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    • 1. 发明授权
    • Pneumatic tire with belt layer including a plurality of strip pieces and method of manufacturing the same
    • 具有带层的气动轮胎,包括多个带状件及其制造方法
    • US07857025B2
    • 2010-12-28
    • US10580520
    • 2004-12-22
    • Kazuyuki KabeTsuneo Morikawa
    • Kazuyuki KabeTsuneo Morikawa
    • B29D30/38B29D30/70B60C9/18
    • B29D30/1657B29D30/305B29D30/3057B29D30/70B60C9/2006Y10T152/10765Y10T152/10783
    • A pneumatic tire has two belt layers, each having a plurality of strip pieces formed by pulling together and rubberizing a plurality of steel cords. Strip piece width, strip piece thickness, belt layer cord angle with respect to a tire circumferential direction, numbers of the strip pieces of inner and outer belt layers, and circumferential lengths of the inner and outer belt layers are respectively denoted by A, G, θ, N1, N2, L1 and L2. N2 is equal to N1, and N1 is an integer satisfying L1=N1×A/sin θ. The inner belt layer is formed by joining the N1 strip pieces so each side of each strip piece is butted with one side of another strip piece. The outer belt layer is formed by aligning the N2 strip pieces on the inner belt layer in the tire circumferential direction with spaces of width 2πG/N2 disposed between adjacent strip pieces.
    • 充气轮胎具有两个带束层,每个带层具有通过将多根钢丝绳拉合在一起而进行橡胶化而形成的多个条带。 带状片宽度,带片厚度,带轮层帘线相对于轮胎周向的角度,内带束层和外带束层的带状片的数量以及内带束层和外带束层的周向长度分别由A,G, &thetas; N1,N2,L1和L2。 N2等于N1,N1是满足L1 = N1×A / sin& Thetas的整数。 内带层通过连接N1条带形成,因此每个带状片的每一侧与另一条带片的一侧对接。 通过将轮胎周向上的内带层上的N 2条带与在相邻条带之间设置的宽度为2&pgr; G / N的空间对准来形成外带束层。
    • 2. 发明申请
    • Pneumatic tire and method of manufacturing the same
    • 气动轮胎及其制造方法
    • US20070102090A1
    • 2007-05-10
    • US10580520
    • 2004-12-22
    • Kazuyuki KabeTsuneo Morikawa
    • Kazuyuki KabeTsuneo Morikawa
    • B60C9/18B29D30/08
    • B29D30/1657B29D30/305B29D30/3057B29D30/70B60C9/2006Y10T152/10765Y10T152/10783
    • Disclosed is a pneumatic tire in which formation of a belt layer is realized by using an integer number of strip pieces and without causing any overlap between the strip pieces, and a method of manufacturing the same. The method is a method of manufacturing a pneumatic tire provided with a belt layer composed of a plurality of strip pieces each of which is formed by pulling together and rubberizing a plurality of steel cords. In the method, when a width of the respective strip pieces, an applicable number of the strip pieces, a cord angle of the belt layer with respect to a circumferential direction of the tire, and a circumferential length of the belt layer are respectively denoted by A, N, θ, and L, an integer satisfying (N+1)×A/sin θ>L>N×A/sin θ is selected as the applicable number N, and the belt layer is formed by aligning the N strip pieces on a molding drum in the circumferential direction of the tire with equal spaces disposed between adjacent ones thereof.
    • 公开了一种充气轮胎及其制造方法,其中通过使用整数个带状件来实现带束层的形成,并且不引起条带之间的任何重叠。 该方法是一种制造充气轮胎的方法,该充气轮胎设置有由多个带状件组成的带束层,每个带状件通过将多根钢丝绳拉紧在一起并进行橡胶化而形成。 在该方法中,当各个带状片的宽度,带状片的适用数量,带束层相对于轮胎的周向的帘线角度和带束层的周向长度分别表示为 选择A,N,θ和L,满足(N + 1)×A / sin> L> N×A /sinθ的整数作为适用数量N,并且通过将N条带片对准 在轮胎的圆周方向上成型滚筒的间隔相等的空间。
    • 7. 发明授权
    • Pneumatic tire
    • 气动轮胎
    • US4469157A
    • 1984-09-04
    • US330824
    • 1981-12-15
    • Tsuneo MorikawaKazuyuki Kabe
    • Tsuneo MorikawaKazuyuki Kabe
    • B60C9/06B60C9/08B60C9/09B60C9/18B60C9/28B60C9/04B60C9/20
    • B60C9/28B60C9/06B60C9/08B60C9/09
    • A pneumatic radial tire is disclosed which comprises a tread, a carcass cord layer and at least two belt reinforcing layers disposed between the tread and the carcass cord layer, the reinforcing cord of one of the belt reinforcing layers having an angle of 15 to 30 degrees with respect to the tire circumferential direction and the reinforcing cord of the other of the belt reinforcing layers having an angle of 150 to 165 degrees with respect to the tire circumferential direction. The carcass cord layer consists of upper and lower two layers, and the angle .alpha..sub.2 of the reinforcing cord of the upper carcass cord layer with respect to the tire circumferential direction and the angle .alpha..sub.1 of the reinforcing cord of the lower carcass cord layer with respect to the tire circumferential direction satisfy the following relations:1/2(.alpha..sub.1 +.alpha..sub.2)=96.degree. to 108.degree.(.alpha..sub.2 -.alpha..sub.1)=10.degree. to 40.degree..
    • 公开了一种充气子午线轮胎,其包括胎面,胎体帘线层和设置在胎面和胎体帘布层之间的至少两个带束加强层,其中一个带束加强层的加强帘线具有15至30度的角度 相对于轮胎周向,另一方的带束加强层的加强帘线相对于轮胎周向具有150〜165度的角度。 胎体帘线层由上下两层组成,上胎体帘线层的加强帘线相对于轮胎周向的角度α2和下胎体帘线层的加强帘线的角度α1与 相对于轮胎周向满足以下关系:1/2(α1+α2)= 96°至108°(α2-α1)= 10°至40°。
    • 8. 发明授权
    • Method of designing rubber composite
    • 橡胶复合材料的设计方法
    • US07050952B2
    • 2006-05-23
    • US09973758
    • 2001-10-11
    • Kazuyuki KabeTsuneo Morikawa
    • Kazuyuki KabeTsuneo Morikawa
    • G06F17/10G06F7/60G06G7/48
    • G06F17/5095B60C3/00B60C19/00
    • Disclosed is a method of designing rubber composite executed as follows. A shape of the rubber composite, a shape of the each part (i) constituting the rubber composite and physical properties of a rubber material used for each part (i) are tentatively selected respectively. Thereafter, the rubber composite is divided into many finite elements, and strain in each element is calculated by the finite element method to obtain maximum principal strain (εi)max of the elements in each part (i). Then, the tentative selections of the shape of the rubber composite, the shape of each part (i) and the physical properties of the rubber material, and the calculations by the finite element method are repeated until an allowance ratio Sia calculated as a ratio of strain (εi)b at break to the maximum strain (εi)max becomes equal to a specified reference allowance ratio S0 or higher in all of the parts (i). The shape of the rubber composite, the shape of each part (i) and the physical properties of the rubber material are thus determined.
    • 公开了如下设计橡胶复合材料的方法。 暂时选择橡胶复合体的形状,构成橡胶复合体的各部分(i)的形状和用于各部分(i)的橡胶材料的物理性质。 此后,橡胶复合材料被分成许多有限元素,并且通过有限元法计算每个元件中的应变以获得最大主应变(εmax) 每个部分(i)中的元素。 然后,重复橡胶复合材料的形状,各部分(i)的形状和橡胶材料的物理特性以及有限元法的计算的暂时选择,直到容许率S < / SUB>以断裂处的应变(εεεi B B)与最大应变(εmax)的比值计算, / SUB>在所有部分(i)中变得等于指定的基准容限比S 0> 0或更高。 因此确定了橡胶复合材料的形状,每个部分(i)的形状和橡胶材料的物理性能。