Sintered mesh candle filter is generally made of 5-layer 304 or 316L stainless steel woven mesh after special laminating or vacuum sintering. This filter not only has excellent corrosion and high temperature resistance, but also offers high mechanical strength and overall rigidity after laminating and sintering. The mesh opening is not easy to deform and delivers stable filter rating and easy cleaning property during filtration.
The excellent corrosion resistance of the sintered mesh candle filter not only helps to filter out corrosive solids or liquid impurities, but also protects the process equipment and the inner surface of pipeline, thus improving the chemical industrial process and reducing the frequency of regular maintenance operations.
We can offer sintered mesh candle filters made of Hastelloy, Monel and other alloys to meet the various requirements of customers.
The filtrate enters at the bottom of the filter and moves upward, which helps to keep the solids in suspension so that they are evenly deposited on the surface of the filter elements. Impurities are retained on the surface of filter elements, and clean filtrate is discharged from the filter through the register. When the filter reaches the set pressure value, the control system stops feeding and the residue liquid in the filter is drained out. The backblowing begins. When the backblowing is finished, the dry cake is discharged from residue discharge nozzle. Close the residue discharge nozzle when the dry cake discharging is finished. The surface of the filter elements is clean and ready for the next round of filtration.
Compared with polymer melt filtration, chemical filtration requires low temperature and low pressure. So, sintered mesh candle filter has a diversity of connection types. Connection types are customized upon request.
Cylindrical Sintered Mesh Candle Filter (C series)
Pleated Sintered Mesh Candle Filter (P series)
|Nominal Filter Rating (μm)||Support Layer||Reinforcing Layer||Separation Layer||Filter Layer||Protective Layer||Thickness (mm)||Air Permeability (L/min/cm2)||Bubble Point Pressure (Pa)||Weight (kg/m2)||Porosity (%)|
|1||64 × 12||12 × 64||100||400 × 3000||100||1.7||1.81||360–600||5-layer sintered mesh (8.4); 6-layer sintered mesh (14.4)||About 40%|
|2||64 × 12||12 × 64||100||325 × 2300||100||1.7||2.35||300–590|
|5||64 × 12||12 × 64||100||200 × 1400||100||1.7||2.42||260–550|
|10||64 × 12||12 × 64||100||165 × 1400||100||1.7||3.00||220–500|
|15||64 × 12||12 × 64||100||165 × 1200||100||1.7||3.41||200–480|
|20||64 × 12||12 × 64||100||165 × 800||100||1.7||4.50||170–450|
|25||64 × 12||12 × 64||100||165 × 600||100||1.7||6.12||150–410|
|30||64 × 12||12 × 64||100||400||100||1.7||6.86||120–390|
|40||64 × 12||12 × 64||100||325||100||1.7||7.10||100–350|
|50||64 × 12||12 × 64||100||250||100||1.7||8.41||90–300|
|75||64 × 12||12 × 64||100||200||100||1.7||8.70||80–250|
|100||64 × 12||12 × 64||100||150||100||1.7||9.10||70–190|
|Notes: A 12 mesh woven mesh is added on the 5-layer sintered mesh to form a 6-layer sintered mesh with a thickness of 3.5 mm and better compression resistance.|