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PLOS One logoLink to PLOS One
. 2023 Oct 5;18(10):e0286366. doi: 10.1371/journal.pone.0286366

Urban vs. rural differences in psychiatric diagnoses, symptom severity, and functioning in a psychiatric sample

Lauren N Forrest 1,*, Dan A Waschbusch 1, Amanda M Pearl 1, Edward O Bixler 1, Lawrence I Sinoway 2,3, Jennifer L Kraschnewski 2,3,4,5, Duanping Liao 4, Erika F H Saunders 1
Editor: Silva Ibrahimi6
PMCID: PMC10553337  PMID: 37796886

Abstract

Objective

Identifying whether certain groups of people experience elevated rates or severities of psychiatric symptoms provides information to guide healthcare allocation. People living in urban areas have higher rates of some psychiatric disorders relative to people living in rural settings, however, it is unclear if psychiatric severity is more elevated in urban vs. rural settings. This study investigates the urban vs. rural differences in rates of psychiatric disorders and severity of psychiatric symptoms.

Method

A cohort of patients (63% women, 85% White) presenting to an outpatient psychiatric treatment center in the U.S. completed patient-reported outcomes at all clinic visits as part of standard care. Rurality was determined by municipality population density. Sociodemographic characteristics, psychiatric diagnoses, trauma exposure, psychiatric symptom severity, functioning, and suicidality were compared by rural vs. urban municipality.

Results

There were virtually no differences between patients living in rural vs. urban municipalities on rates of psychiatric disorders, severity of psychiatric symptoms, functional impairment, and suicidality (ps≥.09). The only difference was that patients living in rural municipalities had higher exposure to serious accidents than patients living in urban municipalities (p < .01); exposure to nine other traumatic events did not differ between groups (p≥.07).

Conclusions

People living in urban and rural municipalities have a similar need for mental health treatment. Access to care may be one explanatory factor for the occasional rural-urban differences in rates of psychiatric disorders. In other words, if people living in rural areas can access care, their symptom presentations appear unlikely to differ from those of people living in urban areas.

Introduction

Approximately 1 in 5 adults in the U.S. will experience a psychiatric disorder each year [1]. Psychiatric disorders cause significant burden to affected individuals, their friends and family, and the healthcare system [2]. However, the burden of mental health problems is not felt equally across the population and may not be equal between people living in urban vs. rural locations [e.g., 35] Some studies, including a meta-analysis, find that any psychiatric disorder, mood disorders, and anxiety disorders are more common in people living in urban settings than rural settings [46]. Other studies find that hazardous alcohol use, alcohol use-related harms, and PTSD are more common in rural communities as compared to urban ones [6,7], whereas some studies find that rates of all psychiatric disorders are similar between urban vs. rural dwellers [8]. Taken together, results on rural vs. urban differences in psychiatric disorder prevalence are mixed and inconclusive.

Regardless of whether psychiatric disorder prevalence differs between urban vs. rural dwellers, elevated prevalence does not necessarily mean elevated psychiatric severity. Very little research has investigated whether the psychiatric symptom severity differs between people living in urban vs. rural settings, though there are some reasons to believe that severity could differ. For example, people living in rural areas may experience increased mental health stigma, which could exacerbate symptoms and prevent seeking psychiatric treatment [9]. One study found that veterans with psychiatric disorders living in rural areas had significantly worse quality of life than veterans living in urban areas [10]. People living in rural areas may also experience greater burden from psychiatric symptoms because of limited access to psychiatric care [11,12], having to travel longer distances to see psychiatric providers [13], and systemic barriers to healthcare access (e.g., limited broadband internet access, which renders telehealth less viable [14]). Reluctance to seek treatment paired with limited and/or more difficult access to psychiatric care could result in symptoms lasting longer and/or worsening, potentially leading to elevated symptom severity in people living in rural areas.

In addition to limited research on differing psychiatric symptom severities, it is unclear if trauma exposure differs between people living in urban vs. rural settings. This is an important question because some rural primary care providers perceive that people living in rural areas have lower exposure to trauma than those living in urban areas [15]. If providers serving rural patients believe that traumatic experiences are infrequently experienced, providers may be less likely to assess for such experiences, resulting in inadequate mental health care and prolonged psychiatric symptoms. Contrary to the assumption that trauma exposure may be lower in patients living in rural areas, the results of the three studies investigating this question indicate that rates of traumatic experiences are similar between people living in urban vs. rural areas [8,16,17].

The current study used data from a cohort of treatment-seeking patients to address whether rates of psychiatric disorders and trauma exposure, psychiatric symptom severity, and functioning differed between people living in rural vs. urban municipalities. We hypothesized that patients residing in urban areas would have higher prevalence of mood and anxiety disorders than patients residing in rural areas [4], but that patients residing in rural areas would have greater psychiatric symptom severity than patients residing in urban areas [10].

Method

Participants

The Penn State Psychiatric Clinical Assessment and Rating Evaluation System (PCARES) registry is the result of the systematic collection of patient-reported outcomes from all patients presenting to an outpatient psychiatric clinic affiliated with an academic medical center in the U.S. At the time of analysis, the PCARES registry contained first-visit data from N = 3556 patients seen between 2/17/2015–5/30/2020. The PCARES registry also contains select, de-identified demographic information. Demographic characteristics are described in Table 1.

Table 1. Patient demographic characteristics stratified by urban/rural status.

Overall Urban Rural
N = 3493 n = 3007 n = 486
Mean SD Mean SD Mean SD p
Age (year) 42.4 17.0 42.6 17.1 41.5 16.4 .18
Body mass index (kg/m2) 30.3 8.4 30.2 8.5 31.0 8.1 .09
Household median income ($) 59744 10603 60280 10778 56425 8750 < .01
% n % n % n p
Self-reported gender
    Man 36.7 1283 36.8 1105 36.6 178 .96
    Woman 63.3 2210 63.2 1902 63.4 308
Race
    White 84.6 2956 83.0 2497 94.4 459
    Black or African American 5.9 206 6.7 202 0.8 4 < .01
    Other 9.5 331 10.3 308 4.7 23
Ethnicity
    Hispanic 4.4 153 4.8 143 2.1 10
    Not Hispanic
Other
91.1
3.7
3210
130
91.5
3.8
2751
113
94.4
3.5
459
17
.02
Marital status
    Single 44.9 1568 45.4 1366 41.6 202
    Married 38.8 1354 38.0 1143 43.4 211 .08
    Formerly married 16.3 571 16.6 498 15.0 73
Primary insurance type
    Commercial 56.2 1958 56.1 1682 56.9 276 .74
    Public/self-pay 43.8 1525 43.9 1316 43.1 209
Secondary insurance type
    Commercial 13.5 464 14.5 398 13.8 66 .87
    Public/self-pay 86.5 2969 86.5 2555 86.3 414
≥High school graduates 90.2 4.5 90.6 4.3 87.5 5.0 < .01

The collection of the PCARES registry itself was considered a clinical quality improvement project that did not meet criteria for human subject research. Therefore, participant consent and Institutional Review Board (IRB) approval to collect the patient-reported outcomes were not required. However, when the de-identified PCARES data is used for research purposes, the proposed research study requires IRB approval. The current study was approved by the Pennsylvania State University IRB (Study ID #19888), and was conducted according to the ethical principles of the Declaration of Helsinki.

Procedure

The PCARES assessment is administered at every clinic visit. Unless otherwise noted, all measures below were administered at the patient’s first visit. The assessment was modified midway through its implementation based on clinician feedback, which divides the data into “implementation phase one” and “implementation phase two.” Some measures were collected in both implementation phases, while others were collected in only one implementation phase. S1 Table shows the assessments that were administered across phases.

Measures

Rural vs. urban municipality

Patients’ residential addresses were extracted from the electronic medical record (EMR) and geocoded. The geocoded addresses were merged with the Pennsylvania municipality boundaries to obtain each patient’s home Pennsylvania municipality and subsequently were cross-referenced with the rural or urban municipality designations created and maintained by the Center for Rural Pennsylvania [18]. Briefly, a Pennsylvania municipality is classified as rural when (1) the municipality population density is less than the statewide average density of 284 persons/square mile per 2010 Pennsylvania Census, or (2) the total population is less than 2,500, unless >50% of the population lives in an urbanized area as defined by the US Census Bureau. Otherwise, a municipality is classified as urban.

Sociodemographic characteristics

Self-reported gender, race, ethnicity, marital status, primary and secondary insurance type (commercial vs. public or self-pay), age, height, and weight were extracted from the EMR. Residential zip codes were referenced with the US Census Bureau’s 2016 American Community Survey to infer household income and education level.

Psychiatric diagnoses

Psychiatric diagnoses that were assigned at the first visit were extracted from the EMR.

Trauma exposure

The Brief Trauma Questionnaire [19] is a 10-item measure that assesses lifetime exposure to various types of traumatic experiences.

DSM-5 Level I cross-cutting symptom measure

The DSM-5 Level I Cross-Cutting symptom measure [20,21] is a 15-item measure of psychiatric symptoms. Participants report how much or how often, over the past two weeks, they have been bothered by each symptom on a 0 (none or not at all) to 4 (severe or nearly every day) scale. Patients were coded as “positive” on a symptom if they endorsed being mildly bothered by that symptom or experiencing a symptom several days over the last two weeks.

Symptom severity measures

The procedures used to assess specific symptoms were modified midway throughout the PCARES implementation. In the first phase, if a patient was coded as positive on Level 1 depression, anger, anxiety, or sleep disturbance, they completed the Level 2 symptom measures, assessed via the PROMIS Emotional Distress Depression, Anger, and Anxiety short forms and the PROMIS Sleep Disturbance short form [20,22]. In the second phase, depression was assessed with the Patient Health Questionnaire–9 (PHQ-9) [23]. Mania was assessed with the Altman Self-Rated Mania Scale [24]. Anxiety was assessed with the Generalized Anxiety Disorder–7 [25]. Suicidal thoughts and behaviors were assessed with the Columbia–Suicide Severity Rating Scale [26]. Across both phases, substance use was assessed with the Alcohol Use Disorders Identification Test, which was administered for both alcohol and other substances [27].

Functioning

Both implementation phases included the World Health Organization Disability Assessment Scale-2.0 [28]. This is a 36-item measure assessing impaired functioning across several domains due to physical or mental health concerns in the last 30 days.

Data analytic plan

The current report included all available data for each measure (i.e., pairwise deletion). All analyses were performed in SAS version 9.4. Chi-square, t-tests, and Cochran-Mantel-Haenszel tests compared demographic and clinical characteristics by rural vs. urban municipality. For categorical outcomes, effect sizes were indicated by the difference in proportions (% rural–% urban). For continuous outcomes, effect sizes were indicated by Cohen’s d (rural mean–urban mean / overall SD).

Results

Descriptive statistics by rural vs. urban municipality are presented in Table 1. Rural and urban patients had similar mean age and body mass index, and similar proportions of people based on self-reported gender, marital status, primary insurance type, and secondary insurance type. However, compared to urban municipalities, rural municipalities had lower median household income (p < .01), higher proportion of White-identified people (p < .01), higher proportion of non-Hispanic-identified people (p = .02), and lower education (p < .01).

Clinical characteristics by urban vs. rural municipality are shown in Tables 24. Patients living in rural vs. urban municipalities had similar proportions of all psychiatric disorders (ps≥ .12; Table 2). A significant difference was found for only one of 10 traumatic events, such that people living in rural municipalities had higher exposure to serious accidents than patients living in urban municipalities (p < .01; Table 2). Rural and urban municipalities had similar proportions of patients screening positive on all DSM Level 1 cross-cutting symptom measures (ps≥.10; Table 3). Patients living in rural vs. urban municipalities had similar severities of depression (ps = .37-.72), anxiety (ps = .60-.74), sleep problems (p = .21), anger (p = .51), mania (p = .22), alcohol use (p = .38), substance use (p = .65), and suicidal thoughts and behaviors (ps≥.12; Table 4). Patients living in rural vs. urban municipalities had similar scores on all indices of functioning (ps≥.33; Table 4).

Table 2. Psychiatric diagnoses by urban/rural status.

Overall
N = 3493
Urban
n = 3007
Rural
n = 486
% n % n % n Effect size* p
Major depressive disorder–Lifetime 41.1 1432 40.7 1221 43.5 211 2.8% .24
Major depressive disorder–Current 37.7 1313 37.2 1116 40.6 197 3.4% .15
Any Bipolar-Lifetime 10.2 356 10.4 311 9.3 45 -1.1% .46
Bipolar I disorder–Lifetime 3.0 104 3.2 95 1.9 9 -1.3% .12
Bipolar II disorder–Lifetime 3.0 106 3.0 91 3.1 15 0.1% .94
Bipolar disorder NOS–Lifetime 4.4 154 4.4 132 4.5 22 0.1% .89
Generalized anxiety disorder 21.6 752 21.2 637 23.7 115 2.5% .22
Panic disorder 5.3 183 5.4 163 4.2 20 -1.2% .23
Social phobia 2.4 83 2.4 72 2.3 11 -0.1% .86
Psychotic disorder–Lifetime 3.2 112 3.4 102 2.1 10 -1.3% .12
Obsessive compulsive disorder 3.1 108 3.2 95 2.7 13 -0.5% .57
Post-traumatic stress disorder 6.3 219 6.3 189 6.2 30 -0.1% .92
Antisocial personality disorder 0.1 2 0.1 2 0.0 0 -0.1% N/A
Eating disorder 1.0 35 1.1 32 0.6 3 -0.5% .47
Alcohol use disorders 1.6 54 1.7 50 0.8 4 -0.9% .16
Substance use disorders 1.6 56 1.6 47 1.9 9 0.3% .64
Opioid use disorder 0.3 10 0.2 7 0.6 3 0.4% .15
Somatic disorder 0.7 24 0.6 18 1.2 6 0.6% .13
Other personality disorder 1.2 43 1.2 37 1.2 6 0.0% .99
Autism spectrum disorder 5.6 196 5.4 161 7.2 35 1.8% .10
Attention deficit–hyperactivity disorder 7.0 243 7.1 212 6.4 31 -0.7% .58
Mean SD Mean SD Mean SD Effect size* p
Number of diagnoses 1.5 1.1 1.5 1.1 1.5 1.2 0.04 .33
Overall
n = 1102
Urban
n = 971
Rural
n = 131
Brief Trauma Questionnaire % n % n % n Effect size* p
    War zone, casualty 2.6 28 2.5 24 3.1 4 0.6% .77
    Serious accident 26.9 290 25.5 243 37.9 47 12.4% < .01
    Major disaster 15.1 164 15.1 146 14.4 18 -0.7% .83
    Life-threating illness 16.2 175 15.8 151 18.9 24 3.1% .38
    Child abuse 26.9 292 26.8 256 27.7 36 0.9% .83
    Physical attack 27.8 300 28.7 273 21.1 27 -7.6% .07
    Unwanted sex 34.3 371 34.1 325 35.7 46 1.6% .73
    Seriously injured 21.7 234 21.7 206 21.9 28 0.2% .96
    Others died violently 20.3 221 20.0 192 22.5 29 2.5% .51
    Others injured seriously 24.3 258 24.3 227 24.4 31 0.1% .97
    Patients with > = 1 “yes” 74.9 825 74.2 720 80.2 105 6.0% .14
Mean SD Mean SD Mean SD Effect size p
    Number of “Yes” 2.1 2.0 2.1 2.0 2.2 1.9 0.05 .55

Note. NOS = Not otherwise specified.

*Effect size for categorical variable = rural %–urban %, effect size for continuous variable = (rural mean–urban mean)/overall SD.

† # of diagnoses was calculated as the sum of all clinical diagnoses, except “Any Bipolar-Lifetime”.

Table 4. Psychiatric symptom severity and functioning stratified by urban/rural status.

Overall Urban Rural
n Mean SD n Mean SD n Mean SD Effect size* p
Phase 1 symptom severity measures
    Depression T-score 1232 65.1 8.7 1054 65.0 8.6 178 65.3 9.6 0.03 .72
    Anxiety T-score 1232 65.9 8.8 1054 65.8 8.8 178 66.1 8.8 0.03 .74
    Sleep T-score 1232 62.8 8.0 1054 62.7 8.0 178 63.7 7.7 0.13 .21
    Anger T-score 1232 62.9 10.5 1054 62.8 10.6 178 63.4 10.5 0.06 .51
Phase 2 symptom severity measures
    Depression (PHQ-9) 2756 10.7 7.1 2387 10.8 7.1 369 10.4 7.1 -0.06 .37
    Anxiety (GAD-7) 2585 9.5 6.4 2238 9.4 6.4 347 9.6 6.4 0.03 .60
    Mania (ASRM) 2515 4.47 4.24 2160 4.51 4.22 355 4.21 4.32 -0.07 .22
n % n % n % Effect size* p
    Suicide (C-SSRS)
    None 1801 69.7 1545 69.2 256 73.1 3.9%
    Wished dead 264 10.2 233 10.4 31 8.9 -1.5%
    Think of killing self 87 3.4 74 3.3 13 3.7 -0.4%
    How may kill self 97 3.8 87 3.9 10 2.9 -1.0% .12
    Intention of act 29 1.1 23 1.0 6 1.7 0.7%
    Work out details 19 0.7 15 0.7 4 1.1 0.4%
    Attempts/harm self 175 6.8 153 6.9 22 6.3 -0.6%
    “Yes” past 3 mo. 13 7.4 13 8.5 0 0.0 -8.5% N/A
    Start to kill yourself 112 4.3 104 4.7 8 2.3 -2.4%
    “Yes” past 3 mo. 31 27.5 31 29.5 0 0.0 -29.5% N/A
n Mean SD n Mean SD n Mean SD Effect size* p
    Continuous score 2584 1.1 2.1 2234 1.1 2.1 350 0.9 1.9 -0.10 .09
Phase 1 and Phase 2 measures
    Alcohol/substance use (AUDIT)
    Alcohol use 1104 3.0 4.2 973 3.1 4.2 131 2.7 4.0 -0.10 .38
    Substance use 1104 1.5 2.6 973 1.5 2.6 131 1.6 2.9 0.04 .65
WHODAS
    Cognition 3322 29.6 24.6 2856 29.6 24.6 466 29.6 24.1 0.00 0.99
    Mobility 3322 28.3 31.0 2856 28.0 30.9 466 29.4 31.9 0.05 0.39
    Self-care 3322 14.2 22.5 2856 14.3 22.7 466 13.3 21.2 -0.04 0.39
    Getting along 3322 34.6 29.9 2856 34.7 29.8 466 34.1 30.5 -0.02 0.65
    Life activities 3322 47.3 28.2 2856 47.3 28.0 466 47.3 29.0 0.00 0.99
    Participation 3322 46.0 28.3 2856 45.7 28.2 466 47.1 28.9 0.05 0.33
    Total score 3322 31.8 21.2 2856 31.8 21.1 466 32.1 21.5 0.01 0.80

ASRM = Altman Mania Rating Scale, PHQ-9 = Patient Health Questionnaire– 9, GAD-7 = Generalized Anxiety Disorder -7, AUDIT = Alcohol Use Disorders Identification Test, C-SSRS = Columbia Suicide Severity Rating Scale, WHODAS = World Health Organization Disability Assessment Scale 2.0.

† C-SSRS score equals to the question number of the “highest” (i.e. most severe suicidal thoughts or behaviors) question with “Yes” as the answer. The column percentages/Ns are mutually exclusive. The prevalence of “Yes within 3 months” for Q6 and Q7 were calculated WITHIN those who scored 6 or 7, respectively. For example, among the 175 patients who scored “6” (“Yes” on attempted to kill or harm yourself), 7.4% (n = 13) of them took actions within the last 3 months.

* Effect size for categorical variable = rural %–urban %, effect size for continuous variable = (rural mean–urban mean)/overall SD.

Table 3. Percentage of the sample with DSM-5 Level 1 Cross-Cutting Symptom Measure screener that was positive stratified by urban/rural status.

Overall
n = 2307
Urban
n = 1997
Rural
n = 310
DSM Level I % n % n % n Effect size* p
    Depression 81.5 1876 81.3 1621 82.5 255 1.2% .60
    Anger 69.4 1595 68.9 1371 72.7 224 3.8% .17
    Mania 42.0 954 41.9 826 42.2 128 0.3% .91
    Anxiety 83.0 1905 83.0 1649 82.9 256 -0.1% .94
    Somatic 69.8 1593 69.8 1381 69.3 212 -0.5% .85
    Suicide 29.5 676 25.9 573 33.6 103 4.6% .10
    Psychosis 14.8 340 14.9 295 14.7 45 -0.2% .94
    Sleep disturbance 67.4 1547 67.2 1335 68.8 218 1.6% .57
    Memory 44.8 1026 44.9 891 44.3 135 -0.6% .84
    OCD 45.8 1040 45.7 897 46.6 143 0.9% .76
    Dissociation 35.2 802 35.5 701 33.2 101 -2.3% .43
    Personality 64.4 1468 64.4 1271 64.4 197 0.0% .99
    Alcohol use 4.9 112 5.1 101 3.6 11 -1.5% .26
    Tobacco use 22.0 502 21.6 428 24.3 74 2.7% .30
    Substance use 6.6 151 6.8 134 5.6 17 -1.2% .44
Mean SD Mean SD Mean SD Effect size* p
    Total score 30.4 16.4 30.4 16.4 30.4 16.2 0.00 .97
Symptom domains, # 6.5 3.2 6.5 3.2 6.6 3.2 0.03 .82

Scoring algorithm in Supplemental Table 2.

*: Effect size for categorical variable = % (rural)—% (urban).

Effect size for continuous variable = [Mean (rural)–Mean (urban)]/SD (overall).

Discussion

There were virtually no differences between urban vs. rural dwellers on rates of psychiatric diagnoses, symptom severities, suicidal thoughts and behaviors, or functional impairment. The only significant difference was that people living in rural municipalities had higher exposure to one of ten traumatic experiences than people living in urban municipalities. The lack of significant differences on diagnoses and symptom severities could indicate that access to care may be one explanatory factor for the occasional differences in rates of psychiatric disorders observed in population-based studies. In other words, if people living in rural areas can access care, their symptom presentations may be unlikely to differ from those of people living in urban or suburban locations.

The lack of systematic differences on psychiatric symptoms between patients living in urban vs. rural municipalities indicates that rural and urban dwellers have a similar need for psychiatric treatment. This can be viewed as both a glass half full and a glass half empty. On one hand, rurality in and of itself does not appear to indicate a need for differential psychiatric assessments or treatments [e.g., 15]. On the contrary, if patients living in rural areas can access mental health care, the current results suggest that providers can treat these patients using current best practices, such as assessing the intersecting aspects of a patient’s environment, history, and social systems that contribute to mental health [29,30]. Indeed, although people living in urban vs. rural locations may have different values and identities that can impact mental health [e.g., 31,32], rural and urban dwellers also share substantial commonalities regarding mental health (aside from access to care). Although “diseases of despair,” which include depression, drug overdose, alcohol-related liver disease, and suicidal thoughts and behaviors, have often been associated with rural America [33], population-based data indicate that diseases of despair impact people regardless of their place of residence on the rurality continuum [34]. Further, a qualitative study found that community members living in rural and urban locations had shared beliefs in their perception of causal factors driving despair in their communities [35].

On the other hand, despite a similar need for psychiatric treatment in rural vs. urban residents, limited access to mental health care in rural areas is well documented [29]. Rural health advocates have long sought to increase rural access to mental health care, such as through the creation of the Behavioral Health Workforce Education and Training program [36] and deployment of telehealth services [37,38]. Unfortunately, disparities in access to mental health care still persist [29,38]. Dismantling these barriers to mental health care likely requires a complex and multi-modal process of examining how geographic location intersects with socioeconomic status, race, ethnicity, sexual orientation, educational opportunities, occupational conditions, and community changes, and how these factors are situated within systems, institutions, communities, and public policies [29,30,39]. The current results do not provide suggestions for how to begin solving this problem. Rather, they provide further data supporting that people living in rural areas have a similar need for psychiatric treatment as their urban counterparts and underscore the need to increase rural access to mental health treatment.

The study strengths are as follows. We administered transdiagnostic symptom measures to a large sample of patients. This is important because much of the existing rural mental health disparities research has assessed diagnoses only, whereas transdiagnostic assessment is in line with contemporary developments in psychopathology research and classification (e.g., Research Domain Criteria) [40]. The findings reflect real-world data from a cohort of patients seeking psychiatric treatment from the same academic medical center, thereby increasing generalizability.

Several limitations are of note. First, although the study’s real-world data may enhance generalizability, some aspects of these data are not ideal for research. For example, data are missing for several reasons, including having two phases of assessment implementation and because of aspects of the measurement-based care implementation (e.g., screening negatively on the DSM Level 1 Cross-Cutting Symptom Measure means that a Level 2 Measure is not completed). Second, a different pattern of results could emerge with a community- or population-based sample where participants are stratified both on rurality and whether they have received psychiatric treatment [41,42]. Third, psychiatric diagnoses were assigned based on provider interview/judgment, and not assigned based on a standardized interview. Fourth, we defined rurality based on patients’ municipalities. Rurality can also be coded by county. In the current report, coding rurality by county yielded a highly similar pattern of results (data not shown). Regardless of coding rural status by municipality or county, both definitions are dichotomous, and yet rurality exists on a continuum [e.g., 43]. Larger-scale data that quantifies the rurality continuum is needed.

In sum, we found very little evidence for urban vs. rural differences in rates of psychiatric disorders, trauma exposure, psychiatric symptom severity, severity of suicidal thoughts and behaviors, and functional impairment. Results underscore that people living in urban and rural areas have an equal need for mental health treatment.

Supporting information

S1 Table. PCARES battery at implementation Phase 1 and implementation Phase 2.

(DOCX)

S2 Table. DSM Level I symptom algorithms.

(DOCX)

Data Availability

Data cannot be shared publicly because these data are being collected as part of a routine quality improvement project. The IRB overseeing this project uses specific templates/protocols for quality improvement projects. These templates/protocols do not contain a section for public data sharing, and these templates/protocols cannot be altered. Thus, we are unable to share the data publicly. However, for verification of the results in this manuscript, readers can contact Dr. Erika Saunders (esaunders@pennstatehealth.psu.eduz), the PI and team lead for the overarching quality improvement project. Dr. Saunders and the project team will evaluate the request. For reasonable requests, the team will send a de-identified dataset that contains only the variables used in the current manuscript. In sum, the project team is only able to share a de-identified dataset that (1) is used only for verification of results, (2) will be shared with individual investigators who contact the team lead, and (3) will not be posted publicly. Data requests can also be sent to the Department of Psychiatry and Behavioral Health research: pbhresearch@pennstatehealth.psu.edu.

Funding Statement

LF received funding from the National Center for Advancing Translational Sciences (KL2 TR002015, UL1 TR002014). JLK also received funding from the National Center for Advancing Translational Sciences (UL1 TR002014). The funders had no role in study design, data collection and analysis, decision to publish, or preparation of the manuscript.

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Supplementary Materials

S1 Table. PCARES battery at implementation Phase 1 and implementation Phase 2.

(DOCX)

S2 Table. DSM Level I symptom algorithms.

(DOCX)

Data Availability Statement

Data cannot be shared publicly because these data are being collected as part of a routine quality improvement project. The IRB overseeing this project uses specific templates/protocols for quality improvement projects. These templates/protocols do not contain a section for public data sharing, and these templates/protocols cannot be altered. Thus, we are unable to share the data publicly. However, for verification of the results in this manuscript, readers can contact Dr. Erika Saunders (esaunders@pennstatehealth.psu.eduz), the PI and team lead for the overarching quality improvement project. Dr. Saunders and the project team will evaluate the request. For reasonable requests, the team will send a de-identified dataset that contains only the variables used in the current manuscript. In sum, the project team is only able to share a de-identified dataset that (1) is used only for verification of results, (2) will be shared with individual investigators who contact the team lead, and (3) will not be posted publicly. Data requests can also be sent to the Department of Psychiatry and Behavioral Health research: pbhresearch@pennstatehealth.psu.edu.


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