Abstract
Depression is a leading cause of disability worldwide, with significant variations in prevalence across urban and rural populations. In the Gulf Cooperation Council (GCC) countries, rapid urbanization and socioeconomic changes have introduced new mental health challenges. However, comprehensive data on depression disparities between urban and rural residents remain limited. This systematic review aims to explore depression prevalence in Saudi Arabia and other GCC nations, examining associated factors and regional variations.
Following Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guidelines, we conducted a systematic search of PubMed, MEDLINE, PsycINFO, Scopus, and Web of Science for studies published between 2010 and 2024. Studies published between 2010 and 2024 were included if they assessed depression prevalence among adults in urban or rural settings within GCC countries using validated diagnostic tools. Studies were excluded if they focused on narrow subpopulations or lacked clear geographic classification. Data were extracted independently by two reviewers, and study quality was assessed using the Newcastle-Ottawa Scale for observational studies and Assessment of Multiple Systematic Reviews 2 for reviews.
Twenty-four studies were included, with 18 from Saudi Arabia, four from the UAE, two from Oman, and one from Qatar. No studies from Bahrain or Kuwait met the inclusion criteria. Prevalence ranged widely: 2.1-77.8% in Saudi Arabia, 2.1-21.1% in the UAE, and 8.1-21.7% in Oman. Rural-specific data were scarce, though indirect evidence suggested higher rates in rural Saudi Arabia (e.g., 62.3% in northern regions). Women, younger adults in Qatar, older adults in Saudi Arabia, and individuals with lower socioeconomic status consistently showed higher depression rates. Stigma and underdiagnosis (74% undetected cases in Saudi Arabia) were key barriers.
Depression prevalence in the GCC varies significantly by country, urbanization level, and demographic factors. The lack of rural-specific data and studies from Bahrain and Kuwait highlights critical research gaps. Culturally tailored interventions, improved mental health infrastructure, and anti-stigma campaigns are urgently needed, particularly for women and rural populations. Future research should standardize measurement tools and prioritize disaggregated urban-rural analyses to guide equitable policy-making.
Keywords: depression, gcc countries, mental health prevalence, saudi arabia, systematic review, urban-rural disparities
Introduction and background
Depression is a leading cause of disability worldwide, with significant impacts on individuals’ quality of life, productivity, and overall well-being [1,2]. Globally, depressive disorders rank among the top contributors to the burden of disease, and their prevalence is rising in many regions, including the Gulf Cooperation Council (GCC) countries [3,4]. In Saudi Arabia, depression ranked fifth among the top causes of death and disability in 2019. It affects more than a third of the adult population, according to recent systematic reviews and meta-analyses [4]. This high prevalence has far-reaching implications not only for individual health but also for broader socioeconomic development, especially as the majority of the Saudi population falls within the working-age group of 18-60 years [4].
The rapid pace of urbanization and socioeconomic transformation in Saudi Arabia and other GCC countries has introduced new challenges and stressors that may contribute to the mental health burden. Urban environments, characterized by increased population density, lifestyle changes, and evolving social structures, have been associated with higher rates of mental disorders, including depression [5,6]. Findings from the Saudi National Mental Health Survey (SNMHS) indicate that mental disorders, particularly mood and anxiety disorders, are more prevalent in urban centers such as Riyadh compared to rural areas. Nearly one-third of SNMHS respondents reported a mental disorder, with almost half of these cases classified as severe, underscoring the urgent need for comprehensive mental health strategies [7].
Despite the growing recognition of depression as a significant health issue, there is considerable heterogeneity in reported prevalence rates across different regions, populations, and methodologies within Saudi Arabia. Studies have documented a wide range of depression prevalence, from as low as 8.6% in some regions to as high as 88.9% in others, reflecting differences in study design, assessment tools, and sociodemographic factors [4]. Systematic reviews estimate a pooled prevalence of depression among Saudi adults at approximately 37%, with higher rates observed among women, single individuals, those with lower education levels, and residents of the northern and southern regions of the country [4]. Risk factors such as financial difficulties, poor housing conditions, chronic health problems, and lack of social support further compound the vulnerability to depression [4,8].
When compared to other GCC countries, the prevalence of depression in Saudi Arabia appears notably higher. For instance, studies have reported prevalence rates of 4.2% to 6.6% in Qatar, 4.0% to 7.4% in Iraq, 12.5% to 28.6% in the United Arab Emirates (UAE), and 27.7% among university students in Oman [9-12]. These disparities may be attributed to variations in socioeconomic conditions, cultural attitudes toward mental health, and the availability of mental health services across the region.
Given the huge burden of depression and the observed differences between urban and rural populations, there is a critical need for systematic evidence to inform effective prevention, early detection, and management strategies tailored to the unique contexts of Saudi Arabia and the wider GCC. This systematic review aims to synthesize current knowledge on the prevalence of depression among urban and rural residents in Saudi Arabia and to compare these findings with data from other GCC countries. By identifying patterns, risk factors, and gaps in the literature, this review seeks to support the development of targeted mental health policies and interventions that address the diverse needs of populations across the region.
Review
Study design
This systematic review was conducted following the Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guidelines [13]. This review synthesized existing evidence on the prevalence of depression among urban and rural residents in Saudi Arabia and other GCC countries, including the UAE, Oman, Qatar, Bahrain, and Kuwait.
Literature search
The guiding research question for this review was, "What is the prevalence of depression among urban and rural residents in Saudi Arabia and other GCC countries, and what factors are associated with these prevalence rates?" To address this question, a comprehensive search strategy was used to identify relevant studies from electronic databases, including PubMed, MEDLINE, PsycINFO, Google Scholar, Scopus, and Web of Science.
The search incorporated both keywords and Medical Subject Headings terms related to population descriptors (e.g., "Urban," "Rural," "Residents"), mental health conditions (e.g., "Depression," "Depressive Disorder," "Mental Health"), geographic focus (e.g., "Saudi Arabia," "UAE," "GCC"), and study type (e.g., "Prevalence," "Epidemiology," "Cross-Sectional," "Survey"). Boolean operators such as AND, OR, and NOT were used to refine the search queries. This search string is an example of the strings used: ("Depression" OR "Depressive Disorder") AND ("Urban" OR "Rural") AND ("Saudi Arabia" OR "GCC" OR "UAE" OR "Oman" OR "Qatar" OR "Bahrain" OR "Kuwait") AND ("Prevalence" OR "Epidemiology" OR "Cross-Sectional Study").
Study selection and eligibility criteria
Studies were selected based on the population, exposure, comparison, and outcomes (PECO) framework [14]. Eligible studies included adults aged 18 years and above residing in urban or rural settings within Saudi Arabia or other GCC countries. While there was no specific exposure under investigation, comparisons between urban and rural prevalence rates were considered when available. The primary outcome of interest was the prevalence of depression, assessed using validated screening or diagnostic tools such as the Patient Health Questionnaire-9 (PHQ-9) [15], Beck Depression Inventory (BDI) [16], or Composite International Diagnostic Interview (CIDI) [17].
To be included, studies had to be original empirical research published in English, report on depression prevalence in urban and/or rural populations, use validated diagnostic tools, and be conducted between 2010 and 2024 to ensure contemporary relevance. Studies were excluded if they focused solely on specific subpopulations unless they could be generalized to broader urban/rural populations. Additionally, case reports, editorials, non-empirical studies, and studies lacking clear geographic classification were excluded.
Data extraction
Two reviewers independently performed data extraction, and any discrepancies were resolved through discussion or consultation with a third reviewer. Key data extracted included study characteristics (author, year, country, study design, and sample size), population details (urban or rural classification and demographics such as age, gender, and socioeconomic status), outcome measures (prevalence rates, assessment tools used, and associated factors like income or marital status), and key findings, particularly urban-rural comparisons and significant predictors of depression.
Quality assessment and risk of bias
The quality of included studies and the potential risk of bias were evaluated using appropriate tools. For observational studies, the Newcastle-Ottawa Scale (NOS) [18] was used to assess domains such as selection, comparability, and outcome assessment. For systematic reviews and meta-analyses included in the synthesis, the Assessment of Multiple Systematic Reviews 2 (AMSTAR-2) tool [19] was employed to evaluate methodological quality. Specific domains evaluated across all studies included selection bias (e.g., representativeness of urban or rural samples), measurement bias (e.g., use of validated tools), and reporting bias (e.g., completeness in reporting geographic-specific prevalence rates). The NOS and AMSTAR-2 are publicly available tools developed by the University of Ottawa and McMaster University, respectively, and can be freely used without specific permission.
Statistical analysis and synthesis
Due to substantial heterogeneity in study designs, populations, and measurement tools, a meta-analysis was deemed inappropriate. Instead, a narrative synthesis approach was adopted. This included a descriptive summary of the prevalence rates across countries and settings, subgroup analyses stratified by demographic factors such as gender, age, and socioeconomic status, and a qualitative exploration of themes such as stigma, healthcare access, and cultural influences on depression prevalence. The study selection process was visually summarized using a PRISMA flow diagram (Figure 1), which detailed that out of 772 initially identified records, 151 remained after duplicate removal and initial identification of ineligible studies. From these, 38 full-text articles were screened, resulting in 24 studies being included in the final synthesis.
Figure 1. PRISMA flowchart showing the study selection process.
PRISMA: Preferred Reporting Items for Systematic Reviews and Meta-Analyses
Results
The systematic review included 24 studies examining the prevalence of depression among urban and rural residents in Saudi Arabia and other GCC countries.
The majority of the studies (18 out of 24) were conducted in Saudi Arabia, highlighting a dominant mental health research focus on this country within the GCC region. Four studies were carried out in the UAE, two in Oman, and one in Qatar. Notably, no studies from Bahrain or Kuwait met the inclusion criteria, highlighting gaps in research from these countries.
Fourteen studies focused exclusively on urban populations, while 11 included both urban and rural residents. None of the studies examined rural populations in isolation, suggesting a potential oversight in understanding the unique mental health challenges faced by rural communities.
The sample sizes varied significantly across the studies. Fourteen studies had fewer than 1,000 participants, seven ranged between 1,000 and 5,000 participants, and three studies stood out with large sample sizes exceeding 5,000 participants. The largest study, conducted by BinDhim et al. [20], included 16,513 participants, providing robust data on mental health trends in Saudi Arabia during the COVID-19 pandemic.
The PHQ-9 was the most frequently used tool, employed in 11 studies, while the PHQ-2 and PHQ-9 (both publicly and freely available tools) were used together in two studies. The BDI/BDI-II was utilized in three studies. Three studies used their own designed, tested, and validated questionnaires. Other tools, such as the World Health Survey tool, CIDI 3.0, Seasonal Pattern Assessment Questionnaire (SPAQ), and Depression Anxiety Stress Scales-21 (DASS-21), were each used in single studies. The reliance on the PHQ-9 underscores its widespread acceptance for depression screening in the region, though the use of varied tools may introduce heterogeneity in prevalence estimates. Table 1 shows the characteristics of the included studies.
Table 1. Characteristics of the included studies.
PHQ-9: Patient Health Questionnaire-9, PHQ-2: Patient Health Questionnaire-2, BDI: Beck Depression Inventory, BDI-II: Beck Depression Inventory-II, CIDI 3.0: Composite International Diagnostic Interview version 3.0, DASS-21: Depression, Anxiety, and Stress Scale-21, SPAQ: Seasonal Pattern Assessment Questionnaire, UAE: United Arab Emirates, PHC: Primary Health Care, MHSS: Mental Health Surveillance System
| Authors | Title | Design | Location/country | Population type | Sample Size | Assessment tools |
| Alruwaili and Alanazi [21], 2019 | Prevalence and associated factors of depressive symptoms among adults with overt hypothyroidism on treatment in Riyadh: a cross-sectional study | Cross-sectional study | Riyadh, Saudi Arabia | Urban | 369 | PHQ-9 (Arabic version) |
| Abdullatif et al. [22], 2021 | Prevalence of depressive disorders and associated factors among adult population of Dubai 2019 | Cross-sectional study | Dubai, UAE | Urban | 2,244 | PHQ-9 |
| Al Harrasi and Masad [23], 2017 | Predictors of depression among adult Omani women in Wilayat of Rustaq | Cross-sectional study | Rustaq, Oman | Urban and Rural | 240 | BDI-II (Arabic version) |
| Al-Atawi et al. [24], 2016 | Prevalence and determinants of depression among type 2 diabetic patients in Tabuk City, Saudi Arabia | Cross-sectional study | Tabuk, Saudi Arabia | Urban | 221 | PHQ-9 (Arabic version) |
| Al-Dabal et al. [25], 2015 | Magnitude of depression problem among primary care consumers in Saudi Arabia | Cross-sectional study | Al Khobar, Saudi Arabia | Urban | 850 | PHQ-9 (Arabic version) |
| Al-Lugmani [2], 2014 | Depression among hypertensive patients at al-Hejrah PHC Center Makkah Al-Mukarramah | Cross-sectional study | Makkah, Saudi Arabia | Urban | 54 | BDI (Arabic version) |
| Al-Salmani et al. [26], 2015 | Characterization of depression among patients at urban primary healthcare centers in Oman | Cross-sectional study | Muscat, Oman | Urban | 2,005 | PHQ-9 |
| AlHamad and Alamri [27], 2021 | The association between social media use and depressive symptoms among adults in Riyadh, Saudi Arabia | Cross-sectional study | Riyadh, Saudi Arabia | Urban | 467 | PHQ-9 |
| Alhabeeb et al. [28], 2023 | National screening for anxiety and depression in Saudi Arabia 2022 | Cross-sectional study | All regions, Saudi Arabia | Urban and Rural | 6,015 | PHQ-9 |
| Alkaabi et al. [29], 2022 | The prevalence and correlates of depression among patients with chronic diseases in the United Arab Emirates | Cross-sectional study | Al-Ain, UAE | Urban | 417 | PHQ-9 |
| Alqahtani et al. [30], 2023 | Prevalence of seasonal affective disorder among primary health care attendees in eastern Riyadh-a cross-sectional study | Cross-sectional study | Eastern Riyadh, Saudi Arabia | Urban | 232 | SPAQ |
| Alshehri et al. [31], 2023 | Study to determine the epidemiology of treatment-resistant depression among the Saudi Arabian population: a cross-sectional study | Cross-sectional study | Abha City, Saudi Arabia | Urban | 651 | Own-designed questionnaire |
| Alsulaimani [32], 2020 | Risk factors of depression among Saudi females | Cross-sectional study | Abha, Saudi Arabia | Urban | 317 | PHQ-2 and PHQ-9 |
| Alsuwaidan et al. [33], 2024 | Prevalence of depression in postmyocardial infarction patients in a tertiary care center in Riyadh | Cross-sectional study | Riyadh, Saudi Arabia | Urban | 249 | PHQ-2 and PHQ-9 |
| Altwaijri et al. [7], 2023 | Dual burden of chronic physical conditions and mental disorders: findings from the Saudi National Mental Health Survey | Cross-sectional study | All regions, Saudi Arabia | Urban and Rural | 4,001 | CIDI 3.0 |
| Alzughbi et al. [34], 2020 | Diabetes-related distress and depression in Saudis with type 2 diabetes | Cross-sectional study | Jazan, Saudi Arabia | Urban and Rural | 300 | PHQ-9 |
| BinDhim et al. [20], 2021 | Saudi Arabia Mental Health Surveillance System (MHSS): mental health trends amid COVID-19 and comparison with pre-COVID-19 trends | Cross-sectional study | All regions, Saudi Arabia | Urban and Rural | 16,513 | PHQ-9 (Arabic version) |
| Ghuloum et al. [35], 2011 | Prevalence of mental disorders in the adult population attending primary health care settings in Qatari population | Cross-sectional study | Qatar | Urban | 1,660 | Own-designed questionnaire |
| Jareebi et al. [36], 2024 | Common mental health conditions and self-stigma in Saudi adults: implications for promotion and intervention | Cross-sectional study | Jazan, Saudi Arabia | Urban and Rural | 1,056 | DASS-21 |
| Madkhali et al. [37], 2019 | Prevalence and associated factors of depression among patients with diabetes at Jazan Province, Saudi Arabia: a cross-sectional study | Cross-sectional study | Jazan Province, Saudi Arabia | Urban and Rural | 480 | BDI-II (Arabic version) |
| Nour et al. [4], 2023 | Prevalence of depression and associated factors among adults in Saudi Arabia: systematic review and meta-analysis (2000–2022) | Systematic review and meta-analysis | All regions, Saudi Arabia | Urban and Rural | 25,814 | Various |
| Odah et al. [38], 2024 | Prevalence of depression among the adult population in southwestern Saudi Arabia: a cross-sectional, community-based study | Cross-sectional study | Al-Qunfudah, Saudi Arabia | Urban and Rural | 1,036 | PHQ-9 (Arabic version) |
| Salim et al. [39], 2020 | Mental health reflections and self-rating at population contexts and paradigms | Cross-sectional study | Dubai, UAE | Urban | 2,532 families | World Health Survey Tool |
| Shahda et al. [40], 2016 | Clinical patterns of mood disorders in a sample of mood disorder patients in the United Arab Emirates | Cross-sectional study | UAE | Urban and Rural | ~500 | Own-designed questionnaire |
Table 2 shows variability in the reported prevalence of depression across studies conducted in Saudi Arabia and other GCC countries. In Saudi Arabia, depression prevalence ranged widely, from 12.7% in national community samples to over 64% in specific urban clinical populations, highlighting regional, methodological, and population-specific differences. Urban populations frequently reported higher prevalence, with notably elevated rates among those with chronic conditions or post-myocardial infarction. While the UAE and Oman showed generally lower prevalence (8.1%-39%), Qatar reported a single estimate of 13.5%. The pooled estimate from the meta-analysis of Saudi studies was approximately 30%.
Table 2. Summary of depression prevalence outcomes in included studies.
MI: myocardial infarction, COVID-19: coronavirus disease 2019
| Authors | Reported depression prevalence (%) |
| Alruwaili and Alanazi [21], 2019 | 33.10% |
| Abdullatif et al. [22], 2021 | 12.50% |
| Al Harrasi and Masad [23], 2017 | 27.00% |
| Al-Atawi et al. [24], 2016 | 49.30% |
| Al-Dabal et al. [25], 2015 | 41.70% |
| Al-Lugmani [2], 2014 | 64.80% |
| Al-Salmani et al. [26], 2015 | 8.10% |
| AlHamad and Alamri [27], 2021 | 47.30% |
| Alhabeeb et al. [28], 2023 | 12.70% |
| Alkaabi et al. [29], 2022 | 39.00% |
| Alqahtani et al. [30], 2023 | 18.5% (seasonal affective disorder) |
| Alshehri et al. [31], 2023 | 22.7% (treatment-resistant depression) |
| Alsulaimani [32], 2020 | 25.90% |
| Alsuwaidan et al. [33], 2024 | 37.3% (post-MI patients) |
| Altwaijri et al. [7], 2023 | 13.80% |
| Alzughbi et al. [34], 2020 | 34.30% |
| BinDhim et al. [20], 2021 | 23.6% (during COVID-19) |
| Ghuloum et al. [35], 2011 | 13.50% |
| Jareebi et al. [36], 2024 | 19.7% (moderate-severe depression) |
| Madkhali et al. [37], 2019 | 20.20% |
| Nour et al. [4], 2023 | 29.9% (pooled estimate) |
| Odah et al. [38], 2024 | 27.70% |
| Salim et al. [39], 2020 | 19.50% |
| Shahda et al. [40], 2016 | 20.00% |
Rural prevalence data were not consistently reported in any of the studies. Although several included both urban and rural populations, none disaggregated findings by locality. However, some insights can be drawn from studies that included both urban and rural populations. For instance, Alhabeeb et al. [28] reported a national depression prevalence of 12.7% in Saudi Arabia but did not differentiate between urban and rural settings. Similarly, Madkhali et al. [37] conducted a study in Jazan Province, where 60.6% of participants were from rural areas, but did not provide comparative prevalence data between urban and rural groups.
On the other hand, Nour et al. [4] found that the northern region of Saudi Arabia, characterized by more rural populations, had a significantly higher depression prevalence (62.3%) compared to other regions. This suggests potential disparities in mental health burden between rural and urban areas, though more targeted analysis is needed. In the UAE, Shahda et al. [40] observed qualitative differences in depression symptom profiles rather than prevalence. Rural residents were more likely to report depressed mood, appetite loss, and fatigue, while urban residents more often experienced anhedonia and insomnia.
Several factors were commonly associated with higher depression rates (Table 3). Gender was frequently reported, with studies in Saudi Arabia, Oman, and Qatar all reporting higher prevalence among women. Age was also significant, though patterns differed, as older individuals had higher rates in Oman, while younger individuals were more affected in Qatar. In Saudi Arabia, lower socioeconomic status was linked to higher depression prevalence. In the UAE, being a national was associated with higher rates compared to non-nationals, suggesting the influence of social or cultural pressures. Most studies report higher depression rates among unmarried, divorced, or widowed individuals, except Al-Salmani et al. [26], who found a positive association between being married and depression (odds ratio = 1.91, P = 0.02). No studies providing depression prevalence estimates were found for Bahrain and Kuwait.
Table 3. Associated factors of depression in GCC populations.
GCC: Gulf Cooperation Council, OR: odds ratio, SAR: Saudi Riyal
| Factor category | Key findings | Examples from studies | Potential explanations |
| Gender | Women consistently show higher depression rates | Alhabeeb et al. [28]: women had 1.472x higher odds (p < 0.001) | Cultural roles, biological differences, and limited mental health access |
| Age | Mixed results: higher in younger (e.g., Qatar), higher in elderly (e.g., Saudi Arabia) | Alhabeeb et al. [28]: highest prevalence (14.8%) in the 60+ age group | Younger: academic/job stress, elderly: chronic illness, loneliness |
| Marital status | Most studies: higher in unmarried/divorced/widowed, exception: married (Al-Salmani et al. [26]) | Al-Salmani et al. [26]: married OR = 1.91 (p = 0.02) | Unmarried: social isolation, married: familial/job stress |
| Education level | Lower education linked to higher depression | Alhabeeb et al. [28]: no bachelor's degree OR = 0.771 (p < 0.001) | Limited job opportunities, socioeconomic disadvantage |
| Income status | Lower income associated with higher depression | Alhabeeb et al. [28]: income < 5,000 SAR/month OR = 0.808 (p = 0.018) | Financial stress, reduced access to healthcare |
| Employment status | Unemployment leads to higher depression, housewives and government employees at high risk | Multiple studies | Unemployment: financial instability, housewives: isolation, government jobs: stress |
| Healthcare access | Inferred as a factor in prevalence and detection | BinDhim et al. [20]: 74% undiagnosed depression | Chronic conditions: higher depression rates for individuals with chronic conditions. Low diagnosis rates among the affected |
As shown by Table 4, four studies [7,20,22,28] achieved the highest NOS scores of 9, indicating a low risk of bias. These studies were characterized by large national samples, inclusion of both rural and urban populations, and robust study designs, such as pre-/post-pandemic evaluations and national surveys. Their strong performance in all three NOS domains (selection, comparability, and outcome) further reinforced their credibility.
Table 4. Quality and risk of bias assessment of included studies.
NOS: Newcastle-Ottawa Scale, AMSTAR-2: Assessment of Multiple Systematic Reviews 2
| Authors | Assessment tool | Selection (max 4) | Comparability (max 2) | Outcome (max 3) | Total NOS score (max 9) | Overall risk of bias | Notes |
| Alruwaili and Alanazi [21], 2019 | NOS | 3 | 1 | 2 | 6 | Moderate | Small sample size, urban-only focus |
| Abdullatif et al. [22], 2021 | NOS | 4 | 2 | 3 | 9 | Low | Large sample, robust methodology |
| Al Harrasi and Masad [23], 2017 | NOS | 3 | 1 | 2 | 6 | Moderate | Focus on women only, rural-urban mix |
| Al-Atawi et al. [24], 2016 | NOS | 2 | 1 | 2 | 5 | High | Small sample, clinical population bias |
| Al-Dabal et al. [25], 2015 | NOS | 3 | 2 | 2 | 7 | Moderate | Urban primary care setting |
| Al-Lugmani [2], 2014 | NOS | 2 | 1 | 1 | 4 | High | Very small sample, single-center |
| Al-Salmani et al. [26], 2015 | NOS | 3 | 2 | 2 | 7 | Moderate | Urban focus, validated tool |
| AlHamad and Alamri [27], 2021 | NOS | 3 | 1 | 2 | 6 | Moderate | Social media bias, urban-only |
| Alhabeeb et al. [28], 2023 | NOS | 4 | 2 | 3 | 9 | Low | National sample, rural-urban included |
| Alkaabi et al. [29], 2022 | NOS | 3 | 1 | 2 | 6 | Moderate | Chronic disease bias, urban-only |
| Alqahtani et al. [30], 2023 | NOS | 3 | 1 | 2 | 6 | Moderate | Seasonal focus, small sample |
| Alshehri et al. [31], 2023 | NOS | 2 | 1 | 2 | 5 | High | Non-validated tool, treatment-resistant focus |
| Alsulaimani [32], 2020 | NOS | 3 | 1 | 2 | 6 | Moderate | Female-only sample, urban |
| Alsuwaidan et al. [33], 2024 | NOS | 3 | 1 | 2 | 6 | Moderate | Post-MI patients, single-center |
| Altwaijri et al. [7], 2023 | NOS | 4 | 2 | 3 | 9 | Low | National survey, robust design |
| Alzughbi et al. [34], 2020 | NOS | 3 | 1 | 2 | 6 | Moderate | Diabetes focus, rural-urban mix |
| BinDhim et al. [20], 2021 | NOS | 4 | 2 | 3 | 9 | Low | Large national sample, pre-/post-COVID-19 |
| Ghuloum et al. [35], 2011 | NOS | 3 | 1 | 2 | 6 | Moderate | Non-validated tool, urban primary care |
| Jareebi et al. [36], 2024 | NOS | 3 | 2 | 2 | 7 | Moderate | Rural-urban mix, stigma focus |
| Madkhali et al. [37], 2019 | NOS | 3 | 1 | 2 | 6 | Moderate | Diabetes focus, rural-urban mix |
| Nour et al. [4], 2023 | AMSTAR-2 | - | - | - | - | Moderate | Comprehensive meta-analysis |
| Odah et al. [38], 2024 | NOS | 3 | 2 | 2 | 7 | Moderate | Community-based, rural-urban mix |
| Salim et al. [39], 2020 | NOS | 3 | 1 | 2 | 6 | Moderate | Urban, self-report bias |
| Shahda et al. [40], 2016 | NOS | 2 | 1 | 1 | 4 | High | Small sample, non-validated tool |
The majority of the studies (16 out of 24) were rated as having moderate risk of bias, with NOS scores ranging from 6 to 7. While these studies generally had acceptable selection criteria and outcome assessment, they frequently scored only 1 point in comparability, suggesting limited adjustment for confounding variables. Common methodological limitations included reliance on self-reported data, small or urban-only samples, and population-specific biases such as female-only or chronic disease-focused samples.
Three studies [2,24,40] were rated as having a high risk of bias, with NOS scores between 4 and 5. These studies suffered from significant limitations, including very small or clinical samples, single-center designs, and the use of non-validated tools. For instance, Al-Lugmani [2] had a total score of 4, the lowest in the group, attributed to a very small, urban-only sample from a single site. This variability underscores the need for more nationally representative, well-controlled studies using validated instruments in future research.
Discussion
This systematic review highlights significant variations in depression prevalence across urban and rural populations in GCC countries, with notable gaps in research and unique regional patterns. The findings show that Saudi Arabia has the widest reported prevalence range, likely due to differences in study populations, assessment tools, and regional disparities. The highest rate of 77.8% was reported among patients with diabetes in Tabuk City, Saudi Arabia [24]. The UAE and Oman show lower ranges, while Qatar reports a single estimate of 13.5%. No studies from Bahrain or Kuwait met the inclusion criteria, underscoring a critical research gap in these nations. The lack of disaggregated rural data is another major limitation, though indirect evidence suggests rural areas may experience higher depression rates, as seen in northern Saudi Arabia (62.3%).
These findings align with global trends in low- and middle-income countries (LMICs), where rural populations often face greater mental health burdens due to limited healthcare access and socioeconomic challenges [41]. However, they contrast with high-income countries, where urban areas typically report higher depression rates due to stressors like social isolation [42]. Though there is a lack of studies with direct urban-rural comparisons within Saudi Arabia, research demonstrated a 29% higher depression prevalence in urban compared to rural areas, particularly among lower-income groups [43]. This pattern was confirmed by a systematic review that indirectly reported a higher prevalence in Saudi rural areas [4] and may suggest similar dynamics could exist in rapidly urbanizing Saudi regions. However, local studies are needed to confirm. While direct prevalence comparisons between Saudi Arabia and neighboring GCC states are limited, with Saudi Arabia having the highest research output, previous research output analysis reveals that Saudi Arabia produced the most depression-related studies but had the lowest per capita research index (0.32/million population) [44]. Thus, Bahrain (1.45/million), Qatar (1.34/million), and Kuwait (1.28/million) showed higher research productivity relative to population size [44].
The findings may indicate a high and context-dependent burden of depression in the region, emphasizing the need for standardized diagnostic approaches and more disaggregated data, particularly for rural populations. Additionally, the diversity in assessment tools (PHQ-9, BDI, CIDI, DASS-21, and others) and target populations (general adult population vs. clinical subgroups) could further contribute to the observed differences in prevalence.
Gender disparities in depression prevalence are consistent across GCC countries, with women showing significantly higher rates. This mirrors global patterns [1,45] but may be amplified by regional factors such as restrictive gender roles and limited mental health services for women [46]. Though GCC countries have made improvements in addressing mental health challenges, women continue to experience limited access to adequate mental health services due to stigma, resource constraints, and systemic barriers [47]. Socioeconomic status also plays a critical role, with lower income and education levels consistently linked to higher depression rates. This aligns with global evidence but may be exacerbated in the GCC by labor policies like the kafala system, which disproportionately affects low-income expatriates [48,49]. Marital status findings are mixed, with most studies associating unmarried, divorced, or widowed individuals with higher depression rates. However, Al-Salmani et al. [26] found marriage itself could be a stressor (OR = 1.91), suggesting cultural and familial pressures may uniquely influence mental health in the region. Similarly, previous research showed that key risk factors of depression identified in Saudi populations were lower educational attainment, student/non-employed status, younger age (21-30 years), female gender, and single marital status [38].
A key concern is the underdiagnosis of depression, with BinDhim et al. [20] reporting that 74% of cases go undetected. This reflects pervasive stigma, where mental illness is often attributed to spiritual causes rather than medical conditions [50-52]. This supports evidence that stigma toward mental health disorders is more prevalent in Arab countries [52,53] compared to Western countries, where such barriers to help-seeking are less pronounced, with only 35% of depression cases remaining untreated [54,55]. The rapid modernization of GCC cities may also contribute to urban mental health challenges, as seen in the higher reporting of symptoms like anhedonia and insomnia [40]. In contrast, rural isolation and limited healthcare infrastructure may explain the inferred higher depression burden in these areas, a pattern observed in other LMICs like India [56], where socioeconomic and gender disadvantage factors were associated with mental disorders among women.
Climate represents an underexplored factor in GCC mental health research. While seasonal affective disorder (SAD) is well-documented in high-latitude countries, Alqahtani et al. [30] suggest extreme heat and disrupted circadian rhythms may similarly impact mood disorders in desert climates. This warrants further investigation, particularly as climate change intensifies regional temperatures. Methodological inconsistencies, such as varied assessment tools (e.g., PHQ-9 vs. BDI) and sampling biases (clinical vs. community populations), further complicate cross-study comparisons. Similar challenges have been noted in other Middle Eastern mental health research [57] and elsewhere [15]. To address these gaps, future studies should prioritize standardized measurement tools, disaggregated rural-urban data, and culturally sensitive interventions. Mobile mental health clinics, modeled after successful programs in rural Pakistan and other countries [58,59], could improve access in underserved areas. Anti-stigma campaigns involving religious leaders, as implemented in Egypt [60], may also enhance help-seeking behaviors. Additionally, research should explore the intersection of climate and mental health, building on existing work in Australia [61].
This review presents some limitations that should be considered. A major limitation of the included studies is the predominant focus on urban populations. Most studies were conducted in major cities (e.g., Riyadh, Dubai, Muscat), with very few including rural participants, and none disaggregating data by urban vs. rural settings. This limits generalizability to rural communities, where access to mental health services and social determinants of health differ significantly. The use of a wide variety of screening and diagnostic tools (e.g., PHQ-9, BDI-II, CIDI 3.0, DASS-21, and locally developed instruments) is another limitation that introduces inconsistency in depression measurement. Differences in cutoff scores, sensitivity, and cultural validity may have led to inflated or deflated prevalence estimates across studies. While some studies used robust sampling methods and national datasets, others had small, clinic-based samples or were limited to specific subpopulations (e.g., patients with diabetes or cardiovascular disease). Since depression is often underdiagnosed due to stigma, cultural beliefs, and limited awareness [50-52], some studies may have underestimated prevalence due to non-disclosure by participants or social desirability bias, particularly in face-to-face interviews. Finally, the lack of longitudinal data presents a limitation, as all included studies were cross-sectional, limiting the determination of causal relationships or trends over time. The absence of cohort studies impairs understanding of the progression and determinants of depression in these settings.
While many of the included studies relied heavily on standardized tools, which have strong psychometric properties, these instruments may not fully capture constructs like perceived social support, resilience, religiosity/spiritual well-being, community belonging, and acculturative stress, which are increasingly recognized as influential in the manifestation and reporting of depressive symptoms, particularly in Middle Eastern and Gulf populations. Future research should consider integrating such constructs alongside traditional symptom-based measures to enhance cultural sensitivity and contextual validity. Factors such as stigma, cultural idioms of distress, gender norms, and religious interpretations of mental illness can affect both self-reporting and clinical recognition of depressive symptoms. Moreover, Western-developed tools may not fully account for local expressions of psychological distress (e.g., somatic symptom emphasis), potentially leading to under- or over-estimation of prevalence. Addressing this requires adapting instruments through rigorous cross-cultural validation processes, involving bilingual translations, cognitive interviewing, and local expert input. We recommend that future studies explicitly discuss cultural bias in both measurement and interpretation and report how these issues were mitigated to improve comparability and accuracy.
Selection bias was frequent, arising from unrepresentative samples (e.g., urban-only recruitment, hospital-based sampling, or focus on specific clinical populations such as diabetic or post-MI patients). This limits the generalizability of results to the wider urban and rural populations, particularly underrepresenting rural residents and marginalized groups. Comparability bias occurred in most moderate-risk studies, where limited or no adjustment for key confounders (e.g., socioeconomic status, gender, comorbidities) could have distorted observed associations. For example, higher depression rates in women or low-income participants might partially reflect the absence of multivariable adjustment. Outcome assessment bias was also present, with substantial heterogeneity in the measurement tools used. Differences in cutoff thresholds, linguistic translations, and a lack of validation for local cultural contexts may have led to misclassification of depressive symptoms. Moreover, standard Western-developed scales may not capture newer psychosocial constructs, such as perceived social support, resilience, religiosity, and acculturative stress, which are relevant to depression manifestation in the GCC. This limitation may contribute to cultural bias and under-detection of culturally specific symptom expressions, such as somatization or religiously framed distress.
Conclusions
Depression prevalence in Saudi Arabia and other GCC countries is a significant public health concern, with Saudi Arabia having the highest but also the widest prevalence range. The UAE, Oman, and Qatar also have higher rates compared to other developed countries. Rural areas, particularly in northern Saudi Arabia, may experience higher depression burdens due to socioeconomic disadvantages and limited healthcare access. Urban populations face unique stressors such as rapid modernization, social isolation, and lifestyle changes, resulting in distinct depressive symptom profiles. Gender disparities are highlighted, with women exhibiting higher depression rates across all studied GCC countries. Socioeconomic factors, such as lower income, unemployment, and education, are strongly associated with depression. Marital status findings are mixed, with most studies linking unmarried or divorced individuals to a higher risk. Systemic barriers to depression management include underdiagnosis and pervasive stigma. Climate-related factors, such as extreme heat, are underexplored contributors to mood disorders. Future action should include standardized research, targeted interventions, policy priorities, and expanded surveillance. While some findings align with global trends, the region’s unique socioeconomic and environmental contexts demand tailored approaches. Addressing the identified challenges requires collaboration among policymakers, healthcare providers, and community leaders to reduce stigma, enhance service delivery, and promote mental health equity across urban and rural settings.
Disclosures
Conflicts of interest: In compliance with the ICMJE uniform disclosure form, all authors declare the following:
Payment/services info: All authors have declared that no financial support was received from any organization for the submitted work.
Financial relationships: All authors have declared that they have no financial relationships at present or within the previous three years with any organizations that might have an interest in the submitted work.
Other relationships: All authors have declared that there are no other relationships or activities that could appear to have influenced the submitted work.
Author Contributions
Concept and design: Tameem A. Alhomaid, Omar Alburaidi, Nahla Garallah, Sultanah Alghofaili, Roqayya M. Alhayyani, Bashayr Alkhalifah, Anwar Albalawi, Sajidah S. Alshanqyti, Ranem Allaboon
Acquisition, analysis, or interpretation of data: Tameem A. Alhomaid, Omar Alburaidi, Nahla Garallah, Sultanah Alghofaili, Roqayya M. Alhayyani, Bashayr Alkhalifah, Anwar Albalawi, Sajidah S. Alshanqyti, Ranem Allaboon
Drafting of the manuscript: Tameem A. Alhomaid, Omar Alburaidi, Nahla Garallah, Sultanah Alghofaili, Roqayya M. Alhayyani, Bashayr Alkhalifah, Anwar Albalawi, Sajidah S. Alshanqyti, Ranem Allaboon
Critical review of the manuscript for important intellectual content: Tameem A. Alhomaid, Omar Alburaidi, Nahla Garallah, Sultanah Alghofaili, Roqayya M. Alhayyani, Bashayr Alkhalifah, Anwar Albalawi, Sajidah S. Alshanqyti, Ranem Allaboon
Supervision: Tameem A. Alhomaid
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