Synergistic effects of size-confined mxene nanosheets in self-powered sustainable smart textiles for environmental remediation

Keyphrases

• Heterostructure 100%
• Size Effect 100%
• Synergistic Effect 100%
• Self-powered 100%
• Zinc Oxide 100%
• Environmental Remediation 100%
• Smart Textiles 100%
• Biomaterials 50%
• Piezoelectric Properties 50%
• Global Warming 50%
• Greenhouse Gas 50%
• Climate Change 50%
• Fossil Fuels 50%
• Water Resources 50%
• Cellulose 50%
• Short-circuit Current 50%
• Conversion Efficiency 50%
• Generated Power 50%
• Adverse Impact 50%
• Mechanical Stability 50%
• Renewable Energy Technologies 50%
• Piezo 50%
• Mechanical Energy 50%
• Functional Materials 50%
• Chemical Stability 50%
• Nanofiber Composite 50%
• Zinc Oxide Nanoparticles (ZnO NPs) 50%
• Energy Research 50%
• Electrospinning Technique 50%
• Short Lifetime 50%
• Cellulose Acetate 50%
• Textile Production 50%
• Eco-friendly 50%
• MXene-based Composites 50%
• Enhanced Photocatalytic Activity 50%
• High Output Voltage 50%
• Highly Durable 50%
• Sustainable Operations 50%
• Nanogenerator 50%

Material Science

• Nanosheet 100%
• Smart Textile 100%
• MXene 100%
• Nanofiber 66%
• Zinc Oxide 66%
• Electronic Circuit 33%
• Heterojunction 33%
• Piezoelectric Property 33%
• Morphology 33%
• Greenhouse Gas 33%
• Biomaterial 33%
• Electrospinning 33%
• Mechanical Stability 33%
• Functional Material 33%
• Composite Material 33%
• Fossil Fuel 33%
• Cellulose Acetate 33%
• Zinc Oxide Nanoparticles 33%

Chemical Engineering

• Nanosheet 100%
• Zinc Oxide 100%
• Nanoparticle 33%
• Enhanced Photocatalytic Activity 33%
• Methyl Orange 33%