Core Design: Dynamic Equilibrium & High Flux
inopor® ceramic membranes utilize a tubular geometry with an internal active layer for precision separation. By employing cross-flow (tangential) filtration at velocities of 3–5 m/s, the system generates high turbulence that continuously flushes the membrane surface. This creates a dynamic equilibrium of the cake layer, ensuring a clog-resistant process with a consistently high flux rate.
- Extreme durability and long operating life: Our ceramic membranes are not afraid of strong acids and alkalis, and can withstand extreme high temperatures and abrasive suspended solids. Its operating life far exceeds that of traditional polymeric membranes, significantly reducing the frequency of consumable replacements.
- Hygiene and low maintenance costs: Featuring bacterial resistance (bioinert), they support high-temperature steam sterilization and are backwashable. When facing severe contamination, you can use strong chemical agents for Clean-In-Place (CIP), and it allows for dry storage directly after cleaning, completely eliminating the need for moisturizing maintenance.
- Stable and continuous capacity: Cross-flow filtration combined with a closed system design allows for continuous, uninterrupted operation. It can maintain a highly stable flux rate, helping you save massive operational and downtime costs.
- Wide range of applications: From microfiltration with a pore size of 1100 nm down to cutting-edge nanofiltration reaching a limit of 200 Da, we can provide the corresponding membrane materials to meet your diverse needs—from oil-water separation and fruit juice clarification to highly difficult solvent recovery.
Advantages:
- Separation limits down to the nanometer range
- High permeate flow
- Good chemical resistance, acid and alkali resistant
- Resistant to organic solvents
- Finely tuned micro and ultrafiltration layers
- Tube geometries for laboratory to industrial applications - up to 1.20 m in length
- Low effort for support, maintenance, and servicing
- Usable at high temperatures
- Backwashable
- Inert and tasteless
Wide Applications:
| Chemical industry |
Pharmaceutical and Biotechnology |
Food and Beverages |
- Product separation and purification
- Concentration of polymer suspensions
- Concentration and separation of metal hydroxides
- Solvent filtration and recycling
|
- Concentration, fractionation, isolation and sterile filtration of antibiotics, enzymes, proteins and vitamins
- Separation, concentration and dehydration of biomasses and algae
- Disposal of fat emulsions
|
- Clear filtration of fruit juices, wine and beer
- Milk and whey sterilization and fractionation of ingredients
- Desalination of whey
Product dewatering
- Drinking and rinsing water treatment
- Recovery of purifier solutions
|
| Textile / paper industry |
Recycling and Environment |
Metal industry / Surface technology |
- Decolorization of hot and corrosive textile waste water
- Concentration or treatment of washing liquors
- Treatment of textile sizing liquids
- Clear filtration of printing plant wash water
|
- Heavy metal and radioactive substances retention
- Retention of pharmaceutical substances and pesticides
- Clarification of wastewater treatment plant effluents
|
- Recycling of degreasing and rinsing baths
- Treatment of oil / water emulsions (e.g. cooling and cutting emulsions)
- Treatment of vibratory finishing waste water
- Treatment of wastewater from glass production
|
Products:
|
膜材料 Membrane material |
孔徑大小 Pore size |
孔隙率 Porosity |
|
膜材料 Membrane material |
孔徑大小 Pore size |
截流分子量 (MWCO) |
孔隙率 Porosity |
Inopor® micro 微濾 |
α-Al2O3 |
1100 nm |
40 - 55% |
Inopor® ultra 超濾 |
α-Al2O3 |
30 nm |
100 kDa |
30 - 55% |
| 800 nm |
TiO2 二氧化鈦 |
10 nm |
20 kDa |
| 600 nm |
5 nm |
8.5 kDa |
| 400 nm |
ZrO2 氧化鋯 |
3 nm |
2 kDa |
| 200 nm |
Inopor® nano 納濾 |
TiO2 二氧化鈦 |
1 nm |
750 Da |
30 - 40% |
| 100 nm |
0.9 nm |
450 Da |
| 70 nm |
LC3 |
200 Da |
| α-Al2O3 /ZrO2 |
50 nm |