NURS FPX 9030 Assessment 3 Manuscript: Draft

NURS FPX 9030 Assessment 3 Manuscript: Draft

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School of Nursing and Health Sciences, Capella University

NURS-FPX9030 Doctor of Nursing Practice 4

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    Introduction

    The identified critical practice gap is the poor glycemic control of adult patients with type 2 diabetes mellitus, as the lack of a well-established protocolized pathway of the follow-up procedure in outpatient primary care settings leads to the lack of opportunities for receiving education and inconsistent medication reviews, as well as the introduction of complications that could have been prevented. In the site of the project, 42 out of 100 of the adult patients reported having a hemoglobin A1c level above 9, and only 36 out of 100 reported a level below 7, which are considerably higher than any nationally recommended values, which is about 22 percent of the U.S. adult patients with diabetes having poor glucose control (APRN, personal communication, November 2025). In areas of primary care, even with the clinical practice guidelines that have been developed by the American Diabetes Association, there still exist gaps in the implementation of nurse-led follow-up, staff competency, and organization of patient education. The PICOT question that will guide the project is as follows: In nursing staff and adult patients with diabetes (P), the intervention of the implementation of the ADA diabetes follow-up protocol (I) as opposed to current practices (C), how does the glycemic control impact (O) over a 8 weeks period (T)? A systematic ADA-based follow-up strategy, involving personnel development of competencies and patient self-management training, will yield clinically significant changes in glycemic results and improve evidence-based chronic disease management in outpatient primary care.

    Practice Problem

    Primary treatment of chronic diseases in an outpatient-based management necessitates a scientific, evidence-based method that helps to address the long-standing gap between the glycemic control of adults with type 2 diabetes and the laid-down health system standards. The data gathered on a site level with regard to the primary care clinic (outpatient) revealed that 42% of adult patients reported a hemoglobin A1c of more than 9 percent, and only 36 percent reported a hemoglobin A1c of less than 7 percent (APRN, personal communications, November 2025). At the national level, approximately a quarter of all adults with diabetes has a poor glycemic control, and approximately half of the world adult population with diabetes never reached a 25 centimetre (HbA1c) less than 7, which proves that the data on the site performance is high enough, by far, to meet the national health system indicators (Adjei et al., 2025; Dinavari et al., 2023). A quarter of adults in the U.S and Europe still have a hemoglobin A1C of more than 9 per cent, indicating that the metabolic control of these individuals was extremely poor. Behavioral and demographic factors have been blamed as the main causes of poor glycemic control practices in adults who are already in an outpatient diabetes clinic, indicating the need to identify the people who are at high risk of having poor glycemic control early and apply well-structured clinical intervention to regain control (Fina Lubaki et al., 2022). Quantitative information obtained on the site assists in developing a quantifiable foundation of a quality improvement intervention that is aimed at the practicum site.

    A total assessment of the current workflow, process flows, staffing patterns, and measures of care coordination within the clinical setting is necessary to effectively determine the causal factors that underlie poor glycemic control. The review of charts and documentation of EHR on site showed that inconsistent scheduling, lack of increased follow-up, and inconsistency in delivering education were part of essential process failures that led to sub-optimal glycemic outcomes (APRN, personal communication, November 2025). The absence of a standardized and protocolized follow-up pathway contributed to ad hoc scheduling, inconsistent use of EHR reminders, the lack of multidisciplinary coordination, which caused delay in timely emergency changes in medications, and the individual coloring of patients at the highest risk of complications (APRN, personal communication, November 2025). The rate of follow-up visits and EHR documentation audits further revealed systemic processes malfunctions in visit scheduling and initiation of proactive communication with patients (APRN, personal communication, November 2025). Earlier attempts to enhance the outcomes of diabetes with the help of general education sessions and regular check-ins with a telehealth provider were sporadic in terms of timing and did not include a systematic means of evaluation. Structural quality of teaching was not consistent, and the content of the teaching was not fully comprehended by patients (Dailah, 2024). In this way, a generic needs assessment confirmed the absence of a protocol-based follow-up pathway that serves as the main factor that can be affected by a practice gap.

    Chronic disease management initiatives that are part of quality improvement initiatives will demand a lot of consideration of the extent to which all the affected stakeholders are impacted to justify ending timely and systemic intervention. The main stakeholders that can be affected by the current glycemic disparities are nursing professionals, diabetes patients, and organizational managers; uncontrolled diabetes has been identified to cause the rise of hospitalization rates, frequency of healthcare usage, and long-term costs of complications of heart disease, neuropathy, and avoidable hospital admissions. Structured interventions and follow-up programs run by nurses have demonstrated significant ability to decrease levels of HbA1c and improve results on adherence, demonstrating that the timely adoption of effective evidence-based interventions was clinically inexcusable and that evidence-based interventions can lead to significant changes in HbA1c levels ranging between 0.4 and 0.9 percentage points (Sun et al., 2025). An endemic disparity in glycemic management at the national level is reported to exist, especially in vulnerable and low-income patients; therefore, the urgent need to intervene with the help of standardized methods at the project location (Centers for Disease Control and Prevention, 2024). To this end, to fill the identified practice gap, it was not only a clinical requirement but also an organizational strategic indicator to fulfill the aims of the proposed primary care mission, which is to be available and provide accessible evidence-based services to patients.

    Project Site

    The pillars to achieve organized modifications in the interventions of chronic disease management are urban-based, different outpatient primary care clinics. The outpatient primary care New York City clinic that is the focus of the project is an example. The clinic boasts of an adult patient population that has a wide variety and consists of patients of various cultural and socioeconomic groups. In the clinic, long-term conditions like diabetes and hypertension are prevalent (around 60% of patients in the clinic, APRN, personal communication, November 2025). The clinic has infrastructure such as six exam rooms, two private spaces where counseling can be done, and telehealth-enabled workstations, which provide both virtual business and patient remote monitoring features. Within the team, there are six clinical personnel (i.e., nurse practitioners, medical assistants, a care coordinator, and a health educator) and a few office workers whose responsibility is to coordinate patient care and workload requirements on patient care. The clinic aims to advance the well-being of the community through the delivery of accessible primary care services that are evidence-based and preventative health measures. Therefore, the clinic has a relevant location for a pilot quality improvement (Diabetes) project.

    Knowledge of the organizational context of the practice site will create awareness in the reader of why a quality improvement project is an appropriate and timely response to a clinical issue identified. The clinic places emphasis on continuity of care, chronic disease management, and health education. Focus on health education, care continuity, and the management of chronic conditions opens up an avenue to use a systematic process of diabetes follow-up without any significant organizational change (APRN, personal communication, November 2025). The clinic had electronic health records and was able to better document patients, schedule appointments, and keep track of their progression. It was not the first time that there was a framework that staff could educate and reinforce patients with medication; the standardized protocol would improve and not complicate existing workflows. The leadership was able to determine that practice did not match reality and resolved to give the project priority based on its capacity to have potential clinical and financial outcomes. As with previous performance measurements of quality and measures relative to value-based care and patient satisfaction measurements, leadership acknowledged that with glycemic stabilization, it would be able to boost performance metrics of the organization. The coherence of the project with the organization’s current strategic priorities made the practicum site the best location to implement the quality improvement intervention.

    In order to comprehend how the malfunctioning process had led to poor outcomes of glycemic control at the practicum site, a systematic examination of how diabetes was treated prior to the project was carried out. The leading approach in which the nursing staff offered diabetes care and education was by making regular visits to the providers, supplemented by the general coverage/verbal issue counseling methods to the patients, yet neither approach was accompanied by a similar standardized and structured follow-up procedure. As a result of the absence of a system to help in following up, there was the provision of diabetes education inconsistently, as well as unreliable communication between nurses and patients on the self-management strategies. The major process corruption issues were connected with the following: ad hoc scheduling and rescheduling, untimely EHR reminders use; the absence of a multispecialty organization; and insufficient review of patient follow-up data that would have allowed making timely changes to medications and providing the most at-risk patients with targeted education. Poor glycemic outcomes and poor compliance with prescribed self-management behaviors by patients have always been observed in unstructured diabetes care processes in outpatient settings (Heise et al., 2022). Moreover, the studies have revealed that adherence to a follow-up protocol standardization and its implementation in EHRs would lead to a decrease in missed visits, delays in the timely interventions, and a decrease in the quality of diabetes management (Sun et al., 2021). The necessity of intervention in the clinic with the evidence-based diabetes follow-up protocol was established with the help of the completion of the needs assessment, which included the extraction of the baseline data, staff interviews, chart audit data, and EHR audit data. The process failures act to underscore the urgency of implementing program on the use of a protocol-based diabetes follow-up program at the practicum site.

    Project Population

    It is imperative to have a clear definition of the population of the project so that the quality improvement interventions can be targeted and have meaningful and measurable outcomes. On the part of the project, the population of the project was defined as a population of nursing staff only giving care to the patients with type 2 diabetes in the outpatient primary care clinic, since the intervention aimed to raise the level of competency of the nursing staff in implementing the standardized ADA diabetes follow-up protocol (APRN, personal communication, November 2025). Nursing staff who participated in the project had a mixture of educational degrees, levels of clinical experience, and professional experiences; hence no universal common way of handling diabetes, not to mention patient education. At least 8-10 nursing staff members would be needed to follow up on the adherence to the standardized diabetes follow-up and assess the relevant improvement in competency levels. A comprehensive profile of the nursing staff that was developed before creating the quality improvement intervention served as a roadmap to direct, create, and enact a competency-based and viable intervention that could lead to quality improvement.

    The example outlined the clinical and professional model that can be used to prepare for the implementation of the standardized diabetes follow-up intervention by elaborating on features that the nursing staff would have in common. The nursing personnel who were included in the project had a valid registered nurse or nurse practitioner license and were directly involved in direct patient care of adult patients with type 2 diabetes in the form of a nurse-directed unit model that prioritizes education, self-management support, and following up chronic diseases as part of their core responsibilities (APRN, personal communication, November 2025). The pre-intervention findings showed that the nursing staff had different levels of confidence, knowledge, and compliance with established diabetes management protocols; hence, the level of competency of 59% in the pre-intervention period meant that an integrated structured educational program was urgently needed. The multi-disciplinary nursing team that took part in the program on the structured competency development program consisted of three nurse practitioners, two medical assistants, one care coordinator, and one health educator. Mutual professional features of the nursing personnel were a good starting point to establish a quality improvement initiative around the ADA follow-up protocol intervention.

    By defining inclusion and exclusion parameters of the nursing personnel used in the project, the project was able to have a population focus so that any input the nursing staff contributed towards glycemic outcomes would be within the scope of improved objectives. The project inclusion criteria were based on the nursing staff who provide care to adults with type 2 diabetes diagnosis; participate in patient education on diabetes, administration of medication on diabetes, and/or provision of diabetes-related follow-up as part of routine, regular clinical activities at the clinic (APRN, personal communication, November 2025). The above should not be limited to it, and the nursing staff should also be actively utilized at the project site throughout the full eight weeks of the implementation period, and should also be actively involved in engaging in clinical provider responsibilities, which have direct connections to the ADA follow-up protocol goals. Those nursing staff members who had worked in administrative roles (not working directly with patients), nursing staff in supporting roles (not working with patients), and nursing staff who had worked in temporary and/or short-term employment roles (not directly taking care of patients) were not eligible to participate in the project. The inclusion criteria, in addition to the exclusion criteria of the project, significantly enhanced the internal validity of the project and made sure that the findings of the structured intervention would give a true picture of the impact of the structured intervention on the nursing population targeted to participate in the project.

    Evidenced-Based Interventions

    It is imperative to have a clear definition of the population of the project so that the quality improvement interventions can be targeted and have meaningful and measurable outcomes. On the part of the project, the population of the project was defined as a population of nursing staff only giving care to the patients with type 2 diabetes in the outpatient primary care clinic, since the intervention aimed to raise the level of competency of the nursing staff in implementing the standardized ADA diabetes follow-up protocol (APRN, personal communication, November 2025). Nursing staff who participated in the project had a mixture of educational degrees, levels of clinical experience, and professional experiences; hence no universal common way of handling diabetes, not to mention patient education. At least 8-10 nursing staff members would be needed to follow up on the adherence to the standardized diabetes follow-up and assess the relevant improvement in competency levels. A comprehensive profile of the nursing staff that was developed before creating the quality improvement intervention served as a roadmap to direct, create, and enact a competency-based and viable intervention that could lead to quality improvement.

    The example outlined the clinical and professional model that can be used to prepare for the implementation of the standardized diabetes follow-up intervention by elaborating on features that the nursing staff would have in common. The nursing personnel who were included in the project had a valid registered nurse or nurse practitioner license and were directly involved in direct patient care of adult patients with type 2 diabetes in the form of a nurse-directed unit model that prioritizes education, self-management support, and following up chronic diseases as part of their core responsibilities (APRN, personal communication, November 2025). The pre-intervention findings showed that the nursing staff had different levels of confidence, knowledge, and compliance with established diabetes management protocols; hence, the level of competency of 59% in the pre-intervention period meant that an integrated structured educational program was urgently needed. The multi-disciplinary nursing team that took part in the program on the structured competency development program consisted of three nurse practitioners, two medical assistants, one care coordinator, and one health educator. Mutual professional features of the nursing personnel were a good starting point to establish a quality improvement initiative around the ADA follow-up protocol intervention.

    By defining inclusion and exclusion parameters of the nursing personnel used in the project, the project was able to have a population focus so that any input the nursing staff contributed towards glycemic outcomes would be within the scope of improved objectives. The project inclusion criteria were based on the nursing staff who provide care to adults with type 2 diabetes diagnosis; participate in patient education on diabetes, administration of medication on diabetes, and/or provision of diabetes-related follow-up as part of routine, regular clinical activities at the clinic (APRN, personal communication, November 2025). The above should not be limited to it, and the nursing staff should also be actively utilized at the project site throughout the full eight weeks of the implementation period, and should also be actively involved in engaging in clinical provider responsibilities, which have direct connections to the ADA follow-up protocol goals. Those nursing staff members who had worked in administrative roles (not working directly with patients), nursing staff in supporting roles (not working with patients), and nursing staff who had worked in temporary and/or short-term employment roles (not directly taking care of patients) were not eligible to participate in the project. The inclusion criteria, in addition to the exclusion criteria of the project, significantly enhanced the internal validity of the project and made sure that the findings of the structured intervention would give a true picture of the impact of the structured intervention on the nursing population targeted to participate in the project.

    • Role of the Project Lead

    The success of a quality improvement project requires strong and academic leadership that joins the domains of clinical knowledge and clinical experience, interprofessional interaction, and thinking in a systemic way throughout the entire process of the project implementation. The DNP student was to take the key role in designing a standardized ADA diabetes follow-up protocol, prepare educational resources necessary to implement the proposed protocol, set up EHR dashboards to facilitate the protocol, and organize all the logistics in the eight-week implementation (APRN, personal communication, November 2025). The principal of the project carried out a baseline needs assessment, retrieving pre-intervention HbA1c levels of the electronic health records of the involved patients, competency scores of the staff, and follow-up rates to have clear baseline measures to benchmark. To successfully lead the evidence-based project, the project lead had to be in constant communication with the organizational stakeholders, interprofessional team members, and academic mentors during the period of project implementation to ensure that they were faithful to the implementation process and that the project was scholarly. The cycles of iterative refinements of each implementation cycle were based on the plan-do-study-act (PDSA) framework so that the changes in the workflow during every implementation cycle could be data-driven and transparent (Abuzied et al., 2023). Further communication with the site preceptor, DNP faculty mentor, and the clinic leadership took place with the help of structured meetings, virtual consultations, and written progress reports reflecting the accomplishment of the implementation milestones and adaptive changes to the implementation plan (APRN, personal communication, November 2025). The ethical compliance was thoroughly observed throughout the project, CITI training certification, coordination of IRB approval, de-identification of data in a manner corresponding with Health Insurance Portability and Accountability Act (HIPAA)-compliant, and thorough procedures were also applied to ensure all participants could participate in the project. The effective combination of the academic rigor of the project leader, clinical skills, and inclusive leadership in the entire implementation process showed the pivotal role that the APRNs are going to play in ensuring the delivery of sustainable quality improvement products in the nursing practice field.

    • Roles of Other Team Members

    Quality improvement programs designed to improve the quality of outpatient primary care hinge on the ability to provide clear interprofessional team roles and fairly distribute responsibilities among the team members, in addition to improving coordinated delivery by all the components of the intervention. The preceptor on the site acted as the clinical supervisor and APRN and was directly involved in the overall supervision of implementing the protocol, and served as the primary connection between both the DNP student and the leadership at the organization in the entire eight weeks of the project (APRN, personal communication, November 2025). The clinical assessments, interviews with individual patients to offer education and counseling, and help the patient achieve ADA-suggested follow-up standards during every biweekly visit were facilitated by Nurse Practitioners. The role clarity among quality improvement teams has been found to always enhance shared accountability and enhance fidelity to providing evidence-based intervention (Hempel et al., 2022). The care coordinator would take care of scheduling, telehealth logistics, enable reminders within the EHR, and follow-up attendance to maintain follow-up rates that are higher than the predetermined levels. The health educator gave individuals who were enrolled in the program (with various language and health literacy needs) culturally specific patient education materials. Every member of the team was aware and trained to follow a specific role in the project to provide consistency, accountability, and alignment with the objectives of the project, which were evidence-based at all levels of implementation.

    To ensure implementation fidelity and scholarly rigor throughout the life span of a quality improvement project, all the team members should have different and complementary roles in delivering the project. Patient vital signs were recorded by medical assistants, education materials were prepared, and further facilitated their communication with the patient, and documented the clinical data at the end of every biweekly visit with the EHR. All education sessions featured nurses, standardized elements of the ADA follow-up protocol when visiting a patient, and the fidelity checklist for every patient visit. The role of interprofessional collaboration and formal communication networks in further success of quality improvement initiatives in primary care is quite well realized (Dellafiore et al., 2025). Sharing all the roles of team members makes their compliance with the protocol of the implementation process stronger and helps to detect as quickly as possible any obstacles to the implementation process (Grant et al., 2024). The DNP faculty mentor was also involved in offering academic consulting services to the DNP student throughout the entire implementation years, through reviewing the reports kept by the DNP student. The interdisciplinary team members also used to meet with the stakeholders on a biweekly basis so as to maintain communication, transparency, and cooperative problem-solving in the project team.

    Literature Synthesis

    An intensive and methodical literature search plan will underpin the process of recognizing high-quality, relevant evidence with a direct answer to the PICOT question that will drive the quality improvement project. The PICOT question: How does the implementation of the ADA diabetes follow-up protocol (I), in contrast to the existing practice (C) in nursing personnel, who work with adult patients with diabetes (P), influence the glycemic control (O) in 8 weeks (T)? To answer the question in detail, several databases (PubMed/MEDLINE, Cumulative Index to Nursing and Allied Health Literature (CINAHL), Cochrane Library, Web of Science, Scopus, and ProQuest Dissertations and Theses) were searched. The databases were picked to include evidence of peer review, clinical practice guidelines, and applicable doctoral projects on the topic of nurse-led diabetes control and ADA rule enforcement in a range of outpatient frontline care facilities. Medical Subject Headings (MeSH) terms that were included were: diabetes mellitus, type 2 diabetes, glycemic control, HbA1C, nurse-led interventions, ADA guidelines, diabetes follow-up, self-management education, and primary care. Structured combinations of the use of the Boolean operators were made: (type 2 diabetes AND/OR diabetes mellitus) AND (nurse-led AND/OR nursing intervention AND/OR diabetes self-management education) AND (ADA guidelines AND/OR clinical practice guideline AND/OR follow-up protocol). A properly designed and systematically implemented search strategy is one that guarantees that the evidence that has been retrieved is representative, repeatable, and directly related to the issue of clinical concern being investigated.

    The results of preliminary database searches included 362 records in all the databases accessed. Once 54 duplicate citations were removed, 308 unique articles were screened using title and abstract reviews, which were done using predefined inclusion and exclusion criteria laid down. Peer-reviewed English-language publications in the past 1-6 months (since January 2021) with adult populations, nurse-led interventions or structured follow-up procedures, and quantifiable glycemic measures (such as HbA1c) were considered inclusion criteria. Pediatric groups, those with only inpatient acute-care interventions, non-clinical commentary, and those that did not have measurable HbA1c or glycemic control measures were excluded. The search in the reference lists of systematic reviews, clinical position statements, and the publication of the Standards of Care of ADA by hand revealed another 11 relevant sources that have not been identified by the searches within databases. The gray literature search included governmental publications, professional standards of diabetes associations, and doctoral dissertations studying nurse-led models of diabetes management in an outpatient environment. Clear and methodical screening does enhance the credibility and academic excellence of the evidence synthesis obtained.

    A full-text search was first filtered using relevancy to the PICOT focus, methodological rigor, and quantifiable glycemic outcome to select 20 sources to include in a synthesis and evidence table. The quality and applicability of the methodology and clinical applicability of each study that was retained were systematically evaluated using the strength of recommendation taxonomy (SORT) framework (Duke University, 2023). The framework placed an emphasis on patient-related outcomes like reduced HbA1c level, and prevention of complications and hospitalization. Seven studies were graded with the SORT Level A criteria considering the high-quality of randomized controlled trials, systematic reviews, and meta-analyses. Ten articles were rated as Level B since their research studies were well-designed comparative effectiveness research, quasi-experimental studies, and cohort studies. There were three studies that obtained Level C designations that incorporated clinical practice guidelines, quality improvement projects, and narrative reviews. The analysis of the quality of the evidence supported the power of moderate-to-high quality evidence in the validity of structured nurse-led, diabetes follow-up interventions in accordance with the standard of clinical practice as proposed by ADA in a variety of outpatient settings.

    • Analysis of Evidence

    Thorough evaluation of the 20 studies that were retained indicated consistent and convergent evidence about the use of nurse-led application on implementation of ADA-congruent diabetes follow-up protocols as an effective intervention in enhancing glycemic control, self-efficacy, and self-management behaviour in adult patients with type 2 diabetes. The magnitude of the effect found in studies was moderate and also clinically significant. Comparative studies showed a reduction in HbA1c ranging between 0.25% and 1.69 by the PICCs led by the nurse, which represents significant metabolic changes compared to alternative care (Asmat et al., 2024; Chen et al., 2025; Koo et al., 2024). Evidence yielded standardized mean differences of -0.468 (95% CI -0.658 -0.279), which were pooled standardized mean differences produced through structured diabetes self-management education and support programs. The mean difference of telephone-based nurse follow-up protocols was found to be -0.59 (95% CI -0.85 to -0.34) in different clinical groups and contexts of delivery (Yimer et al., 2025; Chen et al., 2025). New technology-enhanced systems of delivery, such as telehealth visits, structured tele-coaching, and peer-soothed instant messaging, showed clinical equivalence to conventional, face-to-face follow-up. The modalities increased the accessibility of the patients, their engagement, and compliance with self-monitoring protocols significantly. The level of consistency in results of the two different study designs and in different geographic settings boosts the level of confidence regarding the clinical relevance of the nursing-led interventions in diabetes follow-ups.

    The evidence gaps determined throughout the literature that had been retained were gaps in data on the most effective follow-up frequency protocols and a lack of longitudinal outcome data after twelve months. Ongoing obstacles to the ongoing use of ADA guidelines were also found, such as a lack of knowledge among providers, fragmented workflow, and poor institutional responsibility frameworks. The results of the ADA guideline adherence and clinical practice standards, nurse-led interventions and staff competency development, interventions to support diabetes self-management education and maintain diabetes self-management, and technology-enhanced diabetes care and remote follow-up protocols constituted four interrelated themes of the analytic synthesis. All themes represent a different aspect of evidence-based, but when combined together, would reaffirm the complex nature of solutions needed to deliver clinically meaningful and organizationally viable change in glycemic control. The evidence gaps identified help facilitate the academic and practical value of the process of a structured and protocol-based quality improvement initiative in an outpatient primary care facility. Thematically structured analysis of results facilitates a systematic study of how various and yet interdependent aspects of intervention, when combined, tackle the complexity of managing outpatient diabetes treatment.

    • Theme 1: The Standards of clinical Practice and ADA Guideline compliance

    Compliance with the standards of clinical practice determines the possibility of developing successful glycemic control among the outpatients who are provided with primary care; the compliance forms the structure of the care organization. ElSayed et al. (2022) discovered that at a compliance rate higher than 89.8 the proportion of the population that actually had achieved target levels of the HbA1c levels was greater than the proportion of the population who had actually achieved target levels of both the GLP-1 receptor agonists and the SGLT2 inhibitors, but inconsistent adherence to the prescribing of both GLP-1 receptor agonists and SGLT2 inhibitors was strongly attached to the proportion of the population with sustained poor metabolic results. Tiwari and Aw (2024) acknowledged that certain challenges posed by inefficiency of workflows and lack of knowledge among the providers were the reasons behind some of the biggest impediments to the routine performance of guidelines that would assist in medication therapy and frequent monitoring. Overall, the results of the study show that the factors that limit the successful use of the ADA guidelines and the provider level effectively address the factors particularly favourably; the providers of the nursing interventions based on the provider level possess a more promising opportunity of tackling the factors. The ADA-based follow-up systematized into the nursing guidelines presented in a systematic treatment approach will allow improving the process of turning the published guidelines into measurable and equal patient outcomes.

    Problems The translation of evidence-based recommendations into the nursing processes that are in compliance with ADA requirements will convert clinical significance into clinical changes, which are clinically valuable. Abukhalil et al. (2024) showed that the implementation of an ADA-based follow-up pathway in a patient-centered medical home caused an average of 0.74-point reduction in HbA1c in the enrolled patients, p < .01, and an increase in the prevalence of the percentage of prescriptions of antihyperglycemic guidelines made in the enrolled patients. The results were substantiated by Chen et al. (2025), who got a 1.02 per cent reduction in HbA1c level with p < .001 at week twelve, as a result of the activity, organization of adherence to ADA follow-ups, and a medication review by nurses. Collectively, the studies demonstrate how the use of organized nurse-led follow-up of adherence to ADA guidelines in outpatient primary care is associated with its consistent and significant clinical outcome of decreasing glycemia.

    One should not only abide by the guidelines to obtain great glycemic control without any additional system of reinforcement, accountability, and constant monitoring. Interventions relying on the adoption of guidelines that are not reinforced with well-organized reinforcement have diverse results (Sun et al., 2025). Therefore, follow-up and regular follow-up by the nurses still need to be conducted in order to bolster the implementation of the protocol. These data and personalized measurements have been established by ElSayed et al. (2022) as only 23% of adults at a population level simultaneously reached the target level of HbA1c, blood pressure, and lipid levels and met the criteria of nonsmoking during the data collection period, showing that the control of diabetes is a complex phenomenon including numerous variables, and the means of reaching the norms by combining a single component with the guidelines is not capable of covering all the variables. Report by Tiwari and Aw (2024) indicated that there were provider-level gaps in knowledge post-new diagnostic hierarchies and point-of-care testing requirements, yet the new guidelines could be practiced; thus, providers were unable to be consistent in using the new guidelines in practice. Abukhalil et al. (2024) have also found that the adherence rate to preventive screenings and the gap in pharmacotherapy are low rates among patients with diabetes, so implementing guidelines should be a whole-clinical-area effort, and not the implementation of selective pharmacotherapy. The ADA standards need to be incorporated in a nurse-based accountable system to achieve sustained glycemic control, incorporating systematic teaching, ongoing evaluation, and follow-up with individual patient systematic professional care on all aspects of diabetes management.

    • Theme 2: Interventions and Competency Development of the staff that is nurse-led

    The evidence-based methods that the nurses organized the models of care as a way of improving the glycemic control with constant interaction with the patients and interprofessional organisation. A study conducted by Dailah (2024) confirmed that diabetes education programmes administered by nurses led to positive change in patient knowledge, self-management, psychological, and HbA1c levels because of permanent education and encouragement of patients by nurses, since they had frequent contact with patients. Jiang et al. (2024) built on the results to provide statistically significant changes (p < .001) in patients who get nurse-led follow-up and for diabetes knowledge, anxiety, depression, and self-care activities compared with patients who receive traditional care after six months of systematic interaction. Aldahmashi et al. (2024) have shown that multifaceted educational interventions targeting nursing competencies often deliver improvements in HbA1c level, blood pressure, and lipid levels in patients with clearly-defined roles and designed training of their nurses. Therefore, nurse-led interventions are homogenous and multidimensional in potential outcomes to offer improvement in the patient outcomes when implemented in a practice environment where nurses can exercise autonomy and clinical responsibility in terms of quality of care delivery.

    The advancement of employees’ skills enables a mechanistic connection between nursing practice and uniform service provision of patient-centered diabetes care at outpatient care settings. The recent study carried out by Aldahmashi et al. (2024) implied that a particular education created a positive shift in the nurse confidence rates to use the ADA protocols and revealed the favorable impact of the specified approach on the adherence rates to the glycemic monitoring set of procedures and patient education levels during the follow-up session. By demonstrating that ADA protocol-based follow-up care provided within the context of team-based primary care led to an increased level of concordance in prescribing/taking medication, better care coordination processes, and the average reduction of 0.74% in participants’ HbA1c level, Abukhalil et al. (2024) confirmed the systemic benefits of integrating competencies. Having nursing involvement was mentioned as another important contributing factor to better outcomes related to ADA-based care. Dailah (2024) discovered that approximately one-fourth of the hospitals lack Diabetes Inpatient Specialist Nurses, which contributes to knowledge and care gaps; hence, increasing the capabilities of outpatient nursing skills development would counterbalance the lack of inpatient clinician/nurse provision of diabetes resources. The fact that nurse-led care, which incorporated structured educational courses and the development of other types of interaction with patients, provided much more positive outcomes, was supported by Jiang et al. (2024), though the control group received support for extra physical activities. Further investment in nursing development is directly related to the improvement in standards and uniformity of the glycemic results obtained in different outpatient facilities.

    Interprofessional cooperation and clearly defined roles of a nurse would promote clinical efficacy of nurse-based interventions to manage diabetes through augmenting the coordination capabilities of major health care organizations. Jiang et al. (2024) showed that the programs, led by nurses and employing structured educational intervention and multi-modal engagement strategies, decreased the level of symptoms of anxiety and depression and increased glycemic control, which proves that the intervention led by nurses is multifaceted and should rely on holistic and protocol-driven work. Education, collaborative practice, program design, and documentation review are four key roles of nurses in optimal diabetes programs developed by Aldahmashi et al. (2024), and have all been demonstrated to aid in adherence to diabetes clinical practice guidelines and patient safety, in general. Abukhail et al. (2024) affirmed that reception of nursing-led post-visit follow-up in patient-centered medical home (PCMH) models resulted in systemic benefits other than that of the individual visit, where prescribing practices and care coordination at the clinic became better. As years of consecutive office visits lasted with contact with the patient, Dailah (2024) measured greater ability of nurses to provide prolonged diabetes education that includes continuation of motivation and reinforcement as compared to other health care providers. The joint effort of the nurses results in good outcomes all over the management aspects of diabetes that could otherwise only be achieved by disciplines operating separately, but interprofessional teams are facilitated by a set of structure-developed teams.

    • Theme 3: Diabetes Self-management Education and Interventions

    Support programs and structured diabetes self-management education programs are the main tools containing nurse-led follow-up through which clinical recommendations of the clinical environment may be implemented with the aim of achieving long-term clinical effects (physiological and behavioral). A multi-center, randomized controlled trial demonstrated that in a patient-centred self-management intervention, participants in the intervention group attained statistically significant mean improvement in HbA1c (0.25% (p =.03)) as well as in vastly different mean improvements in self-efficacy (41.48, p <.0001) and self-care behaviours (18.56,p <.0001); better mediation analysis revealed that the behavioural improvement was the primary contributor to the glycemic improvement. The results were supported by a systematic review and meta-analysis of 19 randomized controlled studies by Yimer et al. (2025), which revealed a statistically significant effect of structured DSMES on HbA1c (SMD = – 0.468, 95% CI – 0.658 -0.279, p < .001), which proved that compared to usual care, structured DSMES can be sure to yield better glycemic changes. Patient-focused educational interventions that include personalised counselling and positive feedback generate regular enhancements in the ability to self-control and clinical glucose indicators.

    The duration of the programs, their intensity, and consistency in their structure are significant factors that define the likelihood of delivering clinically significant and sustained outcomes for patients. Huang et al., a systematic review and meta-analysis of 34 studies that looked at 7,603 individuals published by Fracso et al. (2024) have reported how self-management interventions with longer than 6 months of intervention have yielded much more significant improvements in quality of life, with self-efficacy increasing uniformly across intervention durations (95% CI 0.19–0.62, p < .001) and depressive effects reducing uniformly across programs. In equal measure, Fracso et al. (2022) presented qualitative data in agreement with the rest of the findings by showing how the continuity of the experience in the Chronic Disease Self-Management Programme radically changed the motivations of the patients, their feelings of being a part of the community, and their self-improvement needs, which seemed not to be achieved with the help of a short informative intervention. Chen et al. (2025) built on the findings by demonstrating that adding bi-weekly follow-up care consisting of telephone coaching to nurse-led care, coupled with the rise in self-efficacy and frequency of blood glucose monitoring (BGM), mediated physiological improvement through behavioral activation pathways. Sustainable contact, systematic reinforcement, and longer life span of intervention are design aspects of DSMES to attain results going far beyond the active intervention stage.

    The effectiveness of the culturally responsible and contextually-oriented DSMES content has been a consistent way of improving the effectiveness of the programs and delivering fair glycemic results to various groups of patients. Yimer et al. (2025) indicated that the studies included showed a great heterogeneity (I 2 =85.5), explaining the difference in the effectiveness of the DSMES program by cultural adaptations, educator training, and the tailoring to the included population with a certain level of health literacy. Sun et al. (2025) suggest that contextually adapted versions of DSMES achieve higher efficacy than non-contextually adapted ones, and culturally adapted content to meet the dietary, medication timing, and health beliefs of the targeted population is a prerequisite and core element of an effective program design and not an added or moderating effect. Asmat et al. (2024) not only supported the assumption that culturally-specific, nurse-based, theory-based interventions result in sustainable changes, which are mediated by self-efficacy, but they also explained the mediations of behavioral changes as 23.2 out of the variance of outcomes. Thus, the interdisciplinary culturally responsive instruction, gradual reinforcement, and follow-ups are the key elements of having the highest impact on the DSMES and providing equal glycemic outcomes across patient groups.

    • Theme 4: Technology-based Care and Remote Telefollow Diabetes Management

    Using a technology channel to offer services will also make it more accessible and offer more scalability opportunities towards offering nurse-led diabetes follow-up care features based on traditional face-to-face follow-up models. The fixed mean changes in HbA1c that were attributed to the use of telephone interventions by nurses led to a longitudinal meta-analysis of 13 studies with the total sample size of 2294 provided by Chen et al., (2025) indicated that the optimal change in HbA1c is -1.23 (p < .001) with the fixed mean change of -0.59 (95% CI -0.85 to -0.34) attributed to the 16 contacts each take 20 to 25 minutes in half-month intervals. The results were confirmed with a real-world longitudinal cohort study with 24 months of follow-up that had proven persistent, though, a slight, reductions in HbA1c with an initial reduction of 1.63% to show 1.23% at the eighth visit of the programme, that maintained an average HbA1c level between 7.33% and 7.62% over the period of observation to confirm the results set by Koo et al. (2024). The results confirm that technology-based protocols of follow-up care led by nurses are properly designed due to frequent nurse involvement and engagement, which gives clinically significant and long-lasting results in terms of glycaemic control in patients.

    There is longitudinal evidence to support the claim that the technology-enhanced nurse-led follow-up care models not only lead to short-term improvements in HbA1c, but the gains are longer serving terms over longer follow-up periods as compared to most such shorter trial models. A systematic review of nurse-led interventions of telemedicine used by Ezeamii (2024) reported a statistically significant outcome of chronic disease management when nurse-led telemedicine was used as opposed to face-to-face visits; it also revealed a statistically significant increase in access and patient satisfaction when telehealth technologies were applied to surmount barriers related to geographical location and or transportation to usual follow-up visits related to in-person follow-up care. Graue et al. Kamal et al. (2023) have discovered through a twelve-month follow-up duration of an empowerment-based intervention of interprofessional follow-up that as compared to the control, there are significant between-group differences in glycemia (B = -8.6 mmol/l, 95% CI -17.1 to -0.1, p =.045), a significant decrease in weight and waist circumference across groups, but judging by the qualitative data, patients would have needed more time than the researchers subjected to the experiment to translate the increased awareness into unrestricted action. Once again, Sun et al. (2025) confirmed the scalability of digital delivery to underprivileged populations or even remote areas and emphasized that improved technologies could be used to facilitate interaction with patients using structured reminders and automated messaging and even virtual visits, making the process more approachable by eliminating barriers. With appropriately calibrated protocol parameters that are rigidly followed with sufficient follow-up-care support facilitated by technology, extended periods of glycemic control are possible.

    Although good results are repeatedly witnessed, obstacles to implementing technology-based models of diabetes follow-ups require conscious efforts to promote fair and efficient dispersion across all groups of patients. Ezeamii (2024) discovered that the insufficiency in digital literacy, unpredictable access to technology, and disparities in socioeconomic status are still challenging the effectiveness of telemedicine; thus, vulnerable groups might face higher risks of not being included in models of remote care or can experience fewer benefits. Graue et al. (2023) discovered that it might not be sufficient to have twelve months of remote intervention based on empowerment to have measurable changes in the patient levels of activation, so individual readiness to undergo behavioral change may be necessary instead of specific protocol criteria to assess endpoints. According to Chen et al. (2025), a very high level of heterogeneity (I 2 = 87) was found in the studies reviewed to date on telephone interventions, meaning that different studies vary in issues such as protocol design, population chosen, and outcome measures design, which made it not possible to compare effectiveness estimations across studies directly. Sun et al. (2025) cautioned that since the population heterogeneity in embracing digital interventions and the extent of patient engagement vary, remote care models need to be contextualised instead of being applied in the same way by applying homogenous models. To deliver effective and fair technology-enabled diabetes services, one should focus on the differences regarding digital platforms, standardizing guidelines, and ensuring that people receive consistent high-quality monitoring and attention by nursing, irrespective of their population differences.

    • Synthesis of Findings

    In determining the evidence on different types, a general concluding finding was that outpatient primary care-based clinical action, like the designing of structured nurse-administered follow-up interventions on diabetes, may be based on clinically actionable evidence. Among the twenty studies that fit the inclusion criteria, all studies shared a common result in showing an overall positive direction (improvement) in HbA1c results in people with diabetes, regardless of the type of delivery models, geographical areas, and type of studies done. The size of the effects covered a wide spectrum, spanning small to moderate, short-term HbA1c reductions of 0.25% through RCTs and strong, effective HbA1c reductions of over 1.5% through large structured longitudinal diabetes interventions (Asmat et al., 2024; Koo et al., 2024). The adoption of one intervention package, which implies compliance with ADA principles, competency training under nurse supervision, patient education with the center, and post-discharge follow-up with the use of technologies, will yield better and more long-term HbA1c results as compared to the application of all the individual elements (ElSayed et al., 2022; Sun et al., 2025). Thus, there is a need to create and apply a multifaceted protocol in the outpatient care of diabetes to attain the clinically significant, sustainable glycemia outcomes in the outpatient settings.

    Besides the synthesis of evidence obtained confirming the relevance to the proposed quality improvement project, the review of the available body of research found that it still has significant gaps, requiring quality improvement in the field. First, the methodology of evidence synthesis initially went beyond the simple guidelines of adherence towards meta-analytic synthesis; the longitudinal literature available in terms of HbA1c outcomes was not more than twelve (12) months, and there was little standardization of follow-up frequency and/or acquisition procedures, few cost-effectiveness analyses, and little consideration of culture-specific needs in line with access to technology-enhanced service delivery models. Thus, various contextually specific implementation studies that have succeeded in methodological quality evaluation due to rigorous assessment are needed to further measure the outcomes in a diversity of outpatient care (American Diabetes Association, 2024). Gaining coverage in the body of research and helping towards the attainment of practice objectives relating to sustainable, nurse-led management of chronic diseases, evidence gap closure will contribute to the evolving body of literature.

    Implementation Plan

    A logical, step-by-step, systematic plan should be drawn and strictly followed in the execution of the structured quality improvement intervention to guarantee fidelity, replicability, and consistency of the project across all of its phases. The implementation process was carried out in eight weeks, with a phased implementation approach, with the initial 2 weeks, where baseline data of HbA1c level, follow-up rates of patients, and competency score of the nursing staff (measured with the help of competency checklists) were taken out of the electronic health record (EHR) system to provide a starting point of measurable pre-intervention levels. The quality improvement models typically focus on the fact that gathering rigorous baseline data is crucial to quantify the effectiveness of the intervention and to detect some critical clinical change in the long term (Lighterness et al., 2024). Properly set pre-intervention benchmarks can help project teams detect the areas of performance gaps in meeting the objectives, feasible targets, and how to monitor them against the organizational objectives (Willmington et al., 2022). Weeks three and four were devoted to the achievement of a structured staff education through providing the participants in nursing with instructional activities dealing with not only Diabetes Pathophysiology, the ADA regulations of diabetes management, and principles of medication reconciliation and documenting in EHRs by simulation and case-based learning, but also providing them with the peer mentor workshops. All nursing members completed both competency checklists and knowledge tests pre- and post the actual session completion of the education sessions to ensure every member of the nursing staff had scored at least 80 per cent of their competencies before being offered the opportunity to deliver the patient-facing section of the intervention. The instructional and training framework supported in phases ensured that every next part of the intervention would have accountability, consistency, and a measurable level of fidelity throughout the eight weeks during which the implementation of the interventions happened.

    In order to ensure fidelity of implementation for the rest of the weeks, continuous monitoring and iterative changes were offered based on systematized interprofessional collaboration relying on the PDSA approach. In weeks five and six, an organized two-week follow-up visit with patients, ongoing telehealth visits with patients who proved to experience difficulties with transportation, and midpoint competency assessments of the nursing staff, formative assessment data were used to implement the adaptive changes to the educational delivery strategies in case protocol compliance or patient engagement was confirmed to be wanting. Extensive research indicates that real-time performance monitoring can also be employed as part of quality improvement efforts and enables the identification of implementation barriers at early stages of the initiative and scientifically-based corrections in performance (Lighterness et al., 2024). The organized interprofessional collaboration and communication networks are typical features in the sustainment of quality improvement in primary care facilities and chronic disease management in particular, with diabetics (Sze et al., 2025). The tracking systems, made possible by the use of EHR, were actively managed and followed during weeks seven and eight to plan the following visit, identify unattended patient visits, centralize HbA1c results, and develop performance dashboards, enabling real-time tracking of the process-related indicators, as well as outcomes at the practicum location. The review of structured checklists in week eight was used to confirm completion of follow-up activities per patient, as well as fidelity of each process, and all patient-related outcomes data (glycemic, competency, and behavioral domains) were thoroughly reviewed via an extensive outcome review procedure. The intervention was also responsive to the evidence-based practice since a structured, iterative, and eight-week implementation plan was applied in it, and could yield clinical improvements in the glycemic control of the practicum site.

    Conceptual Model

    Quality improvement frameworks give the building blocks needed in the implementation, evaluation, and enhancement of evidence-based interventions via systems of iterative processes and iterative learning/adjustments. The PDSA model was selected to guide the project due to its success in the management of chronic diseases (BARR & Brannan, 2024). The PDSA has its roots in both the quality improvement theory by W.E. Deming and the process improvement in the form of iterative learning/refining with respect to complex systems. Quality improvement models with cyber-loops of cycle evaluation are repeatedly demonstrated to be effective with chronic diseases (Endalamaw et al., 2024). During the plan phase, the team developed poor glycemic control in 42% of adult patients to be the main area of interest, developed outcome benchmarks to be measured, and drafted a structured ADA diabetes follow-up protocol and staff development program on staff competency. The team implemented the intervention by establishing simulation-based staff training interventions, bi-weekly follow-up visits with patients (including telehealth), and switching on EHR dashboards at all stages of the intervention. Due to the PDSA evidence-based and iterative design, all the decisions on implementation would be made based on objective data and would lead directly to the overall goal of reaching a more sustainable level of glycemic control via standardization of the nurse-led protocols.

    The PDSA stages offered the assessive/adaptive aspect of the PDSA model to ensure fidelity/ quality of the intervention and enhanced learning throughout the eight weeks of implementation. Bi-weekly analyses reflected through formative data that included HbA1c trends, staff competency scores, follow-up visit completion rates, and EHR recording mistakes were performed to assess progress to established goal thresholds and work on adaptive strategies to any barriers that were being revealed during the review of results as the study phase. The iterative nature of the PDSA model is based on the flexibility to respond dynamically to challenges in the implementation and application of evidence to revise the original protocol as it uses measured evidence as a starting point (Brownson et al., 2022). The effective use of cycles of PDSA in the structured diabetes management programmes led by nurses achieved an HbA1c mean reduction of 0.5%-1.0% with organized workflow testing and iteration cycles in protocol development, compared to the existing project (Konnyu, 2023). The act phase leveraged lessons learned in the form of formative analyses to improve the delivery of adult education content, to make systematic changes to how workflows were scheduled, and to reinforce the telehealth outreach to those currently experiencing decreased engagement, institutionalising successful methods in the routine clinic workflow after the implementation. The flexibility of the PDSA framework, quantifiable processes, and feedback systems only enhance the crucial suitability of PDSA as the quality improvement tool that will guide the project and its capacity to repeat, quantify, and long-term maintain gains to outpatient glycemic management.

    Data Collection and Analysis

    To achieve evidence-based, interpretable, and clinically meaningful outcomes of quality improvement projects, it is critical to select the appropriate design and rigorous data collection processes. The design of the project was a pre-post evaluation to collect baseline and follow-up data of all 20 patients with type 2 diabetes and 8 members of the nursing staff at the facility. One of the most utilized and accepted methods to determine the effectiveness of a well-organized intervention in a real-life setting of a healthcare quality improvement is the pre-post design that offers a pragmatic and viable means of comparing the results of the same group of participants at pre-established time periods (Klaic et al., 2022). All quality improvement activities relying on the pre-post design in managing chronic diseases in an outpatient environment are always sensitive enough to identify clinically significant positive impacts on patient outcomes (Lee et al., 2022). The level of HbA1C, the adherence rate of following up with nursing staff, and competence assessments of the nursing staff of the facility were all taken within the electronic health record of the facility prior to the start of the intervention, such that all of the measures of the post-intervention could be compared to a specific, measurable standard. The project was not initiated without receiving the support of the Institutional Review Board, and all the HIPAA compliance measures concerning the confidentiality of the participants and the coding of their names to use with data collection and analysis were observed. This was achieved through the project as a result of its high-quality pre-post design and uniformity in extracting baseline data, which resulted in credible, comparable, and clinically interpretable outcome evidence based on accepted quality improvement research methodologies.

    Determining suitable measures and using valid/consistent instruments of record are crucial pre-requisites to credible and reliable evidence of quality improvement, to both clinical and non-clinical operations. The main outcome measure was the average level of HbA1C at baseline and week 8 using point-of-care testing, which was included in the electronic record system of the clinic. The clinically significant change in HbA1C level of a patient was explained as a decrease in the level of at least 0.5 percentage points of HbA1C viability of a patient following the organized follow-up method put down by the American Diabetes Association (Tiwari & Aw, 2024). Quality improvement study, both pre and post-project, should utilize measurement instruments that have been established to be of high content validity and measurement reliability to establish that outcomes are a valid measure of the effectiveness of a structured intervention. The valid and reliable outcome measurement tools played a crucial role in the evidence base of the quality improvement entity in making clinical decisions, improving protocols, and planning sustainability (Gabriela et al., 2025). The other outcome measures entailed as the secondary outcome measures are: Competence examination level of the nursing staff, which was measured by the use of a valid instrument of diabetes management competence assessment instrument, which measured the competence level of the staff before and after training. Percentage of follow-up visits completed, registered in the electronic health record system, with the help of scheduling audit logs. Self-management of diabetes is measured with behavior checklists that are structured to determine insulin adherence levels and frequency of blood glucose monitoring through patient involvement. All of the measurement tools were subject to an expert panel review prior to implementation in order to ensure content validity and remove guidelines about the use of the same data collection procedures at all of the measurement time points throughout the 8-week project to ensure that the results obtained would be trustworthy and valid findings. The overall choice of most of the primary and secondary outcome measures across glycemic, competency, and behavior domains will give a comprehensive multidimensional perspective of the intervention.

    Ethical Considerations

    Ethical considerations should be taken into careful consideration when designing quality improvement projects, not only to protect participants and to keep the data confidential, but also to guarantee institutional adherence at every stage of the process (i.e., during planning, implementing, and evaluating). Before the project was implemented, an Institutional Review Board (IRB) assessment of the project was conducted, and found that the quality improvement project was not judged to be Human Subjects Research. As such, the IRB ensured that the project was not to be reviewed entirely by the IRB due to the fact that it aimed at enhancing practice as opposed to generalizable knowledge measurement (APRN, personal communication, November 2025). The quality improvement projects of health care institutions usually ought to be considered as Not Human Subjects Research when a project aims to improve the already existing care processes, utilizes retrospectively gathered clinical data, and employs evidence-based practices. Just checking that the institutional review standards and the federal ethics regulations have been observed is inadequate in fulfilling ethical requirements in the implementation of a quality improvement project led by a nurse. Moreover, and when it comes to ethical compliance, all data collection procedures and methods, the recruitment/consent processes, and outcome reporting processes have to address the established guidelines of the IRB review, hence, all Collaborative Institutional Training Initiative (CITI) certification criteria must be fulfilled before project leader can conduct quality research that will regard the ethical standards of IRB practice in the clinical setting (APRN, personal communication, November 2025). The ethical framework of all actions connected with data collection, analysis, and reporting was the IRB determination, and all the necessary CITI certifications that provided the ethical frameworks used in the project implementation (8 weeks). As the project was being implemented, adherence to the existing codes of ethics of practice supported the development of the participant trust, institutional integrity, and scholarly credibility in all stages of the implementation and analysis of the result data.

    Keeping the patient information secret and finding a place to store all the documents and information related to the project are two of the main ethical issues involved in all the stages of undertaking a quality improvement initiative. All identifiers of patient data collected in the context of the quality improvement project were coded with unique coded identifiers to make sure that no patient data could be identified in the documents, results, or publication of materials produced during the 8-week implementation period of the project before the actual data extraction, analysis, or reporting process took place. According to the HIPAA requirements, all individually identifiable health information (IIHI), which has been gathered as a part of a quality improvement program developed within a health care environment, needs to be de-identified, kept safely, and only available to authorized individuals (CDC, 2024). De-identification of IIHI in quality improvement projects is a critical aspect of ethics and, in a bid to facilitate individual privacy rights, as well as adhering to federal regulations in protecting confidential information (Lulamba et al., 2025). All the electronic data, as well as competency assessment records, were saved in encrypted and password-protected devices, which could only be accessed by the project lead, site preceptor, and the designated project personnel, whereas all hard copy data were locked up in cabinets and could be accessed only by the clinic during the 8-week implementation period (APRN, personal communication, November 2025). Compliance monitoring: Weekly, compliance with all de-identification processes would be checked, and any breach of the prescribed compliance procedures would be immediately corrected to maintain data integrity and to stay compliant with institutional standards. The strictness of all the data security and de-identification procedures ensured that the project presented the best ethical practices and gave plausible data to promote sustainable quality enhancement in outpatient diabetes management.

    Project Results

    It is crucial to communicate the importance of the quality improvement intervention (QI) to all stakeholders in an organized, evidence-based manner during the project results presentation. The first key finding indicated that the clinically significant change in HbA1c of 1.52 percentage points in eight weeks was a baseline of 9.95 to a post-intervention level of 8.22, a statistically significant improvement compared to the success benchmark of 0.5 percentage points prior to the QI intervention. Out of the total, 89.2% of the planned follow-up appointments were completed within the eight weeks of the QI intervention implementation, which corresponds to the fact that the patients were interested in the organized ADA diabetes follow-up schedule. Also, the fact that the patients and the nursing staff completed the bi-weekly follow-up visit schedule confirms the possibility of the existing operations to accommodate the bi-weekly visit schedule. Only 10% of the patients who participated in the study reached <7% HbA1c by the conclusion of the eight-week intervention; hence, although the glycemic improvement was significant, it was likely due to a range of other intervening factors, such as a continuation of the intervention after the practicum. In general, the findings of the primary outcome justify the conclusion that the introduction of a standardized, ADA-compliant, and nurse-led follow-up protocol led to clinically and dimensionally significant improvements in glycemic control in adults with type 2 diabetes at the location of the project. The broad and multidimensional effects of the structured intervention are further supported by the secondary outcome results, which show the nursing staff competency, patient self-management engagement, and nursing staff delivery fidelity domains over the eight-week period of the structured intervention. After the structured training program, nursing staff competency scores increased significantly, with the pre-training mean competency scores set at 59.0% as opposed to 85.4% after training; seven of the eight nursing staff participants achieved the minimum competency requirements of 80%, which are needed to deliver protocols independently (APRN, personal communication, November 2025). At eight weeks, the average self-management engagement scores were 7.4 out of 10; 70% patients were 100% adherent to the medication regimen; and 65% patients regularly completed daily blood glucose levels during the eight weeks of structured intervention. Unintended study results included barriers to transportation, as 67% of patients attended all scheduled clinic visits, which adversely affected the glycemic trend of some registered participants, and the inequity of integrating telehealth into the formulated system of diabetes follow-up as a fairer and alternative way of providing lasting results. Finally, the results of the secondary outcome showed overall and uniform improvement in the clinical, operations, and behavioral domains of practice and proved that the designed, ADA-compliant protocol of diabetes follow-up led to dimensional and meaningful practice-level change at the project site. The project results are given in the appendix.

    Project Outcomes

    Evaluating the extent to which the project achieved its objectives provides insight into the extent to which the entire program is worth clinical practice development, and as an intervention that can be used as a source of evidence. The objective of the project (HbA1c reduced) was the most crucial, and a total of 1.52 percentage points ( compared to the baseline) was achieved, which is significantly more than the specified achievement goal (0.5 percentage points ). The eight-week trial of the structured ADA diabetes follow-up protocol revealed full clinical significance as the measure of glycemic changes was consistent and clinically significant at the first eight weeks of implementation, as compared to the baseline levels. Prior studies working with similar patients groups and divides into nurse-led (protocol-driven) diabetes follow-up care showed a consistent section-wise drop in HbA1c by 0.25-1.69 percent in similar outpatient primary providers, and thus, confirmed the results of the QI project were more consistent with previous research literature and not only that results are similarly aligned with the previous research results but that there is a greater effect size than previously anticipated in QI literature (Asmat et al., 2024; Koo et al., 2024). The nurse-led self-management education programs revealed nearly a hundred percent greater competency scores of nurses and self-care behavior in patients in a structure-based, protocol-based nurse follow-up system (Dailah, 2024). Besides the main outcome which was to enhance the competency of the nursing staff, the number of participants also showed a significant difference with the T-test which was statistically significant (p < .01) when the patients received the training indicating that they did attain the final competency of the HbA1c target (< 7% demonstrating at least 80 percent at the completion of the training), and although it was not made in the course of the entire eight-week period of the practicum period, it is believed that in the course of the continued implementation, at the longer period would the HbA1c target of 7 percent be achieved by all the enrolled patients. Other unintended findings included that there were some transportation barriers experienced by patients that affected whether all scheduled in-person visits were achieved (67% completed in-person scheduled visits), limiting the amount of data about the patients (as noted earlier), serving as an indication to implement telehealth as a method to allow follow-up to patients who might have experienced barriers to visiting the healthcare organization in-person.

    The analysis of strengths, limitations, opportunities, and barriers of a quality improvement project also presents an appraisive framework of internal validity and external applicability of the quality improvement project to other similar clinical settings. The key strengths of the project included high competency levels of the staff, high rates of their compliance with the follow-up system (89.2%), EHR documenting accuracy, collaboration between clinical teams, and integration of one of the most widely recognized and nationally recognized ADA clinical practice guidelines. The combination of the elements augmented the credibility of the intervention design. Projects with a high degree of fidelity to the intervention protocols (i.e., implementing the procedures according to them) and systematic competency development with EHR monitoring offer a much more reliable and generalizable outcome in comparison with projects with no systematic accountability structure; thus, confirming the methodological soundness of the given project (Endalamaw et al., 2024). Structured quality improvement programs have multiple disciplines and introduce proven follow-up procedures and electronic health records-based monitoring; consequently, the programs deliver many continuous positive outcomes (Ebbers et al., 2023). The weaknesses of the quality improvement project were constrained implementation time (only 8 weeks), which confined the possibility of assessing the sustainability of HbA1c improvement in the long term, a small number of participants (only 8 in the nursing staff), limiting the statistical power, and a single clinic, thus restricting the ability to generalize the findings to other clinical environments. The opportunities that have been identified in the implementation process are to expand the standardized ADA follow-up protocol to new populations of patients that present at the outpatient clinic, peer-supported digital messaging to further enhance patient engagement between visits, and publication of project outcomes in peer-reviewed literature to contribute to the body of knowledge.

    Sustaining practice change: practice changes are sustained beyond the quality improvement project end, with deliberate organization planning, written organizational devotion to continuing the practice changes, and methodical introduction of the achievements of the intervention at the system level in the routine clinical activity and outlines of professional responsibility. To maintain the implemented ADA diabetes follow-up protocol, the clinic will establish the protocol as a part of the Routine Nursing Workflow Procedures. EHR dashboards, automatic appointment reminders and fidelity checklists will continue to be permanent operations infrastructure to aid in sustained compliance with the protocol (APRN, personal communication, November 2025). The achieved changes of glycemic control as the results of the organized outpatient activities will have to be followed, revised, and observed at least a year after the implementation to ensure that the practice change becomes established as an integral part of the organizational culture and clinical habits (Jahed et al., 2025). The most sustainable in the long term are quality improvement initiatives in chronic disease management in which the essential points of effective protocols are integrated into the organizational structure by instituting a formal policy (Endalamaw et al., 2024). Such new job positions will be added to provide a high rate of outcome sustainability, as the Diabetes Protocol Coordinator will be responsible for monitoring EHR dashboard performance and plan continuous quarterly competency reviews to the nursing staff (APRN, personal communication, November 2025). Publication of the results of the quality improvement project in the form of in-house organizational reports and talks at conferences, and articles in peer-reviewed journals will also cement organizational commitment to the standardized diabetes follow-up model and help to replicate it in similar outpatient primary care environments with a diverse adult population.

    Recommendations

    The results obtained under the evidence-based quality improvement projects offer new understandings that will not only be relevant in the environment of implementation but also to guide nursing research and practice in the future. Future practice recommendations refer to a longer duration of intervention (Twelve months) of the intervention to determine the long-term stability of the HbA1c level following the eight weeks of practicum. Moreover, the protocol must be expanded to the other chronic disease groups within the same outpatient context, hence increasing the impact of the organization and resource distributions.

    The protocol needs to be tested, and multicenter replication studies should be conducted in future studies in order to determine its effectiveness when applied in larger and more varied populations of nurses. Another area of interest that needs further investigation will be cost-effectiveness analyses that estimate the rate of decreased hospitalization as a result of standardized follow-up. Patient engagement and self-management support between visits. By integrating digital messaging solutions that are peer-supported, the experience of the integration will become stronger (Nagra et al., 2024). The studies in culturally responsive curriculum creation and digital equity will aid in determining the access disparity in technologies to underserved populations (Martinez et al., 2023). Individual support of the structured nurse-led diabetes follow-up programs is going to be one of the most important methods of enhancing glycemic equity, as well as improving the quality of outpatient primary care services to a diverse adult population.

    Summary

    An overview of the key lessons learned during a QI project is a valuable way of resuming clinical significance, applicability to the organization, and research impact of the implemented intervention in the clinical process. The 8-week ADA diabetes follow-up protocol that was applied led to a significant change in the HbA1c of 1.52 percent, the scores on nursing staff competency were improved, and the rate of adherence to the follow-up process went up to 89.2 percent. Thus, the introduction of the ADA protocol into clinical practice resulted in the overall, tangible enhancement of the aspects of glycemic control, nursing productivity, and follow-up. The adoption has propelled the organizational mission of the clinic (to provide evidence-based, patient-centered, and accessible primary care) by introducing a standardized process in the follow-up of diabetes, enhancing interprofessional collaboration, and adopting EHR-based integrated processes of monitoring as part of the routine clinical practice. The project results aligned with the strategic priorities of the clinic in terms of value-based care delivery, implementation of chronic disease management, coupled with health equity objectives for patients aimed at the patients representing various urban communities served by the practicum site. Finally, implementing the ADA nurse-led protocol can and must be replicated, scaled to other similar outpatient primary care settings, and help to sustainably improve glycemic control in such settings.

    Finally, interprofessional collaboration-founded evidence-based QI programs within an organizational setting have not only considerable, but also sustainable clinical outcomes that can be both organization-driven and nationally recognized in their excellence in terms of chronic disease management practices.

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            Abukhalil, A. D., Muhanna, S. A., Madi, M. N., Naseef, H. A., & Rabba, A. K. (2024). Adherence to ADA clinical guidelines in type 2 diabetes management in public health clinics in Palestine. Patient Preference and Adherence, 18, 2667–2680. https://doi.org/10.2147/ppa.s494951

            Adjei, S. K., Adjei, P., & Nkrumah, P. A. (2025). Poor glycemic control and its predictors among type 2 diabetes patients: Insights from a single‐center retrospective study in Ghana. Health Science Reports8(3), 8–12. https://doi.org/10.1002/hsr2.70558

            Aldahmashi, H., Maneze, D., Molloy, L., & Salamonson, Y. (2024). Nurses’ adoption of diabetes clinical practice guidelines in primary care and the impacts on patient outcomes and safety: An integrative review. International Journal of Nursing Studies, 154, e104747. https://doi.org/10.1016/j.ijnurstu.2024.104747

            American Diabetes Association. (2024). The American diabetes association releases standards of care in diabetes—2025 | Diabetes.org. https://diabetes.org/newsroom/press-releases/american-diabetes-association-releases-standards-care-diabetes-2025

            Asmat, K., Froelicher, E. S., Dhamani, K. A., Gul, R., & Khan, N. (2024). Effect of patient‐centered self‐management intervention on glycemic control, self‐efficacy, and self‐care behaviors in South Asian adults with type 2 diabetes mellitus: A multicenter randomized controlled trial. Journal of Diabetes, 16(9), e13611. https://doi.org/10.1111/1753-0407.13611 

            Baek, H., Han, K., Cho, H., & Ju, J. (2023). Nursing teamwork is essential in promoting patient-centered care: A cross-sectional study. BioMed Central Nursing22(1), 3–7. https://doi.org/10.1186/s12912-023-01592-3

            Barr, E., & Brannan, G. D. (2024). Quality improvement methods (LEAN, PDSA, SIX SIGMA). PubMed; StatPearls Publishing. https://www.ncbi.nlm.nih.gov/books/NBK599556/

            Bhaladhare, R., & Rishipathak, P. (2025). Strategies for quality improvement in healthcare organizations for a sustainable healthcare system. Discover Social Science and Health5(1). https://doi.org/10.1007/s44155-025-00226-0

            Bisbey, T. M., Wooten, K. C., Campo, M. S., Lant, T. K., & Salas, E. (2021). Implementing an evidence-based competency model for science team training and evaluation: TeamMAPPS. Journal of Clinical and Translational Science5(1), 1–33. https://doi.org/10.1017/cts.2021.795

            Blass, B., Mahoney, H., Lusk, J. B., Clark, A. G., Corsino, L., & Hammill, B. G. (2025). Neighbourhood deprivation and quality of comprehensive diabetes care: Findings from a national retrospective cohort study of US Medicare Advantage enrollees. BioMed Journal Open15(7), e092971. https://doi.org/10.1136/bmjopen-2024-092971

            Bradley, C., Sumethasorn, M., Wang, S., Martinez, L., Chang, M., Lemus, L., Bruce, D., Lee, A., Baden, R., Yee, H., & Buxbaum, J. (2024). Plan-do-study-act (PDSA) interventions to improve real-world endoscopy unit productivity. Endoscopy International Open12(5), 642–648. https://doi.org/10.1055/a-2290-0263

            Brownson, R. C., Shelton, R. C., Geng, E. H., & Glasgow, R. E. (2022). Revisiting concepts of evidence in implementation science. Implementation Science, 17(1). https://doi.org/10.1186/s13012-022-01201-y

            Capili, B., & Anastasi, J. (2024). Ethical research and the institutional review board: An introduction. American Journal of Nursing124(3), 50–54. https://doi.org/10.1097/01.naj.0001008420.28033.e8

            CDC. (2024, September 10). Health insurance portability and accountability act of 1996 (HIPAA). Cdc.gov. https://www.cdc.gov/phlp/php/resources/health-insurance-portability-and-accountability-act-of-1996-hipaa.html

            Centers for Disease Control and Prevention. (2024, May 15). National diabetes statistics report. Cdc.gov. https://www.cdc.gov/diabetes/php/data-research/index.html

            Changsieng, P., Pichayapinyo, P., Lagampan, S., & Lapvongwatana, P. (2023). Implementation of self-care deficits assessment and a nurse-led supportive education program in community hospitals for behavior change and HbA1c Reduction: A cluster randomized controlled trial. Journal of Primary Care & Community Health14(3), 3–7. https://doi.org/10.1177/21501319231181106

            Chen, Y., Zhou, T., Su, L., Guo, Y., & Ke, X. (2025). Effects of nurse-led telephone interventions on HbA1c levels in patients with type 2 diabetes: A meta-analysis-based evaluation of follow-up protocols. BioMed Central Nursing24(1), e284. https://doi.org/10.1186/s12912-025-02782-x

            Dailah, H. G. (2024). The influence of nurse-led interventions on disease management in patients with diabetes mellitus: A narrative review. Healthcare12(3), e352. https://doi.org/10.3390/healthcare12030352

            Davies, M. J., Aroda, V. R., Collins, B. S., Gabbay, R. A., Green, J., Maruthur, N. M., Rosas, S. E., Del Prato, S., Mathieu, C., Mingrone, G., Rossing, P., Tankova, T., Tsapas, A., & Buse, J. B. (2022). Management of hyperglycemia in type 2 diabetes, 2022. A consensus report by the American Diabetes Association (ADA) and the European Association for the Study of diabetes (EASD). Diabetes Care45(11), 2753–2786. American Diabetes Association. https://doi.org/10.2337/dci22-0034

            Dellafiore, F., Guardamagna, L., Haoufadi, S., Cicognani, A., Mola, A. D., Mazzone, B., Occhini, G., Brusini, A., & Artioli, G. (2025). Interprofessional collaboration in primary healthcare: A qualitative study of general practitioners’ and family and community nurses’ perspectives in Italy. Healthcare13(21), e2794. https://doi.org/10.3390/healthcare13212794

            Dhediya, R., Chadha, M., Bhattacharya, A. D., Godbole, S., & Godbole, S. (2022). Role of telemedicine in diabetes management. Journal of Diabetes Science and Technology17(3), 3–7. https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10210114/

            Dinavari, M. F., Sanaie, S., Rasouli, K., & Faramarzi, E. (2023). Glycemic control and associated factors among type 2 diabetes mellitus patients: A cross-sectional study of Azar cohort population. BioMed Central Endocrine Disorders23(1), 8–12. https://doi.org/10.1186/s12902-023-01515-y

            Dineen, T. E., Bean, C., Cranston, K. D., MacPherson, M. M., & Jung, M. E. (2021). Fitness facility staff can be trained to deliver a motivational interviewing-informed diabetes prevention program. Frontiers in Public Health9, e728612. https://doi.org/10.3389/fpubh.2021.728612

            Duke University. (2025). LibGuides: Systematic reviews: 6. Assess for quality and bias. Guides.mclibrary.duke.edu. https://guides.mclibrary.duke.edu/sysreview/assess

            Ebbers, T., Takes, R. P., Honings, J., Smeele, L. E., Kool, R. B., & van. (2023). Development and validation of automated electronic health record data reuse for a multidisciplinary quality dashboard. Digital Health9, e20552076231191007. https://doi.org/10.1177/20552076231191007

            ElSayed, N. A., Aleppo, G., Aroda, V. R., Bannuru, R. R., Brown, F. M., Bruemmer, D., Collins, B. S., Hilliard, M. E., Isaacs, D., Johnson, E. L., Kahan, S., Khunti, K., Leon, J., Lyons, S. K., Perry, M. L., Prahalad, P., Pratley, R. E., Seley, J. J., Stanton, R. C., & Gabbay, R. A. (2022). Improving care and promoting health in populations: Standards of care in diabetes—2023. Diabetes Care46(1), 10–18. https://doi.org/10.2337/dc23-s001

            Endalamaw, A., Khatri, R. B., Mengistu, T. S., Erku, D., Wolka, E., Zewdie, A., & Assefa, Y. (2024). A scoping review of continuous quality improvement in healthcare system: Conceptualization, models and tools, barriers and facilitators, and impact. BioMed Central Health Services Research24(1), 487. https://doi.org/10.1186/s12913-024-10828-0

            Ezeamii, V. (2024). Revolutionizing healthcare: How telemedicine is improving patient outcomes and expanding access to care. Cureus16(7), e63881. https://doi.org/10.7759/cureus.63881

            Foo, C. D., Yan, J. Y., Chan, A. S. L., & Yap, J. C. H. (2023). Identifying key themes of care coordination for patients with chronic conditions in Singapore: A scoping review. Healthcare11(11), e1546. https://doi.org/10.3390/healthcare11111546

            Fracso, D., Bourrel, G., Jorgensen, C., Fanton, H., Raat, H., Pilotto, A., Baker, G., Pisano, M. M., Ferreira, R., Valsecchi, V., Pers, Y., & Engberink, A. O. (2022). The chronic disease self‐management programme: A phenomenological study for empowering vulnerable patients with chronic diseases included in the EFFICHRONIC project. Health Expectations25(3), 947–958. https://doi.org/10.1111/hex.13430

            Gabriela, S. L. D., Fertu, D.-I., Tinică, G., & Gavrilescu, M. (2025). Integrated quality and environmental management in healthcare: Impacts, implementation, and future directions toward sustainability. Sustainability17(11), e5156. https://doi.org/10.3390/su17115156

            Goetz, L. H., & Schork, N. J. (2020). Personalized medicine: motivation, challenges, and progress. Fertility and Sterility109(6), 952–963. https://doi.org/10.1016/j.fertnstert.2018.05.006

            Grant, A., Kontak, J., Jeffers, E., Lawson, B., Mackenzie, A., Burge, F., Boulos, L., Lackie, K., Marshall, E. G., Mireault, A., Philpott, S., Sampalli, T., LeMoine, D. S., & Misener, R. M. (2024). Barriers and enablers to implementing interprofessional primary care teams: A narrative review of the literature using the consolidated framework for implementation research. BioMed Central Primary Care25(1), 25. https://doi.org/10.1186/s12875-023-02240-0

            Graue, M., Igland, J., Haugstvedt, A., Hernar, I., Birkeland, K. I., Zoffmann, V., Richards, D. A., & Kolltveit, B. C. H. (2023). Evaluation of an interprofessional follow-up intervention among people with type 2 diabetes in primary care—A randomized controlled trial with embedded qualitative interviews. Public Library of Science ONE18(11), e0291255. https://doi.org/10.1371/journal.pone.0291255

            Heise, M., Heidemann, C., Baumert, J., Du, Y., Frese, T., Avetisyan, M., & Weise, S. (2022). Structured diabetes self-management education and its association with perceived diabetes knowledge, information, and disease distress: Results of a nationwide population-based study. Primary Care Diabetes16(3), 387–394. https://doi.org/10.1016/j.pcd.2022.03.016

            Hempel, S., Bolshakova, M., Turner, B. J., Dinalo, J., Rose, D., Motala, A., Fu, N., Clemesha, C. G., Rubenstein, L., & Stockdale, S. (2022). Evidence-based quality improvement: A scoping review of the literature. Journal of General Internal Medicine37(16), 4257–4267. https://doi.org/10.1007/s11606-022-07602-5

            Höld, E., Grüblbauer, J., Wiesholzer, M., Kreimel, D. W., Stieger, S., Kuschei, W., Kisser, P., Gützer, E., Hemetek, U., Zarl, A. E., & Pripfl, J. (2022). Improving glycemic control in patients with type 2 diabetes mellitus through a peer support instant messaging service intervention (DiabPeerS): Study protocol for a randomized controlled trial. Trials23(1), e308. https://doi.org/10.1186/s13063-022-06202-2

            Huang, Y., Li, S., Lu, X., Chen, W., & Zhang, Y. (2024). The effect of self-management on patients with chronic diseases: A systematic review and meta-analysis. Healthcare12(21), e2151. https://doi.org/10.3390/healthcare12212151

            Jiang, L., Yan, J., Yao, J., Jing, X., Chen, Y., Deng, Y., Zhang, W., Yuan, Y., & Yang, X. (2024). Nurse-led follow-up care versus routine health education and follow-up in diabetes patients: An effectiveness analysis. Medicine103(22), e38094. https://doi.org/10.1097/md.0000000000038094

            Fina Lubaki, J.-P., Omole, O. B., & Francis, J. M. (2022). Protocol: Developing a framework to improve glycaemic control among patients with type 2 diabetes mellitus in Kinshasa, Democratic Republic of the Congo. PLOS ONE, 17(9), e0268177. https://doi.org/10.1371/journal.pone.0268177

            Kerari, A., Bahari, G., Alharbi, K., & Alenazi, L. (2024). The effectiveness of the chronic disease self-management program in improving patients’ self-efficacy and health-related behaviors: A quasi-experimental study. Healthcare12(7), 778. https://doi.org/10.3390/healthcare12070778

            Klaic, M., Kapp, S., Hudson, P., Chapman, W., Denehy, L., Story, D., & Francis, J. J. (2022). Implementability of healthcare interventions: An overview of reviews and development of a conceptual framework. Implementation Science17(1), 10. https://doi.org/10.1186/s13012-021-01171-7

            Knight, A. W., Tam, C. W. M., Dennis, S., Fraser, J., & Pond, D. (2022). The role of quality improvement collaboratives in general practice: A qualitative systematic review. BioMed Journal Open Quality11(2), e001800. https://doi.org/10.1136/bmjoq-2021-001800

            Konnyu, K. J. (2023). Quality improvement strategies for diabetes care: Effects on outcomes for adults living with diabetes. Healthcare5(5), 5–7. https://doi.org/10.1002/14651858.cd014513

            Koo, D. J., Moon, S. J., Moon, S., Park, S. E., Rhee, E. J., Lee, W. Y., & Park, C. Y. (2024). Long-term glycemic improvement after home and self-care program (HELP) for Patients with type 1 diabetes: A real-world based cohort study. Journal of Medical Internet Research26, e60023. https://doi.org/10.2196/60023

            Lee, C. S., Westland, H., Faulkner, K. M., Iovino, P., Thompson, J. H., Sexton, J., Farry, E., Jaarsma, T., & Riegel, B. (2022). The effectiveness of self-care interventions in chronic illness: A meta-analysis of randomized controlled trials. International Journal of Nursing Studies134, e104322. https://doi.org/10.1016/j.ijnurstu.2022.104322

            Lighterness, A., Adcock, M., Scanlon, L. A., & Price, G. (2024). Data quality–driven improvement in health care: Systematic literature review. Journal of Medical Internet Research26, e57615. https://doi.org/10.2196/57615

            Lin, S. P., Chang, C.W., Wu, C.Y., Chin, C.S., Lin, C.H., Shiu, S.I., Chen, Y.W., Yen, T.H., Chen, H.C., Lai, Y.H., Hou, S.C., Wu, M.J., & Chen, H.H. (2022). The effectiveness of multidisciplinary team huddles in healthcare hospital-based setting. Journal of Multidisciplinary Healthcare15(15), 2241–2247. https://doi.org/10.2147/JMDH.S384554

            Lulamba, T. E., Mutemaringa, T., & Tiffin, N. (2025). Ten quick tips for protecting health data using de-identification and perturbation of structured datasets. Public Library of Science Computational Biology21(9), e1013507. https://doi.org/10.1371/journal.pcbi.1013507

            Martínez, P. D., Peoples, L. Q., & Martin, J. (2023). Becoming culturally responsive: Equitable and inequitable translations of CRE theory into teaching practice. The Urban Review3, 1–29. https://doi.org/10.1007/s11256-023-00658-5

            Mechley, A. R. (2021). Direct primary care: A successful financial model for the clinical practice of lifestyle medicine. American Journal of Lifestyle Medicine15(5), 557–562. https://doi.org/10.1177/15598276211006624

            Murumba, R. G., Naman, R. O., Tuohy, C. A., White, P. A., & Wright, W. (2024). Assessment of adherence to American Diabetes Association guidelines and evaluation of social determinants of health and interventions in patients with type 2 diabetes mellitus in a nurse practitioner–owned clinic. Journal of the American Association of Nurse Practitioners37(8), 462–470. https://doi.org/10.1097/jxx.0000000000001084

            Nagra, H., Mines, R. A., & Dana, Z. (2024). Exploring the impact of digital peer support services on meeting unmet needs within an employee assistance program: A retrospective cohort study. (Preprint). Journal of Medical Internet Research Human Factors12, e68221. https://doi.org/10.2196/68221

            Nuamah, J. K., Adapa, K., & Mazur, L. (2020). Electronic health records (EHR) simulation-based training: A scoping review protocol. BioMed Journal Open10(8), e036884. https://doi.org/10.1136/bmjopen-2020-036884 

            Okemah, J., Neunie, S., Noble, A., & Wysham, C. (2023). Impact on knowledge, competence, and performance of a faculty-led web-based educational activity for type 2 diabetes and obesity: Questionnaire study among health care professionals and analysis of anonymized patient records. The Journal of Medical Internet Research Formative Research7, e49115. https://doi.org/10.2196/49115

            Okemah, J., Neunie, S., Noble, A., & Wysham, C. (2023). Impact on knowledge, competence, and performance of a faculty-led web-based educational activity for type 2 diabetes and obesity: Questionnaire study among health care professionals and analysis of anonymized patient records. Journal of Medical Internet Research7, e49115. https://doi.org/10.2196/49115

            Patel, M. R., Tolentino, D. A., Smith, A., & Heisler, M. (2023). Economic burden, financial stress, and cost-related coping among people with uncontrolled diabetes in the U.S. Economic Burden, Financial Stress, and Cost-Related Coping among People with Uncontrolled Diabetes in the U.S34, e102246. https://doi.org/10.1016/j.pmedr.2023.102246

            Samardzic, M. B., Doekhie, K. D., & Wijngaarden, J. D. H. (2020). Interventions to improve team effectiveness within health care: A systematic review of the past decade. Human Resources for Health18(2), 1–42. https://doi.org/10.1186/s12960-019-0411-3

            Shah, P., Thornton, I., Turrin, D., & Hipskind, J. E. (2024). Informed consent. National Library of Medicine; StatPearls Publishing. https://www.ncbi.nlm.nih.gov/books/NBK430827/

            Sharma, L., Prakash, A., & Medhi, B. (2024). Ensuring medication and patient safety for better quality healthcare. Indian Journal of Pharmacology56(6), 375–378. https://doi.org/10.4103/ijp.ijp_109_25

            Sun, J., Fan, Z., Kou, M., Wang, X., Yue, Z., & Zhang, M. (2025). Impact of nurse-led self-management education on type 2 diabetes: A meta-analysis. Frontiers in Public Health13(3), 3–7. https://doi.org/10.3389/fpubh.2025.1622988

            Sze, K., Aizuddin, A. N., Hashim, S. M., & Said, M. (2025). Navigating interprofessional collaboration in diabetes care: A qualitative study of early-career health professionals in malaysian primary care clinics. Public Library of Science ONE20(10), e0335192. https://doi.org/10.1371/journal.pone.0335192

            Tiwari, D., & Aw, T. C. (2024). The 2024 American Diabetes Association guidelines on Standards of Medical Care in Diabetes: Key takeaways for laboratory. Exploration of Endocrine and Metabolic Diseases2024, 158–166. https://doi.org/10.37349/eemd.2024.00013

            Tiwari, K., Bisht, M., Kant, R., & Handu, S. S. (2022). Prescribing pattern of anti-diabetic drugs and adherence to the American Diabetes Association’s (ADA) 2021 treatment guidelines among patients of type 2 diabetes mellitus: A cross-sectional study. Journal of Family Medicine & Primary Care11(10), 6159–6164. https://doi.org/10.4103/jfmpc.jfmpc_458_22

            Wadi, N. M., Ampaduh, S. A., Rivas, C., & Goff, L. M. (2021). Culturally tailored lifestyle interventions for the prevention and management of type 2 diabetes in adults of Black African ancestry: A systematic review of tailoring methods and their effectiveness. Public Health Nutrition25(2), 1–15. https://doi.org/10.1017/s1368980021003682

            Williams, L. J., Waller, K., Chenoweth, R. P., & Ersig, A. L. (2020). Stakeholder perspectives: Communication, care coordination, and transitions in care for children with medical complexity. Journal for Specialists in Pediatric Nursing26(1), 8–12. https://doi.org/10.1111/jspn.12314

            Willmington, C., Belardi, P., Murante, A. M., & Vainieri, M. (2022). The contribution of benchmarking to quality improvement in healthcare. A systematic literature review. Biomed Central Health Services Research22(1), 1–20. https://doi.org/10.1186/s12913-022-07467-8

            Yimer, Y. S., Addissie, A., Kidane, E. G., Reja, A., Abdela, A. A., & Ahmed, A. A. (2025). Effectiveness of diabetes self-management education and support interventions on glycemic levels among people living with type 2 diabetes in the WHO African region: A systematic review and meta-analysis. Frontiers in Clinical Diabetes and Healthcare6, e1554524. https://doi.org/10.3389/fcdhc.2025.1554524

            You, S. B., Hirschman, K. B., Stawnychy, M. A., Song, J., Sang, E., Pitcher, K., Oh, S., O’Connor, M., Garren, P., & Bowles, K. H. (2025). Qualitative study of the context of health information technology in sepsis care transitions: Facilitators, barriers, and strategies for improvement. Journal of the American Medical Directors Association26(7), 3–7. https://doi.org/10.1016/j.jamda.2025.105606

            Yunis, B., Pérez, P. E., Jose, J., & Moreno, I. M. (2024). Increasing self-efficacy for the management of patients with type 2 diabetes through an advanced practice education program for primary care professionals. Nursing Reports14(4), 3830–3846. https://doi.org/10.3390/nursrep14040280

            Tables Data For
            NURS FPX 9030 Assessment 3

            Table 1

            Demographic Characteristics and Baseline HbA1c (N = 20)

            Participant ID

            Age Group

            Sex

            Race/Ethnicity

            Insurance Type

            T2DM Duration (yrs)

            Baseline HbA1c (%)

            P001

            45–54

            Female

            Hispanic/Latino

            Medicaid

            6

            9.8

            P002

            55–64

            Male

            Black/African American

            Medicare

            11

            10.2

            P003

            35–44

            Female

            White/Non-Hispanic

            Private

            3

            8.7

            P004

            55–64

            Female

            Hispanic/Latino

            Medicaid

            9

            11.1

            P005

            45–54

            Male

            Asian

            Medicaid

            5

            9.4

            P006

            65+

            Male

            Black/African American

            Medicare

            14

            10.8

            P007

            35–44

            Female

            White/Non-Hispanic

            Private

            2

            8.3

            P008

            55–64

            Male

            Hispanic/Latino

            Medicaid

            8

            9.9

            P009

            45–54

            Female

            Asian

            Private

            4

            8.9

            P010

            65+

            Female

            Black/African American

            Medicare

            16

            11.4

            P011

            35–44

            Male

            White/Non-Hispanic

            Private

            3

            8.5

            P012

            55–64

            Female

            Hispanic/Latino

            Medicaid

            10

            10.6

            P013

            45–54

            Male

            Black/African American

            Medicaid

            7

            9.7

            P014

            65+

            Female

            Hispanic/Latino

            Medicare

            13

            10.9

            P015

            35–44

            Male

            Asian

            Private

            2

            8.2

            P016

            55–64

            Female

            White/Non-Hispanic

            Private

            9

            9.3

            P017

            45–54

            Male

            Hispanic/Latino

            Medicaid

            6

            10.1

            P018

            65+

            Female

            Black/African American

            Medicare

            18

            11.7

            P019

            35–44

            Female

            Asian

            Private

            1

            7.8

            P020

            55–64

            Male

            White/Non-Hispanic

            Private

            11

            9.6

            Note. All patient identifiers have been replaced with project codes. Age group, sex, race/ethnicity, and insurance type were self-reported. T2DM duration and baseline HbA1c were extracted from EHR records at Week 1. T2DM = type 2 diabetes mellitus; HbA1c = hemoglobin A1c.

            Table 2

            HbA1c Outcomes Across Measurement Time Points (N = 20)

            Participant ID

            Baseline HbA1c (%)

            Week 4 HbA1c (%)

            Week 8 HbA1c (%)

            Change (Baseline to Wk 8)

            Target Met (<7%)

            P001

            9.8

            9.1

            8.4

            −1.4

            No

            P002

            10.2

            9.6

            8.8

            −1.4

            No

            P003

            8.7

            8.1

            7.4

            −1.3

            No

            P004

            11.1

            10.3

            9.2

            −1.9

            No

            P005

            9.4

            8.7

            7.9

            −1.5

            No

            P006

            10.8

            10.0

            9.1

            −1.7

            No

            P007

            8.3

            7.6

            7.0

            −1.3

            No

            P008

            9.9

            9.2

            8.3

            −1.6

            No

            P009

            8.9

            8.3

            7.5

            −1.4

            No

            P010

            11.4

            10.7

            9.6

            −1.8

            No

            P011

            8.5

            7.9

            7.1

            −1.4

            No

            P012

            10.6

            9.8

            8.9

            −1.7

            No

            P013

            9.7

            9.0

            8.2

            −1.5

            No

            P014

            10.9

            10.2

            9.3

            −1.6

            No

            P015

            8.2

            7.5

            6.9

            −1.3

            Yes

            P016

            9.3

            8.6

            7.8

            −1.5

            No

            P017

            10.1

            9.4

            8.5

            −1.6

            No

            P018

            11.7

            10.9

            9.8

            −1.9

            No

            P019

            7.8

            7.2

            6.7

            −1.1

            Yes

            P020

            9.6

            8.9

            8.0

            −1.6

            No

            Note. HbA1c values (%) were obtained from laboratory results integrated into the clinic EHR at Baseline (Week 1), Week 4, and Week 8. Change score reflects Week 8 HbA1c minus Baseline HbA1c. Target achievement was defined as HbA1c < 7% per ADA Standards of Care. HbA1c = hemoglobin A1c; ADA = American Diabetes Association.

            Table 3

            Follow-Up Adherence and Visit Completion Data (N = 20)

            Participant ID

            Scheduled Visits (n = 6)

            Completed Visits (n)

            Missed Visits (n)

            Telehealth Visits Used

            Completion Rate (%)

            P001

            6

            6

            0

            1

            100

            P002

            6

            5

            1

            0

            83

            P003

            6

            6

            0

            2

            100

            P004

            6

            4

            2

            1

            67

            P005

            6

            6

            0

            0

            100

            P006

            6

            5

            1

            2

            83

            P007

            6

            6

            0

            1

            100

            P008

            6

            6

            0

            0

            100

            P009

            6

            5

            1

            1

            83

            P010

            6

            4

            2

            2

            67

            P011

            6

            6

            0

            0

            100

            P012

            6

            6

            0

            1

            100

            P013

            6

            5

            1

            0

            83

            P014

            6

            6

            0

            2

            100

            P015

            6

            6

            0

            0

            100

            P016

            6

            5

            1

            1

            83

            P017

            6

            6

            0

            1

            100

            P018

            6

            4

            2

            2

            67

            P019

            6

            6

            0

            0

            100

            P020

            6

            5

            1

            1

            83

            Note. Biweekly follow-up visits were scheduled over the 8-week implementation period (6 visits per patient). Telehealth visits were offered to patients with mobility or transportation barriers. Completion rate = (completed visits / 6) x 100.

            Table 4

            Nursing Staff Competency Assessment Results (N = 8)

            Staff ID

            Role

            Pre-Training Score (/100)

            Post-Training Score (/100)

            Score Change

            Threshold Met (>=80%)

            Checklist Completion (%)

            S001

            Nurse Practitioner

            62

            88

            +26

            Yes

            95

            S002

            Nurse Practitioner

            58

            84

            +26

            Yes

            92

            S003

            Nurse Practitioner

            65

            91

            +26

            Yes

            98

            S004

            Medical Assistant

            50

            78

            +28

            No

            85

            S005

            Medical Assistant

            55

            83

            +28

            Yes

            88

            S006

            Care Coordinator

            60

            86

            +26

            Yes

            94

            S007

            Health Educator

            70

            93

            +23

            Yes

            97

            S008

            Medical Assistant

            52

            80

            +28

            Yes

            89

            Note. Pre-training and post-training scores were obtained from the validated diabetes management competency assessment instrument administered at Week 1 and Week 8. The pre-defined competency success criterion was a score >= 80%. Checklist completion reflects the percentage of randomly audited patient visits with complete fidelity documentation.

            Table 5

            Self-Management Behavior Checklist — Week 8 (N = 20)

            Participant ID

            Blood Glucose Monitoring (Daily)

            Medication Adherence (Self-Report)

            Diet/Nutrition Log Completed

            Physical Activity Goal Met

            Engagement Score (/10)

            P001

            Yes

            Yes

            Yes

            Partial

            8

            P002

            Partial

            Yes

            No

            No

            5

            P003

            Yes

            Yes

            Yes

            Yes

            9

            P004

            No

            Partial

            No

            No

            4

            P005

            Yes

            Yes

            Yes

            Yes

            10

            P006

            Partial

            Yes

            Yes

            Partial

            7

            P007

            Yes

            Yes

            Yes

            Yes

            10

            P008

            Yes

            Yes

            Partial

            Yes

            8

            P009

            Yes

            Yes

            Yes

            Partial

            8

            P010

            No

            Partial

            No

            No

            3

            P011

            Yes

            Yes

            Yes

            Yes

            9

            P012

            Yes

            Yes

            Yes

            Partial

            8

            P013

            Partial

            Yes

            Partial

            Yes

            7

            P014

            Partial

            Yes

            Yes

            Partial

            7

            P015

            Yes

            Yes

            Yes

            Yes

            10

            P016

            Yes

            Yes

            Yes

            Yes

            9

            P017

            Partial

            Partial

            Yes

            No

            6

            P018

            No

            Partial

            No

            No

            3

            P019

            Yes

            Yes

            Yes

            Yes

            10

            P020

            Yes

            Yes

            Yes

            Partial

            8

            Note. Self-management behaviors were self-reported by patients at the Week 8 follow-up visit using the standardized self-management checklist. Engagement score was assigned by nursing staff on a 10-point scale based on patient participation, responsiveness, and adherence across the 8 weeks. Partial = behavior was sometimes but not consistently performed.

            Table 6

            Summary Statistics: Project Implementation Outcomes

            Metric

            Value

            Total patients enrolled (N)

            20

            Mean baseline HbA1c (%)

            9.95

            Mean Week 8 HbA1c (%)

            8.22

            Mean HbA1c reduction

            −1.52%

            Patients achieving HbA1c < 7% at Week 8, n (%)

            2 (10%)

            Overall follow-up completion rate

            89.2%

            Staff achieving >= 80% competency threshold, n (%)

            7 (87.5%)

            Mean staff pre-training score

            59.0

            Mean staff post-training score

            85.4

            Patients reporting full medication adherence, n (%)

            14 (70%)

            Patients with complete blood glucose monitoring, n (%)

            13 (65%)

            Note. Summary statistics were calculated from EHR data, competency assessments, and patient self-management checklists collected across the 8-week implementation period. HbA1c = hemoglobin A1c; T2DM = type 2 diabetes mellitus.

            Capella Professors To Choose From For NURS-FPX9030 Class

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              • Nicole Aclin, DNP, RN, CNE.
              • Adriane Stasurak, DNP, RN, ANP-BC.

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              NURS FPX 9030 Assessment 3

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                Question 1: What is NURS FPX 9030 Assessment 3 about?

                Answer 1: It proposes an ADA-based nurse-led protocol to improve diabetic patients’ glycemic control.

                Question 2: Where can I get expert help with NURS FPX 9030 Assessment 3?

                Answer 2: Get expert guidance for NURS FPX 9030 Assessment 3 by visiting TutorsAcademy.co.

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