A manufacturing method for enhancing the bonding of a film to an inner lining

Abstract

The present invention relates to the technical field of tire preparation, and particularly to a manufacturing method for increasing the bonding of a film to the inner liner, comprising the following steps: Step a: A rubber feeder supplies rubber to an extruder, and the extruder extrudes an airtight layer, a transition layer, and a film layer respectively; Step b: A composite roller press composites the airtight layer and the transition layer together; Step c: A film bonding device bonds the airtight layer and the transition layer that are composite together with the film layer to form an inner liner layer; Step d: A forming machine presses and forms the inner liner layer, a cord fabric layer, a carcass layer, a bead core, and a tire side, then performs an inverse wrapping process, and finally laminates with a belt layer to form a tire blank; In Step a, the adhesion grade G between the inner liner layer and the cord fabric layer is determined according to the adhesion S of the film layer; The quality Z of the inner liner layer is determined according to the rubber supply pressure P of the rubber feeder. The present invention reduces the stretching and deformation in the tire flexure area; reduces the probability of air bubbles appearing in the inner liner layer; and saves cost investment.

Description

Technical Field

[0001] The invention relates to the technical field of tire preparation, and in particular to a method for manufacturing an inner liner to increase film lamination. Background Art

[0002] The skeleton material of all-steel radial tires is made entirely of steel wire. In order to prevent air and water from penetrating and causing the steel wire to rust and delamination, the inner liner must have good air tightness. To ensure sufficient air tightness, the airtight layer rubber material uses halogenated butyl rubber, but halogenated butyl rubber has poor mutual adhesion with other rubber materials, and bubbles are easily generated during the production process. If the inner liner is compounded with two layers (transition layer and airtight layer) of very wide rubber, it is easier to get bubbles when laminating, and the bubbles are not easy to be discharged during vulcanization, resulting in bubbles between the layers of the finished tire and waste products.

[0003] The existing inner liner includes an airtight layer and a transition layer. After the inner liner is laminated on the laminating drum, the nylon cover, the steel wire cover and the carcass are directly laminated. The outer ends of the steel wire cover and the nylon cover are provided with rubber sheets on the sidewall and the rubber core to enhance the adhesion, while the inner ends of the steel wire cover and the nylon cover are directly laminated to the inner liner without any parts to enhance the adhesion. Therefore, it is necessary to enhance the adhesion between the inner liner and the cord layer, and to play a transition buffer role between the inner liner and the relatively rigid cord layer to reduce the shear stress in this area. Summary of the invention

[0004] The purpose of the present invention is to enhance the adhesion between the inner liner and the cord layer, to play a transition buffer role between the inner liner and the cord layer with strong rigidity, to reduce the shear stress in this part, and to effectively reduce the expansion and contraction deformation of the tire flexure zone when the tire runs quickly under high load conditions; by adjusting the working parameters of the extruder and the composite roller machine, the probability of bubbles appearing in the inner liner is reduced to avoid waste of resources; by modifying the existing inner liner production line and adding film bonding equipment, automatic film bonding can be achieved to save cost investment.

[0005] To achieve the above-mentioned purpose, the present invention provides a method for manufacturing an inner liner with increased film bonding, comprising: step a: a glue supply machine supplies glue to an extruder, and the extruder extrude an airtight layer, a transition layer and a film layer respectively; step b: a composite roller machine composites the airtight layer and the transition layer together; step c: a film bonding device bonds the composited airtight layer and the transition layer with the film layer to form an inner liner; step d: a molding machine presses and molds the inner liner, the cord layer, the carcass layer, the tire bead core and the sidewall, then performs a reverse packaging process, and finally laminates them with the belt layer to form a tire embryo; in step a, the viscosity grade G between the inner liner and the cord layer is determined according to the viscosity S of the film layer; the quality Z of the inner liner is determined according to the glue supply pressure P of the glue supply machine.

[0006] In some embodiments of the present application, when determining the adhesion grade G between the inner liner layer and the cord fabric layer according to the adhesion S of the film layer, a preset adhesion matrix S0 of the film layer is preset, and S0(S1, S2, S3, S4) is set, where S1 is the adhesion of the first preset film layer, S2 is the adhesion of the second preset film layer, S3 is the adhesion of the third preset film layer, and S4 is the adhesion of the fourth preset film layer, and S1 < S2 < S3 < S4; a preset adhesion grade matrix G0 between the inner liner layer and the cord fabric layer is preset, and G0(G1, G2, G3, G4) is set, where G1 is the first preset adhesion grade between the inner liner layer and the cord fabric layer, G2 is the second preset adhesion grade between the inner liner layer and the cord fabric layer, G3 is the third preset adhesion grade between the inner liner layer and the cord fabric layer, and G4 is the fourth preset adhesion grade between the inner liner layer and the cord fabric layer, and G1 < G2 < G3 < G4; the adhesion grade G between the inner liner layer and the cord fabric layer is set according to the relationship between the adhesion S of the film layer and the adhesion of each preset film layer: when S < S1, the first preset adhesion grade G1 between the inner liner layer and the cord fabric layer is selected as the adhesion grade G between the inner liner layer and the cord fabric layer; when S1 ≤ S < S2, the second preset adhesion grade G2 between the inner liner layer and the cord fabric layer is selected as the adhesion grade G between the inner liner layer and the cord fabric layer; when S2 ≤ S < S3, the third preset adhesion grade G3 between the inner liner layer and the cord fabric layer is selected as the adhesion grade G between the inner liner layer and the cord fabric layer; when S3 ≤ S < S4, the fourth preset adhesion grade G4 between the inner liner layer and the cord fabric layer is selected as the adhesion grade G between the inner liner layer and the cord fabric layer.

[0007] In some embodiments of the present application, in step a, the adhesion grade G between the inner liner layer and the cord fabric layer is corrected according to the thickness D of the film layer; a preset thickness matrix D0 of the film layer is provided in advance. For the preset thickness matrix D0 of the film layer, D0(D1, D2, D3, D4) is set, where D1 is the thickness of the first preset film layer, D2 is the thickness of the second preset film layer, D3 is the thickness of the third preset film layer, D4 is the thickness of the fourth preset film layer, and D1 < D2 < D3 < D4; a preset correction coefficient matrix ai is provided in advance. For the preset correction coefficient matrix ai, ai(a1, a2, a3, a4) is set, where a1 is the first preset correction coefficient, a2 is the second preset correction coefficient, a3 is the third preset correction coefficient, a4 is the fourth preset correction coefficient, and a1 < a2 < a3 < a4; the adhesion grade G between the inner liner layer and the cord fabric layer is corrected by selecting the i-th preset correction coefficient ai according to the relationship between the thickness D of the film layer and the thicknesses of the preset film layers, where i = 1, 2, 3, 4: when D < D1, the first preset correction coefficient a1 is selected to correct the adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G*a1; when D1 ≤ D < D2, the second preset correction coefficient a2 is selected to correct the adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G*a2; when D2 ≤ D < D3, the third preset correction coefficient a3 is selected to correct the adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G*a3; when D3 ≤ D < D4, the fourth preset correction coefficient a4 is selected to correct the adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G*a4.

[0008] In some embodiments of the present application, in step c, the viscosity grade G between the corrected inner liner layer and the cord fabric layer is secondarily corrected according to the bonding temperature T of the sheet bonding device; a bonding temperature matrix T0 of a preset bonding device is preset. For the bonding temperature matrix T0 of the preset bonding device, T0(T1, T2, T3, T4) is set, where T1 is the bonding temperature of the first preset bonding device, T2 is the bonding temperature of the second preset bonding device, T3 is the bonding temperature of the third preset bonding device, and T4 is the bonding temperature of the fourth preset bonding device, and T1 < T2 < T3 < T4; a preset secondary correction coefficient matrix bj is also preset. For the preset correction coefficient matrix bj, bj(b1, b2, b3, b4) is set, where j = 1, 2, 3, 4, b1 is the first preset secondary correction coefficient, b2 is the second preset secondary correction coefficient, b3 is the third preset secondary correction coefficient, and b4 is the fourth preset secondary correction coefficient, and b1 < b2 < b3 < b4; after the viscosity grade G between the inner liner layer and the cord fabric layer is corrected by selecting the ith preset correction coefficient ai, the jth preset secondary correction coefficient bj is selected according to the relationship between the bonding temperature T of the bonding device and the bonding temperatures of the preset bonding devices to secondarily correct the viscosity grade G*ai between the inner liner layer and the cord fabric layer, where j = 1, 2, 3, 4: when T < T1, the first preset secondary correction coefficient b1 is selected to secondarily correct the viscosity grade G*ai between the corrected inner liner layer and the cord fabric layer, and the corrected viscosity grade between the inner liner layer and the cord fabric layer is G*ai*b1; when T1 ≤ T < T2, the second preset secondary correction coefficient b2 is selected to secondarily correct the viscosity grade G*ai between the corrected inner liner layer and the cord fabric layer, and the corrected viscosity grade between the inner liner layer and the cord fabric layer is G*ai*b2; when T2 ≤ T < T3, the third preset secondary correction coefficient b3 is selected to secondarily correct the viscosity grade G*ai between the corrected inner liner layer and the cord fabric layer, and the corrected viscosity grade between the inner liner layer and the cord fabric layer is G*ai*b3; when T3 ≤ T < T4, the fourth preset secondary correction coefficient b4 is selected to secondarily correct the viscosity grade G between the corrected inner liner layer and the cord fabric layer, and the corrected viscosity grade between the inner liner layer and the cord fabric layer is G*ai*b4.

[0009] In some embodiments of the present application, when determining the quality Z of the inner liner according to the glue supply pressure P of the glue supply machine: a preset quality matrix Z0 of the inner liner and a preset glue supply pressure matrix P0 of the glue supply machine are provided in advance; for the preset quality matrix Z0 of the inner liner, Z0(Z1, Z2, Z3, Z4) is set, where Z1 is the quality of the first preset inner liner, Z2 is the quality of the second preset inner liner, Z3 is the quality of the third preset inner liner, Z4 is the quality of the fourth preset inner liner, and Z1 < Z2 < Z3 < Z4; for the glue supply pressure matrix P0 of the glue supply machine, P0(P1, P2, P3, P4) is set, where P1 is the glue supply pressure of the first preset glue supply machine, P2 is the glue supply pressure of the second preset glue supply machine, P3 is the glue supply pressure of the third preset glue supply machine, P4 is the glue supply pressure of the fourth preset glue supply machine, and P1 < P2 < P3 < P4; the quality Z of the inner liner is set according to the relationship between the glue supply pressure P of the glue supply machine and the glue supply pressures of each preset glue supply machine: when P ≤ P1, the quality Z1 of the first preset inner liner is selected as the quality Z of the inner liner; when P1 < P ≤ P2, the quality Z2 of the second preset inner liner is selected as the quality Z of the inner liner; when P2 < P ≤ P3, the quality Z3 of the third preset inner liner is selected as the quality Z of the inner liner; when P3 < P ≤ P4, the quality Z4 of the fourth preset inner liner is selected as the quality Z of the inner liner.

[0010] In some embodiments of the present application, the quality Z of the inner liner is corrected according to the extrusion speed V of the glue supply machine: There is a preset extrusion speed matrix V0 in advance. For the preset extrusion speed matrix V0, set V0(V1, V2, V3, V4), where V1 is the first preset extrusion speed, V2 is the second preset extrusion speed, V3 is the third preset extrusion speed, V4 is the fourth preset extrusion speed, and V1 < V2 < V3 < V4; There is a preset correction coefficient matrix c in advance. For the preset correction coefficient matrix c, set c(c1, c2, c3, c4), where c1 is the first preset correction coefficient, c2 is the second preset correction coefficient, c3 is the third preset correction coefficient, c4 is the fourth preset correction coefficient, and c1 < c2 < c3 < c4; The m-th preset correction coefficient cm is selected according to the relationship between the extrusion speed V and each preset extrusion speed to correct the quality Z of the inner liner, where m = 1, 2, 3, 4: When V ≤ V1, select the first preset correction coefficient c1 to correct the quality Z of the inner liner, and the quality of the repaired inner liner is Z*c1; When V1 < V ≤ V2, select the second preset correction coefficient c2 to correct the quality Z of the inner liner, and the quality of the repaired inner liner is Z*c2; When V2 < V ≤ V3, select the third preset correction coefficient c3 to correct the quality Z of the inner liner, and the quality of the repaired inner liner is Z*c3; When V3 < V ≤ V4, select the fourth preset correction coefficient c4 to correct the quality Z of the inner liner, and the quality of the repaired inner liner is Z*c4.

[0011] In some embodiments of the present application, the quality Z of the inner liner is corrected according to the bonding angle W of the composite roller press; a preset bonding angle matrix W0 of the composite roller press is preset. For the preset bonding angle matrix W0 of the composite roller press, W0 (W1, W2, W3, W4) is set, where W1 is the bonding angle of the first preset composite roller press, W2 is the bonding angle of the second preset composite roller press, W3 is the bonding angle of the third preset composite roller press, and W4 is the bonding angle of the fourth preset composite roller press, and W1 < W2 < W3 < W4; a preset secondary correction coefficient matrix d is also preset. For the preset correction coefficient matrix d, d (d1, d2, d3, d4) is set, where d1 is the first preset secondary correction coefficient, d2 is the second preset secondary correction coefficient, d3 is the third preset secondary correction coefficient, and d4 is the fourth preset secondary correction coefficient, and d1 < d2 < d3 < d4; when the m-th preset correction coefficient cm is selected to correct the quality Z of the inner liner, then according to the relationship between the bonding angle W of the composite roller press and the bonding angles of each preset composite roller press, the n-th preset secondary correction coefficient dn is selected to perform secondary correction on the quality Z*cm of the inner liner, where n = 1, 2, 3, 4: when W ≤ W1, the first preset secondary correction coefficient d1 is selected to perform secondary correction on the corrected quality Z*cm of the inner liner, and the quality of the corrected inner liner is Z*cm*d1; when W1 < W ≤ W2, the second preset secondary correction coefficient d2 is selected to perform secondary correction on the corrected quality Z*cm of the inner liner, and the quality of the corrected inner liner is Z*cm*d2; when W2 < W ≤ W3, the third preset secondary correction coefficient d3 is selected to perform secondary correction on the corrected quality Z*cm of the inner liner, and the quality of the corrected inner liner is Z*cm*d3; when W3 < W ≤ W4, the fourth preset secondary correction coefficient d4 is selected to perform secondary correction on the corrected quality Z*cm of the inner liner, and the quality of the corrected inner liner is Z*cm*d4.

[0012] In some embodiments of the present application, the quality Z of the inner liner is compensated according to the hardness H of the sponge roller of the composite roller press; a hardness matrix H0 of the sponge roller of a preset composite roller press is preset. For the hardness matrix H0 of the sponge roller of the preset composite roller press, H0(H1, H2, H3, H4) is set, where H1 is the hardness of the sponge roller of the first preset composite roller press, H2 is the hardness of the sponge roller of the second preset composite roller press, H3 is the hardness of the sponge roller of the third preset composite roller press, and H4 is the hardness of the sponge roller of the fourth preset composite roller press, and H1 < H2 < H3 < H4; a preset compensation coefficient matrix g is also preset. For the preset correction coefficient matrix g, g(g1, g2, g3, g4) is set, where g1 is the first preset compensation coefficient, g2 is the second preset compensation coefficient, g3 is the third preset compensation coefficient, and g4 is the fourth preset compensation coefficient, and g1 < g2 < g3 < g4; when the nth preset secondary correction coefficient dn is selected to perform secondary correction on the quality Z*cm of the inner liner, then according to the relationship between the hardness H of the sponge roller of the composite roller press and the hardnesses of the sponge rollers of each preset composite roller press, the xth preset compensation coefficient gx is selected to compensate the quality Z*cm*dn of the inner liner, where x = 1, 2, 3, 4: when H ≤ H1, the first preset compensation coefficient g1 is selected to compensate the quality Z*cm of the corrected inner liner, and the quality of the corrected inner liner is Z*cm*dn*g1; when H1 < H ≤ H2, the second preset compensation coefficient g2 is selected to compensate the quality Z*cm of the corrected inner liner, and the quality of the corrected inner liner is Z*cm*dn*g2; when H2 < H ≤ H3, the third preset compensation coefficient g3 is selected to compensate the quality Z*cm of the corrected inner liner, and the quality of the corrected inner liner is Z*cm*dn*g3; when H3 < H ≤ H4, the fourth preset compensation coefficient g4 is selected to compensate the quality Z*cm of the corrected inner liner, and the quality of the corrected inner liner is Z*cm*dn*g4.

[0013] In some embodiments of the present application, both the inner liner and the cord fabric layer are irradiated.

[0014] In some embodiments of the present application, the cord fabric layer includes a nylon wrapper and a steel wire wrapper, the nylon wrapper is adhered to the steel wire wrapper, and the nylon wrapper is adhered to the film. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the accompanying drawings required in the embodiments. Obviously, the accompanying drawings in the following description are only some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other accompanying drawings can be obtained based on these drawings.

[0016] Figure 1 It is a flowchart of the manufacturing method for adding film lamination to the inner lining provided by the embodiment of the present invention. Detailed implementation manners

[0017] The following will further describe in detail the specific implementation manners of the present invention in conjunction with the accompanying drawings and embodiments. The following embodiments are used to illustrate the present invention, but not to limit the scope of the present invention.

[0018] In the description of the present application, it should be understood that the orientation or positional relationship indicated by the terms "center", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc. is based on the orientation or positional relationship shown in the accompanying drawings. It is only for the convenience of describing the present application and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and thus cannot be understood as a limitation to the present application.

[0019] The terms "first" and "second" are only used for descriptive purposes and cannot be understood as indicating or implying relative importance or implicitly specifying the quantity of the indicated technical features. Thus, the features defined with "first" and "second" may explicitly or implicitly include one or more of such features. In the description of the present application, unless otherwise stated, the meaning of "a plurality" is two or more.

[0020] In the description of the present application, it should be noted that unless otherwise clearly defined and limited, the terms "installed", "connected", and "coupled" should be understood in a broad sense. For example, it may be a fixed connection, a detachable connection, or an integral connection; it may be a mechanical connection or an electrical connection; it may be directly connected or indirectly connected through an intermediate medium, and it may be the internal communication of two elements. For those of ordinary skill in the art, the specific meanings of the above terms in the present application can be understood according to specific circumstances.

[0021] Such as Figure 1As shown in the figure, this embodiment discloses a manufacturing method for adding film lamination to the inner liner, including: Step a: The glue supply machine supplies glue to the extruder, and the extruder extrudes the airtight layer, transition layer, and film layer respectively; Step b: The composite roller press composites the airtight layer and the transition layer together; Step c: The film laminating device laminates the airtight layer and the transition layer that are composite together with the film layer to form an inner liner layer; Step d: The forming machine presses and forms the inner liner layer, cord fabric layer, carcass layer, bead core, and tire side, then performs the reverse wrapping process, and finally laminates with the belt layer to form a tire blank; In Step a, the adhesion grade G between the inner liner layer and the cord fabric layer is determined according to the adhesion S of the film layer; The quality Z of the inner liner layer is determined according to the glue supply pressure P of the glue supply machine.

[0022] It can be understood that in the above embodiment, the airtight layer, transition layer, and film layer are respectively extruded by an extruder, rather than an extruder extruding the three layers of the airtight layer, transition layer, and film layer; Determining the adhesion grade G between the inner liner layer and the cord fabric layer according to the adhesion S of the film layer in the above embodiment can improve the adhesion quality between the inner liner layer and the cord fabric layer; Determining the quality Z of the inner liner layer according to the glue supply pressure P of the glue supply machine can improve the processing quality of the inner liner layer and avoid air bubbles in the inner liner layer, resulting in waste of resources.

[0023] In some embodiments of the present application, when determining the adhesion grade G between the inner liner layer and the cord fabric layer according to the adhesion S of the film layer; A preset adhesion matrix S0 of the film layer is preset, and S0 (S1, S2, S3, S4) is set, where S1 is the adhesion of the first preset film layer, S2 is the adhesion of the second preset film layer, S3 is the adhesion of the third preset film layer, and S4 is the adhesion of the fourth preset film layer, and S1 < S2 < S3 < S4; A preset adhesion grade matrix G0 between the inner liner layer and the cord fabric layer is preset, and G0 (G1, G2, G3, G4) is set, where G1 is the first preset adhesion grade between the inner liner layer and the cord fabric layer, G2 is the second preset adhesion grade between the inner liner layer and the cord fabric layer, G3 is the third preset adhesion grade between the inner liner layer and the cord fabric layer, and G4 is the fourth preset adhesion grade between the inner liner layer and the cord fabric layer, and G1 < G2 < G3 < G4; The adhesion grade G between the inner liner layer and the cord fabric layer is set according to the relationship between the adhesion S of the film layer and the adhesions of each preset film layer: When S < S1, the first preset adhesion grade G1 between the inner liner layer and the cord fabric layer is selected as the adhesion grade G between the inner liner layer and the cord fabric layer; When S1 ≤ S < S2, the second preset adhesion grade G2 between the inner liner layer and the cord fabric layer is selected as the adhesion grade G between the inner liner layer and the cord fabric layer; When S2 ≤ S < S3, the third preset adhesion grade G3 between the inner liner layer and the cord fabric layer is selected as the adhesion grade G between the inner liner layer and the cord fabric layer; When S3 ≤ S < S4, the fourth preset adhesion grade G4 between the inner liner layer and the cord fabric layer is selected as the adhesion grade G between the inner liner layer and the cord fabric layer.

[0024] It can be understood that in the above embodiments, setting the adhesion grade G between the inner liner layer and the cord fabric layer according to the relationship between the adhesion S of the film layer and the adhesions of each preset film layer can improve the accuracy of selecting the adhesion grade between the inner liner layer and the cord fabric layer.

[0025] It should be noted that the solutions of the above preferred embodiments are only a specific implementation manner proposed in the present application. Those skilled in the art can select the binder for making the film layer according to the actual situation. Different types of binders will result in different adhesions S of the film layer, which does not affect the protection scope of the present application.

[0026] In some embodiments of the present application, in step a, the adhesion grade G between the inner liner layer and the cord fabric layer is corrected according to the thickness D of the film layer; a preset thickness matrix D0 of the film layer is provided in advance. For the preset thickness matrix D0 of the film layer, D0(D1, D2, D3, D4) is set, where D1 is the thickness of the first preset film layer, D2 is the thickness of the second preset film layer, D3 is the thickness of the third preset film layer, D4 is the thickness of the fourth preset film layer, and D1 < D2 < D3 < D4;

[0027] A preset correction coefficient matrix ai is provided in advance. For the preset correction coefficient matrix ai, ai(a1, a2, a3, a4) is set, where a1 is the first preset correction coefficient, a2 is the second preset correction coefficient, a3 is the third preset correction coefficient, a4 is the fourth preset correction coefficient, and a1 < a2 < a3 < a4; the ith preset correction coefficient ai is selected according to the relationship between the thickness D of the film layer and the thicknesses of each preset film layer to correct the adhesion grade G between the inner liner layer and the cord fabric layer, where i = 1, 2, 3, 4: when D < D1, the first preset correction coefficient a1 is selected to correct the adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G*a1; when D1 ≤ D < D2, the second preset correction coefficient a2 is selected to correct the adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G*a2; when D2 ≤ D < D3, the third preset correction coefficient a3 is selected to correct the adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G*a3; when D3 ≤ D < D4, the fourth preset correction coefficient a4 is selected to correct the adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G*a4.

[0028] It can be understood that in the above embodiments, selecting the ith preset correction coefficient ai to correct the adhesion grade G between the inner liner layer and the cord fabric layer according to the relationship between the thickness D of the film layer and the thicknesses of each preset film layer can further improve the accuracy of selecting the adhesion grade between the inner liner layer and the cord fabric layer.

[0029] In some embodiments of the present application, in step c, the viscosity grade G between the corrected inner liner layer and the cord fabric layer is secondarily corrected according to the bonding temperature T of the sheet bonding device; a preset bonding temperature matrix T0 of the preset bonding device is provided in advance. For the preset bonding temperature matrix T0 of the preset bonding device, T0(T1, T2, T3, T4) is set, where T1 is the bonding temperature of the first preset bonding device, T2 is the bonding temperature of the second preset bonding device, T3 is the bonding temperature of the third preset bonding device, T4 is the bonding temperature of the fourth preset bonding device, and T1 < T2 < T3 < T4; a preset secondary correction coefficient matrix bj is also provided in advance. For the preset correction coefficient matrix bj, bj(b1, b2, b3, b4) is set, where j = 1, 2, 3, 4, b1 is the first preset secondary correction coefficient, b2 is the second preset secondary correction coefficient, b3 is the third preset secondary correction coefficient, b4 is the fourth preset secondary correction coefficient, and b1 < b2 < b3 < b4; when the selected ith preset correction coefficient ai corrects the viscosity grade G between the inner liner layer and the cord fabric layer, then according to the relationship between the bonding temperature T of the bonding device and the bonding temperatures of each preset bonding device, the jth preset secondary correction coefficient bj is selected to secondarily correct the viscosity grade G*ai between the inner liner layer and the cord fabric layer, where j = 1, 2, 3, 4: when T < T1, the first preset secondary correction coefficient b1 is selected to secondarily correct the viscosity grade G*ai between the corrected inner liner layer and the cord fabric layer, and the corrected viscosity grade between the inner liner layer and the cord fabric layer is G*ai*b1; when T1 ≤ T < T2, the second preset secondary correction coefficient b2 is selected to secondarily correct the viscosity grade G*ai between the corrected inner liner layer and the cord fabric layer, and the corrected viscosity grade between the inner liner layer and the cord fabric layer is G*ai*b2; when T2 ≤ T < T3, the third preset secondary correction coefficient b3 is selected to secondarily correct the viscosity grade G*ai between the corrected inner liner layer and the cord fabric layer, and the corrected viscosity grade between the inner liner layer and the cord fabric layer is G*ai*b3; when T3 ≤ T < T4, the fourth preset secondary correction coefficient b4 is selected to secondarily correct the viscosity grade G between the corrected inner liner layer and the cord fabric layer, and the corrected viscosity grade between the inner liner layer and the cord fabric layer is G*ai*b4.

[0030] It can be understood that in the above embodiments, when the selected ith preset correction coefficient ai corrects the viscosity grade G between the inner liner layer and the cord fabric layer, and then according to the relationship between the bonding temperature T of the bonding device and the bonding temperatures of each preset bonding device, the jth preset secondary correction coefficient bj is selected to secondarily correct the viscosity grade G*ai between the inner liner layer and the cord fabric layer, the accuracy of the viscosity grade selection between the inner liner layer and the cord fabric layer can be improved once again.

[0031] In some embodiments of the present application, when determining the quality Z of the inner liner according to the glue supply pressure P of the glue supply machine: a preset quality matrix Z0 of the inner liner and a preset glue supply pressure matrix P0 of the glue supply machine are pre-set; for the preset quality matrix Z0 of the inner liner, Z0(Z1, Z2, Z3, Z4) is set, where Z1 is the quality of the first preset inner liner, Z2 is the quality of the second preset inner liner, Z3 is the quality of the third preset inner liner, Z4 is the quality of the fourth preset inner liner, and Z1 < Z2 < Z3 < Z4; for the glue supply pressure matrix P0 of the glue supply machine, P0(P1, P2, P3, P4) is set, where P1 is the glue supply pressure of the first preset glue supply machine, P2 is the glue supply pressure of the second preset glue supply machine, P3 is the glue supply pressure of the third preset glue supply machine, P4 is the glue supply pressure of the fourth preset glue supply machine, and P1 < P2 < P3 < P4; the quality Z of the inner liner is set according to the relationship between the glue supply pressure P of the glue supply machine and the glue supply pressures of each preset glue supply machine: when P ≤ P1, the quality Z1 of the first preset inner liner is selected as the quality Z of the inner liner; when P1 < P ≤ P2, the quality Z2 of the second preset inner liner is selected as the quality Z of the inner liner; when P2 < P ≤ P3, the quality Z3 of the third preset inner liner is selected as the quality Z of the inner liner; when P3 < P ≤ P4, the quality Z4 of the fourth preset inner liner is selected as the quality Z of the inner liner.

[0032] It can be understood that setting the quality Z of the inner liner according to the relationship between the glue supply pressure P of the glue supply machine and the glue supply pressures of each preset glue supply machine in the above embodiments can improve the quality of the inner liner and avoid the generation of air bubbles.

[0033] In some embodiments of the present application, the quality Z of the inner liner is corrected according to the extrusion speed V of the glue feeder: There is a pre-set extrusion speed matrix V0. For the pre-set extrusion speed matrix V0, V0(V1, V2, V3, V4) is set, where V1 is the first pre-set extrusion speed, V2 is the second pre-set extrusion speed, V3 is the third pre-set extrusion speed, V4 is the fourth pre-set extrusion speed, and V1 < V2 < V3 < V4; There is a pre-set correction coefficient matrix c. For the pre-set correction coefficient matrix c, c(c1, c2, c3, c4) is set, where c1 is the first pre-set correction coefficient, c2 is the second pre-set correction coefficient, c3 is the third pre-set correction coefficient, c4 is the fourth pre-set correction coefficient, and c1 < c2 < c3 < c4; The m-th pre-set correction coefficient cm is selected according to the relationship between the extrusion speed V and each pre-set extrusion speed to correct the quality Z of the inner liner, where m = 1, 2, 3, 4: When V ≤ V1, the first pre-set correction coefficient c1 is selected to correct the quality Z of the inner liner, and the quality of the repaired inner liner is Z * c1; When V1 < V ≤ V2, the second pre-set correction coefficient c2 is selected to correct the quality Z of the inner liner, and the quality of the repaired inner liner is Z * c2; When V2 < V ≤ V3, the third pre-set correction coefficient c3 is selected to correct the quality Z of the inner liner, and the quality of the repaired inner liner is Z * c3; When V3 < V ≤ V4, the fourth pre-set correction coefficient c4 is selected to correct the quality Z of the inner liner, and the quality of the repaired inner liner is Z * c4.

[0034] It can be understood that in the above embodiments, the m-th pre-set correction coefficient cm is selected according to the relationship between the extrusion speed V and each pre-set extrusion speed to correct the quality Z of the inner liner, which can further improve the quality of the inner liner and avoid the generation of bubbles.

[0035] In some embodiments of the present application, the quality Z of the inner liner is corrected according to the fitting angle W of the composite roller press; a preset fitting angle matrix W0 of the composite roller press is preset. For the preset fitting angle matrix W0 of the composite roller press, W0 (W1, W2, W3, W4) is set, where W1 is the fitting angle of the first preset composite roller press, W2 is the fitting angle of the second preset composite roller press, W3 is the fitting angle of the third preset composite roller press, W4 is the fitting angle of the fourth preset composite roller press, and W1 < W2 < W3 < W4; a preset secondary correction coefficient matrix d is also preset. For the preset correction coefficient matrix d, d (d1, d2, d3, d4) is set, where d1 is the first preset secondary correction coefficient, d2 is the second preset secondary correction coefficient, d3 is the third preset secondary correction coefficient, d4 is the fourth preset secondary correction coefficient, and d1 < d2 < d3 < d4; after the m-th preset correction coefficient cm is selected to correct the quality Z of the inner liner, the n-th preset secondary correction coefficient dn is selected according to the relationship between the fitting angle W of the composite roller press and the fitting angles of each preset composite roller press to perform secondary correction on the quality Z*cm of the inner liner, where n = 1, 2, 3, 4: when W ≤ W1, the first preset secondary correction coefficient d1 is selected to perform secondary correction on the corrected quality Z*cm of the inner liner, and the quality of the corrected inner liner is Z*cm*d1; when W1 < W ≤ W2, the second preset secondary correction coefficient d2 is selected to perform secondary correction on the corrected quality Z*cm of the inner liner, and the quality of the corrected inner liner is Z*cm*d2; when W2 < W ≤ W3, the third preset secondary correction coefficient d3 is selected to perform secondary correction on the corrected quality Z*cm of the inner liner, and the quality of the corrected inner liner is Z*cm*d3; when W3 < W ≤ W4, the fourth preset secondary correction coefficient d4 is selected to perform secondary correction on the corrected quality Z*cm of the inner liner, and the quality of the corrected inner liner is Z*cm*d4.

[0036] It can be understood that in the above embodiments, after the m-th preset correction coefficient cm is selected to correct the quality Z of the inner liner, the n-th preset secondary correction coefficient dn is selected according to the relationship between the fitting angle W of the composite roller press and the fitting angles of each preset composite roller press to perform secondary correction on the quality Z*cm of the inner liner, which can further improve the quality of the inner liner and avoid the generation of bubbles.

[0037] In some embodiments of the present application, the quality Z of the inner liner is compensated according to the hardness H of the sponge roller of the composite roller press; a hardness matrix H0 of the sponge roller of a preset composite roller press is preset. For the hardness matrix H0 of the sponge roller of the preset composite roller press, H0(H1, H2, H3, H4) is set, where H1 is the hardness of the sponge roller of the first preset composite roller press, H2 is the hardness of the sponge roller of the second preset composite roller press, H3 is the hardness of the sponge roller of the third preset composite roller press, H4 is the hardness of the sponge roller of the fourth preset composite roller press, and H1 < H2 < H3 < H4; a preset compensation coefficient matrix g is also preset. For the preset correction coefficient matrix g, g(g1, g2, g3, g4) is set, where g1 is the first preset compensation coefficient, g2 is the second preset compensation coefficient, g3 is the third preset compensation coefficient, g4 is the fourth preset compensation coefficient, and g1 < g2 < g3 < g4; when the nth preset secondary correction coefficient dn is selected to perform secondary correction on the quality Z*cm of the inner liner, then according to the relationship between the hardness H of the sponge roller of the composite roller press and the hardnesses of the sponge rollers of each preset composite roller press, the xth preset compensation coefficient gx is selected to compensate the quality Z*cm*dn of the inner liner, where x = 1, 2, 3, 4: when H ≤ H1, the first preset compensation coefficient g1 is selected to compensate the quality Z*cm of the corrected inner liner, and the quality of the corrected inner liner is Z*cm*dn*g1; when H1 < H ≤ H2, the second preset compensation coefficient g2 is selected to compensate the quality Z*cm of the corrected inner liner, and the quality of the corrected inner liner is Z*cm*dn*g2; when H2 < H ≤ H3, the third preset compensation coefficient g3 is selected to compensate the quality Z*cm of the corrected inner liner, and the quality of the corrected inner liner is Z*cm*dn*g3; when H3 < H ≤ H4, the fourth preset compensation coefficient g4 is selected to compensate the quality Z*cm of the corrected inner liner, and the quality of the corrected inner liner is Z*cm*dn*g4.

[0038] It can be understood that in order to meet the structural requirement that the inner liner is thicker in the middle and thinner at both sides in the above embodiments, sponge rollers with different degrees of hardness are selected during lamination. When the nth preset secondary correction coefficient dn is selected to perform secondary correction on the quality Z*cm of the inner liner, then according to the relationship between the hardness H of the sponge roller of the composite roller press and the hardnesses of the sponge rollers of each preset composite roller press, the xth preset compensation coefficient gx is selected to compensate the quality Z*cm*dn of the inner liner, which can improve the quality of the inner liner once again and avoid the generation of bubbles.

[0039] It can be understood that in the above embodiments, in order to avoid the occurrence of air bubbles in the inner liner layer caused by the cylinder pressure of the compound roller press, which may affect the quality of the inner liner layer, when selecting sponge rollers with different hardness levels to control the laminating quality, the cylinder air pressure is controlled between 0.2 and 0.4 MPa.

[0040] In some embodiments of the present application, both the inner liner layer and the carcass ply are irradiated.

[0041] It can be understood that during the tire forming and vulcanizing processes, the carcass ply may experience phenomena such as cord deviation or uneven cord density. The tire inner liner layer (mainly the airtight layer) is a thin pure rubber sheet, and during the vulcanization process, it is more likely to have rubber compound flow, resulting in uneven thickness. To eliminate these drawbacks and improve the tire quality, an electron beam irradiation system can be used to irradiate the rubberized cord fabric and the inner liner layer. Therefore, the irradiation treatment in the above embodiments can significantly improve the quality of the inner liner layer and the carcass ply.

[0042] In some embodiments of the present application, the carcass ply includes a nylon wrapper and a steel wire wrapper. The nylon wrapper is laminated with the steel wire wrapper, and the nylon wrapper is laminated with the rubber sheet.

[0043] It can be understood that in the above embodiments, laminating the nylon wrapper with the rubber sheet can enhance the adhesion between the inner liner layer and the carcass ply, play a transitional buffering role between the inner liner layer and the relatively rigid carcass ply, reduce the shear stress at this part, and effectively reduce the telescopic deformation in the tire flexure area when the tire is running at high load.

[0044] In summary, the present invention discloses a manufacturing method for increasing the lamination of the inner liner with a rubber sheet, which can enhance the adhesion between the inner liner layer and the carcass ply, play a transitional buffering role between the inner liner layer and the relatively rigid carcass ply, reduce the shear stress at this part, and effectively reduce the telescopic deformation in the tire flexure area when the tire is running at high load; by adjusting the working parameters of the extruder and the compound roller press, the probability of air bubbles in the inner liner layer is reduced, avoiding waste of resources; by transforming the existing inner liner production line and adding rubber sheet laminating equipment, automatic rubber sheet lamination can be achieved, saving cost investment.

[0045] It should be understood that although the steps in the flowcharts of the embodiments of the present invention are shown sequentially in the direction of the arrows, these steps are not necessarily executed sequentially in the order indicated by the arrows. Unless there is a clear indication in this article, there is no strict order restriction for the execution of these steps, and these steps can be executed in other orders. Moreover, at least a part of the steps in each embodiment may include multiple sub-steps or multiple stages. These sub-steps or stages are not necessarily executed at the same time, but can be executed at different times. The execution order of these sub-steps or stages does not have to be sequential either, but can be executed alternately or in turn with at least a part of other steps or sub-steps or stages of other steps.

[0046] Those of ordinary skill in the art can understand that the above are only the preferred embodiments of the present invention and are not used to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, for those skilled in the art, they can still modify the technical solutions described in the foregoing embodiments or equivalently replace some of the technical features. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. A manufacturing method for increasing the film adhesion of the inner lining, characterized in that, Including: Step a: The glue feeder supplies glue to the extruder, and the extruder extrudes an airtight layer, a transition layer, and a film layer respectively; Step b: The composite roller press composites the airtight layer and the transition layer together; Step c: The film laminating device laminates the airtight layer and the transition layer that are composite together with the film layer to form a liner; the laminating temperature of the film laminating device is T; Step d: The forming machine presses and forms the liner, the cord fabric layer, the carcass layer, the bead core, and the sidewall, then performs an inverse wrapping process, and finally laminates with the belt layer to form a tire blank; In step a, the adhesion grade G between the liner and the cord fabric layer is determined according to the adhesion S of the film layer; The quality Z of the liner is determined according to the glue supply pressure P of the glue feeder; When determining the adhesion grade G between the liner and the cord fabric layer according to the adhesion S of the film layer; A preset adhesion matrix S0 of the film layer is preset, and S0(S1, S2, S3, S4) is set, where S1 is the adhesion of the first preset film layer, S2 is the adhesion of the second preset film layer, S3 is the adhesion of the third preset film layer, and S4 is the adhesion of the fourth preset film layer, and S1 < S2 < S3 < S4; A preset adhesion grade matrix G0 between the liner and the cord fabric layer is preset, and G0(G1, G2, G3, G4) is set, where G1 is the first preset adhesion grade between the liner and the cord fabric layer, G2 is the second preset adhesion grade between the liner and the cord fabric layer, G3 is the third preset adhesion grade between the liner and the cord fabric layer, and G4 is the fourth preset adhesion grade between the liner and the cord fabric layer, and G1 < G2 < G3 < G4; The adhesion grade G between the liner and the cord fabric layer is set according to the relationship between the adhesion S of the film layer and the adhesions of each preset film layer: When S < S1, the first preset adhesion grade G1 between the liner and the cord fabric layer is selected as the adhesion grade G between the liner and the cord fabric layer; When S1 ≤ S < S2, the second preset adhesion grade G2 between the liner and the cord fabric layer is selected as the adhesion grade G between the liner and the cord fabric layer; When S2 ≤ S < S3, the third preset adhesion grade G3 between the liner and the cord fabric layer is selected as the adhesion grade G between the liner and the cord fabric layer; When S3 ≤ S < S4, the fourth preset adhesion grade G4 between the liner and the cord fabric layer is selected as the adhesion grade G between the liner and the cord fabric layer; When determining the quality Z of the inner liner according to the glue supply pressure P of the glue supply machine: there is a preset quality matrix Z0 of the inner liner and a preset glue supply pressure matrix P0 of the glue supply machine in advance; for the preset quality matrix Z0 of the inner liner, set Z0(Z1, Z2, Z3, Z4), where Z1 is the quality of the first preset inner liner, Z2 is the quality of the second preset inner liner, Z3 is the quality of the third preset inner liner, Z4 is the quality of the fourth preset inner liner, and Z1 < Z2 < Z3 < Z4; for the glue supply pressure matrix P0 of the glue supply machine, set P0(P1, P2, P3, P4), where P1 is the glue supply pressure of the first preset glue supply machine, P2 is the glue supply pressure of the second preset glue supply machine, P3 is the glue supply pressure of the third preset glue supply machine, P4 is the glue supply pressure of the fourth preset glue supply machine, and P1 < P2 < P3 < P4; Set the quality Z of the inner liner according to the relationship between the glue supply pressure P of the glue supply machine and the glue supply pressures of each preset glue supply machine: When P ≤ P1, select the quality Z1 of the first preset inner liner as the quality Z of the inner liner; When P1 < P ≤ P2, select the quality Z2 of the second preset inner liner as the quality Z of the inner liner; When P2 < P ≤ P3, select the quality Z3 of the third preset inner liner as the quality Z of the inner liner; When P3 < P ≤ P4, select the quality Z4 of the fourth preset inner liner as the quality Z of the inner liner.

2. The manufacturing method for increasing the film adhesion of the inner lining according to claim 1, characterized in that, In step a, correct the adhesion grade G between the inner liner and the cord fabric layer according to the thickness D of the film layer; There is a preset thickness matrix D0 of the film layer in advance. For the preset thickness matrix D0 of the film layer, set D0(D1, D2, D3, D4), where D1 is the thickness of the first preset film layer, D2 is the thickness of the second preset film layer, D3 is the thickness of the third preset film layer, D4 is the thickness of the fourth preset film layer, and D1 < D2 < D3 < D4; There is a preset correction coefficient matrix ai in advance. For the preset correction coefficient matrix ai, set ai(a1, a2, a3, a4), where a1 is the first preset correction coefficient, a2 is the second preset correction coefficient, a3 is the third preset correction coefficient, a4 is the fourth preset correction coefficient, and a1 < a2 < a3 < a4; Select the i-th preset correction coefficient ai to correct the adhesion grade G between the inner liner and the cord fabric layer according to the relationship between the thickness D of the film layer and the thicknesses of each preset film layer, where i = 1, 2, 3, 4: When D < D1, select the first preset correction coefficient a1 to correct the adhesion grade G between the inner liner and the cord fabric layer, and the corrected adhesion grade between the inner liner and the cord fabric layer is G*a1; When D1 ≤ D < D2, select the second preset correction coefficient a2 to correct the adhesion grade G between the inner liner and the cord fabric layer, and the corrected adhesion grade between the inner liner and the cord fabric layer is G*a2; When D2 ≤ D < D3, select the third preset correction coefficient a3 to correct the adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G * a3; When D3 ≤ D < D4, select the fourth preset correction coefficient a4 to correct the adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G * a4.

3. The manufacturing method for increasing the film adhesion of the inner lining according to claim 2, characterized in that, In step c, perform a secondary correction on the corrected adhesion grade G between the inner liner layer and the cord fabric layer according to the bonding temperature T of the sheet bonding device; There is a preset bonding temperature matrix T0 of the preset bonding device in advance. For the preset bonding temperature matrix T0 of the preset bonding device, set T0(T1, T2, T3, T4), where T1 is the bonding temperature of the first preset bonding device, T2 is the bonding temperature of the second preset bonding device, T3 is the bonding temperature of the third preset bonding device, and T4 is the bonding temperature of the fourth preset bonding device, and T1 < T2 < T3 < T4; There is also a preset secondary correction coefficient matrix bj in advance. For the preset correction coefficient matrix bj, set bj(b1, b2, b3, b4), where j = 1, 2, 3, 4, b1 is the first preset secondary correction coefficient, b2 is the second preset secondary correction coefficient, b3 is the third preset secondary correction coefficient, b4 is the fourth preset secondary correction coefficient, and b1 < b2 < b3 < b4; After selecting the i-th preset correction coefficient ai to correct the adhesion grade G between the inner liner layer and the cord fabric layer, then select the j-th preset secondary correction coefficient bj according to the relationship between the bonding temperature T of the bonding device and the bonding temperatures of each preset bonding device to perform a secondary correction on the adhesion grade G * ai between the inner liner layer and the cord fabric layer, where j = 1, 2, 3, 4: When T < T1, select the first preset secondary correction coefficient b1 to perform a secondary correction on the corrected adhesion grade G * ai between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G * ai * b1; When T1 ≤ T < T2, select the second preset secondary correction coefficient b2 to perform a secondary correction on the corrected adhesion grade G * ai between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G * ai * b2; When T2 ≤ T < T3, select the third preset secondary correction coefficient b3 to perform a secondary correction on the corrected adhesion grade G * ai between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G * ai * b3; When T3 ≤ T < T4, select the fourth preset secondary correction coefficient b4 to perform a secondary correction on the corrected adhesion grade G between the inner liner layer and the cord fabric layer, and the corrected adhesion grade between the inner liner layer and the cord fabric layer is G * ai * b4.

4. The manufacturing method for adding film lamination to the inner lining according to claim 3, wherein, Modify the quality Z of the inner liner according to the extrusion speed V of the glue supply machine: There is a preset extrusion speed matrix V0 in advance. For the preset extrusion speed matrix V0, set V0(V1, V2, V3, V4), where V1 is the first preset extrusion speed, V2 is the second preset extrusion speed, V3 is the third preset extrusion speed, V4 is the fourth preset extrusion speed, and V1 < V2 < V3 < V4; There is a preset correction coefficient matrix c in advance. For the preset correction coefficient matrix c, set c(c1, c2, c3, c4), where c1 is the first preset correction coefficient, c2 is the second preset correction coefficient, c3 is the third preset correction coefficient, c4 is the fourth preset correction coefficient, and c1 < c2 < c3 < c4; Select the m-th preset correction coefficient cm according to the relationship between the extrusion speed V and each preset extrusion speed to modify the quality Z of the inner liner, where m = 1, 2, 3, 4: When V ≤ V1, select the first preset correction coefficient c1 to modify the quality Z of the inner liner, and the quality of the repaired inner liner is Z * c1; When V1 < V ≤ V2, select the second preset correction coefficient c2 to modify the quality Z of the inner liner, and the quality of the repaired inner liner is Z * c2; When V2 < V ≤ V3, select the third preset correction coefficient c3 to modify the quality Z of the inner liner, and the quality of the repaired inner liner is Z * c3; When V3 < V ≤ V4, select the fourth preset correction coefficient c4 to modify the quality Z of the inner liner, and the quality of the repaired inner liner is Z * c4.

5. The manufacturing method for adding film lamination to the inner lining according to claim 4, wherein, Perform secondary modification on the quality Z of the inner liner according to the fitting angle W of the composite roller machine; There is a preset fitting angle matrix W0 of the composite roller machine in advance. For the preset fitting angle matrix W0 of the composite roller machine, set W0(W1, W2, W3, W4), where W1 is the first preset fitting angle of the composite roller machine, W2 is the second preset fitting angle of the composite roller machine, W3 is the third preset fitting angle of the composite roller machine, W4 is the fourth preset fitting angle of the composite roller machine, and W1 < W2 < W3 < W4; There is also a preset secondary correction coefficient matrix d in advance. For the preset correction coefficient matrix d, set d(d1, d2, d3, d4), where d1 is the first preset secondary correction coefficient, d2 is the second preset secondary correction coefficient, d3 is the third preset secondary correction coefficient, d4 is the fourth preset secondary correction coefficient, and d1 < d2 < d3 < d4; After selecting the m-th preset correction coefficient cm to modify the quality Z of the inner liner, then select the n-th preset secondary correction coefficient dn according to the relationship between the fitting angle W of the composite roller machine and each preset fitting angle of the composite roller machine to perform secondary modification on the quality Z * cm of the inner liner, where n = 1, 2, 3, 4: When W ≤ W1, select the first preset secondary correction coefficient d1 to perform secondary modification on the quality Z * cm of the modified inner liner, and the quality of the modified inner liner is Z * cm * d1; When W1 < W ≤ W2, select the second preset secondary correction coefficient d2 to perform secondary correction on the mass Z*cm of the corrected inner liner, and the mass of the corrected inner liner is Z*cm*d2; When W2 < W ≤ W3, select the third preset secondary correction coefficient d3 to perform secondary correction on the mass Z*cm of the corrected inner liner, and the mass of the corrected inner liner is Z*cm*d3; When W3 < W ≤ W4, select the fourth preset secondary correction coefficient d4 to perform secondary correction on the mass Z*cm of the corrected inner liner, and the mass of the corrected inner liner is Z*cm*d4.

6. The manufacturing method for adding film lamination to the inner lining according to claim 5, wherein, Compensate the mass Z of the inner liner according to the hardness H of the sponge roller of the composite roller press; There is a preset hardness matrix H0 of the sponge roller of the composite roller press in advance. For the preset hardness matrix H0 of the sponge roller of the composite roller press, set H0(H1, H2, H3, H4), where H1 is the hardness of the sponge roller of the first preset composite roller press, H2 is the hardness of the sponge roller of the second preset composite roller press, H3 is the hardness of the sponge roller of the third preset composite roller press, H4 is the hardness of the sponge roller of the fourth preset composite roller press, and H1 < H2 < H3 < H4; There is also a preset compensation coefficient matrix g in advance. For the preset correction coefficient matrix g, set g(g1, g2, g3, g4), where g1 is the first preset compensation coefficient, g2 is the second preset compensation coefficient, g3 is the third preset compensation coefficient, g4 is the fourth preset compensation coefficient, and g1 < g2 < g3 < g4; After selecting the nth preset secondary correction coefficient dn to perform secondary correction on the mass Z*cm of the inner liner, then select the xth preset compensation coefficient gx according to the relationship between the hardness H of the sponge roller of the composite roller press and the hardness of the sponge rollers of each preset composite roller press to compensate the mass Z*cm*dn of the inner liner, where x = 1, 2, 3, 4: When H ≤ H1, select the first preset compensation coefficient g1 to compensate the mass Z*cm of the corrected inner liner, and the mass of the corrected inner liner is Z*cm*dn*g1; When H1 < H ≤ H2, select the second preset compensation coefficient g2 to compensate the mass Z*cm of the corrected inner liner, and the mass of the corrected inner liner is Z*cm*dn*g2; When H2 < H ≤ H3, select the third preset compensation coefficient g3 to compensate the mass Z*cm of the corrected inner liner, and the mass of the corrected inner liner is Z*cm*dn*g3; When H3 < H ≤ H4, select the fourth preset compensation coefficient g4 to compensate the mass Z*cm of the corrected inner liner, and the mass of the corrected inner liner is Z*cm*dn*g4.

7. The manufacturing method for adding film lamination to the inner lining according to claim 1, wherein, Both the inner liner and the cord fabric layer are irradiated.

8. The manufacturing method for adding film lamination to the inner lining according to claim 1, wherein, The cord fabric layer includes a nylon wrapper and a steel wire wrapper. The nylon wrapper is adhered to the steel wire wrapper, and the nylon wrapper is adhered to the film.

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