|Year : 2018 | Volume
| Issue : 5 | Page : 66-72
A systematic review on effect of electronic media among children and adolescents on substance abuse
Mahalaqua Nazli Khatib1, Anju Sinha2, Abhay M Gaidhane3, Padam Simkhada4, Prakash B Behere5, Deepak Saxena6, Bhaskaran Unnikrishnan7, Afroz Khatib8, Mahjabeen Ahmed8, Zahiruddin Quazi Syed8
1 Division of Evidence Synthesis, School of Epidemiology and Public Health; Department of Physiology, Datta Meghe Institute of Medical Sciences (Deemed to be University), Wardha, Maharashtra, India
2 Division of Reproductive, Maternal and Child Health, Indian Council of Medical Research Hqrs, New Delhi, India
3 Division of Evidence Synthesis, School of Epidemiology and Public Health; Department of Community Medicine, Datta Meghe Institute of Medical Sciences (Deemed to be University), Wardha, Maharashtra, India
4 Centre for Public Health Institute, Liverpool John Moores University, Liverpool, England
5 Department of Psychiatry, DY Patil University, Kolhapur, Maharashtra, India
6 Department of Epidemiology, Indian Institute of Public Health, Gandhinagar, Gujarat, India
7 Kasturba Medical College, Mangalore; Manipal Academy of Higher Education, Manipal, Karnataka, India
8 Department of Community Medicine, Datta Meghe Institute of Medical Sciences (Deemed to be University), Wardha, Maharashtra, India
|Date of Submission||27-Apr-2018|
|Date of Acceptance||25-Sep-2018|
|Date of Web Publication||19-Dec-2018|
Dr. Zahiruddin Quazi Syed
Department of Community Medicine, Research House, Datta Meghe Institute of Medical Sciences (Deemed to be University), Wardha - 442 001, Maharashtra
Source of Support: None, Conflict of Interest: None
| Abstract|| |
Background: Substance abuse is one of the most significant global public health issues among youths. Electronic media has become a part of day-to-day life for all. This systematic review is undertaken to comprehensively explore the effect of electronic media on substance abuse among children and adolescents. Methodology: Two review authors independently searched various electronic databases and other sources. Selection Criteria: Randomized control trials that assessed the effect of exposure of electronic media (defined as television, internet, gaming, mobile phones/phones, and radio) among participants in the age range of 5–19 years on substance abuse were included in the review. Data Collection and Analysis: Two reviewers independently extracted data. We used an approach proposed by the Cochrane Collaboration. We used GRADE profiler to assess the overall quality of the evidence. Main Results: We retrieved 6003 studies and found 15 studies that fulfilled our inclusion criteria. Since included studies differed in the type of intervention and reporting of outcomes, we did not undertake meta-analysis and choose to describe studies narratively. Quality of evidence was rated as “very low” due to too little information or too few data to be able to reach any conclusions. Authors' Conclusions: Clinicians, policymakers, and educators to partner with caregivers and youth to support electronic media use that promotes positive outcome in these areas.
Registration of Systematic Review: This systematic review has been registered at PROSPERO International prospective register of systematic reviews (Registration number: PROSPERO 2018 CRD42018086935) available at https://www.crd.york.ac.uk/prospero/display_record.php?RecordID = 86935.
Keywords: Adolescent, electronic media, substance abuse, systematic review
|How to cite this article:|
Khatib MN, Sinha A, Gaidhane AM, Simkhada P, Behere PB, Saxena D, Unnikrishnan B, Khatib A, Ahmed M, Syed ZQ. A systematic review on effect of electronic media among children and adolescents on substance abuse. Indian J Community Med 2018;43, Suppl S1:66-72
|How to cite this URL:|
Khatib MN, Sinha A, Gaidhane AM, Simkhada P, Behere PB, Saxena D, Unnikrishnan B, Khatib A, Ahmed M, Syed ZQ. A systematic review on effect of electronic media among children and adolescents on substance abuse. Indian J Community Med [serial online] 2018 [cited 2022 May 28];43, Suppl S1:66-72. Available from: https://www.ijcm.org.in/text.asp?2018/43/5/66/247914
| Introduction|| |
Substance abuse denotes the harmful usage of psychoactive substances, which encompasses tobacco, alcohol, and illicit drugs (e.g., opioids, cannabinoids, and cocaine) and also psychoactive medicament drugs. The usage of psychoactive substances is one of the most significant global public health issues among youths., In most Western countries, the initiation of smoking rises mostly during adolescence, killing half of the all lifetime. Greater than half of the adolescents in the U.S. report alcohol use, and approximately one-fourth report exposure to illicit drugs. In the Netherlands, the UK, and the US, smoking rates increased from 7% of 11 years old to 45% by the age of 14 years and 62% by age 17 years in 2009. Smoking epidemic and its consequence are more common in the developing countries in South Asia such as Pakistan, India, Bangladesh, and Nepal, as the major section of their population involves adolescents. Global Youth Tobacco Survey in India showed that 3.8% of students smoke and 11.9% use smokeless tobacco. Cannabis, heroin, and some medicinal agents are commonly abused drugs in India. Drugs or alcohol abusers often land up in grave consequences such as accidents, overdoses, crime, underachievement in school, violence, teen pregnancy, depression, and suicide.,
Adolescence is characterized by biological, cognitive, emotional, and social changes that are important for strengthening habits of adult life. Adolescence is associated with greater proclivity to undertake perils which may stimulate curiosity in testing new manners and activities. Developmental alterations in the brain can cause behavioral qualities characteristic of adolescence including higher tendency for drug abuse.
Electronic media has become a part of day-to-day life for all, and particularly more so for children and adolescent. Children and adolescents are exposed to electronic media for considerable time daily, and exposure to electronic media may be beneficial as well as harmful. However, the content of exposure, timing of exposure, duration of exposure, and sociodemographic characteristics of children and adolescents influences the impact of exposure to these interventions. Electronic media may be useful for creating positive social behavior, prevent violence, and enhance academic performances. The intervention may also be used to prevent or quit the habit of substance abuse. On the other hand, negative effects of exposure of electronic media may be drug and tobacco abuse, unhealthy eating habits and obesity, sexual aggression, and poor academic performances.
The efficacy of mass media campaigns in impacting behavior in adults have been evaluated recently in review by Bala et al. Other reviews have stated varied findings regarding the efficacy of mass media. We did not find any systematic review undertaken to comprehensively explore the association or influence of electronic media on substance abuse among children and adolescents. The subject is of grave apprehension for parents as well as educationalists, health providers, policymakers, and campaigners. It is a current necessity to comprehend well how to overturn the undesirable influence of media and make it more desirable. Under this background, we undertook a comprehensive systematic review to assess (both the positive and negative) impact of electronic media on substance abuse with a special reference to low- and middle-income countries (LMICs).
The aim of the systematic review is to synthesize current published and nonpublished pragmatic evidence on the effect of exposure to electronic media on substance abuse among children and adolescents.
| Methods|| |
Criteria for considering studies for this review
We included randomized control trials (RCTs) that evaluated the effect of exposure of electronic media (defined as television, internet, gaming, mobile phones/phones, and radio) in both male and female participants from rural as well as urban areas in the age range of 5–19 years on substance abuse. We linked multiple reports of the same study together as a single study. We considered studies published in languages other than English.
Main outcome measures were the children and adolescent health outcome, in terms of the beneficial effect of interventions.
- Prevention of substance abuse among adolescents
- Reduction of substance abuse among adolescents
- Quitting substance abuse among adolescents.
Search methods for identification of studies
Three review authors (AG, PB, and DS) searched databases such as MEDLINE, EMBASE, CENTRAL, PubMed, PLoS, and Ovid for relevant studies. We carried searches on subject-specific databases (such as EPPI-Center database of health promotion research and Database of Promoting Health Effectiveness Reviews) and on-going clinical trials registries (on http://www.controlled-trials.com, http://apps.who.int/trialsearch/, http://clinicaltrials.gov/, https://eudract.emea.europa.eu/).
Search strategy for MEDLINE was as: Adolescen* OR pre-adolescen* OR preadolescen* OR teen* OR pre-teen* OR child* OR boy* OR girl* OR young* OR youth* OR minor* AND “electronic media” OR electronic-based OR cyber* OR web-based OR computer-based OR internet OR internet-delivered OR online* OR “computer game*” OR “video game*” OR “mobile game*” OR “online game*” OR “mobile app*” OR “short message service” OR SMS-based OR “text messag*” OR telecounselling OR tele-counselling OR e-health OR facebook OR whatsapp OR twitter OR “social media”* OR television* OR laptop* OR phone* OR smartphone* OR mobile* OR telephon* OR desktop* OR computer*.
We also searched for conference proceedings and contacted authors and experts in the field to obtain information on unpublished or undergoing trials.
Selection of studies
We employed systematic review methods developed by Cochrane Handbook of Systematic Reviews. Two reviewers (MNK and MA) prescreened studies identified in electronic search using an online software Rayyan. We obtained full texts of all potentially relevant studies, and two reviewers (AG and PB) examined these full papers for inclusion. A third reviewer (ZQS) resolved discrepancies between two primary reviewers.
Data extraction and management
After the inclusion of the study in the review, two reviewers (MK and MA) independently extracted data using a data extraction form and the third reviewer (UB) cross-checked these data.
Assessment of risk of bias in included studies
We used an approach proposed by the Cochrane Collaboration to assess the risk of bias (RoB). Two reviewers (MK and MA) assessed the RoB using an approach suggested by the Cochrane Collaboration under domains of selection bias, performance bias, detection bias, attrition bias, reporting bias, and other sources of bias. A third reviewer (UB) resolved discrepancies among primary reviewers in the assessment of RoB.
Measures of treatment effect and data synthesis
We had planned to use effective measures as odds ratio, risk ratio, or risk difference for dichotomous data, and mean difference (MD) or standardized MD for continuous variables. However, as we found considerable variation in the type of intervention and outcomes reported, we did not perform meta-analysis. Explicit assumptions were made of any methods used to handle with missing data. We had intended to undertake sensitivity analyses to gauge how sensitive results are to rational alterations in postulations made. We had planned to measure the extent of heterogeneity by Chi-square statistics. For quantifying inconsistency across studies and to assess its impact on the meta-analysis, we had planned to use I2 statistics. We had planned to use funnel plots to gauge the potential for bias associated to the size of studies, which would have indicated likely publication bias. We had planned to undertake a separate subgroup analysis, wherever appropriate, with regards to duration, timing, and content of exposure to electronic media as well as different forms of electronic media such as internet, television, gaming, mobile phones, and radio.
Grading of studies
Two reviewers (AG and DS) reviewed the data on each health outcome and assessed the quality of studies and the weight of evidence they present in relation to the review question using GradePro software. Studies were graded as per the quality standards provided by GRADE pro. Accordingly, studies were graded as “high” quality (if further research is very unlikely to change our confidence in the estimate of effect), “moderate” quality (if further research is likely to have an important impact on our confidence in the estimate of effect and may change the estimate), “low” quality (if it is found that the further research is very likely to have an important impact on our confidence in the estimate of effect and is likely to change the estimate), and “very low” quality (when we are very uncertain about the estimate).
| Results|| |
Results of search
We combed various electronic databases and other resources as listed in the methods section and retrieved 6003 studies after removal of duplicates. We excluded 5921 studies on the basis of title and abstracts and screened full texts of 60 articles for eligibility. We found 15 studies that fulfilled our inclusion criteria. However, we could not include any study in quantitative synthesis as they differed in type of intervention and reporting of outcomes. Details of the search strategy have been outlined in the PRISMA flow diagram [Figure 1].
Details of included studies
We have described included trials in detail in the characteristics of included studies table [Table 1].
Eleven studies were conducted in the USA,,,,,,,,,,, three in the Netherlands,,, and one in the UK. We did not find any studies done in LMICs including India.
Types of studies
All included studies were parallel RCTs [Table 1] except three cluster RCTs.,,
Details of participants are described in [Table 1]. The age of participants ranged between 9 and 19 years. Arnaud et al. included residents of Sweden, Germany, Belgium, and Czech Republic; while three studies: Jander et al., de Josselin de Jong et al., and Bannink et al., included mainly Dutch participants. Four studies by Mason et al.,,, included African American, White, and others. Bowen et al. included white Americans; while Mermelstein and Turner, included Whites/Latins/Blacks. Patten et al., while Lee et al. included participants mostly of Caucasian ethnicity (68.33%). Three studies, namely Cameron et al. Schwinn and Schinke, and Maio et al. included mixed participants.
Details of the interventions are described in [Table 1]. Included studies provided computer-based/web-based or telephone-based/mobile-based or television-based interventions in the treatment arms. Ten studies provided computer-based/web-based interventions,,,,,,,,,, and four studies,, provided smartphone-based intervention (texting and internet), and one study delivered television-based advertisement. One study delivered both web-based and telephone-based interventions.
Shortest studies were of 1 month,, and the longest study was on 6 years. One study was of 3 months, one was of 4 months, nine studies were of 6 months,,,,, one study was of 9 months, and one study was of 12 months.
All studies were funded/supported by funding agencies/institutes except one, which did, not reported the funding status [Table 1].
Risk of bias in included studies
Since we included only RCTs, almost all included studies were at low risk of selection bias. Except for one study, all other studies were at low or unclear risk of performance bias. For detection bias, all included studies were at unclear RoB except few studies,,, which were at low RoB. Three studies,, were at high risk of attrition bias due to high dropout rates. Many studies,,,,,, were at low risk of attrition bias. Most of the included studies were at low risk of reporting bias.
Findings from included studies
Prevention of substance abuse
de Josselin de Jong et al., and Cameron et al. studied the effect of computer-based intervention on smoking initiation and alcohol consumption. Findings of de Josselin de Jong et al. found that Dutch students in computer-tailored program called “smoke alert” reported lower smoking initiation at 6-month follow-up (P < 0.001) and thereby suggested that this program can be an effective method of counteracting smoking initiation among adolescents [Supplementary File 1].
A similar study by Cameron et al., show that theory-based online health behavior intervention delivered during entry in university prevented nonsmokers from starting smoking and had a significant effect on smoking status at 6-month follow-up [Supplementary File 1]. However, the intervention did not show the effect on number of days binge drinking in the previous 7 days (P = 0.674) and reduced alcohol levels significantly (P = 0.038) [Supplementary File 1][Additional file 1].
Reduction in substance abuse
Arnaud et al., and Mason et al. studied the effect of motivational interventions through text messages on substance abuse among adolescents. Arnaud et al. indicated that young European adolescents with excessive drinking can benefit from targeted short-term motivational interventions in an automated web-based format which can be effective in reducing alcohol consumption in terms of drinking frequency, frequency of binge drinking, and typical quantity of drinks [Supplementary File 1]. However, this study did not find a significant effect of intervention on illegal drug use frequency or Polydrug use among these at-risk adolescents [Supplementary File 1]. Pattern et al. observed that adolescent smokers usually took help from support groups and other internet-based electronic media. Mason et al. observed that societal stress associated with expending time with smoking peers may lead to relapse and that decreasing time spent with peers who smoke through motivational interviewing-based peer network counseling text messages may decrease social stress, which in turn decreases craving and ultimately decreases smoking [Supplementary File 1] and [Supplementary File 2][Additional file 2]. Another study by Mason et al., tested time-varying effects of tobacco outlets and found that during months 2 and 6, association between tobacco outlet density and smoking was significantly stronger in control condition thereby suggesting that treatment dampens this association during these time periods. The intervention also significantly reduced smoking and suggested that increasing support to participants during months 2 and 4 may help suppress smoking. It has been observed that if a teen is willfully thinking of not smoking, teen may opt to reduce number of cigarettes smoked as a primary step toward making this long-term change. Mason et al. demonstrated the effectiveness of a text-based intervention at reducing number of cigarettes smoked, increasing intents not to smoke, and increasing peer support as compared to controls. However, the study did not observe effect on the number of days smoked during the past 30 days [Supplementary File 1]. Findings from Mason et al., provide support for the significance of peer-focused automated text-messaging smoking cessation interventions with urban adolescents and provide insight into the mechanisms of change for the text-based intervention. The study suggests that treatment increased readiness to stop smoking (P < 0.05), which then reduced friend adolescent smoking, resulting in adolescents smoking fewer cigarettes per day (P < 0.01) [Supplementary File 1]. These studies support that creating minor alterations within adolescents' peer network through peer counseling text messages can be an active component in smoking cessation for adolescents.,,
Jander et al., Schwinn and Schinke, and Lee et al. studied the effect of computer-based intervention on reducing substance abuse among adolescents. Jander et al. found that web-based intervention was effectual for adolescents regarding binge drinking (P = 0.07) and was not significantly effective in reducing excessive drinking (P = 0.13) [Supplementary File 2]. Schwinn and Schinke studied long-term records of a computer-based prevention program for adolescents at-risk for substance use. After 6 years, youths in the treatment arm reported lesser rates of drinking (P < 0.01), lesser rates of heavy drinking (P < 0.01), lesser rates of cigarette use (P < 0.05), and fewer incidences of negative alcohol-related consequences as compared to youths in the control arm [Supplementary File 1]. Adolescents in the intervention arms were also found to have better alcohol-refusal skills in spite of comparable numbers of friends who were on alcohol [Supplementary File 1]. This study highlights the potential of computer-based methodologies for the prevention of alcohol. Lee et al. did not find that web-based intervention produced overall reductions in marijuana use or marijuana-related consequences among students receiving feedback compared to a control group [Supplementary File 1].
Quitting substance abuse after exposure to interventions
Mermelstein and Turner and Patten et al. studied the effect of web-based intervention on smoking among adolescents. Mermelstein and Turner established promising support for advantages of complementing a Web-based appendage to a face-to-face cluster smoking cessation program, the ALA NOT program for adolescents as NOT Plus condition had better overall quit rates than the control condition (P < 0.05) [Supplementary File 2]. Patten et al. found that point-prevalence smoking abstinence rates for adolescent smokers randomized to a clinic-based, brief office intervention (BOI) and stomp out smokes (SOS), a home-based Internet intervention were 13% as compared to 6% at 36 weeks, with no significant differences. Among adolescent who continued to smoke, SOS was related with a considerably larger decrease in average number of days smoked as compared to BOI (P = 0.006) [Supplementary File 2]. The study suggested strengthening SOS form of intervention with additional structured, and upbeat patient-education modules provided in-person through telephone or e-mail.
Duke et al. showed that e-cigarette advertising through television influences youth perceptions about and intention to try e-cigarette. The study found that after watching four e-cigarette advertisements, youths had greater intention to use e-cigarettes (P < 0.001) and youth not on e-cigarettes beforehand observed e-cigarettes as cooler, healthier, and an enjoyable option [Supplementary File 1]. Approaches previously used to reduce the effect of tobacco advertising on youth such as regulations prohibiting tobacco advertising on television may be effectively applied to e-cigarettes. Bannink et al. found negative effect on drug use among boys (in terms of alcohol consumption, smoking, and drug use in the past 4 weeks) and backed the usage of E-health4Uth and consultation intervention in encouraging well-being of adolescents at risk of mental health issues [Supplementary File 2].
Since included studies varied in backgrounds, duration, type, content of intervention, lengths of follow-up, methods of assessment and also in descriptions and measurement of outcomes, we did not undertake meta-analysis or undertake subgroup analysis with regards to duration, timing, and content of exposure to electronic media as well as different forms of electronic media. As we did not find studies from India or other LMICs, we could not present the evidence from this developing region of the globe.
Quality of evidence
The quality of evidence was rated as “very low” for all the outcomes due to too little information or too few data to be able to reach to any conclusions.
| Discussion|| |
This review highlights the effectiveness of electronic media for substance abuse among children and adolescents. We found fifteen studies that met our inclusion criteria. Since included studies varied in backgrounds, duration, type, content of intervention, length of the follow-up, methods of assessment and also in descriptions and measurement of outcomes, we did not undertake meta-analysis. There is a trivial body of evidence that we were able to include in this review, which restricts the conclusion we can frame. We did not find evidence about the effectiveness of electronic media in LMICs. Limited data from very few included studies in this systematic review endorses the necessity for additional sizeable RCTs with a long-term follow-up focusing on the evaluation of the effect of electronic media as well as adverse events associated with it. We look forward to such trials especially from LMICs being presented for addition in forthcoming updates of this review.
We identified one recently published Cochrane systematic review, that assessed the efficacy of mass media interventions in decreasing smoking among adolescents. Similar to our review, the included studies in this review varied in type, duration, and content of intervention. Included studies in this review also differed in the length of follow-up, definitions methods of assessments and also in definitions and measures of smoking behavior used. The review found that widespread tobacco control programs, which comprise mass media drives, could be effectual in shifting smoking in adolescents. However, the suggestion is derived from diverse studies of different methodological qualities. No constant association was detected among efficiency of campaign and age, education, ethnicity, or gender.
The quality of evidence for all our outcomes was very low, meaning we have little confidence in the effect estimate and the true effect may be substantially different from the estimate of the effect. In general, the assessment of the quality of included studies was limited by deficiencies in terms of quality of methodology and reporting of adequate data to allow reasonable conclusions to be made. This review does not provide a reliable indication of the likely effect.
We have estimated that the potential bias in this review is low. The search was as all-inclusive, and the evaluation of studies for inclusion was done independently in pairs. None of the authors of this review was associated with any included or excluded studies. Moreover, none of the authors has any commercial or any other conflict of interest. We have tried to decrease bias in the review process by undertaking screening of studies for inclusion, data extraction, and evaluating the quality of studies in duplicates. Nevertheless, the possibility remains that we may have missed some unpublished studies. We undertook the review in line with the recommendations of Cochrane as outlined in the Cochrane Handbook for Systematic Reviews of Interventions. Authors of this review are from diverse fields with diverse backgrounds (e.g., Public Health, Mental Health, Clinical Medicine, Reproductive and Child Health, and Physiology and Biostatistics). We contemplate this internal diversity of expertise to be an asset of this review and use of it by duplicating steps during the review process.
| Conclusions|| |
Although the quality of evidence is low for all outcome measures, overall, the current results supports the potential promise of electronic media in preventing substance abuse among children and adolescents. We postulate recommendations for clinicians, policymakers, and educators in connecting with caregivers and adolescents to encourage the use of electronic media that promotes positive outcomes in substance abuse. Future studies designed to assess the effect of electronic media on substance abuse, especially from LMICs including India are warranted.
Financial support and sponsorship
This study was supported by the Indian Council of Medical Research.
Conflicts of interest
There are no conflicts of interest.
| References|| |
Kanyoni M, Gishoma D, Ndahindwa V. Prevalence of psychoactive substance use among youth in Rwanda. BMC Res Notes 2015;8:190.
Treur JL, Willemsen G, Bartels M, Geels LM, van Beek JH, Huppertz C, et al.
Smoking during adolescence as a risk factor for attention problems. Biol Psychiatry 2015;78:656-63.
Joffer J, Burell G, Bergström E, Stenlund H, Sjörs L, Jerdén L. Predictors of smoking among Swedish adolescents. BMC Public Health 2014;14:1296.
Merikangas KR, McClair VL. Epidemiology of substance use disorders. Hum Genet 2012;131:779-89.
McGee R, Williams S, Nada-Raja S, Olsson CA. Tobacco smoking in adolescence predicts maladaptive coping styles in adulthood. Nicotine Tob Res 2013;15:1971-7.
Rao S, Aslam SK, Zaheer S, Shafique K. Anti-smoking initiatives and current smoking among 19,643 adolescents in South Asia: Findings from the Global Youth Tobacco Survey. Harm Reduct J 2014;11:8.
Sinha DN, Reddy KS, Rahman K, Warren CW, Jones NR, Asma S. Linking Global Youth Tobacco Survey (GYTS) data to the WHO framework convention on tobacco control: The case for India. Indian J Public Health 2006;50:76-89.
] [Full text]
Dadwani R, Thomas T. Prevalence of substance abuse: A community based study. Int J Community Med Public Health 2016;3:647-50.
The National Center on Addiction and Substance Abuse. Adolescent substance use: America's #1 public health problem. New York, NY: CASA. (2011a).
Belcher HM, Shinitzky HE. Substance abuse in children: Prediction, protection, and prevention. Arch Pediatr Adolesc Med 1998;152:952-60.
Gallimberti L, Buja A, Chindamo S, Lion C, Terraneo A, Marini E, et al.
Prevalence of substance use and abuse in late childhood and early adolescence: What are the implications? Prev Med Rep 2015;2:862-7.
Scull TM, Kupersmidt JB, Weatherholt TN. The effectiveness of online, family-based media literacy education for substance abuse prevention in elementary school children: Study of the media detective family program. J Community Psychol 2017;45:796-809.
Bala M, Strzeszynski L, Cahill K. Mass media interventions for smoking cessation in adults. Cochrane Database Syst Rev 2008;23:CD004704.
Julian PT. Higgins sally green. Cochrane Handbook for Systematic Reviews of Interventions. Chichester (UK): John Wiley & Sons; 2008.
Ouzzani M, Hammady H, Fedorowicz Z, Elmagarmid A. Rayyan – A web and mobile app for systematic reviews. Syst Rev 2016;5:210.
Schünemann H, Brożek J, Guyatt G, Oxman A. GRADE Handbook for Grading Quality of Evidence and Strength of Recommendations; 2013. Available from: http//:www.guidelinedevelopment.org/handbook
. [Last Accessed on 2018 Jan 27].
Mason M, Mennis J, Way T, Lanza S, Russell M, Zaharakis N, et al.
Time-varying effects of a text-based smoking cessation intervention for urban adolescents. Drug Alcohol Depend 2015;157:99-105.
Mason MJ, Campbell L, Way T, Keyser-Marcus L, Benotsch E, Mennis J, et al.
Development and outcomes of a text messaging tobacco cessation intervention with urban adolescents. Subst Abus 2015;36:500-6.
Mason M, Mennis J, Way T, Floyd Campbell L. Real-time readiness to quit and peer smoking within a text message intervention for adolescent smokers: Modeling mechanisms of change. J Subst Abuse Treat 2015;59:67-73.
Mermelstein R, Turner L. Web-based support as an adjunct to group-based smoking cessation for adolescents. Nicotine Tob Res 2006;8 Suppl 1:S69-76.
Patten CA, Croghan IT, Meis TM, Decker PA, Pingree S, Colligan RC, et al.
Randomized clinical trial of an internet-based versus brief office intervention for adolescent smoking cessation. Patient Educ Couns 2006;64:249-58.
Lee CM, Neighbors C, Kilmer JR, Larimer ME. A brief, web-based personalized feedback selective intervention for college student marijuana use: A randomized clinical trial. Psychol Addict Behav 2010;24:265-73.
Bowen DJ, Henderson PN, Harvill J, Buchwald D. Short-term effects of a smoking prevention website in American Indian youth. J Med Internet Res 2012;14:e81.
Schwinn TM, Schinke SP. Preventing alcohol use among late adolescent urban youth: 6-year results from a computer-based intervention. J Stud Alcohol Drugs 2010;71:535-8.
Maio RF, Shope JT, Blow FC, Gregor MA, Zakrajsek JS, Weber JE, et al.
Arandomized controlled trial of an emergency department-based interactive computer program to prevent alcohol misuse among injured adolescents. Ann Emerg Med 2005;45:420-9.
Mason MJ, Mennis J, Zaharakis NM, Way T. The dynamic role of urban neighborhood effects in a text-messaging adolescent smoking intervention. Nicotine Tob Res 2016;18:1039-45.
Duke JC, Allen JA, Eggers ME, Nonnemaker J, Farrelly MC. Exploring differences in youth perceptions of the effectiveness of electronic cigarette television advertisements. Nicotine Tob Res 2016;18:1382-6.
Bannink R, Broeren S, Joosten-van Zwanenburg E, van As E, van de Looij-Jansen P, Raat H, et al.
Effectiveness of a web-based tailored intervention (E-health4Uth) and consultation to promote adolescents' health: Randomized controlled trial. J Med Internet Res 2014;16:e143.
Jander A, Crutzen R, Mercken L, Candel M, de Vries H. Effects of a web-based computer-tailored game to reduce binge drinking among Dutch adolescents: A cluster randomized controlled trial. J Med Internet Res 2016;18:e29.
de Josselin de Jong S, Candel M, Segaar D, Cremers HP, de Vries H. Efficacy of a web-based computer-tailored smoking prevention intervention for Dutch adolescents: Randomized controlled trial. J Med Internet Res 2014;16:e82.
Cameron D, Epton T, Norman P, Sheeran P, Harris PR, Webb TL, et al.
Atheory-based online health behaviour intervention for new university students (U@Uni: LifeGuide): Results from a repeat randomized controlled trial. Trials 2015;16:555.
Arnaud N, Baldus C, Elgán TH, De Paepe N, Tønnesen H, Csémy L, et al.
Effectiveness of a web-based screening and fully automated brief motivational intervention for adolescent substance use: A randomized controlled trial. J Med Internet Res 2016;18:e103.
Patten CA, Rock E, Meis TM, Decker PA, Colligan RC, Pingree S, et al.
Frequency and type of use of a home-based, internet intervention for adolescent smoking cessation. J Adolesc Health 2007;41:437-43.
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