Liver fibrosis is a pathological process resulting from various chronic liver injuries that lead to the formation of liver fibrous scars. It can further progress to cirrhosis and even liver cancer. Currently, there are no effective drugs specifically approved for the treatment of liver fibrosis; etiological therapy remains the main treatment strategy. Therefore, it is necessary to develop anti-fibrotic drugs targeting different pathways involved in liver fibrosis. Transforming growth factor-beta (TGF-β) is a key driver of fibrosis, and targeting TGF-β can effectively reduce liver fibrosis. In this review, we discussed the anti-liver fibrosis effects of TGF-β inhibitors through different signaling pathways, including the application of certain active ingredients from Traditional Chinese Medicine.

Metabolic dysfunction-associated steatotic liver disease has emerged as a leading cause of chronic liver disease and cirrhosis in the Western world. With rising rates of obesity, the prevalence of metabolic dysfunction-associated steatohepatitis (MASH)-related cirrhosis is expected to increase. MASH is associated with chronic hepatic inflammation and progressive liver fibrosis, and significant research is focused on developing pharmacological therapies to reverse these downstream complications. Recent trials have explored various therapeutic targets across metabolic, inflammatory, and fibrogenic pathways aimed at decreasing liver triglycerides, inflammation, lipotoxicity, and fibrosis. Some of these drugs show promise in reversing biomarkers and/or histologic markers of steatohepatitis and fibrosis, although most have been primarily studied in non-cirrhotic patients. However, in the context of the significant unmet medical need of patients with MASH-associated cirrhosis, growing interest in targeting compensated cirrhosis has prompted renewed investment in numerous early clinical and late-stage programs evaluating novel investigational agents in this population. This review summarizes current therapies under evaluation in phase 2 and 3 clinical trials for MASH-related cirrhosis, highlighting drug mechanisms, outcomes, and future research directions.

High-grade endometrial carcinoma (HGEC) is an aggressive tumor with increasing incidence and mortality. Traditional classifications, such as Bokhman’s dualistic model and the World Health Organization histopathological system, have limitations due to tumor heterogeneity and interobserver variability. This review provides a comprehensive understanding of how integrating histopathological and molecular data, particularly The Cancer Genome Atlas (TCGA) classification, advances risk stratification and personalized treatment in HGEC. It highlights current challenges and identifies future directions to improve diagnostic accuracy and patient outcomes through precision medicine.

A literature review was conducted focusing on the epidemiology, histopathology, and molecular profiling of HGEC, with an emphasis on TCGA and next-generation sequencing studies.

TCGA molecular classification stratifies HGEC into four subgroups with distinct prognoses which includes POLE-ultramutated (POLE), microsatellite instability hypermutated, copy number high and copy number low. The next-generation sequencing enhances diagnostic precision and guides personalized treatment. However, diagnostic challenges persist in clinical practice.

Integrating histopathology with TCGA-based molecular profiling refines HGEC classification, enabling improved risk stratification and targeted therapies. Continued efforts to improve diagnostic accuracy are essential to advance patient care.

Solute carrier (SLC) family transporters are crucial transmembrane proteins responsible for transporting various molecules, including amino acids, electrolytes, fatty acids, and nucleotides. To date, more than fifty SLC transporter subfamilies have been identified, many of which are linked to the progression of hepatic steatosis and fibrosis. These conditions are often caused by factors such as non-alcoholic fatty liver disease and non-alcoholic steatohepatitis, which are major contributors to the global liver disease burden. The activity of SLC members regulates the transport of substrates across biological membranes, playing key roles in lipid synthesis and metabolism, mitochondrial function, and ferroptosis. These processes, in turn, influence the function of hepatocytes, hepatic stellate cells, and macrophages, thereby contributing to the development of hepatic steatosis and fibrosis. Additionally, some SLC transporters are involved in drug transport, acting as critical regulators of drug-induced hepatic steatosis. Beyond substrate transport, certain SLC members also exhibit additional functions. Given the pivotal role of the SLC family in hepatic steatosis and fibrosis, this review aimed to summarize the molecular mechanisms through which SLC transporters influence these conditions.

Hyperuricemia (HU), characterized by elevated uric acid (UA) levels in the blood, is a global health concern associated with various conditions, including cardiovascular diseases, gout, hypertension, metabolic syndrome, renal dysfunction, and neurodegenerative diseases. Recent studies highlight the multifaceted origins of HU, implicating genetic predisposition, dietary patterns, lifestyle choices, and environmental influences. Genetic variations affecting enzymes and transporters involved in purine metabolism and UA excretion have been identified, paving the way for personalized treatment strategies. Advances in diagnostic imaging and omics technologies provide enhanced precision in detecting and evaluating risks. While pharmacological interventions remain central to managing HU, persistent challenges such as treatment resistance necessitate the exploration of novel drug targets and lifestyle modifications. Chinese herbal medicines present a potential alternative with fewer side effects. Emerging research on the impact of gut microbiota on UA metabolism opens new therapeutic avenues. Despite progress, challenges such as optimizing treatment duration and understanding long-term effects remain. Collaborative efforts are essential to address these challenges and advance our comprehension of HU. Integrating precision medicine and holistic patient care approaches holds promise for improving outcomes and enhancing the quality of life for individuals with HU. This review provided a contemporary analysis of HU, covering its causes, associated health risks, diagnosis, treatment, and future outlook.

This review explores how the gut microbiome influences aging, particularly examining the effects of microbiome imbalances (dysbiosis) on immune system function, inflammation, and the integrity of genetic material. As we age, there is a noticeable decline in cellular and physiological capabilities, which heightens the risk of diseases and diminishes the body’s resilience to stress. A significant contributor to this decline is the change in the gut microbiome, which affects immune reactions, triggers chronic inflammation, and worsens DNA damage. The review is structured into several key areas: first, the connection between dysbiosis and age-related ailments such as rheumatoid arthritis, Crohn’s disease, and systemic lupus erythematosus; second, how aging influences immune tolerance, especially regarding dendritic cells, and its link to autoimmune diseases; third, the acceleration of immunosenescence and the prolonged inflammatory responses associated with aging; and fourth, the impact of senescent cells and oxidative stress on increasing inflammation and damaging DNA. We also underscored the significance of short-chain fatty acids produced by beneficial gut bacteria in modulating immune responses and facilitating DNA repair. The discussion includes the potential use of probiotics and other microbiome-related interventions as treatment options to promote healthy aging. Ultimately, we stressed the necessity for additional research to deepen our comprehension of the microbiome’s effect on DNA damage and to create personalized therapeutic strategies for fostering healthier aging and enhancing longevity.

Liver injury in Stevens-Johnson syndrome (SJS) and toxic epidermal necrolysis (TEN) is a multifaceted disorder, lacking cohort homogeneity due to a variety of potential causes, including drugs, arsenic and other heavy metals, glyphosate, infections, and ultraviolet radiation. The goals of this review were (1) to analyze the role of diagnostic algorithms in assessing causality for potential culprits involved in the development of liver injury associated with immune-mediated SJS and TEN, which represent immune-based variant disorders within a continuous spectrum. Milder forms are classified as SJS or SJS/TEN overlap, while TEN is known as the most serious form; and (2) to interpret the findings that allow for the characterization of the different types of these disorders. The manuscript is based on an extensive literature search for single case reports, case cohorts, and review articles. Search terms included: Stevens-Johnson Syndrome, Toxic Epidermal Necrolysis, and specific diagnostic algorithms such as the Roussel Uclaf Causality Assessment Method (RUCAM) and the Algorithm of Drug Causality for Epidermal Necrolysis (ALDEN). For the purpose of basic feature description, the uniform term SJS/TEN is used in the current analysis. SJS/TEN presents with five different cohort types: SJS/TEN type (1), which refers to a cohort of SJS/TEN caused by drugs, as assessed by both ALDEN and RUCAM; type (2), representing SJS/TEN due to drugs and assessed by ALDEN only, but not by RUCAM; type (3), which includes a cohort of SJS/TEN caused by drugs, assessed by non-ALDEN and non-RUCAM tools; type (4), which focuses on a cohort of SJS/TEN caused by non-drug culprits, assessed by various tools; and type (5), which considers a cohort of SJS/TEN caused by unknown culprits. Using this new SJS/TEN typology will help better characterize individual features, personalize treatment, and clarify pathogenetic specifics for each of the five disease types. This new SJS/TEN typology provides clarity by replacing issues of inhomogeneity with cohort homogeneity.

Type 2 diabetes mellitus (T2DM) is a prevalent yet complex metabolic disorder that has shown a rising incidence over the past few decades. Recent research has identified flavonoids as compounds capable of both preventing and managing T2DM through various mechanisms. These mechanisms include enhancing insulin sensitivity, stimulating insulin secretion, modulating intestinal microbiota, inhibiting glucose absorption, and reducing gluconeogenesis. Moreover, numerous studies have suggested that flavonoids may influence gut hormones. Therefore, we propose that flavonoids could serve as effective therapeutic agents for T2DM by modulating intestinal hormone levels. This review aimed to elucidate the potential pathways through which flavonoids may impact T2DM, with a particular emphasis on their role in regulating the enteroendocrine system.

FMS-like tyrosine kinase 3 (FLT3) mutations are among the most common genetic alterations in acute myeloid leukemia (AML) and play a pivotal role in leukemogenesis. The two primary mutation types, internal tandem duplications (ITDs) and tyrosine kinase domain point mutations, serve as key prognostic markers and therapeutic targets. Advances in next-generation sequencing (NGS) have revolutionized FLT3 mutation detection by providing precise insights into mutation architecture, enhancing risk stratification, and enabling personalized treatment strategies. Additionally, these advancements have facilitated molecular minimal residual disease (MRD) testing, which is instrumental in guiding post-remission management. This review summarizes the molecular characteristics, diagnostic approaches, and therapeutic implications of FLT3 mutations in hematologic malignancies.

A narrative review of the current literature on FLT3 mutations was conducted, incorporating data from original research articles, clinical trials, and recent reviews. Relevant studies were identified through a PubMed literature search and manually curated.

FLT3 mutations are detected in approximately 30% of AML cases and occur at lower frequencies in myelodysplastic syndromes, chronic myelomonocytic leukemia, acute lymphoblastic leukemia, and mixed phenotype acute leukemia. NGS enables comprehensive mutation profiling, revealing rare variants and subclonal complexity while supporting MRD detection with high analytic sensitivity. FLT3-ITD-based MRD positivity is strongly associated with relapse and poor survival in AML. Clinical trial data support FLT3 inhibitors, including midostaurin, gilteritinib, and quizartinib, in FLT3-mutated AML. Additionally, MRD-guided therapy and combination treatment strategies are promising approaches to overcoming resistance.

FLT3 mutations play a central role in the pathogenesis and treatment of AML and related malignancies. NGS-based testing and MRD monitoring transform clinical decision-making by refining risk stratification and enabling personalized therapeutic interventions. Establishing standardized testing protocols and the broader integration of FLT3-targeted therapies will be essential for optimizing patient outcomes.