Digital and Substance Dependence in the Post-Digital Era
Definition
1. Introduction
2. Macro-Structural Determinants
2.1. Attention Economy and Platforms: Attention Capture, Algorithmic Amplification, Notifications, and Variable Rewards
2.2. Digital Social Ecosystems: Online/Offline Peer Norms, Imitation, Viral Challenges, and Fear of Missing Out
2.3. Transformations of Work and Time: Precarity, Gig Modalities, Hyper-Connection, and Technostress
2.4. Access, Costs, and Availability: How Digital Infrastructure and Substance Markets Shape Exposure and Vulnerability
3. Individual Vulnerabilities and Psychological Mechanisms
3.1. Identity Development in Digital-Native Cohorts
3.2. Reward, Self-Regulation, Impulsivity: Shared Neurobehavioral Substrates
3.3. Coping, Affect Regulation, and Stress: Digital Stressors and Self-Medication
3.4. Peer Influence: Belonging, Status, and Normative Beliefs
4. Intersections with Mental Health and Inequalities
4.1. Psychiatric Comorbidities as Mediators (Depression, Anxiety, ADHD, Personality Disorders)
4.2. Socioeconomic Gradient: Poverty, Educational Exclusion, Geographic Inequalities
4.3. Cultural and Gender Aspects: Intersectional Differences and Culture-Bound Practices
5. Evidence from Recent Studies
5.1. Longitudinal and Cross-Cultural Trends
5.2. Digital-Behavior Analytics and Observational Trace Data
5.3. Conceptual and Measurement Limitations
5.4. Synthesis
6. Implications for Policies and Practice
6.1. Regulatory Guardrails
6.2. Choice Architecture and Digital Nudging
6.3. Education and Digital Literacy
6.4. Prevention and Clinical Care
6.5. Cultural Tailoring and Equity
7. Outlook/Research Gaps
8. Conclusions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Acknowledgments
Conflicts of Interest
Abbreviations
| ADHD | Attention-Deficit/Hyperactivity Disorder |
| CBT | Cognitive Behavioral Therapy |
| FAIR | Findable, Accessible, Interoperable, Reusable (Guiding Principles for scientific data management) |
| FoMO | Fear of Missing Out |
| GDPR | General Data Protection Regulation (EU Regulation 2016/679) |
| KPI | Key Performance Indicator |
| PIU | Problematic Internet Use |
| PSMU | Problematic Social Media Use |
| RCL | Recreational Cannabis Legalization (legalization of non-medical cannabis) |
| SUD | Substance Use Disorder |
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| Model/Framework | Concise Definition | Relevance to This Entry |
|---|---|---|
| I-PACE model [3] | Problematic online behaviors emerge from interactions among person-level vulnerabilities, affective responses, cognitive biases, cue reactivity, and reduced executive control. | This model explains how individual vulnerability, emotional states, cognitive appraisal, and control processes may transform high digital engagement into dysregulated or addiction-like use. |
| Dual-systems model [17,18] | Adolescent risk-taking is partly explained by heightened reward sensitivity combined with still-maturing cognitive-control capacities. | This model helps clarify why adolescents and emerging adults may be especially sensitive to immediate digital rewards, peer feedback, and substance-related cues. |
| Incentive-sensitization theory [5] | Repeated exposure to rewarding cues can increase cue-triggered “wanting” even when pleasure or “liking” decreases. | This theory supports the comparison between substance-related craving and some digital reward loops, such as notifications, likes, feed refreshes, and variable reinforcement. |
| Compensatory Internet Use model [19] | Digital engagement may become problematic when it is used primarily to regulate distress, loneliness, rejection, boredom, or dysphoria. | This model explains how digital overuse and substance use may both function as short-term coping strategies maintained by negative reinforcement. |
| Structural determinants framework [14,15,16,20,21,22,23,24] | Individual risk is shaped by broader social, economic, technological, and policy conditions, including platform design, inequality, access, labor conditions, education, and regulation. | This framework prevents an exclusively individualistic interpretation of risk and supports population-level prevention, safer defaults, equitable access to care, and culturally adapted interventions. |
| Study/Source (Ref.) | Region/Setting | Design/Sample | Digital Exposure | Outcome(s) | Main Finding and Key Limitation |
|---|---|---|---|---|---|
| ABCD Prospective Cohort [68] | USA | Prospective cohort; approx. 9500 children/adolescents, 9–13 years | Self-reported screen time by modality | Depressive, ADHD, and conduct symptoms | Small prospective associations after adjustment; stronger for some modalities. Limitation: self-reported exposure and small absolute effects. |
| National adolescent cohort [10] | USA | Multi-year prospective adolescent cohort | Addictive use of digital devices | Suicidal ideation | Addictive digital use predicted later suicidal ideation after adjustment. Limitation: residual confounding and measurement non-equivalence across subgroups. |
| UK Millennium Cohort Study [65] | UK | Large cohort; age-14 sweep | Hours/day of social-media use | Depressive symptoms, cyber-victimization, sleep | Associations were stronger in girls and partly mediated by cyber-victimization and sleep. Limitation: cross-sectional sweep and self-reported exposure. |
| Multi-dataset re-analyses [69,70] | UK/USA | Re-analysis of large adolescent datasets | Digital technology/social-media use | Life satisfaction and well-being | Average associations were close to zero, with substantial between-person heterogeneity. Limitation: operational heterogeneity and analytic sensitivity. |
| NYTS Surveillance [72] | USA | Repeated national cross-sectional surveillance | Tobacco/nicotine product use | E-cigarette, cigarette, and nicotine pouch use | E-cigarette use declined, while nicotine pouches emerged as an important product. Limitation: self-report and rapidly changing product landscape. |
| Nordic adolescents/ESPAD-related trends [73] | Nordic countries | Repeated cross-sectional and trend analyses | Alcohol and cannabis use indicators | Co-use and secular substance-use trends | Mixed trends, with some alcohol declines and persistence of high-risk subgroups. Limitation: policy and cultural heterogeneity across countries. |
| ABCD Early Adolescents [13] | USA | Cross-sectional cohort analysis | Problematic social-media use vs. time online | Alcohol expectancies | PSMU was associated with alcohol expectancies, whereas time alone was less informative. Limitation: expectancies are cognitive antecedents, not substance-use behavior. |
| Social media alcohol-content meta-analysis [12] | Multi-country | Systematic review and meta-analysis | Self-posting/viewing alcohol-related social-media content | Drinking behaviors | Small-to-moderate associations with drinking behaviors. Limitation: mostly observational evidence and residual confounding. |
| Boniel-Nissim et al. [77] | 42 countries, HBSC | Cross-national study; 190,089 adolescents aged 11, 13, and 15 | Intense and problematic social-media use | Mental/social well-being and substance use | Problematic users showed the least favorable well-being profile and highest substance use. Limitation: cross-sectional design and regional heterogeneity. |
| Zhong et al. [78] | 39 countries, HBSC | Latent class analysis; 157,717 adolescents | PSMU profiles | Smoking, drunkenness, cannabis use | Different PSMU profiles were associated with adolescent substance use across countries. Limitation: cross-sectional data and possible measurement differences across cultures. |
| Zewde et al. [79] | Africa | Systematic review and meta-analysis; 28 studies, 10 countries, 14,946 students | Internet addiction | Prevalence and associated factors | High pooled prevalence of internet addiction; associated with male sex, urban residence, and >4 h/day use. Limitation: high heterogeneity and limited direct substance-use outcomes. |
| dos Santos et al. [80] | Brazil | Cross-sectional adolescent study | Screen time by activity type | Alcohol and tobacco use | Social media use was associated with higher odds of smoking and alcohol use, whereas screen time for studying showed inverse associations. Limitation: cross-sectional design and no causal inference. |
| Policy Lever | Concrete Measure | Mechanism | Expected Outcome | Equity Consideration |
|---|---|---|---|---|
| Profiling limits | Ban personalized advertising to minors; allow contextual advertising only. | Reduces commercial targeting based on inferred vulnerability, impulsivity, or affective state. | Lower exposure to persuasive or age-inappropriate content; reduced compulsive purchasing, loot-box spending, and substance-normalizing advertising. | Audits should include minority-language segments, low-literacy users, and transparent enforcement procedures. |
| Age assurance and safer defaults | Use risk-tiered, privacy-preserving age assurance; set non-personalized feeds as default for under-16 accounts. | Constrains recommender personalization and reduces amplification of high-arousal or mature content. | Reduced exposure to mature content, binge-scrolling, and risky viral challenges. | Age assurance should avoid exclusion of undocumented youth, low-income families, or users without formal identity documents. |
| Privacy by default | Set profiles to private by default; turn off direct messages from non-contacts for under-16 accounts. | Reduces unsolicited contact, grooming risk, cybervictimization, and social-evaluative pressure. | Fewer unsolicited messages and harassment reports; lower anxiety and distress linked to online victimization. | Reporting and appeal systems should be accessible, multilingual, and non-punitive. |
| Location and geotagging protection | Turn location sharing off by default; require opt-in geotagging with clear friction for minors. | Reduces doxxing, stalking risk, and place-based social comparison. | Fewer location-based safety incidents; stronger privacy-protective behaviors. | Interfaces should use simple language and icons for low-literacy users and younger adolescents. |
| Independent auditability | Require external audits of ad delivery, feed composition, age-gating performance, and high-risk engagement design. | Creates accountability for platform-level exposure and prevents hidden amplification of risky content. | Improved transparency; earlier detection of harmful design patterns or unequal exposure across groups. | Audits should assess differential effects by gender, socioeconomic status, language, disability, and geographic location. |
| Illegal marketing and harmful content controls | Throttle or remove illegal substance marketing; apply friction before mature-rated or substance-normalizing content. | Increases friction and reduces repeated exposure to substance-related cues. | Reduced visibility of risky challenges, high-potency product promotion, and peer-normalizing substance content. | Controls should be transparent and include appeal mechanisms to avoid over-removal of legitimate harm-reduction information. |
| Policy Lever | Concrete Measure | Mechanism | Expected Outcome | Equity Consideration |
|---|---|---|---|---|
| Safe defaults | Set autoplay off and activate night-time quiet hours, for example, 22:00–07:00, for under-16 accounts. | Reduces variable reward density, automatic continuation, and nocturnal cueing; preserves sleep opportunity. | Less after-bed scrolling, fewer late-night notifications, improved sleep duration and regularity, and lower daytime sleepiness. | Defaults should apply across low-cost devices and major platforms to avoid unequal protection by device or vendor. |
| Notification bundling | Bundle notifications and deliver them in scheduled windows, for example, three times per day, with emergency bypass. | Reduces cue frequency and attentional fragmentation while preserving access to important communication. | Fewer daily interruptions, better on-task behavior, lower perceived technostress, and improved academic engagement. | Must work in low-data/offline contexts and allow emergency exceptions for family, health, or safeguarding needs. |
| Session-length prompts | Introduce prompts after 20–30 min of continuous use with an easy “take a break” option. | Interrupts habit loops, increases self-monitoring, and introduces light friction before prolonged sessions. | Shorter continuous sessions, increased perceived control, and lower problematic digital use severity. | Prompts should be non-stigmatizing, localizable, accessible, and easy to dismiss when use is purposeful. |
| Chronological or less-personalized feed option | Use chronological or less-personalized feeds as default for minors; make algorithmic feeds opt-in. | Reduces algorithm-driven amplification and lowers exposure to high-arousal or polarizing content. | More diverse content exposure, lower binge-scrolling risk, and reduced susceptibility to viral harms or challenges. | Feed options should be understandable to young users and available regardless of subscription status. |
| Quality labels and content friction | Apply quality labels to low-credibility links and add friction before resharing or engaging with substance-normalizing content. | Slows impulsive sharing and encourages reflection before exposure or dissemination of risky material. | Lower reshares of low-credibility content; increased critical evaluation; reduced normalization of risky behaviors. | Labels must be culturally sensitive, independently governed, and avoid bias against non-mainstream but legitimate sources. |
| Rate-limiting social reward metrics | Limit rapid refresh cycles and delay or batch display of likes, views, streaks, or similar social metrics. | Reduces immediate social reinforcement and lowers status-driven checking loops. | Lower compulsive checking, reduced comparison pressure, and improved capacity to disengage from platforms. | Design should avoid penalizing youth creators, minoritized voices, or educational uses of social platforms. |
| Policy Lever | Concrete Measure | Mechanism | Expected Outcome | Equity Consideration |
|---|---|---|---|---|
| Media and privacy literacy | Deliver age-graded modules on privacy, data trails, advertising, recommender systems, and the attention economy. | Builds critical understanding of persuasive design and strengthens privacy-protective behavior. | Improved media knowledge, critical processing, privacy skills, and resistance to risky online norms. | Materials should be low-bandwidth, multilingual, disability-accessible, and adapted to the platforms used locally. |
| School digital citizenship curriculum | Implement spiraled school curricula integrating social–emotional learning, norm correction, sleep hygiene, and peer-influence literacy. | Addresses risk before problems emerge and reframes digital behavior as part of psychosocial development. | Greater self-regulation, healthier peer norms, reduced cybervictimization, and lower risk of problematic use. | Curricula should be co-designed with students, caregivers, and communities facing socioeconomic or territorial disadvantage. |
| Routine dual-risk screening | Screen for problematic digital use, sleep problems, mood/anxiety symptoms, ADHD traits, substance use, and online victimization. | Identifies comorbidity early and prevents separation of digital and substance-related problems into disconnected care pathways. | Earlier detection, better referral accuracy, and improved monitoring of adolescents with combined risks. | Screening must be confidential, non-punitive, trauma-informed, and connected to accessible services. |
| Stepped-care pathway | Use a stepped model: psychoeducation and self-help; brief digital CBT or motivational modules; clinician-guided intervention; specialist referral when impairment is significant. | Matches intervention intensity to severity and reduces treatment barriers. | Reduced symptom scores, improved functioning, higher care retention, and lower escalation to severe SUD or behavioral addiction. | Care should be no-cost or low-cost, available after hours, and supported by interpreters where needed. |
| Nudge to care | Offer opt-in prompts to chatlines, school counselors, or youth clinics after repeated harm signals, such as harassment, sleep disruption, or self-reported distress. | Reduces help-seeking friction at the moment of need while preserving consent. | Increased linkage to brief interventions; reduced PSMU severity, binge drinking, vaping episodes, or crisis escalation. | Must use explicit consent, privacy-preserving analytics, and clear safeguards against punitive consequences. |
| Culturally adapted prevention | Adapt prevention content to local language, values, family norms, dominant platforms, substance-use patterns, and community resources. | Improves engagement by aligning intervention content with deep cultural structures and local explanatory models. | Higher acceptability, better adherence, improved family involvement, and more equitable prevention uptake. | Adaptation should include youth from minority, rural, low-income, migrant, and marginalized communities. |
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Romeo, V.M. Digital and Substance Dependence in the Post-Digital Era. Encyclopedia 2026, 6, 160. https://doi.org/10.3390/encyclopedia6070160
Romeo VM. Digital and Substance Dependence in the Post-Digital Era. Encyclopedia. 2026; 6(7):160. https://doi.org/10.3390/encyclopedia6070160
Chicago/Turabian StyleRomeo, Vincenzo Maria. 2026. "Digital and Substance Dependence in the Post-Digital Era" Encyclopedia 6, no. 7: 160. https://doi.org/10.3390/encyclopedia6070160
APA StyleRomeo, V. M. (2026). Digital and Substance Dependence in the Post-Digital Era. Encyclopedia, 6(7), 160. https://doi.org/10.3390/encyclopedia6070160

