Fiber production system and production method

1. A fiber production system, for preventing the skin-core structure formed in the fiber and/or eliminating this structure, comprising:

at least one molten forming member configured to heat and melt a polymeric crude material to be used in fiber production,

at least one extrusion member configured to pass the molten polymeric crude material through at least one spinneret at its an end part of the at least one extrusion member,

at least one cooling unit providing a filament structure to the polymeric crude material going out of the at least one extrusion member by cooling the polymeric crude material, a plurality of rollers configured to heat the polymeric crude material at a temperature above a glass transition temperature or a crystallization temperature, and the fiber material in filament form to reach a predetermined crystallinity by being drawn at a predetermined tension,

at least one mobile laser device configured to apply laser beam on the filament during drawing the filaments with the rollers to form a balanced heat distribution for eliminating defects in the filament structure,

at least one heated chamber located between two adjacent rollers for applying heat on the fiber material in order to increase crystallinity in the fiber material drawn with the rollers, and enabling the continuity of the filament structure provided to the fiber material,

at least one control member to guide the mobile laser device to an area according to data received from at least one camera, wherein the at least one camera detects defected points in the filament structure during the filament material being drawn by the plurality of rollers, and to correct the areas with defected points with heat and drawing by applying the laser beam locally on the filament structure,

at least one winding machine for packing the filament material in a form of bobbin for packaging,

wherein all rollers are arranged linearly between the at least one cooling unit and the at least one winding machine.

2. The fiber production system according to claim 1 , wherein the fiber crude material is polyethylene terephthalate material.

3. The fiber production system according to claim 1 , wherein the mobile laser device is a carbon dioxide laser.

4. The fiber production system according to claim 3 , wherein the mobile laser device applies the laser beam of 10.6 μm wavelength and in a pulse form.

5. The fiber production system according to claim 3 , wherein the plurality of rollers include a first roller, a second roller, a third rollers and a fourth roller sequentially arranged between the at least one cooling unit and the at least one winding machine, wherein the at least one heated chamber is located between the third roller and the fourth roller.

6. The fiber production system according to claim 1 , wherein the mobile laser device is a fiber laser device.

7. A fiber production method, using the fiber production system of claim 1 ,

wherein

the fiber production method comprising the steps of:

melting the crude material to be used in fiber production by heating,

passing the molten crude material through the spinneret or spinnerets,

bringing the crude materials passed through the spinnerets into filament structure by passing through the cooling unit,

heating the crude material above the glass transition temperature and drawing it,

heating the crude material above the crystallization temperature and drawing it,

drawing the heated crude material in filament from with the heated rollers,

heating with the mobile laser beam in order to increase crystallinity in the fiber material and correcting the defected points with heat and by drawing,

drawing the filaments by being passed through the heated chamber in order to fix the filament structure,

obtaining a final product.

8. The fiber production method according to claim 7 , wherein homogenous heat distribution is provided and the defected point is eliminated with tension by means of applying the laser beam on the defected point on the filament structure while moving between two heated rollers in step of drawing the filaments with the heated rollers.

9. The fiber production method according to claim 7 , wherein the laser beam is applied on the defected point on the filament structure while moving between the heated rollers and the heated chamber, and a homogenous heat distribution is enabled and the defected point is eliminated by heating and drawing, in step of drawing the filaments between the cooling unit and the winding machine.

10. The fiber production method according to claim 7 , wherein the crude material is kept in range of 270° C.-300° C. in the step of passing the molten crude material through the spinneret or spinnerets.

11. The fiber production method according to claim 7 , wherein the crude material is heated to 80° C. and above via the first roller according to the transmission direction in the step of heating the crude material above the glass transition temperature.

12. The fiber production method according to claim 7 , wherein the crude material is heated to 100° C. and above via the second roller according to the transmission direction in the step of heating the crude material above the crystallization temperature.

13. The fiber production method according to claim 7 , wherein the heated crude material in filament form is heated to 200° C. and above via the third roller according to the transmission direction.

14. The fiber production method according to claim 7 , wherein the preferred embodiment of the invention the heated chamber is heated to 200° C. and above in the step of drawing the filaments by passing through the heated chamber in order to fix filament structure.