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    • 3. 发明申请
    • ARTICULATED ARM TYPE OF INDUSTRIAL ROBOT
    • 工业机器人的ARM型
    • WO1984004269A1
    • 1984-11-08
    • PCT/JP1984000218
    • 1984-04-27
    • FANUC LTDNAKASHIMA, SeiichiroTOYODA, KenichiTORII, NobutoshiNIHEI, Ryo
    • FANUC LTD
    • B25J09/00
    • B25J17/0258B25J9/1045Y10T74/18832
    • An articulated arm type of industrial robot has a movable robot body (11) provided on a base (10). The near end portion of an upper arm (13) provided with both a near end portion and a far end portion is pivotally attached to the robot body (11). A forearm (16) provided with a rear end portion and a front end portion is pivotally attached by a point between its rear and front end portions to the far end portion of the upper arm (13). A wrist device (20) is provided with two movable elements (21, 22) which can move with respect to the front end portion of the forearm (16) around, preferably, different axes. The movable elements (21, 22) of the wrist device (20) are rotated around their axes by wrist drive devices (27, 28), respectively. The wrist drive devices (27, 28) are provided with first sprocket wheels (29, 36), respectively, which are rotatably arranged within the rear end portion of the forearm (16). Drive motors (31, 37) for rotating the first sprocket wheels (29, 36), respectively, are provided in the rear end portion of the forearm (16). Second sprocket wheels (33, 39) which are linked to the movable elements (21, 22), respectively, of the wrist device (20) are arranged within the front end portion of the forearm (16). The rotations of the first sprocket wheels (29, 36) are transmitted to the corresponding second sprocket wheels (33, 39) by wound connectors (34, 45), respectively. The wound connectors (34, 45) are constituted by endless assemblies composed of chains (46, 47) and rods (48, 49).
    • 5. 发明申请
    • ARTICULATED ARM TYPE OF INDUSTRIAL ROBOT
    • 铰接臂式工业机器人
    • WO1984001537A1
    • 1984-04-26
    • PCT/JP1983000366
    • 1983-10-19
    • FANUC LTDNAKASHIMA, SeiichiroINAGAKI, ShigemiITO, Susumu
    • FANUC LTD
    • B25J09/00
    • B25J9/046B25J9/1025B25J17/0283B25J19/002
    • An articulated arm type of industrial robot is provided with a wrist-operating mechanism comprising: a robot forearm (20) rotatably attached to the upper end of a robot upper arm (16) which is rotatably attached to a rotary or horizontally movable robot body (10) of an industrial robot; a wrist unit (30) attached to the free end of the robot forearm (20); three rotary shafts, i.e., an outer shaft (52), an intermediate shaft (54) and an inner shaft (56), which are coaxially arranged within the robot forearm; an outer wrist unit (34) connected to the end of the outer shaft (52) and which is adapted to rotate therewith at a reduced speed; and a hand retainer (38) connected to the intermediate shaft (54) by at least a pair of a bevel gear mechanism (80) and a reduction gear (84) within the outer wrist unit and which is adapted to be rotatable about an axis of rotation substantially the same as the axis of rotation of the outer wrist unit.
    • 关节臂为设置有手腕致动机构,包括工业机器人:机器人前臂(20)可旋转地固定到机器人用上臂(16)的上端部可旋转地附连到 旋转或水平移动的工业机器人本体(10); 附连到机器人前臂20的自由端的腕部单元30; 三个可旋转的轴,即同轴设置在机器人的前臂内的外轴(52),中间轴(54)和内轴(56) 连接到外臂(52)和可与其一起旋转以减小的速度的结尾手腕(34)的室外单元; 通过至少一个伞齿轮机构(80)和外腕部单元内的减速齿轮(84)连接到中间轴(54)的手持部件(38),以及 可绕与外腕部单元的旋转轴线大致相同的旋转轴线旋转。
    • 7. 发明申请
    • WELDING METHOD IN AUTOMATIC WELDER
    • 焊接自动焊接方法
    • WO1984001732A1
    • 1984-05-10
    • PCT/JP1983000384
    • 1983-10-27
    • FANUC LTDNAKASHIMA, SeiichiroTORII, Nobutoshi
    • FANUC LTD
    • B23K09/12
    • B23K9/125B23K9/0956B23K9/10B23K9/1037
    • A welding method is employed for an automatic welder, wherein a voltage is applied between a wire (WR) which is moved along a weld path (P0$(1,5)$P1$(1,5)$P2$(1,5)$P3) by a robot, and a welding workpiece (WK), so that an arc is generated from the wire end, and while the wire is successively supplied, the wire end is moved along the weld path by the robot, thereby providing the weld. A multiplicity of welding conditions, including welding voltage, wire feed rate, pre-flow time, crater-treatment time, and post-flow time, are previously stored in a memory, and predetermined welding conditions are selected according to a program. At the welding start point (P1), gas is blown onto the workpiece (WK) during a pre-flow time which is one of the welding conditions selected according to the program. Thereafter, the selected welding voltage is generated, and the wire (WR) is supplied at the selected wire feed rate to start the welding. At the welding end point (P2), a predetermined welding voltage is generated only during the crater-treatment time which is one of the welding conditions selected according to the program. Thereafter, gas is blown on the workpiece (WK) during the post-flow time to effect post-flow processing.