Microphysiological systems to study tumor-stroma interactions in brain cancer

Keyphrases

• Physiologically Relevant 100%
• Tumor-stroma Interaction 100%
• Brain Cancer 100%
• Microphysiological Systems 100%
• Tumor 50%
• On-a-chip 50%
• Extracellular Matrix 50%
• Drug Discovery 50%
• Vascularized 50%
• Computational Modeling 50%
• Technological Progress 50%
• Clinical Data 50%
• Effective Treatment 50%
• Neural Tissue 50%
• Human Trials 50%
• Patient Response 50%
• Therapeutic Agents 50%
• Stromal Cells 50%
• Genetic mutation 50%
• Tumor Progression 50%
• Multiple Parameters 50%
• In Vitro Modeling 50%
• Brain Tumor 50%
• Disease Mechanisms 50%
• Modeling Data 50%
• Chemotherapy Resistance 50%
• Cancer Prognosis 50%
• Brain Tumor Microenvironment 50%
• Brain Microglia 50%
• Blood-brain Barrier 50%
• Inefficacy 50%
• Brain Astrocytes 50%
• Tumor Therapeutics 50%
• Cell Line Culture 50%
• Anticancer Treatment 50%
• Tissue Culture Plate 50%
• Cell Tissue Culture 50%
• Microphysiological 50%
• Brain Tumor Model 50%

Medicine and Dentistry

• Neoplasm 100%
• Stroma 100%
• Brain Tumor 100%
• Brain Cancer 100%
• Disease 66%
• Cell Line 33%
• In Vitro 33%
• Tumor Model 33%
• Extracellular Matrix 33%
• Tumor Progression 33%
• Stromal Cell 33%
• Tumor Microenvironment 33%
• Nerve Tissue 33%
• Gene Mutation 33%
• Therapeutic Agent 33%
• Cancer Prognosis 33%
• Astrocyte 33%
• Microglia 33%
• Blood Brain Barrier 33%

Pharmacology, Toxicology and Pharmaceutical Science

• Neoplasm 100%
• Brain Cancer 100%
• Brain Tumor 100%
• Disease 66%
• Tumor Growth 33%
• Tumor Microenvironment 33%
• Tumor Model 33%
• Drug Discovery 33%
• Blood-Brain Barrier 33%
• Cancer Prognosis 33%