Topics

Phagocytosis Checkpoint-Mediated Tumor Immune Escape

Phagocytosis checkpoint-mediated tumor immune escape describes how cancer cells block macrophage and dendritic-cell clearance by expressing antiphagocytic “don’t eat me” signals.

Lipid Competition And Immunosuppression In The Tumor Microenvironment

Lipid competition and immunosuppression in the tumor microenvironment describe how cancer cells and infiltrating immune cells compete for fatty acids, cholesterol, and lipid-derived energy sources while lipid-rich conditions reprogram immune cells toward tumor-supportive phenotypes.

Mechanisms Of Cancer Dormancy-Mediated Metastasis And Targeted Therapies

Cancer dormancy-mediated metastasis describes how disseminated tumor cells persist in distant tissues in a viable but non-proliferative state, evade therapy, and later reawaken to generate metastatic relapse.

Immune Checkpoints Regulate Tumor Immune Escape And Therapeutic Response

Immune checkpoints regulate tumor immune escape and therapeutic response by restraining T-cell activation, preserving self-tolerance, and limiting tissue damage, while tumors exploit these inhibitory pathways to avoid immune destruction.

Tregs And Immune Regulation

Tregs and immune regulation describe a specialized immune-control system centered on regulatory T cells that maintain immune tolerance, restrain excessive inflammation, and shape antitumor immunity.

Tumor Organoids Drive The Development Of Cancer Nanomedicine

Tumor organoids drive cancer nanomedicine by providing three-dimensional, patient-derived models that preserve key tumor architecture, molecular features, histopathology, genetic traits, phenotypes, and tumor microenvironment interactions.

Immunity, Inflammation, and Cancer: Mechanisms and Therapeutic Targets

Immunity, inflammation, and cancer represent an interconnected biological axis in which immune surveillance, inflammatory signaling, and tumor adaptation determine cancer development and therapeutic response.

Application Of Integrating Spatial Omics And AI In Cancer Research

Integrating spatial omics and AI in cancer research means combining spatial transcriptomics, spatial proteomics, spatial metabolomics, multiplex imaging, digital pathology, and machine learning to map molecular programs within preserved tissue architecture.

Targeting Tumor Metabolism, Remodeling Tumor Immunity

Targeting tumor metabolism to remodel tumor immunity treats metabolic reprogramming as both a cancer-growth engine and an immune-evasion mechanism.

MitoCatch: A High-Efficiency Mitochondrial Transplantation Platform Targeting Degenerative Diseases

MitoCatch is a cell-type-targeted mitochondrial transplantation system designed to deliver healthy donor mitochondria to selected disease-affected cells.

Lipid Raft Remodeling Strategies For Inducing Tumor Cell Death

Lipid raft remodeling strategies for inducing tumor cell death target cholesterol- and sphingolipid-rich membrane microdomains that compartmentalize signaling proteins.

Aberrant Activation Of Protein-tyrosine Kinases And Cancer Development

Aberrant activation of protein-tyrosine kinases is a core mechanism of cancer development because these enzymes control phosphorylation-dependent signaling that regulates proliferation, survival, differentiation, migration, angiogenesis, and genomic stability.

Cancer-associated Lysosomal Changes: Friend Or Foes?

Cancer-associated lysosomal changes can act as both friends and foes because lysosomes support tumor adaptation while creating therapeutic vulnerabilities.

Applications Of SUMOylation-Targeting In Cancer Research

SUMOylation-targeting in cancer research focuses on a reversible post-translational modification in which SUMO proteins are conjugated to lysine residues on substrate proteins through an enzymatic cascade.

Warburg Effect/Glycolysis: Active Metabolic Reprogramming In Tumor

Warburg effect describes the enhanced conversion of glucose to pyruvate followed by lactate formation even when oxygen is available.

Golgi Stress Response: A Novel Pathogenic Mechanism In Human Diseases

Golgi stress response describes a homeostatic program activated when secretory and membrane-protein production exceeds Golgi capacity for vesicle trafficking, glycosylation, sorting, and post-translational modification.

Photosensitizers: Enabling Precise, In Situ Tumor Destruction

Photosensitizers enable precise, in situ tumor destruction through photodynamic therapy, a two-stage cancer treatment that administers a photosensitizing agent and then illuminates the target lesion with light of an appropriate wavelength in the presence of molecular oxygen.

Mechanism Of Targeted Therapy Inducing Receptor Protein Internalization

Targeted therapy-induced receptor protein internalization describes the drug-driven removal of surface receptors into endocytic compartments, followed by recycling, lysosomal trafficking, degradation, or intracellular payload release.

Therapeutic Targets For Organotropism In Tumor Metastasis

Therapeutic targets for organotropism in tumor metastasis arise from the observation that metastatic cancer cells do not colonize distant organs randomly; instead, they interact with permissive “soil” in lung, liver, brain, bone, and other organs.

Cascading Molecular Effects Of Intratumoral Hypoxia

Intratumoral hypoxia describes insufficient oxygenation within solid tumors, created by abnormal vasculature, rapid tumor expansion, and impaired perfusion.

Modulating Tumor Cell Quiescence Or Dormancy To Combat Drug Resistance

Tumor cell quiescence or dormancy describes a clinically silent state in which residual cancer cells persist without overt tumor growth, often through cellular dormancy marked by G0-G1 arrest, angiogenic dormancy, or immune-mediated equilibrium.

Cellular Reprogramming And Molecular Basis Of Pancreatic Cancer Progression

Cellular reprogramming and the molecular basis of pancreatic cancer progression describe how pancreatic cells lose differentiated identity, acquire duct-like or progenitor-like states, and accumulate oncogenic alterations that drive pancreatic ductal adenocarcinoma.

Pivotal Role Of The Juxtacrine Pathway In Tumor

Juxtacrine signaling in tumors refers to contact-dependent communication in which membrane-bound ligands, receptors, adhesion molecules, or immune checkpoints transmit signals between adjacent cancer, stromal, endothelial, or immune cells.

Modes Of Tumor Cell Communication: Endocrine, Autocrine, And Paracrine

Modes of tumor cell communication include endocrine signaling through circulating hormones, autocrine signaling in which cancer cells respond to factors they produce, and paracrine signaling between tumor cells and nearby stromal, immune, endothelial, or fibroblast populations.

Powerful Combination Of ADCC Strategies And Tumor-Targeted Therapies

Antibody-dependent cellular cytotoxicity strategies and tumor-targeted therapies converge on a central therapeutic idea: an antibody binds a tumor-associated surface antigen through its Fab region and recruits Fc-receptor-bearing immune effector cells through its Fc region to kill malignant cells.

Cytokine Autocrine Loops And Tumor Progression

Cytokine autocrine loops link inflammation to tumor progression by allowing cancer cells or tumor-associated cells to produce cytokines and respond through matching receptors, creating self-reinforcing survival, proliferation, invasion, and immune-evasion signals.

Diverse RNA-Based Therapies For Cancer Treatment

Diverse RNA-based therapies for cancer treatment comprise messenger RNA, small interfering RNA, microRNA, antisense oligonucleotides, and RNA aptamers; these modalities use RNA either to encode antigens or proteins, silence oncogenic transcripts, regulate non-coding RNA networks, or bind disease-relevant molecules.

Epigenetic Reader Proteins Drive Tumor Heterogeneity

Epigenetic reader proteins drive tumor heterogeneity by interpreting chromatin marks and converting them into transcriptional programs that diversify cancer-cell states.

Immune Phagocytosis Signals: "Eat Me" Or "Don'T Eat Me"

Immune phagocytosis signals are paired pro-engulfment and anti-engulfment cues that tell macrophages, dendritic cells, and other phagocytes whether to clear a target cell or spare it.

Alkaliptosis: Ph-Dependent Cell Death Capable Of Killing Cancer Cells

Alkaliptosis is a pH-dependent regulated cell death process induced by JTC801 and characterized by lethal intracellular alkalinization, lysosomal dysfunction, and selective cancer-cell killing.

Paraptosis: A Unique Form Of Cell Death Characterized By Cytoplasmic Vacuolization

Paraptosis is a nonapoptotic programmed cell death mode defined by cytoplasmic vacuolization, mitochondrial swelling, endoplasmic reticulum dilation, and resistance to classical apoptosis inhibitors.

Efferocytosis: A Key Player In Promoting The Resolution Of Inflammation

Efferocytosis is the phagocytic clearance of apoptotic cells by macrophages and other professional or nonprofessional phagocytes, and it is a central mechanism for terminating inflammation without triggering secondary necrosis.

Parthanatos: A Distinct Form Of Neuronal Death

Parthanatos is a distinct form of regulated neuronal death driven by PARP1 overactivation, poly(ADP-ribose) accumulation, mitochondrial AIF release, nuclear AIF translocation, and large-scale DNA fragmentation.

Oxeiptosis: A Cell Death Pathway That Reduces Free Radical Damage

Oxeiptosis is a ROS-sensitive, caspase-independent, non-inflammatory cell-death pathway that mitigates damage caused by radicals.

Floatptosis: Lysosomal Fusion-Associated Termination Of Cell Death

Floatptosis is a newly reported cytoplasmic vacuolization cell death pathway defined as 'Fused LysosOme-Associated Termination' in macrophages infected by a Bergeyella cardium variant.

Lactylation: A Novel Mechanism Regulating Disease

Lactylation is a lactate-derived lysine post-translational modification that connects glycolysis, chromatin regulation, and disease biology.

The Link Between Epithelial-Mesenchymal Plasticity And Cancer Drug Resistance

Epithelial-mesenchymal plasticity describes the reversible movement of carcinoma cells across epithelial, hybrid epithelial/mesenchymal, and mesenchymal states, rather than a fixed binary switch.

Deciphering Cytokine Storm Of The Senescence-Associated Secretory Phenotype

Cellular senescence is a stable stress response that arrests damaged or abnormal cells, while the senescence-associated secretory phenotype, or SASP, releases inflammatory cytokines, chemokines, growth factors, and proteases into surrounding tissue.

Biomarkers For Atopic Dermatitis

Atopic dermatitis biomarkers are measurable molecular, cellular, genetic, or serum features that reflect disease activity, barrier dysfunction, immune endotypes, treatment response, or future disease risk.

Multi-Pathway Targeting Strategies For Osteoarthritis

Osteoarthritis is a heterogeneous whole-joint disease involving cartilage, synovium, subchondral bone, meniscus, ligaments, periarticular muscle, and pain pathways.

Immune Chemokines With Distinct Roles In The Tumor Microenvironment

Immune chemokines with distinct roles in the tumor microenvironment are chemokine ligands and receptors that direct immune-cell entry, positioning, retention, exclusion, and suppression in cancer tissue.

"Busy" Chemokines In The Tumor Microenvironment

'Busy' chemokines in the tumor microenvironment are chemokine ligands and receptors that actively organize immune-cell trafficking, tumor-cell migration, stromal signaling, angiogenesis, metastasis, immune exclusion, and cancer immunotherapy response.

Key Targets For Interfering With Viral Assembly, Release, And Maturation

Viral assembly, release, and maturation are late replication steps that convert viral genomes and structural proteins into infectious particles.

Regulatory Roles Of Fc Signaling In Innate And Adaptive Immunity

Fc signaling regulates innate and adaptive immunity by converting antibody recognition into cellular effector programs through Fc receptors on myeloid cells, NK cells, dendritic cells, mast cells, basophils, B cells, and other immune compartments.

Characteristic Interleukin Family Cytokines In Various Inflammatory Models

Interleukin family cytokines define inflammatory models because they translate tissue injury, infection, barrier stress, and immune-cell activation into recognizable cytokine signatures.

Coagulation Signal Cascade In Cardiovascular Disease

The coagulation signal cascade is a proteolytic network that converts vascular injury into thrombin generation, fibrin formation, platelet activation, and hemostatic clot stabilization.

NF-κB Fuels Inflammation, Autoimmunity, Cancer

NF-κB is an inducible transcription factor system first defined through κ immunoglobulin enhancer binding and later linked to post-translational activation, IκB-mediated cytoplasmic inhibition, inflammation, autoimmunity, and cancer.

Diet-Microbiome-Host Interactions Affect Cancer Therapy

Diet-microbiome-host interactions affect cancer therapy by linking dietary substrates, intestinal microbial communities, microbial metabolites, systemic immunity, and the tumor microenvironment.

NETs Promote Cancer Progression And Immune Evasion

Neutrophil extracellular traps, or NETs, are extracellular DNA-protein structures released by activated neutrophils and originally described as a host-defense mechanism against bacteria.

Cancers Evade Immunity Via Immunoediting

Cancer immunoediting describes how immunity both suppresses tumor development and shapes cancers that later escape immune destruction.