Preparation method of carbon composite indium phosphate photocatalytic material

Abstract

The invention discloses a method for preparing a carbon-composite indium phosphate photocatalytic material, which specifically comprises the following steps: adding indium chloride to ether, dissolving it with ultrasonic waves, adding polyacrylamide, and stirring to obtain a uniform spinning solution, electrostatically dissolving Spinning to obtain polyacrylamide nanofibers containing indium chloride; place the obtained polyacrylamide nanofibers containing indium chloride in a tube furnace, and heat at a speed of 10°C/min under a nitrogen atmosphere to 450 ~500°C, keep the temperature constant for 3~5 hours, then stop heating, and continue to pass nitrogen gas to cool down to room temperature naturally to obtain carbon-composite indium chloride; place the obtained carbon-composite indium chloride in phosphoric acid solution and impregnate for 10-25 After h, remove the phosphoric acid solution, wash with pure water for 2-3 times, and dry at 60-80°C to obtain a carbon-composite indium phosphate photocatalytic material. The invention has the advantages that: the indium phosphate is negatively implanted into the nano-carbon fiber, which is beneficial to electron transfer; the indium phosphate and the carbon fiber are tightly combined, not easy to peel off, and the solid-liquid separation is convenient after the reaction.

Description

the structure of the environmentally friendly knitted fabric provided by the present invention; figure 2 Flow chart of the yarn wrapping machine for environmentally friendly knitted fabrics and storage devices; image 3 Is the parameter map of the yarn covering machine

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AI Technical Summary

Benefits of technology

This technology allows for better electronic conduction between two materials by adding an element called indium Phosphorus (InP) onto one material while still keeping it intact or even more secure during chemical reactions.

Problems solved by technology

This patents discuss various techniques related to improving photoactive dye technologies such as reducing waste accumulation on crops caused by harmful substances released during manufacturing processes. Current treatments involve adding expensive antimicrobial agents like silver nitrate into fertilizers that help reduce bacteria growth without causing other negative side effects associated therewith. Additionally, exploring novel ways to create effective photosensitizing nanocomposites made up of different types of metals combined together through specific structures called quantum interference effects provides technical solutions for promoting greenhouse gas reduction while addressing issues relating to air quality control.