Published online May 16, 2025. doi: 10.4253/wjge.v17.i5.105365
Revised: March 29, 2025
Accepted: April 17, 2025
Published online: May 16, 2025
Processing time: 112 Days and 18 Hours
In this article, we comment paper by Wang et al published recently. The study represents a notable step in the pursuit of precision medicine for inflammatory bowel diseases, offering valuable insights into the potential of noninvasive bio
Core Tip: This article highlights the significance of a study by Wang et al, which identifies fluctuations in albumin and fibrinogen as noninvasive biomarkers for predicting endoscopic improvement in Crohn’s disease. By introducing a validated nomogram model with high predictive accuracy, the study offers a practical, patient-centered alternative to invasive monitoring methods. These findings underscore the potential of biomarker-driven decision-making to refine therapeutic strategies, enhance patient care, and advance precision medicine in Crohn’s disease management.
- Citation: Singeap AM, Minea H, Stafie R, Stanciu C, Trifan A. Towards precision care: Fluctuations in albumin and fibrinogen as noninvasive predictors of endoscopic outcomes in Crohn’s disease. World J Gastrointest Endosc 2025; 17(5): 105365
- URL: https://www.wjgnet.com/1948-5190/full/v17/i5/105365.htm
- DOI: https://dx.doi.org/10.4253/wjge.v17.i5.105365
The management of Crohn’s disease (CD), which is characterized by persistent inflammation that can fluctuate over time, leading to periods of active disease and remission, has long relied on endoscopic evaluations to assess disease activity and treatment efficacy[1]. While endoscopy remains the gold standard for monitoring, its invasive nature, high cost, and patient burden highlight the need for alternative methods to evaluate therapeutic outcomes. The search for reliable, noninvasive biomarkers that can predict endoscopic improvement has become a cornerstone of contemporary research in inflammatory bowel disease management[2]. Recent years have witnessed a paradigm shift in medical care, driven by advancements in personalized medicine. The integration of predictive models and biomarker-based tools allows for tailored treatment strategies that account for individual patient characteristics. This trend toward precision care aligns with the overarching goal of improving outcomes while minimizing patient discomfort and healthcare costs.
In this context, the study by Wang et al[3], represents a significant step forward. By identifying changes in albumin (ALB) and fibrinogen (FIB) amplitudes as effective predictors of endoscopic improvement in CD, the authors provide a practical and accessible alternative to invasive procedures. Their development of a validated nomogram model offers clinicians a robust tool to guide therapeutic decisions, reinforcing the growing emphasis on noninvasive, patient-centered care in gastroenterology. This article explores the broader implications of these findings, discussing their potential to enhance clinical workflows, improve patient experiences, and align with the evolving standards of personalized medi
Frequent endoscopic evaluations are critical for monitoring the evolution of CD due to its chronic and relapsing nature. However, the necessity of these repeated procedures poses several significant challenges for both patients and healthcare systems. Endoscopic assessments are invasive, which can cause discomfort and emotional distress for patients. The nature of the procedure can lead to physical discomfort and emotional burden, as patients often feel anxious about potential findings of disease progression. These factors may deter individuals from adhering to regular monitoring schedules, further complicating disease management. Furthermore, the financial burden associated with repeated endoscopies can be considerable[4]. For both patients and healthcare institutions, the costs involved in these procedures including hospitalization, anesthesia, and post-procedure care are substantial. These expenses may not be sustainable over time, especially in regions with limited resources.
In addition to the emotional and financial strain, endoscopic procedures carry inherent risks. The use of anesthesia, which may be required during endoscopy, carries the potential for complications such as allergic reactions or respiratory issues. Some patients, particularly those with comorbidities or advanced age, may not be ideal candidates for such procedures, which limit their applicability in certain populations. Moreover, additional risks, including bowel per
Given the challenges associated with traditional endoscopic evaluations, there has been a growing emphasis in recent years on exploring alternative methods that can effectively monitor disease activity without the drawbacks of invasive procedures. Biomarkers have emerged as promising noninvasive tools, offering both convenience and accuracy, with the potential to revolutionize the way CD is monitored.
Biomarkers, such as ALB and FIB, hold particular potential in this context. These proteins, which are routinely measured in blood tests, correlate with disease activity in CD. ALB, a protein commonly associated with nutritional status and liver function, can reflect the extent of inflammation in the body[6]. Low levels of ALB have been linked to increased disease activity and poor clinical outcomes in patients with CD[7,8]. Similarly, FIB, an acute-phase reactant involved in the inflammatory process, is often elevated during flare-ups of CD[9,10], making it another valuable biomarker for monitoring disease progression. The main advantage of using biomarkers such as ALB and FIB is their accessibility. Blood tests are simple, affordable, and suitable for regular monitoring, offering valuable insights into a patient’s condition without the discomfort and risks of invasive exams. Furthermore, they can be easily integrated into routine clinical practice, improving patient management efficiency.
In the study we are commenting on, the authors took an important step forward by investigating the fluctuations of relevant serological biomarkers over time, rather than relying on a single static measurement. Their findings highlight the importance of tracking dynamic changes during follow-up, as these fluctuations correlated with improvements in patients’ endoscopic activity. This underscores the limitations of using a single biomarker value to capture the complexity of disease progression in CD. Instead, continuous monitoring of biomarker changes offers a more accurate reflection of disease dynamics, helping clinicians assess patient response to treatment and adapt therapeutic strategies accordingly. This approach paves the way for more precise, individualized management of CD, ultimately improving patient out
In addition to ALB and FIB, other potential biomarkers such as C-reactive protein, fecal calprotectin, and stool lactoferrin have also shown promise in CD management[11,12]. These biomarkers, along with ALB and FIB, could provide a comprehensive picture of disease activity and help clinicians detect early signs of flare-ups before they become clinically evident. However, accurate interpretation may depend on several factors, including clinical context, assay performance, test cut-offs, and pre-test likelihood of the disease[13].
As the landscape of CD management evolves, there is a growing emphasis to incorporate noninvasive biomarkers and predictive models into routine clinical practice. However, for this transition to be successful, it is critical to establish validated, user-friendly models that combine clinical parameters, biomarkers, and predictive algorithms. Such models could facilitate personalized treatment plans that are tailored to the unique progression of each patient’s disease, offering more effective and timely interventions. Looking to the future, the incorporation of advanced machine learning te
As the field of CD management continues to evolve, there is an increasing focus on improving predictive models that can better guide clinical decisions, tailor treatments, and optimize patient outcomes. The goal of precision medicine is to move beyond the “one-size-fits-all” approach and provide individualized care based on specific biomarkers, genetic data, and disease trajectories. To achieve this, predictive models must evolve to incorporate a range of factors that go beyond traditional clinical markers, integrating new noninvasive tools and advanced technologies.
In this context, imaging techniques such as computed tomography enterography (CTE) and magnetic resonance enterography (MRE) are emerging as pivotal components in CD assessment and monitoring. While endoscopic eva
Additionally, genetic and epigenetic factors play a growing role in shaping the future of predictive modeling in CD management. Variations in genes related to the immune system, such as those involved in inflammation and tissue repair, are known to influence disease susceptibility and severity[16]. Incorporating genetic profiling into predictive models will allow clinicians to better assess a patient’s risk of disease flare-ups or complications. Furthermore, epigenetic factors (changes in gene expression that are not caused by alterations in the DNA sequence itself) are gaining recognition for their impact on disease development[17]. By including both genetic and epigenetic data, predictive models can offer a more comprehensive view of how CD is likely to behave in each individual. Furthermore, another emerging area is the integration of microbiome data into predictive models. As alterations in the microbiome composition are associated with the onset and progression of inflammatory bowel diseases[18], incorporating microbiome data into predictive models could help identify early indicators of a patient’s response to specific therapies, such as biologics or antibiotics aimed at modifying the microbiome.
The ability to accurately predict disease flares and outcomes will also be enhanced by integrating longitudinal data. By analyzing patient data over time, predictive models can improve their accuracy in forecasting disease course. This continuous monitoring could also lead to real-time adjustments in treatment plans, helping clinicians intervene before a flare-up becomes clinically significant. In line with this, the study conducted by Wang et al[3] specifically explored the predictive power of fluctuations in biomarkers like ALB and FIB during follow-up, demonstrating their potential in tracking disease progression and guiding timely interventions.
Despite these exciting prospects, several challenges remain. One major hurdle is the validation of predictive models across diverse populations. While initial studies show promise, further validation in large, multicenter cohorts is necessary to confirm the reliability and generalizability of these models. The study conducted by Wang et al[3] did take an important step in this direction by validating their models using both internal and external cohorts. However, while the results provide valuable insights, additional validation in a broader range of patient populations is still needed to ensure the robustness of these models and their applicability to various clinical settings. Additionally, the integration of these advanced predictive tools into routine clinical practice requires collaboration across disciplines including data scientists, clinicians, and information technology specialists. Clinicians will need adequate training and support to interpret the results of predictive models and make the best use of the insights they provide.
Noninvasive biomarkers, when incorporated into robust predictive models, can be valuable tools for monitoring disease activity and guiding treatment strategies. They offer reliable, cost-effective alternatives to frequent endoscopic eva
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