Sustainable and scalable in-situ synthesis of hydrochar-wrapped Ti3AlC2-derived nanofibers as adsorbents to remove heavy metals

Engineering & Materials Science

• Nanofibers 100%
• Heavy metals 99%
• Adsorbents 92%
• Adsorption 74%
• Glucose 58%
• Raw materials 48%
• Biomass 46%
• Sawdust 34%
• Carbonization 33%
• Crystal structure 32%
• Activated carbon 31%
• Isotherms 30%
• Sorption 30%
• Desorption 29%
• Cellulose 28%
• Transmission electron microscopy 26%
• Scanning electron microscopy 20%
• Carbon 19%
• Water 13%

Earth & Environmental Sciences

• heavy metal 55%
• adsorption 52%
• in situ 47%
• glucose 47%
• raw material 41%
• sawdust 31%
• biomass 31%
• hot water 28%
• crystal structure 27%
• cellulose 24%
• transmission electron microscopy 23%
• activated carbon 23%
• desorption 22%
• aqueous solution 22%
• regeneration 22%
• isotherm 21%
• sorption 20%
• X-ray diffraction 19%
• scanning electron microscopy 18%
• kinetics 15%
• carbon 14%
• chemical 12%
• product 12%
• test 10%

Chemistry

• Nanofiber 66%
• Heavy Metal 64%
• Adsorbent 57%
• Raw Material 42%
• Glucose 37%
• Sawdust 33%
• Adsorption and Desorption Isotherm 28%
• Adsorption 25%
• Fuel 21%
• Hydrothermal Method 19%
• Sorption 18%
• Fourier Transform Infrared Spectroscopy 14%
• Aqueous Solution 13%
• Purity 12%
• Crystal Structure 12%
• Carbon Atom 12%
• Surface 8%