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Address:Room 1505, Building 9, No. 26 Dongqing Street, Zhengzhou High-tech Industrial Development Zone
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180-3717-8440
Equipment Introduction
This system is an ultrasonic spray tube furnace system specifically designed for the synthesis of advanced nanomaterials. It innovatively integrates three core processes: ultrasonic atomization, high-temperature pyrolysis, and electrostatic collection, achieving precise control over the particle size, morphology, and microstructure of nanomaterials.
The system consists of three functional modules working collaboratively: an ultrasonic-enhanced aerosol generator uses 1.7MHz high-frequency ultrasound to efficiently and stably atomize the precursor solution into uniform micron-sized droplets, with a precision injection pump ensuring precise control of the feed rate. The high-performance tube furnace operates at temperatures up to 1200℃, equipped with a 30-segment programmable temperature control system and a 300mm-long homogenization zone, providing a precise and uniform thermal environment for the thermal decomposition, crystallization, and coating of nanomaterials. The high-voltage electrostatic collector utilizes an electric field of up to 30kV to efficiently and non-destructively collect the final synthesized nanopowder.
Through the seamless collaboration of these three subsystems, this system provides a high-efficiency, reliable, and highly reproducible high-end synthesis platform for preparing nanomaterials with uniform composition and complex structures (such as core-shell structures).
Main Application Areas
With its precise atomization control, flexible heat treatment process, and efficient powder collection capability, this system has wide applications in the following cutting-edge scientific research and materials development fields:
Advanced Nanostructure Synthesis: Particularly suitable for preparing core-shell nanostructures, hollow spheres, and porous materials, allowing precise control of shell thickness and core composition.
New Energy Materials Development:
Lithium-ion Batteries: Used for synthesizing high-performance cathode materials (such as lithium iron phosphate and ternary materials) and anode materials (such as silicon-carbon composites).
Fuel Cells and Catalysts: Preparation of metal/oxide supported catalysts.
Functional Coatings and Powders:
Thermal Barrier Coatings: Synthesis of yttrium oxide-stabilized zirconia and other ceramic powders.
Optoelectronic Materials: Preparation of quantum dots, OLED light-emitting layer materials, etc.
High-Purity Ceramic Materials: Used for synthesizing ultrafine, high-purity ceramic powders such as alumina, zirconia, silicon nitride, and silicon carbide, suitable for powder metallurgy and advanced ceramics fields.
Biomedical Materials: Preparation of microspheres and biocompatible coating materials for drug delivery and bioimaging.
This system is an ultrasonic spray tube furnace system specifically designed for the synthesis of advanced nanomaterials. It innovatively integrates three core processes: ultrasonic atomization, high-temperature pyrolysis, and electrostatic collection, achieving precise control over the particle size, morphology, and microstructure of nanomaterials.
The system consists of three functional modules working collaboratively: an ultrasonic-enhanced aerosol generator uses 1.7MHz high-frequency ultrasound to efficiently and stably atomize the precursor solution into uniform micron-sized droplets, with a precision injection pump ensuring precise control of the feed rate. The high-performance tube furnace operates at temperatures up to 1200℃, equipped with a 30-segment programmable temperature control system and a 300mm-long homogenization zone, providing a precise and uniform thermal environment for the thermal decomposition, crystallization, and coating of nanomaterials. The high-voltage electrostatic collector utilizes an electric field of up to 30kV to efficiently and non-destructively collect the final synthesized nanopowder.
Through the seamless collaboration of these three subsystems, this system provides a high-efficiency, reliable, and highly reproducible high-end synthesis platform for preparing nanomaterials with uniform composition and complex structures (such as core-shell structures).
Main Application Areas
With its precise atomization control, flexible heat treatment process, and efficient powder collection capability, this system has wide applications in the following cutting-edge scientific research and materials development fields:
Advanced Nanostructure Synthesis: Particularly suitable for preparing core-shell nanostructures, hollow spheres, and porous materials, allowing precise control of shell thickness and core composition.
New Energy Materials Development:
Lithium-ion Batteries: Used for synthesizing high-performance cathode materials (such as lithium iron phosphate and ternary materials) and anode materials (such as silicon-carbon composites).
Fuel Cells and Catalysts: Preparation of metal/oxide supported catalysts.
Functional Coatings and Powders:
Thermal Barrier Coatings: Synthesis of yttrium oxide-stabilized zirconia and other ceramic powders.
Optoelectronic Materials: Preparation of quantum dots, OLED light-emitting layer materials, etc.
High-Purity Ceramic Materials: Used for synthesizing ultrafine, high-purity ceramic powders such as alumina, zirconia, silicon nitride, and silicon carbide, suitable for powder metallurgy and advanced ceramics fields.
Biomedical Materials: Preparation of microspheres and biocompatible coating materials for drug delivery and bioimaging.
