Product details
Mining Screen Mesh is a type of sieve mesh used for mining and ore
processing, also known as mining screen plate or mining screen mesh. It is woven
from metal wire or other suitable materials and typically possesses
characteristics of high strength, abrasion resistance, and corrosion
resistance.
The primary purpose of mining screen mesh is for screening and filtering
during mining, quarrying, coal mining, and other ore processing operations. It
is installed in equipment such as vibrating screens, flip screens, and roller
screens to separate ores or mineral materials of different particle sizes and
qualities. Mining screen mesh can be customized with various mesh sizes and
weaving patterns to meet different ore processing requirements, ultimately
contributing significantly to the improvement of ore grade, equipment
protection, and production efficiency.
Normal wire diameter: 2.0mm to 12.7mm
Material: Manganese steel wire (mainly 65Mn, currently popular)
Weaving method: Woven after being coiled.
Application: Usually used in mining, quarrying, coal plants, construction,
and other industrial fields for screening, grading, and separating
materials.
Our woven wire mesh has advantages over traditional woven wires, with higher
carbon and manganese content, providing better wear resistance and performance
in your applications. Its high ductility, hardness, and tensile strength make it
less likely to break under high impact and abrasive conditions, resulting in a
longer lifespan and minimizing labor, maintenance, and production cost losses.
Compared to traditional products, its wear life is extended by twice the weaving
wire. Our woven wire mesh is manufactured with strict wire aperture tolerance of
+3%. Wire diameter can provide the industry’s widest range of wire diameters,
from 0.047 inches (1.2 mm) to 750 inches (19 mm), and aperture sizes from 125
inches (3.18 mm) to 5 inches (127 mm). The weaving process is also crucial. Each
mesh’s weaving has extremely strict tolerances for crimping or any type of
movement within the weave, preventing wires from rubbing against each other and
wearing prematurely during use. Each weaving generates a tight and durable mesh,
the tighter the weave, the more durable the woven wire. Therefore, every time
you place an order, you will receive the most robust screen medium.
Application and selection guide
Mining screen mesh separates material within a screening process and must suit both the feed and the machine. An effective enquiry identifies the target separation, operating conditions and the panel’s mounting interface rather than specifying aperture alone.
Where this product fits
Explain the material, particle range and moisture condition at the screening stage. Describe current blockage, premature wear or unwanted oversize passing through the deck where these problems exist.
Information for a suitable proposal
Provide panel dimensions, aperture requirements, edge form and the screen machine arrangement. Include support and tensioning details so the proposed mesh can be reviewed for the installed deck.
Screen selection depends on the feed and the screening machine together. Record the material, particle distribution, moisture, throughput objective and desired separation. A panel drawing should show the aperture, wire or element arrangement, overall dimensions, edge treatment and how tension or support is applied.
Installation and maintenance considerations
Inspect panel seating, fixings and support bars during planned maintenance. Replace damaged mounting parts as required instead of fitting new mesh onto an uneven support.
When replacing a screen, include photographs of the worn panel and its mounting area. Uneven wear, blocked apertures and damaged support bars offer useful clues about the operating problem. Inspect fixings and supporting surfaces during planned maintenance, because a correctly specified new screen can still wear unevenly if it is fitted onto a damaged or unsuitable support.
For related options, explore other screening media or discuss the application with JuMing.