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Spraying equipment SPRAY EQUIPMENT
Wear-resistant seal ring
The sealing ring of the plasma torch is a critical component that maintains the equipment’s seal and ensures the stability of the plasma arc. Its performance directly affects the equipment’s reliability and service life.
Ceramic circle
The ceramic ring of the plasma torch—also known as the “nozzle sleeve” or “insulating ceramic”—is a critical, wear-prone component that ensures the torch operates properly and maintains the stability of the plasma arc. Its performance and service life directly affect the precision, efficiency, and cost of plasma cutting and spraying.
Supersonic flame spray gun barrel
In the field of thermal spraying technology in modern industry, supersonic spray gun barrels have become a key factor in enhancing coating quality and efficiency thanks to their unique flame-jet capabilities. These gun barrels not only generate high-speed jets through flame combustion but also demonstrate advanced technological features and broad application prospects in multiple aspects.
Supersonic flame spray gun barrel
In the field of modern industrial thermal spraying technology, supersonic spray gun barrels have become an indispensable key piece of equipment in spraying operations, thanks to their unique ability to withstand extremely high temperatures. These gun barrels not only maintain stable operational performance at exceptionally high temperatures but also ensure that the sprayed materials are deposited onto the workpiece surface in a superior form, thereby producing high-quality, uniform, and durable coatings.
Anode for ceramic coating spraying equipment
In the high-temperature superconducting ceramic coating spray equipment system, the anode component plays an indispensable and crucial role. The anode is one of the key components in the entire spraying process, and its performance directly affects the quality and efficiency of the spraying.
Cathode with Plasma-Sprayed Nickel-Aluminum Alloy Coating
In the nickel mesh spraying process for hydrogen production via water electrolysis, nickel-aluminum alloy coatings play a crucial role, and 9MB plasma-spraying electrodes are indispensable in this process.
9M Plasma Torch Body Cathode
The 9MB spray-coated electrode boasts a sophisticated manufacturing process. It primarily employs a back-casting technique, in which copper alloy and tungsten alloy are fused together as a single unit via back casting. This manufacturing approach ensures a seamless weld between the two alloys, thereby achieving high strength and superior performance for the electrode.
9M Plasma Torch Anode
Plasma spraying is an advanced technology that involves heating the spray material to a molten or semi-molten state and then using a high-speed gas flow to spray it onto the substrate surface, thereby forming a coating. The plasma torch anode plays a crucial role in this process.
The SG-100 spray gun is used for preparing plasma thermal barrier coatings with a bonding underlayer plus a ceramic topcoat.
The SG-100 plasma torch, widely recognized in the industry as a high-performance thermal spraying device, has become a key tool for preparing high-temperature protective coatings thanks to its high power output, flexible configuration, and proven process stability.
F1 Plasma Torch
FST’s F1 plasma torch is renowned for its exceptional reliability and consistent coating quality, and is specifically designed to meet the demands of complex industrial applications. This torch adopts a modular design and offers two spray angle configurations—90° and 45°—to accommodate various workpiece geometries and coating requirements.
What are the anode and cathode in plasma spraying?
In plasma spraying technology, the spray gun is a crucial component, and the core parts of the spray gun are the cathode and the anode.
Introduction to Plasma Spraying and the Core Component—The Nozzle
Plasma spraying involves generating a direct-current arc between a cathode (electrode) and an anode (nozzle). This arc heats and ionizes the introduced working gas into a high-temperature plasma, which is then ejected from the nozzle to form a plasma flame. After being fed into the plasma jet by a powder-feeding gas, the powder particles are melted, accelerated, and sprayed onto the pre-treated substrate surface, thereby forming a coating.