Chronic cancer pain results from the complex interaction of nociceptive, neuropathic, and neuroimmune mechanisms, which vary according to tumor type, location, stage, and treatment history. Recent advances in cancer neuroscience have reframed pain as a dynamic manifestation of reciprocal tumor–nerve–immune interactions, rather than a mere consequence of tissue damage. In this model, malignant, stromal, and immune cells remodel nociceptive circuits at peripheral and central levels. This narrative review, conducted in accordance with SANRA criteria, synthesizes current mechanistic insights into the neurobiology of cancer pain. At the peripheral level, tumor-derived mediators such as prostaglandins, cytokines, chemokines, glutamate, and endothelin-1 drive nociceptor sensitization via G-protein–coupled and tyrosine kinase pathways. In bone metastases, osteoclast-mediated resorption generates an acidic microenvironment that activates acid-sensing ion channels and transient receptor potential (TRP) channels, linking skeletal destruction with movement-evoked pain. Pathological nerve remodeling and perineural invasion further contribute to neuropathic components and adverse oncological outcomes. Treatment-induced syndromes, notably chemotherapy-induced peripheral neuropathy, result from axonal injury, mitochondrial dysfunction, and neuroinflammation. At the central level, persistent afferent input induces glial activation and chemokine signaling, amplifying synaptic transmission and promoting central sensitization. Emerging evidence also highlights epigenetic regulation, noncoding RNAs, and tumor–immune–neural crosstalk as potential therapeutic targets. Collectively, these findings position cancer pain as a disorder of aberrant tumor–nerve–immune signaling. Effective management requires precision strategies integrating mechanism-guided pharmacology, neuromodulation, and supportive care. This review emphasizes the need for translational research to bridge mechanistic discoveries with personalized, multimodal interventions in oncology.
Self-repairing technology based on micro-capsules is an efficient solution for repairing cracked cementitious composites. Self-repairing based on microcapsules begins with the occurrence of cracks and develops by releasing self-repairing factors in the cracks located in concrete. Based on previous comprehensive studies, this paper provides an overview of various repairing factors and investigative methodologies. There has recently been a lack of consensus on the most efficient criteria for assessing self-repairing based on microcapsules and the smart solutions for improving capsule survival ratios during mixing. The most commonly utilized self-repairing efficiency assessment indicators are mechanical resistance and durab
... Show MoreDue to the importance of nanotechnology because of its features and applications in various fields, it has become the focus of attention of the world and researchers. In this study, the concept of nanotechnology and nanomaterials was identified, the most important methods of preparing them, as well as the preparation techniques and the most important devices used in their characterization.
The term "nano gold," also known as "gold nanoparticles," is commonly used. These particles are extremely small, with a diameter of less than 100 nm, which is only a fraction of the width of a human hair. Due to their tiny size, nano gold particles are often found in a colloidal solution, where they are suspended in a liquid stabilizer. This colloidal gold is essentially another name for nano gold. The main method for producing gold nanoparticles in a colloidal solution is the citrate synthesis technique, which involves combining different solutions to precipitate the gold nanoparticles. In biological systems, copper complexes play a significant role at the active sites of many metalloproteins. These complexes have potential applications in
... Show MoreHeterocyclic compounds serve as crucial structural elements in the field of pharmaceutical medicinal chemistry. The five-membered heterocyclic nucleus of 1,3,4-oxadiazole occupies a distinctive position within medicinal chemistry and plays a vital role in the development of anticancer agents. Recognized as a significant pharmacophore for approximately 85 years, 1,3,4-oxadiazole is in high demand across various biological and chemical disciplines. This small and straightforward nucleus is found in numerous compounds that are the focus of research concerning their properties, synthesis, derivatives, and pharmacological activities, including anticancer, antibacterial, antimalarial, anti-inflammatory, antidepressant, analgesic, and antiviral
... Show MoreOrbital varices are vein dilations in the orbit presenting various symptoms. This scoping review synthesizes existing evidence on their epidemiology, clinical features, and treatment efficacy.
Literature was reviewed according to Preferred Reporting Items for Systematic Reviews and Meta-Analyses guidelines. PubMed and Scopus were searched until April 31, 2024, for articles on clinically diagnosed ocular varices detailing diagnostic methods, treatments, and outcomes. Exclusions were reviews, animal studies, and incomplete case reports. Data on study characteristics, diagnosis, management, and o
The aim of this study was to critically appraise and synthesize the best available evidence on the effectiveness of interventions suitable for delivery by nurses, designed to enhance cardiac patients' adherence to their prescribed medications.
Cardiac medications have statistically significant health benefits for patients with heart disease, but patients' adherence to prescribed medications remains suboptimal.
A systematic quantitative review of intervention effects.