Shufeng Jiedu Capsules (SFJD), a traditional Chinese medicine preparation, are widely used in the clinical treatment of influenza, yet their mechanism of action remains unclear. This study aimed to systematically explore the molecular mechanism of SFJD in the treatment of influenza using network pharmacology and bioinformatics techniques.

The active ingredients of SFJD were retrieved from traditional Chinese medicine databases, and their targets were identified using the Swiss Target Prediction and TCMSP databases. Influenza disease genes were obtained from the GEO, GeneCards, and DisGeNET databases, and a Venn diagram was used to identify potential targets by mapping SFJD targets to influenza disease genes. Network construction and analysis of potential therapeutic targets were performed using the STRING12.0 database and Cytoscape3.9.1 software, leading to the identification of key targets. The expression of potential therapeutic targets in tissues and cells was retrieved using the BioGPS database. Functional enrichment analysis of these targets was conducted using the DAVID database. Molecular docking was then used to assess the interactions between key targets and core active ingredients.

SFJD contains 193 active ingredients and 985 targets. There are 510 influenza disease genes, 97 of which are potential therapeutic targets for SFJD in treating influenza, with 27 key targets identified through network construction and analysis. Tissue/cell-specific analysis revealed that 39 potential therapeutic targets are highly expressed in 37 specific tissues/cells. Functional enrichment analysis highlighted pathways such as the C-type lectin receptor signaling pathway, tumor necrosis factor signaling pathway, and hypoxia-inducible factor-1 signaling pathway. Molecular docking results indicated strong interactions between the core active ingredients and the key targets.

This study systematically reveals that the mechanism of action of SFJD in treating influenza is complex, involving multiple targets and pathways related to antiviral, anti-inflammatory, and immune regulation effects. The findings provide valuable reference information for future clinical treatment and basic research on influenza.

Despite its crucial role in interventional therapies for liver malignancy, cone-beam computed tomography (CBCT) has not yet been fully integrated into clinical practice due to several complicating factors, including nonstandardized operations and limited recognition of CBCT among interventional radiologists. In response, the Chinese College of Interventionalists has released a consensus statement aimed at standardizing and promoting the application of CBCT in the interventional therapies for liver malignancy. This statement summarizes CBCT scanning techniques, and operational standards, and highlights its potential applications in clinical practice.

Cancer is thought to be the second most prevalent and leading cause of mortality worldwide, affecting both men and women among other chronic diseases. While there are several treatment options available, significant strains, side effects, and resistance have led researchers to focus on finding novel alternative medications for cancer treatment. Antioxidants and the immunomodulatory activities of medicinal plants are studied and considered to have anti-cancer effects. Medicinal plants contain diverse phytoconstituents as natural drugs, which possess numerous medicinal properties used for treating and preventing various illnesses. These phytoconstituents work through several mechanisms to target and kill cancer cells. Anticancer mechanisms include suppression and arrest of the G0/G1 phase, acting as anti-mitotic and anti-microtubule agents, enhancing the activity of macrophages, inhibiting cancer cells through various signaling cascades, anti-angiogenesis, and cytotoxicity. Investigating botanical sources and their metabolites can uncover new chemical entities for cancer treatment at the molecular target level and provide future interventions in cancer therapy. This article summarizes a few medicinal plants and their mechanisms of action for their anticancer potential. Furthermore, we discuss the future prospects and limitations of using medicinal plants in cancer treatment.

Disseminated carcinomatosis of bone marrow (DCBM) occurs mostly in stomach cancer patients; however, characterizing tumor cells morphologically and phenotypically in the bone marrow is not an easy task. In addition, among patients with DCBM, an unknown primary site (CUPS) is rarely noted despite standard clinical evaluation, imaging studies, and endoscopic findings. This study aimed to clarify the diagnosis/outcome of DCBM in elderly patients we have treated.

Here, we report eight DCBM cases. Once tumor clumps were noted in the bone marrow, we performed serum tumor markers, immunostaining of tumor cells in the bone marrow clot, or biopsy preparations. In addition, imaging studies (CT/MRI/ FDG PET-CT) were performed.

Of eight cases, two were diagnosed with DCBM/CUPS. Among the eight cases, six fatal cases had a median survival time of 2 months (ranging from <0.5 to 8 months) from DCBM detection to death or the time of this writing, while the CUPS cases were still alive at 2+ and 3+ months, respectively. The outcomes of DCBM and DCBM/CUPS, particularly in elderly patients, were dismal, and comprehensive genomic profiling could not be perform in these cases.

The use of conventional morphological/phenotypical characteristics to improve the prognosis of DCBM patients is limited. Consequently, the application of comprehensive genomic profiling is recommended to enhance diagnostic and therapeutic approaches.

Metabolic-associated fatty liver disease (MAFLD) may increase the risk of cardiovascular events. In this study, we assessed the predictive value of pentraxin 3 (PTX3) for severe fibrosis and carotid intima-media thickness (CIMT) in patients with MAFLD.

188 patients (114 with MAFLD, 74 with dual etiology MAFLD and chronic hepatitis C) were included. All participants underwent clinical history and examination, metabolic parameter assessment, serum level evaluation of PTX3, Fibrosis-4 index and nafld fibrosis score scores, abdominal ultrasound, and CIMT assessment.

The serum PTX3 was significantly elevated in patients with advanced fibrosis compared to those with mild/moderate fibrosis (1.8 vs 1.4, p = 0.006). The PTX3 level was independently associated with advanced fibrosis (odds ratio = 1.26, 95% confidence interval 1.008–1.040). In MAFLD patients, the PTX3 levels in patients with low fibrosis compared to those with advanced fibrosis were 1.4 (1–2.1) and 1.9 (1.3–3.8), respectively (p = 0.027). A significantly greater CIMT was noted in patients with elevated PTX3 levels (3.85 (3.42–4) vs 4.05 (3.7–4.67), p = 0.0001) compared to those with low PTX3 levels.

Serum PTX3 levels can accurately predict advanced fibrosis and CIMT in MAFLD patients. Thus, it could be useful for management and risk stratification.

Following complete peripheral nerve injury, collateral sprouting (CS) by adjacent nerves causes concentric shrinkage of the insensate area. Such take-over of insensate territory is unknown in proximal lesions such as stroke, spinal cord injury, and cauda equina syndrome, as peripheral nerves supplying insensate territories still maintain continuity from the cell body in the dorsal root ganglion (DRG) to the skin innervation territory. This preserved distal continuity opposes territory take-over by the expansion of adjacent sensate territories; sectioning peripheral nerves in insensate territories distal to DRGs disconnects nerve cell bodies from their skin territory, thus facilitating sensate territory expansion of adjacent nerves. Similar motor system applications in paralyzed territories include lower motor neurone lesioning and fasciectomies, facilitating motor territory expansion of adjacent nerves through CS. A search for evidence of previous conception of these hypotheses was conducted in the literature, using a combination of relevant terms from three categories (proximal neuraxial lesions, nerve-muscle interventions, collateral sprouting); however, this yielded no pertinent results, suggesting that these concepts are novel. Observations from the literature on peripheral nerve injury indicate a sound scientific basis for these hypotheses. Therefore, the suggested “weeding” interventions are likely to succeed in minimizing neurological deficits and improving patients’ quality of life. Various interventions to expand sensory/motor territories are considered; these include nerve lesioning distal to DRGs and removing fascial barriers between innervated and paralyzed muscles. Experience from such interventions will help expand our understanding of the speed and extent of CS-mediated neurological recovery as well as brain’s plastic abilities in reorienting after such procedures.

(p)ppGpp binds to RNA polymerase, causing stalling at damaged DNA sites and subsequent backtracking, which facilitates the recognition and removal of damaged DNA by repair proteins. Additionally, (p)ppGpp regulates DNA repair proteins involved in the Save Our Soul response and mutagenic strand break repair pathways, which are crucial for repairing damages induced by Ultraviolet light and other DNA-damaging agents, including antibiotics. Through these repair pathways, (p)ppGpp plays a vital role in mending strand breaks induced by ciprofloxacin, a fluoroquinolone antibiotic. (p)ppGpp mediates bacterial survival by inhibiting the transcription of mismatch repair proteins while simultaneously upregulating error-prone polymerases mediated by stress-induced sigma factors, thereby facilitating mutagenesis. The function of (p)ppGpp in fine-tuning DNA repair proteins to support bacterial survival against antibiotics via stress-induced mutagenesis is an emerging topic in the field of antibiotic resistance research. Currently, limited information is available on how (p)ppGpp interconnects the various DNA repair pathways that directly influence bacterial resistance to antibiotics. (p)ppGpp is also known to promote bacterial persistence against ofloxacin, another fluoroquinolone, by regulating proteins that induce membrane depolarization. The overlapping functions of (p)ppGpp as a master regulator in DNA repair during stress and bacterial persistence are yet to be fully elucidated. This review focuses on recent publications highlighting (p)ppGpp as a potential link connecting DNA repair pathways to bacterial survival strategies against fluoroquinolone antibiotics.

Molecular analysis of breast cancer tissue has revealed that breast cancer is not a uniform disease. Each breast cancer patient has several molecular signatures that differ from those of others. Therefore, breast cancer therapy should be personalized, depending on its molecular signatures. Breast cancer with hormonal receptors can be treated with a selective estrogen receptor modulator or selective estrogen receptor degrader therapy, while breast cancer with overexpression of human epidermal growth factor receptor 2 (HER2)-neu gene responds excellently to anti-HER2-neu therapy. For patients with advanced breast cancer that already has distant metastasis and a poor prognosis, a new agent has been discovered. The phosphatidylinositol-4,5-bisphosphate 3-kinase catalytic subunit alpha (PIK3CA) inhibitor has been proven effective in treating advanced breast cancer with a PIK3CA gene mutation. This therapy can be administered to HER2-negative breast cancer patients and in combination with selective estrogen receptor degrader therapy for post-menopausal patients with positive hormonal receptors. Although this treatment is effective, it cannot be given to every advanced breast cancer patient. Before administering the treatment, a PIK3CA mutation test is compulsory. PIK3CA mutation detection in breast cancer can predict the cancer’s response to the PIK3CA inhibitor, providing information on which patients will benefit from the treatment.

Idiopathic pulmonary fibrosis is a chronic, progressive, incurable lung disease, leading to irreversible lung tissue remodeling. The Notch signaling pathway, essential for lung development, has gained attention for its role in pulmonary fibrosis. While Notch1 and Notch3 have been extensively studied, the involvement of other Notch receptors, especially Notch4, remains less explored. This study aimed to evaluate the impact of Notch4 on lung fibroblast activation and its potential interaction with the transforming growth factor-beta 1 (TGFβ1) signaling.

Primary human lung fibroblasts were transduced with lentivirus containing the intracellular domain of NOTCH4 (N4ICD). Changes in gene expression in transduced cells were assessed using real-time polymerase chain reaction, immunofluorescence staining, and Western blotting. Transcriptomic analysis was also performed on N4ICD-transduced lung fibroblasts.

N4ICD overexpression significantly upregulated key fibrotic markers such as ACTA2 and COL1A1. It also induced the TGFβ1 pathway, as evidenced by SMAD2 phosphorylation and elevated TGFβ1 mRNA level. Transcriptomic analysis revealed that N4ICD-induced cells exhibited characteristics of highly invasive myofibroblasts.

This study establishes Notch4 as a novel contributor to pulmonary fibrosis, by demonstrating its ability to induce myofibroblast differentiation and interact with the TGFβ1 pathway.