Managers’ and providers’ perspectives on barriers and facilitators for the implementation of differentiated service delivery models for HIV treatment in Mozambique: a qualitative study

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Study Justification:
This study aimed to identify the barriers and facilitators for the implementation of differentiated service delivery (DSD) models for HIV treatment in Mozambique. The implementation of these models is crucial for optimizing HIV service delivery and achieving universal coverage of HIV care and treatment. Understanding the drivers of implementation success and failure can inform strategies to improve the implementation of these models and ultimately improve HIV care and treatment outcomes in Mozambique.
Highlights:
– The study identified key drivers of implementation success, including the relative advantage of the DSD models, their complexity, patient needs and resources, and the ability to reflect and evaluate the implementation process.
– Barriers to implementation included limited available resources and access to knowledge and information.
– The Fast-track and Three-month Antiretrovirals Dispensing models were found to be easier to implement and more effective in reducing workload.
– Adherence Clubs and Community Antiretroviral Therapy Groups were perceived to be less preferred by clients in urban settings.
– The COVID-19 pandemic had both positive and negative impacts on the implementation of the DSD models, with individual models being expedited but group models being temporarily interrupted.
Recommendations:
– Allocate resources for the successful implementation of DSD models, including ongoing training for frontline providers.
– Optimize the design and implementation of DSD models based on the experience gained during the COVID-19 pandemic.
– Address barriers related to limited available resources and access to knowledge and information.
Key Role Players:
– Ministry of Health: Responsible for policy development and coordination of HIV service delivery.
– Implementing partners: Organizations involved in the implementation of DSD models at various levels of the health system.
– HIV programme managers: Responsible for overseeing the implementation of DSD models at the national, provincial, district, and health facility levels.
– Providers: Frontline healthcare workers involved in the delivery of HIV care and treatment services.
Cost Items for Planning Recommendations:
– Training: Budget for ongoing training programs to ensure frontline providers have the necessary skills and knowledge to implement DSD models effectively.
– Resources: Allocate funds for the procurement of necessary resources, such as medications, laboratory supplies, and equipment, to support the implementation of DSD models.
– Coordination and implementation: Budget for additional staff and activities coordination to support the implementation of certain DSD models that require additional resources.
– Information dissemination: Allocate funds for the development and dissemination of information materials to improve access to knowledge and information about DSD models.
Please note that the provided cost items are general categories and not actual cost estimates. The actual budget items may vary based on the specific context and requirements of the implementation of DSD models in Mozambique.

The strength of evidence for this abstract is 8 out of 10.
The evidence in the abstract is based on a qualitative study that conducted in-depth interviews with managers and providers from the Ministry of Health and implementing partners at all levels of Mozambique’s health system. The study used the Consolidated Framework for Implementation Research (CFIR) to guide data collection and thematic analysis. The study identified drivers of implementation success and failure across eight differentiated service delivery models for HIV treatment in Mozambique. The abstract provides a clear description of the study methods, results, and conclusions. However, to improve the strength of the evidence, it would be helpful to include information on the sample size, selection criteria, and demographics of the participants. Additionally, providing more specific details on the findings, such as the number of participants who identified each driver or barrier, would enhance the clarity and robustness of the evidence.

INTRODUCTION: In 2018, Mozambique’s Ministry of Health launched a guideline for a nationwide implementation of eight differentiated service delivery models to optimize HIV service delivery and achieve universal coverage of HIV care and treatment. The models were (1) Fast-track, (2) Three-month Antiretrovirals Dispensing, (3) Community Antiretroviral Therapy Groups, (4) Adherence Clubs, (5) Family-approach, and three one-stop shop models for (6) Tuberculosis, (7) Maternal and Child Health, and (8) Adolescent-friendly Health Services. This study identified drivers of implementation success and failure across these differentiated service delivery models. METHODS: Twenty in-depth individual interviews were conducted with managers and providers from the Ministry of Health and implementing partners from all levels of the health system between July and September 2021. National-level participants were based in the capital city of Maputo, and participants at provincial, district and health facility levels were from Sofala province, a purposively selected setting. The Consolidated Framework for Implementation Research (CFIR) guided data collection and thematic analysis. Deductively selected constructs were assessed while allowing for additional themes to emerge inductively. RESULTS: The CFIR constructs of Relative Advantage, Complexity, Patient Needs and Resources, and Reflecting and Evaluating were identified as drivers of implementation, whereas Available Resources and Access to Knowledge and Information were identified as barriers. Fast-track and Three-month Antiretrovirals Dispensing models were deemed easier to implement and more effective in reducing workload. Adherence Clubs and Community Antiretroviral Therapy Groups were believed to be less preferred by clients in urban settings. COVID-19 (an inductive theme) improved acceptance and uptake of individual differentiated service delivery models that reduced client visits, but it temporarily interrupted the implementation of group models. CONCLUSIONS: This study described important determinants to be addressed or leveraged for the successful implementation of differentiated service delivery models in Mozambique. The models were considered advantageous overall for the health system and clients when compared with the standard of care. However, successful implementation requires resources and ongoing training for frontline providers. COVID-19 expedited individual models by loosening the inclusion criteria; this experience can be leveraged to optimize the design and implementation of differentiated service delivery models in Mozambique and other countries.

The study was conducted from July to September 2021. Participants were from MISAU and implementing partners at all levels of Mozambique’s health system—national or central, provincial, district and health facility. National‐level data were collected in Maputo city, the country’s capital. Sofala province, a setting with high HIV prevalence and HIV treatment demand, including a nationally recognized HIV transmission hotspot—the Beira corridor [18], was purposively selected for data collection at subnational levels. In Sofala province, two districts (one rural and one urban) and four health facilities (one small and one large in each district) were selected. Health facilities are defined by the National STI‐HIV/AIDS Programme as small when they have less than 1000 clients enrolled in HIV treatment services, and as large otherwise. The eight models being studied are described in Table 1. Differentiated service delivery models for HIV treatment implemented in Mozambique ‐ Can be implemented in isolation or combined with 3M. ‐ ARV dispensed quarterly when combined with 3M and monthly in health facilities without 3M. Members take turns visiting the health facility for clinical observation; all members must be observed and have lab tests done at least twice a year. ARVs for all group members are dispensed monthly to the group member who visits the health facility. This model requires additional staff for activities coordination and implementation. ARV dispensing depends on the ARV stock in the health facility. This model requires additional staff for activities coordination and implementation. All the appointments of the family members are schedule for the same day. The frequency of visits depends on the existence and age of children and the clinical condition of all members of the family, and can be monthly, quarterly or twice a year. All HIV services are offered in the AFHS sector of the health facility. Clinical observation depends on the client need. ARV dispensing depends on the ARV stock in the health facility. We applied purposive sampling to include at least 9–17 key informants so to satisfy the estimated minimum sample size to achieve code saturation of 90% [19, 20]. The eligibility criteria were involvement on DSD models’ management or implementation at each level of the health system, for both MISAU and implementing partners. Semi‐structured, in‐depth interviews were conducted with selected participants, including HIV programme managers from the national, provincial, district and health facility levels, and providers at the health facility level. The interviews were conducted in Portuguese, using a semi‐structured interview guide that was developed based on purposively selected constructs from the Consolidated Framework for Implementation Research (CFIR) by Damschroder et al. in 2009 [21, 22]. Questions included the perception of barriers and facilitators in general and by selected CFIR constructs, for the intervention overall and for each model individually. Interviews were audio recorded and transcribed verbatim. CFIR is a deterministic framework developed from previous frameworks and relevant theories in various disciplines [23], and is organized into five domains and 39 constructs (including subconstructs) [21]. We chose to use the CFIR given its pragmatic structure to study real‐world implementation and its applicability to guide data collection and analysis, as well as to contextualize the findings [24]. Constructs for this study were selected based on a literature review of known barriers and facilitators for DSD model implementation in sub‐Saharan Africa. Fifteen constructs from all five framework domains were included: (1) Relative Advantage, (2) Adaptability, (3) Complexity, (4) Design Quality and Packaging, (5) Cost, (6) Intervention Source, (7) Client Needs and Resources, (8) Implementation Climate, (9) Readiness for Implementation, (10) Knowledge and Beliefs About the Intervention, (11) Other Personal Attributes, (12) Planning, (13) Engaging, (14) Executing, and (15) Reflecting and Evaluating [10, 14, 15, 16, 17]. We conducted a thematic analysis using an iterative deductive–inductive approach. For the deductive analysis, we used an initial list of codes created based on the 15 pre‐selected CFIR constructs. Emerging themes (both non‐CFIR and CFIR constructs) were added to the initial list and used to code subsequent interviews. Coding was conducted on the original interview transcripts in Portuguese, using ATLAS.ti software, version 9. Two investigators (OU and AD) coded each interview transcript independently using the initial codebook and added new codes to it as they emerged from the data. A third investigator (DMU) reviewed the work of the initial coders and identified new codes and disagreements. To achieve consensus on coding, the three investigators reviewed the disagreements and when consensus was not met, two investigators (SG and CI) acted as tiebreakers. CFIR construct codes were rated as a function of valence and strength. Valence is the directional (positive or negative) influence of the construct on DSD implementation, and is marked by “–” for negative influence (i.e. a barrier), “+” for positive influence (i.e. a facilitator), “X” for mixed negative and positive influence, and “0” for a neutral code. Strength was determined by factors such as the level of agreement across participants, strength of language and use of concrete examples. The number “1” indicated weak influence and “2” strong influence in the intervention. The symbol “*” denoted the level of agreement among participants, meaning that comments were mixed—both positive and negative—and the attributed rating is an aggregated result [25]. Table 2 summarizes the code rating system. Coding rating system This study was approved by the Mozambique National Ethics Committee (634/CNBS/20) and the University of Washington institutional review board (FWA#00006878). Written informed consent for interviewing and recording was obtained from interviewees before all interviews. The names of participants and health facilities are concealed for ethical reasons.

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Based on the provided information, here are some potential innovations that could be considered to improve access to maternal health:

1. Mobile Health Clinics: Implementing mobile health clinics that travel to remote areas or underserved communities can provide essential maternal health services, including prenatal care, vaccinations, and postnatal care.

2. Telemedicine: Introducing telemedicine services can enable pregnant women to access healthcare remotely, reducing the need for travel and improving access to medical advice and consultations.

3. Community Health Workers: Training and deploying community health workers who can provide basic maternal health services, education, and support in local communities can improve access to care, especially in rural areas.

4. Maternal Health Vouchers: Implementing a voucher system that provides financial assistance to pregnant women for accessing maternal health services can help reduce financial barriers and improve access to quality care.

5. Health Information Systems: Developing and implementing digital health information systems can improve the coordination and management of maternal health services, ensuring that pregnant women receive timely and appropriate care.

6. Maternal Health Education Programs: Implementing educational programs that focus on maternal health and hygiene can empower women with knowledge and skills to take care of their health and the health of their babies.

7. Transportation Support: Providing transportation support, such as subsidized or free transportation services, can help pregnant women overcome geographical barriers and reach healthcare facilities for prenatal and postnatal care.

8. Maternal Health Hotlines: Establishing dedicated hotlines or helplines staffed by trained healthcare professionals can provide pregnant women with immediate access to medical advice, support, and referrals.

9. Maternity Waiting Homes: Setting up maternity waiting homes near healthcare facilities can provide a safe and comfortable place for pregnant women to stay before delivery, especially for those who live far away from hospitals or clinics.

10. Public-Private Partnerships: Collaborating with private healthcare providers to expand access to maternal health services can help bridge gaps in service delivery and increase the availability of quality care.

These are just a few potential innovations that could be considered to improve access to maternal health. It is important to assess the local context, resources, and needs to determine the most appropriate and effective strategies for implementation.
AI Innovations Description
The study conducted in Mozambique aimed to identify the barriers and facilitators for the implementation of differentiated service delivery (DSD) models for HIV treatment. These models were designed to optimize HIV service delivery and achieve universal coverage of HIV care and treatment. The study found that certain DSD models, such as the Fast-track and Three-month Antiretrovirals Dispensing models, were easier to implement and more effective in reducing workload. However, models like Adherence Clubs and Community Antiretroviral Therapy Groups were less preferred by clients in urban settings.

The study also highlighted the impact of COVID-19 on the implementation of DSD models. While the pandemic temporarily interrupted the implementation of group models, it also expedited the implementation of individual models by loosening the inclusion criteria. This experience can be leveraged to optimize the design and implementation of DSD models not only in Mozambique but also in other countries.

The study recommended that successful implementation of DSD models requires adequate resources and ongoing training for frontline providers. It also emphasized the importance of addressing barriers such as available resources and access to knowledge and information. Overall, the study concluded that the DSD models have advantages for both the health system and clients compared to the standard of care, but their successful implementation requires careful consideration of the identified determinants.
AI Innovations Methodology
The study you provided focuses on the implementation of differentiated service delivery (DSD) models for HIV treatment in Mozambique. While the study does not specifically address access to maternal health, I can provide some general recommendations for innovations that can improve access to maternal health. These recommendations are based on existing evidence and best practices:

1. Telemedicine: Implementing telemedicine services can improve access to maternal health by allowing pregnant women to consult with healthcare providers remotely. This can be particularly beneficial for women in rural or remote areas who may have limited access to healthcare facilities.

2. Mobile health (mHealth) interventions: Utilizing mobile technology, such as SMS messages or mobile applications, can provide pregnant women with important information about prenatal care, nutrition, and warning signs during pregnancy. mHealth interventions can also facilitate appointment reminders and follow-up care.

3. Community-based interventions: Engaging community health workers and traditional birth attendants can help improve access to maternal health services, especially in underserved areas. These individuals can provide basic prenatal care, education, and referrals to healthcare facilities when necessary.

4. Transportation support: Lack of transportation can be a significant barrier to accessing maternal health services. Providing transportation support, such as vouchers for public transportation or arranging community transport services, can help overcome this barrier and ensure that pregnant women can reach healthcare facilities in a timely manner.

5. Maternal waiting homes: Establishing maternal waiting homes near healthcare facilities can provide a safe and supportive environment for pregnant women who live far away. These homes allow women to stay closer to the healthcare facility as they approach their due date, ensuring timely access to skilled birth attendants.

To simulate the impact of these recommendations on improving access to maternal health, a methodology could include the following steps:

1. Define the target population: Identify the specific population that would benefit from the innovations, such as pregnant women in rural areas or low-income communities.

2. Collect baseline data: Gather information on the current access to maternal health services in the target population, including factors such as distance to healthcare facilities, utilization rates, and barriers faced by pregnant women.

3. Model the innovations: Develop a simulation model that incorporates the recommended innovations. This could involve creating hypothetical scenarios that reflect the implementation of telemedicine, mHealth interventions, community-based interventions, transportation support, and maternal waiting homes.

4. Input data and assumptions: Input relevant data into the simulation model, such as the number of pregnant women in the target population, the coverage and effectiveness of the innovations, and any cost considerations.

5. Run simulations: Run the simulation model multiple times, varying the input parameters to assess the potential impact of the innovations on improving access to maternal health. This could include estimating changes in the number of pregnant women accessing prenatal care, the reduction in maternal mortality rates, or improvements in overall health outcomes.

6. Analyze results: Analyze the simulation results to understand the potential impact of the innovations on improving access to maternal health. This could involve comparing different scenarios, identifying key drivers of impact, and assessing the cost-effectiveness of the interventions.

7. Interpret and communicate findings: Interpret the simulation findings and communicate the potential benefits of the innovations to relevant stakeholders, such as policymakers, healthcare providers, and community organizations. This can help inform decision-making and resource allocation for implementing the recommended innovations.

It’s important to note that the specific methodology for simulating the impact of these recommendations may vary depending on the available data, resources, and context. Consulting with experts in the field and conducting further research can provide more detailed guidance on the simulation methodology.

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