首页> 外国专利> METHOD FOR PADDING GROUND BELOW A DUST USING EXCAVATED SOIL, DEVICE FOR REALIZING THE SAME, EQUIPMENT FOR COMPACTING SOIL BELOW A DUST AND SOIL-COMPACTING MECHANISM

METHOD FOR PADDING GROUND BELOW A DUST USING EXCAVATED SOIL, DEVICE FOR REALIZING THE SAME, EQUIPMENT FOR COMPACTING SOIL BELOW A DUST AND SOIL-COMPACTING MECHANISM

机译:利用挖出的土壤在尘土下铺设土地的方法,实现其的装置,使尘土下的土壤压实的设备和土壤交换机制

摘要

1. A method of padding ground below a duct using excavated soil, including picking-up excavated soil (2), soil transporting in the direction from excavated soil dump (2) to trench (4) with duct (1), soil deposition in trench (4) from both sides of duct (1) up to filling with soil of, at least, space (5) below duct (1) and soil compacting, at least, in the space (5) below duct (1), soil compacting organs (104, 105) applying a force on the soil during continuous displacement over the soil surface along duct (1) of one or two vehicles (6) carrying soil feeding (13), transport (14) and soil compacting (104, 105) organs, characterised in that vehicle (6) carrying, at least, soil compacting organs (104, 105) is moved over soil surface of ground path (16) which is formed by means of soil feeding organ (13) during feeding of excavated soil (2) and a force is applied by soil compacting organs (104, 105) on soil previously deposited in trench (4). 2. A method according to claim 1 characterised in that one vehicle is used, which is made in the form of base frame (6) to which soil feeding (13), transport (14) and soil compacting (104, 105) organs are hung. 3. A method according to claim 1, characterised in that a part of excavated soil (2) is used for formation of above ground path (16). 4. A method according to claims 1 or 2, characterised in that in formation of ground path (16) its grading in the transverse direction is performed by skewing soil feeding organ ( 13) in a plane which is normal to its displacement direction. 5. A method according to claim 4, characterised in that transverse gradient of ground path (16) is set equal in value and opposite in direction to angle of skewing of vehicle (6) relative to surface of ground path (16) as a result of non-uniform subsidence of soil under its travelling unit (7). 6. A method according to claim 1, characterised in that part of soil from transport organ (14) is discharged on ground strip located between travelling unit (7) of vehicle (6) and trench (4). 7. A method according to claim 1, characterised in that the force is applied to the soil for its compacting in a cyclic manner; in this case in each cycle of compacting working elements (171) of soil compacting organs (104, 105) are moved in a plane which is normal to the displacement direction of vehicle (6), in the downward direction and towards each other, while between the compacting cycles working elements (171) are moved in the displacement direction of vehicle (6). 8. A method according to claim 7, characterised in that above working elements (171) in the above plane being rotated in the direction in which the angle (.beta.) which they define becomes smaller. 9. A method according to claim 7, characterised in that during movement of working elements (171) in the direction of displacement of vehicle (6) they are, at least, partially, withdrawn from the soil. 10. A method according to claim 9, characterised in that with the design force on working elements (171), their actual position is determined, which is compared with the appropriate design position, and proceeding from the comparison results, the level of filling trench (4) with soil is preserved, or increased or lowered. 11. A method according to claim 7 characterised in that the soil is deposited in trench (4) up to the level which is higher than the level required for padding ground below duct (1), while displacement of working elements (171) in the direction of displacement of vehicle (6) is performed with working elements (171) lowered into the soil. 12. A method according to claim 11, characterised in that with the design force on working elements (171), their actual position is determined, which is compared with their appropriate design position, and proceeding from comparison results, the level of lifting of working elements (171) is preserved, or increased or lowered. 13. A method according to claim 7, characterised in that soil compacting is performed at a constant maximal force on working elements (171) and specific compacting pitch. 14. A method according to claim 7 characterised in that the specific compacting pitch is increased when increasing the maximal force on the working elements (171), and vice versa. 15. A method according to claim 14, characterised in that the maximal force on working elements (171) is increased in the case of skewing of vehicle (6) carrying equipment (10) for compacting soil below duct (1) in the direction of trench (4) and vice versa. 16. A device for padding ground below a duct using excavated soil, including, at least, one vehicle (6) with travelling unit (7) for displacement over the ground surface, which carries equipment (9) for filling trench (4) with duct (1) with excavated soil (2), including soil feeding (13) and transport (14) organs and device (12, 64) for lifting-lowering soil feeding organ (13) relative to vehicle (6), and equipment (10) for soil compacting below duct (1) including soil compacting mechanism (103) with drive soil compacting organs (104, 105) and device (106) for hanging soil compacting mechanism (103) by means of which it is hung to vehicle (6) with the capability of forced displacement and rigid fastening relative to it in a plane normal to the direction of its displacement, characterised in that soil feeding organ (13) is located from end face of travelling unit (6) and is wider, than the latter, device (106) for hanging soil compacting mechanism (103) is fitted with disconnection mechanism (153) for cyclic displacement of soil compacting organs (104, 105) relative to vehicle (6) in its displacement direction, soil compacting organs (104, 105) being made of rammer-type and located behind the zone of soil discharging from transport organ ( 14) in the displacement direction of vehicle (6). 17. A device according to claim 16, characterised in that equipment (9) for filling trench (4) with duct (1) with excavated soil (2), is fitted with device (70) for forced rotation of soil feeding organ (13) relative to vehicle (6) in a plane which is normal to the direction of displacement of the latter. 18. A device according to claim 16, characterised in that equipment (9) for filling trench (4) with duct (1) with excavated soil (2) is made, at least, with two outlets (78) for soil, the distance between which in the horizontal direction normal to the displacement direction of vehicle (6) is larger than diameter of duct (1). 19. A device according to claim 16, characterised in that device (106) for hanging soil compacting mechanism (103) to vehicle (6), includes connected to each other mechanisms for forced lifting-lowering (108), transverse displacement (109) and rotation (110) of soil compacting mechanism (103). 20. A device according to claim 16, characterised in that soil feeding (13), transport (14) and soil compacting (104, 105) organs are hung to one vehicle (6) made in the form of base frame (6). 21. Equipment for soil compacting below a duct, including soil compacting mechanism (103) and device (106) for hanging soil compacting mechanism (103) to vehicle (6), including integrated mechanism (107) for forced displacement and rigid fastening of soil compacting mechanism (103) relative to vehicle (6) in a plane normal to its displacement direction, characterised in that it is fitted with disconnection mechanism (153) for cyclic displacement of soil compacting organs (104, 105) relative to vehicle (6) in its displacement direction, which includes a kinematic joint which is connected into a sequence of kinematic elements of the above integrated mechanism (107) and has some degree of mobility in a plane parallel to the displacement direction of vehicle (6). 22. Equipment according to claim 21, characterised in that the above integrated mechanism (107) includes connected to each other mechanisms for forced lifting-lowering (108), transverse displacement (109) and rotation (110) of soil compacting mechanism (103). 23. Equipment according to claims 21 or 22, characterised in that the above kinematic joint (154) of disconnection mechanism (153) is made in the form of hinge (154) with axis of rotation located in a plane normal to the displacement direction of vehicle (6). 24. Equipment according to claim 23, characterised in that the above axis of rotation is located horizontally. 25. Equipment according to claim 21, characterised in that disconnection mechanism (153) is fitted with, at least, one elastic element (157) connected to rigid elements (140, 155) which are connected to each other by above hinge (154) and form a kinematic pair. 26. Equipment according to claim 21, characterised in that disconnection mechanism (153) is fitted with power drive (200) of longitudinal feed connected to rigid elements (197, 149) which are connected to each other by above hinge (199) and form a kinematic pair. 27. Equipment according to claim 21, characterised in that integrated mechanism (107) is made in the form of lifting boom (111) which with its root (112) by means of first hinge (113) and power drive of lifting-lowering (135) is connected to mounted on frame (8) of vehicle (6) support (114), and arm (138) which with its first end (139) by means of kinematic joint which includes second hinge (141) and power drive of transverse displacement (142), is connected to head part (140) of lifting boom (111), and by its second end (147) by means of third hinge (148) and power drive of rotation (150) is connected to soil compacting mechanism (103), in this case above kinematic pair of disconnection mechanism (153) includes boom head part (140) and shackle (155) which is connected to first end (139) of arm (138) by means of above second hinge (141). 28. Soil compacting mechanism including base (149), which carries drive soil compacting organs (104, 105), each of which includes connecting rod (170) with working elements (171) at its lower end, lower lever (172) which by first hinge (173) is connected to connecting rod (170), and
机译:1.一种利用挖出的土壤在管道下方进行地面填充的方法,包括拾取挖出的土壤(2),利用管道(1)从挖出的土壤排泄物(2)到沟槽(4)的方向运输土壤,从管道(1)的两侧挖沟(4),直到至少在管道(1)下方的空间(5)中填充土壤,并至少在管道(1)下方的空间(5)中压实土壤,土壤压实器官(104、105)在沿输送土壤(13),运输工具(14)和土壤压实(104)的一两个车辆(6)的管道(1)沿管道(1)连续移位在土壤表面上时,在土壤上施加力,105)器官,其特征在于,至少携带土壤压实器官(104、105)的车辆(6)在进食期间由土壤进给器官(13)形成的地面路径(16)的土壤表面上移动挖掘的土壤(2)的一部分,然后由土壤压实器官(104、105)在先前沉积在沟槽(4)中的土壤上施加力。 2.根据权利要求1所述的方法,其特征在于,使用一种车辆,所述车辆以底架(6)的形式制成,土壤进给(13),运输(14)和土壤压实(104、105)器官被安装到该底架上。挂。 3.根据权利要求1或2所述的方法,其特征在于,一部分挖出的土壤(2)用于形成地上路径(16)。 4.根据权利要求1或2所述的方法,其特征在于,在形成地面路径(16)时,通过在垂直于其位移方向的平面上倾斜土壤进料器官(13)来执行其在横向方向上的分级。 5.根据权利要求4所述的方法,其特征在于,结果,将地面路径(16)的横向梯度设定为相等的值,并且在方向上与车辆(6)相对于地面路径(16)的偏斜角相反。行进单元(7)下土壤的非均匀沉降6.根据权利要求1所述的方法,其特征在于,来自运输机构(14)的部分土壤被排放到位于车辆(6)的行驶单元(7)和沟槽(4)之间的地带上。 7.根据权利要求1至6中任一项所述的方法,其特征在于,以循环的方式将力施加到土壤上以进行压实。在这种情况下,在每个循环中,土壤压实器官(104、105)的压实工作元件(171)在垂直于车辆(6)位移方向的平面中向下和彼此相对移动,而在压实循环之间,工作元件(171)沿车辆(6)的位移方向移动。 8.根据权利要求7所述的方法,其特征在于,在所述上平面中的所述上工作元件(171)沿其限定的角度(β)变小的方向旋转。 9.根据权利要求7所述的方法,其特征在于,在工作元件(171)沿车辆(6)的移动方向运动期间,它们至少部分地从土壤中撤出。 10.根据权利要求9所述的方法,其特征在于,利用作用在工作元件(171)上的设计力,确定它们的实际位置,并将其与适当的设计位置进行比较,并从比较结果出发,填充沟槽的高度(4)用土壤保存,增高或降低。 11.根据权利要求7所述的方法,其特征在于,土壤被沉积在沟槽(4)中,直到土壤的水平高于在管道(1)下方填充土地所需的水平,同时工作元件(171)在土壤中移位。车辆(6)的位移方向是通过将工作元件(171)放到土壤中来完成的。 12.根据权利要求11所述的方法,其特征在于,利用作用在工作元件(171)上的设计力,确定它们的实际位置,并将其与适当的设计位置进行比较,并根据比较结果得出工作的提升程度。元素(171)被保留,增加或降低。 13.根据权利要求7所述的方法,其特征在于,以恒定的最大力作用在工作元件(171)上并且以特定的压实间距进行土壤压实。 14.根据权利要求7所述的方法,其特征在于,当增加作用在所述工作元件(171)上的最大力时,所述特定的压实间距增加,反之亦然。 15.根据权利要求14所述的方法,其特征在于,在车辆(6)承载设备(10)的偏斜的情况下,作用在工作元件(171)上的最大力增大,以将管道(1)下方的土壤压实在方向上。沟槽(4),反之亦然。 16.一种用于利用挖出的土壤在管道下方填充地面的装置,包括至少一台具有行进单元(7)的车辆(6),所述行进单元(7)可在地面上方移动,该车辆携带用于填充沟槽(4)的设备(9)。带有挖出的土壤(2)的导管(1),包括土壤进料(13)和运输工具(14),以及相对于车辆(6)提升土壤进料器官(13)的装置(12、64)以及用于在管道(1)下方压实土壤的设备(10),包括具有驱动土壤压实器官(104、105)的土壤压实机构(103)和用于悬挂土壤压实机构(103)的装置(106)。悬挂在车辆(6)上,并具有在垂直于其移动方向的平面内相对于车辆进行强制位移和刚性固定的能力,其特征在于,土壤进料器官(13)位于行驶单元(6)的端面和相比于后者,该悬挂装置更宽,用于悬挂土壤压实机构(103)的装置(106)装配有断开机构(153),用于使土壤压实机构(104、105)相对于车辆(6)沿其位移方向循环位移,土壤夯实器(104、105)是夯锤式的,并且在车辆(6)的移动方向上位于从运输机构(14)排出的土壤的区域的后面。 17.根据权利要求16所述的设备,其特征在于,用于用管道(1)向沟槽(4)填充挖掘的土壤(2)的设备(9)装有用于强制旋转土壤进料器官(13)的设备(70)。 )相对于车辆(6)在垂直于车辆位移方向的平面上。 18.根据权利要求16所述的设备,其特征在于,至少用两个用于土壤的出口(78)来制造用于用管道(1)向沟槽(4)填充挖掘的土壤(2)的设备(9)。它们之间的垂直于车辆(6)的位移方向的水平方向上的直径大于管道(1)的直径。 19.根据权利要求16所述的设备,其特征在于,用于将土壤压实机构(103)悬挂在车辆(6)上的设备(106)包括彼此连接的用于强制升降(108),横向位移(109)的机构。压实机构(103)的旋转(110)。 20.根据权利要求16所述的设备,其特征在于,土壤进料(13),运输(14)和土壤压实(104、105)器官被悬挂在以底架(6)形式制成的一个车辆(6)上。 21.一种用于在管道下方压实土壤的设备,包括土壤压实机构(103)和用于将土壤压实机构(103)悬挂在车辆(6)上的装置(106),包括用于强制移位和牢固固定土壤的集成机构(107)。压实机构(103)在垂直于其位移方向的平面上相对于车辆(6)的特征在于,其配备有断开机构(153),用于使土壤压实器官(104、105)相对于车辆(6)循环移位在其位移方向上包括运动学关节,该运动学关节连接到上述集成机构(107)的一系列运动学元件中,并且在平行于车辆(6)的运动方向的平面上具有一定程度的运动性。 22.根据权利要求21所述的设备,其特征在于,上述集成机构(107)包括彼此连接的机构,以用于土壤压实机构(103)的强制升降(108),横向位移(109)和旋转(110)。 。 23.根据权利要求21或22所述的设备,其特征在于,所述断开机构(153)的运动学接头(154)以铰链(154)的形式制成,其旋转轴线位于垂直于所述机器人的位移方向的平面中。车辆(6)。 24.根据权利要求23所述的设备,其特征在于,所述旋转轴线水平放置。 25.根据权利要求21所述的设备,其特征在于,所述断开机构(153)装配有至少一个与刚性元件(140、155)连接的弹性元件(157),所述刚性元件通过上方的铰链(154)彼此连接。并形成运动对。 26.根据权利要求21所述的设备,其特征在于,所述断开机构(153)装配有纵向进给的动力驱动器(200),所述动力进给器连接至刚性元件(197、149),所述刚性元件通过上方铰链(199)彼此连接并形成运动对。 27.根据权利要求21所述的设备,其特征在于,所述集成机构(107)制成为起重臂(111)的形式,所述起重臂(111)的根部(112)通过第一铰链(113)和起重(23)的动力驱动。 135)连接到安装在车辆(6)的框架(8)上的支架(114)和臂(138),臂(138)的第一端(139)通过运动接头,包括第二铰链(141)和动力驱动装置横向位移(142)连接到起重臂(111)的头部(140),并通过其第二端(147)借助第三铰链(148)和旋转动力驱动(150)连接到土壤压实在这种情况下,一对运动分离机构(153)包括动臂头部分(140)和卸扣(155),该卸扣通过第二铰链(上方)连接到臂(138)的第一端(139)。 141)。 28.土壤压实机构,包括基座(149),该基座承载驱动土壤压实机构(104、105),每个杆包括在其下端具有工作元件(171)的连杆(170),通过第一铰链(173)与连杆(170)连接的下杆(172),以及

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