Literature DB >> 34929221

Elevated serious psychological distress, economic disruption, and the COVID-19 pandemic in the nonmetropolitan American West.

J Tom Mueller1, Alexis Merdjanoff2, Kathryn McConnell3, Paul Burow4, Justin Farrell3.   

Abstract

In this study we examined the psychological distress, self-rated health, COVID-19 exposure, and economic disruption of a sample of the nonmetropolitan western U.S. population and labor force one year after the start of the COVID-19 pandemic. Using novel primary survey data from non-metropolitan counties in the eleven contiguous western United States collected from February 28 until April 3, 2021 (n = 1203), we descriptively analyzed variables and estimated binomial and multinomial logit models of the association between economic disruption, COVID-19 exposure, self-rated health, and psychological distress. Results showed there was widespread presence of psychological distress, COVID-19 exposure, and economic disruption among the overall sample and members of the labor force. There was extremely high incidence of serious psychological distress (14.8% CI [12.1,17.8] of the weighted sample), which was heightened among the labor force (16.6%, CI [13.0,20.9] of those in the labor force). We found economic disruption was associated with severe psychological distress, but exposure to infection was not. Comparatively, overall self-rated health was at similar levels as prior research and was not significantly associated with economic disruption or COVID-19 exposure. COVID-19, particularly its associated economic effects, had a significant relationship with serious psychological distress in this sample of adults in the nonmetropolitan western United States.
Copyright © 2021 Elsevier Inc. All rights reserved.

Entities:  

Keywords:  COVID-19; Economy; Mental Health; Nonmetropolitan America; Self-rated Health

Mesh:

Year:  2021        PMID: 34929221      PMCID: PMC8683090          DOI: 10.1016/j.ypmed.2021.106919

Source DB:  PubMed          Journal:  Prev Med        ISSN: 0091-7435            Impact factor:   4.018


Introduction

The COVID-19 pandemic has disrupted nearly every aspect of U.S. society since March 2020. An ongoing crisis of this magnitude has been unmatched in recent history and has caused the U.S. population to contend with high levels of uncertainty and economic disruption. Since the outset of the pandemic, there have been concerns regarding the heightened vulnerability to the pandemic and its associated impacts faced by nonmetropolitan residents of the United States (Dearinger, 2020; Henning-Smith, 2020; Peters, 2020). Nonmetropolitan areas have less accessible health care (Peters, 2020), higher rates of poverty (Tickamyer et al., 2017), more vulnerable labor markets (Mueller, 2021), older populations (Johnson, 2020), a greater share of health-comprised individuals (Henning-Smith, 2020; Peters, 2020), higher mortality rates (Brooks et al., 2020), and lower usage of available mental health care than their metropolitan counterparts (Crumb et al., 2019; Stewart et al., 2015). Further, although there has been a widespread expansion of telehealth across nonmetropolitan areas during the COVID-19 pandemic, nonmetropolitan residents have accessed these services less than their metropolitan counterparts (Pierce and Stevermer, 2020). These vulnerabilities have resulted in notable health-related and economic impacts from the pandemic in nonmetropolitan areas throughout the country (Brook et al., 2021; Cheng et al., 2020; Karim and Chen, 2021; Mueller et al., 2021). However, the scope and extent of these impacts are still unfolding. Due largely to a lack of data, we still do not fully understand the impact of the pandemic on many indicators of well-being historically collected via survey research, such as self-rated health and psychological distress. It is necessary to address this absence in understanding due to the vulnerabilities of nonmetropolitan residents generally, as well as the nonmetropolitan labor force specifically. In this study, we used novel survey data to address this need by examining self-rated health and psychological distress approximately one year after the onset of the COVID-19 pandemic in the nonmetropolitan counties—meaning counties defined by the US Office of Management and budget as those counties with a core population of less than 50,000 and less than 25% of labor commuting to core metropolitan counties (Office of Management and Budget, 2010)—of the eleven contiguous western United States. Similar to other outbreaks like Severe Acute Respiratory Syndrome, Swine Flu, and Ebola, recent literature has noted the mental health impacts of the COVID-19 pandemic, including anxiety, stress, and depression (Brown and Schuman, 2020; Gardner and Moallef, 2015; Huremović, 2019; Mak et al., 2009; Monteith et al., 2020; Serrano-Ripoll et al., 2020). Additionally, a nationally representative survey conducted in April 2020 found that 41% of Americans anticipated there would be mental health consequences from the pandemic (Piltch-Loeb et al., 2021). Those who lived in states with high rates of mortality or infection due to COVID-19 and those anticipating negative economic impacts from the pandemic were more likely to expect negative mental health consequences (Piltch-Loeb et al., 2021). More recently, researchers have begun to explore how the health and economic impacts of the pandemic have been unequally experienced by particular segments of the population, especially those in the labor force—meaning those either actively employed or unemployed but looking for work (Brown and Schafft, 2019). Evidence is mounting that particular segments of the labor force have experienced greater health and economic consequences than others. This includes racial and ethnic minority workers (Fairlie et al., 2020), healthcare workers (Greenberg et al., 2020), essential workers (van Zoonen and Ter Hoeven, 2021), lower-income households (Rothwell and Smith, 2021), and women (Collins et al., 2021). Although a large amount of this research has focused on the impacts of the pandemic on metropolitan laborers, there has been less scholarship on the nonmetropolitan labor force. Although not on the labor force specifically, existing nonmetropolitan-focused work suggests there have likely been high levels of unemployment, and decreases in overall life satisfaction, mental health, and economic outlook as a result of the COVID-19 pandemic (Brook et al., 2021; Mueller et al., 2021). Further, nonmetropolitan laborers were likely particularly vulnerable to the consequences of the pandemic due to nonmetropolitan areas' economic reliance on natural resource extraction, tourism, and manufacturing industries like meatpacking, which are industries that depend on in-person contact (Peters, 2020; Mueller, 2021). In this study we analyzed the self-rated health, psychological distress, and economic disruption of a sample of the nonmetropolitan U.S. western population during the spring of 2021, one year after the COVID-19 pandemic began in earnest in the United States. We did so to understand the consequences of the pandemic itself, as well as the economic disruption stemming from efforts to control its spread. Using data from a novel purposive poll of adults living in the nonmetropolitan western United States, we tested whether negative health outcomes are greater than historically observed, and whether these outcomes are poorer for members of the labor force. Drawing on the impacts and vulnerabilities outlined above, we tested two hypotheses: H1: Poor self-rated health, psychological distress, and economic disruption will be greater in this sample of nonmetropolitan residents than was observed in similar adult populations prior to the pandemic. This difference will be exacerbated for members of the nonmetropolitan labor force due to their central place in the experience of pandemic-related disruption. H2: COVID-19 exposure and economic disruption will be associated with higher rates of poor self-rated health and both mild/moderate and serious psychological distress in this nonmetropolitan sample. These associations will be stronger for members of the nonmetropolitan labor force.

Methods

Data collection and weighting

The data for this study came from a primary purposive poll in the nonmetropolitan counties of the eleven contiguous western United States designed to have a sampling error of ±3.1% at the 95% confidence level. Data were collected in a manner similar to conventional political polls designed to quickly generate data on time-sensitive topics across the population. This was done via a dual-mode phone and internet survey of a sample collected by drawing a random sample of households from the United States Postal Service Delivery Sequence File. After drawing the sample, a survey-research firm, FM3, matched addresses against public records to discern contact information of residents. Residents were first contacted via phone and email, with postcards being sent if neither of those methods were successful. Data were collected from February 28 to April 3, 2021. Data collection utilized a method common in conventional polling where a desired N (1,000) was specified in advance with soft-quotas set for hard to reach groups. Sampling continued until the desired N was reached or we reached the end of our survey window—whichever came last. Soft-quotas were used to ensure a representative sample after weighting. Quotas included sex, age, Latino/a, Native American, and state. These soft-quotas were designed to result in a sample within +/− 3% of the population proportion. To keep our survey in-line with a prior effort (Mueller et al., 2021), we kept the survey open for five weeks and a total of 1203 completed surveys were collected. Responses came from all contact modes, with 478 via email, 500 via phone, 18 via postcard, and 207 via text. Due to the use of a purposive sample and poll-style data collection, the results presented here should be considered equivalent to a political poll and not a traditional social scientific survey. The ‘blast’ nature of our sampling procedure, as well as our abbreviated sampling window, make relying upon a conventional response rate dubious—especially when considering the mixed support for response rates as indicators of data reliability (Groves and Peytcheva, 2008). That said, our contact and response rates were similar to both prior work in the disaster context as well as on COVID-19 in this population (Mueller et al., 2021; Piltch-Loeb et al., 2019). Using the most conservative rates from the American Association of Public Opinion Research (The American Association for Public Opinion Research, 2016), our Contact Rate 1 (the proportion of cases where a member of a housing unit was successfully reached) was 2.5%. This corresponds to an AAPOR Cooperation Rate 1 (total completed interviews among those contacted) of 38.1% and a Response Rate 1 (completed interviews relative to the entire sample regardless of successful contact) of 0.9%. Although these rates are lower than what many have historically considered desirable in survey research, it is not unexpected due the study design which was selected to ensure the rapid collection of timely data. Further, as detailed below, our use of soft quotas and poststratification via rake weighting reduce the limitations imposed by this level of response (Kulas et al., 2018). All of this said, due to the polling nature of our approach, further studies using more traditional techniques are needed to validate and verify our findings. We applied weights to our data along the dimensions of sex, age, education, Latino/a, Native American, and state of residence. Weights were generated via raking to Census statistics. Due to the inability to obtain more recent census data in-line with our 18-year-old cut-off for this sample for educational groupings, we had to generate our weights via 2010 Census estimates. The procedures of the study were reviewed and approved by Yale University's Human Research Protection Program under exemption determination ID#2000027941.

Dependent variables

We focused on two dependent variables: self-rated health and non-specific psychological distress. Self-rated health was asked on the conventional five-point scale ranging from poor to excellent. Similar to other work using this measure (Blakely et al., 2002; Mueller et al., 2019), we dichotomized the five-point self-rated health measure into poor (fair/poor) and good (good/very good/excellent) self-rated health due to distributional issues within the five-point scale, which is generally skewed toward better health. Our measure of psychological distress was the widely used Kessler K6 non-specific psychological distress scale (Kessler et al., 2002; Prochaska et al., 2012; Tomitaka et al., 2019). This scale asks respondents to rate how often during the past 30 days they felt six different symptoms: nervous, hopeless, restless or fidgety, so depressed that nothing could cheer you up, that everything was an effort, and worthless. These items are rated on a five-point scale ranging from 0 – None of the time to 4 – All of the time. We then summed these six items to create an index of psychological distress. In-line with prior work and convention (Prochaska et al., 2012; Tomitaka et al., 2019), we evaluated this measure at the validated cut-offs for mild/moderate psychological distress—where the scale is greater than or equal to 5—and severe psychological distress—where the index is greater than or equal to 13.

Predictor variables

Our predictor variables were in three sets: demographic covariates, COVID-19 exposure indicators, and economic disruption indicators. The demographic covariates were variables likely to influence health outcomes via social determinants of health, as well as exposure to COVID-19 and economic disruption. These included sex, age, education, and Latino/a—we did not include detailed race because of limited variation within our sample and the study population. The categorical breakdown for each of these demographic covariates, as well as other relevant demographic characteristics can be seen in Table 1 .
Table 1

Demographic characteristics of sample and target population.



Sample
Adult Populationa
VariableLevelsNWeighted Percentb, cNon-Metro West
Non-Metro United States
PercentcPercentc
SexMale62451.050.749.7
Female55149.049.350.3
Age18–2910612.819.519.3
30–3914321.215.514.8
40–4919515.514.214.9
50–6434128.926.126.6
65+40421.724.724.3
EducationdLess than high school293.711.413.7
High School or GED15019.728.735.6
Some College32641.126.121.5
Bachelors or Associates40622.025.222.1
Graduate or Professional Degree27813.58.67.1
Latino/aLatino/a10915.015.07.1
Not Latino/a105485.085.092.9
RaceWhite98882.386.185.4
Black131.41.18.1
Asian130.91.21.0
Native American314.25.52.0
Hawaiian or Pacific Islander30.20.20.14
Other475.53.51.6
Mixed race495.52.41.7
StateArizona515.05.4
California21514.013.9
Colorado12912.011.6
Idaho1059.08.7
Montana11911.011.0
Nevada804.04.5
New Mexico6711.010.7
Oregon14211.010.9
Utah745.04.8
Washington14712.012.2
Wyoming746.06.4
Total N12034,840,69936,026,729

Population percentages pulled from 2015 to 2019 American Community Survey and are out of the entire population, as opposed to the sample which was restricted to only those 18 and older.

Percent calculated using proportional weights by sex, age, education, Latino/a, Native American, and state.

Values may not equal 100% due to rounding.

Census totals are for only those over the age of 25.

Demographic characteristics of sample and target population. Population percentages pulled from 2015 to 2019 American Community Survey and are out of the entire population, as opposed to the sample which was restricted to only those 18 and older. Percent calculated using proportional weights by sex, age, education, Latino/a, Native American, and state. Values may not equal 100% due to rounding. Census totals are for only those over the age of 25. Our COVID-19 exposure indicators mirrored those used by Mueller et al. (Mueller et al., 2021) and included three binary measures related to direct exposure to the COVID-19 virus. These included whether or not the respondent contracted coronavirus (i.e. COVID-19) or showed symptoms, whether or not one of the respondent's family members contracted coronavirus or showed symptoms, or whether or not one of the respondent's friends or acquaintances contracted coronavirus or showed symptoms. Economic disruption in our models was comprised of several measures. These measures included both perceived impacts and self-reported objective impacts. We included both perceived and objective impacts to capture the relative and absolute nature of economic impacts, wherein the perception of a local area may impact health regardless of experiencing a direct impact such as loss of employment. The perceived impacts mirrored items used by Mueller et al. (Mueller et al., 2021) and included two measures of perceived impact of the COVID-19 pandemic on the respondent's overall life and personal finances. Respondents were asked to rate how each of these items were impacted by the pandemic from 1 – Extreme Negative Impact to 10 – Extreme Positive Impact. We also included a measure of perceived economic health of the respondent's county for the month prior to the survey rated from 1 – Extremely Poor to 7 – Extremely Good. The self-reported objective measures focused on issues of employment, income, and housing. These included whether or not a respondent was unemployed or received unemployment insurance in the month prior to the survey; whether or not a respondent had to move out of their residence or have someone move into their residence due to the pandemic; or whether or not the respondent experienced any income loss due to the pandemic. All survey question language is included in the supplemental materials.

Analytic approach

Our analysis occurred in two steps. First, we evaluated the descriptive prevalence of model variables due to the novelty of this dataset and the time period under study. In doing so, we compared each of our variables between the overall sample and members of the labor force—meaning the portion of our sample either employed full-time or part-time, or temporarily unemployed (Brown and Schafft, 2019)—to evaluate if members of the labor force experienced greater hardship and disruption from the pandemic than adults generally. As we did not have a direct pre-pandemic sample to draw from to test elements of Hypothesis 1, we referred to recent literature and publicly available data to compare the observed prevalence of our outcomes and indicators to pre-pandemic levels of similar populations. In this descriptive analysis we report statistics for all cases which responded to the variable in question. Second, we estimated a set of weighted models for both the overall sample and the labor force predicting poor self-rated health with a binary logistic model and different levels of psychological distress with a multinomial logistic model. In each case, we estimated four models: (1) a base model with only our demographic covariates, (2) a model with just COVID-19 exposure and demographic covariates, (3) a model with just our economic disruption measures and demographic covariates, and (4) a full model with all covariates. To ensure consistent inference across models, we removed cases with any missing model variable data from all models (n = 126), resulting in a final modeling sample of 1077. All models and estimates used the previously discussed weights and were estimated using Taylor linearized robust standard errors. All indication of statistical significance is p < .05 and all confidence intervals are 95%.

Results

The final working descriptive sample was comprised of 1203 respondents and after weighting was generally representative of the nonmetropolitan U.S. west (Table 1). The exception is education, where our sample was over-representative of those with some college even after weighting. However, it is likely this disconnect is at least partially a product of the difference between census age thresholds for this data (25+) and our sample (18+). While overall self-reported health remained relatively high, we found the presence of widespread psychological distress, COVID-19 exposure, and economic disruption (Table 2 ). With regard to self-rated health, we found that the majority of our sample was in good self-rated health, but a large portion—about a fifth—reported a poor level of self-rated health. This is similar to pre-pandemic data on this measure. For example, using data from the Behavioral Risk Factor Surveillance System (BRFSS) for 2019, we estimate that 18.7% CI [17.8,19.7] of adults in the nonmetropolitan West reported poor self-rated health. This stability of self-rated health is sharply in contrast to psychological distress. Diverging from the generally stable pre-pandemic estimates of serious psychological distress of about 3% to 5% (Tomitaka et al., 2019), a total of 14.8% CI [12.1,17.8] of our weighted sample reported serious psychological distress. Further, an additional 35.1% CI [31.6,38.7] of our sample reported mild/moderate psychological distress, meaning almost 50% of our weighted sample reported at least mild/moderate psychological distress (Table 1). These estimates are not only much larger than pre-pandemic data, but are also greater than recently published data on psychological distress during the early stages of the pandemic (May 2020) at the national level (Breslau et al., 2021).
Table 2

Descriptive statistics of model variables.

Categorical variablesLevelsWeighted percentb, c [95% CI]
All adultsLabor force
Self-Rated HealthExcellent13.4 [11.1,16.0]14.9 [11.9,18.5]
Very Good30.0 [26.9,33.4]29.4 [25.3,33.8]
Good34.8 [31.3,38.5]37.2 [32.5,42.2]
Fair16.5 [13.9,19.5]15.3 [12.1,19.2]
Poor5.3 [3.8,7.2]3.3 [1.8,6.0]
Poor Self Rated HealthGood/Very Good/Excellent78.2 [75.0,81.1]81.4 [77.2,85.0]
Fair/Poor21.8 [18.9,25.0]18.6 [15.0, 22.8]
Non-Specific Psychological DistressNo Distress50.2 [46.5,53.9]48.0 [43.1,52.9]
Mild/Moderate Distress35.1 [31.6,38.7]35.4 [30.9,40.3]
Serious Distress14.8 [12.1,17.8]16.6 [13.0,20.9]
COVID-19 ExposureMyself14.9 [12.4,17.8]18.6 [15.0,22.9]
Family35.6 [32.1,39.3]35.2 [30.6,40.0]
Friends44.0 [40.4,47.7]46.6 [41.8,51.5]
UnemployedYes8.3 [6.3,10.8]13.4 [10.3,17.3]
No91.7 [89.2,93.7]86.6 [82.7,89.7]
Receiving Unemployment InsuranceYes9.6 [7.7,12.0]11.8 [9.1,15.1]
No90.4 [88.0,92.3]88.2 [84.9,90.9]
Moved Out due to COVID-19Yes6.1 [4.4,8.4]7.0 [4.7,10.4]
No93.9 [91.6,95.6]93.0 [89.6,95.3]
Moved In due to COVID-19Yes10.3 [8.0,13.2]12.4 [9.2,16.6]
No89.7 [86.8,92.0]87.6 [83.4,90.8]
Lost Income due to COVID-19Yes35.3 [31.8,38.9]38.9 [34.3,43.8]
No64.7 [61.1,68.2]61.1 [56.2,65.7]
Labor ForceYes61.9 [58.4,65.3]
No38.1 [34.7,41.6]



Continuous VariablesScaleMean [95% CI]
Overall Life Impact1 – Extreme Negative to 10 – Extreme Positive4.3 [4.2,4.5]4.3 [4.1,4.5]
Financial Impact1 – Extreme Negative to 10 – Extreme Positive4.7 [4.5,4.8]4.6 [4.4,4.9]
County Economic Health1 – Extremely Poor to 7 Extremely Good3.5 [3.3,3.6]3.5 [3.3,3.7]

Percent calculated using proportional weights by sex, age, education, Latino/a, Native American, and state.

Values may not equal 100% due to rounding.

Descriptive statistics of model variables. Percent calculated using proportional weights by sex, age, education, Latino/a, Native American, and state. Values may not equal 100% due to rounding. Exposure to COVID-19 was widespread in our sample, with 14.9% CI [12.4,17.8] of respondents contracting the virus themselves, 35.6% CI [32.1,39.3] reporting a family member experienced infection, and 44.0% CI [40.4,47.7] reporting a friend or acquaintance was infected. Although not directly comparable due to question wording, infection in this sample (14.9% CI [12.4,17.8]) was higher than reported for the national population by the CDC at time of survey close (9.2%) (Centers for Disease Control and Prevention, 2021). These values are far larger than prior data on this population from June of 2020, where Mueller et al. (Mueller et al., 2021) found that only about a third of all nonmetropolitan westerners had any direct exposure to the virus (e.g. self, family, or friends); in this sample that percentage was 72.9% CI [69.7,76.0]. We also found that members of the labor force were more likely to have contracted COVID-19 themselves, with a 3.7 percentage point difference between members of the labor force and our overall sample (18.6% CI [15.0,22.9] vs. 14.9% CI [12.4,17.8], respectively). Economic disruption due to COVID-19 was notable in our sample. A total of 13.4% CI [10.3,17.3] of those in the labor force reported they were temporarily unemployed, which is more than double the 6.0% reported by the Bureau of Labor Statistics for the nation during the same time period. Further, 9.6% CI [7.7,12.0] of the overall sample and 11.8% CI [9.1,15.1] of the labor force had someone in their household receiving unemployment benefits. We also found COVID-19 resulted in notable migration, with 6.1% CI [4.4,8.4] moving out due to COVID-19 and 10.3% CI [8.0,13.2] having someone move into their house due to the pandemic. These numbers were greater among the labor force, with members of the labor force both moving out of their residence due to COVID-19 and having people move in due to COVID-19 at greater rates than adults overall. In-line with our prior evidence of disruption, we also found that a large portion of our weighted sample, 35.3% CI [31.8,38.9], had lost income in 2020 due to the pandemic. This was more pronounced among the labor force, with 38.9% [34.3,43.8] losing income in 2020 from the pandemic.

Modeling

Similar to the stability we observed when comparing our descriptive statistics of overall self-rated health to recent data, our models of self-rated health suggest there is not a strong relationship between COVID-19 exposure, economic disruption, and poor self-rated health (Table 3 ). Our base model showed expected significant relationships via known social determinants of health, validating the data, but the indicators for COVID-19 exposure and economic disruption had no consistent relationship with the outcome.
Table 3

Logistic Regression of COVID-19 exposure and poor self-rated health.


Base Model
COVID-19 Exposure
Economic Disruption
Full Model
OR95% CIOR95% CIOR95% CIOR95% CI
Female [Ref. = Male]0.98[0.67,1.43]0.99[0.68,1.45]0.94[0.63,1.39]0.93[0.63,1.38]
Age [Ref. = 18–29]
 30–390.36[0.18,0.71]0.35[0.18,0.71]0.35[0.17,0.71]0.35[0.17,0.72]
 40–490.28[0.14,0.58]0.28[0.14,0.58]0.28[0.14,0.56]0.28[0.14,0.57]
 50–640.45[0.25,0.82]0.45[0.25,0.81]0.44[0.24,0.81]0.44[0.24,0.81]
 65+0.29[0.16,0.53]0.28[0.15,0.51]0.30[0.16,0.56]0.29[0.16,0.55]
Education [Ref. = Bachelors or Associates]
 Less than High School6.84[2.51,18.64]6.95[2.54,19.04]5.85[2.13,16.01]6.02[2.19,16.53]
 High School/GED0.91[0.47,1.75]0.89[0.46,1.72]0.92[0.47,1.80]0.91[0.47,1.79]
 Some College2.14[1.32,3.47]2.15[1.32,3.48]1.99[1.21,3.26]1.99[1.21,3.27]
 Graduate or Professional Degree1.61[0.94,2.75]1.61[0.94,2.78]1.66[0.95,2.92]1.64[0.93,2.89]
Non-Latino/a [Ref. = Latino/a]1.44[0.76,2.73]1.45[0.76,2.76]1.47[0.73,2.98]1.44[0.71,2.91]



COVID-19 Exposure [Ref. = No]
 Myself0.95[0.55,1.64]0.83[0.47,1.47]
 Family0.92[0.61,1.39]0.96[0.62,1.47]
 Friends or Acquaintances0.91[0.62,1.34]1.00[0.68,1.48]



Unemployed [Ref. = No]0.62[0.28,1.40]0.60[0.27,1.36]
Unemployment Insurance [Ref. = No]1.40[0.72,2.71]1.42[0.73,2.75]
Lost Income due to COVID-19 [Ref. = No]0.94[0.62,1.43]0.94[0.62,1.43]
Moved Out due to COVID-19 [Ref. = No]0.82[0.33,2.04]0.82[0.33,2.04]
Moved in due to COVID-19 [Ref. = No]1.29[0.69,2.42]1.31[0.69,2.47]
Overall Life Impact0.95[0.85,1.06]0.95[0.85,1.06]
Financial Impact0.90[0.81,1.01]0.90[0.81,1.01]
County Economic Health0.87[0.77,0.98]0.87[0.77,0.98]
Constant0.29[0.12,0.71]0.31[0.13,0.77]0.96[0.28,3.22]1.04[0.31,3.42]



N, McFadden Psuedo-R2, BIC1077, 0.06, 1101.271077, 0.06, 1121.581077, 0.08, 1128.451077, 0.08, 1148.60

Exponentiated coefficients; Significant coefficients (p < .05) in bold.

Logistic Regression of COVID-19 exposure and poor self-rated health. Exponentiated coefficients; Significant coefficients (p < .05) in bold. The models of psychological distress were more dynamic and suggest that economic disruption from the COVID-19 pandemic is associated with elevated levels of psychological distress, while direct exposure to the virus is not Table 4 . Again, the base model showed expected demographic relationships, validating the data. Our three indicators of COVID-19 exposure were not associated with either mild/moderate or serious psychological distress. When looking at economic disruptions, we found the only economic indicator associated with mild/moderate distress was household use of unemployment insurance. Findings differed when assessing serious psychological distress. Serious psychological distress was associated with household use of unemployment insurance, lost income due to COVID-19, individuals moving into a household due to COVID-19, and perceptions of worse county economic health.
Table 4

Multinomial Logistic Regression of COVID-19 exposure and psychological distress

A




Mild/Moderate Psychological Distress [Base Outcome = No Distress]Base Model
COVID-19 Exposure
Economic Disruption
Full Model
RRR95% CIRRR95% CIRRR95% CIRRR95% CI
Female [Ref. = Male]1.42[1.00,1.99]1.40[0.99,1.98]1.38[0.98,1.94]1.36[0.96,1.92]
Age [Ref. = 18–29]
 30–390.80[0.38,1.69]0.81[0.38,1.70]0.90[0.42,1.92]0.91[0.43,1.93]
 40–490.44[0.22,0.89]0.44[0.22,0.90]0.44[0.22,0.90]0.44[0.22,0.90]
 50–640.41[0.21,0.77]0.42[0.22,0.81]0.40[0.21,0.78]0.42[0.22,0.81]
 65+0.23[0.12,0.43]0.23[0.12,0.46]0.25[0.13,0.50]0.26[0.13,0.52]
Education [Ref. = Bachelors or Associates]
 Less than High School1.50[0.53,4.26]1.48[0.51,4.35]1.36[0.50,3.68]1.36[0.49,3.78]
 High School/GED0.56[0.32,0.97]0.57[0.33,1.00]0.62[0.36,1.07]0.64[0.37,1.11]
 Some College1.10[0.75,1.63]1.11[0.75,1.63]1.03[0.69,1.53]1.03[0.69,1.53]
 Graduate or Professional Degree1.12[0.73,1.72]1.08[0.71,1.66]1.20[0.78,1.84]1.14[0.74,1.76]
Non-Latino/a [Ref. = Latino/a]0.82[0.46,1.49]0.80[0.44,1.44]0.88[0.47,1.65]0.84[0.45,1.58]



COVID-19 Exposure [Ref. = No]
 Myself0.97[0.59,1.58]0.87[0.52,1.47]
 Family1.02[0.71,1.48]0.99[0.68,1.45]
 Friends or Acquaintances1.32[0.93,1.87]1.39[0.97,2.00]



Unemployed [Ref. = No]0.44[0.18,1.05]0.43[0.18,1.04]
Unemployment Insurance [Ref. = No]2.98[1.50,5.90]3.07[1.54,6.15]
Lost Income due to COVID-19 [Ref. = No]1.44[0.97,2.12]1.45[0.98,2.14]
Moved Out due to COVID-19 [Ref. = No]1.64[0.68,3.95]1.58[0.66,3.79]
Moved in due to COVID-19 [Ref. = No]1.77[0.91,3.44]1.78[0.91,3.47]
Overall Life Impact0.98[0.90,1.07]0.99[0.91,1.08]
Financial Impact0.93[0.85,1.01]0.92[0.84,1.01]
County Economic Health0.98[0.88,1.09]0.97[0.87,1.09]
Constant1.59[0.71,3.57]1.42[0.63,3.18]1.94[0.65,5.78]1.80[0.60,5.43]




Exponentiated coefficients; Significant coefficients (p < .05) in bold.

Multinomial Logistic Regression of COVID-19 exposure and psychological distress Exponentiated coefficients; Significant coefficients (p < .05) in bold. Our models limited to those in the labor force in the month prior to the survey did not vary notably from the models of the entire sample. For that reason, we only describe them here and present the tabular results in the supplemental materials. The only differences observed in the labor force models were that mild/moderate psychological distress was associated with a friend or acquaintance contracting COVID-19, while household unemployment insurance usage was not. In the case of serious psychological distress, perceived county economic health did not have an association with serious psychological distress in the labor force models.

Discussion

In this study we found high levels of mild/moderate and serious psychological distress, but generally stable and positive levels of overall self-rated health, among a purposive sample of nonmetropolitan western U.S. residents living through the COVID-19 pandemic. Alongside this distress, we found significant exposure to the COVID-19 virus and high levels of economic disruption. These outcomes were greater than observed pre-pandemic in the nonmetropolitan population of the U.S. west and the overall national population, and many outcomes were observably worse for members of the labor force. These findings, with the exception of self-rated health, confirm our first hypothesis and suggest significant impacts of the pandemic on this sample. Although our study design limits generalizability, these results highlight the importance of continued research on this population. When it comes to the models presented in this paper, the evidence for our second hypothesis was mixed. Our results suggest a nuanced relationship between economic disruption and psychological distress, no observable relationships with self-rated health, and no clear connection between exposure to the COVID-19 virus and psychological distress. The findings regarding the relationship between direct exposure to the COVID-19 virus and psychological distress may be driven by the generally infrequent incidence of prolonged and serious infection. Had we utilized a more detailed question on personal infection, a relationship may have been observed. That we find a relationship between economic disruption and psychological distress is not especially surprising. However, given the high levels of psychological distress observed in this study, it is essential that we understand which forms of disruption are possibly driving these adverse outcomes. Somewhat surprisingly, we did not find a strong relationship between economic disruption and mild/moderate distress—indicating that other factors, possibly related to cultural change or perhaps the degree of isolation in these areas, may be driving this outcome. Serious psychological distress was more strongly correlated with economic impacts, however, not all indicators were significant. These results suggest psychological distress may be heightened across the nonmetropolitan U.S. west, and it is imperative future research, particularly that using traditional survey techniques, tracks this issue to inform the preparation of policy solutions to emerging public health issues from the COVID-19 pandemic.

Declaration of Competing Interest

The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.
  24 in total

1.  Metropolitan area income inequality and self-rated health--a multi-level study.

Authors:  Tony A Blakely; Kimberly Lochner; Ichiro Kawachi
Journal:  Soc Sci Med       Date:  2002-01       Impact factor: 4.634

2.  A longitudinal study of psychological distress in the United States before and during the COVID-19 pandemic.

Authors:  Joshua Breslau; Melissa L Finucane; Alicia R Locker; Matthew D Baird; Elizabeth A Roth; Rebecca L Collins
Journal:  Prev Med       Date:  2020-12-31       Impact factor: 4.018

3.  Support for vector control strategies in the United States during the Zika outbreak in 2016: The role of risk perception, knowledge, and confidence in government.

Authors:  Rachael Piltch-Loeb; Alexis A Merdjanoff; Aditi Bhanja; David M Abramson
Journal:  Prev Med       Date:  2018-12-27       Impact factor: 4.018

4.  Managing mental health challenges faced by healthcare workers during covid-19 pandemic.

Authors:  Neil Greenberg; Mary Docherty; Sam Gnanapragasam; Simon Wessely
Journal:  BMJ       Date:  2020-03-26

5.  The Unique Impact of COVID-19 on Older Adults in Rural Areas.

Authors:  Carrie Henning-Smith
Journal:  J Aging Soc Policy       Date:  2020-06-01

6.  Validity study of the K6 scale as a measure of moderate mental distress based on mental health treatment need and utilization.

Authors:  Judith J Prochaska; Hai-Yen Sung; Wendy Max; Yanling Shi; Michael Ong
Journal:  Int J Methods Psychiatr Res       Date:  2012-02-20       Impact factor: 4.035

7.  Distribution of psychological distress is stable in recent decades and follows an exponential pattern in the US population.

Authors:  Shinichiro Tomitaka; Yohei Kawasaki; Kazuki Ide; Maiko Akutagawa; Yutaka Ono; Toshi A Furukawa
Journal:  Sci Rep       Date:  2019-08-19       Impact factor: 4.379

8.  Disruptions and General Distress for Essential and Nonessential Employees During the COVID-19 Pandemic.

Authors:  Ward van Zoonen; Claartje L Ter Hoeven
Journal:  J Bus Psychol       Date:  2021-04-01

9.  Long-term psychiatric morbidities among SARS survivors.

Authors:  Ivan Wing Chit Mak; Chung Ming Chu; Pey Chyou Pan; Michael Gar Chung Yiu; Veronica Lee Chan
Journal:  Gen Hosp Psychiatry       Date:  2009-04-15       Impact factor: 3.238

View more
  1 in total

1.  At Which Area Level Does COVID-19 Infection Matter Most for an Individual's Self-Rated Health? A Multilevel Fixed-Effects Model Analysis in Japan.

Authors:  Takashi Oshio; Hiromi Kimura; Toshimi Nishizaki; Susumu Kuwahara
Journal:  Int J Environ Res Public Health       Date:  2022-07-22       Impact factor: 4.614

  1 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.