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    • 43. 发明授权
    • Screw and its combination with a conical sealing disk
    • 螺丝及其与锥形密封盘的组合
    • US08029223B2
    • 2011-10-04
    • US12301322
    • 2007-08-28
    • Roland Mair
    • Roland Mair
    • F16B43/02
    • F16B43/001F16B33/004F16B35/06
    • A screw (60) is provided, having a shaft (32) and a head (66), for fastening a component onto a substructure utilizing a tightly pressing conical sealing disk (50) against the component. The screw head (66) is configured at the bottom (64) thereof around the shaft (32) as a cone that is tapered in the direction of the top (68) of the screw head (66). The cone angle of the conical sealing disk (50) measured against a perpendicular line to the disk axis is equal to, or larger than the cone angle (alpha) of the screw head (66), which is measured against a perpendicular line to the screw axis. When the screw (60) is tightened, the conical bottom (64) of the screw head (66) and the conical top (58) of the sealing disk (50) are in mutual surface contact with each other. This maintains a sealing connection. Through the conical configuration of the bottom (64) of the screw head (66) the so-called “cupping” of the sealing disk (50) is prevented when the screw (60) is tightened.
    • 提供了一种螺钉(60),其具有轴(32)和头部(66),用于使用紧紧压紧的锥形密封盘(50)将部件紧固到子结构上。 螺杆头(66)在其底部(64)处围绕轴(32)构造为锥形,其在螺钉头(66)的顶部(68)的方向上是锥形的。 锥形密封盘(50)相对于与盘轴线垂直的线测得的锥角等于或大于螺钉头(66)的锥角(α),该角度(α)相对于 螺丝轴。 当螺钉(60)被拧紧时,螺钉头部(66)的锥形底部(64)和密封盘(50)的锥形顶部(58)彼此相互表面接触。 这保持密封连接。 通过螺钉头(66)的底部(64)的圆锥形构造,当螺钉(60)被紧固时,防止密封盘(50)的所谓“拔罐”。
    • 44. 发明授权
    • Method for determining the application point of an automatically controlled friction clutch
    • 用于确定自动控制的摩擦离合器的应用点的方法
    • US07850570B2
    • 2010-12-14
    • US11914030
    • 2006-05-05
    • Thomas JägerRoland Mair
    • Thomas JägerRoland Mair
    • B60W10/10
    • F16D48/06B60W2510/102F16D2500/30818F16D2500/5026F16D2500/50272F16D2500/70414Y10T477/6403Y10T477/6414Y10T477/753
    • A method of determining an application point of an automatically actuated clutch of an automatic mechanical transmission. After pre-selecting a new gear, the clutch automatically separates, the activated gear disengages, the engine rotational speed is brought to a target value for the new gear and the clutch, with higher advancing speed, is advanced to an application point at which the transmission input shaft is precisely entrained. To determine the application point, the gradient of the time curve of the rotational speed of the transmission input shaft is monitored, an important change of the gradient, that adjusts itself when reaching the application point, is determined and the current position of the clutch is defined as the application point. The application point is determined during downshifts, the time rotational speed curve of the transmission input shaft is between slowdown and re-acceleration, which is easily and accurately determined.
    • 一种确定自动机械变速器的自动致动离合器的施加点的方法。 在预先选择新的齿轮之后,离合器自动分离,起动齿轮脱开,发动机转速达到新齿轮和离合器的目标值,具有较高的前进速度,提前到一个应用点, 传动输入轴精确夹带。 为了确定应用点,监测变速器输入轴的转速的时间曲线的梯度,确定到达应用点时调整自身的梯度的重要变化,离合器的当前位置为 定义为应用点。 降档期间确定应用点,变速箱输入轴的时间转速曲线在减速和再加速之间,这是容易而准确的确定的。
    • 45. 发明申请
    • SELF-BORING SCREW
    • 自攻螺丝
    • US20100266365A1
    • 2010-10-21
    • US12740177
    • 2009-02-20
    • Roland Mair
    • Roland Mair
    • F16B25/10
    • F16B25/103F16B13/003F16B25/0031F16B25/0084F16B25/0089
    • A self-boring screw (2) having a boring section (6) attached to the free end of the screw shaft (4), two vanes (12) radially protruding from the boring section, the edges of the vanes facing toward the boring tip (8) of the boring section (6) being configured as boring blades (13). The boring section (6) includes a chip discharge zone (14) that is configured such that the edges of the vanes (12) facing toward the boring tip (8) forms a cutting point (S) with a boring radius (16), the cutting point having a distance (A) to the screw shaft (4) that is at least ⅔ of the cutting edge length of the bore tip (8). The chip discharge zone (14) makes it possible that the chips produced by the boring blade (10) at the boring tip (8) can be discharged freely and without buildup. The material cut by the boring blade (10) is conveyed as chipped material away from the boring tip (8) in the direction of the cutting point (S) at a lower vane connection (15) as a result of the rotational motion of the screw (2), thus ensuring unhindered chip discharge. It is possible to compress the chips to be discharged to a maximum of ⅔ of the cross section occurring after the cut. This ensures that even critically sized chips are removed without blocking the discharge of chips from the area of the boring section (6).
    • 具有安装在螺杆轴(4)的自由端的钻孔部分(6)的自钻螺钉(2),从钻孔部分径向突出的两个叶片(12),叶片的边缘朝向钻尖 所述镗孔部分(6)的所述凸缘(8)被构造成镗刀(13)。 镗孔部分(6)包括排屑区(14),其被构造成使得叶片(12)的朝向钻头(8)的边缘形成具有镗孔半径(16)的切割点(S) 所述切割点与所述螺纹轴(4)的距离(A)至少为所述孔尖(8)的切削刃长度的⅔。 芯片排出区(14)使得可以在镗尖(8)处由镗刀(10)产生的碎屑自由排出而不会积聚。 通过镗刀(10)切割的材料作为切削材料沿切割点(S)的方向在下叶片连接(15)处沿着切削点(S)的方向作为切削材料被输送,作为旋转运动的结果 螺丝(2),从而确保不受阻的切屑放电。 可以将要放电的芯片压缩到切割后发生的截面的最大⅔。 这确保了即使是临界尺寸的芯片被去除而不阻挡芯片从钻孔部分(6)的区域排出。
    • 47. 发明申请
    • SCREW AND ITS COMBINATION WITH A CONICAL SEALING DISK
    • 螺丝及其与圆形密封盘的组合
    • US20100068004A1
    • 2010-03-18
    • US12301322
    • 2007-08-28
    • Roland Mair
    • Roland Mair
    • F16B43/02
    • F16B43/001F16B33/004F16B35/06
    • A screw (60) is provided, having a shaft (32) and a head (66), for fastening a component onto a substructure utilizing a tightly pressing conical sealing disk (50) against the component. The screw head (66) is configured at the bottom (64) thereof around the shaft (32) as a cone that is tapered in the direction of the top (68) of the screw head (66). The cone angle of the conical sealing disk (50) measured against a perpendicular line to the disk axis is equal to, or larger than the cone angle (alpha) of the screw head (66), which is measured against a perpendicular line to the screw axis. When the screw (60) is tightened, the conical bottom (64) of the screw head (66) and the conical top (58) of the sealing disk (50) are in mutual surface contact with each other. This maintains a sealing connection. Through the conical configuration of the bottom (64) of the screw head (66) the so-called “cupping” of the sealing disk (50) is prevented when the screw (60) is tightened.
    • 提供了一种螺钉(60),其具有轴(32)和头部(66),用于使用紧紧压紧的锥形密封盘(50)将部件紧固到子结构上。 螺杆头(66)在其底部(64)处围绕轴(32)构造为锥形,其在螺钉头(66)的顶部(68)的方向上是锥形的。 锥形密封盘(50)相对于与盘轴线垂直的线测得的锥角等于或大于螺钉头(66)的锥角(α),该角度(α)相对于 螺丝轴。 当螺钉(60)被拧紧时,螺钉头部(66)的锥形底部(64)和密封盘(50)的锥形顶部(58)彼此相互表面接触。 这保持密封连接。 通过螺钉头(66)的底部(64)的圆锥形构造,当螺钉(60)被紧固时,防止密封盘(50)的所谓“拔罐”。
    • 50. 发明授权
    • Method for controlling the starting of a motor vehicle
    • 用于控制机动车起动的方法
    • US08753250B2
    • 2014-06-17
    • US13642245
    • 2011-03-02
    • Roland Mair
    • Roland Mair
    • F16H59/74
    • B60W20/40B60W10/02B60W10/06B60W10/11B60W20/00B60W30/18027B60W30/1882B60W50/06B60W2710/0644B60W2710/0666B60Y2400/435F02D31/001F02D41/00F02D41/0007F02D41/0215F02D2250/21Y02T10/144Y10T477/656
    • A method for startup control of a motor vehicle whose drive train comprises a drive engine built as a turbo-charged internal combustion engine, an automated friction clutch, and an automatic stepped transmission, with a startup which is triggered by the activation of the gas pedal from the stationary state, after engagement of a determined startup gear. The driven engine, in conjunction with coordinated engagement of the friction clutch, is controlled from the idle speed to a startup speed and from the idle torque to a determined startup torque. To reduce the load on the friction clutch, the method provides that the lowest possible engine speed, which can be generated spontaneously under load from the idle speed depending on the dynamic operating characteristics of the drive engine and with which the drive engine can generate the determined startup torque, is determined and set as the startup speed.
    • 一种用于机动车辆的启动控制的方法,其传动系包括构成涡轮增压内燃机的驱动发动机,自动摩擦离合器和自动阶梯式变速器,其中启动由启动加速踏板 在静止状态下,在确定的启动装置的接合之后。 驱动发动机与摩擦离合器的协调接合结合,从怠速转速到启动速度以及从怠速转矩到确定的起动转矩。 为了减少摩擦离合器上的负载,该方法提供了最低可能的发动机速度,其可以根据驱动发动机的动态操作特性从空转速度在负载下自发产生,并且驱动发动机可以通过该速度产生确定的 启动转矩,确定并设置为启动速度。