CN1229153A - Thermal storage and thermal insulating fibre and making method and application thereof - Google Patents
Thermal storage and thermal insulating fibre and making method and application thereof Download PDFInfo
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Abstract
A heat-accumulating and insulating fibre is made up of electrically conductive white micro particles (0.05-20 portions), the white micro particles with far infrared radiation effect (0.1-20 portions) and the collected fibre body through mixing to obtain mixed composition, fusion spinning and elongating to obtain longer or shorter heat accumulating and insulating fibres. It can absorb the solar energy and transform it to far infrared ray absorbed by human body easily. Said fibre can be used to weave cloth with excellent heat accumulating and insulating function.
Description
The present invention relates to insulation fibre, refer in particular to a kind of thermal storage and thermal insulating fibre and manufacture method thereof and application.
Development along with synthetic fiber, the specialty synthetic fibre of many specific functions is come out one after another, thick and heavy for solving the cold season clothes, too fat to move problem, thermal insulating fibre has appearred, BP GB2303375A discloses zirconia, zirconium silicate, the ceramic powders of tool such as silica and titanium dioxide far infrared irradiation fuses in the synthetic fiber, the heat of its ceramic powder absorption human body is emitted far infrared and is absorbed by the body, improve the insulation effect, its major defect is that the efficient of these ceramic powders absorption solar energy is relatively poor, solar energy can not be transformed into the far infrared that is absorbed by the body easily, heat accumulation function is relatively poor; Japanese kokai publication hei 1-132816 etc. disclose and have used carborundum, antimony oxide, tin oxide etc. to absorb the preferable inorganic particles of solar energy, but carborundum is black, can only make black fiber; Though and antimony oxide is a white, and it is better to absorb solar energy, but the emission efficiency of its far infrared is relatively poor.
The object of the present invention is to provide a kind of thermal storage and thermal insulating fibre and manufacture method thereof and application, it not only has good solar energy-absorbing capacity of solar energy, has the emission efficiency of preferable far infrared again, and is easy to be coloured to required color for white again.
The object of the present invention is achieved like this: a kind of thermal storage and thermal insulating fibre, it is characterized in that forming (parts by weight): white conductive particulate 0.05～20 by following composition and proportioning, white particles 0.1～20 with far infrared irradiation efficient, fiber formation property condensate 90～100.
The atomic resistance coefficient of this white conductive is below 1000 Ω cm.
This white particles with far infrared irradiation efficient under 30 ℃ of temperature, the scope of wavelength 4～25 μ m, its average emissivity is more than 65%.
This white conductive particulate comprises in white conductive tin oxide, white conductive barium sulfate, white conductive potassium titanate, the white conductive titanium dioxide at least a.
This white particles with far infrared irradiation efficient comprises in zirconia, aluminium oxide, titanium dioxide, high territory, the magnesia at least a.
This fiber forms property condensate and comprises polyester, polyamide, polyethylene, polypropylene and the copolymer thereof with spinnability or the copolymer of its multiple functional radical compound.
A kind of method of making thermal storage and thermal insulating fibre, it is characterized in that this method comprises that (parts by weight) add fiber with 0.05～20 part of white conductive particulate and 0.1～20 part of white particles with far infrared emission efficiency and form in the property condensate, obtain mixed component, this mixed component is made thermal storage and thermal insulating long fiber or thermal storage and thermal insulating staple fibre with extruder melt spinning, extension.
The atomic resistance coefficient of this white conductive is below 1000 Ω cm.
This white particles with far infrared irradiation efficient under 30 ℃ of temperature, the scope of wavelength 4～25 μ m, its average emissivity is more than 65%.
This white conductive particulate comprises in white conductive tin oxide, white conductive barium sulfate, white conductive potassium titanate, the white conductive titanium dioxide at least a.
This white particles with far infrared irradiation efficient comprises in zirconia, aluminium oxide, titanium dioxide, high territory, the magnesia at least a.
This fiber forms property condensate and comprises polyester, polyamide, polyethylene, polypropylene and the copolymer thereof with spinnability or the copolymer of its multiple functional radical compound.
White conductive particulate and the sub-addition manner of white particles with far infrared irradiation efficient, be included in the synthetic stage adding of condensate, or directly mix adding with the polymerizable raw material body when spinning, or the pelletizing of making high concentration earlier mixes with the polymerizable raw material body again; The interpolation of these two kinds of particles comprises that in proper order branch successively adds or both add simultaneously.
This mixed component does not form the property condensate with not containing atomic fiber of the present invention, imports compined spinning apparatus with the extruder fusion and carries out spinning, extends and make thermal storage and thermal insulating composite long fiber or thermal storage and thermal insulating composite short fiber.
The atomic resistance coefficient of this white conductive is below 1000 Ω cm.
This white particles with far infrared irradiation efficient under 30 ℃ of temperature, the scope of wavelength 4～25 μ m, its average emissivity is more than 65%.
This white conductive particulate comprises in white conductive tin oxide, white conductive barium sulfate, white conductive potassium titanate, the white conductive titanium dioxide at least a.
This white particles with far infrared irradiation efficient comprises in zirconia, aluminium oxide, titanium dioxide, high territory, the magnesia at least two kinds.
This fiber forms property condensate and comprises polyester, polyamide, polyethylene, polypropylene and the copolymer thereof with spinnability or the copolymer of its multiple functional radical compound.
This contains atomic condensate of the present invention and does not contain atomic condensate of the present invention, is identical or different condensate.
White conductive particulate and addition manner with white particles of far infrared irradiation efficient, be included in the synthetic stage adding of condensate, or directly mix adding with the polymerizable raw material body when spinning, or the pelletizing of making high concentration earlier mixes with the polymerizable raw material body again; The interpolation of these two kinds of particles comprises that in proper order branch successively adds or both add simultaneously.
A kind of application of thermal storage and thermal insulating fibre is characterized in that comprising being used to be processed into the fine cloth of machine fibre, pin fibre or nonwoven or its goods.
This machine fibre, the longitude and latitude of pin fibre, yarn comprise identical or different.
Major advantage of the present invention is: the present invention is fused into white conductive particulate and white particles with far infrared radioactivity in the synthetic fiber simultaneously, its two kinds of atomic additions, can absorb solar energy fully, be transformed into the far infrared that human body absorbs easily effectively, its fine thing or cloth and silk have good heat storing and heat preserving effect, are applicable to resisting cold dress material, leisure wear and sportswear.
The present invention is further described below in conjunction with preferred embodiment and accompanying drawing:
Fig. 1 is the circular cross section schematic diagram of heat storing and heat preserving fiber of the present invention;
Fig. 2 is the equilateral triangle sectional schematic diagram of heat storing and heat preserving fiber of the present invention;
Fig. 3 is the deforming triangle sectional schematic diagram of heat storing and heat preserving fiber of the present invention;
Fig. 4 is the W shape sectional schematic diagram of heat storing and heat preserving fiber of the present invention;
Fig. 5 is the channel section schematic diagram of heat storing and heat preserving fiber of the present invention;
Fig. 6 is the cross sectional schematic diagram of heat storing and heat preserving fiber of the present invention;
Fig. 7 is the flat sectional schematic diagram of heat storing and heat preserving fiber of the present invention;
Fig. 8 is the hollow shape sectional schematic diagram of heat storing and heat preserving fiber of the present invention;
Fig. 9 is the compound schematic diagram of core sheath shape section (sheath portion contains particulate) of heat storing and heat preserving fiber of the present invention;
Figure 10 is the compound schematic diagram of core sheath shape section (core contains particulate) of heat storing and heat preserving fiber of the present invention;
Figure 11 is the compound circular cross section schematic diagram of shape arranged side by side of heat storing and heat preserving fiber of the present invention;
Figure 12 is the compound circular cross section schematic diagram of multilayer shape of heat storing and heat preserving fiber of the present invention;
Figure 13 is the oblique MULTILAYER COMPOSITE schematic diagram of flat section of heat storing and heat preserving fiber of the present invention;
Figure 14 is the positive MULTILAYER COMPOSITE schematic diagram of flat section of heat storing and heat preserving fiber of the present invention;
Figure 15 is the compound schematic diagram of trilobal section (core contains particulate) of heat storing and heat preserving fiber of the present invention;
Figure 16 is the compound schematic diagram of trilobal section (leaf portion contains particulate) of heat storing and heat preserving fiber of the present invention;
Figure 17 is the compound schematic diagram of quatrefoil section (core contains particulate) of heat storing and heat preserving fiber of the present invention;
Figure 18 is the compound schematic diagram of quatrefoil section (leaf portion contains particulate) of the heat storing and heat preserving fiber of heat storing and heat preserving fiber of the present invention;
Figure 19 is the compound schematic diagrames of five leaf sections (core contains particulate) of heat storing and heat preserving fiber of the present invention;
Figure 20 is the compound schematic diagram of five leaf sections (leaf portion contains particulate) of heat storing and heat preserving fiber of the present invention;
Figure 21 is the compound schematic diagram of sexfoil section (core contains particulate) of heat storing and heat preserving fiber of the present invention;
Figure 22 is the compound schematic diagram of sexfoil section (leaf portion contains particulate) of heat storing and heat preserving fiber of the present invention;
Figure 23-Figure 26 is cut apart the compound schematic diagram of shape section for heat storing and heat preserving fiber of the present invention;
Figure 27-Figure 28 is the compound schematic diagram of the triangle profile of heat storing and heat preserving fiber of the present invention;
Figure 29-Figure 30 is the compound schematic diagram of Y shape abnormity of heat storing and heat preserving fiber of the present invention;
Embodiment 1
Test 1: with resistance coefficient 10 Ω cm, the zirconia 3kg of the white conductive titanium dioxide 2kg of average grain diameter 0.3 μ m, average grain diameter 0.4 μ m and limiting viscosity are 0.645 polyester 95kg, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled.With this mixed component pelletizing extruder melt spinning, the section of fiber be circle as shown in Figure 1.The spinning degree is 290 ℃, rolls up fast 3200m/ branch, and the part that obtains the 125d/36 bar is extended silk.This part is extended silk extend twisting mill, obtain the processing yarn of 75d/36 bar with ingot group formula.Warp thread and weft yarn all use this processing yarn, and the flat fine cloth of fine one-tenth is tested its heat insulating ability with this flat fine cloth, and the cloth back temperature is 52.3 ℃, Δ T=6.6 ℃.
Test 2: with resistance coefficient 10 Ω cm, the white conductive titanium dioxide 2kg of average grain diameter 0.3 μ m and limiting viscosity are 0.645 polyester 98kg, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled.With embodiment 1, make flat fine cloth, the flat fine cloth of gained is surveyed its heat insulating ability, and the cloth back temperature is 50.3 ℃, Δ T=4.6 ℃.
Test 3:,, make the mixed component pelletizing through water-cooled with the biaxial extruder melting mixing with the zirconia 3kg of average grain diameter 0.4 μ m and the polyester 97kg of IV0.645, with embodiment 1, make flat fine cloth, the flat fine cloth of gained is surveyed its heat insulating ability, the cloth back temperature is 46.5 ℃, Δ T=0.8 ℃.
Test 4: for blank compares sample.Polyester 100kg with IV0.645 does not add any additive, with the extruder melt spinning, with embodiment 1, makes flat fine cloth, and the flat fine cloth of gained is surveyed its heat insulating ability, and the cloth back temperature is 45.7 ℃, Δ T=0 ℃.
Above-mentioned result of the test sees Table 1 table 1
Heat insulating ability with the visible test 1 of table 1 is best, and the heat insulating ability of test 2 is poor slightly.Analysis test method relevant among the present invention is as follows:
| Tested number | White conductive titanium dioxide WT% | Zirconia WT% | Heat insulating ability | |
| Cloth back temperature ℃ | ????ΔT℃ | |||
| Test 1 | ????2 | ????3 | ????52.3 | ????6.6 |
| Test 2 | ????2 | ????0 | ????50.3 | ????4.6 |
| Test 3 | ????0 | ????3 | ????46.5 | ????0.8 |
| Test 4 | ????0 | ????0 | ????45.7 | ????0 |
1) heat insulating ability
At 23 ℃, under the condition of humidity 65%, with the irradiation of the bulb light source of 250W, with the temperature at the thermometer measure cloth and silk back side, with this temperature with do not contain atomic cloth specimen of the present invention relatively, calculate its temperature difference, its temperature difference is big more, the expression heat insulating ability is good more.
2) IV (limiting viscosity)
The polyester sample is dissolved in 3: 2 the mixed solvent of weight ratio of phenol and tetrachloroethanes, gets in 25 ℃ of mensuration.
3) RV (relative viscosity)
The polyamide sample is dissolved in 96% the concentrated sulfuric acid, measures and get in 30 ℃.
4) MI (melt-flow index)
Method test according to standard A STM D-1238.
Embodiment 2
Test 5: the aluminium oxide of the zirconia among the embodiment 1 with average grain diameter 0.4 μ m replaced, and all the other steps are made flat fine cloth with embodiment 1, survey its heat insulating ability, and the cloth back temperature is 51.8 ℃, Δ T=6.1 ℃.
Test 6: the high territory of the zirconia among the embodiment 1 with average grain diameter 0.45 μ m replaced, and all the other steps are made flat fine cloth with embodiment 1, survey its heat insulating ability, and the cloth back temperature is 51.5 ℃, Δ T=5.8 ℃.
Test 7: the magnesia of the zirconia among the embodiment 1 with average grain diameter 0.4 μ m is replaced, and all the other steps are made flat fine cloth with embodiment 1, survey its heat insulating ability, and the cloth back temperature is 51.7 ℃, Δ T=6.0 ℃.
Test 8: with the aluminium oxide 3kg of average grain diameter 0.4 μ m and the polyester 97kg of IV0.645, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are made flat fine cloth with embodiment 1.Survey its heat insulating ability, the cloth back temperature is 46.4 ℃, Δ T=0.7 ℃.
Test 9: will test 8 aluminium oxide and replace with the high territory of average grain diameter 0.45 μ m, all the other steps are made and are put down fine cloth with embodiment 8, survey its heat insulating ability, and the cloth back temperature is 46.2 ℃, Δ T=0.5 ℃.
Test 10: will test 8 aluminium oxide and replace with the magnesia of average grain diameter 0.4 μ m, all the other steps are made with test 8 and are put down fine cloth, survey its heat insulating ability, and the cloth back temperature is 46.3 ℃, Δ T=0.6 ℃.
Above-mentioned test 5～10 the results are shown in Table 2:
Table 2
The heat insulating ability of tested number 5-7 is better as seen from Table 2.Embodiment 5
| Tested number | White conductive titanium dioxide WT% | Zirconia WT% | High territory WT% | Magnesia WT% | Heat insulating ability | |
| Cloth back temperature ℃ | ????ΔT℃ | |||||
| Test 5 | ????2 | ????3 | ????0 | ????0 | ????51.8 | ????6.1 |
| Test 6 | ????2 | ????0 | ????3 | ????0 | ????51.5 | ????5.8 |
| Test 7 | ????2 | ????0 | ????0 | ????3 | ????51.7 | ????6.0 |
| Test 8 | ????0 | ????3 | ????0 | ????0 | ????46.4 | ????0.7 |
| Test 9 | ????0 | ????0 | ????3 | ????0 | ????46.2 | ????0.5 |
| Test 10 | ????0 | ????0 | ????0 | ????3 | ????46.3 | ????0.6 |
Test 11: with resistance coefficient 50 Ω cm, white conductive barium sulfate 2kg, the aluminium oxide 3kg of average grain diameter 0.3 μ m and the polyester 95kg of IV0.645, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are made flat fine cloth with embodiment 1, survey its heat insulating ability, the cloth back temperature is 51.5 ℃, Δ T=5.8 ℃.
Embodiment 6
Test 12: with resistance coefficient 5 Ω cm, white conductive potassium titanate 2kg, the zirconia 3kg of average grain diameter 0.3 μ m and the polyester 95kg of IV0.645, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are made flat fine cloth with embodiment 1, survey its heat insulating ability, the cloth back temperature is 52.7 ℃, Δ T=7.0 ℃.
Test 13 is with resistance coefficient 50 Ω cm, the white conductive barium sulfate 2kg of average grain diameter 0.3 μ m and the polyester 98kg of IV0.645, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are made flat fine cloth with embodiment 1, survey its heat insulating ability, the cloth back temperature is 49.7 ℃, Δ T=4.0 ℃.
Test 14: with resistance coefficient 5 Ω cm, the white conductive potassium titanate 2kg of average grain diameter 0.3 μ m and the polyester 98kg of IV0.645, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are made flat fine cloth with embodiment 1, survey its heat insulating ability, the cloth back temperature is 50.6 ℃, Δ T=4.9 ℃.
Above-mentioned test 11～14 the results are shown in Table 3: table 3
It is better to test 11～12 heat insulating ability as seen from Table 3, and the heat insulating ability of test 13～14 is poor slightly.Embodiment 7
| Tested number | White conductive barium sulfate WT% | White conductive potassium titanate WT% | Zirconia WT% | Aluminium oxide WT% | Heat insulating ability | |
| Cloth back temperature ℃ | ??ΔT℃ | |||||
| Test 11 | ????2 | ????0 | ????0 | ????3 | ????51.5 | ????5.8 |
| Test 12 | ????0 | ????2 | ????3 | ????0 | ????52.7 | ????7.0 |
| Test 13 | ????2 | ????0 | ????0 | ????0 | ????49.7 | ????4.0 |
| Test 14 | ????0 | ????2 | ????0 | ????0 | ????50.6 | ????4.9 |
Test 15: with the polyester 95kg of white conductive titanium dioxide 1kg, the white conductive potassium titanate 1kg of resistance coefficient 5 Ω cm, high territory 3kg and the IV0.645 of resistance coefficient 10 Ω cm, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are with embodiment 1, make flat fine cloth, survey its heat insulating ability, the cloth back temperature is 52.0 ℃, Δ T=6.3 ℃.Embodiment 8
Test 16: with the polyester 94kg of white conductive potassium titanate 2kg, zirconia 1kg, magnesia 1kg and the IV0.645 of white conductive titanium dioxide 1kg, the resistance coefficient 5 Ω cm of resistance coefficient 10 Ω cm, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are with embodiment 1, make flat fine cloth, survey its heat insulating ability, the cloth back temperature is 53.5 ℃, Δ T=7.8 ℃.
Test 17: with the white conductive titanium dioxide 1kg of resistance coefficient 10 Ω cm, the white conductive potassium titanate 1kg of resistance coefficient 5 Ω cm and the polyester 97kg of IV0.645, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are with embodiment 1, make flat fine cloth, survey its heat insulating ability, the cloth back temperature is 52.0 ℃, Δ T=6.3 ℃.
Test 18: the polyester 97kg of each 1kg of zirconia, aluminium oxide and magnesia and IV0.645 with the biaxial extruder melting mixing, makes the mixed component pelletizing through water-cooled, all the other steps are made flat fine cloth with embodiment 1, survey its heat insulating ability, the cloth back temperature is 46.3 ℃, Δ T=0.6 ℃.
Above-mentioned test 15～18 the results are shown in Table 4: table 4
It is better to test 15～17 heat insulating ability as seen from Table 4.Embodiment 9
| Tested number | White conductive barium sulfate WT% | White conductive potassium titanate WT% | Zirconia WT% | Aluminium oxide WT% | High territory WT% | Magnesia WT% | Heat insulating ability | |
| Cloth back temperature ℃ | ??ΔT ???℃ | |||||||
| Test 15 | ??1 | ??1 | ????0 | ????0 | ????3 | ????0 | ????52.0 | ??6.3 |
| Test 16 | ??1 | ??2 | ????1 | ????1 | ????0 | ????1 | ????53.5 | ??7.8 |
| Test 17 | ??1 | ??2 | ????0 | ????0 | ????0 | ????0 | ????52.0 | ??6.3 |
| Test 18 | ??0 | ??0 | ????1 | ????1 | ????0 | ????1 | ????46.3 | ??0.6 |
Test 19: with the polyester 95kg of white conductive potassium titanate 2kg, zirconia 0.5kg, aluminium oxide 1kg, titanium dioxide 0.5kg and the IV0.645 of white conductive barium sulfate 1kg, the resistance coefficient 5 Ω cm of resistance coefficient 50 Ω cm, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are with embodiment 1, make flat fine cloth, survey its heat insulating ability, the cloth back temperature is 53.0 ℃, Δ T=7.3 ℃.
Test 20: with the white conductive barium sulfate 1kg of resistance coefficient 50 Ω cm, the white conductive potassium titanate 2kg of resistance coefficient 5 Ω cm and the polyester 97kg of IV0.645, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are with embodiment 1, make flat fine cloth, survey its heat insulating ability, the cloth back temperature is 51.7 ℃, Δ T=6.0 ℃.
Test 21: with the polyester 98kg of zirconia 0.5kg, aluminium oxide 1kg, titanium dioxide 0.5kg and IV0.645, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are with embodiment 1, make flat fine cloth, survey its heat insulating ability, the cloth back temperature is 46.1 ℃, Δ T=0.4 ℃.
Above-mentioned test 19～21 the results are shown in Table 5:
Table 5
As seen from Table 5, the better embodiment 10 of heat insulating ability of test 19 and 20
| Tested number | White conductive barium sulfate WT% | White conductive potassium titanate WT% | Zirconia WT% | Aluminium oxide WT% | Titanium dioxide WT% | Heat insulating ability | |
| Cloth back temperature ℃ | ??ΔT℃ | ||||||
| Test 19 | ????1 | ????2 | ????0.5 | ????1 | ????0.5 | ????53 | ????7.3 |
| Test 20 | ????1 | ????2 | ????0 | ????0 | ????0 | ????51.7 | ????6.0 |
| Test 21 | ????0 | ????0 | ????0.5 | ????1 | ????0.5 | ????46.1 | ????0.4 |
Test 22: with the polyester 95kg of white conductive barium sulfate 1kg, zirconia 1.5kg, titanium dioxide 0.5kg and the IV0.645 of white conductive titanium dioxide 2kg, the resistance coefficient 50 Ω cm of resistance coefficient 10 Ω cm, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, all the other steps are with embodiment 1, make flat fine cloth, survey its heat insulating ability, the cloth back temperature is 52.7 ℃, Δ T=7.0 ℃.
Embodiment 11
Test 23: change the fiber section configuration hollow section of Fig. 8 into, all the other steps are made flat fine cloth with embodiment 1.Survey its heat insulating ability, the cloth back temperature is 52.8 ℃, Δ T=7.1 ℃.
Above-mentioned test 22 and 23 the results are shown in Table 6: table 6
As seen from Table 6, the heat insulating ability of test 22 and 23 is all good.Embodiment 12
| Tested number | White conductive barium sulfate WT% | Zirconia WT% | Section | Heat insulating ability | |
| Cloth back temperature ℃ | ??ΔT℃ | ||||
| Test 22 | ??2 | ????3 | Fig. 1 (solid) | ????52.7 | ????6.6 |
| Test 23 | ??2 | ????3 | Fig. 8 (hollow) | ????52.8 | ????7.1 |
Test 24: with white conductive potassium titanate 12kg, the zirconia 18kg of resistance coefficient 5 Ω cm and the polyester 70kg of IV0.580, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, the ratio of 1: 2 weight ratio of polyester of this mixed component master batch and IV0.645 is pre-mixed evenly, through the extruder melting mixing, with this sheath portion as composite fibre; Stamen portion composition is the polyester of IV0.645, and these two kinds of condensates are imported stamen sheath compined spinning apparatus, and fiber section such as Fig. 9 stamen/sheath weight ratio that spues is 50/50, spin 285 ℃ of temperature, aperture via 0.25mm Φ spins, and rolls up speed 1100/ minute, obtains the not extension silk of 7d/ single fiber, then this is not extended the tow that a boundling becomes 600,000 d, after 80 ℃ of heater temperatures extended 3.6 times, through 160 ℃ of HEAT SETTING, crimper curled, after 80 ℃ of dryings, be cut into the short fiber of length 51mm, fiber number 2d/ single fiber.This short fiber is spun into 30 yarn, uses all through weft yarn that this yarn is fine to become flat fine cloth, survey its heat insulating ability, the cloth back temperature is 52.9 ℃, Δ T=7.2 ℃.Embodiment 13
The test 25: with containing of embodiment 12 atomic short fiber of the present invention with do not contain the atomic hot binding type polyester staple fibers of the present invention, with the mixed of 60/40 weight ratio,, make not fine cloth through blowing, comb and parallel cotton fibers prior to spinning, pinprick, hot pressing.Survey its heat insulating ability, the cloth back temperature is 50.0 ℃, Δ T=5.0 ℃.
Test 26: will test 25 the atomic short fiber of the present invention that contains and change into and do not contain the atomic hot binding type polyester staple fibers of the present invention, all the other are as testing the step in 25.Survey its heat insulating ability, the cloth back temperature is 45.0 ℃, Δ T=0 ℃.Embodiment 14
Test 27:,, make the mixed component pelletizing through water-cooled with the biaxial extruder melting mixing with white conductive potassium titanate 12kg, the zirconia 18kg of resistance coefficient 5 Ω cm and the nylon 70kg of RV2.4.The nylon 6 of this mixed component pelletizing and the RV2.47 ratio with 1: 2 weight ratio is pre-mixed evenly, dissolves mixing through extruder, with this sheath portion as composite fibre; Stamen portion composition is the polyester of IV0.645.These two kinds of condensates are imported stamen sheath compined spinning apparatus, fiber section such as Fig. 9 stamen/sheath weight ratio that spues is 50/50, spins 283 ℃ of temperature, spins via the aperture of 0.25mm Φ, volume speed 1100/ minute, obtain the not extension silk of 7d/ single fiber, then this is not extended the tow that a boundling becomes 600,000 d, after 80 ℃ of heater temperatures extend 3.6 times, through 160 ℃ of HEAT SETTING, crimper curls, and after 80 ℃ of dryings, is cut into the short fiber of length 51mm, fiber number 2d/ single fiber.This short fiber is spun into 30 yarn, uses all through weft yarn that this yarn is fine to become flat fine cloth, survey its heat insulating ability, the cloth back temperature is 52.8 ℃, Δ T=7.1 ℃.Embodiment 15
Test 28: with white conductive potassium titanate 12kg, the zirconia 18kg of resistance coefficient 5 Ω cm and the polyester 70kg of IV0.580, with the biaxial extruder melting mixing, make the mixed component pelletizing through water-cooled, the polyester of this mixed component pelletizing and the IV0.645 ratio with 1: 2 weight ratio is pre-mixed evenly, through the extruder melting mixing, with this stamen portion as composite fibre; Sheath portion composition is the high density polyethylene (HDPE) of MI20, and these two kinds of condensates are imported stamen sheath compined spinning apparatus, fiber section such as Fig. 9, stamen/sheath weight ratio that spues is 50/50, spins 283 ℃ of temperature, spins via the aperture of 0.25mm Φ, roll up speed 1100/ minute, and obtained the not extension silk of 7d/ single fiber.Then this is not extended the tow that a boundling becomes 600,000 d, after 80 ℃ of heater temperatures extended 3.6 times, through 110 ℃ of HEAT SETTING, crimper curled, and after 80 ℃ of dryings, is cut into the short fiber of length 51mm, fiber number 2d/ single fiber.With the hot binding type short fiber of this thermal storage and thermal insulating with do not contain atomic general polyester staple fibers of the present invention, with the mixed of 60/40 weight ratio,, make not fine cloth through blowing, comb and parallel cotton fibers prior to spinning, pinprick, hot pressing.Survey its heat insulating ability, the cloth back temperature is 49.6 ℃, Δ T=4.6 ℃.
Above-mentioned result of the test shows, with the staple fibre that contains white conductive potassium titanate 12% and have the white particles zirconia 18% of preferable far infrared irradiation efficient of the present invention, no matter be polyester or nylon 6, its fine thing all has heat insulating ability preferably, and Δ T (is seeing test 24 and 27) more than 7 ℃; And if sneak into common spinnability condensate or cooperates with common spinnability condensate and make composite fibre, its heat insulating ability then poor slightly (consult and test 25 and 28) then.
Claims (23)
1, a kind of thermal storage and thermal insulating fibre is characterized in that forming (parts by weight) by following composition and proportioning: white conductive particulate 0.05～20, white particles 0.1～20 with far infrared irradiation efficient, fiber formation property condensate 90～100.
2, a kind of thermal storage and thermal insulating fibre as claimed in claim 1 is characterized in that the atomic resistance coefficient of this white conductive is below 1000 Ω cm.
3, a kind of thermal storage and thermal insulating fibre as claimed in claim 1 is characterized in that this white particles with far infrared irradiation efficient under 30 ℃ of temperature, the scope of wavelength 4～25 μ m, and its average emissivity is more than 65%.
4, a kind of thermal storage and thermal insulating fibre as claimed in claim 1, it is at least a to it is characterized in that this white conductive particulate comprises in white conductive tin oxide, white conductive barium sulfate, white conductive potassium titanate, the white conductive titanium dioxide.
5, a kind of thermal storage and thermal insulating fibre as claimed in claim 1 is characterized in that this white particles with far infrared irradiation efficient comprises in zirconia, aluminium oxide, titanium dioxide, high territory, the magnesia at least a.
6, a kind of thermal storage and thermal insulating fibre as claimed in claim 1 is characterized in that this fiber forms property condensate and comprises polyester, polyamide, polyethylene, polypropylene and the copolymer thereof with spinnability or the copolymer of its multiple functional radical compound.
7, a kind of method of making thermal storage and thermal insulating fibre, it is characterized in that this method comprises that (parts by weight) add fiber with 0.05～20 part of white conductive particulate and 0.1～20 part of white particles with far infrared emission efficiency and form in the property condensate, obtain mixed component, this mixed component is made thermal storage and thermal insulating long fiber or thermal storage and thermal insulating staple fibre with extruder melt spinning, extension.
8, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 7 is characterized in that the atomic resistance coefficient of this white conductive is below 1000 Ω cm.
9, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 7 is characterized in that this white particles with far infrared irradiation efficient under 30 ℃ of temperature, the scope of wavelength 4～25 μ m, and its average emissivity is more than 65%.
10, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 7, it is at least a to it is characterized in that this white conductive particulate comprises in white conductive tin oxide, white conductive barium sulfate, white conductive potassium titanate, the white conductive titanium dioxide.
11, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 7 is characterized in that this white particles with far infrared irradiation efficient comprises in zirconia, aluminium oxide, titanium dioxide, high territory, the magnesia at least a.
12, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 7 is characterized in that this fiber forms property condensate and comprises polyester, polyamide, polyethylene, polypropylene and the copolymer thereof with spinnability or the copolymer of its multiple functional radical compound.
13, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 7, the sub-addition manner of white particles that it is characterized in that the white conductive particulate and have far infrared irradiation efficient, be included in the synthetic stage adding of condensate, or directly mix adding with the polymerizable raw material body when spinning, or the pelletizing of making high concentration earlier mixes with the polymerizable raw material body again; The interpolation of these two kinds of particles comprises that in proper order branch successively adds or both add simultaneously.
14, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 7, it is characterized in that this mixed component does not form the property condensate with not containing atomic fiber of the present invention, import compined spinning apparatus with the extruder fusion and carry out spinning, extend and make thermal storage and thermal insulating composite long fiber or thermal storage and thermal insulating composite short fiber.
15, the method for a kind of thermal storage and thermal insulating fibre as claimed in claim 14 is characterized in that the atomic resistance coefficient of this white conductive is below 1000 Ω cm.
16, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 14 is characterized in that this white particles with far infrared irradiation efficient under 30 ℃ of temperature, the scope of wavelength 4～25 μ m, and its average emissivity is more than 65%.
17, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 14, it is at least a to it is characterized in that this white conductive particulate comprises in white conductive tin oxide, white conductive barium sulfate, white conductive potassium titanate, the white conductive titanium dioxide.
18, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 14 is characterized in that this white particles with far infrared irradiation efficient comprises in zirconia, aluminium oxide, titanium dioxide, high territory, the magnesia at least two kinds.
19, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 14 is characterized in that this fiber forms property condensate and comprises polyester, polyamide, polyethylene, polypropylene and the copolymer thereof with spinnability or the copolymer of its multiple functional radical compound.
20, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 14 is characterized in that this contains atomic condensate of the present invention and does not contain atomic condensate of the present invention, is identical or different condensate.
21, a kind of method of making thermal storage and thermal insulating fibre as claimed in claim 14, the addition manner that it is characterized in that the white conductive particulate and have white particles of far infrared irradiation efficient, be included in the synthetic stage adding of condensate, or directly mix adding with the polymerizable raw material body when spinning, or the pelletizing of making high concentration earlier mixes with the polymerizable raw material body again; The interpolation of these two kinds of particles comprises that in proper order branch successively adds or both add simultaneously.
22, a kind of application of thermal storage and thermal insulating fibre is characterized in that comprising being used to be processed into the fine cloth of machine fibre, pin fibre or nonwoven or its goods.
23, the application of thermal storage and thermal insulating fibre as claimed in claim 22 is characterized in that this machine fibre, the longitude and latitude of pin fibre, yarn comprise identical or different.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CNB991056175A CN1177089C (en) | 1999-04-16 | 1999-04-16 | Thermal storage and thermal insulating fibre and making method and application thereof |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CNB991056175A CN1177089C (en) | 1999-04-16 | 1999-04-16 | Thermal storage and thermal insulating fibre and making method and application thereof |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| CN1229153A true CN1229153A (en) | 1999-09-22 |
| CN1177089C CN1177089C (en) | 2004-11-24 |
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| Application Number | Title | Priority Date | Filing Date |
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| CNB991056175A Expired - Fee Related CN1177089C (en) | 1999-04-16 | 1999-04-16 | Thermal storage and thermal insulating fibre and making method and application thereof |
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| Country | Link |
|---|---|
| CN (1) | CN1177089C (en) |
Cited By (10)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| WO2011063580A1 (en) * | 2009-11-26 | 2011-06-03 | 宁波成盈进出口贸易有限公司 | Chemical fiber with rapid temperature-rising and heating effect under conditions of light and textile products containing it |
| CN102851772A (en) * | 2012-09-10 | 2013-01-02 | 昆山市周市惠宏服装厂 | Masterbatch method for manufacturing heat-storing temperature-regulating fiber |
| CN102877289A (en) * | 2012-09-10 | 2013-01-16 | 昆山市周市惠宏服装厂 | Heat-storage temperature-regulating textile and manufacturing method thereof |
| CN104160073A (en) * | 2012-02-13 | 2014-11-19 | 尼利特公司 | Polyamide fabric enhancing body warming |
| CN105040411A (en) * | 2015-06-29 | 2015-11-11 | 张家港市杨舍新米洋针织厂 | Making process for far infrared heat-preservation antibacterial fabric |
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| CN105369449A (en) * | 2015-12-17 | 2016-03-02 | 常熟市荣程纺织品有限公司 | Fabric capable of storing heat |
| CN105463827A (en) * | 2014-10-03 | 2016-04-06 | 台虹科技股份有限公司 | Heating composition for fabric and heating fabric |
| CN106637454A (en) * | 2016-10-12 | 2017-05-10 | 厦门安踏体育用品有限公司 | Heat-reflection fabric and application thereof to clothes |
| CN109695067A (en) * | 2018-12-25 | 2019-04-30 | 上海德福伦化纤有限公司 | A kind of anti-bacterial heat storage polyester fiber and preparation method thereof |
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- 1999-04-16 CN CNB991056175A patent/CN1177089C/en not_active Expired - Fee Related
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| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| WO2011063580A1 (en) * | 2009-11-26 | 2011-06-03 | 宁波成盈进出口贸易有限公司 | Chemical fiber with rapid temperature-rising and heating effect under conditions of light and textile products containing it |
| CN104160073A (en) * | 2012-02-13 | 2014-11-19 | 尼利特公司 | Polyamide fabric enhancing body warming |
| US9765450B2 (en) | 2012-02-13 | 2017-09-19 | Nilit Ltd. | Polyamide fabric enhancing body warming |
| CN102851772A (en) * | 2012-09-10 | 2013-01-02 | 昆山市周市惠宏服装厂 | Masterbatch method for manufacturing heat-storing temperature-regulating fiber |
| CN102877289A (en) * | 2012-09-10 | 2013-01-16 | 昆山市周市惠宏服装厂 | Heat-storage temperature-regulating textile and manufacturing method thereof |
| CN105274864A (en) * | 2014-06-25 | 2016-01-27 | 上海宣泰医药科技有限公司 | A fabric with frequency spectrum effect and heating efficacy and preparation method thereof |
| CN105463827A (en) * | 2014-10-03 | 2016-04-06 | 台虹科技股份有限公司 | Heating composition for fabric and heating fabric |
| CN105040411A (en) * | 2015-06-29 | 2015-11-11 | 张家港市杨舍新米洋针织厂 | Making process for far infrared heat-preservation antibacterial fabric |
| CN105369449A (en) * | 2015-12-17 | 2016-03-02 | 常熟市荣程纺织品有限公司 | Fabric capable of storing heat |
| CN106637454A (en) * | 2016-10-12 | 2017-05-10 | 厦门安踏体育用品有限公司 | Heat-reflection fabric and application thereof to clothes |
| CN109695067A (en) * | 2018-12-25 | 2019-04-30 | 上海德福伦化纤有限公司 | A kind of anti-bacterial heat storage polyester fiber and preparation method thereof |
Also Published As
| Publication number | Publication date |
|---|---|
| CN1177089C (en) | 2004-11-24 |
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