Hostname: page-component-586b7cd67f-l7hp2 Total loading time: 0 Render date: 2024-11-22T21:36:40.390Z Has data issue: false hasContentIssue false

Political views and organizational distrust affect rural residents’ willingness to share personal data for COVID-19 contact tracing: A cross-sectional survey study

Published online by Cambridge University Press:  27 March 2023

Jennifer B. McCormick*
Affiliation:
Department of Humanities, Penn State College of Medicine, Hershey, PA, USA
Margaret Hopkins
Affiliation:
Department of Humanities, Penn State College of Medicine, Hershey, PA, USA
Erik B. Lehman
Affiliation:
Department of Public Health Sciences, Penn State College of Medicine, Hershey, PA, USA
Michael J. Green
Affiliation:
Department of Humanities, Penn State College of Medicine, Hershey, PA, USA Department of Medicine, Penn State College of Medicine, Hershey, PA, USA
*
Address for correspondence: J.B. McCormick, PhD, MPP, Department of Humanities, Penn State College of Medicine, Hershey, PA, USA. Email: [email protected]
Rights & Permissions [Opens in a new window]

Abstract

Background:

We aimed to examine the attitudes of Pennsylvania rural residents toward data sharing in the setting of the COVID-19 pandemic. Specifically, we were interested in better understanding their willingness to provide personal information for contact tracing to public health staff investigating COVID-19 cases, as well as their concerns. We used a validated scale to describe the influence of distrust of healthcare organizations on their attitudes.

Methods:

We mailed 4000 surveys to rural residents identified from the electronic medical record of a healthcare system in central Pennsylvania. Data were entered into a REDCap database and analyzed using descriptive summaries, and both binomial and multivariable logistic regression.

Results:

Binomial logistic regression showed that both distrust in healthcare organizations and political values influence respondents’ willingness to share information with contact tracers as well as their concerns about sharing personal data. When our multivariable model was applied, political values remained and were consistently associated with willingness to share and concerns about sharing their data.

Conclusion:

This study is a first step in eliciting rural residents’ willingness to share personal data for contact tracing by public health officials. Understanding and addressing rural residents’ willingness to share personal data and their concerns about sharing those data will help public health officials identify effective strategies for managing COVID-19 and future pandemics in rural communities. By involving community members at the ground level, public health staff can ensure residents’ buy-in for the need to collect their personal data, thereby helping to mitigate the public health crises.

Type
Research Article
Creative Commons
Creative Common License - CCCreative Common License - BY
This is an Open Access article, distributed under the terms of the Creative Commons Attribution licence (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted re-use, distribution and reproduction, provided the original article is properly cited.
Copyright
© The Author(s), 2023. Published by Cambridge University Press on behalf of The Association for Clinical and Translational Science

Introduction

In December 2019, the World Health Organization (WHO) was informed of several cases of pneumonia of unknown cause in Wuhan City, China. By early January 2020, it was determined that the cause was a newly discovered coronavirus, soon to be known as COVID-19. While the first case in the USA was detected in an individual in Washington State in January 2020, there soon were community outbreaks across the country, and in early March 2020, the US government declared a public health emergency due to the outbreak. Many states declared states of emergency and implemented contact tracing by public health staff to let individuals know that they may have been exposed to someone with confirmed or probable COVID-19.

Public health departments have long used contact tracing as a means of tracking, limiting, and decreasing the spread of infectious disease. However, the rapid transmission of COVID-19 and high rates of infection from asymptomatic individuals have made manual contact tracing infeasible, and contact tracing through mobile technologies was promoted as a faster, less labor-intensive, and more efficient means of controlling viral spread [Reference Ferretti, Wymant and Kendall1,Reference Zhang, Kreps, McMurry, McCain and Rubinelli2]. University research groups, governments, and technology companies responded by building mobile applications that leveraged and deployed cell phone data [Reference Altmann, Milsom and Zillessen3Reference Simko, Calo, Roesner and Kohno5]. By December 2020, almost four dozen countries had introduced or proposed contact tracing apps and encouraged people to download and use them [Reference Simko, Calo, Roesner and Kohno5]. While some countries accessed people’s cell phone data without their permission, no US governments at the state or federal level used contract tracing apps in a systematic way [Reference Mello and Wang6].

Unsurprisingly, given current levels of distrust toward authority, Americans display ambivalence toward digital contact tracing apps. In one survey, two-thirds of respondents indicated that they would download and install a coronavirus tracking app, while another poll found that only 43% of respondents with cell phones would use an infection-tracking app [Reference Hargittai and Redmiles7,Reference Grande, Luna Marti and Feuerstein-Simon8]. That percentage went up to between 70 and 80% in another study, but only if the app had some guarantee of privacy protection or accuracy [Reference Kaptchuk, Goldstein, Hargittai, Hofman and Redmiles9]. However, in two studies comparing various surveillance policies, respondents’ support for digital contact tracing only ranged between 40% and 49% and never was the top choice [Reference Zhang, Kreps, McMurry, McCain and Rubinelli2,Reference Grande, Luna Marti and Feuerstein-Simon8]. Researchers also found that support for and likely downloading of tracing apps varied depending on who developed or provided them – with more support for apps developed by public health agencies such as the Centers for Disease Control and Prevention (CDC) as opposed to those from technology companies and startups [Reference Simko, Calo, Roesner and Kohno5,Reference Hargittai and Redmiles7]. Given estimates that containment requires at least 60% of a population using the apps, these conflicting attitudes call into question whether digital contact tracing is a viable mechanism for controlling the spread of COVID-19 [Reference Ferretti, Wymant and Kendall1,Reference Zhang, Kreps, McMurry, McCain and Rubinelli2].

Few studies have investigated the attitudes of rural residents about governmental efforts to collect data – whether from digital sources or provided verbally to contact tracers – for tracking the spread of a highly infectious disease. Having an understanding of those attitudes is critical for public health departments, given that rural areas pose unique challenges for managing a pandemic. For instance, on average, Americans living in rural areas are older, sicker, and more likely to die from heart disease and cancer than urban residents [10,Reference Matthews, Ullrich, Gaglioti, Dugan, Chen and Hall11]. Rural residents’ higher rates of chronic illnesses including obesity, Chronic Obstructive Pulmonary Disorder (COPD), and diabetes likewise increase their vulnerability to diseases even absent a fast-moving pathogen like COVID-19 [Reference Behrman, Fitzgibbon, Dulin, Wang and Baskin12,Reference Henning-Smith, Tuttle and Kozhimannil13]. While rural geography would seem to create a natural and protective social distancing for residents, such isolation also typically means a limited and inadequate healthcare infrastructure [Reference Karim and Chen14]. That can translate to: fewer local testing facilities; hospitals with limited resources such as ventilators and dedicated Intensive Care Units (ICUs); and “hospital deserts” where residents have to travel up to 50 miles to reach a hospital [Reference Behrman, Fitzgibbon, Dulin, Wang and Baskin12,Reference Henning-Smith, Tuttle and Kozhimannil13,Reference Spleen, Lengerich, Camacho and Vanderpool15]. Furthermore, rural residents are more likely to be uninsured or underinsured than their urban counterparts [Reference Spleen, Lengerich, Camacho and Vanderpool15].

Likewise, little is known about rural residents’ attitudes toward public health organizations and institutions such as the CDC and state departments of health. Broadly, Americans have been shown to have mixed support for these entities. According to a report on 12 national polls on the public health system, Americans were generally dissatisfied with state public health departments but satisfied with the CDC [Reference Blendon, Benson, SteelFisher and Connolly16]. A more recent study comparing responses to public opinion polls conducted in 2018 and 2020 showed increased support for and trust in public health departments, likely the result of their role in the COVID-19 pandemic [Reference Sellers, Leider, Gollust, Gendelman and Castrucci17]. This support, however, appears to be mercurial. According to a May 2021 poll, only slightly more than half of Americans have a great deal of trust in the CDC and only one in three Americans have a great deal of trust in the National Institutes of Health (NIH) and Food and Drug Administration [Reference Simmons-Duffin18]. None of these polls and studies specifically examined the views of rural residents. Knowing whether rural residents trust public health officials and the healthcare organizations working with them will provide critical insight into whether people will comply with governmental recommendations for the control of infection and disease [Reference Devine, Gaskell, Jennings and Stoker19]. Compliance depends on trust in and support of government health recommendations and policies as demonstrated by studies involving past public health crises [Reference Taylor-Clark, Blendon, Zaslavsky and Benson20].

The quantitative study results reported here are a first step in understanding rural residents’ willingness to share personal data and concerns about sharing those data in the setting of the COVID-19 pandemic. First, it examines rural participants’ willingness to share personal data in two instances involving hypothetical public health measures – that is, providing cell phone location data as well as providing data on recent face-to-face contacts to public health staff investigating COVID-19 cases. This study also examines the associations between (1) rural residents’ trust in and distrust of healthcare organizations and their willingness to provide data to public health staff, and (2) rural residents’ sociodemographic characteristics and their willingness to provide personal data.

Specifically, we address the following research questions:

  • How do respondents’ sociodemographic characteristics influence their willingness to provide personal data to public health staff investigating COVID-19?

  • How do participants’ sociodemographic characteristics influence their concerns about personal data being shared with public health staff investigating COVID-19?

  • How do participants’ trust in and distrust of healthcare organizations influence their willingness to provide personal data to public health staff investigating COVID-19?

  • How do participants’ trust in and distrust of healthcare organizations influence their concerns about sharing personal data with public health staff investigating COVID-19?

Methods

Ethics Statement

The Institutional Review Board of the Pennsylvania State University approved the study. Since this was a mail survey study, respondents’ consent was implied when they returned the completed survey. All participants were over 18 years of age.

Study Participants

We used the electronic medical records of an academic healthcare institution in central Pennsylvania to obtain names and addresses of patients who had visited an outpatient clinic or been an inpatient within the prior 3 years, were 18 years of age or older, and who resided in a community defined as “rural.” Central Pennsylvania was selected for convenience; the authors are members of the university to which the healthcare institution is affiliated. We chose 3 years as our cutoff for inclusion because we wanted to include in our sample patients who had relatively recently received care at the healthcare institution. This was important since several of the survey questions (not presented here) were specific to the healthcare institution. For this study, rural was defined as a community: (1) with a population density less than the statewide density of 284 persons per square mile, or (2) where the total population is less than 2500, unless more than 50% of the population lives in an urbanized area as defined by the US Census Bureau [21]. Eighteen of the 28 counties in the healthcare institution’s catchment area have been designated Appalachian. In general, rural Appalachian counties have lower median household incomes, higher rates of poverty, and lower levels of education and employment than rural counties outside Appalachia [22]. These demographics were similar to many of our counties.

Seventeen of the 18 counties designated in Appalachia and in the institution’s catchment area have lower median household incomes than Pennsylvania’s median household income [21]; 10 have higher poverty rates than Pennsylvania’s [22]; and 15 have higher unemployment rates than Pennsylvania’s [22]. Of relevance to this study, in 16 of the counties, registered Republican voters in 2020 outnumbered registered Democratic voters, sometimes by as much as 3-to-1 [21].

A letter, summary explanation of research, incentive (a $2 bill), and survey were mailed to 4000 patients randomly selected from the 6000+ patients matching our criteria. No electronic mechanism (e.g., email, patient portal) was used to distribute the survey. Recruitment occurred in mid-October 2020. The survey was open through early January 2021 and available in English only.

Survey Development

The survey included four statements about contact tracing and three about intent to receive the COVID-19 vaccine. These statements were developed based on news reports about people’s concerns that providing personal data for contact tracing could erode privacy protections and result in government and businesses’ increased access to those data [Reference Holder23,Reference Kreps, McMurry and Zhang24]. Response options were “Strongly agree,” “Agree,” “Neither agree nor disagree,” “Disagree,” and “Strongly disagree.” Participants were advised they could skip any questions. The survey also had a section involving demographics, two validated scales measuring trust and distrust, and two other sections with questions related to general data sharing in the context of research. The results from the general data sharing questions are not presented here.

For bivariable and multivariable analysis, the outcome variables of interest were the four statements about contact tracing: “I would be willing to share my cell phone location data with public health officials investigating COVID-19 cases”; “I am concerned that without my permission, my cell phone location data could be shared with public health staff investigating COVID-19 cases”; “I would be willing to share data (names, addresses, and phone numbers) of people with whom I have had recent in-person contact with public health staff investigating COVID-19 cases”; “I am concerned that the personal data I share with public health staff may be used for purposes other than investigating COVID-19 cases.”

The independent variables included sociodemographic factors (i.e., age, gender, race/ethnicity, educational level, employment status, and household income) and questions asking participants to self-characterize their health status, religiosity, and political values. Two validated scales measuring trust were included: the 9-item Distrust in Healthcare Organizations scale (DHO) and the 22-item World Assumptions Questionnaire (WAQ) (see Supplemental Information for scoring) [Reference Shea, Micco, Dean, McMurphy, Schwartz and Armstrong25Reference Smith27]. The DHO measures people’s perceptions of healthcare organizations’ values, such as honesty and motives, and issues of competence from a broad prespective – that is, not individual hospitals or clinics but all the organizations that are part of healthcare including county and state public health departments. The DHO has been used to investigate whether patients’ distrust of healthcare organizations influences their use of healthcare resources and observance of healthcare recommendations [Reference Tucker Edmonds, Coleman, Armstrong and Shea28,Reference Kreps, Prasad and Brownstein29]. Questions include: “Healthcare organizations put making money above patients’ needs”; “Healthcare organizations provide excellent medical care”; “Healthcare organizations do their best to make patients’ health better”; and “Healthcare organizations make too many mistakes.” Because county and state public health departments can serve as communities’ healthcare organizations, people’s perceptions of those organizations can serve as a proxy for their attitudes toward complying with public health investigations and recommendations.

We used the WAQ to approximate how trusting an individual is. This enabled us to ensure that the DHO was measuring distrust in healthcare organizations and not simply distrust in general.

The WAQ includes questions to measure respondents’ perceived controllability and predictability of life events. Questions include: “I don't feel in control of the events that happen to me”; “It is ultimately up to me to determine how events in my life will happen”; “For the most part, I believe people are good”; and “It is difficult for me to take most of what people say at ‘face value.’” It also measures whether respondents trust other people and are able to see goodness in them [Reference Kaler26,Reference Smith27].

Data Analysis

All study variables were summarized prior to analysis to determine their distributions. Because of small cell counts, some categories within certain predictor variables including age, religiosity, education, health status, and employment were combined (Supplemental Information). Likert scales were considered not continuous for the purposes of analysis. Ordinal logistic regression was initially attempted on the Likert scale outcome variables based on level of agreement in relation to sharing of personal data and cell phone location, but given numerous violations with the proportional odds assumption, the outcome variables were ultimately collapsed to binary variables with categories of “agree” or “disagree,” where “agree” included “agree” and “strongly agree,” and “disagree” included “neither agree nor disagree,” “disagree,” and “strongly disagree.” We chose to put “neither agree nor disagree” into the negative category of “disagree” as we focused on the positive (“agree”) as our outcome. We did not include “race/ethnicity” as a variable as our sample was predominantly White (95%).

Bivariate binomial logistic regression was then applied to all independent variables with all outcome variables to determine the unadjusted effect of each independent variable on each outcome variable. A multivariable model including all of the independent variables was then fit for each outcome variable. Prior to multivariable modeling, the independent variables were tested for multicollinearity using variance inflation factor (VIF) statistics. Any predictor variables with VIF statistics > 5 would be eliminated from the model, but all independent variables were retained. Odds ratios and 95% confidence limits were used as the effect size to quantify the magnitude and direction of any significant associations between the independent variables and outcome variables. The fit of the multivariable models was assessed using the Hosmer–Lemeshow goodness-of-fit test. The p-values of the same predictor variable analyzed against the four outcome variables were adjusted for multiple testing (four tests) using the false discovery rate method in both bivariate and the multivariable analyses. All analyses were performed using SAS version 9.4 (SAS Institute, Cary, NC).

Results

The response rate was 19.5%. Most of the participants self-identified as White with a small percentage identifying as Hispanic. (See Table 1.) Nearly two-thirds of respondents were older than 60 years and almost half were retired. Religion or spirituality was extremely important or very important to more than 60% of respondents. While fewer than 10% self-identified as very liberal/liberal politically, more than 40% of respondents self-identified as very conservative/conservative politically. More than 40% of respondents also had a high school education or less. Of those who chose to provide income data, about one-third had an annual household income of $50,000 or less (see Table 1).

Table 1. Characteristics of respondents (N = 758) for survey study conducted in fall 2020 of rural patients in central Pennsylvania

DHO, Distrust in Healthcare Organizations; WAQ, World Assumptions Questionnaire.

Note: DHO and WAQ scores use Mean ± Standard Deivation.

DHO and WAQ

The scores from the DHO scale and the WAQ were not significantly correlated and were treated as continuous variables in our analysis. The overall mean score for the DHO was 24.12 (SD 5.40). Higher scores reflect lower levels of trust (score range is 9–45, maximum score is 45). We used tertiles to delineate among low (bottom tertile), medium (middle), and high distrust (top). Respondents with high distrust (n = 248; 35.9%) outnumbered those with medium distrust (n = 228; 32.9%) and those with low distrust (n = 215; 31.1%). The mean scores for DHO tertiles were Top = 29.67 ± 3.61, Middle = 23.56 ± 1.09, and Bottom = 18.33 ± 2.85.

The overall mean for the WAQ was 30.44 (SD 6.33). Higher scores on the WAQ reflect higher levels of trust (score range is 0–66, maximum score is 66). Here, we also used tertiles to describe low (bottom tertile), medium (middle), and high (top) trust. Respondents with medium level of trust (n = 238; 38.3%) outnumbered those respondents with low trust (n = 190; 30.6%) and those with high trust (n = 193; 31.6%). The mean scores for the WAQ tertiles were Top = 37.43 ± 3.53, Middle = 30.45 ± 1.74, and Bottom = 23.33 ± 3.80.

Frequency Data

Table 2 presents frequency data on participants’ responses to the four outcome questions on contact tracing. Only about one-fourth of respondents agreed/strongly agreed with the statement, “I would be willing to share my cell phone location data with public health staff investigating COVID-19 cases.” That percentage increased to 44% when asked if they would be willing to share data of people with whom they had recent in-person contact. A similar percentage (44%) of respondents had concerned that their data would be used for purposes other than investigating COVID-19 cases. Slightly more respondents (51%) worried their data would be accessed without their permission (see Table 2 and Table S1 in Supplemental Information).

Table 2. Frequency and percentages of outcome variables for survey study conducted in fall 2020 of rural patients in central Pennsylvania

Bivariable Analysis

Respondents who were trusting by nature as measured by the WAQ were more likely to agree to share cell phone data and provide others’ contact information. This is in contrast to individuals whose DHO scores were high and who, therefore, are more likely to not trust healthcare organizations and public health entities. These respondents were more likely to be unwilling both to share their cell phone location data and to provide names and contract information of people with whom recent in-person contact had occurred (see Table S2 in Supplemental information).

Respondents who self-identified as being either conservative or moderate politically also were less likely to support providing cell phone data to public health staff as were those for whom religion is extremely/very important. Lower educational levels (high school graduation or less) also was associated with unwillingness to provide information to public health investigators.

High DHO scores also was associated with respondents’ concerns that their cell phone data would be used without their permission and that their personal data would be used for purposes other than investigating COVID-19. This was true as well for respondents who self-described as conservative politically and very religious. However, respondents whose nature is more trusting as measured by high WAQ scores were less likely to fear their cell phone data would be accessed without their permission and had fewer concerns their data would be used for purposes other than COVID-19 tracking.

Multivariable Analysis

A multivariable model was created using demographics, DHO score, and WAQ score as predictor variables. We did not use race/ethnicity since our sample was primarily White, non-Hispanic. In the text, we include only those predictor variables that have a significant influence (p-value ≤ to 0.05) on the four outcome questions (see Table 3).

Table 3. Characteristics of respondents in relation to contact tracing and data sharing as adjusted odds ratios (95% confidence intervals), multivariate analysis, for survey study conducted in fall 2020 of rural patients in central Pennsylvania, corrected for multiple analyses

DHO, Distrust in Healthcare Organizations; WAQ, World Assumptions Questionnaire.

*Odds ratios, 95% confidence limits, and p-values from multivariable binomial logistic regression adjusted for all variables in the model (and table).

Strongly Disagree/ Disagree/ Neither; 0 = Agree/Strongly Agree.

Bold text denotes statistically significant.

In multivariable analysis, respondents’ DHO scores and conservative political orientation continued to be associated with unwillingness to share cell phone data with public health investigators. Respondents’ distrust of healthcare organizations, however, was not a factor in whether they were willing to share the contact information for others. Rather those who self-identified as conservative politically were more likely to be unwilling to share information about their recent in-person contacts. (See Table 3.)

Accessing cell phone data without asking permission seemed to be a concern for respondents who identified as politically conservative. However, respondents with high DHO scores were more likely to be concerned their personal data would be used for purposes other than investigating COVID-19 cases. This was also true for those who self-identified as politically conservative or who chose not to indicate political orientation (see Table 3).

Conclusion

In our survey of rural patients living in the catchment area of an academic medical center located in Pennsylvania, the majority of respondents had considerable reservations about sharing their cell phone location data with public health staff investigating COVID-19 cases. Our respondents also had concerns that their cell phone data would be accessed and used without their permission. More than half of our participants worried that their personal data would be used for purposes other than tracking COVID-19 cases. Paradoxically, when asked to share the names, addresses, and phone numbers of people with whom they had recent in-person contact, almost half expressed willingness to do so. While unwilling to share their own personal data, those respondents appeared more willing to share others’ data.

Across bivariable and multivariable analyses, only one factor was consistently predictive of how an individual would respond to the contact tracing questions: self-identified political values. Our survey, conducted during the Trump presidential administration, indicates that those who identified as conservative or very conservative were less willing to share cell phone data, less likely to share information about their recent in-person contacts, and more likely to be concerned their data would be shared without their permission and used for purposes other than contact tracing.

This is not surprising given that political partisanship has been found to be a factor in many Americans’ beliefs about the severity of COVID-19; necessity for and compliance with mitigating measures such as mask wearing; and willingness to be vaccinated [Reference Kreps, Prasad and Brownstein29,Reference Goldstein and Wiedemann30,Reference Rothgerber, Wilson and Whaley33]. Numerous studies have found that self-declared conservatives and Republicans generally do not comply with recommendations and mandates for two behaviors – namely, staying-at-home and socially distancing to reduce public exposure to and transmission of the virus [Reference Goldstein and Wiedemann30Reference Kenworthy, Koon and Mendenhall33]. According to one study, the influence of sociodemographics such as age and geography pales in comparison with political ideology for adherence to social distancing guidelines [Reference Kenworthy, Koon and Mendenhall32]. Partisanship also has been found to account for refusal to change travel plans, avoid large gatherings, and self-quarantine [Reference Gadarian, Goodman and Pepinsky34]. Our findings suggest another health behavior subject to partisanship – namely, willingness to provide personal data for contact tracing. Unlike respondents who self-described as liberal, those who self-described as very conservative or conservative were less likely to willingly engage in contact tracing.

Political partisanship in the context of health-related behaviors predates the COVID-19 pandemic [Reference SteelFisher, Blendon and Lasala-Blanco35]. Participants’ political values proved significant in a 2005 study investigating public attitudes toward mandatory health behaviors in the event of biological warfare involving smallpox [Reference Taylor-Clark, Blendon, Zaslavsky and Benson20]. However, in contrast to our findings, Democrats and Independents in that study were more leery than their Republican counterparts of government health policies, perceiving they would threaten individual liberties. As the authors note, it was unclear whether this occurred because Republicans tend to be more supportive than Democrats of government antiterrorism policies or because at that time Republicans held political power [Reference Taylor-Clark, Blendon, Zaslavsky and Benson20]. Indeed, studies have noted that Democrats had fewer concerns than Republicans about Ebola during the Obama administration [Reference Kenworthy, Koon and Mendenhall32,Reference Gadarian, Goodman and Pepinsky34].

Political partisanship has also been found to extend to trust in or distrust of science in general, including public health officials and organizations. In a study examining trust in science between 1974 and 2010, while those self-identifying as conservative started out with a higher level of trust than liberals and moderates, they ended the time period with the lowest level of trust [Reference Gauchat36]. Those self-identifying as conservative also have been found to have the lowest level of trust in the scientific community and to regard scientists and scientific institutions with suspicion [Reference Mann and Schleifer37]. More recently, in a study using cell phone data to determine compliance with stay-at-home orders, findings demonstrated that residents of Republican and conservative-leaning counties were less likely to comply with the stay-at-home policy than residents of Democratic-leaning counties. The authors argue that the lack of compliance reflects people’s distrust of science and public health policies for crisis mitigation [Reference Goldstein and Wiedemann30].

That said, some of the distrust of biomedical and public health sciences that has arisen during the COVID-19 pandemic might reflect the initial uncertainties about the severity of the virus and the effectiveness of mitigation measures. For some Americans, changes in policies and recommendations were not understood as responses to more knowledge but as evidence that COVID-19 was a hoax, death rates exaggerated, and public health authorities not to be trusted and their recommendations not to be followed. In our study, participants’ distrust of public health officials investigating COVID-19 cases was suggested by the association of the DHO with two of our outcome variables. Not only were participants unwilling to allow public health officials to access their cell phone location data, but respondents also were concerned their data would be used for purposes other than controlling viral spread.

While political orientation proved a significant predictor in multivariable analysis, distrust of healthcare organizations was significant in the bivariable analysis. Researchers have found that rural residents generally are less trusting of healthcare systems for a variety of reasons including skepticism of outsiders and expert high turnover of providers and concerns about discrimination and stigma when accessing healthcare [Reference Nelms, Wang and Pennell38Reference Douthit, Kiv, Dwolatzky and Biswas41]. That said, the relationship between distrust in healthcare organizations and contact tracing that we identified may also be related to rural residents’ concerns about protection of personal privacy. One of Americans’ most often cited concerns about digital contact tracing centers on privacy of personal data and potential erosion of security protecting those data [Reference Zhang, Kreps, McMurry, McCain and Rubinelli2,Reference Kaptchuk, Goldstein, Hargittai, Hofman and Redmiles9]. Additionally, people worry that their digital data will not be deleted when the pandemic ends and will then be used for purposes such as government surveillance, a concern shared by over half of our respondents [Reference Altmann, Milsom and Zillessen3,Reference Simko, Calo, Roesner and Kohno5].

In the initial weeks of the COVID-19 pandemic, urban counties generally experienced higher rates of infections and mortality than rural counties and urban residents generally adopted recommended health behaviors to control viral spread [Reference Chipp, Dewane, Brems, Johnson, Warner and Roberts40,Reference Callaghan, Lueck, Trujillo and Ferdinand42Reference Haischer, Beilfuss and Hart44]. It has been suggested that in those first months, rural residents may have perceived COVID-19 as an urban plight with their rurality reducing the risk of infection and consequently, the need to comply with public health-oriented behavior change [Reference Matthews, Ullrich, Gaglioti, Dugan, Chen and Hall11,Reference Callaghan, Lueck, Trujillo and Ferdinand42]. In subsequent surges, rural populations have accounted for higher rates of per capita morbidity, hospitalization, and mortality as well as greater cumulative case and death rates [Reference Matthews, Ullrich, Gaglioti, Dugan, Chen and Hall11,Reference Dixon, Grannis and Lembcke45]. Even so, large segments of rural populations – particularly those who are White, self-identify as conservative politically, and do not trust medical and health experts – generally have not adopted public health-recommended prevention behaviors such as mask wearing and avoiding public spaces and crowds [Reference Chipp, Dewane, Brems, Johnson, Warner and Roberts40,Reference Callaghan, Lueck, Trujillo and Ferdinand42,Reference Bruine de Bruin, Saw and Goldman43,Reference Moon, Atkinson, Kahlor, Yun and Son46]. Our findings suggest that another prevention behavior – namely, sharing of personal information with public health officials for contact tracing – also is not endorsed by rural residents.

Because our study did not investigate participants’ reasons for their unwillingness to provide personal information to public health officials, we can only speculate that our participants’ responses were driven by concerns about personal privacy, distrust of governmental experts, misinformation about the goals of contact tracing, or other factors. However, identifying the concerns of rural communities and their residents is critical to addressing them so as to lessen the impact of COVID-19 and provide insight into managing any future pandemics.

To do so, a first step is eliciting what rural residents believe about COVID-19, how it is transmitted, what the risks are of infection, and how they can protect themselves. Research has shown that engaging with rural communities is best done by involving community partners – particularly community health workers and local healthcare providers – rather than outside experts [Reference Beverly, Ritholz and Cook47Reference Feltner, Thompson, Baker and Slone49]. Then messaging could be crafted that addresses the concerns of and is culturally appropriate for specific communities and their members. Involving community members at the ground level will not only ensure their buy-in for the need to collect data but will also promote their willingness to share their data, thereby helping to mitigate public health crises [Reference Shaw, Sethi and Cassel50].

Limitations, Strengths, and Future Directions

This study is not without limitations. The primary one is the low response rate. This surprised us given that our earlier mail study about rural residents’ views on governance of their personal health and non-health data had a response rate of 34.1% (accepted). That first survey study with a similar format and questions not discussed herein was completed prior to the emergence of COVID-19. The survey discussed here was mailed in mid-October 2020 when the country was in the midst of a contentious presidential campaign; public health measures were being challenged by politicians at federal and state levels as well as in the media; and vaccines were still under development. In addition to news organizations and pollsters using surveys to track public views and responses to COVID-19, researchers had to resort to surveys due to restrictions caused by the pandemic. With some government agencies reporting lower response rates than usual to surveys and others higher than usual, the evidence is mixed whether people generally were experiencing survey fatigue when they received our survey. Alternatively, some potential respondents may have been turned off by the 6-page document, in which our questions of interest were included or seen the mailing as “junk mail.”

There were other limitations. Our sample is limited to central Pennsylvania. Nearly all participants self-identified as White and non-Hispanic; more than 40% had a high school education or less; fewer than 10% self-identified as liberal; and more than half of respondents were 60+ years of age. While these demographics are representative of rural central Pennsylvania, they are not generalizable to the broader rural population. We have no information on those who declined to participate. We also have no information on why respondents would not share their data or why they were concerned about sharing their data with public health officials investigating a public health threat. Because the survey was not translated to other languages, our sample population is limited to English-speaking individuals. Finally, because we dichotomized our outcome variables, the effects seen may be stronger than had we not dichotomized.

Though our study had limitations, it also had strengths. We examined the perspectives of rural residents on contact tracing and data sharing; the National Center for the Advancement of Translational Science, NIH, has declared rural populations an understudied population, and our data help fill a gap in better understanding the views of this population on an topic relevant to public health and medicine. In addition, our focus on contact tracing and data sharing has thus far not been politicized in the discourse around public health measures important to mitigating the COVID-19 pandemic. Finally, we examined the influence of people’s distrust in public health on their willingness to share data and their concerns about sharing data in the context of contact tracing. We used a validated distrust in healthcare organizations scale as a proxy for distrust in public health, since county and state public health departments can serve as communities’ healthcare organizations.

Our study also points to additional areas for investigation. For instance, it would be helpful for public health officials to understand why individuals who live in rural areas are hesitant to share their data with public health officials investigating public health crises like the COVID-19 pandemic. It would also be important to explore the nature of rural residents’ concerns about sharing those data, so that they could be addressed. Expanding the study population beyond the rural area of central Pennsylvania could result in populations with more ethnic diversity. Finally, the views of individuals living in other regions of Appalachia may differ from those of our populations. Knowing this would enable public health officials to design more customized and therefore more palatable approaches to contact tracing.

Supplementary material

For supplementary material accompanying this paper visit https://doi.org/10.1017/cts.2023.33

Acknowledgments

The authors thank Ms Charity Sauder, Ms Tasha Cochran, Ms Lorna Davis, Ms La Dora Field, and Ms Lori Ricard. They would also like to thank all the participants in the study. This work was supported in part by the National Center for Advancing Translational Sciences/National Institutes of Health under Grant UL1 TR002014-S3 (JBM, MA, EBL) and by the National Center for Advancing Translational Sciences/National Institutes of Health under Grant UL1 TR002014 (JBM). The funders had no role in study design, data collection and analysis, decision to publish, or preparation of the manuscript.

Disclosures

The authors have nothing to disclose.

References

Ferretti, L, Wymant, C, Kendall, M, et al. Quantifying SARS-CoV-2 transmission suggests epidemic control with digital contact tracing. Science. 2020;368(6491):eabb6936.Google ScholarPubMed
Zhang, B, Kreps, S, McMurry, N, McCain, RM, Rubinelli, S. Americans' perceptions of privacy and surveillance in the COVID-19 pandemic. PLoS One. 2020;15(12):e0242652.CrossRefGoogle ScholarPubMed
Altmann, S, Milsom, L, Zillessen, H, et al. Acceptability of App-based contact tracing for COVID-19: cross-country survey study. JMIR mHealth uHealth. 2020;8(8):e19857.CrossRefGoogle ScholarPubMed
Sowmiya, B, Abhijith, VS, Sudersan, S, Sakthi Jaya Sundar, R, Thangavel, M, Varalakshmi, P. A survey on security and privacy issues in contact tracing application of Covid-19. SN Comput Sci. 2021;2(3):136.CrossRefGoogle ScholarPubMed
Simko, L, Calo, R, Roesner, F, Kohno, T. COVID-19 contact tracing and privacy: studying opinion and preferences, 2020, arXiv preprint arXiv: 200506056. 2005.Google Scholar
Mello, MM, Wang, CJ. Ethics and governance for digital disease surveillance. Science. 2020;368(6494):951954.Google ScholarPubMed
Hargittai, E, Redmiles, EM. Will Americans be Willing to Install COVID-19 Tracking Apps?. Scientific American; 2020. Blog Post. https://blogs.scientificamerican.com/observations/will-americans-be-willing-to-install-covid-19-tracking-apps/Google Scholar
Grande, D, Luna Marti, X, Feuerstein-Simon, R, et al. Health policy and privacy challenges associated with digital technology. JAMA Netw Open. 2020;3(7):e208285.CrossRefGoogle ScholarPubMed
Kaptchuk, G, Goldstein, DG, Hargittai, E, Hofman, J, Redmiles, EM. How good is good enough for COVID19 apps? The influence of benefits, accuracy, and privacy on willingness to adopt. arXiv preprint arXiv: 200504343. 2020.Google Scholar
Rural Americans at higher risk of death from five leading causes [press release]. 2017 January 12.Google Scholar
Matthews, KA, Ullrich, F, Gaglioti, AH, Dugan, S, Chen, MS, Hall, DM. Nonmetropolitan COVID-19 incidence and mortality rates surpassed metropolitan rates within the first 24 weeks of the pandemic declaration: United States, March 1-October 18, 2020. J Rural Health. 2021;37(2):272277.CrossRefGoogle ScholarPubMed
Behrman, P, Fitzgibbon, ML, Dulin, A, Wang, ML, Baskin, M. Society of behavioral medicine statement on COVID-19 and rural health. Transl Behav Med. 2021;11(2):625630.CrossRefGoogle ScholarPubMed
Henning-Smith, C, Tuttle, M, Kozhimannil, KB. Unequal distribution of COVID-19 risk among rural residents by race and ethnicity. J Rural Health. 2021;37(1):224226.Google ScholarPubMed
Karim, SA, Chen, HF. Deaths from COVID-19 in rural, micropolitan, and metropolitan areas: a county-level comparison. J Rural Health. 2021;37(1):124132.Google Scholar
Spleen, AM, Lengerich, EJ, Camacho, FT, Vanderpool, RC. Health care avoidance among rural populations: results from a nationally representative survey. J Rural Health. 2014;30(1):7988.CrossRefGoogle ScholarPubMed
Blendon, RJ, Benson, JM, SteelFisher, GK, Connolly, JM. Americans' conflicting views about the public health system, and how to shore up support. Health Aff (Millwood). 2010;29(11):20332040.CrossRefGoogle ScholarPubMed
Sellers, K, Leider, JP, Gollust, S, Gendelman, M, Castrucci, B. Public health across partisan lines: what has changed since the onset of COVID-19. J Public Health Manag Pract. 2021;27(Supplement 1):S5S10.CrossRefGoogle ScholarPubMed
Simmons-Duffin, S. Poll Finds Public Health Has Trust Problem [radio broadcast] [Internet], 2021. Podcast. https://www.npr.org/2021/05/13/996331692/poll-finds-public-health-has-a-trust-problem [cited 2021 August 11].Google Scholar
Devine, D, Gaskell, J, Jennings, W, Stoker, G. Trust and the coronavirus pandemic: what are the consequences of and for trust? An early review of the literature. Political Stud Rev. 2021;19(2):274285.CrossRefGoogle ScholarPubMed
Taylor-Clark, K, Blendon, RJ, Zaslavsky, A, Benson, J. Confidence in crisis? Understanding trust in government and public attitudes toward mandatory state health powers. Biosecur Bioterror. 2005;3(2):138147.CrossRefGoogle ScholarPubMed
Appalachian Regional Commission. https://www.arc.gov/rural-appalachia/.Google Scholar
Holder, S. Contact Tracing is Having a Trust Crisis. Bloomberg News [Internet], 2020. https://www.bloomberg.com/news/articles/2020-08-12/why-are-americans-so-uneasy-about-contact-tracing [cited August 12, 2020].Google Scholar
Kreps, S, McMurry, N, Zhang, B. Americans don’t trust contact tracing apps. Here’s how we can fix that. Fortune [Internet], 2020. https://fortune.com/2020/08/17/contact-tracing-privacy-coronavirus-google-apple/ [cited August 17, 2020].Google Scholar
Shea, JA, Micco, E, Dean, LT, McMurphy, S, Schwartz, JS, Armstrong, K. Development of a revised Health Care System Distrust scale. J Gen Intern Med. 2008;23(6):727732.CrossRefGoogle ScholarPubMed
Kaler, M. The World Assumptions Questionnaire: Development of a Measure of the Assumptive World [PhD Dissertation]; 2009.CrossRefGoogle Scholar
Smith, C. First, Do No Harm: Institutional Betrayal in Healthcare [PhD Dissertation]; 2016.Google Scholar
Tucker Edmonds, BM, Coleman, J, Armstrong, K, Shea, JA. Risk perceptions, worry, or distrust: what drives pregnant women’s decisions to accept the H1N1 vaccine? Matern Child Health J. 2011;15(8):12031209.CrossRefGoogle ScholarPubMed
Kreps, S, Prasad, S, Brownstein, JS, et al. Factors associated with US adults' likelihood of accepting COVID-19 vaccination. JAMA Netw Open. 2020;3(10):e2025594.CrossRefGoogle ScholarPubMed
Goldstein, DA, Wiedemann, J. Who do you trust? The consequences of partisanship and trust for public responsiveness to COVID-19 orders. Perspect Politics. 2021, 127.Google Scholar
Durkee, A. Nearly a Tthird of Americans Believe COVID-19 Death Toll Conspiracy Theory. Forbes [Internet]. https://www.forbes.com/sites/alisondurkee/2020/07/21/nearly-a-third-of-americans-believe-covid-19-death-toll-conspiracy-theory/?sh=805b7bc40ab3 [cited July 21, 2020].Google Scholar
Kenworthy, N, Koon, AD, Mendenhall, E. On symbols and scripts: the politics of the American COVID-19 response. Glob Public Health. 2021;16(8-9):14241438.CrossRefGoogle ScholarPubMed
Rothgerber, H, Wilson, T, Whaley, D, et al. Politicizing the COVID-19 pandemic:ideological differences in adherence to social distancing. 2020.Google Scholar
Gadarian, SK, Goodman, SW, Pepinsky, TB. Partisanship, health behavior, and policy attitudes in the early stages of the COVID-19 pandemic. PLoS One. 2021;16(4):e0249596.CrossRefGoogle ScholarPubMed
SteelFisher, GK, Blendon, RJ, Lasala-Blanco, N. Ebola in the United States--public reactions and implications. N Engl J Med. 2015;373(9):789791.CrossRefGoogle ScholarPubMed
Gauchat, G. Politicization of science in the public sphere: a study of public trust in the United States, 1974 to 2010. Am Sociol Rev. 2012;77(2):167187.CrossRefGoogle Scholar
Mann, M, Schleifer, C. Love the science, hate the scientists: conservative identity protects belief in science and undermines trust in scientists. Soc Forces. 2020;99(1):305332.CrossRefGoogle Scholar
Nelms, E, Wang, L, Pennell, M, et al. Trust in physicians among rural Medicaid-enrolled smokers. J Rural Health. 2014;30(2):214220.CrossRefGoogle ScholarPubMed
Pro, G, Schumacher, K, Hubach, R, et al. US trends in mask wearing during the COVID-19 pandemic depend on rurality. Rural Remote Health. 2021;21(3):6596.Google ScholarPubMed
Chipp, C, Dewane, S, Brems, C, Johnson, ME, Warner, TD, Roberts, LW. If only someone had told me…": lessons from rural providers. J Rural Health. 2011;27(1):122130.CrossRefGoogle ScholarPubMed
Douthit, N, Kiv, S, Dwolatzky, T, Biswas, S. Exposing some important barriers to health care access in the rural USA. Public Health. 2015;129(6):611620.CrossRefGoogle ScholarPubMed
Callaghan, T, Lueck, JA, Trujillo, KL, Ferdinand, AO. Rural and urban differences in COVID-19 prevention behaviors. J Rural Health. 2021;37(2):287295.CrossRefGoogle Scholar
Bruine de Bruin, W, Saw, HW, Goldman, DP. Political polarization in US residents' COVID-19 risk perceptions, policy preferences, and protective behaviors. J Risk Uncertain. 2020;61(2):118.Google ScholarPubMed
Haischer, MH, Beilfuss, R, Hart, MR, et al. Who is wearing a mask? Gender-, age-, and location-related differences during the COVID-19 pandemic. PLoS One. 2020;15(10):e0240785.Google Scholar
Dixon, BE, Grannis, SJ, Lembcke, LR, et al. The synchronicity of COVID-19 disparities: statewide epidemiologic trends in SARS-CoV-2 morbidity, hospitalization, and mortality among racial minorities and in rural America. PLoS One. 2021;16(7):e0255063.CrossRefGoogle ScholarPubMed
Moon, WK, Atkinson, L, Kahlor, LA, Yun, C, Son, H. U.S. political partisanship and COVID-19: risk information seeking and prevention behaviors. Health Commun. 2021;37(13):111.Google ScholarPubMed
Beverly, EA, Ritholz, MD, Cook, K, et al. Diabetes in Appalachia: providers' perspectives. Prim Health Care Res Dev. 2020;21:e11.Google ScholarPubMed
Paskett, ED, Fisher, JL, Lengerich, EJ, et al. Disparities in underserved white populations: the case of cancer-related disparities in Appalachia. Oncologist. 2011;16(8):10721081.CrossRefGoogle ScholarPubMed
Feltner, F, Thompson, S, Baker, W, Slone, M. Community health workers improving diabetes outcomes in a rural Appalachian population. Soc Work Health Care. 2017;56(2):115123.Google Scholar
Shaw, JA, Sethi, N, Cassel, CK. Social license for the use of big data in the COVID-19 era. NPJ Digit Med. 2020;3(1):128.Google ScholarPubMed
Figure 0

Table 1. Characteristics of respondents (N = 758) for survey study conducted in fall 2020 of rural patients in central Pennsylvania

Figure 1

Table 2. Frequency and percentages of outcome variables for survey study conducted in fall 2020 of rural patients in central Pennsylvania

Figure 2

Table 3. Characteristics of respondents in relation to contact tracing and data sharing as adjusted odds ratios (95% confidence intervals), multivariate analysis, for survey study conducted in fall 2020 of rural patients in central Pennsylvania, corrected for multiple analyses

Supplementary material: File

McCormick et al. supplementary material

Tables S1-S2

Download McCormick et al. supplementary material(File)
File 28.2 KB