Abstract
This study evaluated factors affecting the completion of blended-eLearning courses for health workers and their effect on stigma. The two courses covered the screening and management of harmful alcohol, tobacco, and other substance consumption in a lower-middle-income country setting. The courses included reading, self-reflection exercises, and skills practice on communication and stigma. The Anti-Stigma Intervention-Stigma Evaluation Survey was modified to measure stigma related to alcohol, tobacco, or other substances. Changes in stigma score pre- and post-training period were assessed using paired t-tests. Of the 123 health workers who registered, 99 completed the pre- and post-training surveys, including 56 who completed the course and 43 who did not. Stigma levels decreased significantly after the training period, especially for those who completed the courses. These findings indicate that blended-eLearning courses can contribute to stigma reduction and are an effective way to deliver continuing education, including in a lower-middle-income country setting.
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Substance use disorders (SUDs), including alcohol (AUD), tobacco (TUD), and other substance use disorders (OSUD), are often stigmatized, and people affected by them are disproportionately marginalized in society (Bielenberg et al., 2021; Keyes et al., 2010; Kilian et al., 2021; Ritson, 1999; Room, 2005). Health workers, decision-makers, and members of the public often view these conditions as self-inflicted and undeserving of their attention or time (Lindberg et al., 2006; Ritson, 1999; Room, 2005; van Boekel et al., 2013). Treatment for AUD ranks low among public priorities (Lipozencić, 2006), with a prevalent opinion that funding for treatments of AUD should be redirected toward more “worthy” causes (Kilian et al., 2021; Schomerus et al., 2011). As such, related stigma decreases the priority given to addressing SUDs and contributes to the lack of implementation of effective interventions compared to other conditions with similar disease burdens (Desjarlais, 1995). Furthermore, individuals affected by stigma from the public, s, and those in a position of power, combined with their internalized self-stigma, are less willing and less able to seek treatment (Bayer, 2008), resulting in unnecessary suffering and higher disease burden (Room, 2005). This is of concern considering that the use of tobacco, alcohol, and other substances use rank as second, ninth, and 14th highest causes of disability-adjusted life years (DALYs) worldwide, with increases in age-standardized DALY rate of 24.3% for tobacco and 37.1% for alcohol from 1990 and 2019 (Murray et al., 2020). The burden is also very significant in Sub-Saharan Africa (Lim et al., 2012; World Health Organization, 2010). This means that even in low- and middle-income countries (LMICs), tobacco, alcohol, and other substance use contribute significantly to the disease burden. This situation calls for more research to understand and address stigma, specifically the stigma associated with the consumption of each type of substance, and stigma in LMICs, the object of much less research.
Levels of stigma towards those using psychoactive substances is frequently worst than towards those with other conditions, even more than toward those with various other mental illnesses. For example, the desire for “social distance” from persons with AUD is often higher than those with mental illnesses such as depression or schizophrenia (Kilian et al., 2021; Schomerus et al., 2011). Stigma toward those using illicit drugs is also frequently more substantial (Ahern et al., 2007; Cunningham et al., 1994; Kilian et al., 2021; Room, 2005). Crisp et al. (2000) found that individuals with drug dependence were ranked the highest for “danger to others, unpredictable, hard to talk to, and having themselves to blame,” while it was less so for those with alcohol dependence. However, several studies found similar levels of stigma toward those with various illicit substances’ dependencies and those with alcohol dependency and less stigma toward those with tobacco dependency (Cunningham et al., 1994; Kilian et al., 2021).
Even if tobacco users suffer from less stigma, it remains relevant. Tobacco use is increasing in many LMICs to the extent that by 2030, 80% of the deaths worldwide caused by tobacco are expected to occur in LMICs (Nichter et al., 2010). Meanwhile, tobacco use in high-income countries (HIC) has decreased dramatically in the last century; concomitant with an increasingly negative public perception of smokers since the 1940s (Chapman and Freeman, 2008; Graham, 2012), a phenomenon deemed in part to be “policy-induced stigma” (Bayer, 2008), as policies promoting non-smoking can contribute to hostility toward smokers (Chapman and Freeman, 2008). Concerns have been raised that this might have negative consequences socially but that tobacco control policies can legitimately involve generating a degree of stigma if they achieve their objective of protecting people’s health in total (Bayer & Stuber, 2006; Burgess et al., 2009). This raises the question of the potential impact of similar tobacco policies in LMICs and if something can be done so that people suffering from TUD would be seen as worthy of receiving effective treatment.
There is increasing interest and action to reduce health-related stigma. However, greater efforts are geared toward mental illnesses other than SUD (Livingston et al., 2012). The literature describes three main strategies to decrease stigma: education, contact, and protest (Corrigan & Watson, 2002; Schomerus et al., 2011). Protest attempts to correct inaccurate and hostile representations of mental illness as a way to challenge associated stigma (Corrigan & Watson, 2002). Education strategy consists of the provision of information to enhance the understanding of mental illnesses (Corrigan & Watson, 2002). It can reduce stigma in general (Corrigan & Watson, 2002; Patel, 2007). SUD-related social stigma, or the attitude of the general population, seems most effectively changed through communication strategies, including positive stories and motivational interviewing. Furthermore, the effects of educational approaches can be enhanced by contact-based methods (Livingston et al., 2012), such as providing contact with people suffering from mental illnesses, which appears to be successful in reducing stigma, including among health workers (Kassam et al., 2012; Patten et al., 2012; Penn & Couture, 2002).
Since health workers represent a part of formal structures of society, stigma from health workers is frequently categorized as structural stigma. Effective strategies to decrease structural stigma include the use of reflective techniques, structured education combined with clinical experience, and acceptance and commitment techniques (Livingston et al., 2012). However, overall, a systematic review of interventions to impact stigma toward those with SUD indicates that few of these interventions have been proven effective, and even fewer have been scaled up (Livingston et al., 2012). This points toward the need to further develop and evaluate new and easily scalable strategies to decrease stigma toward those with SUD.
A few studies have shown that eLearning or blended-eLearning (a combination of eLearning with in-person components) can effectively reduce stigma toward mental illnesses or the use of a variety of substances (Finkelstein & Lapshin, 2007; Griffiths et al., 2004; Kilian et al., 2021). Therefore, providing eLearning on SUD could be an innovative and likely scalable solution to decrease SUD stigma. eLearning is defined as “learning that is supported by information and communication technologies (ICT)” (Bari et al., 2018) p. 98, which can avail the trainee of the most current information in a self-directed and self-paced manner (Ai & Laffey, 2007). eLearning can occur anywhere where the necessary tools are available, minimizing expensive travel or time away from work or other obligations, that are amplified by traditional in-person teaching methods. eLearning is deemed an important strategy for training health workers, especially considering the increasing availability of information technology (internet, computer, smartphones) even in LMICs (Bahia & Suardi, 2019; Dagys et al., 2015; Kebaetse et al., 2014; Marrinan et al., 2015; Sissine et al., 2014; The World Bank, 2020; Ballew et al., 2013). eLearning could be particularly attractive to LMICs, which have very limited human resources to deliver health services and an enormous need for training to address various prevalent health conditions not previously treated in the majority of their population.
The Africa Mental Health Research and Training Foundation (AMHRTF) and NextGenU.org conceptualized a blended-eLearning capacity-building initiative to train health workers to screen and manage risky levels of substance use in primary care. An associated comprehensive mixed-methods research program evaluated the impact of the training on health workers and patients’ outcomes: the computer-based drug and alcohol Training and Assessment in Kenya (eDATA-K), under which this study is nested. Other eDATA-K studies are published elsewhere (Clair et al., 2022a; Clair et al., 2016a, 2016b, 2016c, 2019, 2022b; Hsiang-Te Tsuei et al., 2017).
This study tests the impact of the blended-eLearning clinical courses on health workers’ stigma toward various SUD. This study also examines the impact on stigma of an additional contact component for a subset of health workers who participated in the e-DATA-K randomized control trials (RCTs). Participating in the RCTs generated an intense period of direct interactions between health workers and people at moderate to high risk from alcohol use.
Methodology
Design and Setting
This observational study assesses changes in stigma levels in course completers and non-completers among health workers in facilities where substance use courses were offered. Stigma levels were measured immediately pre- and post-training. Stigma was also measured post-participation in randomized controlled trials for course completers who engaged in the RCTs. The Kenya Medical Research Institute Ethics Review Committee and the University of British Columbia Ethics Review Board granted scientific and ethical approval for the study. From July 2014 to December 2015, the study was carried out in 11 public healthcare facilities in two rural counties of Kenya, and 3 private ones in the greater Nairobi area. These sites were selected for eDATA-K because of willingness to participate in the program of research, offering typical primary care services, considered likely to have stable and sufficient staffing for the duration of the study, and having access to electricity. The various district health management teams, county government health officials, and relevant facility management personnel provided administrative approval and support as needed. A computer and internet access were provided in the public facilities, while neither was provided to the private facilities, as they were deemed to have adequate computer and internet access already. One private and three public facilities were unable to participate in the RCT phase due to a lack of course completers or workload.
Participants and Procedure
The courses were offered to any interested health worker in the community clinics and the hospital outpatient departments. Health worker participants were selected if they worked in one of the eDATA-K facilities, agreed to take the relevant course in their own time without receiving financial compensation for taking the course (unlike typical training offered in LMICs), were fluent in English (the language used in the course and the surveys), and consented to participate in the study. Participants filled out the questionnaires before starting the course (T1) and within a week after course completion (T2). Course completers were defined as those who had completed all the training modules, while non-completers were defined as trainees who logged in but did not complete all modules. A subset of those, who had completed the training and participated in the RCTs, filled out the questionnaires again at the end of the RCTs (T3), approximately 6 to 9 months after training completion.
Intervention
The training followed evidence-based recommendations for online and health worker education (Ballew et al., 2013; Nyarango, 1991) to impart key competencies outlined in the WHO Mental Health Gap Action Programme (mhGAP) (World Health Organization, 2010), and WHO Alcohol Smoking and Substance Involvement Screening Test (ASSIST) and in its linked brief intervention manuals (Humeniuk and H.-E. S., Ali RL, Poznyak V, Monteiro MG., 2010). The readings included extracts from these and other high-quality online resources. Two courses were created. The Alcohol, Tobacco and Other Substance Use Screening targeted lay health workers such as receptionists, community health workers, and other support staff, and was met to take approximately 13 h. The Alcohol, Tobacco and Other Substance Use Disorders in Primary Care course was for primary care clinicians such as nurses, clinical officers, and physicians, and was met to take approximately 17 h. Both courses share the introductory module (1), the stigma and human rights related to SUD (2), and the one addressing communication with people seeking care, their caregivers and family (6). In the screening course for the lay health workers, module 3 covers screening techniques focusing on the ASSIST, module 4 covers an overview of effective intervention and other information related to SUD, and module 5 covers urgent situations and comorbidities needing clinical care by health professionals for them to seek help and refer. In the primary care course for physicians and nurses, module 3 covers interventions to address SUD, module 4 covers the specific tools related to brief intervention in more detail, focusing on the ASSIST, and module 5 covers comorbidities, complications, and how to support general well-being, as well as guidelines on monitoring and follow-up.
Each trainee was assigned a mentor (a trained psychologist, physician, or clinical officer) since previous studies showed that mentor support increased the effectiveness of training primary care workers in Kenya (Nyarango, 1991). Furthermore, peer interactions have enhanced skill acquisition in medical settings (Goldsmith et al., 2006; Waddell & Dunn, 2005). Therefore, the training included peer and mentored activities such as reflections, discussion forums, and role-plays, as per some of the best practices to address stigma through education (Livingston et al., 2012).
The period of intense interactions for course completers in RCT facilities included support staff screening 22,327 people, identifying 1230 with risky levels of alcohol use, and providing them with their ASSIST screening results. Of those with risky levels of alcohol use, 595 were randomized to receive a brief intervention by the primary care clinician.
Measures and Data Analysis
This study adapted the Anti-Stigma Intervention survey (ASI) (Lillie et al., 2014) to assess SUD stigma scores independently in course completers and non-completers. This survey measures three dimensions of stigma toward individuals with mental illness in three subscales: stigmatizing attitudes (Attitude), social acceptance/social distance (Social Distance), and Social Responsibility (Lillie et al., 2014). It contains 20 self-report items scored on a 5-point Likert-type scale, from 1 (strongly disagree) to 5 (strongly agree), with reverse scoring of some answers for higher scores to consistently indicate greater stigma (Lillie et al., 2014). The ASI was adapted for this study by repeating each question three times, replacing “mental illness” sequentially with “alcohol use disorder,” “tobacco use disorder,” or “other substance use disorder.” Stigma toward people with substance use disorder was assessed separately for each substance. A survey collecting demographic information was included.
The data were double entered and analyzed using IBM SPSS® version 21 or higher. Chi-square or Fisher’s exact tests (for expected n of < 5) were performed to determine statistically significant relationships between demographic variables and course completion. After assessing that all relevant assumptions were met, a point biserial test (similar to a Pearson correlation) was used for the association of demographic variables and course completion with baseline stigma. Pearson’s correlation test assessed associations between age and the baseline stigma scores. If a participant’s demographic variable was unknown, that participant was excluded from that specific demographic variable analysis, except for age, where we use the mean age of those subcategories.
Total ASI full scale and subscales stigma scores were calculated by summing the relevant items and reversing the score when appropriate. If a respondent had more than 30% of the items missing for a given scale, the respondent was excluded from the analysis. If less than 30% of the responses were missing, they were imputed. Valid mean substitution (VMS) was the most robust imputation method for the nature of missing data in the dataset. Using the last observation carried forward often results in bias (Carpenter & Kenward, 2007), while VMS is appropriate if both the percentage of missing participants and of missing data are low (Dodeen, 2003). Internal consistency of the scales and subscales was measured via Cronbach’s alpha (Tavakol & Dennick, 2011). The effect size of stigma levels change was assessed through Cohen’s d (Fritz et al., 2012). The statistical significance of mean stigma score differences between each time point was calculated using paired t-tests. The differences were calculated separately for course completers and non-completers. Changes in item-by-item stigma scores were analyzed by reducing the number of categories from five to three and testing the statistical significance with the Friedman test for non-parametric data.
A sample size of 48 trainees was estimated as needed for 80% power of finding a statistically significant mean change of a similar magnitude (3.2 points) as found in a prior study using the original ASI survey geared toward mental illnesses (Ahn et al., 2014; Lillie et al., 2014). As we could not assume a normal distribution, a Wilcoxon signed-rank test was used to assess the significance of the change in stigma score for each ASI question. All statistical analyses were carried out with a statistical significance threshold of p = 0.05. This study can be considered exploratory as it uses a modified ASI stigma scale conceived for mental illness stigma in general, with the ASI only used in a HIC. Item-by-item responses illustrate the response pattern to various specific attitudes and behaviors linked to stigma. Therefore, we do not adjust p values for repeated measures, an approach supported by the literature (Althouse, 2016; Armstrong, 2014; Gelman et al., 2012; Greenland, 2021; Lillie et al., 2014; Parker & Weir, 2020; Rubin, 2017, 2021; Savitz & Olshan, 1995).
Results
Course Completion, Baseline Stigma, and Demographic Characteristics
Of the 123 health workers who registered for the course, 99 health workers completed both the pre- and post-training period survey, with 56 completing the training and 43 who did not. However, some respondents did not fill the stigma survey portion of the questionnaire. Of the stigma surveys, 13 AUD, 10 TUD, and 12 OSUD had all or more than 30% of the data point missing, with most missing all answers. Therefore, the retention is 84.8%, 83.8%, and 84.8%, respectively. Of those who completed the course, 39 (69.6%) remained involved and completed the questionnaires at the post-RCT stage. Only 1.2% of the answers were missing and imputed among those included. Table 1 summarizes the respondents’ demographic characteristics, with 39 primary care clinicians and 60 support staff.
For AUD, primary care clinicians had lower baseline stigma scores than support staff (R2 = 0.202, p = 0.047). Similarly, those with a diploma or a degree had lower stigma scores for AUD than those with a certificate or secondary education (R2 = − 0.262, p = 0.01), with significant collinearity between the type of health worker and education level (χ2 = 5, p ≤ 0.001). For TUD and OSUD, none of the demographic factors was associated with baseline stigma levels. Course completion was not associated with baseline stigma. But some demographic characteristics influenced course completion. Health workers of outpatient hospital departments were significantly more likely to complete the course than those of a community clinic, odds ratio of 9.53 (95%CI: 3.45, 26.32; p ≤ 0.001), while owning a computer increased the odds by 2.84 (1.14,7.14; p = 0.02). However, those characteristics were not associated with baseline stigma and had no significant collinearity.
At baseline, Cronbach alpha levels are very similar across AUD, TUD, and OSUD (Table 2). They are all above 0.7 for the Social Responsibility subscale, between 0.62 and 0.65 for the full scale, and below 0.4 for the Attitude and the Social Distance subscales.
Changes in Stigma Levels
In the analysis comparing stigma scores before and after the training, statistically significant reductions in stigma toward people with AUD, TUD, and OSUD were observed more often among course completers than non-completers, 10 scales/subscales vs. 7, as can be seen in Table 2, which presents the imputed data. The pattern was very similar in original and imputed data, with only minor variations. As per Fig. 1 and Table 2, in course completers, full-scale stigma levels decreased statistically significantly (p ≤ 0.001) by 10.6% for AUD (large effect size), 12.8% for TUD (medium effect size), and 9.6% for OSUD (large effect size). Among non-completers, the reductions were significant only for TUD and OSUD (medium effect size), with scores decreasing by 8.9% p = 0.018 and 9.4%, p = 0.006. For subscales by substance, course completers experienced a significant decrease in stigma score for all AUD subscales (small to large effect size). In contrast, it decreased significantly only for the Social Distance subscale among non-completers (medium effect size). For TUD, all significant decreases represented medium effect sizes. The Social Distance scores decreased significantly for both completer and non-completers. Non-completers’ TUD Attitude score also decreased significantly. For OSUD, the score significantly reduced for almost all subscales for completers and non-completers (medium to large effect sizes), except for Social Responsibility, which was not reduced for non-completers.
The item-by-item analysis (Table 3) reveals a decrease in stigma in most items of the Attitude subscale for course completers for AUD and OSUD, with few changes for non-completers. However, for Q1, which uses the phrasing of “snapping out of” their problematic substance use, the stigma score increased for OSUD and TUD for completers. For Q3, there was a significant stigma score decrease for course completers, indicating that more agree that effective treatments exist for people with AUD, TUD, or OSUD. Q3 scores did not change for non-completers, meaning there was no change in belief related to effective treatments. The item with the lowest level of stigmatizing attitude was about people with AUD, TUD, or OSUD being treated unfairly. It remained unchanged.
The pattern is less consistent for the Social Distance and Social Responsibility subscales. Still, stigma decreased for Q10 of the Social Distance subscale, indicating a decrease in desire for distanciation toward physicians who had been treated for AUD, TUD, or OSUD. The reduction was regardless of completion status. Also, after the course, the course completers minded less if someone with any of the SUD would sit next to them, while it changed only for TUD for non-completers (Q7). There were more statistically significant changes in stigma among course completers than non-completers across all substances and subscales (23 vs 13).
For course completers who participated in the RCTs (n = 39), per Table 4, the overall pattern from before the courses to after the RCTs is very similar to pre- to post-courses, with significant decreases in stigma for all full scales and most subscales. Between the completion of the training and the end of the RCTs, there was a significant re-increase in stigma in the Attitude subscale for OSUD, with no other discernible significant changes in full scales or subscales of any substance.
Discussion
We found that course completers experienced significant decreases in stigma for AUD, TUD, and OSUD, with 80% in the medium to large effect size ranges. While there were statistically significant changes in non-completers, the percent changes were generally smaller and for less scale/subscales, especially for AUD. Our study is one of the first on blended-eLearning in LMIC and its impact on health workers’ stigma toward AUD, TUD, or OSUD, filling an important gap in the literature (Kilian et al., 2021). Our findings are consistent with previous literature in suggesting that structured training following anti-stigma best practices combined with mentorship and reflective exercises for practicing health workers can contribute to reducing SUD stigma (Finkelstein & Lapshin, 2007; Griffiths & Christensen, 2007; Griffiths et al., 2004; Lillie et al., 2014; Patten et al., 2012). In addition, our courses covered communications and motivational interviewing while emphasizing the potential for recovery. Those are also considered important components of effective SUD stigma interventions (Bielenberg et al., 2021; Knaak et al., 2014).
Our study supports prior findings that eLearning courses can be completed by a majority of interested health workers (57%) in an LMIC setting when they have access to the Internet and a computer in the clinic, even without financial incentives (Dagys et al., 2015; Kebaetse et al., 2014; Marrinan et al., 2015; Sissine et al., 2014; Nyarango, 1991).
Also, our study found that baseline stigma was not associated with course completion, suggesting the level of stigma before the course began did not influence perseverance in completing the course, an encouraging finding for extrapolating these data to other populations. However, rates of course completion could be improved by better access to computers (as computer ownership was associated with course completion), and it might be easier to complete the course in hospital outpatient departments than in community clinics, with field observation suggesting it might be because of better computer access in hospitals than in community clinics, as well as workload distribution and perhaps even internet reliability.
In our subset of health workers, a higher education level or being a clinician (correlated with education level) was associated with lower AUD stigma at baseline. Other studies carried out in HICs found a similar association between education and mental health stigma in general (Corrigan & Watson, 2007; Papadopoulos et al., 2002; Song et al., 2005). However, we did not find that association for TUD or OSUD, suggesting the association might not be as consistent across substances or in LMICs. These novel findings in an LMIC context might indicate that education is not as important a predictor of stigma as in HIC contexts or toward SUDs compared to mental illnesses in general. The lack of association with age and gender for all substances is congruent with prior studies finding mixed associations with stigma for mental illnesses or SUDs (Corrigan & Watson, 2007; Hartini et al., 2018; Papadopoulos et al., 2002; Song et al., 2005).
Our study’s greater impact on AUD stigma is consistent with a central focus of the training and the RCTs. Similarly, Puskar et al. (2013) found a more substantial decrease in stigma related to the main topic of their educational intervention. If the eDATA-K module on stigma was very general and did not focus on a particular substance group, the courses focused more on treatment for AUD than OSUD, and so did the patient interactions.
As we found some significant changes among non-completers, although, for fewer substances and fewer items than among course completers, and with smaller effect sizes, this finding of an impact even on those who receive only a partial dose merits discussion. Most of the non-completers did finish at least one of the modules or participated in the peer and mentor activities of the course. Perhaps partial exposure to the training and being in an environment where more attention is given to SUD, with other staff also discussing these issues more openly, could have contributed to changes in health workers’ SUD stigma, even if they did not complete the course. Part of the changes could also be due to a social desirability bias, which could be expressed more after the training, especially considering that both completers and non-completers shared the same clinical settings. Even pre-course levels might have been influenced by social desirability. It is noteworthy that both course completers and non-completers were exposed to people in higher management positions expressing support for expanding access to treatment for SUD and encouraging health workers to take the online courses and participate in the study. Therefore, the health workers might not be representative of those in other contexts or settings.
Despite our study being sufficiently powered only to detect differences between the pre- and post-training period in full scales, the magnitude of change in the subscales, and even in individual survey items, was sufficient to observe some significant changes, especially in the AUD Attitude subscale. It was the Social Responsibility subscale that showed the least change in our study. This might also be due to cultural factors. Some questions related to donating time or funds, joining protests, or signing petitions might not be culturally normative or easy to achieve in an LMIC context.
Interestingly, our results showed a slight increase in agreement post-training with the Attitude subscale statement that people with AUD could “snap out” of it if they wanted to. The original ASI survey demarks an increase in agreement to that statement as an increase in stigma. This might be a valid interpretation in our study, meaning that the training increased that type of stigmatizing attitude. However, in the context of eDATA-K, that interpretation might not tell the whole story. We suspect that a more accurate interpretation is that trainees now feel more confident that people can change their behaviors even if they suffer from a SUD, while before, they would have thought that most people who suffer from a SUD would not be able to change, making it harder for them to “snap out of it.” In other words, we believe that the training increased the health workers’ confidence in the substance user’s ability to change their substance use patterns, alongside health workers’ increased self-efficacy, consistent with answers to other survey items and supported by other studies part of the eDATA-k program of research (Clair et al., in press; Clair et al., 2019, 2016a, 2016b, 2016c, 2016b, 2016c; Hsiang-Te Tsuei et al., 2017).
Measurement of AUD, TUD, and OSUD stigma via the modified ASI might lack internal consistency. The full scale falls close to the acceptable level of a Cronbach alpha of about 0.70. The Social Responsibility subscale is consistently above that threshold (Taber, 2018). But, the Attitude and Social Distance subscales have particularly low Cronbach alpha’s, indicating a need for caution in interpretation. Regardless, Cronbach alpha’s are not without issues, and factor analyses can help further assess the internal consistency and validity of scales and subscales (Taber, 2018). Further research is needed to validate stigma scales for specific substances and for the multitude of dimensions of stigma, even if validated vignetter evaluations or scales for self-stigma among those using substances exist (Brown, 2011; Smith et al., 2016).
Nonetheless, the results of this study, using a modified version of the ASI, are similar to other eDATA-K results using the Opening Minds Scale for Health Care Providers (OMS-HC) to measure stigma in health professionals (Clair et al., 2016a, 2016b, 2019). The OMS-HC was originally designed to measure health workers’ stigma toward mental health patients (Kassam et al., 2012) and was also modified to ask about SUD. While the ASI was altered in a similar manner to ask about SUD rather than mental illnesses, it was geared to the general population and not health workers. With the OMS-HC, there was no change in stigma levels of those who did not complete the courses, with significant changes in course completers, but only for TUD and OSUD (Clair et al., 2016a, 2019), suggesting different sensitivities of those different scales to measure changes in various stigma components. The fact that both scales showed a decrease in stigma for some substances for course completers and fewer/less or no changes for non-completers supports the interpretation that stigma levels changed more comprehensively in course completers than in non-completers, and that blended-eLearning courses can impact stigma. However, further study on both of these instruments’ validity and comparability for measuring stigma associated with various SUD in the general population versus a health worker population would be worthwhile, especially in varied cultures and in LMIC contexts.
Systematic reviews identified multiple studies where contact-based education interventions were associated with decreased stigma (Corrigan et al., 2012; Livingston et al., 2012). However, we did not find a further decrease in stigma toward those with AUD, TUD, or OSUD after the period of intense exposure to people affected by a risky level of use of those substances during the RCT phase. This suggests that the exercise of practicing the screening and BI on their patients, even during the training, without a mentor or teacher organizing a specific contact with someone with any of the SUD (as is usually done in contact-based stigma intervention), resulted in enough contact to maximize the reduction in stigma as measured by the ASI, alongside the reflection and other components of the course. Furthermore, some recent studies cast doubt on the added effectiveness of in-person contact-based interventions compared to others and that online contact can also be effective (Jorm, 2020; Imperato et al., 2021). Alternatively, the ASI might not have the sensitivity to measure a further decrease in stigma in the Kenyan context, as our program of research, especially our qualitative findings (Clair et al., 2022a, 2022b), supports a further decrease in stigma during that period (Clair et al., 2016a, 2016b, 2016c, 2019). Findings for eDATA-K suggest that there was not only a further reduction in stigma but that the stigma reduction, alongside increased self-efficacy, promoted large changes in behaviors in health workers, as well as being noted by the RCT participants (Clair et al., 2022b) and that those stigma changes promoted the continuation of the services after the end of the RCT (Clair et al., 2022a, 2022b). Those qualitative findings raise the question of the validity of the adjusted ASI stigma scale in measuring changes in stigma and stigmatizing behaviors in health workers in an LMIC context.
Some might consider it a limitation to perform item-by-item analyses, which increase the number of the statistical tests, without using a correction to decrease the probability of type 1 error. We argue that none of those item-by-item tests is used to answer the hypothesis of a decrease in stigma in health workers, meaning there is no type 1 error in relation to our main study hypothesis, and no corrections are needed (Althouse, 2016; Armstrong, 2014; Gelman et al., 2012; Greenland, 2021; Lillie et al., 2014; Parker & Weir, 2020; Rubin, 2017, 2021; Savitz & Olshan, 1995). Furthermore, the pattern of significance in the item-by-item analysis is relatively consistent both across substances and across types of completers, as well as with similar questions of the OMS-HC administered as part of eDATA-K to the same health workers (Clair et al., 2016a, 2019). In addition, the item-by-item analysis provides insight into which specific aspects of stigma were impacted, which is particularly important considering low Cronbach alphas for several scales and subscales.
Our study is limited in its ability to separate the effect of social desirability versus (a) the impact of being in an environment where more attention is being given to those with SUD in the training period and (b) partial exposure to the training (as most course non-completers viewed part of the training). Another limitation is the use of a convenience sample of health workers interested in taking the NextGenU.org courses on AUD, TUD, and OSUD in preselected facilities in areas where the leadership indicated to the health worker that there was a need to address those conditions. Therefore, the results might not apply to health workers in other contexts. Our findings, per the paucity of literature on the topic, suggest a need for more studies to understand stigmatizing attitudes and validate stigma scales for health workers in LMICs, as well as high-quality trials testing interventions considering cultural differences (Fabrega, 1991; Sapag et al., 2018). We agree with Witte et al. (2019) that there is a need for studies on substance use stigma specifically (vs. solely on general mental illnesses), including stigma on the use of substances at a level that is not considered pathological versus levels reaching the criteria for substance use disorder.
In conclusion, our study supports that blended-eLearning can promote a decrease in stigma levels in health workers in LMICs, and is a feasible way to provide AUD, TUD, and OSUD relevant education. More research is needed to further test eLearning intervention’s impact on stigma and adequate measurement of stigma in LMICs, specifically for various SUDs.
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We would like to acknowledge the financial contributions of Grand Challenges Canada, the Michael Smith Foundation for Health Sciences, the Annenberg Physician Training Program in Addiction Medicine, the IMPART Addiction Research Training, and the Canada Research Chair program.
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Clair, V., Rossa-Roccor, V., Mutiso, V. et al. Blended-eLearning Impact on Health Worker Stigma Toward Alcohol, Tobacco, and Other Psychoactive Substance Users. Int J Ment Health Addiction 20, 3438–3459 (2022). https://doi.org/10.1007/s11469-022-00914-x
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DOI: https://doi.org/10.1007/s11469-022-00914-x