and 3.61 (95% CI 1.81 to 7.20) for NIHL. CONCLUSIONS: Professional musicians have a high risk of contracting hearing disorders. Use of already available prevention measures should reduce the incidence of HL in professional musicians.


Subject(s)
Hearing Loss, Noise-Induced/etiology , Hearing Loss/etiology , Music , Occupational Diseases/etiology , Occupational Exposure/adverse effects , Adult , Aged , Female , Hearing Loss/epidemiology , Hearing Loss, Conductive/epidemiology , Hearing Loss, Conductive/etiology , Hearing Loss, Noise-Induced/epidemiology , Hearing Loss, Sensorineural/epidemiology , Hearing Loss, Sensorineural/etiology , Humans , Incidence , Male , Middle Aged , Occupational Diseases/epidemiology , Proportional Hazards Models , Risk Factors , Tinnitus/epidemiology , Tinnitus/etiology , Young Adult
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