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Far infrared radiating hollow 3-D crimped polyester fiber and its making process

A technology of far-infrared radiation and three-dimensional crimping, applied in the field of far-infrared radiation hollow three-dimensional crimping polyester fiber and its production, can solve the problems of not having health care functions, and achieve the effect of good bulkiness and good health care functions

Inactive Publication Date: 2005-06-29
仪征化纤股份有限公司
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

and it does not have a health function

Method used

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  • Far infrared radiating hollow 3-D crimped polyester fiber and its making process
  • Far infrared radiating hollow 3-D crimped polyester fiber and its making process

Examples

Experimental program
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Effect test

Embodiment 1

[0034]Take a variety of far-infrared inorganic materials whose basic components are silicon dioxide (28.5%), aluminum oxide (4%), titanium dioxide (61%), and zirconium dioxide (6.5%). Crushed to a particle size of 0.45 μm, then placed in a high-temperature furnace for sintering at a temperature of 900 ° C, sintered and cooled, and then pulverized, the particle size was still controlled at 0.45 μm, and a composite inorganic far-infrared ultrafine powder was obtained. Get 40 parts of the ultrafine powder, 3 parts of tris (dioctyl pyrophosphate) titanate, 1 part of ethylene bis stearamide, and then get 56 parts of polyethylene terephthalate carrier, and They are mixed together in a high-speed mixer, and the obtained mixed powder is sent to a twin-screw extruder for blending and extrusion, and pelletized. The specific masterbatch blending process is as follows:

[0035] Temperature in each zone of the screw ℃ Pressure Main screw speed Feeding screw speed

[0036] Work I ...

Embodiment 2

[0042] Fabricate the fiber of the present invention with polyethylene terephthalate melt that contains about 4% far-infrared radiation additive, have adopted 16 purpose aluminum oxide filter sands and 250 purpose wire mesh to filter melt, at 1180 m / Spinning at a winding speed of 10 minutes, the post-drawing is 3.033 times. Spinning was normal until 72 hours, and the obtained fiber was a qualified product.

Embodiment 3

[0044] The same melt is filtered by 40-mesh sea sand and 250-mesh wire mesh, and is spun and wound under the same conditions as above. Spinning was normal until 36 hours, and the resulting fiber was a qualified product.

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Abstract

The invention relates to a far-infrared radiation hollow three-dimensional crimped polyester fiber in the fields of chemical engineering, polymer and chemical fiber manufacturing and a manufacturing method thereof, which combines 0.3-0.5 μm composite inorganic far-infrared ultrafine The coupling agent and surfactant are added into the high-speed mixer together for dry surface treatment. The superfine material powder after surface treatment is mixed with the polyester carrier in the high-speed mixer, and the mixed powder obtained is sent to the twin-screw extruder. Co-extrusion, its working temperature is 10-30°C lower than that of conventional color masterbatch. The far-infrared masterbatch and polyester chips obtained above are fed to the mixer through the metering feeder for mixing, and then sent to the production of hollow three-dimensional The crimped fiber is spun by a screw spinning machine, and the final product obtained is the far-infrared radiation hollow three-dimensional crimped polyester fiber of the present invention.

Description

[0001] Involved areas [0002] The invention relates to a far-infrared radiation hollow three-dimensional crimped polyester fiber in the fields of chemical engineering, polymer and chemical fiber manufacturing and a manufacturing method thereof. Background technique [0003] Generally, two methods are used to manufacture far-infrared textiles: one is to coat far-infrared materials on the surface of textiles; the other is to mix far-infrared materials into chemical fiber spinning solutions (including melt spinning and wet spinning) to make far-infrared fibers, and then Processed into far infrared textiles. The former is easy to process and saves far-infrared materials; the latter is washable and feels better. The strength of the heat preservation and health care function of infrared textiles is related to the formula, dosage, particle size, distribution in the fiber and the shape of the fiber fabric of the selected far-infrared material. The cross section of existing far-infr...

Claims

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Application Information

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IPC IPC(8): D01D5/24D01F6/62
Inventor 俞波马驿
Owner 仪征化纤股份有限公司
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