Published online Jan 27, 2026. doi: 10.4240/wjgs.v18.i1.114574
Revised: October 6, 2025
Accepted: October 24, 2025
Published online: January 27, 2026
Processing time: 120 Days and 16.5 Hours
This editorial discusses the difficulties and challenges of managing pancreatic ductal adenocarcinoma. Approximately 50% of patients experience recurrence within one year after the curative-intent surgery as its highly lethal malignancy, the most sever outcome is very early recurrence (VER), which occurs within 12 weeks which reflects an aggressive tumor. The limitation of standards after surgery management in preventing VER, which significantly causes death in six-months (32.44% vs 14.77%) which highlights the urgent need of better predictive models to categorize patients. The study by Martlı et al which combines tra
Core Tip: Very early recurrence within 12 weeks of pancreatic cancer surgery represents surgical failure with outcome similar to palliative care. poorly separated (grade 3) tumors, pancreatic head location, and elevated red cell distribution width are emerged as key indicators. Machine learning optimized models integrated carbohydrate antigen 19-9 and S100 calcium binding protein A2 biomarkers offer precision medicine possibility, but implementation faces continuous socioeconomic obstacles requiring healthcare system transformation and collaborative international efforts.
- Citation: Karmakar R, Gade P, Wang HC, Mukundan A. Very early recurrence in pancreatic cancer: Redefining prognostic markers and surveillance strategies. World J Gastrointest Surg 2026; 18(1): 114574
- URL: https://www.wjgnet.com/1948-9366/full/v18/i1/114574.htm
- DOI: https://dx.doi.org/10.4240/wjgs.v18.i1.114574
Pancreatic ductal adenocarcinoma (PDAC) is one of the most serious and aggressive type of cancer with low chances of long-term survival, it’s also seventh leading cause of cancer related deaths globally and its 5-year survival rate remains dismally low at approximately 10%[1-4]. Surgical resection is the only available way which offers potential to cure, the benefit is often short-lived due to extremely high rate of diseases recurrence which can affect up to 80% of patients even after surgery[3,5]. While recurrence many times occurs within the first two years, a subset of patients experience relapse much sooner, this condition known as early recurrence[6,7]. The early relapse of cancer soon after surgery is associated with very poor chances of survival and is often attributed to the presence of occult micro metastases at the time of surgery raising questions about the utility of an upfront surgical approach in these patients - a concept described as “surgical futility”[5].
The precise definition of early recurrence remains a subject of debate, with studies implementing various cut-off’s including 6 months[5,8], 9 months[9], and 12 months[3,7,10]. This lack of standardization shows the need for a better understanding of the distinct biological behaviors driving different recurrence timelines[7]. In the study by Martlı et al[11] provides a significant contribution by finding a more aggressive disease course which they term “very early recurrence” (VER), defined as relapse within 12 weeks post-surgery”. Identifying patients at high risk for such an accelerated recurrence is critical for improving treatment strategies, as these individuals may benefit more from neoadjuvant therapy rather than upfront resection[7,9,12].
VER, basically represents a distinct biological phenomenon compared to conventional early recurrence (6-12 months) or late recurrence (> 12 months). Whereas later recurrences many times result from de novo tumor development or treatment resistance, VER represents an existing occult micro-metastases at the time of surgery, showing that disease was never truly localized[3,6,7,10,13]. This distinction has significant clinical implications[4,14], because VER patients show survival outcomes that are almost the same as those of patients receiving palliative chemotherapy[2,14,15]. The mortality rate for VER patients is 32.44%, while that of non-VER patients is 14.77% within six months[5]. This correctly puts into doubt the usefulness of upfront surgical intervention in this subgroup[4,8,15]. The importance of identifying VER risk factors for its unique prognostic implications[3,6,7,13]. Patients with later recurrence patterns, may still derive benefits from surgical interventions, Early detection is required for treatment selection and patient advising[10], because VER patients experience outcomes similar to those of advanced-stage disease[5-7].
Over many years research has found several clinicopathological risk factor for early recurrence such an elevated preoperative carbohydrate antigen 19-9 (CA19-9) levels[5,8-10,15], lymph node metastasis[3,10,15], larger tumor size[3,9,14], and the lack of adjuvant chemotherapy[5,7]. A particularly consistent predictor is poor tumor differentiation (grade 3), which is strongly associated with early recurrence and other poor predictive features like increased lymph node and microvascular invasion[5,10,12,14]. The work by Martlı et al[11] on existing knowledge by conducting a focused analysis of VER. There key findings confirms that poorly differentiated (grade 3) tumors are the strongest predictor of recurrence within 12 weeks, a relapse pattern associated with significantly higher six-month mortality. The study additionally identified pancreatic head location and elevated red cell distribution width (RDW) as significant risk factors for VER.
The selection of grade 3 grading and RDW instead of traditional identifiers authorized specific justification[6], While CA19-9 has found efficiency in monitoring disease progress[3,7,13], it shows poor specificity due to elevation in benign biliary conditions and is absent in Lewis-negative patients (5%-10% of population)[8,14,15], restricting universal applicability. Indeed, grade 3 distinction provides detailed pathological evaluation and global applicability. Conversely, grade 3 separation provides detailed pathological assessment universally obtainable through standard examination, correlating with increased lymph node metastasis and microvascular invasion without specialized testing[1,8,12]. RDW offers clear benefits as a regularly calculated component of complete blood count testing, providing an available, cost-effective marker of systemic inflammation[15]. The machine learning approach shows how these indicators work collaboratively, with grade 3 status reflecting inherent tumor biology and RDW collecting systemic disease burden[15].
This editorial explores the findings of Martlı et al[11], showcasing their work within the broader context to PDAC recurrence research and discussing implications for improved risk management and personalized treatment strategies for patients facing this disease.
The model shift toward predicting VER in ductal adenocarcinoma demands for integration into clinical practice. The clinical implications of identifying patients at high risk for VER are remarkable as this patient may benefit from surveillance strategies, early starting of proper therapy, or alternative treatment approaches including “neoadjuvant therapy”. This medicinal approach challenges current one-size-fits-all treatment model.
Critical clinical decision making for patients with grade 3 tumor, head tumors, or elevated RDW may benefit from frequent imaging and early adjuvant therapy. The proofs of overwhelming support risk-stratified surveillance protocols. Also identifying patients with high S100 calcium binding protein A2 (S100A2) expression was importantly associated with a longer overall survival, highlighting that “the survival benefit from adjuvant chemotherapy is higher in patients with high S100A2 expression than in those with lower S100A2 expression through the suppression of the metastatic risk”[7].
The clinical urgency cannot be overstated: “Early recurrence after the surgery of pancreatic cancer is a barrier for long term survival”[7]. As this study highlights the specific patterns of PDAC recurrence are related with different survival outcomes providing important intelligence for predictive stratification and decisions regarding treatment after the diagnosis of recurrence so the moder oncological practices must be adapted.
The reality of pancreatic cancer management requires fundamental reassessment for surgical failures. The benefit of surgery to patients who experience early recurrence is limited, since subsequent survival of these cases is similar to unresectable patients receiving palliative chemotherapy[5]. These finding challenges surgical ethics and demands real discussions with patients about realistic outcomes. The failure implications are stark, early recurrence specifically which occurs within the first 6-12 months after the surgery is related with significantly worse overall survival compared to late recurrence, with patients experiencing early recurrence having a median survival of only 11.6-12.0 months vs 36.5 months for those without early recurrence[7,8].
Biomarker-driven decision making shows the future of pancreatic cancer care. “CA19-9 evaluation is an early and reliable sign for PDAC recurrence”, and “on the strength of a very high accuracy in CA19-9 positive patients, it should be considered to use CA19-9 for therapy decision even without a correlate of imaging technics”[15]. Revolutionary practices stared as “this is the first artificial-intelligence study with multi-center registry data to predict disease-free survival after the surgery of pancreatic cancer”, showing that artificial intelligence can provide a meaningful decision-support system for educating patients undergoing for surgery for pancreatic cancer[14].
The healthcare system faces striking challenges in implementing precision medicine approaches for pancreatic cancer. Machine learning usually requires large amount of data, which is difficult to manage, data of pancreatic cancer can be difficult to obtain because the majority of patients present with advanced unresectable disease[14]. This data scarcity perpetuates healthcare disparities and limits algorithmic development. Infrastructure limitations compound these challenges. The making of national shared database may be one solution to increase the data volume, this is questionable because of the dimensionality, missing data, and control of bias, with minority groups often does not present in such databases[14]. These systemic issues ask rules at international and collaborative international efforts. The economic problem is planning. The high rate of pancreatic recurrence of 66%-92% in the first two years after surgery and adjuvant chemotherapy represents a disastrous healthcare expenditure with minimal survival benefits[3]. As a clinical decision-support tool, predictive modelling has become more and more popular, maintaining cost-effectiveness through targeted therapies[14].
The decision for resource allocation becomes very important when considering the patients with multiple site recurrence had a limited median survival after recurrence of 4.7 months whereas patients who developed pulmonary metastases had a median survival of 15 months after first diagnosis of recurrence. These data provide essential information for predictive data to further assist patients and physicians alike when discussing challenging clinical choices and the balance of quality of life with further treatment options ultimately guiding healthcare resource deployment and end-of-life care planning.
The concept of VER within 12 weeks after surgery represents a model shifting advancement in PDAC management that fundamentally challenges traditional surgical approaches. The identification of poorly different (grade 3) tumors as the strongest predictor of VER, combined with novel associations involving pancreatic head location and evaluate the RDW which provides the clinicians with unprecedented tools for risk grouping and treatment personalization. The harsh truth that the patients experiencing VER shows survival results comparable to those receiving palliative chemo therapy with mortality rate of about six months reaches 32.44% where as 14.77% in non-VER patients demands honest and predictive discussion and fundamentals review of surgery futility. The integration of biomarker driven decision making, particularly CA19-9 and S100A2 shows patterns, combined with artificial intelligence to enhanced predictive modelling which offers revolutionary potential for precision medicine implementation.
However, the change from one-size-fits-all surgical principals to evidence based personalized treatment are selection faces substantial socio-economic obstacles. Healthcare system must address data infrastructure limitations, algorithmic bias, and health equity concerns while managing the fatal economic burden of PDAC’s 66%-92% recurrence rate within two years after surgery. Moving forward the successful implementation of VER predication requires collaborative international efforts, muti-institutional validation studies, and complete healthcare system restructuring. Only by such transformation and approaches we can hope to improve outcomes for patients facing this disastrous disease while ensuring fair access to precision medicine innovations.
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