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Implementation Science Communications logoLink to Implementation Science Communications
. 2026 Feb 5;7:47. doi: 10.1186/s43058-026-00871-9

Using multi-method approaches to document and assess adaptations in a community-driven COVID-19 testing program

Linda Salgin 1,2,4,, Breanna J Reyes 3, Maria Balbuena Bojorquez 3, Angel Lomeli 3,4,6, Sharon Velasquez 1, Kelli L Cain 4, Marva Seifert 5, Louise C Laurent 3, Nicole A Stadnick 6,7,8, Borsika A Rabin 4,8
PMCID: PMC12977873  PMID: 41639712

Abstract

Background

Adaptations are expected when complex public health interventions are implemented in dynamically and rapidly changing real-world settings. Systematic documentation of adaptations to intervention components and strategies are critical when assessing their impact on implementation. The purpose of this paper is to describe our approach to systematically tracking, documenting, and evaluating adaptations made during the CO-CREATE-Ex project, which aimed to address COVID-19 testing disparities in the San Ysidro US/Mexico border community.

Methods

The study utilized a longitudinal, prospective, multi- method approach to systematically document and assess adaptations across the pre-implementation, early and mid/late-implementation, and maintenance phases of the project. Adaptations were aggregated from a combination of sources (i.e., meeting notes, Advisory Board transcripts, and periodic reflections). Adaptations were entered weekly into an electronic database that captured information on 16 characteristics and were validated by study staff. Descriptive statistics were used to describe adaptation characteristics. Adaptation impact was evaluated using a combination of objective and subjective measures aligned with the Reach, Effectiveness, Adoption, Implementation, and Maintenance (RE-AIM) outcomes.

Results

Eighty-four unique adaptations were included in this analysis. Adaptations were organized by study phase with most occurring during pre-implementation. Most adaptations (n = 79, 94.04%) were planned (i.e., proactive) and expected (n = 63, 75%), and (n = 21, 25.0%) adaptations were considered unexpected (e.g., reactive). Across all adaptations, 71.2% were perceived as positive (i.e., had a positive impact on RE-AIM implementation outcomes) and 19.1% were perceived to be negative (i.e., worsened implementation outcome or decreased implementation). Unexpected adaptations, though reactive in nature, generally had a positive impact on implementation outcomes. For instance, 14.3% of unexpected adaptations were perceived to increase reach and effectiveness. Within maintenance, 19% of unexpected adaptations were perceived to increase this outcome. Lastly, adaptations were generally small in scope with less than a tenth of adaptations affecting 50% or more of core elements.

Conclusion

Our systematic approach to documenting and analyzing adaptations has highlighted the importance of understanding the impact of adaptations on implementation outcomes. These insights underscore the need for continued research to refine methods for adaptation documentation and impact evaluation, ensuring interventions remain effective, equitable, and responsive to real-world challenges.

Trial registration

ClinicalTrials.gov, NCT05894655, Registered 8 June 2023.

Keywords: Adaptation, COVID-19 testing, Community-based, Implementation science


Contributions to the literature.

  • Our study reinforces that adaptations are expected and necessary to enhance the fit of evidence-based practices to organizational contexts.

  • We highlight the need for broader and more nuanced definitions of adaptation to capture both proactive and reactive changes, and to better understand their varied impacts on implementation outcomes.

  • As research on evaluating adaptations remains underdeveloped, our study contributes to the literature by detailing simple yet systematic methods for documenting and assessing adaptation impact across phases of program implementation.

Introduction

The focus on evidence-based practice in public health, social services, and medicine has elevated the importance of utilizing evidence-based practices (EBPs), with implementation science aiming to maximize the adoption, use, and maintenance of EBP’s real-world settings [1, 2]. When deploying EBPs in dynamic contexts, especially those aimed to address critical public health needs such as access to COVID-19 testing resources, adaptations are expected and necessary to enhance the fit of the EBP to the organizational context [3, 4]. Adaptions are defined as changes or modifications to an intervention or implementation strategy that aim to increase its successful implementation or effectiveness [24]. Adaptations can be proactive (e.g., deliberate and planned for) or reactive (e.g., in response to an unanticipated challenge) [4] and are expected when implementing programs in usual care setting [5]. Importantly, adaptations that are co-driven by researchers, community members, and organizational leaders can not only ensure that adaptations remain fidelity-consistent (i.e., adaptations that preserve core elements of an intervention) [4], but also can prevent potential inequalities in interventions by addressing the needs of underserved populations [6].

While frameworks exist to guide the general documentation and reporting of adaptations [2, 4, 7, 8], the methodologies for documenting and evaluating the impact of adaptations on implementation and effectiveness outcomes remain limited [9]. As the interest in understanding adaptations increasingly grows, analyzing their impact on critical implementation outcomes including reach, effectiveness, adoption, implementation and maintenance are needed. For example, while reactive adaptations are believed to be fidelity-inconsistent and can lead to unfavorable outcomes compared to proactive adaptations, McCarthy and colleagues found the opposite, where reactive adaptions did not lead to negative implementation outcomes [10]. Similarly, Aschbrenner and colleagues found that in their intervention, fidelity-inconsistent adaptations were positively associated with patient health outcomes, especially when those adaptations provided practical advantages [9, 10]. These findings allude to the need for systematic and detailed documentation and evaluation of adaptations as they can help identify best practices for modifying interventions and importantly increase opportunities to replicate adaptations with high impact in new settings, communities, or contexts.

The CO-CREATE-Ex study

Community-engaged Optimization of COVID-19 Rapid Evaluation And Testing Experiences (CO-CREATE-Ex) is a two-year research study aimed to increase equitable access to COVID-19 rapid antigen tests (RATs) through the implementation of innovative, multilevel, and multicomponent implementation strategies. Details of the CO-CREATE-Ex study can be found in previous publications [11]. The study had two overarching aims; the first aim was to engage key partners in a Community and Scientific Advisory Board (CSAB) to refine and operationalize the multi-component implementation strategies and outcome metrics for COVID-19 testing. The CSAB identified i) walk-up, no-cost testing site; ii) self-service vending machines; and iii) promotora‑facilitated testing and health counseling along with preventive care gap reminders for Federally Qualified Health Center (FQHC) patients as the programs multi-component implementation strategy bundle. The second aim was to implement and evaluate the impact of the multi-component implementation strategies to optimize COVID-19 rapid testing among underserved communities using a roll-out implementation optimization (ROIO) study design [12]. The ROIO study design is a novel design that prospectively allows for iterative refinement of implementation strategies between clusters [13, 14]. Importantly, ROIO designs are particularly applicable for testing multicomponent intervention strategies which support the optimization of implementation with each successive roll-out [13, 14]. In comparison, implementation strategies in other roll-out designs, such as the stepped wedge design, remain relatively stagnant [14] potentially creating incongruence between the intervention design and organizational fit leading to fidelity-inconsistent implementation. Each of the CO-CREATE-Ex study components were rolled out sequentially across four clinic sites over the course of a year, with iterative refinements adopted prior to the subsequent roll out. These refinements identified within each roll-out were documented as adaptations to the delivery of study components. In addition, adaptations related to partner engagement via the CSAB, the overall research process, and logistical adaptations were also documented.

Study Purpose

The primary goal of this paper is to describe our multi-method approach to systematically documenting adaptations across both intervention methods and implementation strategies as well as describing the general characteristics of adaptations. Our secondary goal was to use innovative approaches to evaluate the potential impact of adaptions on key implementation and effectiveness outcomes.

Methods

We used a theoretically-driven, longitudinal, prospective, multi-method approach to systematically document adaptations across different phases of the CO-CREATE-Ex Study. Our documentation methodology was informed by a multi-method adaptation tracking approach that integrates elements from the original framework and coding systems for modifications and adaptations by Stirman and colleagues [15], Framework for Reporting Adaptations and Modifications to Evidence-based interventions (FRAME) [4] and the modified adaptations framework by Rabin et al. [5] This approach has been successfully applied to document adaptations across interventions, implementation strategies, and study methods in similar studies [16]. We summarized and analyzed these data to provide an overview of types of adaptations implemented at each ROIO stage (pre-implementation, implementation at each of 4 study sites, and maintenance) along with their respective impact on implementation outcomes. We assessed impact of adaptations on implementation outcomes using the reach, effectiveness, adoption, implementation, and maintenance (RE-AIM) framework [17] where we defined Reach as the type and number of community members engaged or reached, Effectiveness as any increase access to equitable testing, Adoption as the uptake of CO-CREATE-Ex by clinical partners, Implementation as acceptability of CO-CREATE-Ex for community and clinical partners, consistent and high quality delivery of testing, and costs or resources associated with testing, and Maintenance as ongoing delivery of consistent and high-quality testing. An additional novel measure of impact included assessing scope, based on recent work by Mark defined as the proportion of an intervention’s major subdivisions (e.g., sessions or components) that are affected by the adaptation [2, 18]. Lastly, we expand upon the traditional definitions of proactive and reactive adaptations adding additional defining characteristics leading to four operational definitions of adaptations: i) planned—where the adaptation was implemented after a discussion and consensus with at least two or more study team members using currently available data to inform decision making; ii) unplanned—where an adaptation was implemented without study team discussion and consensus, iii) expected—wherein the implementation team foresaw a necessary adaptation (e.g., translating patient facing materials from English to Arabic given the roll out of CO-CREATE-Ex among a prominent Chaldean community), or iv) unexpected—wherein an adaptation was not anticipated (e.g., temporarily shutting down operations at a site due to vending machine malfunction).

Setting

CO-CREATE-EX was implemented at four clinic sites within San Ysidro Health (SYH), a FQHC near the US-Mexico border in San Diego County. San Ysidro Health is the county’s second largest multi-site FQHC, providing high quality and accessible services to a diverse population across with the mission to improve the health and wellbeing of the communities they serve with access for all [19]. The study is approved by the University of California, San Diego Institutional Review Board (Protocol Number 806121) and the Research Review Committee of the partnering FQHC (RHP-R-021422-86).

Data collection and sources for adaptations

Adaptations were collected through four methods: 1) bi-weekly email reminders sent to the research and clinical teams; 2) periodic reflections; 3) meeting notes, and 4) Practical, Robust Implementation Sustainability Model (PRISM) assessments [20]. Table 1 provides an overview of the sources of the adaptations using the general guidelines for documentation of adaptations by Rabin and colleagues [5, 20]. Email reminders were developed from a previous study evaluating adaptations and refined to fit the context of CO-CREATE-Ex [16]. Staff were asked to report on any adaptations made by answering the following [4write a brief 1–2 sentence describing the adaption, when was this adaptation made (Day, Month, Year), When was this adaptation identified, who identified it and who made the change? Periodic reflections [5] with research staff, clinical partners, and community partners were conducted quarterly to review the list of adaptations and add adaptations that may have been missed. The adaptations team also reviewed meeting minutes from weekly research, clinical, and community partner meetings as well as CSAB meeting recordings to retrospectively capture any adaptations. Finally, we implemented a PRISM Fit Assessment [2123] meeting prior to the launch of CO-CREATE-Ex at each clinic site to obtain feedback from research, clinical, and community partners on programmatic implementation to identify any new adaptations. When the same barriers were identified, adaptations from earlier clinics were rolled forward to inform implementation at subsequent clinics. We also conducted a final assessment at the end of the study to determine whether barriers persisted after adaptations were adopted.

Table 1.

Description of sources of adaptations

Key Considerations

HOW

How are data about adaptations collected?

Source 1: Email Reminders Source 2: Periodic Reflections Source 3: Meeting Notes Source 4: PRISM Assessment

WHY

Why are data about adaptations being collected?

To report any adaptations made by answering a series of questions Reflect on current adaptations and identify any missing adaptations Review meeting notes from all study meetings to identify adaptations not documented elsewhere To obtain feedback on programmatic implementation and identify adaptations suggested as part of the assessment

WHO

Who collects the data about adaptations?

Adaptation Team Adaptation Team Adaptation Team Adaptation Team

FROM WHOM

From whom are data about adaptations collected?

CO-CREATE-EX research staff Research , clinical , and community partners Research, clinical, and community partner meetings Research, clinical, and community partners

WHEN

When and how frequently are data about adaptations collected?

Bi-weekly; Email reminders start prior to the roll out of the first site during the pre-implementation phase and continue throughout the study Quarterly; Periodic reflections begin after the roll out of the first study site and continue throughout the study Bi-weekly; Weekly meetings notes are generated for all meetings starting at the onset of the study Quarterly; PRISM Assessment is conducted prior to the start of each new clinic roll out

WHAT

What type(s) of data and which characteristics of adaptations are collected?

Qualitative/Open Ended; Characteristics of adaptations Qualitative Qualitative Qualitative and Quantitative

HOW

How are data about adaptations analyzed?

Rapid qualitative analysis; Descriptive statistics Rapid qualitative analysis; Descriptive statistics Rapid qualitative analysis; Descriptive statistics Rapid qualitative analysis; Descriptive statistics

An Adaptation Team consisting of two on-site study coordinators, two program managers, one student researcher, and an implementation science expert was assembled to review and discuss all adaptations on a bi-weekly basis. Once adaptations were identified, they were organized into a tracking sheet via excel. Adaptations were modified to increase clarity, combined with similar adaptations if duplicative, or removed if not considered an adaptation. Once consensus was reached by the Adaptation Team, the final version of the adaptation was entered into REDCap [24], and an adaptations matrix was developed, modeled after databases from prior studies systematically documenting adaptations [3, 10]. The adaptations matrix had nine overarching components with multiple sub-components as outlined in Table 2. Core components included: i) Partner Engagement (12 CSAB members); ii) Research Process (design [3 month rollouts, walk-up testing procedures], measures [enrollment survey], data collection [electronic surveys, PRISM Fit Assessment], analysis); iii) Logistical (IRB, translation, incentives); iv) CO-CREATE-Ex Kiosk; v) Promotores. Further details regarding these components can be found in the CO-CREATE-Ex protocol paper [11].

Table 2.

Overview of adaptations matrix utilized to document program adaptations

Adaptations Matrix Overarching Component Sub-Components Definition
Who is creating this Adaptation? Analysis/Reporter Who is reporting adaptation in REDCap
Source of adaptation

Who identified adaptation, may be same as

Analyst/Reporter)

Site code

- Clinic 1

- Clinic 2

- Clinic 3

- Clinic 4

- Project wide adaptation (i.e., changed made to the vending machine or role of the navigators)

- CSAB

- Other

Date recorded Date when record was made
Date of adaptation When adaptation was implemented
Adaptation information Adaptation title Title of adaptation
Adaptation brief summary Summary of what was adapted
What is planned or unplanned?

Planned—change discussed with team & made decision based on data/experience

Unplanned—change was made without shared discussion and agreement and possibly without looking at data

Was it expected or unexpected?

Expected—implementation team foresaw a necessary adaptation

Unexpected – implementation team did not anticipate the adaption

Was this adaptation a result of external factors or internal issues?

External factors—related to non-research team/processes.

Internal issues—related to research team/processes.

Details About Adaptation What element was adapted?

- The setting

- The format (e.g., in-person changed to telephone)

- Personnel involved

- The target population

- How the intervention/program is presented/delivered (i.e., how core components are operationalized)

- Other

What was the type of adaptation?

- Tailoring to individuals

- Adding a component (i.e., from codebook, adding materials/area of focus, adding another treatment)

- Removing a component

- Condensing a component (i.e., from codebook, shortening protocol from 12 to 8 sessions)

- Extending a component

- Substituting for a component

- Changing the order of components

- Repeating a component

- Integrating with other programs what we are doing

- Loosening the structure or protocol

- Otherwise changing the intervention

- Other

Which core component is this adaptation related to?

- Partner Engagement (CSAB)

- Research process (design, measures, data collection, analysis)

- Logistical (IRB, translation, incentives, etc.)

- CO-CREATE-Ex Kiosk

- Promotores/Navigation

- Other

What was the Scope? Percent of CO-CREATE-Ex core components affected by the adaptation
Who is involved in this adaptation? Who was responsible for indicating this adaptation?

- Team meeting

- Bi-weekly PI meeting

- Monday Global ARC & UCSD meeting

- On-site team meeting

- UCSD Research Staff

- UCSD Interns

- UCSD Researchers

- CSAB

- Promotores

- SYH Research Staff

- SYH Investigator(s)

- SYH Provider(s)

- SYH Patients/Community Members

- SYH Administration/Organization Leaders

Why was this adaptation made? When during the CO-CREATE program was this adaptation made?

- Pre-implementation

- Roll out 1

- Preparation for roll out 2

- Roll out 2

- Preparation for roll out 3

- Roll out 3

- Preparation for roll out 4

- Roll out 4

- Maintenance

Why was this adaptation made?

Reason/what prompted need for adaptation

- To increase the number and/or type of community members reached/engaged (reach)

- To increase equitable testing for the right people at the right time (effectiveness)

- Increase the uptake of the testing program by clinical partners (adoption)

- To increase the acceptability of the testing process or program for community members

(implementation)

- To increase the acceptability of the testing process or program for clinical partners

(implementation)

- To deliver testing more consistently and with high quality (implementation)

- To reduce cost and resources needed associated with testing (implementation)

- To support the ongoing delivery of consistent and high-quality testing (maintenance)

- Other

What was the impact of this adaptation at the end of the study? Number and/or type of community members reached/engaged (reach) Was there an increase, decrease, no change, unable to be determined, or not applicable
Equitable testing for the right people at the right time (effectiveness) Same as above
Uptake of the testing program by clinical partners (adoption) Same as above
Acceptability of the testing process or program for community members (implementation) Same as above
Acceptability of the testing process or program for clinical partners (implementation) Same as above
Delivery of testing more consistently and with high quality (implementation) Same as above
Cost and resources needed associated with testing (implementation) Same as above
Ongoing delivery of consistent and high-quality testing (maintenance) Same as above
Was this adaptation successful? Was this adaptation successfully implemented? Yes/No

Analysis

Adaptation data was analyzed using descriptive analysis. We summed the overall number of adaptations implemented throughout the study and organized and described adaptations by key adaptation characteristics (e.g., type of change, reason for change, planned, unplanned, expected, unexpected etc.). Scope of adaptations was estimated as the percentage of CO-CREATE-Ex components affected by a given adaptation. Using a study developed scale [16], the Adaptations Team evaluated the perceived impact of adaptations on key RE-AIM outcomes assessing whether the adaptation resulted in an increase, decrease, no change in a given dimension or if the given impact outcome was not able to be determined or not applicable to the adaptation. When possible, objective measures derived from available study data (e.g., participants enrolled, tests distributed, survey completion rates, costs etc.) were used to assess impact. When objective measures were not available, subjective measures (e.g., front-line staff experience, clinician reported feedback) were used. Additionally, we note that not every adaptation was intended to be evaluated for each RE-AIM outcome, and in some cases, were not intended to affect any outcomes. For example, adaptations regarding removal of testing incentives were specifically meant to target the dimension of implementation whereas adaptations to translate materials to Arabic were intended to target the dimension of implementation and reach. In other cases, for instance, adaptations made to the research process such as changing the timing of clinic roll outs were a needed adaptation to improve fit but was not intended to impact any RE-AIM outcomes.

Results

Adaptations overview

The Adaptations Team documented 106 adaptations. After combining duplicate entries and excluding adaptations that were not eventually implemented, 84 unique adaptations were identified and included in this analysis. Adaptations were organized in alignment to the phases of the ROIO design as seen in Fig. 1 with most adaptations occurring in the pre-implementation and early ROIO phases (i.e., roll-out 1 and 2).

Fig. 1.

Fig. 1

Number of unique adaptations across roll out implementation optimization study design (n = 84)

The majority of adaptations (n = 63, 75%) were initiated by study staff who are primarily on-site, interacting daily with patients and partners. A small portion of adaptations were initiated by CSAB (n = 3, 3.5%), SYH administrative staff, providers, patients (n = 3, 3.5%) and study investigators (n = 9, 10.7%) (data not shown). Adaptations by ROIO phase and by adaptation constructs are represented in Table 3.

Table 3.

Unique adaptations identified across phases of the ROIO design and adaptation constructs

Adaptation constructs Pre-implementation ROIO Phase 1 ROIO Phase 2 ROIO Phase 3 ROIO Phase 4 Maintenance Total
Planned versus unplanned
 Planned 34 (43.04%) 15 (18.99%) 20 (25.32%) 4 (5.06%) 5 (6.33%) 0 (0.00%) 79
 Unplanned 0 (0.00%) 0 (0.00%) 4 (80.00%) 0 (0.00%) 0 (0.00%) 1 (20.00%) 5
Expected versus unexpected
 Expected 30 (47.62%) 11 (17.46%) 17 (26.98%) 1 (1.59%) 4 (6.35%) 0 (0.00%) 63
 Unexpected 4 (19.05%) 4 (19.05%) 7 (33.33%) 3 (14.29%) 2 (9.52%) 1 (4.76%) 21
Elements changed
 Setting 3 (50.00%) 1 (16.67%) 2 (33.33%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 6
 Format 16 (66.67%) 6 (25.00%) 1 (4.17%) 0 (0.00%) 0 (0.00%) 1 (4.17%) 24
 Personnel involved 5 (62.50%) 0 (0.00%) 3 (37.50%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 8
 Target population 1 (50.00%) 0 (0.00%) 1 (50.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 2
 How the intervention/program is presented/delivered 9 (23.08%) 8 (20.51%) 15 (38.46%) 2 (5.13%) 5 (12.82%) 0 (0.00%) 39
 Other 2 (22.22%) 1 (11.11%) 3 (33.33%) 2 (22.22%) 1 (11.11%) 0 (0.00%) 9
Type of adaptation
 Tailoring to individuals 15 (60.00%) 3 (12.00%) 6 (24.00%) 0 (0.00%) 1 (4.00%) 0 (0.00%) 25
 Adding a component 13 (44.83%) 5 (17.24%) 8 (27.59%) 0 (0.00%) 3 (10.34%) 0 (0.00%) 29
 Removing a component 3 (60.00%) 0 (0.00%) 1 (20.00%) 0 (0.00%) 0 (0.00%) 1 (20.00%) 5
 Condensing a component 1 (33.33%) 2 (66.67%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 3
 Extending a component 0 (0.00%) 1 (33.33%) 1 (33.33%) 0 (0.00%) 1 (33.33%) 0 (0.00%) 3
 Substituting a component 2 (28.57%) 2 (28.57%) 1 (14.29%) 1 (14.29%) 1 (14.29%) 0 (0.00%) 7
 Changing the order of components 2 (100.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 2
 Repeating a component 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0
 Integrating with other programs 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0
 Loosening the structure or protocol 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0
 Otherwise changing the intervention 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0
 Other 1 (14.29%) 2 (28.57%) 0 (0.00%) 3 (42.86%) 1 (14.29%) 0 (0.00%) 7
Which core component is this adaptation related to
 Partner engagement (CSAB) 2 (66.67%) 1 (33.33%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 3
 Research process 22 (43.14%) 11 (21.57%) 11 (21.57%) 3 (5.88%) 3 (5.88%) 1 (1.96%) 51
 Logistical 10 (31.25%) 4 (12.50%) 11 (34.38%) 1 (3.13%) 6 (18.75%) 0 (0.00%) 32
 CO-CREATE-Ex kiosk 8 (42.11%) 5 (26.32%) 3 (15.79%) 1 (5.26%) 1 (5.26%) 1 (5.26%) 19
 Promotores 1 (20.00%) 2 (40.00%) 2 (40.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 5
 Other 4 (66.67%) 1 (16.67%) 0 (0.00%) 1 (16.67%) 0 (0.00%) 0 (0.00%) 6
Why was the adaptation made
 To increase the number or type of patients contacted (reach) 12 (44.44%) 4 (14.81%) 9 (33.33%) 1 (3.70%) 1 (3.70%) 0 (0.00%) 27
 To increase equitable testing for the right people at the right time (effectiveness) 4 (40.00%) 2 (20.00%) 2 (20.00%) 1 (10.00%) 1 (10.00%) 0 (0.00%) 10
 Increase the uptake of the testing program by clinical partners (adoption) 0 (0.00%) 0 (0.00%) 2 (100.00%) 0 (0.00%) 0 (0.00%) 0 (0.00%) 2
 To increase the acceptability of the testing process or program for community members (implementation) 16 (66.67%) 3 (12.50%) 3 (12.50%) 0 (0.00%) 2 (8.33%) 0 (0.00%) 24
 To increase the acceptability of the testing process or program for clinical partners (implementation) 4 (36.36%) 2 (18.18%) 3 (27.27%) 0 (0.00%) 2 (18.18%) 0 (0.00%) 11
 To deliver testing more consistently and with high quality (implementation) 4 (36.36%) 2 (18.18%) 4 (36.36%) 0 (0.00%) 1 (9.09%) 0 (0.00%) 11
 To reduce cost and resources needed associated with testing (implementation) 4 (44.44%) 4 (44.44%) 0 (0.00%) 1 (11.11%) 0 (0.00%) 0 (0.00%) 9
 To support the ongoing delivery of consistent and high-quality testing (maintenance) 5 (29.41%) 5 (29.41%) 3 (17.65%) 2 (11.76%) 2 (11.76%) 0 (0.00%) 17
 Other 5 (22.73%) 3 (13.64%) 10 (45.45%) 2 (9.09%) 1 (4.55%) 1 (4.55%) 22
Was this adaptation a result of external factors or internal issues
 External 4 (28.57%) 0 (0.00%) 4 (28.57%) 4 (28.57%) 1 (7.14%) 1 (7.14%) 14
 Internal 30 (42.86%) 15 (21.43%) 20 (28.57%) 0 (0.00%) 5 (7.14%) 0 (0.00%) 70

Adaptation characteristics

Which core components were adapted and what was the scope of adaptations

Adaptions were made across all six core components of the CO-CREATE-Ex study. The majority of adaptations affected the core component of the research process (n = 51) followed by study logistics (n = 32), CO-CREATE-Ex vending machines (n = 19), other (n = 6), promotores (n = 5), and the CSAB (n = 3). In general, adaptations were small in scope, impacting at most half (3 out of 6) of the core components. Across all adaptations, two-thirds impacted 16.7% of core components, a quarter impacted 33.3%, and less than a tenth of adaptations impacted 50%. There was one adaptation that did not affect any core components. Table 4 presents examples of adaptations across core components including the original strategy, adaptation made, and justification for the adaptation.

Table 4.

Examples of adaptations across CO-CREATE-Ex core components

Core Component Original Strategy Adaptation Justification
Partner Engagement (CSAB) 12 partners would be part of the CSAB 18 partners as CSAB members Increase diverse representation of CSAB members
Research Process (design, measures, data collection, analysis)

Design: ROIO design set to roll-out new clinic site every 3 months

Measure: Survey to ask about general COVID19 symptoms

Data Collection: PRISM Fit Assessment completed prior to each clinic roll out

Roll out between first and second clinic shortened to two 2 months and roll out of clinic 3 extended to 4 months

Survey updated to include specific questions related to long covid

Additional PRISM Fit assessment conducted at the end of the study

Technical challenges with Kiosk resulted in challenges launching sites in 3-month intervals

Required addition by funding agency

To determine if initial identified barriers persist post adaptations

Logistical (IRB, translation, incentives)

Translation: CO-CREATE-Ex surveys and materials offered only in English and Spanish

Incentives: Participants to receive $10 for completing COVID19 RAT and $40 for completing survey

CO-CREATE-Ex surveys and materials translated into Arabic

$10 testing incentives removed

Support large population of Arabic speaking patients at Kiosk location

To ensure incentives are sustainable across funding period

CO-CREATE-Ex Kiosk

All kiosk open 24/7 once rolled out

Participants will be offered both RAT and polymerase chain reaction (PCR) COVID-19 tests

Kiosk #1 temporarily shut down, limiting test availability from 8–12 pm

Participants only offered RAT COVID-19 tests

Staff availability to be on-site to provide test kits

To ensure sustainability of testing services

Promotores Promotoras contacting participants over the phone for preventative care reminders Promotoras additionally offering support to complete research surveys over the phone To increase number of research surveys completed by participants

Planned versus unplanned

Most adaptations (n = 79, 94%) were planned (i.e., proactive), where the adaptation was implemented after a discussion and consensus with at least two or more study team members using currently available data to inform decision making. For instance, the team found it important to add an additional PRISM barrier assessment at the end of the study to evaluate changes between pre-implementation PRISM barrier results and post-implementation. Of those that were planned, 34 (43%) occurred during the pre-implementation phase, 44 (55.7%) during the four ROIO implementation phases, and none during maintenance. Only five adaptations were unplanned (n = 5, 5.9%) where an adaptation was implemented without study team discussion and consensus. For instance, survey completion was intended to be done off-site to reduce traffic at clinic entrances, but staff started providing on-site support for participants to complete their study survey in response to participant requests. Among unplanned adaptations, 4 (80%) occurred in phase two of the ROIO implementation and 1 (20%) during maintenance.

Expected versus unexpected

Expected adaptations accounted for 63 (75%) of the total adaptations. These adaptations included changes that the study team foresaw as a necessary adaptation for successful implementation of the study. An example of an expected adaptation was the translation of all CO-CREATE-Ex participant facing materials (e.g., flyers, consent, application) to Arabic to accommodate the predominately Arabic-speaking community served by clinic site four. Within expected adaptations, almost half (n = 30, 47.6%) occurred during the pre-implementation phase, 33 (52.4%) occurred during the four ROIO phases, and none during the maintenance period. In contrast, only (n = 21, 25.0%) of adaptations were considered unexpected (i.e., reactive). For instance, the study team did not anticipate the vending machines at clinic site two to malfunction, which then required additional on-site support (beyond the originally planned 3 months) from promotores to distribute COVID-19 testing kits. Table 5 presents the distribution of adaptations categorized by whether they were planned or unplanned, and expected or unexpected. By examining these intersections, we aimed to better understand the nature and implications of unexpected adaptations. Notably, although 21 adaptations were classified as unexpected, 85% (18/21) of those were discussed with the adaptations team (i.e., classified as planned).

Table 5.

Distribution of adaptations characterized by planned or unplanned and expected or unexpected constructs (n = 84)

Planned Unplanned
Expected (n = 63) n = 61, 96.8% n = 2, 3.17%
Unexpected (n = 21) n = 18, 85.7% n = 3, 14.28%

Elements adapted & types of adaptations

Adaptations primarily were related to the element of “How the intervention/program is presented/delivered” (n = 39, 46.4%), followed by the “Format” (n = 24, 28.6%), “Personnel” (n = 8, 9.5%), “Setting” (n = 6, 7.1%), and “Target Population” (n = 2, 2.4%). Across all elements, 40.9% of the adaptations were during the pre-implementation phase, 57.9% across all four ROIO phases, and 1.2% during the maintenance phase. Regarding types of adaptations, of the 12 adaptation types, almost two-thirds were related to “tailoring to individuals” and “adding a component” (n = 25, 29.8% and n = 29, 34.5%, respectively).

Why was the adaptation made

Adaptions were made for a variety of reasons to increase reach, effectiveness, implementation, adoption, or maintenance of the Co-CREATE-Ex study. Approximately one-third (n = 27, 32.1%) of adaptations were made to increase reach by increasing the “number or type of patients contacted” to the CO-CREATE-Ex study followed by 24 (28.6%) adaptations which were made to increase implementation by increasing the “acceptability of the testing process or program for community members”. Adaptations to increase maintenance by supporting the “ongoing delivery of consistent and high-quality testing” accounted for 17 (20.2%) of adaptations. Regardless of reason, most adaptations occurred during the pre-implementation phase (40.5%), followed by 17.9% in ROIO phase 1, 28.6% in ROIO phase 2, 4.8% in ROIO phase 3, 7.1% in ROIO phase 4.

Was the adaptation due to external or internal issues

Adaptations were identified as being internal if the change derived from an issue related to the research team or process and external if resulting from an issue unrelated to the team or process. Approximately 83% of adaptations were categorized to be due to internal issues while only 16% were due to external issues. Internal issues that led to adaptations were seen more frequently in the early phases of the study with 42% in the pre-implementation phase, 21% in phase 1, and 28% in phase 2. External issues that led to adaptations were seen more consistently across phases with 4 (28.5%) adaptations in the pre-implementation phase as well as phase 2 and 3 of the study and at least 1 adaptation in phase 4 and the maintenance period of the study.

Impact of adaptations

Table 6 depicts the impact of adaptations across RE-AIM outcomes. Most adaptations had a positive impact on CO-CREATE-Ex implementation outcomes of Reach, Adoption, Effectiveness, Implementation, and Maintenance (i.e., an increase in the number or quality of these outcomes). Overall, across all adaptations, 56% were perceived as positive (i.e., increased implementation outcomes) and 20.4% were perceived to be negative (i.e., decreased implementation outcomes) Specifically, 17.9% of adaptations were perceived to increase Reach, 4.8% were perceived to increase Effectiveness, 2.4% to increase Adoption, 20.2% to increase Implementation, and 10.7% to increase Maintenance. Conversely, 3.6% of adaptations were perceived to reduce Reach, 3.6% were perceived to reduce Effectiveness, 12% were perceived to reduce Implementation and 1.2% were perceived to reduce Maintenance. Looking at the impact of adaptations in relation to if they were unexpected highlights that although unexpected adaptations are “reactive” in nature they generally had a positive impact on implementation outcomes. For instance, among the 21 adaptations that were unexpected, 14.3% were perceived to increase Reach while only 4.8% were perceived to reduce Reach. One adaptation was unable to be evaluated for impact while all other adaptations were not applicable to the reach dimension. Similarly, regarding Effectiveness, 14.3% of unexpected adaptations were perceived to increase Effectiveness while 4.8% were perceived to decrease Effectiveness. One adaptation was unable to be evaluated for impact while all others were not applicable to the effectiveness dimension. Only one unexpected adaptation was relevant to the adoption dimension of which its impact was unable to be determined. Within Implementation, 14.29% unexpected adaptations increased this outcome, 28.6% reduced this outcome, and 4.8% made no change in implementation. Lastly, within Maintenance (19%) of adaptations were perceived to increase Maintenance while only (4.7%) were perceived to decrease this outcome. One adaptation was unable to be determined and all others were not applicable for this dimension. Finally, while the majority of our planned (i.e., proactive) adaptations led to favorable outcomes, 2.5% were perceived to reduce Reach and 3.8% reduced Effectiveness. The largest impact was observed within Implementation, where 10.13% of planned adaptations were perceived to reduce this outcome.

Table 6.

Impact of adaptations across RE-AIM outcomes for expected or unexpected and planned or unplanned constructs

RE-AIM Dimension Perceived Change All Adaptations (n = 84) Expected (n = 63) Unexpected (n = 21) Planned (n = 79) Unplanned (n = 5)
Reach Increase 17.86% 19.05% 14.29% 18.99% 0.00%
Decrease 3.57% 3.17% 4.76% 2.53% 20.00%
No Change 1.19% 1.59% 0.00% 1.27% 0.00%
No Applicable 64.29% 60.32% 76.19% 64.56% 60.00%
Unable to be Determined 13.10% 15.87% 4.76% 12.66% 20.00%
Effectiveness Increase 4.76% 1.59% 14.29% 5.06% 0.00%
Decrease 3.57% 3.17% 4.76% 3.80% 0.00%
No Change 2.38% 3.17% 0.00% 2.53% 0.00%
No Applicable 83.33% 85.71% 76.19% 83.54% 80.00%
Unable to be Determined 5.95% 6.35% 4.76% 5.06% 20.00%
Adoption Increase 2.38% 3.17% 0.00% 2.53% 0.00%
Decrease 0.00% 0.00% 0.00% 0.00% 0.00%
No Change 0.00% 0.00% 0.00% 0.00% 0.00%
No Applicable 91.67% 90.48% 95.24% 91.14% 100.00%
Unable to be Determined 5.95% 6.35% 4.76% 6.33% 0.00%
Implementation Increase 20.24% 23.81% 14.29% 20.25% 20.00%
Decrease 11.90% 9.52% 28.57% 10.13% 20.00%
No Change 7.14% 6.35% 4.76% 10.13% 0.00%
No Applicable 38.10% 33.33% 52.38% 37.97% 40.00%
Unable to be Determined 22.62% 26.98% 0.00% 21.52% 20.00%
Maintenance Increase 10.71% 7.94% 19.05% 11.39% 0.00%
Decrease 1.19% 0.00% 4.76% 0.00% 20.00%
No Change 4.76% 4.76% 4.76% 5.06% 0.00%
No Applicable 77.38% 79.37% 66.67% 77.22% 60.00%
Unable to be Determined 5.95% 7.94% 4.76% 6.33% 20.00%

Discussion

We used a theoretically driven, longitudinal, prospective, multi-method approach guided by the RE-AIM framework to systematically document and analyze adaptations across different phases of the CO-CREATE-Ex Study. This approach enabled the study team to capture adaptations in real time, which supported our understanding of how the CO-CREATE-Ex Study iteratively changed to meet the needs and priorities of our community partners and program participants alongside the evolving COVID-19 pandemic landscape. We documented a total of 84 unique adaptations with the majority being identified in the pre-implementation phase, followed by the early phases of our ROIO design, aligning to the intentions of the ROIO design which aims to integrate iterative adaptations throughout the program, with the goal of reaching optimization by the final/maintenancphase [12]. We do note that due to new funding opportunities, the CO-CREATE-Ex study began a transition process during the maintenance phase, which may have led to potential adaptations made to ensure programmatic maintenance were not captured. While adaptations were primarily identified by research study staff, our CSAB contributed to adaptation identification, which ensured that adaptations were responsive to the community. Previous studies have highlighted the important role of community advisory boards and their significant contribution to identifying programmatic priorities, participants in program study design and providing general feedback [25]. This interaction between our research study staff and community partners not only enhanced the delivery of COVID-19 tests to a highly impacted community, but also increased the successful implementation and adoption of the study overall [26, 27].

As adaptations are dynamic and nuanced, we found it important to use a combination of variables to operationalize adaptations [3, 4, 10]. Traditionally, adaptations have been classified into two categories 1) proactive—deliberately planned for, or 2) reactive – in response to an unanticipated event [4]. However, we found that these definitions can be limiting as there is a crossover between the two. For instance, an adaptation can be in response to an abrupt change that was unexpected (e.g., reactive) and can also be discussed and planned for by the study team prior to implementation (e.g., proactive). Examples of these scenarios were seen throughout our study, accounting for 21% of all adaptations, where an unexpected event occurred such as the need to shorten the time between the first and the second roll out to accommodate the anticipated surge in COVID-19 during the winter season, or changing the original location of vending machine to meet the requests of our partnering FQHC, but was able to be discussed, planned and accommodated for. As such, in this study, we created four sets of operational definitions for adaptions including adaptations that were planned for (i.e., discussed with the study team prior to implementation), unplanned (i.e., not discussed with the study team prior to implementation), expected (i.e., anticipated adaptations) and unexpected (e.g., unanticipated adaptations) allowing us to better understand the nature of the adaptations occurring within our study.

Our study addresses a significant gap in the literature on adaptations by using systematic and multi-method approaches to analyze the impact of adaptations on implementation outcomes, an area that is still growing within the field. While prior work by Stiman [4] and Miller [2] have outlined structured approaches to tracking and documenting adaptations in evidence-based interventions in the field of psychology, there is limited guidance on how to assess their impact. Similarly, while Escoffery et al., conducted a systematic review of adaptations within the field of public health describing reasons for adaptation, the adaptation process, and outcomes of adapted evidence-based interventions, they too highlight that few studies report on implementation outcomes and overall impact of adaptations [1]. These gaps highlight the need for approaches that go beyond documenting and classifying adaptations to systematically assessing their effects on key implementation outcomes, which is a key strength of this study [9].

Importantly, our operationalization of adaptations coupled with our systematic and multi-method approach to assessing impact resulted in our ability to distinguish whether or not reactive adaptations actually lead to unfavorable outcomes compared to proactive adaptations. In our study, we found that the majority of unanticipated adaptations led to positive outcomes. For instance, among the 21 adaptations that were unexpected, 14.3% were perceived to increase reach and effectiveness, while only 4.8% were perceived to reduce these outcomes. Within implementation, one unexpected adaptation (i.e., vending machine system configuration limiting COVID-19 test distribution to one per week/day versus multiple) was found to decrease the “acceptability of the testing process or program for community members” and a different unexpected adaptation (i.e., shift from using iHealth COVID-19 RAT to Genabio COVID-19 RAT) was found to decrease the “delivery of testing more consistently and with high quality”, while no adaptations were perceived to increase these outcomes. We also found that some of our planned adaptations, though proactive in nature, led to unfavorable outcomes with 2.5% of planned adaptations being perceived to reduce reach, 3.8% reduced effectiveness, and 15.9% perceived to increase “cost and resources needed associated with testing”. These results build on the findings from McCarthy and Aschbrenner whose research also found that reactive adaptations did not always lead to negative implementation outcomes and in fact can be beneficial when in response to practical needs of collaborating partners and community [9, 10].

Additional strengths of our study are the inclusion scope, a novel measure that can further elucidate the impact of an adaptation by determining the number of core components affected by an adaptation [2, 18]. In our study, regardless of adaptations being proactive or reactive, the majority were small in scope. This was expected as most adaptations were specific to a component of the study and not meant to be broad. A final strength of our study includes the use of a team-based consensus approach in determining the impact of adaptations, leveraging the collective experience of the CO-CREATE-EX study team by explicitly linking adaptations to observed implementation outcomes.

Nonetheless, our study does have limitations that should be considered. First, while we used multiple methods to identify adaptations throughout the study in real time, given the dynamism of the CO-CREATE-EX study and numerous competing demands for data collection, it is possible that not all adaptations were captured. Second, although the multi-method approaches used are comprehensive, theoretically driven, and actionable, they required significant resources from study staff and partners. While efforts were made to encourage all partners in the adaptation process such as the CSAB, SYH staff, providers, patients, as well as study investigators, adaptations were primarily initiated by staff who often were deeply involved in the implementation of CO-CREATE-Ex. These findings underscore the need for not only systematic, but also pragmatic methods for documenting adaptations to increase identification of adaptations across study partners. Thirdly, while we made meaningful strides in evaluating the impact of adaptations on a range of implementation outcomes, our assessment was limited to the end of the study period. This end-point evaluation relied on perceived consensus and retrospective review, which may introduce bias. We recognize that assessing impact iteratively throughout each stage of the ROIO design would have provided a more robust understanding of how adaptations influence outcomes over time. As the literature on evaluating impact of adaptations is still new [9, 28], our study employed innovative methods to address this gap, yet highlights the continued need for future research to develop tools, measures, and methods for quantifying the impact of adaptations on implementation outcomes across study phases. Lastly, we found that a third (n= 25, 29.7%) of our adaptation outcomes were unable to be determined or not applicable across any of the RE-AIM outcomes. It’s likely that our focus on assessing impact at the end of the ROIO design, rather than iteratively between each phase could have contributed to the inability to evaluate these adaptations. Additionally, in some instances, we recognized that we did not have sufficient data to determine whether or not an adaptation made an impact on implementation and effectiveness outcomes. Lastly, we would like to note that some adaptations are pragmatic in nature, and thus, are not well-positioned to be assessed for impact. These challenges further reinforce the need for refined guidelines for not only for determining which adaptations should or should not be documented, but also how different types of adaptations (e.g., adaptation of core component, intervention strategy, pragmatic adaptations) should be evaluated and emphasize the need for adaptation-outcome alignment [16].

Conclusion

Our study integrates multiple comprehensive and theoretically driven approaches for documentation, expands on traditional definitions of adaptations, incorporates novel measures such as scope, all of which have led to a better understanding of the impact of adaptations on a wide range of implementation outcomes. Systematic documentation and evaluation of adaptations can be used to develop best practices for adapting interventions to ensure sustainable implementation in real-world contexts. Future research is needed to further develop tools, measures, and processes for analyzing adaptation impact.

Acknowledgements

Not applicable.

Abbreviations

CO-CREATE-Ex

Community-engaged Optimization of COVID-19 Rapid Evaluation And Testing Experiences

CSAB

Community Scientific Advisory Board

EBP

Evidence Based Practice

FRAME

Framework for Reporting Adaptations and Modifications-Enhanced

FQHC

Federally Qualified Health Center

PCR

Polymerase Chain Reaction

PRISM

Practical, Robust Implementation Sustainability Model

RAT

Rapid Antigen Tests

RE-AIM

Reach, Effectiveness, Adoption, Implementation, Maintenance

ROIO

Roll Out Implementation Optimization

SYH

San Ysidro Health

Authors’ contributions

Linda Salgin (Conceptualization [lead], Data curation [lead], Formal analysis [lead], Methodology [support], Writing—original draft [lead], Writing—review & editing [lead]), Breanna J. Reyes (Conceptualization [support], Methodology [support], Formal analysis [support], Writing—original draft [support], Writing—review & editing [support]), Maria Balbuena Bojorquez (Formal analysis [support], Writing—original draft [support], Writing—review & editing [support]), Angel Lomeli (Conceptualization [support], Methodology [support], Formal analysis [support], Writing—review & editing [support]), Sharon Velasquez (Writing—review & editing [support]), Kelli L. Cain (Conceptualization [support], Methodology [support], Writing—review & editing [support]), Marva Seifert (Writing—review & editing [support]), Louise C. Laurent (Writing—review & editing [support]), Nicole A. Stadnick (Writing—review & editing [support]), Borsika A. Rabin (Conceptualization [lead], Methodology [lead], Writing—review & editing [support]).

Funding

Research reported in this publication was supported by the National Institute On Minority Health And Health Disparities of the National Institutes of Health under Award Number U01MD018308 and was partially supported by the National Center for Advancing Translational Sciences of the National Institutes of Health, Grant UL1TR001442. The content is solely the responsibility of the authors and does not necessarily represent the official views of the National Institutes of Health.

Data availability

The datasets generated and/or analyzed during the current study are not publicly available due organizational policies, but may be available from the corresponding author on reasonable request.

Declarations

Ethics approval and consent to participate

The study was approved by the Institutional Review Boards of both the University of California, San Diego (protocol number 806121), and the ethical review committee of the partnering FQHC.

Consent for publication

Not applicable.

Competing interests

Borsika A. Rabin is an Associate Editor for Implementation Science Communications. All other authors declare that they have no competing interests.

Footnotes

Publisher’s Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

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Associated Data

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

Data Availability Statement

The datasets generated and/or analyzed during the current study are not publicly available due organizational policies, but may be available from the corresponding author on reasonable request.


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