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PERSPECTIVE article

Front. Reprod. Health, 18 December 2023
Sec. Adolescent Reproductive Health and Well-being
This article is part of the Research Topic The Impact of Emerging Infections on Adolescent Sexual and Reproductive Health View all 5 articles

Developing technology-based interventions for infectious diseases: ethical considerations for young sexual and gender minority people

\r\nCory J. Cascalheira
Cory J. Cascalheira1*Tyler H. PughTyler H. Pugh2Chenglin HongChenglin Hong3Michelle Birkett,Michelle Birkett4,5Kathryn Macapagal,Kathryn Macapagal4,5Ian W. Holloway\r\nIan W. Holloway3
  • 1Department of Counseling and Educational Psychology, New Mexico State University, Las Cruces, NM, United States
  • 2Department of Social Policy and Intervention, University of Oxford, Oxford, United Kingdom
  • 3Luskin School of Public Affairs, University of California, Los Angeles, Los Angeles, CA, United States
  • 4Department of Medical Social Sciences, Feinberg School of Medicine, Northwestern University, Chicago, IL, United States
  • 5Institute for Sexual and Gender Minority Health and Wellbeing, Northwestern University, Chicago, IL, United States

Compared to their heterosexual and cisgender peers, young sexual and gender minority (YSGM) people are more likely to contract sexually transmitted infections (STIs; e.g., HIV) and to face adverse consequences of emerging infections, such as COVID-19 and mpox. To reduce these sexual health disparities, technology-based interventions (TBIs) for STIs and emerging infections among YSGM adolescents and young adults have been developed. In this Perspective, we discuss ethical issues, ethical principles, and recommendations in the development and implementation of TBIs to address STIs and emerging infections among YSGM. Our discussion covers: (1) confidentiality, privacy, and data security (e.g., if TBI use is revealed, YSGM are at increased risk of discrimination and family rejection); (2) empowerment and autonomy (e.g., designing TBIs that can still function if YSGM users opt-out of multiple features and data collection requests); (3) evidence-based and quality controlled (e.g., going above and beyond minimum FDA effectiveness standards to protect vulnerable YSGM people); (4) cultural sensitivity and tailoring (e.g., using YSGM-specific models of prevention and intervention); (5) balancing inclusivity vs. group specificity (e.g., honoring YSGM heterogeneity); (6) duty to care (e.g., providing avenues to contact affirming healthcare professionals); (7) equitable access (e.g., prioritizing YSGM people living in low-resource, high-stigma areas); and (8) digital temperance (e.g., being careful with gamification because YSGM experience substantial screen time compared to their peers). We conclude that a community-engaged, YSGM-centered approach to TBI development and implementation is paramount to ethically preventing and treating STIs and emerging infections with innovative technology.

1. Sexually transmitted infections, emerging infections, and digital health interventions

Adolescence and young adulthood (12–25 years old) are developmental periods when sexual health disparities in sexually transmitted infections [STIs; e.g., chlamydia, gonorrhea, human immunodeficiency virus (HIV)] emerge between young sexual and gender minority (YSGM) people (1) and their heterosexual and cisgender counterparts (2, 3). Without intervention, STI disparities persist across the life course (4). Evidence also indicates that YSGM people are at greater likelihood of (1) contracting certain emerging infections [e.g., mpox; (5)] and (2) developing more severe health outcomes from emerging infections [e.g., COVID-19; (6, 7)]. As such, there is an urgent need to develop and implement innovative interventions to reduce these sexual health disparities in YSGM people (8).

Technology-based interventions (TBIs), or the use of mobile and internet technologies for health prevention and remediation, are innovative solutions to reducing disparities in STIs and emerging infections among YSGM people. TBIs for STIs typically focus on enhancing STI prevention messaging, increasing STI testing, bolstering pre-exposure prophylaxis (PrEP) uptake, surveilling STI prevalence, improving adherence to medication, and connecting to wraparound services (9). Evidence indicates that TBIs for STIs can significantly improve medication adherence (e.g., pre-exposure prophylaxis) and clinic attendance, significantly reduce transmission risk behaviors, and are perceived as acceptable and feasible (1, 10). Among YSGM people, many of whom have limited knowledge of STIs given their age and reduced access to familial or peer supports, TBIs have the added benefit of accessibility outside of discriminatory medical environments (11). However, substantial gaps in TBIs for STIs and emerging infections remain, such as developing TBIs for subgroups of the YSGM community [e.g., sexual minority female adolescents (1)] and developing TBIs for emerging infections. As momentum builds to develop and implement TBIs to address these gaps, stakeholders must consider pertinent ethical issues and principles in working with YSGM people. In this Perspective, we discuss these ethical issues and principles as well as provide recommendations to navigate them.

2. Ethical issues and recommendations for intervening with YSGM people

Drawing from the ethical frameworks of the Belmont Report (12) and the American Psychological Association code of ethics (13), we identify eight ethical issues and principles that raise important questions during TBI development and implementation for YSGM at risk for STIs and emerging infections. Table 1 summarizes this Perspective's central recommendations as questions.

Table 1
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Table 1. A summary of ethical considerations.

2.1. Confidentiality, privacy, and data security

Maintaining confidentiality, privacy, and data security is paramount for TBI research, but additional care is required when working with YSGM people because the consequences of data breach can be dire. Adolescence and young adulthood are periods when many YSGM people develop their identities and decide if and how to disclose their YSGM status (14). Identity disclosure during research has important interpersonal implications (15), and thus, researchers and clinicians must consider whether third parties might cause harm if access to TBI data is acquired (16). For example, some families may reject their YSGM teenager upon disclosure of their SGM status, possibly resulting in homelessness (17). Identity disclosure can also increase the risk of bullying and victimization in high-stigma areas (18). Unintentional disclosure might occur during TBI development and validation [e.g., having one YSGM person reach out to a closeted YSGM person via snowball sampling; (19)], content design (e.g., using rainbow images in an app's logo design), content storage [e.g., content stored on the cloud vs. locally on a YSGM person's smartphone; (20, 21)], or implementation (e.g., providing the TBI at a clinic where the YSGM person is out to the provider but not the parent).

In addition to best practices in maximizing confidentiality, privacy, and data security [e.g., anonymity, encryption, data held separately from identifiers; see (22)], we recommend the following.

1. Decide on the age range of the intended end user (23), as some issues related to unintentional identity disclosure can be avoided with older YSGM people.

2. Know the local laws about consent. In the United States, for example, parental or guardian permission may be waived if sufficient safeguards are available to protect children or adolescents, and provided that the waiver does not contradict laws (24).

3. In TBIs that use artificial intelligence, ensure that reverse engineering of features and models is unlikely by restricting the access and use of preprocessed data.

4. Conduct focus groups to understand how YSGM people might want the TBI presented (e.g., what images and language to use) to maximize confidentiality and privacy (25).

5. Involve YSGM at all stages of TBI development and implementation (e.g., advisory boards to provide input on local needs, technology preferences, concept design, recruitment materials, distribution points; stipends for youth to design social media outreach and visualizations of study findings) to ensure the processes are embedded in community norms and prioritize digital rights.

2.2. Empowerment and autonomy

Non-affirming parenting practices (26), peer bullying (27), anti-YSGM language in public spaces (28), and anti-YSGM laws (29) disempower YSGM people. Because disempowering experiences drive YSGM health disparities (30), it is important to center empowerment and autonomy in TBIs. One method is to design TBIs that adequately function if YSGM users opt-out of multiple features and data collection requests. TBI developers could also provide opportunities to promote autonomous decision-making by designing modular TBIs [vs. linear and constrained; (31)], using visually based and easy to comprehend informed consent materials, and eliciting informed consent throughout the TBI (23). Another method might be featuring YSGM people as co-authors or co-developers of the TBI. For instance, if focus groups or advisory boards are used throughout TBI development and implementation as recommended in this perspective, YSGM who participate in such activities could be featured somewhere on the TBI explaining their contributions. This representation could convey a message of “for us by us” which, in turn, could help other YSGM people feel seen and valued.

2.3. Evidence-based and quality controlled

In the United States, most TBIs are classified as low-to-moderate risk by the Food and Drug Administration (i.e., the nation's regulatory body for healthcare products), so they receive minimal premarket clinical testing (32). In this regulatory environment, venture capitalists are investing heavily in TBIs [$637 million in 2019; (33)]. As a result, TBIs may enter the market without adequate effectiveness evidence, leaving the burden of determining effectiveness on individual providers (16). Furthermore, the regulation of artificial intelligence in healthcare, including TBIs, is a moving target (34). These regulatory realities raise concerns about the extent to which TBIs are based on scientific evidence.

Regulatory limitations also underscore the potential for harm in rapid TBI development and implementation. YSGM people, given their increased vulnerability in healthcare settings relative to heterosexual and cisgender people (35), require extra care to reduce the potential of “technology-facilitated abuse” (36)—that is, the harm that derives from TBIs with poor validity, accuracy, safety, and scientific rigor. Even if a local jurisdiction does not require extensive effectiveness evidence, we charge TBI developers and providers to implement TBIs with YSGM people if and only if: (a) the TBI is technologically stable, has high fidelity, and yields clinically meaningful results (37); (b) implementation stakeholders are educated on the scientific evidence behind the TBI; (c) the TBI has a robust monitoring and evaluation plan (38); and (d) the TBI presents accurate claims of its effectiveness for YSGM people.

2.4. Cultural sensitivity and tailoring

Without cultural sensitivity and tailoring, TBI uptake and effectiveness among YSGM people may be suboptimal. Research suggests that culturally tailored interventions tend to be effective among YSGM people (3941), especially for non-White YSGM (42) and for outcomes like HIV (43, 44). From an implementation perspective, clinical practitioners who lack understanding of YSGM issues and concerns (45) may hinder TBI uptake. Thus, we caution against adapting extant TBIs to YSGM people without adequate consideration of how intervention components are delivered in a YSGM-affirming manner. Instead:

• Involve YSGM people at all stages of TBI development and implementation to reduce the chances that a TBI perpetuates stereotypes, promotes discrimination, or causes unintended harm;

• Co-design TBIs with clinical providers and end users (4648) to help increase the health literacy of YSGM people and the cultural literacy of clinical providers.

• Use a community-engaged, YSGM-centered approach to TBI development and implementation to create partnerships with local YSGM-affirming clinical providers, local YSGM community organizations, national advocacy organizations, and academic research centers.

Special consideration for TBIs enhanced by artificial intelligence [e.g., a chatbot to increase demand for STI medications; (49)] is warranted because anti-YSGM bias may be integrated into the technological architecture of specific models [e.g., large language models (50)]. In these special cases, we recommend regular algorithmic auditing and validation [for more information, see (51)] as well as the creation of community-tailored algorithms, or artificial intelligence algorithms trained from the ground up using data from YSGM people.

2.5. Inclusivity vs. group specificity

Rates of STIs differ by gender identity and sexual orientation (52), necessitating the development of differentiated interventions for YSGM people. Moreover, majority group researchers, clinical providers, or public health officials may treat YSGM communities as a monolith even though members have intersectional identities (53), unique constellations of stressful experiences (54), and diverse healthcare experiences (55). Because YSGM people are a historically neglected population (56, 57), it can be tempting to overlook the heterogeneity of this group when developing TBIs for STIs and emerging infections. We encourage the careful consideration of whether the mechanisms of the TBI are broadly applicable to YSGM people, the execution of thorough acceptability and feasibility studies with YSGM subgroups, the matching of YSGM people with subgroup-specific interventions (58), and the adaptation of existing TBIs to specific subgroups [e.g., transgender youth; (1)].

2.6. Duty to care

TBIs should prioritize the long-term well-being of YSGM people with sustainable plans for TBI maintenance and appropriate connections to other forms of care. Developing, releasing, and forgetting a TBI is unacceptable because YSGM people constitute a vulnerable population. For instance, with an infection like HIV, it could be useful to design TBIs to connect to wraparound services. Furthermore, YSGM people may perceive TBIs for STIs and emergent infections as spaces to seek help for comorbid concerns, especially since YSGM-specific TBIs for mental health conditions are relatively lacking (1). Because suicide is alarmingly high in this population (59), careful attention to how high-risk suicidal behaviors may be disclosed in interactive components (e.g., forums, web chat) is warranted (60, 61). We recommend creating TBIs that have clear pathways to affirming healthcare providers, easy to access crisis lines, and ongoing plans for monitoring risk if interactive components are featured (e.g., passive-sensing suicide risk detection systems that alert clinical team members to perform a suicide assessment). For emergent infections, we encourage TBI developers to design technologies that connect to other forms of care (e.g., another TBI for sexual health) in the event that an infection is rapidly controlled.

We also recommend regular technological and content updates. Technological updates are important to ensure the TBI syncs with operating systems and does not pose a safety risk. Larger technological updates may be required if the TBI technology becomes substantially outdated or no longer meets user expectations. Regular content updates are also crucial. Information on STIs and emerging infections can rapidly develop, so it is important to have content that reflects new recommendations and science.

2.7. Equitable access

YSGM people who might most benefit from TBIs for STIs or emergent infections (i.e., YSGM people in high-stigma, low-resource areas) are also least likely to have the TBI developed with them. Many TBIs for YSGM people are developed in urban centers where YSGM people cluster (1, 44). Even in urban areas, facilitators of and barriers to healthcare resources within the YSGM community is not uniform (62). Thus, although it may be practical to roll out a TBI in urban centers with YSGM people that are easier to recruit (e.g., gay men presenting regularly at a sexual health clinic), we recommend that TBI stakeholders have a plan to scale up distribution of the TBI to YSGM people in high-need, underserved areas. Moreover, through the inequity of the technological landscape, access to broadband, Wi-Fi, and other technological pre-requisites to receiving care are inevitably variable. In response, adaptable interventions that can remain versatile to the access barriers of a given region become essential.

2.8. Digital temperance

While TBIs offer solutions to address the disparities in STIs and emerging infectious disease outbreaks, it is important to acknowledge and minimize the potential harm in their implementation. Many TBIs inevitably increase the screen time among users. Previous research suggests that increased screen time is associated with poorer mental health, increased behavioral problems, worsening sleep quality, and other outcomes including poor academic performance (63, 64). Therefore, TBI development and implementation must consider the potential downside of excessive technology use. Similarly, there is a growing trend of integrating gamification and serious gaming in health and wellbeing promotion in recent years (65, 66). While these approaches could generate positive behavioral changes and cognitive outcomes, excessive use of such elements could lead to addiction-like behaviors, contributing to the already existing mental health inequities among YSGM. These considerations are particularly important given the recent statement from the U.S. Surgeon General on social media use and its impact on adolescents' mental health (67). Therefore, it is crucial for TBI developers and clinicians to strike a balance between optimizing TBI engagement for positive behavior changes and maintaining a moderate amount of technology use.

3. Discussion

This Perspective discussed eight ethical issues and principles is designing and deploying TBIs for STIs and emerging infections, focusing on YSGM people as the target population. Ultimately, a community-engaged, YSGM-centered approach to TBI development and implementation is paramount to ethically treating STIs and emerging infections with innovative technology. Although some of the ethical issues, principles, and recommendations in this Perspective cut across populations, attention to how ethical considerations apply to YSGM people is crucial given the ethical infractions of extant computational technologies with this population (68, 69) as well as the health disparities observed between YSGM people and their heterosexual and cisgender peers (2, 3). Ethically robust TBI development and implementation is not only sound science, but is also a way to ensure systems of personal and public health remain spaces of help, healing, and hope at a time when YSGM people face an unprecedented assault on their basic human rights (29).

Data availability statement

The original contributions presented in the study are included in the article/Supplementary Material, further inquiries can be directed to the corresponding author.

Author contributions

CC: Conceptualization, Funding acquisition, Supervision, Writing – original draft, Writing – review & editing. TP: Writing – original draft, Writing – review & editing. CH: Writing – original draft. MB: Writing – review & editing. KM: Writing – review & editing. IH: Conceptualization, Supervision, Writing – review & editing.

Funding

The author(s) declare financial support was received for the research, authorship, and/or publication of this article.

CJC is supported as a RISE Fellow by the National Institutes of Health (R25GM061222). KM was supported in part by R01MH129207.

Acknowledgments

We used ChatGPT (based on the GPT-3.5 architecture; 14 March 2023 version; OpenAI, LLC) and Consensus (Consensus NLP, Inc.) during the brainstorming phase of this manuscript. All suggestions from these artificial intelligence (AI) systems were fact checked. AI was not used to author or edit any text in the present article.

Conflict of interest

The authors declare that the research was conducted in the absence of any commercial or financial relationships that could be construed as a potential conflict of interest.

Publisher's note

All claims expressed in this article are solely those of the authors and do not necessarily represent those of their affiliated organizations, or those of the publisher, the editors and the reviewers. Any product that may be evaluated in this article, or claim that may be made by its manufacturer, is not guaranteed or endorsed by the publisher.

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Keywords: infectious disease, LGBTQ+, young adults, emerging infections, adolescents, mobile health, technology-delivered interventions, eHealth

Citation: Cascalheira CJ, Pugh TH, Hong C, Birkett M, Macapagal K and Holloway IW (2023) Developing technology-based interventions for infectious diseases: ethical considerations for young sexual and gender minority people. Front. Reprod. Health 5:1303218. doi: 10.3389/frph.2023.1303218

Received: 27 September 2023; Accepted: 20 October 2023;
Published: 18 December 2023.

Edited by:

Jason Zucker, Columbia University, United States

Reviewed by:

Joseph Cherabie, Washington University in St. Louis, United States

© 2023 Cascalheira, Pugh, Hong, Birkett, Macapagal and Holloway. This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.

*Correspondence: Cory J. Cascalheira cjcascalheira@gmail.com

Disclaimer: All claims expressed in this article are solely those of the authors and do not necessarily represent those of their affiliated organizations, or those of the publisher, the editors and the reviewers. Any product that may be evaluated in this article or claim that may be made by its manufacturer is not guaranteed or endorsed by the publisher.