KR101620976B1

KR101620976B1 - Floating crane fork rotation is available for drill core bond

Info

Publication number: KR101620976B1
Application number: KR1020160003354A
Authority: KR
Inventors: 김여철
Original assignee: 김선주
Priority date: 2016-01-11
Filing date: 2016-01-11
Publication date: 2016-05-17

Abstract

The present invention relates to a core drill to be combined with an excavator, capable of floating rotation, and more specifically, to a core drill device combined with an excavator proper to punch bedrock for the construction of an offshore structure especially such as a light beacon facility offshore or on the land, bridge, and dolphin facility. The core drill is proper to precisely punch bedrock with a diamond drill blade on the front end, and can easily control the punching depth with a fastening rod unit with different lengths in accordance with the depth of bedrock offshore, without needing an elevating/lowering device using a separate cylinder and a chain. It is easy to control the punching depth by replacing only the fastening rod unit. The core drill conveys the oil pressure to a drill core device fluidly through an oil pressure input hole with different usages. The core drill punches a hole at a standard rotation speed on general bedrock, precisely punches a hole on soft bedrock by rotating at a low speed and preventing slime from being discharged, and rapidly punches a hole on hard bedrock by rotating at a high speed. The core drill has efficiency and stability, and prevents environmental pollution by preventing offshore slime from leaking. The core drill effectively reduces frictional heat by wet water spray from a triple water spray tip on the land to simultaneously increase durability of the equipment and work efficiency. The angle of the excavator is controlled forward and backward with a rotating plate. The core drill can make a floating rotation where the punching and rotating speed changes in accordance with the depth or material of the bedrock.

Description

BACKGROUND OF THE INVENTION 1. Field of the Invention [0001] The present invention relates to a core drill for a fork-

Field of the Invention [0001] The present invention relates to a core drill for joining a crane capable of rotating in a fluidized manner, and more particularly to a core drill for joining a crane for a crane for joining a marine structure such as a marine structure, The core drilling device is suitable for drilling the core drill, and it is possible to tighten the fastening rod portions having different lengths according to the depth of the rock bed, thereby facilitating the depth adjustment and transferring the hydraulic pressure fluidly through the hydraulic inlet for different purposes to the flow rotating portion and the core drill portion, In the ground, it is drilled at the standard rotation speed. In the rocky ground, it rotates at a low speed. In the rocky ground, the rock is punctured by high speed rotation. The present invention relates to a core drilling apparatus for joining a crankshaft.

Generally, in the sea, a work is carried out by installing a casing together with a hypothetical jacket made of a steel pipe at the time of drilling the rock layer. Particularly, excavation of rock layers from the land causes severe vibration and noise. Therefore, cracks are generated in the buildings around the work site during drilling in the urban area, and the work is frequently interrupted due to noise complaints And the construction of the above method is gradually diminishing in the domestic including the advanced countries.

As a method for solving the above problems, a dry core drill to prevent dust scattering and a cylindrical cutter blade punching apparatus with excellent working efficiency have been used and are used. Although this is faster than the above-described conventional methods, And it is not easy to fasten to a moving means such as a crane and the rotating speed is fixed and the rotating blade may be damaged or overload due to frictional heat may be applied to the core drilling device.

In addition, in the rocky ground of the sea, if the rotation speed is increased and the bit portion is provided at the end to hit the drilling operation speed, the drilling operation speed is considerably quick. However, the rock core in the shape of a cylinder is broken into a plurality of pieces, It takes a long time to work and the work productivity is deteriorated when the operation of removing the rock core which is deeply broken is taken into consideration.

In contrast, the depth and type of the rock bed are different from those of the rocky soils on the oceanic soft rock soils. In the case of bit strikes using the hammer in the soft rock soils, There is a problem in that the operation is delayed if there is an environmental pollution problem in which floating matter occurs on the sea surface and if there is enough water to be able to form slime in the sea bed layer.

Recently, as disclosed in Japanese Patent Application Laid-Open Nos. 10-2011-0084651 l and 10-1508740, a core tube is composed of a cylinder type or a chain, and a device for raising and lowering the core tube and a drill for a core barrel operation As shown in the prior art below.

Korean Patent Publication No. 10-2011-0084651 Korean Patent No. 10-1508740

SUMMARY OF THE INVENTION It is an object of the present invention to provide a marine structure, particularly maritime or landmark facilities, marine structures such as bridges and marine dolphin facilities, A core drilling apparatus suitable for perforating a rock in a construction site, the punching apparatus of the present invention can be fastened to a crane to improve mobility and compatibility, and can be used by being fastened to a small-sized crane. It is possible to work without receiving, and the angle adjusted to the left and right makes the drilling work easy by the mechanical characteristic of the fastening part. In the case of the hard rocky ground in the sea, the rotation speed is increased to speed up the drilling, Discharge is reduced, and thus stability from fine particle floats having vis- Can be easily adjusted by fastening the connecting rod part having different lengths according to the depth of the rock layer and it is possible to easily control the drilling depth, and the slime generated from the marine pollution can float, The present invention provides a core drill for joining a crankshaft, which can reduce the problem and perform a rotating rotation in which the perforation speed varies depending on the rock environment.

In order to accomplish this object, a flow rotatable core drill 10 for joining a crane according to the present invention comprises:

A floating rotary core drill (10) for excavating a rock in sea or on land,

The flow rotating core drill (10)

A fastening part 100, a flow rotating part 200, a fastening rod part 300, and a core drill part 400,

The fastening portion has a bracket 110, a bracket connecting rod 120, and a rotation movable plate 130,

The flow rotation unit 200 includes a low speed hydraulic input port 210, a medium speed hydraulic input port 213, a high speed hydraulic input port 218, a water inlet port 220, a fixed support 230, a water injection pipe 240, Housing 250, joint packing 260, oil inlet 270, and oil outlet 280,

The fastening rod portion 300 has a fastening hexagon 310, a rotary rod 320, a fastening female thread tab 330, and a fastening hole 340,

The core drill 400 includes a fastening male thread tab 420, a water injection hole 430, a three-way water injection tip 440, a diamond core drill body 450, a diamond drill bit 460, (470) and a drill fixing pin (480)

The coupling unit 100 is connected to the lower portion of the fork shaft connecting terminal A by a bracket 110 and a bracket connecting rod 120 detachably coupled to the fork shaft connecting terminal A, ,

The low speed oil pressure input port 210, the medium speed oil pressure input port 213 and the high speed oil pressure input port 218 of the flow rotating part 200 are connected to a hydraulic pump provided in the crane and a plurality of hoses connected to the hydraulic tank, And the water inlet pipe 220 is connected to the water inlet port 220 and connected to the water inlet port 220 inside the housing 250. The water inlet pipe 220 is connected to the water inlet port 220, It is located in a "

The fastening rod portion 300 is coupled to the flow rotating portion 200 through a hexagon 310 for fastening and is watertightly coupled to the joint packing 260. The fastening female screw tab 330 is inserted into the core drill 400 And is additionally fixed to the drill part fixing pin 480,

The core drill part 400 is rotated and fastened with the fastening female screw tab 330 of the fastening rod part 300 by the fastening male screw tab 420,

The coupling part 100 is hose-connected to the hydraulic pump and the hydraulic tank so that the rotation of the coupling part 100 is facilitated by the rotation plate 130,

The flow rotary part 200 is hose connected to a hydraulic pump, a hydraulic tank, and a water tank to supply power to the flow rotating part 200 and the clamping rod part 300,

The clamping rod part 300 transmits the rotational power of the flow rotating part 200 to the core drill part 400,

The core drill 400 rotates rotationally according to the excavation conditions and drills the rock with the diamond drill blade 460.

The fastening part 100 is easy to be fastened to a fork bracket by a bracket 110 and is constituted by a rotation moving plate 130 and is rotatable in a right and left direction.

The flow rotation unit 200 operates by supplying oil pressure to the low speed oil pressure input port 210 and the medium speed oil pressure input port 213 at a medium speed operation and operates only at the low speed oil pressure input port 210 at low speed operation And at the time of high-speed operation, the hydraulic pressure is supplied to the low-speed hydraulic input port 210, the medium-speed hydraulic input port 213, and the high-speed hydraulic input port 218 to operate.

The flow rotary part 200 has a function of increasing the depth of the piercing environment through the hydraulic pressure supplied to the low speed oil pressure input port 210, the medium speed hydraulic pressure input port 213 and the high speed oil pressure input port 218, Depending on the type, the speed of rotation is controlled in a fluid manner during drilling.

The upper part of the clamping rod part 300 is vertically coupled to the flow rotating part 200 and the lower part is connected to the core drill part 400 and can be replaced corresponding to the depth of the piercing environment.

The core drill unit 400 is fastened to the fastening male tabs along the thread with the fastening female thread tabs 330 of the upper flow rotary unit 200 and the drill unit fastening pins 480 are fastened to the flow rotary unit 200. [ And is further fixed by being fitted into the pin fixing hole 340 of the pin fixing hole 340.

The slime ejection blocking plate 470 protects the three-directional water jet tip 440 from the protruding rock when drilling and blocks the slime from flowing into the core drill 400.

The three-way water jetting tip 440 penetrates between the slime discharge blocking plates 470 in the core drill 400 and is positioned at three ends in a tip shape, And a water jet opening 430 through which water is discharged to remove the frictional heat wet.

As described above, the technical idea of the present invention is that the core drill 10 for the crankshaft coupling capable of rotating within the range of the solution does not deviate from the solution, the inclination of the rock to be drilled at the time of drilling, the material and strength of the rock, The length of the core drill unit 320, and the diameter of the core drill unit 400, and the like.

According to the present invention, there is provided a core drilling apparatus suitable for precisely perforating a rock with a diamond drill blade at a tip end thereof. The core drilling apparatus has a drilling depth It is easy to adjust, so it is not necessary to use a separate cylinder and chain for lifting and lowering. It is easy to adjust the drilling depth by replacing only the connecting rod part having different length. Hydraulic pressure is transmitted to the drill core device by fluid pressure through the inlet of the drill, so that it is drilled at the standard rotation speed in the ground. In the soft rock ground, it is rotated at a low speed and turbulent flow is formed. Diamond drill blades are precisely pierced without shaking. In hard rock, It is possible to control the piercing speed according to the depth or type of rock, and it has environmental protection to prevent the leakage of slime from the sea due to the stability and stability by adjusting the efficiency and the rotation speed desired by the driver. The present invention relates to a core drilling apparatus for joining a crankshaft, which is capable of rotating at a high speed while effectively raising the durability of the equipment by simultaneously reducing the frictional heat by the wet water injection from the triple water injection tip.

1 is an assembled perspective view showing a state in which a rotating core drilling apparatus for cranking is coupled to a crane according to an embodiment of the present invention.
FIG. 2 is an exploded perspective view and an exploded perspective view of a corrugated drilling apparatus for a crane capable of flow rotation according to an embodiment of the present invention.
FIG. 3 is a perspective view of a fastening portion and a flow rotating portion of a core drilling apparatus for crankshaft coupling capable of flow rotation according to an embodiment of the present invention.
FIG. 4 is a perspective view of a fastening rod portion and a core drill portion of a core drilling apparatus for a crane for coupling that can be rotated in a fluidized manner according to an embodiment of the present invention.
5 is a plan view and a bottom view of a core drill in a core drill for a crankshaft coupling capable of flow rotation according to an embodiment of the present invention.
6 is a cross-sectional view of a core drilling apparatus for a crankshaft coupling capable of rotating in flow in accordance with an embodiment of the present invention.
FIG. 7 is a conceptual view showing a perforating method according to an embodiment of the present invention, in which a core drilling apparatus for joining corrugated drums capable of rotating by flow is possible.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings.

FIG. 1 is a perspective view showing a state in which a core drilling apparatus for a crane for coupling is rotatably coupled to a crane according to an embodiment of the present invention. FIG. 2 is a perspective view FIG. 3 is a perspective view of a fastening portion and a flow rotating portion of a core drilling apparatus for joining a crane capable of flow rotation according to an embodiment of the present invention, and FIG. 4 is a perspective view of a core drilling apparatus according to an embodiment of the present invention. FIG. 5 is a plan view and a bottom view of a core drill in a core drill for a fork-work coupling according to an embodiment of the present invention. FIG. 5 is a perspective view of a core drill And FIG. 6 is a cross-sectional view of the boring core drilling apparatus for the flow rotating according to the embodiment of the present invention, 1 is a conceptual view showing a boring method according to an embodiment of the present invention; FIG.

Prior to this, the embodiments described in this specification and the configurations shown in the drawings are only the most preferred embodiments of the present invention.

Describing in detail a preferred embodiment of the present invention,

A corrugated drill (10) for fl owing with flow rotation

A floating rotary core drill (10) for excavating a rock in sea or on land,

The flow rotating core drill (10)

2, the fastening part 100, the flow rotating part 200, the fastening rod part 300, and the core drill part 400,

3, the fastening portion has a bracket 110, a bracket fastening rod 120, and a rotary moving plate 130,

3, the flow rotation unit 200 includes a low speed hydraulic input port 210, a medium speed hydraulic input port 213, a high speed hydraulic input port 218, a water inlet port 220, a fixed support 230, And has an injection tube 240, a housing 250, a joint packing 260, an oil inlet 270, and an oil outlet 280,

2, the fastening rod portion 300 has a fastening hexagon 310, a rotating rod 320, a fastening female thread tab 330, and a fastening hole 340,

4 and 5, the core drill 400 includes a fastening male thread tab 420, a water injection hole 430, a three-way water injection tip 440, a diamond core drill body 450, A blade 460, a slime discharge blocking plate 470, and a drill fixing pin 480.

2, the coupling unit 100 is connected to the lower portion of the crane coupling end A by a bracket 110 and a bracket coupling rod 120 detachably coupled to the crank coupling end A, 3, the rotating plate 130 is coupled to the rotating and rotating unit 200 using bolts and nuts, and has mechanical characteristics such as angles of up and down and left and right. It is easy for the rotating rotating core drill 10 to accurately locate in the perforated position

The low speed oil pressure input port 210, the medium speed oil pressure input port 213 and the high speed oil pressure input port 218 of the flow rotating part 200 are connected to a hydraulic pump provided in the crane and a plurality of hoses connected to the hydraulic tank, do.

3, the low-speed hydraulic input port 210 is located at the lower end of the medium-speed hydraulic input port 213, and when the boring operator perforates the drilled hole, the low-speed hydraulic input port 210 only The hydraulic fluid is supplied to the low-speed hydraulic input port 210, the medium-speed hydraulic input port 213, and the high-speed hydraulic input port 218 when drilling the hard rock layer without floating the float due to low- Hydraulic pressure is applied to drill the ground layer at a high rotational speed.

3, the medium-speed hydraulic input port 213 is located between the low-speed hydraulic input port 210 and the high-speed hydraulic input port 218 on the surface of the housing 250, The hydraulic pressure is supplied to the low speed hydraulic input port 210 and the medium speed hydraulic input port 213 to thereby transmit the hydraulic pressure to the flow rotating part 200 and rotate at a standard speed.

The high-speed hydraulic inlet 218 is located at the upper end of the hydraulic inlet 210. When the operator drills the hard rock layer, hydraulic pressure is supplied only to the high-speed hydraulic inlet 218, So that it is drilled at a high rotation speed.

The water inlet port 220 is connected to the water inlet port 220 by the hose of the water pump end provided in the crane and is hinged to the hose form and the water inlet pipe 240 is connected to the water inlet port 220, And the water injecting pipe 240 is waterproofed by the joint packing 260. The water injecting pipe 240 is connected to the core drilling unit 400 through a pipe.

The oil suction port 270 and the oil discharge port 280 are located on the side of the housing 250 and supply the hydraulic oil to the inside or discharge the hydraulic oil to the outside.

Referring to FIGS. 2 and 4, the fastening rod portion 300 is vertically coupled to the flow rotating portion 200 by a fastening hexagon 310, and the fastening female thread tab 330 is fastened to the core drill portion 400 And is fastened to the fastening male screw tab 420,

The core drill unit 400 is rotated and fastened with the fastening female screw tab 330 of the fastening rod unit 300 by the fastening male screw tab 420.

In addition, the core drill unit 400 may be modified to replace the hammer-type bit unit that is hit by the hydraulic pressure in the core drill unit 400 according to the material and strength of the rock mass.

4, the drill fixing pin 480 is further fixed to prevent the core drill 400 from separating or separating from the core drill 400 during drilling.

It will be apparent to those skilled in the art that various modifications and variations can be made in the present invention without departing from the spirit and scope of the invention as defined by the appended claims. .

For example, the length of the core drill 400 may be increased or decreased depending on the quality of the tide, the strength of the storm, the material of the rock to be drilled, the strength, It goes without saying that the present invention can be modified and used in the embodiments.

10: floating rotating core drill 300: fastening rod part
100: fastening part 310: fastening hexagonal
110: Bracket 320: Rotating rod
120: Bracket fastening rod 330: Fastening female thread tab
130: Rotation plate for fastening 340: Pin fixing hole
200: flow rotating part 400: core drill part
210: Low-speed hydraulic inlet 420: Fastening male thread tab
213: Medium speed hydraulic input port 430: Water jet port
218: High-speed hydraulic inlet 440: 3-way water injection tip
220: Water inlet 450: Diamond core drill body
230: Fixing support 460: Die almond drill bit
240: water jetting tube 470: slime discharge blocking plate
250: housing 480: drill part fixing pin
260: Splice packing A: Connecting part of fork bracket
270: Oil inlet
280: Oil outlet

Claims

A floating rotary core drill for joining rock masses for marine or terrestrial excavation,
The flow rotating core drill includes:
A fastening portion, a flow rotating portion, a fastening rod portion, and a core drill portion,
Wherein the fastening portion has a bracket, a bracket fastening rod, and a rotation movable plate,
Wherein the flow rotary part has a low-speed hydraulic inlet, a medium-speed hydraulic inlet, a high-speed hydraulic inlet, a water inlet, a fixed support, a water injector, a housing, a joint packing,
The fastening rod portion has a fastening hexagon, a rotating rod, a fastening female thread tab, and a pin fixing hole,
The core drill part is composed of a male screw tab for fastening, a water jetting hole, a three-way water jetting tip, a diamond core drill body, a diamond drill bit, a slime discharge blocking plate,
Wherein the coupling portion is connected to the lower portion of the crane coupling end by a bracket and a bracket coupling rod detachably coupled to the crank coupling end,
The low speed oil pressure input port, the medium speed oil pressure input port and the high speed oil pressure input port of the flow rotary part are respectively coupled to a hydraulic pump provided in the crane and a plurality of hoses connected to the hydraulic tank. And the water inlet is connected to the hose of the end of the water pump provided at the forklain in a hose form after the extension, the water injection pipe is connected to the water inlet and is located in the inside of the housing,
The fastening female part is watertightly coupled to the flow rotating part by a joint hexagonal after the bearing is fastened with a hexagon for fastening, the fastening female screw tab is rotated and fastened to the fastening male screw tab of the core drill part, ,
Wherein the core drill portion is rotated and fastened with a fastening female screw tab of the fastening rod portion,
The fastening portion is hose-connected to the hydraulic pump and the hydraulic tank,
The flow rotating part is hose connected to a hydraulic pump, a hydraulic tank, and a water tank to supply power to the flow rotating part and the clamping rod part,
The fastening rod portion transmits the rotational power of the flow rotating portion to the core drill portion,
Wherein the core drill part is configured to rotate rotationally in accordance with a puncture condition, and to drill a rock through a diamond drill blade.

The method according to claim 1,
Wherein the fastening part is a bracket that is easy to fasten to a fork bracket and is made of a rotating plate and is rotatable in a lateral direction so as to have a right and left forming angle to increase the perforation working efficiency.

The method according to claim 1,
In the standard operation, hydraulic pressure is supplied to a low-speed hydraulic input port and a medium-speed hydraulic input port. In the case of a hard rocky ground, a low-speed hydraulic input port, a medium-speed hydraulic input port, And the hydraulic rotating part is rotated by supplying additional hydraulic pressure to the high-speed hydraulic input port.

The method according to any one of claims 1 to 3,
The flow rotating part deepens the depth of the perforation environment as the oil pressure supplied through the respective low speed hydraulic inlet, medium speed hydraulic inlet and high speed hydraulic inlet installed on the housing surface changes, Wherein the rotational speed of the rotor is adjustable by a driver in accordance with the type of the core drill.

The method according to claim 1,
Wherein the upper portion of the fastening rod portion is vertically coupled to the flow rotating portion and the lower portion is connected to the core drill portion and is replaceable corresponding to the depth of the drilling environment.

The method according to claim 1,
Wherein the core drill part is fastened to the fastening male tabs along the threads of the fastening female thread tabs of the upper flow rotating part and the drill part fastening pins after fastening are further fixed by being fitted into the pin fixing holes of the flow rotating part. Rotorable core drill for joining a fork bracket.

The method according to claim 1,
Wherein the slime discharge blocking plate protects the three-directional water jetting tip from rocks that protrude when drilling and blocks the slime from flowing into the core drill part.

The method according to claim 1,
The three-way water spray tip penetrates between the slime discharge shut-off plates in the core drill and is positioned at three ends in a tip shape. In order to wet out the frictional heat generated during the drilling operation on land or sea, Wherein the core drill is formed of a metal.