Abstract
Background
Use of social media (SM) has exponentially grown particularly among youths in the past two years, due to COVID-19-related changing lifestyles. Based on the Italian COvid Mental hEalth Trial (COMET), we investigated the association between SM use and depressive symptoms among Italian young adults (aged 18–24).
Methods
The COMET is a nationwide multi-center cross-sectional study that investigated socio-demographic data, social networking addiction (BSNAS), depression, anxiety, and stress (DASS-21), as well as impulsiveness (BIS-15) and aggressiveness (AQ) in a large sample of youngsters, in order to assess the association between BSNAS and DASS-21 indices. Mediation analyses were performed to evaluate the role of impulsiveness and aggressive personality traits in the association between SM use (SMU) and depression.
Results
75.8% of the sample (n = 491) had a problematic SMU. SMU was reduced by high AQ and high DASS-21 scores (F = 42.338, p < 0.001, R2 = 0.207). Mediation analyses showed that SMU negatively predicted depressive symptomatology with the interaction mediated by AQ total (ß = − 0.1075), physical (ß = − 0.207) and anger (ß = − 0.0582), BIS-15 total (ß = − 0.0272) and attentional (ß = − 0.0302). High depressive levels were predicted by high AQ scores, low SMU levels, low verbal and physical AQ, and low attentional BIS-15 (F = 30.322, p < 0.001, R2 = 0.273). Depressive symptomatology negatively predicted SMU with their interaction mediated by AQ total (ß = − 0.1640), verbal (ß = 0.0436) and anger (ß = − 0.0807), BIS-15 total (ß = − 0.0448) and attentional (ß = − 0.0409).
Conclusions
SMU during the early phases of the COVID-19 pandemic could have a beneficial role in buffering negative consequences linked to social isolation due to quarantine measures, despite this association being mediated by specific personality traits.
Keywords: Aggressiveness, COVID-19, Impulsiveness, Problematic social media use, Social networking
Introduction
Social Media (SM) is a group of Internet-based applications that build on the ideological and technological foundations of web 2.0. (i.e., the way in which end-users started to utilize the Internet platform, whereby content and applications are no longer created and published by individuals but instead continuously modified by all users in a participatory and collaborative way) and that allow the creation and exchange of user-generated content [1–3]. SM platforms have exponentially grown in their use over the last decade, particularly among young people [4, 5] and the so-called ‘digital natives’ have grown up immersed in the digital technology, with an habitual SM use of about 90% [6, 7].
Several studies outlined the positive role of SM in fostering individual’s wellbeing, by enriching everyday-user experiences, facilitating social cohesion, increasing feelings of connectedness and closeness with friends, as well as enhancing selective self-disclosure and social support [8–11]. An enhanced friendship quality and perceived increased social support, due to the social networking use, were also identified as protective factors against depressive symptomatology [12, 13]. SM use is becoming increasingly common also in mental health care, by facilitating networking with peers/colleagues/patients, mentorship, education and research, particularly among youths [14]. However, despite these promising beneficial advantages, other studies raised concerns regarding the potential addictive use of social networking platforms, by underlining the negative association between a problematic social media use (PSMU) and psychological consequences [15–19]. PSMU is characterized by an excessive individual’s concern about online social networking activities, being driven by a strong motivation to log on or use SM, and devoting so much time and effort to use these online platforms. This may lead the subject to totally or partially impair other social activities, including the school/university/job, interpersonal relationships and overall wellbeing [15, 16]. The global pooled prevalence of PSMU was estimated to be 17.4% (95%CI 12.4–23.9), considering the increase occurred due to the COVID-19 [20]. PSMU, including the compulsive involvement in online social networking activities, has been also negatively associated with worst individual's physical and mental health, poor wellbeing, relationships, reduced self-esteem levels, poor sleep quality, increased loneliness and depressive levels [17, 21–26], particularly among adolescents and young adults [27–29]. Systematic reviews reporting a suggestive detrimental effect of wireless devices and SM use on youth’ mental health also recommended caution in interpreting these findings, because of the lack of high-quality longitudinal studies [30–32]. Recent literature also reported that the effect on youth mental health mainly depends on the time and type of SM used as well as on individual vulnerability [31–33].
The rapid outbreak of the coronavirus pandemic (COVID-19) had a significant impact on people’s everyday life, as restrictive measures were imposed to reduce physical contact to limit the viral transmission [34–37]. These changes in lifestyle were associated to an increase of the frequency and intensity of individual’s engagement in online activities, including social networking use [20, 38]. Such an increase has been associated to managing the reduced sense of control, to escaping the anxiety and uncertainty feelings and to being constantly informed about updates and news and maintain peer-to-peer social contact [39, 40].
According to our previous results from the COMET study [41, 42], COVID-19-related social isolation predispose to increased problematic internet activities (i.e., videogaming and internet addiction) in the general population, while youngsters reported a higher increase in SM activities compared to adults [43]. The COVID-19-related ‘stay-at-home’ policy may have disrupted certain social needs (i.e., need for relatedness) and incentivized the SM use, to gain social compensation through virtual interactions [44, 45]. Other studies documented that SM use and relatedness need satisfaction improve mental health issues, particularly depressive symptoms and loneliness [46–49].
In order to investigate the role of social networking use during the COVID-19 outbreak among more vulnerable individuals (i.e., young people), we carried out a post hoc analysis study by selecting only the younger population (aged 18–24; [50]), from the COMET study sample [43]. We aimed to focus on the association between the psychopathological burden and the SM use during the COVID-19 lockdown. The main objectives of the present study were to: (a) report the characteristics of young people experiencing PSMU versus non-PSMU, during the phase II and phase III of COVID-19 pandemic in a multi-center sample of young adults aged 18–24 years; (b) describe the effects of the COVID-19-related psychopathological symptoms on the emergence of PSMU in the same sample; (c) evaluate the specific role of SM use during the COVID-19 outbreak in the relationship between PSMU and depressive symptomatology.
Materials and methods
The COvid Mental hEalth Trial (COMET) is a population-based Italian multi-center study, with cross-sectional observational design, using a snowball sampling method. The full study protocol is available elsewhere [41, 42]. All participants provided their written informed consent to participate in the study. The study was approved by the Ethical Review Board of the University of Campania “L. Vanvitelli” (Protocol number: 0007593/i) and it complies with the Declaration of Helsinki.
Eligible participants were requested to complete all sections of the survey, including a socio-demographic section, clinical data (e.g., pre-existing physical and/or mental illness, information regarding the COVID-19 infection and hospitalization, isolation and/or quarantine, and so forth) and a set of validated questionnaires (see “Measures”). For the full protocol and methodology of the COMET satellite study on web-based psychopathologies, see Volpe et al. [43].
Measures
The Depression, Anxiety and Stress Scale (DASS-21, Italian short version) [51] is a self-report questionnaire consisting of 21 items, on a 4-point Likert scale, divided in three subscales (depressive, anxiety and stress). The DASS-21 total score provides a general psychopathology index [52]. Here, we focused on the “depression” subscale dimension measures the level of dysphoria, hopelessness, devaluation of life, self-deprecation, and lack of interest/involvement, anhedonia and inertia.
The Bergen Social Networking Addiction Scale (BSNAS, Italian version) [53] is a 6-item self-report questionnaire on a 5-point Likert scale assessing the SM use over a period of 12 months. BSNAS items measure each core addiction element (i.e., salience, mood modification, tolerance, withdrawal, conflict and relapse). Higher BSNAS scores indicate a greater risk of SM addiction. The BSNAS demonstrated a good reliability [54]. Based on the BSNAS cut-off of 16, the sample was split in two groups, to discriminate between those participants with a problematic social networking use (BSNAS+) versus those participants without a problematic social networking use (BSNAS−) [53].
The Barratt Impulsiveness Scale (BIS-15, Italian version) [55] is a short-version of the self-reported Barratt Impulsiveness Scale (BIS) [56], consisting of 15 items on a 4-point Likert scale and three subscales: motor (acting without thinking), attentional (a lack of focus on the ongoing task) and nonplanning impulsivity (orientation to the present rather than to the future) ones [57]. The severity and type of impulsiveness were tested for their potential mediator roles in the relationship between BSNAS and DASS-21 depression.
The Aggression Questionnaire (AQ, Italian version) [58] is a 29-item self-report questionnaire on a 7-point Likert scale, developed to assess four major components of aggression (physical aggression, verbal aggression, anger and hostility). The severity and type of impulsiveness were tested for their potential mediator roles in the relationship between BSNAS and DASS-21 depression.
Statistical analysis
Descriptive statistics were performed in order to investigate the socio-demographic and clinical characteristics of the sample. Categorical variables are summarized as frequency (n) and percentage (%). The χ2 test was used to compare all categorical variables with each other as well as to compare all socio-demographic variables between two groups (i.e., BSNAS + vs BSNAS −). Continuous variables are summarized as mean and standard deviation (SD). The normality of the distribution of the continuous variables were tested using the Kolmogorov–Smirnov test. Since our continuous variables showed a normal distribution, independent samples Student’s T-test and two-way tailored analysis of variance (ANOVA) were used to investigate the level of severity of PSMU (as measured by BSNAS), according to a set of categorical independent variables (i.e., gender, phase II vs. phase III, being infected and/or hospitalized due to COVID-19 infection, being isolated due to COVID-19 infection, being isolated due to a contact with someone affected with COVID-19, having lost job due to the COVID-19 pandemic, having a pre-existing physical disorder, having a pre-existing mental disorder).
Bivariate Pearson’s correlations have been used to investigate potential relationships between BSNAS total score and the following continuous variables: DASS total score, DASS depressive symptoms, DASS anxiety symptoms, DASS stress symptoms, AQ total score and subscales, and BIS-15 total score and subscales. Statistical analyses were firstly carried out by considering BSNAS (as measure of PSMU) as primary outcome in order to evaluate whether COVID-19-related variables could be predictors of a higher risk of developing PSMU in our cohort of young people recruited during the second and third Italian COVID-19 waves. Then, we carried out all analyses by considering as primary outcome the DASS-21 depressive symptomatology, in order to identify whether PSMU and/or higher vs. lower levels of BSNAS could be risky or protective factors for the emergence of clinically significant depressive levels in our cohort of young people during the COVID-19 pandemic.
Therefore, in order to identify possible predictors of the levels of PSMU (as measured by BSNAS), a multivariate linear regression model was performed, including as independent variables: DASS-21 total score, DASS-21 depression, anxiety, and stress subscales, gender, having being infected by the COVID-19, having being isolated due to the contact with a person infected by the COVID-19, having being quarantined due to the infection with COVID-19, having a pre-existing mental disorder and/or having a pre-existing physical disorder. In addition, a stepwise binary logistic regression analysis was performed in order to evaluate the predictors associated with the presence of PSMU (vs. non-PSMU) after categorizing BSNAS total score into two dichotomous values according to the established cut-off of 16. The estimated odds ratios (OR) along with the 95% of confidence intervals (95% CI), and standardized coefficient β values were generated for each variable.
Furthermore, in order to evaluate possible predictors of the depressive levels (as measured by the depressive subscale of the DASS-21) in our sample of young people, a multivariate linear regression model was performed, including as independent variables all COVID-19-related variables (as above described), AQ total and subscales, BIS-11 and subscales, BSNAS total score and dichotomous BSNAS variable (i.e., presence vs. absence of PSMU). Following the identification of significant predictors of depressive symptomatology, PROCESS macro (version 3.5.3, February 2021) for SPSS [59] was run to carry out mediation analyses (Model 4) to test whether the direct or indirect effect of BSNAS (as independent variable) on DASS-21 depression subscale (as dependent variable), were mediated by AQ total score and/or subscales and BIS-11 total score and/or subscales. Indicators of indirect effects were tested using a bias-corrected bootstrapping (n = 5000) with 95% CI, by setting a statistical significance when the 95% CI does not contain zero. For all analyses, the level of statistical significance was set at p < 0.05, two-tailed. All analyses were performed using the software Statistical Package for Social Science (SPSS) version 27.0 (IBM SPSS Statistics, Chicago, IL, United States).
Results
Socio-demographic and psychopathological characteristics
The final sample consists of 491 individuals, with a slight prevalence of females (64.4%, N = 316) and single (58%, N = 285). The mean age was 21.8 (SD = 1.7) years, without any statistical significant gender-based differences. The most frequent educational levels were university degree (53%; N = 260) and high school diploma (46%; N = 226). Most respondents reside in southern Italy (53.4%; N = 262), followed by central (25.9%; N = 127) and northern Italy (20.8%; N = 102). The employment profile was mainly constituted by students (45.2%, N = 222) and full-time employed (36.3%, N = 178). 3.7% (N = 18) of respondents declared to have lost their job during the current pandemic. Overall, 50.1% of total respondents declared to be satisfied (26.1%, N = 128) or quite satisfied (24%, N = 118) regarding their own current financial situation. Only 11.4% (N = 56) of the sample declared a pre-existing physical illness before the COVID-19 pandemic, while 5.3% (N = 26) were previously affected by a mental disorder. Regarding the COVID-19-related variables, only 4 participants (0.8%) declared a previous COVID-19 infection, 1.8% (N = 9) declared to have experienced a home-based isolation due to the COVID-19, and only one subject had been hospitalized due to the COVID-19 infection. About 4.9% (N = 24) reported to have been isolated due to the contact with a subject infected by COVID-19 (Table 1).
Table 1.
Characteristics | Total sample (N = 491) | BSNAS − (N = 119) | BSNAS + (N = 372) | p-values |
---|---|---|---|---|
Age, years, mean ± SD | 21.8 ± 1.7 | 21.6 ± 1.8 | 21.9 ± 1.7 | *t = − 1.374 p = 0.183 |
Gender, % (N) | ||||
Female | 64.4% (N = 316) | 27.2% (N = 86) | 72.8% (N = 230) | **χ2(1) = 4.285 p = 0.047*** |
Male | 35.6% (N = 175) | 18.9% (N = 33) | 81.1% (N = 142) | |
Marital status, % (N) | ||||
Single | 58% (N = 285) | 16.5% (N = 47) | 83.5% (N = 238) | **χ2(3) = 24.623 p < 0.001 |
Married or cohabiting | 38.3% (N = 188) | 33.5% (N = 63) | 66.5% (N = 125) | |
Separated or divorced | 2.9% (N = 14) | 50% (N = 7) | 50% (N = 7) | |
Widowed | 0.8% (N = 4) | 50% (N = 2) | 50% (N = 2) | |
Education level, % (N) | ||||
University degree, yes, % (N) | 53% (N = 260) | 27.7% (N = 72) | 72.3% (N = 188) | **χ2(3) = 7.121 p = 0.068 |
High school degree, yes, % (N) | 46% (N = 226) | 19.9% (N = 45) | 80.1% (N = 181) | |
Middle school, yes, % (N) | 0.8% (N = 4) | 25% (N = 1) | 75% (N = 3) | |
Elementary school, yes, % (N) | 0.2% (N = 1) | 100% (N = 0) | 0 (N = 0) | |
Employment level, % (N) | ||||
Full-time employed, yes, % (N) | 36.3% (N = 178) | 32% (N = 57) | 68% (N = 121) | **χ2(4) = 29.422 p < 0.001 |
Unemployed, yes, % (N) | 2.6% (N = 13) | 23.1% (N = 3) | 76.9% (N = 10) | |
Student, yes, % (N) | 45.2% (N = 222) | 13.5% (N = 30) | 86.5% (N = 192) | |
Full-time homemaker, yes, % (N) | 8.8% (N = 43) | 30.2% (N = 13) | 69.8% (N = 30) | |
Lost job due to the pandemic, yes, % (N) | 3.7% (N = 18) | 11.1% (N = 2) | 88.9% (N = 16) | **χ2(1) = 1.753 p = 0.147*** |
Any comorbid physical condition(s), yes, % (N) | 11.4% (N = 56) | 33.9% (N = 19) | 66.1% (N = 37) | **χ2(1) = 3.234 p = 0.072 |
Any mental health problem(s), yes, % (N) | 5.3% (N = 26) | 15.4% (N = 4) | 84.6% (N = 22) | **χ2(1) = 1.171 p = 0.279*** |
Have you been infected by COVID-19, yes, % (N) | 0.8% (N = 4) | 25% (N = 1) | 75% (N = 3) | n.v |
Have you been isolated due to COVID-19 infection, yes, % (N) | 1.8% (N = 9) | 11.1% (N = 1) | 88.9% (N = 8) | n.v |
Have you been hospitalized due to COVID-19 infection, yes, % (N) | 0.2% (N = 1) | 100% (N = 1) | 0% (N = 0) | n.v |
Have you been isolated due to a contact with someone affected by COVID-19, yes, % (N) | 4.9% (N = 24) | 25% (N = 6) | 75% (N = 18) | **χ2(1) = 0.008 p = 0.546*** |
Phase II | 47.5% (N = 233) | 26.2% (N = 61) | 73.8% (N = 172) | **χ2(1) = 0.913 p = 0.339 |
Phase III | 52.5% (N = 258) | 22.5% (N = 58) | 77.5% (N = 200) |
n.v. not valid
*t-Student test
**χ2 test
*** Fisher’s exact test
Significant differences are in bold
The mean total score of DASS-21 was 60.1 (SD = 12.8), DASS-21 depression subscale was 20.1 (SD = 5.4), DASS-21 anxiety subscale was 23.1 (SD = 4.7), and DASS-21 stress subscale was 16.9 (SD = 5.3) (Table 2). The mean total score of BSNAS was 20.4 (SD = 6.8) with about 75.8% of the sample who were classified as having a PSMU (BSNAS ≥ 16). Interestingly, significantly higher DASS-21 total scores, depression, anxiety and stress levels were found in those participants without clinically significant BSNAS scores (BSNAS− group) compared to BSNAS+ group (all with p < 0.001) (Table 2).
Table 2.
Total sample (N = 491) | BSNAS − (N = 119) | BSNAS + (N = 372) | p-values | |
---|---|---|---|---|
DASS-21 total score, mean ± SD | 60.1 ± 12.8 | 67.0 ± 12.2 | 57.9 ± 12.2 | t = 7.100 p < 0.001 |
DASS-21, depression subscale, mean ± SD | 20.1 ± 5.4 | 22.3 ± 5.2 | 19.3 ± 5.3 | t = 5.891 p < 0.001 |
DASS-21, anxiety subscale, mean ± SD | 23.1 ± 4.7 | 25.2 ± 3.4 | 22.4 ± 4.9 | t = 5.816 p < 0.001 |
DASS-21, stress subscale, mean ± SD | 16.9 ± 5.3 | 19.5 ± 5.5 | 16.1 ± 4.9 | t = 6.324 p < 0.001 |
BIS-15 total score, mean ± SD | 39.1 ± 7.6 | 36.9 ± 7.6 | 39.7 ± 7.5 | t = − 3.603 p < 0.001 |
BIS-15, attentional Impulsiveness subscale, mean ± SD | 11.1 ± 3.5 | 10.2 ± 3.3 | 11.3 ± 3.5 | t = − 3.234 p < 0.001 |
BIS-15, motor Impulsiveness subscale, mean ± SD | 12.8 ± 4.6 | 11.7 ± 4.9 | 13.1 ± 4.4 | t = − 2.898 p = 0.007 |
BIS-15, nonplanning impulsiveness subscale, mean ± SD | 10.8 ± 2.4 | 10.7 ± 2.5 | 10.8 ± 2.4 | t = − 0.372 p = 0.715 |
AQ total score, mean ± SD | 98.9 ± 15.3 | 106.9 ± 15.2 | 96.4 ± 14.4 | t = 6.882 p < 0.001 |
AQ, physical aggression subscale, mean ± SD | 34.7 ± 5.0 | 35.8 ± 4.1 | 34.3 ± 5.2 | t = 2.733 p = 0.002 |
AQ, verbal aggression subscale, mean ± SD | 13.3 ± 3.9 | 14.5 ± 4.3 | 12.9 ± 3.7 | t = 3.812 p < 0.001 |
AQ, anger subscale, mean ± SD | 25.2 ± 5.0 | 27.4 ± 5.0 | 24.6 ± 4.8 | t = 5.521 p < 0.001 |
AQ Aggression Questionnaire, BIS-15 Barratt Impulsiveness Scale-15 items, BSNAS Bergen Social Networking Addiction Scale, BSNAS + presence of social networking addiction, BSNAS − absence of social networking addiction, DASS-21 depression anxiety stress scale-21 items, SD standard deviation
*t-Student test
Significant differences are in bold
Predictors of the problematic social networking use
According to the multivariate regression model, social networking use levels were reduced by the presence of a COVID-19 related hospitalization (Beta coefficient, B = − 12.135; 95% confidence interval, CI = (− 24.038)–(− 0.233)], high levels of AQ total scores [B = − 0.123, 95%CI = (− 0.163)–(− 0.083)] and high levels of general psychiatric symptomatology (as measured by DASS-21 total score) [B = − 0.128, 95%CI = (− 0.175)–(− 0.080)]. These variables statistically significantly predicted social networking use levels (F (3, 487) = 42.338, p < 0.001, R2 = 0.207).
Mediation analyses showed that social networking use (as measured by BSNAS) negatively predicted depressive symptomatology and that their interaction is mediated by AQ total score (ß = − 0.1075, 95%CI [(− 0.1449)–(− 0.0740)]) (Fig. 1A); AQ physical aggression subscale (ß = − 0.207, 95%CI [(− 0.378)–(− 0.0069)]) (Fig. 1B); AQ anger subscale (ß = − 0.0582, 95%CI [(− 0.0863–0.0351]) (Fig. 1C); BIS-11 total score (ß = − 0.0272, 95%CI [(− 0.0482)–(− 0.0100)]) (Fig. 2A), and BIS-11 attentional subscale (ß = − 0.0302, 95%CI [(− 0.0520)–(− 0.0130)]) (Fig. 2B).
Legend Fig. 1 Mediation analyses showed that the problematic social networking use negatively predicted depressive symptomatology and that their interaction was mediated by aggressiveness total score (Fig. 1A), physical aggression score (Fig. 1B) and anger/aggressiveness subscale (Fig. 1C).
Legend Fig. 2 Mediation analysis showed that the problematic social networking use negatively predicted depressive symptomatology and that their interaction was mediated by impulsiveness total score (Fig. 2A), attentional impulsiveness (Fig. 2B).
Predictors of the COVID-19-related psychopathology
According to the multivariate regression model, high COVID-19-related depressive levels were predicted by high levels of AQ total scores (B = 0.218, 95%CI = 0.165–0.272, p < 0.001). On the contrary, depressive levels were reduced by the presence of a mental disorder [B = − 3.692, 95%CI = − 5535)–(− 0.189), p < 0.001], high levels of BSNAS [B = − 0.119, 95%CI = (-0.186)–(− 0.052), p < 0.001], high levels of verbal aggressiveness [B = − 0.338, 95%CI = (− 0.491)–(− 0.185), p < 0.001], high levels of physical aggressiveness [B = − 0.207, 95%CI = (− 0.324)–(− 0.090), p < 0.001] and high levels of attentional impulsiveness [B = − 0.153, 95%CI = (− 0.278)–(− 0.029), p = 0.016], which significantly predicted depressive levels F(6, 484) = 30.322, p < 0.001, R2 = 0.273 (Table 3).
Table 3.
B | SE | ß | t | p-value (two-tailed) | |
---|---|---|---|---|---|
(constant) | 18.122 | 2.393 | 7.573 | < 0.001 | |
AQ total score | 0.218 | 0.027 | 0.618 | 8.020 | < 0.001 |
Mental disorder (yes) | − 3.692 | 0.938 | − 0.153 | − 3.936 | < 0.001 |
BSNAS total score | − 0.119 | 0.034 | − 0.149 | − 3.477 | < 0.001 |
AQ verbal aggression | − 0.338 | 0.078 | − 0.244 | − 4.342 | < 0.001 |
AQ physical aggression | − 0.207 | 0.060 | − 0.192 | − 3.473 | < 0.001 |
BIS-15 attentional | − 0.153 | 0.063 | − 0.099 | − 2.419 | 0.016 |
AQ Aggression Questionnaire, BIS-15 Barratt Impulsiveness Scale-15 items, BSNAS Bergen Social Networking Addiction Scale
Significant values are in bold
High anxiety levels were predicted by high levels of AQ total scores (B = 0.146, 95%CI = 0.097–0.195, p < 0.001). Anxiety levels were reduced by the presence of a mental disorder [B = − 2.153, 95%CI = (− 3.837)–(− 0.470), p = 0.012], high levels of BSNAS [B = − 0.103, 95%CI = (− 0.164)–(− 0.042), p = 0.001], high levels of verbal aggressiveness [B = − 0.213, 95%CI = (− 0.353)–(− 0.074), p = 0.003], high levels of physical aggressiveness [B = − 0.116, 95%CI = (− 0.223)–(− 0.009),− 0.253)–(− 0.025), p = 0.017], which significantly predicted depressive levels, F (6, 484) = 19.944, p < 0.001, R2 = 0.198.
High stress levels were predicted by high levels of AQ total scores (B = 0.192, 95%CI = 0.138–0.246, p < 0.001). Stress levels were reduced by high levels of BSNAS [B = − 0.126, 95% CI = (− 0.194)–(− 0.059), p < 0.001], high levels of verbal aggressiveness [B = − 0.250, 95%CI = (− 0.403)–(− 0.097), p = 0.001], high levels of physical aggressiveness (B = − 0.216, 95%CI = (− 0.333)–(− 0.098), p < 0.001] and high levels of attentional impulsiveness [B = − 0.151, 95%CI = (− 0.276)–(− 0.026), p = 0.018], which significantly predicted depressive levels, F (5, 485) = 28.062, p < 0.001, R2 = 0.224.
Furthermore, general psychopathology was predicted by high levels of AQ total scores (B = 0.556, 95%CI = 0.434–0.678, p < 0.001) and reduced by the presence of a mental disorder [B = − 5.962, 95%CI = (− 10.169)–(− 1.755), p = 0.006], high levels of BSMAS [B = − 0.348, 95%CI = (− 0.501)–(− 0.195), p < 0.001], high levels of verbal aggressiveness [B = − 0.801, 95%CI = (− 1.150)–(− 0.452), p < 0.001], high levels of physical aggressiveness [B = − 0.539, 95%CI = (− 0.806)–(− 0.271), p < 0.001] and high levels of attentional impulsiveness [B = − 0.443, 95%CI = (− 0.727)–(− 0.159), p = 0.002]. These variables statistically significantly predicted depressive levels, F (6, 484) = 39.201, p < 0.001, R2 = 0.327.
Mediation analyses showed that COVID-19 related depressive symptomatology significantly predicted social networking use (as measured by BSNAS) and that their interaction is negatively mediated by AQ total score (ß = − 0.1640, 95%CI [(− 0.2237)–(− 0.1130)]) (Fig. 3A), AQ verbal aggression subscale (ß = 0.0436, 95%CI [(0.0760)–(0.0178)]) (Fig. 3B), AQ anger subscale (ß = -0.0807, 95%CI [(− 0.1237–0.0431]) (Fig. 3C), BIS-11 total score (ß = − 0.0448, 95%CI [(− 0.0771)–(− 0.0193)]) (Fig. 4A), and BIS-11 attentional subscale (ß = − 0.0409, 95%CI [(− 0.0721)–(− 0.0153)]) (Fig. 4B).
Legend Fig. 3 Mediation analyses showed that COVID-19-related depressive symptomatology significantly predicted social networking use and that their interaction was negatively mediated by aggressiveness (Fig. 3A), verbal aggression (Fig. 3B), and anger (Fig. 3C).
Legend Fig. 4 Mediation analyses showed that COVID-19 related depressive symptomatology significantly predicted social networking use and that their interaction was negatively mediated by impulsiveness (Fig. 4A) and attentional impulsiveness (Fig. 4B).
Discussion
Social media use has been supposed to cover a pathoplastic role in the development of psychological impairment and/or psychiatric disorders [30–33]. However, it is still controversial the impact of SM use on wellbeing, life satisfaction and mental illness. Actually, such a complex interaction might be influenced by both internal and external factors, including social isolation, decreased community engagement, and loneliness [26, 60–63]. In turn, the impact of SM use on mental wellbeing/illness is influenced by several factors such as use modality (occasional vs. excessive), users’ age and gender, intrinsic and extrinsic motivations in SM use (e.g., to manage impressions, to share emotions, to reduce loneliness feelings, to increase social connectedness) [64, 65].
Our findings show a higher SM use among young people, with 75.8% of them who were classified as having a PSMU (as measured by BSNAS). Interestingly, significantly higher DASS-21 total scores, depression, anxiety and stress levels were found in those participants without clinically significant BSNAS scores; while subjects with PSMU did not manifest a significant psychopathological burden. Our findings point to a ‘protective/resilient’ role of social networking use in mitigating the depressive symptomatology in people aged 18–24, during the early phases of the COVID-19 outbreak. The effect did not change, after controlling for the type of COVID-19 phase (II vs. III), gender, and all COVID-19 disease-related variables. Our findings are in line with previous studies that found a positive effect of SM use in overcoming the negative consequences of COVID-19-related social isolation, by reducing loneliness and increasing social connectedness [66–68]. However, other studies reported a detrimental association, by outlining that COVID-19-related restrictive measures and lockdown favored an excessive SM use and increased the risk of developing a PSMU [39, 69–71]. Indeed, a recent metanalysis collecting data coming from 14 cross-sectional studies carried out during the COVID-19 pandemic among young people in different countries, reported that an excessive time spent on social networking platforms was much more likely associated with an increased risk of developing depressive (OR = 1.43) and anxiety symptoms (OR = 1.55) [72].
Studies carried out before COVID-19 often reported inconclusive and contrasting results about the link between SM use and depression [18, 23, 28, 73–77], probably due the correlational nature of most studies that precludes causal inference. Some authors proposed a bidirectional association, by supporting the hypothesis that PSMU may lead to depression and, similarly, depression may increase a pre-existing PSMU [78]. However, another systematic review found that the time spent by young people on SM was significantly associated with the occurrence of depressive, anxiety and psychological distress symptoms, also in those without a previous mental distress and/or psychiatric disorder [28]. A more recent “dose–response” meta-analysis demonstrated a linear dose–response and gender-specific association between time spent on SM and the risk of depression in young people (OR = 1.6), with a stronger association mainly found in females (OR = 1.7) versus males (OR = 1.20) [79]. Thus, one could argue that the time spent on SM would be the key to discriminate between a protective versus detrimental effect, even though further studies should confirm this hypothesis.
Our findings could then be interpreted considering that forced online activities experienced by the general population, during the early COVID-19 phases, could have potentially protected young people by the emergence of loneliness, anxiety, fear for the future, and depressive symptoms. As our study collected data during the second and third COVID-19 Italian wave [43], we were able only to partially describe the effect of the first COVID-19-related Italian lockdown and did not weight the cumulative effect of the COVID-19 situation over the time. However, other studies carried out under the COVID-19-related restrictions reported that SM use helped to maintain a close emotional bond with distant family members, friends and peers, by facilitating the acceptance of the required condition to stay-at-home as well as favoring to overcome experienced loneliness and social isolation [80]. Our findings suggest that this protective effect refers mainly to the younger population, who could find beneficial use of social networking to remain in contact with their peers and friends. Therefore, one could argue that this association could be particularly relevant for the digital natives’ generation and probably only in the early stages of the COVID-19 outbreak. Merchant and Lurie [80] found that temporary communication means, substituted by the lack of the physical contact (e.g., with friends, acquaintances, etc.) by social networking platforms, in times of the COVID-19 pandemic, are considered useful to satisfy individuals’ needs for disaster-related information, entertainment as well as for maintaining interpersonal communication [80]. A recent prospective 9-month follow-up cohort study, investigating the association between SM use and risk of depression in Chinese adolescents during COVID-19 pandemic, reported that the protective effect of online social networking use for depression was not maintained over the time, suggesting a chronological trend [79].
According to our findings, SM use could be a potential coping strategy adopted by digital natives in response to stressful life events, due to the COVID-19-related restrictions. Indeed, Lazarus and Folkman [81] proposed two main types of coping strategies to manage stressful events: (a) problem-focused coping (i.e., engage in behaviors that could help solve problems); and (b) the emotion-focused coping (i.e., regulate emotional responses to the problem without affecting the actual presence of stress) [82]. Within this theoretical model, the challenges determined by the COVID-19 situation may have forced young people to more likely turn to social networking for both problem-focused coping (e.g., browsing health-related information) and emotion-focused coping (e.g., venting emotions for mood management, joining online communities for social support, meeting online friends and peers) [83]. Accordingly, our findings found that young people experiencing a PSMU significantly described lower aggressiveness (physical and verbal) and anger levels compared to those without a PSMU, who reported significantly higher levels of general psychopathology, anxiety, stress and depression. Indeed, our PSMU sample reported significantly higher impulsiveness levels (particularly, motor and attentional impulsiveness) compared to young people without a PSMU. Our mediation analyses also demonstrated that the association between higher depression levels and lower BSNAS levels was mediated by higher aggressiveness and lower impulsiveness levels. Therefore, the protective effect of social networking use could be beneficial to younger people, at different degrees according to specific personality profiles (i.e., levels of impulsiveness and aggressiveness).
Future studies should confirm these findings and evaluate specifically the role of the impulsiveness and aggressiveness personality traits in mediating the relationship between PSMU and depression, along stressful events. Furthermore, our study contains limitations that should be considered before generalizing our findings. First, the cross-sectional design allows only hypothetical conclusions of causality between the protective role of SM use in the emergence of depressive symptomatology in the general population during COVID-19 outbreak. We could not argue whether the SM use was protective only during the early stages of COVID-19 phases and if such a protective effect will be maintained over time. Therefore, longitudinal studies should collect data, considering the number of occurring COVID-19 lockdowns, the intensity and frequency in social networking use pre-COVID-19, during each COVID-19-related phase and post-COVID-19. Second, the convenience sampling method and online recruitment strategy, while allowed to overcome the recruitment obstacles due to physical distancing measures, could be highly vulnerable to selection bias and may imply a significant sampling problem. Third, our sample included apparently healthy participants (without a previous PSMU) and, to validate the association between SM use and depression, our findings should be replicated in a clinical sample. Fourth, our sample is mainly constituted by young university students, with a possible unbalance with respect to young workers; thus, further studies should recruit by stratifying workers and students, in order to more reliably compare findings coming from both groups and evaluate whether this protective effect is only found in the university students. Finally, we did not collect data on the time spent on social networking platforms nor regarding the type of social network, therefore, further studies should find out the role of time spent on SM and of the type of used/preferred social networking platform.
Overall, our study documented a potential positive role of social networking platforms, at least during the early stages of the COVID-19 pandemic, particularly in overcoming depressive symptomatology and general psychopathological burden due to the COVID-19 situation, in young adults. Furthermore, our findings highlight the need of implementing youth-friendly targeted SM-based interventions, specifically addressed to digital natives to overcome the emergence of potential depressive symptomatology due to stressful events.
Acknowledgements
We would like to thank all individuals who accepted to participate in the study.
Author contributions
UV and AF conceived and conceptualized the study. All authors equally contributed in disseminating the survey and in data collection. LO performed data analysis. A preliminary draft was written by LO, UV revised and edited all drafts and the final draft. AF supervised the work and provided the final feedback to the manuscript. All other co-authors equally contributed to the study and provided further final feedback to the final draft. All authors have read and approved the final version of the manuscript.
Funding
This research received no external funding.
Availability of data and materials
The datasets used and/or analyzed during the current study are available from the corresponding author on reasonable request.
Declarations
Ethics approval and consent to participate
The study was approved by the Ethical Review Board of the University of Campania “L. Vanvitelli” (Protocol number: 0007593/i) and it complies with the Declaration of Helsinki. All participants provided their written informed consent to participate in the study.
Consent for publication
All participants provided their consent for publication of the present findings.
Competing interests
The authors declare that they have no competing interests. All authors declared that the research was conducted in the absence of any commercial or financial relationships that could be constructed as a potential conflict of interest.
Footnotes
Publisher's Note
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
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Associated Data
This section collects any data citations, data availability statements, or supplementary materials included in this article.
Data Availability Statement
The datasets used and/or analyzed during the current study are available from the corresponding author on reasonable request.