Letter to the Editor Open Access
Copyright ©The Author(s) 2025. Published by Baishideng Publishing Group Inc. All rights reserved.
World J Diabetes. May 15, 2025; 16(5): 104841
Published online May 15, 2025. doi: 10.4239/wjd.v16.i5.104841
Personalized therapeutic approaches for improved glycemic outcomes in type 2 diabetes
Eguono Deborah Akpoveta, Department of Community Medicine, Federal Medical Centre, Asaba 322022, Delta state, Nigeria
Uchenna E Okpete, Department of Digital Anti-aging Healthcare (BK21), Inje University, Gimhae 50834, South Korea
Haewon Byeon, Department of Future Technology, Korea University of Technology and Education, Cheonan 31253, South Korea
ORCID number: Eguono Deborah Akpoveta (0009-0000-9058-0448); Uchenna E Okpete (0000-0003-3803-4583); Haewon Byeon (0000-0002-3363-390X).
Co-first authors: Eguono Deborah Akpoveta and Uchenna E Okpete.
Author contributions: Akpoveta ED, Okpete UE, and Byeon H contributed to this paper and assisted with writing the article; Byeon H designed the study; Akpoveta ED and Okpete UE were involved in data interpretation, developed methodology, and contributed equally as co-first authors.
Supported by Basic Science Research Program through the National Research Foundation of Korea (NRF) funded by the Ministry of Education, No. NRF-RS-2023-00237287.
Conflict-of-interest statement: All the authors report no relevant conflicts of interest for this article.
Open Access: This article is an open-access article that was selected by an in-house editor and fully peer-reviewed by external reviewers. It is distributed in accordance with the Creative Commons Attribution NonCommercial (CC BY-NC 4.0) license, which permits others to distribute, remix, adapt, build upon this work non-commercially, and license their derivative works on different terms, provided the original work is properly cited and the use is non-commercial. See: https://creativecommons.org/Licenses/by-nc/4.0/
Corresponding author: Haewon Byeon, PhD, Academic Editor, Associate Professor, Department of Future Technology, Korea University of Technology and Education, 1600 Chungjeol-ro, Byeongcheon-myeon, Dongnam-gu, Cheonan-si, Chungcheongnam-do, Cheonan 31253, South Korea. bhwpuma@naver.com
Received: January 6, 2025
Revised: February 23, 2025
Accepted: March 11, 2025
Published online: May 15, 2025
Processing time: 112 Days and 2.7 Hours

Abstract

Managing type 2 diabetes mellitus remains a significant challenge, particularly for individuals with persistently poor glycemic control. Although inadequate glycemic regulation is a well-established public health concern and a major contributor to diabetes-related complications, evidence on the effectiveness of intensive and supportive interventions across diverse patient subgroups is scarce. This editorial examines findings from a prospective study evaluating the influence of glycemic history on treatment outcomes in poorly controlled diabetes. The study highlights that personalized care models outperform generalized approaches by addressing the unique trajectories of glycemic deterioration. Newly diagnosed patients demonstrated the most favorable response to intervention, while those with consistently elevated glycated hemoglobin (≥ 10%) faced the greatest challenges in achieving glycemic control. These findings underscore the limitations of a one-size-fits-all strategy, reinforcing the need for patient-centered care that integrates individualized monitoring and timely intervention. Diabetes management requires prioritizing personalized treatment strategies that mitigate therapeutic inertia and ensure equitable, effective care for all patients.

Key Words: Glycemic trajectories; Personalized treatment; Diabetes control; Therapeutic inertia; Glycated hemoglobin improvement; Metabolic challenges

Core Tip: Effective diabetes management requires personalized approaches tailored to patients’ glycemic histories. Newly diagnosed individuals show the greatest potential for achieving glycemic targets, while persistently poorly controlled patients face significant challenges. Addressing therapeutic inertia and adopting patient-centered strategies are essential to improve outcomes and bridge gaps in real-world diabetes care.



TO THE EDITOR

The management of type 2 diabetes mellitus (T2DM) remains a global healthcare challenge, with millions of individuals failing to achieve glycemic targets despite advancements in therapy. Suboptimal glycemic control is often attributed to the complexity of the disease, therapeutic inertia, and a lack of tailored treatment approaches accounting for patients’ diverse glycemic trajectories. This study addresses a critical gap by examining the previously underexplored role of glycemic history as a predictor of treatment outcomes. This study provides valuable insights into disparities in treatment responses and offers a novel framework for personalized care by categorizing patients based on their glycemic patterns. This underscores the urgent need for personalized therapeutic strategies to address existing barriers and improve outcomes[1].

A recent 12-month study on glycemic background in poorly controlled diabetes, published in the World Journal of Diabetes, emphasized the significance of glycemic history in predicting treatment outcomes in individuals with poorly controlled DM. It revealed that newly diagnosed patients exhibited the most significant improvements in glycated hemoglobin (HbA1c), with 65% achieving target levels. Conversely, individuals with persistently poor glycemic control faced challenges, with only 10% reaching recommended glycemic targets[2]. These findings highlight the limitations of generalized treatment models, reinforcing the value of personalized interventions that cater to specific patient needs.

Emerging evidence supports the integration of innovative tools and strategies into personalized diabetes care. For instance, continuous glucose monitoring (CGM) proved effective in identifying glucose variability and optimizing treatment in high-risk patients[3]. Additionally, advanced pharmacotherapy, such as sodium-glucose cotransporter-2 (SGLT2) inhibitors and glucagon-like peptide-1 (GLP-1) receptor agonists, demonstrated improved outcomes when tailored to patient profiles[4]. Furthermore, leveraging digital health technologies and pharmacogenomics could revolutionize diabetes management by enabling precise, patient-specific therapeutic adjustments[5]. This study explores the implications of these findings, advocating for a paradigm shift toward patient-centered diabetes care. Healthcare systems can bridge the gap between clinical advancements and effective management strategies by addressing therapeutic inertia and prioritizing personalized approaches.

Critical appraisal of the study

The study by Erbakan et al[2] on glycemic history and treatment outcomes in poorly controlled T2DM provides valuable insights into the role of personalized care in diabetes management. This critical appraisal evaluates its design, methodology, findings, and interpretation and discusses its implications. The study adopted a prospective observational design, monitoring patients over 12 months. The design allows for understanding the progression of DM and evaluating the effectiveness of personalized interventions. However, observational designs inherently limit causal inferences due to potential confounding variables. Patients were categorized into four groups according to their glycemic history: Newly diagnosed (n = 23), previously well-controlled (n = 28), recently deteriorated (n = 32), and persistently poorly controlled (n = 49) patients. This stratification represents a strength since it acknowledges the heterogeneity in glycemic trajectories and ensures the generalizability of findings across diverse patient profiles. Study interventions included lifestyle modifications, adjustments to existing pharmacotherapy, and patient education tailored to glycemic patterns. Intervention protocols were standardized, incorporating predefined criteria for medication adjustments based on HbA1c levels and glucose monitoring results. The primary outcome was HbA1c reduction, a robust and clinically relevant marker for glycemic control. Secondary outcomes, such as adherence, quality of life, and comorbidity management, could have enriched the study’s scope but were not explored.

The study demonstrated significant HbA1c reductions across all patient groups, reinforcing the effectiveness of intensive management. The newly diagnosed DM group achieved the most substantial improvement: 65% of patients reached target HbA1c levels of ≤ 7%. This finding aligns with existing evidence showing that early interventions yield the most significant benefits due to limited disease progression and complications. Only 10% of the persistently poorly controlled group achieved glycemic targets, underscoring the challenges in reversing long-standing hyperglycemia. Clinical inertia, entrenched habits, and beta-cell dysfunction likely contributed to these outcomes.

The obtained findings highlight the need for tailored approaches, particularly for patients with complex glycemic histories. The interpretation of findings is well-aligned with the data presented. The study authors emphasize the significance of glycemic history as a predictor of treatment outcomes, advocating for personalized care. The inclusion of diverse glycemic histories strengthens the applicability of the study to a broad population of patients with DM. However, details on participant demographics (e.g., age, ethnicity, and socioeconomic status) are sparse, limiting insights into population-specific challenges. The robust reductions in HbA1c across cohorts provide compelling evidence for intensive, individualized management. However, the study did not explore other critical factors (medication side effects, patient adherence, or socioeconomic barriers) that could influence outcomes. The study draws parallels with previous research demonstrating that newly diagnosed patients respond better to interventions. It also reinforces the difficulty of reversing long-standing poor control due to cumulative metabolic damage. The study also highlights therapeutic inertia as a key barrier to glycemic improvement, which aligns with broader evidence demonstrating that delays in therapy intensification contribute to poor outcomes in T2DM.

The observational nature of this study does not allow us to establish causal relationships between interventions and outcomes. Additionally, factors such as financial constraints, health literacy, psychological barriers, and healthcare access were not assessed in detail. Indeed, these environmental factors are significant drivers of disparities in glycemic control. Additionally, physiological factors such as genetic variability, age, and comorbidities also contribute to unequal treatment responses among individuals with T2DM. Furthermore, while the study evaluates patients over 12 months, the long-term sustainability of the outcomes remains unaddressed. Future studies with longer follow-up and a focus on patient-centered metrics, such as quality of life and adherence, are needed to provide a more holistic understanding of diabetes management. The authors advocate for intensified monitoring and individualized care to improve outcomes, a data-supported recommendation. However, the lack of exploration into implementation strategies (e.g., cost-effectiveness and resource allocation) weakens the practical applicability of these recommendations.

Strengths of the study

Erbakan et al’s study[2] uniquely stratifies patients into groups based on their glycemic history: Newly diagnosed, previously well-controlled, recently deteriorated, and persistently poorly controlled individuals. This approach acknowledges the heterogeneity in T2DM progression and tailors insights to patient-specific profiles. Patient categorization by glycemic history improves intervention efficacy by addressing individual needs[1]. The inclusion of diverse glycemic trajectories makes the findings applicable to a broad population of patients with DM, adding value for clinicians seeking insights into managing patients with varying disease severities.

Using HbA1c as the primary outcome measure is also a major strength. HbA1c is a gold standard for assessing glycemic control, offering reliability and objectivity. The employed 12-month follow-up allows for evaluating sustained changes in HbA1c, an indicator of long-term metabolic control. The study further emphasizes an intensive, multi-pronged approach, including medication optimization, lifestyle interventions, and patient education. Such comprehensive strategies align with best practices for diabetes management[4]. The study highlights a critical challenge in diabetes management by addressing clinical and patient-related inertia. This focus is supported by global evidence showing that delays in treatment intensification exacerbate glycemic deterioration[3].

Limitations of the study

Erbakan et al’s study[2] observational nature limits its ability to establish causal relationships between interventions and outcomes. While findings are suggestive, confounding factors such as socioeconomic conditions, patient adherence, and healthcare accessibility might have influenced the results[5]. Furthermore, factors such as financial constraints, health literacy, psychological barriers, and access to healthcare resources were not assessed in detail. These environmental factors are significant drivers of disparities in glycemic control. Additionally, physiological factors such as genetic variability, age, and comorbidities further contribute to unequal treatment responses among individuals with T2DM. Hence, understanding these disparities is crucial for tailoring interventions and ensuring equitable care across diverse patient populations[3]. Other dimensions of diabetes management, such as quality of life, psychological health, and long-term complication rates, were not assessed. For instance, chronic conditions such as T2DM often require holistic measures beyond glycemic indices[1].

The study also lacks detailed protocols for interventions, including medication adjustments, dietary advice, and physical activity regimens. Without these details, replicating the study in different clinical settings may be challenging. Furthermore, information about participant demographics is limited (e.g., age, gender, and ethnicity). This omission restricts insights into population-specific trends. Thus, addressing demographic variability could better inform targeted interventions for different groups. While the study demonstrates HbA1c reductions during 12 months, it does not explore whether these improvements are sustained beyond this timeframe. Thus, long-term studies are needed to evaluate the durability of intensive interventions in achieving glycemic control. Furthermore, although the total number of participants comprised 132 patients, the sample size for each of the four glycemic history groups is not clearly defined. Small group sizes could reduce statistical power and limit the generalizability of subgroup analyses.

Comparison with existing literature

Study design and stratification approaches: Erbakan et al[2] adopts a prospective observational design with a 12-month intervention. Patients were stratified into four distinct groups based on their glycemic history: Newly diagnosed, previously well-controlled, recently deteriorated, and persistently poorly controlled patients. This stratification allows for nuanced insights into treatment efficacy across varying disease stages, providing a critical lens to better understand therapeutic responses. This approach contrasts with that of Liu et al[1], who focused on prediabetic patients using CGM to evaluate glycemic variability. While Erbakan et al[2] emphasize intervention outcomes, Liu et al[1] explore diagnostic strategies, showcasing the preventive potential of early glycemic monitoring. Similarly, Tariq et al[3] utilized cardiovascular risk profiles to stratify participants, offering targeted insights into the efficacy of GLP-1 receptor agonists for patients with advanced diabetes-related complications. Unlike Erbakan et al[2], who examines glycemic control broadly, Tariq et al[3] narrows the focus to cardiovascular outcomes. Sebastian-Valles et al[6] had a broader perspective on patient stratification, categorizing patients based on beta-cell function, insulin resistance, and comorbidities. This approach aligns more closely with Erbakan et al’s emphasis on individual variability, reinforcing the importance of stratification to refine therapeutic strategies[2].

Intervention strategies and protocols: Erbakan et al[2] employed an intensive, multifaceted intervention, including lifestyle modifications, optimized medication regimens, and enhanced patient education. However, its lack of detailed intervention protocols limits study reproducibility. For instance, specific criteria for medication adjustments and the integration of advanced therapies, such as SGLT2 inhibitors, were not thoroughly described. In contrast, Hou et al[5] detailed the application of pharmacogenomics to customizing treatment regimens, providing actionable insights into medication choices. For example, Hou et al[5] demonstrated how genetic profiling informs the use of SGLT2 inhibitors, improving glycemic outcomes in patients with specific genetic markers. Similarly, Khan et al[4] highlighted the role of GLP-1 receptor agonists and dipeptidyl peptidase-4 inhibitors in achieving glycemic control. Khan et al[4] provided precise dosing protocols and adherence guidelines, making their findings more applicable in clinical practice. Further, Del Prato et al[7] emphasized combining basal insulin analogs with lifestyle interventions to enhance glycemic control in patients with long-standing diabetes. While Del Prato et al’s focus on basal insulin[7] aligns with aspects of Erbakan et al’s study[2], the former’s rigorous protocol-driven approach offers clearer procedures for replication.

Glycemic outcomes and patient response: Erbakan et al[2] revealed that newly diagnosed patients achieved the most substantial HbA1c reductions, with 65% meeting target levels. However, persistently poorly controlled patients showed only a 10% success rate. These findings align with that of Liu et al[1], who demonstrated significant HbA1c reductions in prediabetic patients utilizing CGM. However, Liu et al’s emphasis[1] on early detection diverges from the therapeutic focus of Erbakan et al[2]. Tariq et al[3] similarly reported improved glycemic control in high-risk patients treated with GLP-1 receptor agonists. However, Tariq et al[3] prioritized cardiovascular risk reduction alongside glycemic improvement. This integrated approach, while narrower in scope, complements Erbakan et al’s study[2] by highlighting the multifactorial benefits of advanced therapies. The challenges faced by patients with persistently poorly controlled DM in Erbakan et al’s study[2] are echoed in evidence by Almigbal et al[8], who identified therapeutic inertia and beta-cell dysfunction as significant barriers to achieving glycemic targets. Almigbal et al[8] underscore the complexity of managing long-standing hyperglycemia, aligning with Erbakan et al[2] study’s findings while expanding on mechanistic underpinnings.

Therapeutic inertia and barriers to glycemic control: Both Erbakan et al’s study[2] and other research emphasize therapeutic inertia as a critical barrier to glycemic control. Erbakan et al[2] associate suboptimal clinical outcomes in persistently hyperglycemic patients with delays in treatment intensification, a finding corroborated by Khan et al[4], who identified physician-related reluctance as a key contributor to inertia. Despite highlighting patient education as a potential solution, Erbakan et al[2] does not explore systemic factors such as healthcare access and resource constraints. Hou et al[5] proposes that pharmacogenomics could mitigate therapeutic inertia by providing confidence in medication selection. This technological approach, while innovative, contrasts with Erbakan et al’s[2] study focus on traditional educational interventions and medication adjustments. Similarly, Avoke et al[9] emphasize the role of patient empowerment through digital health platforms, illustrating how technology can improve adherence and reduce inertia.

Long-term sustainability of outcomes: Erbakan et al[2] evaluate glycemic control over 12 months but do not assess long-term sustainability. In contrast, Tariq et al[3] report sustained glycemic and cardiovascular benefits over 5 years, highlighting the durability of GLP-1 receptor agonist therapy. Similarly, Del Prato et al[7] identify long-term glycemic stability achieved by basal insulin analogs, emphasizing the need for extended follow-up in diabetes research. Liu et al[1] suggest that CGM can support long-term glycemic stability by identifying trends and enabling timely adjustments. The absence of such longitudinal data in Erbakan et al’s study[2] limits its ability to inform ongoing care strategies, leaving an important gap in the literature.

Holistic considerations and multidimensional outcomes: While Erbakan et al[2] focus exclusively on HbA1c as a marker of glycemic control, broader measures, such as quality of life and psychological well-being, are increasingly recognized as vital in diabetes care. Hou et al[5] integrate comorbidity management into their study, providing a more holistic view of patient outcomes. Similarly, Almigbal et al[8] include assessments of patient adherence and satisfaction, highlighting the importance of psychosocial dimensions of diabetes care. Sebastian-Valles et al[6] extend this perspective by examining the impact of socioeconomic factors on glycemic control, illustrating how external barriers influence treatment efficacy. The absence of such considerations in Erbakan et al’s study[2] limits its applicability in diverse clinical contexts, particularly for underserved populations.

Clinical implications and future directions

The findings of the study emphasize the importance of integrating glycemic history into clinical decision-making for individuals with poorly controlled T2DM. Thus, personalized treatment approaches are essential for tailoring interventions to a patient’s specific glycemic trajectory. Patients with newly diagnosed DM, who show the most favorable outcomes, should be selected for immediate and intensive interventions to capitalize on their potential for achieving glycemic targets. For those with persistently poor glycemic control, innovative and multidisciplinary strategies are needed. These could include combining advanced pharmacotherapies with robust lifestyle interventions to tackle entrenched hyperglycemia.

Therapeutic inertia, identified as a critical barrier in the study, must be addressed through proactive treatment intensification. Clinicians can mitigate delays in therapy by leveraging clinical decision-support systems and automated alerts to facilitate timely interventions. Additionally, the integration of advanced technologies, such as CGM and digital health platforms, can enhance traditional management approaches by enabling real-time glycemic monitoring and dynamic treatment adjustments. These innovations are particularly advantageous for patients with complex metabolic profiles. Moreover, comprehensive patient education and structured counseling are essential for improving adherence, addressing psychological and behavioral barriers, and fostering effective self-management, particularly among individuals with long-standing glycemic dysregulation.

The study opens avenues for further research and development in diabetes care. One critical area for future exploration is the sustainability of glycemic improvements beyond 12 months. Understanding long-term outcomes can help shape strategies for maintaining control and preventing complications over time. Additionally, broadening the scope of success measures beyond HbA1c is necessary. Holistic assessments including quality of life, psychological well-being, and the incidence of diabetes-related complications would offer a more comprehensive understanding of treatment efficacy.

Advancements in pharmacogenomics could play a transformative role in personalizing diabetes care. Clinicians can enhance treatment efficacy and reduce trial-and-error in medication selection by matching patients with therapies tailored to their genetic profiles[10]. Thus, future research should evaluate the feasibility, cost-effectiveness, and real-world application of such approaches. Addressing socioeconomic and behavioral barriers to care is another critical area. Innovative care delivery models, such as community health programs and telemedicine, could improve access and outcomes for underserved populations, aligning care with the realities of patients’ lives. Developing tailored intervention algorithms incorporating glycemic history, comorbidities, and patient preferences could standardize personalized care. Such algorithms should be validated across diverse populations to ensure equity in care delivery. Furthermore, the integration of artificial intelligence and machine learning to analyze glycemic patterns and predict therapeutic responses represents a promising direction. These technologies might revolutionize diabetes management by providing clinicians with actionable insights and improving patient outcomes.

Conclusion

The findings of the study emphasize the critical role of glycemic history in guiding effective management strategies for poorly controlled T2DM. Clinicians can significantly enhance outcomes, particularly for newly diagnosed individuals who exhibit the greatest potential for achieving glycemic targets, by tailoring interventions to the unique needs of patients based on their glycemic trajectories. However, innovative and multidisciplinary approaches are required for patients with persistent hyperglycemia to overcome barriers such as therapeutic inertia and entrenched metabolic dysfunction. Personalized, patient-centered care must become the cornerstone of diabetes management. This involves integrating CGM, leveraging pharmacogenomics for precise medication selection, and addressing socioeconomic barriers that impede access to care. Moreover, sustained efforts, such as lifestyle modification and prevention of DM complications, are necessary to maintain long-term glycemic improvements. As diabetes continues to impose a growing global burden, healthcare systems must adopt evidence-based, individualized approaches to close the gap between clinical advancements and real-world efficacy. Furthermore, we can advance toward a future where each individual with DM receives optimized, comprehensive, and effective treatment by prioritizing research, innovation, and equitable care models.

Footnotes

Provenance and peer review: Unsolicited article; Externally peer reviewed.

Peer-review model: Single blind

Specialty type: Endocrinology and metabolism

Country of origin: South Korea

Peer-review report’s classification

Scientific Quality: Grade B, Grade C

Novelty: Grade B, Grade B

Creativity or Innovation: Grade B, Grade C

Scientific Significance: Grade B, Grade B

P-Reviewer: Kaya-Akyüzlü D; Roomi AB S-Editor: Wei YF L-Editor: A P-Editor: Wang WB

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