Production device and production method of multi-layer composite nanofiber filtering membrane
A nanofiber and multi-layer composite technology, applied in the field of filtration membrane, can solve the problems of low filtration efficiency, poor strength, and inability to directly apply filtration, etc., to avoid damage to the formed membrane, high flux, and good dirt holding capacity effect of ability
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Embodiment 1
[0027] Place a nylon-66 nanofiber membrane embryo with a filtration accuracy of 1 micron and a filtration efficiency of 99.99% or more on the first unwinding roller 51, and place a polypropylene ultrafine meltblown non-woven substrate on the second unwinding roller 52. The third On the unwinding roller 53, there is a nylon-66 nanofiber membrane embryo with a filtration accuracy of 0.45 microns and a filtration efficiency of 99.99% or more. First, the three types of membrane embryos are passed through the unheated first hot oil roller 41 and the second hot oil in order. Between the oil rollers 42, and then wind a part to the winding roller 43, turn on the hot air system, adjust the temperature to 50-60°C, maintain the temperature in the isolation compartment 2, and turn on the heat transfer oil system for the first hot oil roller 41 and the second hot oil The roller 42 is heated to 150°C to reach the micro melting point of the meltblown ultrafine nonwoven material. The melting po...
Embodiment 2
[0029] Place a nylon-66 nanofiber membrane embryo with a filtration accuracy of 1 micron and a filtration efficiency of 99.99% or more on the first unwinding roller 51, and place a polypropylene ultrafine meltblown non-woven substrate on the second unwinding roller 52. The third On the unwinding roller 53, there is a nylon-66 nanofiber membrane embryo with a filtration accuracy of 0.45 microns and a filtration efficiency of 99.99% or more. First, the three types of membrane embryos are passed through the unheated first hot oil roller 41 and the second hot oil in order. Between the oil rollers 42, and then wind a part to the winding roller 43, turn on the hot air system, adjust the temperature to 50-60°C, maintain the temperature in the isolation compartment 2, and turn on the heat transfer oil system for the first hot oil roller 41 and the second hot oil The roller 42 is heated to 160°C to reach the micro-melting point of the melt-blown ultra-fine non-woven material. The melting...
Embodiment 3
[0031] Place a nylon-66 nanofiber membrane embryo with a filtration accuracy of 1 micron and a filtration efficiency of 99.99% or more on the first unwinding roller 51, and place a polypropylene ultrafine meltblown non-woven substrate on the second unwinding roller 52. The third On the unwinding roller 53, there is a nylon-66 nanofiber membrane embryo with a filtration accuracy of 0.45 microns and a filtration efficiency of 99.99% or more. First, the three types of membrane embryos are passed through the unheated first hot oil roller 41 and the second hot oil in order. Between the oil rollers 42, and then wind a part to the winding roller 43, turn on the hot air system, adjust the temperature to 50-60°C, maintain the temperature in the isolation compartment 2, and turn on the heat transfer oil system for the first hot oil roller 41 and the second hot oil The roller 42 is heated to 170°C to reach the micro-melting point of the melt-blown ultra-fine non-woven material, and the mel...
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