A construction method of vibrating flat roller circular roller compaction
A construction method and technology in the direction of circulation, applied in filling, infrastructure engineering, construction, etc., can solve the problems of large impact on the dam filling period, low qualification rate of one-time rolling ratio, and poor quality of rolling surface. , to achieve the effect of ensuring the overall construction period, good visual quality and high pass rate
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Embodiment 1
[0024] Such as figure 1 As shown, in this embodiment, a is 5.7m, K is 6, n is 3, g is 1, and s is 8. The rolling surface that will be rolled on site is marked with lime at intervals of a. After the line is finished, the rolling method is as follows:
[0025] 1# The starting point coordinates of vibrating flat rolling is (0, 0), rolling starts in the y-axis direction, the rolling base of vibrating flat rolling is 2, and the overlap width is 30cm; cycle in the x-axis direction, rolling to the edge of the construction area That is, after the position (18a, 0), turn back to the position of the starting point coordinates, continue rolling in the y-axis direction, and rolling until the starting point coordinates (6a, 0) of 2# vibrating flat rolling, the cycle route is 1.
[0026] 2# The starting point coordinates of vibrating flat rolling is (6a, 0), and rolling is started in the y-axis direction. The rolling base of vibrating flat rolling is 2, and the overlap width is 30cm, and rolling...
Embodiment 2
[0034] Such as figure 2 As shown, in this embodiment, a is 5.7m, K is 4, n is 4, g is 1, and s is 10; the rolling surface that will be rolled on site is marked with lime at intervals of a. After the line is finished, the rolling method is as follows:
[0035] 4# The starting point coordinates of vibrating flat rolling are (0, 0), starting rolling in the y-axis direction, the rolling base of vibrating flat rolling is 2, and the overlap width is 30cm; cycling in the x-axis direction, rolling to the edge of the construction area That is, after the position (18a, 0), turn back to the origin (0, 0), continue to cyclically roll in the y-axis direction, and roll to the starting point coordinate (4a, 0) of the 5# vibrating roll. The cycle route is 4.
[0036] 5# The coordinates of the starting point of the vibrating flat rolling are (4a, 0), and the rolling starts in the y-axis direction. The rolling base of the vibrating flat rolling is 2, and the overlap width is 30cm. The rolling to th...
Embodiment 3
[0046] Such as figure 1 As shown, in this embodiment, a is 5.7m, K is 6, n is 3, g is 2, and s is 10; the rolling surface that will be rolled on site is marked with lime at intervals of a. After the line is finished, the rolling method is as follows:
[0047] 8# The coordinates of the starting point of vibrating flat rolling are (0, 0), starting rolling in the y-axis direction, the rolling base of vibrating flat rolling is 2, and the overlap width is 30cm; cycling in the x-axis direction, rolling to the edge of the construction area That is, after the position (18a, 0), turn back to the position of the starting point coordinates, continue rolling in the y-axis direction, and rolling until the starting point coordinates (12a, 0) of 10# vibrating flat rolling, the cycle route is 8.
[0048] 9# The coordinates of the starting point of the vibrating flat rolling are (6a, 0), and the rolling starts in the y-axis direction. The rolling base of the vibrating flat rolling is 2, and the ove...
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