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Te huri poi uku

There are many different sizes and types of pōro huri uku. Alumina, zirconium oxide, or tungsten carbide can be used to make them. These materials can be used for any application involving grinding.

Pāpāho Arumina

Cement, paints, and other industries use alumina media for grinding ceramic balls or hurihanga uku during the dry grinding process. They are specifically made to lower make-up costs and boost grinding machine effectiveness. They have excellent wear resistance and are non-magnetic. Additionally, they are very simple to clean. Additionally, the roundness of their shape and their high density lead to finer dispersion.

These balls are made from a mixture of magnetite and quartz, two natural minerals that have been sintered to a 4 mm thickness. Next, composite fluxes are incorporated into the powder. To the slurry, some organic binding agents are also added. This is subsequently injected through injectors into a granulation fluidized-bed dryer at room temperature.

Glass balls can't compare to the mechanical and chemical inertness of ceramic balls. However, the price is higher. Zirconia balls, for instance, cost more than fritted ceramic balls.

Why choose Tianchuang Grinding ceramic balls?

Ko nga waahanga hua e pa ana

Magnetic levitation grinding mechanism

A new and innovative magnetic levitation grinding mechanism for ceramic balls or mira pōro mō ngā uku is the subject of the current invention. The current system has a better balancing technique than earlier ball grinding systems. Trial weights are no longer necessary. Additionally, it makes it simpler to implement the algorithm in real-world uses.

Decentralized PID control and a whirl damping algorithm are combined to create this balancing method. The weighting factor of the whirl damping algorithm is established in accordance with the whirl frequency.

The balancing technique is used on a rotor that rotates out of center and axially. This balancing technique also narrows the space between the rotor and electromagnet. As a result, the rotor can be levitated by the electromagnet.

The electromagnet, which is a coil with a powder metal core, accomplishes this feat. A PC-based controller board controls the electromagnetic force of the coil. The controller uses a decentralized PID control for simple signal processing.

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