Core sample cutting system

Abstract

The application relates to a core sample cutting system. The core sample cutting system comprises a shell, a core sample transfer device, a clamping mechanism and a core sample cutting device. The core sample transfer device comprises a transfer mechanism and the clamping mechanism. The transfer mechanism is movably connected with the shell. The clamping mechanism is connected with the transfer mechanism. The clamping mechanism is configured to clamp or release the core sample. The core sample cutting device comprises a lifting mechanism and a cutting mechanism. The lifting mechanism is arranged on the shell. The lifting mechanism is drivingly connected with the cutting mechanism. The cutting mechanism is configured to cut the core sample. A control module is electrically connected with the transfer mechanism, the lifting mechanism and the cutting mechanism. The core sample cutting system can realize one-key full-automatic cutting, so that the cutting efficiency is improved, the cutting precision is improved, and the operation risk is reduced.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of core sample processing equipment, in particular to a core sample cutting system. BACKGROUND

[0002] With the rapid development of the construction industry, the application scenarios of commercial concrete are increasingly widespread, covering high-rise buildings, bridge engineering, underground structures and other fields. At the same time, the performance requirements of concrete materials are constantly improving, market competition is intensifying, and factors such as differences in technical management during the construction process have led to uneven quality of commercial concrete and frequent structural safety hazards. Therefore, building a scientific and efficient concrete quality detection system has become an important link to ensure the safety of construction projects.

[0003] The concrete structure performance detection method includes rebound method, ultrasonic-rebound comprehensive method, post-loading pull-out method and core drilling method, etc. Among them, the core drilling method has the remarkable advantages of intuitiveness, reliability and high precision, and becomes a common means for detecting the strength, internal defects and structure thickness of concrete. The core drilling method drills core samples from the concrete structure through a special drilling machine, and after processing procedures such as cutting, polishing and defect filling, the compressive strength test is carried out, and then accurate concrete quality detection data is obtained to provide data support for engineering quality evaluation.

[0004] However, the core sample processing equipment in the related art generally adopts a single-function single-group cutting test piece or a manual core sample cutting machine, which requires manual full-process participation in positioning, clamping and cutting operation, and has problems such as low processing efficiency, low cutting precision and unsafe operation, which causes that qualified concrete core sample test pieces cannot be safely, timely and effectively obtained, affecting the preparation quality of the concrete core sample and the timeliness of the detection. SUMMARY

[0005] Therefore, it is necessary to provide a core sample cutting system aiming at the problems of low core sample processing efficiency and low cutting precision.

[0006] A core sample cutting system, the core sample cutting system comprising:

[0007] a housing;

[0008] a core sample transfer device, the core sample transfer device comprising a transfer mechanism and a clamping mechanism, the transfer mechanism being movably connected with the housing, the clamping mechanism being connected with the transfer mechanism, the clamping mechanism being configured to clamp or release a core sample;

[0009] a core sample cutting device, the core sample cutting device comprising a lifting mechanism and a cutting mechanism, the lifting mechanism being provided on the housing, the lifting mechanism being drivingly connected with the cutting mechanism, the cutting mechanism being configured to cut a core sample;

[0010] A control module electrically connected with the transferring mechanism, the lifting mechanism and the cutting mechanism.

[0011] In one of the embodiments, the clamping mechanism comprises a carrier and a clamping piece, the carrier is connected with the transferring mechanism, the carrier forms a receiving groove, the receiving groove has a bottom surface and a side surface, the bottom surface is arranged obliquely, and the depth of the receiving groove gradually increases towards the side surface, the clamping piece is connected with the transferring mechanism, and the clamping piece is configured to clamp or release the core sample in cooperation with the carrier.

[0012] In one of the embodiments, the carrier comprises a carrier part and a limiting part, the carrier part is connected with the transferring mechanism, the limiting part is connected with the carrier part and forms the receiving groove, the thickness of the carrier part gradually decreases towards the limiting part, the carrier part constitutes the bottom surface of the receiving groove, and the limiting part constitutes the side surface of the receiving groove; and / or

[0013] The clamping piece comprises a connecting part, a fastening part and a buffer pad, the connecting part is movably connected with the transferring mechanism, the fastening part is connected with the connecting part, the fastening part is arranged opposite to the receiving groove, and the buffer pad is arranged on the side of the fastening part facing the receiving groove.

[0014] In one of the embodiments, the core sample transferring device further comprises a supporting mechanism, the supporting mechanism comprises a supporting seat and a rack, the supporting seat is connected with the shell, and the rack is connected with the supporting seat and arranged in a straight line;

[0015] The transferring mechanism comprises a transferring platform and a driving assembly, the transferring platform is connected with the clamping mechanism, the driving assembly comprises a power piece and a driving gear, the power piece is connected with the transferring platform and electrically connected with the control module, the power piece is drivingly connected with the driving gear, and the driving gear is engaged with the rack.

[0016] In one of the embodiments, the supporting mechanism further comprises a guide rail assembly, the guide rail assembly comprises a first rail and a second rail, the first rail and the second rail are respectively connected with the supporting seat, the first rail and the second rail are both arranged parallel to the rack, the first rail is formed with a first oil immersion groove, the cross section of the first oil immersion groove is in a rectangular shape, the second rail is formed with a second oil immersion groove, and the cross section of the second oil immersion groove is in an inverted triangular shape or an inverted trapezoidal shape.

[0017] The transport mechanism further comprises a roller assembly, the roller assembly comprises a plurality of first rollers and a plurality of second rollers, the first rollers are cylindrical, the first rollers are in rolling fit with the first tracks through the first oil immersion grooves, the second rollers gradually narrow in width towards the edges, and the second rollers are in rolling fit with the second tracks through the second oil immersion grooves.

[0018] In one of the embodiments, the lifting mechanism comprises a lifting base, a lifting drive and a mounting assembly, the lifting base is connected with the shell, the lifting drive is arranged on the lifting base and is electrically connected with the control module, and the lifting drive is drivingly connected with the mounting assembly.

[0019] The cutting mechanism comprises a cutting drive, a cutting transmission assembly, a cutting tool and a soundproof cover, the cutting drive is arranged on the mounting assembly and is electrically connected with the control module, the cutting drive is drivingly connected with the cutting transmission assembly, the cutting tool is connected with the cutting transmission assembly, and the soundproof cover is connected with the mounting assembly and is arranged on at least one side of the cutting tool.

[0020] In one of the embodiments, the mounting assembly comprises a first mounting member and a second mounting member, the first mounting member is connected with the output end of the lifting drive, the first mounting member has a mounting channel in the interior, the second mounting member is connected with the first mounting member, the second mounting member is provided with a mounting hole, and the mounting hole is coaxially arranged with the mounting channel.

[0021] The cutting transmission assembly comprises a center shaft, a transmission belt and a support, the center shaft is arranged in the mounting channel and the mounting hole and is rotationally connected with the first mounting member and the second mounting member, the cutting drive is arranged on the first mounting member, the transmission belt is connected between the center shaft and the cutting drive, the support is arranged outside the center shaft and in the mounting channel, the cutting tool is connected with the center shaft and is arranged between the mounting channel and the mounting hole, and the soundproof cover is connected with the second mounting member.

[0022] In one of the embodiments, the soundproof cover comprises a top plate, a first side plate and a second side plate, the top plate is connected with the mounting assembly and is arranged on the top of the cutting tool, the first side plate and the second side plate are respectively connected with the top plate, and the first side plate and the second side plate are arranged on opposite sides of the cutting tool in a direction perpendicular to the axis of the mounting hole.

[0023] In one of the embodiments, the core sample cutting device further comprises a cooling mechanism, the cooling mechanism comprising a cooling driving member, a cooling pipeline, a distribution member and a filter tip, the cooling driving member being arranged on the cooling pipeline and being electrically connected with the control module, an inlet of the cooling pipeline being connected with the filter tip, an outlet of the cooling pipeline being connected with the distribution member, the distribution member being connected with the mounting assembly, the distribution member having a plurality of liquid outlets configured to deliver cooling liquid to the cutting tool.

[0024] In one of the embodiments, the housing has a receiving cavity, the core sample transfer device and the core sample cutting device being arranged in the receiving cavity, an inner wall of the housing being provided with a sound insulation layer; and / or

[0025] A bottom of the housing is provided with a transfer wheel and a load-bearing foot cup; and / or

[0026] The housing is provided with an observation window, a dust removal fan and / or a warning light, the dust removal fan and the warning light being electrically connected with the control module.

[0027] The core sample cutting system described above, when cutting the core sample, first clamps the core sample by using the clamping mechanism and fastens it. Then the control module is started, and the automatic cutting process is triggered by one key. At this time, the transfer mechanism, the lifting mechanism and the cutting mechanism start to operate, the transfer mechanism starts to operate at a preset speed, and the clamping mechanism and the core sample are sent to the cutting area, the lifting mechanism drives the cutting mechanism to descend to the cutting area and cuts the core sample. After cutting is completed, the cutting mechanism stops operating, the lifting mechanism and the transfer mechanism start to operate, drive the cutting mechanism to rise, and drive the clamping mechanism and the core sample to retreat to the initial position, and the cutting process is completed. Therefore, the core sample cutting system controls the transfer mechanism, the lifting mechanism and the cutting mechanism to move correspondingly by using the control module, so that the core sample cutting process can be realized by one key automatic cutting, so as to improve the cutting efficiency. Moreover, the control module is combined with the mechanical transmission, so that the positioning of the core sample and the accurate control of the cutting depth can be realized, which is beneficial to improve the cutting precision. At the same time, through automatic operation and through the housing to seal the operation space, manual intervention is reduced, and the operation risk can be reduced. The core sample cutting system ensures the accuracy and qualification rate of the core sample forming, and is safe and reliable in performance, and is suitable for batch cutting of core samples. BRIEF DESCRIPTION OF DRAWINGS

[0028] Figure 1 FIG. 1 is a schematic diagram of the internal structure of the core sample cutting system according to an embodiment of the present application.

[0029] Figure 2 FIG. 2 is a schematic diagram of the external structure of the core sample cutting system according to an embodiment of the present application.

[0030] Figure 3 FIG. 3 is a schematic diagram of the external structure of the core sample cutting system according to an embodiment of the present application from another angle.

[0031] Figure 4 Structure diagram of the clamping mechanism of the embodiment of the present application.

[0032] Figure 5 Structure diagram of the transfer mechanism of the embodiment of the present application.

[0033] Figure 6 Structure diagram of the support mechanism of the embodiment of the present application.

[0034] Figure 7 Structure diagram of the lifting mechanism of the embodiment of the present application.

[0035] Figure 8 Structure diagram of the cutting mechanism of the embodiment of the present application.

[0036] Figure 9 Structure diagram of the cooling mechanism of the embodiment of the present application.

[0037] Reference signs:

[0038] 1, core sample cutting system;

[0039] 10, housing; 11, receiving cavity;

[0040] 20, core sample transfer device; 2100, transfer mechanism; 2110, transfer platform; 2120, driving assembly; 2121, power member; 2122, driving gear; 2131, first roller; 2200, clamping mechanism; 2210, bearing member; 2211, bearing part; 2212, limiting part; 2213, receiving groove; 2213a, bottom surface; 2213b, side surface; 2220, clamping member; 2221, connecting part; 2222, fastening part; 2223, buffer pad; 2300, support mechanism; 2310, support seat; 2320, rack; 2330, guide rail assembly; 2331, first track; 2332, second track; 2333, first oil immersion groove; 2334, second oil immersion groove;

[0041] 30, core sample cutting device; 3100, lifting mechanism; 3110, lifting base; 3120, lifting driving member; 3130, mounting assembly; 3131, first mounting member; 3132, second mounting member; 3132a, connecting plate; 3132b, mounting plate; 3133, mounting channel; 3134, mounting hole; 3135, lubricating member; 3200, cutting mechanism; 3210, cutting driving member; 3220, cutting tool; 3221, connecting sleeve; 3222, fixing disc; 3223, cutting blade; 3230, soundproof cover; 3231, top plate; 3232, first side plate; 3233, second side plate; 3240, cutting transmission assembly; 3241, central shaft; 3242, transmission belt; 3243, support member; 3300, cooling mechanism; 3310, cooling driving member; 3320, cooling pipeline; 3330, liquid distribution member; 3340, nozzle; 3350, filter tip;

[0042] 40, control module;

[0043] 51, transfer wheel; 52, load-bearing foot cup;

[0044] 60, observation window;

[0045] 70, dust removal fan;

[0046] 80, warning light. DETAILED DESCRIPTION

[0047] In order to make the above objectives, features and advantages of the present application more apparent, specific embodiments of the present application will be described in detail below with reference to the accompanying drawings. In the following description, numerous specific details are set forth in order to provide a thorough understanding of the present application. It will be apparent, however, to one skilled in the art that the present application can be practiced in a variety of ways beyond the specific embodiments described herein without departing from the spirit of the present application, and that the present application is therefore not limited to the specific embodiments disclosed below.

[0048] In the description of the present application, it should be understood that if the terms "center", "longitudinal", "transverse", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", "axial", "radial", "circumferential" and the like appear, these terms indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, and are only for the purpose of facilitating the description of the present application and simplifying the description, and therefore cannot be understood as indicating or implying that the device or element referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as limiting the present application.

[0049] In addition, if there are these terms "first", "second", these terms are only for the purpose of description, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of indicated technical features. Therefore, the features defined as "first", "second" can be explicitly or implicitly included at least one of the features. In the description of the present application, if the term "a plurality of" appears, the meaning of "a plurality of" is at least two, such as two, three, etc., unless otherwise explicitly specified.

[0050] In the present application, unless otherwise explicitly specified and limited, if the terms "mounting", "connecting", "connecting", "fixing" and the like appear, these terms should be interpreted broadly. For example, it can be fixedly connected, or it can be detachably connected, or it can be integrated; it can be mechanically connected, or it can be electrically connected; it can be directly connected, or it can be indirectly connected through an intermediate medium; it can be the internal communication of two elements or the interaction relationship between two elements, unless otherwise explicitly limited. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances.

[0051] In the present application, unless otherwise explicitly specified and limited, if the first feature is described as "on" or "below" the second feature and the like, it can mean that the first and second features are in direct contact, or the first and second features are indirectly in contact through an intermediate medium. Moreover, the first feature "above", "above" and "above" the second feature can be the first feature directly above or obliquely above the second feature, or only indicates that the first feature is higher than the second feature in horizontal height. The first feature "below", "below" and "below" the second feature can be the first feature directly below or obliquely below the second feature, or only indicates that the first feature is lower than the second feature in horizontal height.

[0052] It should be noted that if an element is referred to as "fixed to" or "disposed on" another element, it can be directly on another element or there can be a middle element. If an element is considered to be "connected" to another element, it can be directly connected to another element or there can be a middle element. If present, the terms "vertical", "horizontal", "up", "down", "left", "right" and similar expressions used in the present application are only for the purpose of illustration, and do not represent the only implementation.

[0053] Referring to Figures 1 to 9 As shown in the drawings, the core sample cutting system 1 provided by an embodiment of the present application includes a shell 10, a core sample transfer device 20, a core sample cutting device 30 and a control module 40, which is used for cutting concrete core samples, rock core samples and cement core samples.

[0054] The shell 10 provides overall support and protection for the core sample cutting system 1. For example, in some embodiments, the shell 10 includes a bottom frame and a box body located on the bottom frame, and the core sample transfer device 20 and other components are arranged in the box body, and the size of the box body is not limited.

[0055] The core sample transfer device 20 is used to transfer the core sample to the cutting area. The core sample transfer device 20 includes a transfer mechanism 2100 and a clamping mechanism 2200. The transfer mechanism 2100 is movably connected to the shell 10, and can be arranged to move horizontally relative to the shell 10 to transfer the core sample. The clamping mechanism 2200 is connected to the transfer mechanism 2100 and can move with the transfer mechanism 2100, and is configured to clamp or release the core sample. The core sample is clamped by the clamping mechanism 2200 to keep it fixed during movement of the clamping mechanism 2200 and the transfer mechanism 2100.

[0056] The core sample cutting device 30 is used to cut the core sample located in the cutting area. The core sample cutting device 30 includes a lifting mechanism 3100 and a cutting mechanism 3200. The lifting mechanism 3100 is arranged on the shell 10 and is drivingly connected to the cutting mechanism 3200. The lifting mechanism 3100 is used to drive the cutting mechanism 3200 to move vertically to adjust the position of the cutting mechanism 3200. When the lifting mechanism 3100 drives the cutting mechanism 3200 to move to the cutting area, the cutting mechanism 3200 is configured to cut the core sample.

[0057] The control module 40 is electrically connected to the transfer mechanism 2100, the lifting mechanism 3100 and the cutting mechanism 3200. The control module 40 coordinates the actions of the mechanisms through a pre-set program, and can control the transfer mechanism 2100 to move the core sample to the cutting area, and then control the lifting mechanism 3100 to drive the cutting mechanism 3200 to cut the core sample. For example, the control module 40 can use PLC intelligent control to automatically control the cutting process and support one-key operation.

[0058] Through the above structural design, when cutting the core sample, the clamping mechanism 2200 is first used to clamp and tighten the core sample. Then the control module 40 is started to trigger the automatic cutting process. At this time, the transfer mechanism 2100, the lifting mechanism 3100 and the cutting mechanism 3200 start to run. The transfer mechanism 2100 starts to run at a pre-set speed, and sends the clamping mechanism 2200 and the core sample to the cutting area. The lifting mechanism 3100 drives the cutting mechanism 3200 to descend to the cutting area and cut the core sample. After cutting is completed, the cutting mechanism 3200 stops running, and the lifting mechanism 3100 and the transfer mechanism 2100 start to run to drive the cutting mechanism 3200 to rise, and drive the clamping mechanism 2200 and the core sample to retreat to the initial position, completing the cutting process.

[0059] Therefore, the core sample cutting system 1 of the embodiment of the present application controls the transfer mechanism 2100, the lifting mechanism 3100 and the cutting mechanism 3200 to move correspondingly through the control module 40, so that the core sample cutting process can be realized in one-key full-automatic cutting, thereby improving the cutting efficiency. Moreover, the control module 40 is combined with the mechanical transmission, so that the accurate control of the core sample positioning and the cutting depth can be realized, thereby improving the cutting precision. Meanwhile, through the automatic operation and the closure of the operation space by the shell 10, the manual intervention is reduced, thereby reducing the operation risk. The core sample cutting system 1 ensures the accuracy and the qualified rate of the core sample forming, is safe and reliable in performance, and is suitable for batch cutting of core samples.

[0060] Referring to FIGS. 1 and 2, Figure 1 Figure 4 As shown in FIGS. 1 and 2, in some embodiments, the clamping mechanism 2200 includes a carrier 2210 and a clamping piece 2220. The carrier 2210 is connected with the transfer mechanism 2100, and the carrier 2210 forms a receiving groove 2213 for carrying the core sample. The receiving groove 2213 has a bottom surface 2213a and a side surface 2213b. For example, the bottom surface 2213a and the side surface 2213b of the receiving groove 2213 can be connected to form a substantially L-shaped structure or a V-shaped structure, i.e., the receiving groove 2213 is an L-shaped groove or a V-shaped groove. Moreover, the bottom surface 2213a of the receiving groove 2213 is inclinedly arranged, and the depth of the receiving groove 2213 gradually increases toward the side surface 2213b, so as to facilitate preventing the core sample from being separated from the receiving groove 2213. The depth of the receiving groove 2213 refers to the depth of the receiving groove 2213 along the direction of gravity when the core sample transfer device 20 is installed on the horizontal ground, i.e., the bottom surface 2213a of the receiving groove 2213 is inclined to the horizontal plane. The clamping piece 2220 is connected with the transfer mechanism 2100, and the clamping piece 2220 is configured to clamp or release the core sample in cooperation with the carrier 2210.

[0061] ​When the core sample needs to be transferred, the core sample is first placed in the accommodation groove 2213 of the carrier 2210, and the clamping piece 2220 cooperates with the carrier 2210 to clamp the core sample to fix the core sample. Then the transfer mechanism 2100 drives the carrier 2210, the clamping piece 2220 and the core sample to move, so as to transfer the core sample to the cutting area, for example, to transport the core sample to the cutting area for cutting the core sample. After the core sample is transferred to the cutting area, the clamping piece 2220 cooperates with the carrier 2210 to release the core sample, so as to take out the core sample from the accommodation groove 2213, and complete the transfer process. Thus, the core sample transfer device 20 adopts the design of the inclined bottom surface 2213a and the gradually deepening accommodation groove 2213. When the core sample is placed on the bottom surface 2213a of the accommodation groove 2213, the core sample has a tendency to slide along the inclined bottom surface 2213a to the side surface 2213b. At this time, the core sample can be positioned automatically by relying on the weight to abut against the side surface 2213b of the accommodation groove 2213, that is, the core sample will slide along the inclined bottom surface 2213a to the side surface 2213b limit when placed, and the core sample axis is automatically aligned with the cutting direction by using gravity, without the need for manual adjustment of the core sample placement angle, which can reduce manual adjustment errors, improve cutting accuracy, and improve the convenience of core sample clamping. Moreover, the core sample is blocked and limited by the side surface 2213b of the accommodation groove 2213, and the clamping piece 2220 forms clamping on the core sample, so that the core sample is tightly attached to the accommodation groove 2213 during the transfer process, which can avoid the core sample from shaking or falling off to cause damage or burrs during cutting, and improve the transfer stability and cutting reliability.

[0062] Referring to Figure 4 As shown in the drawings, in some embodiments, the carrier 2210 includes a carrying part 2211 and a limiting part 2212. The carrying part 2211 is connected with the transfer mechanism 2100, and the limiting part 2212 is connected with the carrying part 2211 and forms the accommodation groove 2213. The thickness of the carrying part 2211 gradually decreases towards the limiting part 2212. The carrying part 2211 constitutes the bottom surface 2213a of the accommodation groove 2213, and the limiting part 2212 constitutes the side surface 2213b of the accommodation groove 2213. Specifically, the carrying part 2211 is connected with the transfer mechanism 2100, for example, the carrying part 2211 is provided in a plate-shaped structure and is fixed on the transfer mechanism 2100 by welding, bolt connection or the like. The limiting part 2212 is provided in a flat plate-shaped structure extending in the vertical direction, and the limiting part 2212 and the carrying part 2211 are provided in an integrated structure, which is compact in structure and can reduce assembly complexity. The thickness of the carrying part 2211 gradually decreases towards the limiting part 2212, so that the bottom surface 2213a of the accommodation groove 2213 constituted by the carrying part 2211 is an inclined surface. Thus, the stable accommodation groove 2213 is formed by the inclined bottom surface 2213a and the limiting part 2212 together, to adapt to the arc surface of the cylindrical core sample, and the core sample can be accurately positioned by the limiting part 2212, which is convenient for precision control in the subsequent cutting process.

[0063] Further, referring to Figure 4 As shown in some embodiments, the clamping member 2220 includes a connecting portion 2221, a fastening portion 2222 and a buffer pad 2223. The connecting portion 2221 is movably connected with the transfer mechanism 2100, for example, the connecting portion 2221 can be a bolt, and the connecting portion 2221 is threadedly connected with the transfer mechanism 2100, so that the connecting portion 2221 can move linearly relative to the transfer mechanism 2100. The fastening portion 2222 is connected with the connecting portion 2221, and the fastening portion 2222 is arranged opposite to the receiving groove 2213, for example, the fastening portion 2222 can be arranged in a long strip structure and surround the outer periphery of the connecting portion 2221. When the core sample is placed in the receiving groove 2213, the fastening portion 2222 is located at the top of the core sample. The buffer pad 2223 is arranged on the side of the fastening portion 2222 facing the receiving groove 2213, for example, the buffer pad 2223 can be made of polyformaldehyde hard plastic pad or other materials such as rubber material. The buffer pad 2223 is in contact with the surface of the core sample during clamping, which can avoid damage to the surface of the core sample, especially for high-fragility concrete core samples, and reduce the damage rate before detection. The fastening portion 2222 of the present embodiment is movably connected with the transfer mechanism 2100 through the connecting portion 2221, so that the distance between the fastening portion 2222 and the receiving groove 2213 can be adjusted, thereby being self-adaptable to core samples of different diameters, and cooperating with the buffer pad 2223 to realize uniform pressure and ensure firm clamping without damaging the structure of the core sample.

[0064] Referring to Figure 1 , Figure 5 and Figure 6 As shown in some embodiments, the core sample transfer device 20 further includes a support mechanism 2300 for providing bottom support. The transfer mechanism 2100 is connected with the support mechanism 2300 and is arranged to be movable relative to the support mechanism 2300. When the core sample transfer device 20 is used to transfer the core sample, the support mechanism 2300 is fixed on the ground, and at this time the transfer mechanism 2100 is arranged to be movable relative to the support mechanism 2300 and the ground. Specifically, the support mechanism 2300 includes a support base 2310 and a rack 2320. The support base 2310 is connected with the housing 10, and the rack 2320 is connected with the support base 2310 and arranged to extend linearly. For example, the support base 2310 is fixedly mounted on the bottom frame of the housing 10, and the support base 2310 can provide rigid support to avoid transmission failure due to deformation of the rack 2320 under force, thereby ensuring the reliability of the transfer process.

[0065] Furthermore, the transfer mechanism 2100 includes a transfer platform 2110 and a drive assembly 2120. The transfer platform 2110 is connected to the clamping mechanism 2200 and is used to support the clamping mechanism 2200 and the core sample. The drive assembly 2120 includes a power component 2121 and a drive gear 2122. The power component 2121 is connected to the transfer platform 2110 and electrically connected to the control module 40. The power component 2121 and the drive gear 2122 are driven together. For example, the power component 2121 may include components such as a motor and a reducer. The power component 2121 of the drive assembly 2120 can provide power to make the drive gear 2122 rotate. Since the drive gear 2122 meshes with the rack 2320, and the rack 2320 is fixed in a straight line on the support base 2310, when the drive gear 2122 rotates, it will move synchronously along the extension direction of the rack 2320, thereby driving the transfer platform 2110 to move in a straight line, realizing the function of transferring the core sample. This embodiment uses a power component 2121 and a gear rack 2320 for transmission, which results in high transmission accuracy, high efficiency in transfer, and smooth and reliable transmission. This ensures uniform speed during core sample transfer and avoids damage to the core sample due to start-stop impact, making it particularly suitable for batch transfer of core samples.

[0066] In some embodiments, the support mechanism 2300 further includes a guide rail assembly 2330, which includes a first rail 2331 and a second rail 2332. The first rail 2331 and the second rail 2332 are respectively connected to the support base 2310, and both the first rail 2331 and the second rail 2332 are arranged parallel to the rack 2320. Specifically, the first rail 2331 and the second rail 2332 are fixed to the top surface of the support base 2310 by bolts. The first rail 2331 and the second rail 2332 are arranged parallel to the extension direction of the rack 2320 and are located on both sides of the rack 2320. The lengths of the first rail 2331 and the second rail 2332 match the length of the rack 2320 to ensure that the transfer platform 2110 receives stable support throughout its entire stroke. By designing the first track 2331 and the second track 2332 in parallel, the weight of the core sample carried by the transfer platform 2110 is distributed to the first track 2331 and the second track 2332, which can improve the durability and load-bearing capacity in the scenario of heavy core sample batch transfer.

[0067] like Figure 6 As shown, the first track 2331 has a first oil immersion groove 2333, the cross-section of which is rectangular. The second track 2332 has a second oil immersion groove 2334, the cross-section of which is inverted triangular or inverted trapezoidal, i.e., the second oil immersion groove 2334 has a conical structure. The first oil immersion groove 2333 and the second oil immersion groove 2334 can store lubricating oil, thereby lubricating the first track 2331 and the second track 2332, effectively reducing friction loss, improving durability, and extending service life.

[0068] The transfer mechanism 2100 further comprises a roller assembly, which comprises a plurality of first rollers 2131 and a plurality of second rollers (not shown in the figure). The plurality of first rollers 2131 are distributed along a straight line, and the plurality of second rollers are distributed along another straight line. For example, as shown in the figure, the roller assembly comprises two first rollers 2131 and two second rollers, the two first rollers 2131 are arranged on one side of the transfer platform 2110 along a straight line, and the two second rollers are arranged on the other side of the transfer platform 2110 along another straight line. The transfer platform 2110 can be stably supported by the four rollers, thereby improving the transfer stability and transfer efficiency. It should be noted that the number of rollers is not limited to four, and in other optional embodiments, the number of rollers can be six, eight, ten, etc. Figure 5

[0069] Further, the first roller 2131 is in a cylindrical shape, and the first roller 2131 is in rolling cooperation with the first track 2331 through a first oil immersion groove 2333. At this time, the first oil immersion groove 2333 in a rectangular structure is adapted to the first roller 2131 in a cylindrical shape, so as to ensure that the full contact area of the first roller 2131 and the first track 2331 can be fully lubricated, thereby further improving the smoothness and reliability of the operation of the first roller 2131. The width of the second roller gradually decreases towards the edge, so that the edge of the second roller is in a tapered structure, and the cross section thereof is in a triangular or trapezoidal shape. The second roller is in rolling cooperation with the second track 2332 through a second oil immersion groove 2334, and at this time, the second oil immersion groove 2334 is adapted to the second roller, so as to ensure that the full contact area of the second roller and the second track 2332 can be fully lubricated, and at the same time, when the second roller is embedded in the second oil immersion groove 2334, the second oil immersion groove 2334 can limit the lateral deviation of the second roller in the horizontal direction, thereby preventing the lateral deviation of the transfer platform 2110, and ensuring the stability of the transfer process.

[0070] Referring to Figure 1 , Figure 7 and Figure 8 ​As shown, in some embodiments, the lifting mechanism 3100 includes a lifting base 3110, a lifting drive 3120, and a mounting assembly 3130. The lifting base 3110 is connected with the housing 10 for providing bottom support. The lifting drive 3120 is disposed on the lifting base 3110 and electrically connected with the control module 40. The lifting drive 3120 is controlled by the control module 40, and the lifting drive 3120 is drivingly connected with the mounting assembly 3130. The lifting drive 3120 can be controlled by the control module 40 to drive the mounting assembly 3130 to lift along the vertical direction, so as to adjust the height of the cutting mechanism 3200 to adapt to the batch cutting requirement of core samples with different diameters. For example, the lifting drive 3120 can be in the form of a lead screw driving structure, so as to accurately control the lifting height of the cutting mechanism 3200. Of course, it should be understood that in other alternative embodiments, the lifting drive 3120 can also adopt other driving modes such as an electric push rod or a hydraulic cylinder.

[0071] The cutting mechanism 3200 includes a cutting drive 3210, a cutting transmission assembly 3240, a cutting tool 3220, and a soundproof cover 3230. The cutting drive 3210 is disposed on the mounting assembly 3130 and electrically connected with the control module 40. The cutting drive 3210 is drivingly connected with the cutting transmission assembly 3240, and the cutting tool 3220 is connected with the cutting transmission assembly 3240. The cutting drive 3210 is controlled by the control module 40. The cutting drive 3210 can be controlled by the control module 40 to drive the cutting transmission assembly 3240, and then drive the cutting tool 3220 to move to cut the core sample. For example, the cutting drive 3210 can be a motor, which drives the cutting tool 3220 to rotate at high speed to cut the core sample. The soundproof cover 3230 is connected with the mounting assembly 3130, and the soundproof cover 3230 is disposed on at least one side of the cutting tool 3220, for example, the soundproof cover 3230 can be disposed on the top or any side 2213b of the cutting tool 3220. The soundproof cover 3230 is made of soundproof material such as soundproof cotton, so as to absorb the noise generated by the cutting tool 3220 when cutting the core sample.

[0072] Through the above structural design, when it is necessary to cut the core sample, the core sample is fixed in the cutting area, then the cutting mechanism 3200 connected with the mounting assembly 3130 is driven by the lifting drive 3120 to descend to the cutting area, and the cutting tool 3220 is driven by the cutting drive 3210 to rotate to cut the core sample. When the core sample is cut, the cutting mechanism 3200 is driven by the lifting drive 3120 to rise and retreat to the initial position, and the cutting drive 3210 is turned off, so as to complete the cutting process. Thus, the core sample cutting system 1 of the embodiment of the application can realize automatic batch cutting by cooperation of the lifting mechanism 3100 and the cutting mechanism 3200, avoid manual adjustment error, and improve cutting efficiency. Moreover, the soundproof cover 3230 can effectively isolate the noise generated in the cutting process, and improve the cutting working environment.

[0073] Referring to Figure 7 and Figure 8 As shown in FIG. 13, in some embodiments, the mounting assembly 3130 includes a first mounting member 3131 connected with the output end of the lifting drive 3120, and a second mounting member 3132 connected with the first mounting member 3131. The first mounting member 3131 has a mounting passage 3133 inside and through the first mounting member 3131. The second mounting member 3132 is provided with a mounting hole 3134 coaxially arranged with the mounting passage 3133. The cutting drive 3210 is arranged on the first mounting member 3131, and the cutting tool 3220 is arranged between the mounting passage 3133 and the mounting hole 3134. The cutting tool 3220 is rotatably connected with the mounting passage 3133 and the mounting hole 3134 through bearings, forming a stable double fulcrum support structure to reduce the shaking of the cutting tool 3220 and improve the cutting accuracy. The soundproof cover 3230 is connected with the second mounting member 3132, and is spaced apart from and covers the periphery of the cutting tool 3220. Since the soundproof cover 3230 is directly connected with the second mounting member 3132 and is closer to the cutting area, the noise isolation effect can be enhanced.

[0074] And the cutting transmission assembly 3240 includes a central shaft 3241, a transmission belt 3242 and a support 3243, the cutting transmission assembly 3240 connects the cutting driver 3210 and the cutting tool 3220, can buffer the vibration between the cutting driver 3210 and the cutting tool 3220, and avoid overloading damage to the cutting driver 3210. The central shaft 3241 is arranged in the mounting channel 3133 and the mounting hole 3134, and the cutting tool 3220 is fixed on the central shaft 3241. Specifically, one end of the central shaft 3241 is rotatably connected with the second mounting member 3132 through a bearing and the mounting hole 3134, the other end of the central shaft 3241 passes through the mounting channel 3133 and is rotatably connected with the first mounting member 3131 through a bearing and the mounting channel 3133. And the other end of the central shaft 3241 extends out of the mounting channel 3133 and is connected to the output end of the cutting driver 3210 through the transmission belt 3242, for example, the transmission belt 3242 can be a belt, the transmission belt 3242 can buffer the vibration, reduce the noise, and avoid overloading damage to the cutting driver 3210. The support 3243 is sleeved on the outside of the central shaft 3241 and arranged in the mounting channel 3133, for example, the support 3243 can be a rigid sleeve, which is sleeved on the outside of the central shaft 3241 and is in interference fit with the mounting channel 3133, the support 3243 can enhance the rigidity of the central shaft 3241, has strong impact resistance, improves the load capacity of the central shaft 3241, and allows cutting of harder materials. The cutting tool 3220 is connected with the central shaft 3241 and arranged between the mounting channel 3133 and the mounting hole 3134, and the soundproof cover 3230 is connected with the second mounting member 3132. The cutting tool 3220 is coaxially installed with the central shaft 3241, the mounting channel 3133 and the mounting hole 3134, so as to reduce eccentric vibration, improve cutting stability and reduce core sample damage caused by vibration.

[0075] Referring to Figure 7 As shown in the drawings, in some embodiments, the mounting assembly 3130 further includes a lubricating member 3135 arranged on the outer surface of the first mounting member 3131, the lubricating member 3135 has a lubricating channel in communication with the side surface 2213b of the mounting channel 3133, and the lubricating channel is configured to convey lubricating substances to the mounting channel 3133. For example, the lubricating member 3135 can be selected as a grease cup or an oil pump, and the lubricating channel in the interior thereof is in communication with the side surface 2213b of the mounting channel 3133. The lubricating member 3135 is manually or automatically injected with lubricating substances, for example, the lubricating substances can be lubricating oil, so as to lubricate the interior of the mounting channel 3133, reduce friction loss when the cutting tool 3220 rotates relative to the mounting channel 3133, prolong the service life of the cutting tool 3220 and the mounting assembly 3130, and after lubrication, the rotation resistance is reduced, the energy consumption of the cutting driver 3210 can be reduced.

[0076] Continuing to refer to Figure 7As shown, in some embodiments, the second mounting member 3132 includes a connecting plate 3132a and a mounting plate 3132b, and the second mounting member 3132 adopts a split design to facilitate installation and maintenance. Specifically, the connecting plate 3132a is flat, one end of the connecting plate 3132a is connected with the first mounting member 3131, and the other end of the connecting plate 3132a extends away from the first mounting member 3131 in the horizontal direction and is connected with the mounting plate 3132b. For example, the connecting plate 3132a can be bolted with the first mounting member 3131 to provide structural support. The mounting plate 3132b is flat and extends in the vertical direction. The mounting plate 3132b is provided with a mounting hole 3134 coaxially arranged with the mounting channel 3133, and the coaxial arrangement can ensure the stability of the cutting tool 3220 during rotation, avoiding cutting deflection caused by the axis offset of the cutting tool 3220.

[0077] Moreover, the axial direction of the mounting hole 3134 is perpendicular to the lifting direction of the lifting mechanism 3100, and the lifting direction of the lifting mechanism 3100 is the vertical direction. At this time, the axis of the cutting tool 3220 is perpendicular to the lifting direction of the lifting mechanism 3100, which facilitates accurate control of the cutting angle during lifting.

[0078] Referring to Figure 8 As shown, in some embodiments, the cutting tool 3220 includes a connecting sleeve 3221, a fixed disc 3222, and a cutting blade 3223. The connecting sleeve 3221 is sleeved outside the central shaft 3241, for example, the connecting sleeve 3221 can be arranged on the central shaft 3241 through key connection, and can rotate with the central shaft 3241 and transmit torque. The fixed disc 3222 is sleeved outside the connecting sleeve 3221 and is fixed by bolts, which is used to mount the cutting blade 3223. The cutting blade 3223 is arranged around the outside of the fixed disc 3222, for example, the cutting blade 3223 can adopt an integral or welded diamond blade, which has strong wear resistance and high cutting edge flatness. Moreover, by adopting the detachable design of the fixed disc 3222, the cutting blade 3223 can be replaced, and the tool type and size can be flexibly replaced according to the core sample specifications in actual application.

[0079] Continuing to refer to Figure 8As shown, in some embodiments, the soundproof cover 3230 includes a top plate 3231, a first side plate 3232 and a second side plate 3233, which can be made of soundproofing material. The top plate 3231 is connected with the mounting assembly 3130 and is arranged on the top of the cutting tool 3220. The top plate 3231 is a flat plate structure to cover the top of the cutting tool 3220 and block the vertical noise propagation. The first side plate 3232 and the second side plate 3233 are respectively connected with the two sides of the top plate 3231. The first side plate 3232 and the second side plate 3233 are both flat plate structures, and the first side plate 3232 and the second side plate 3233 are arranged extending from the edge of the top plate 3231 towards the cutting tool 3220. Specifically, the first side plate 3232 and the second side plate 3233 are arranged on the opposite sides of the cutting tool 3220 in a direction perpendicular to the axial direction of the mounting hole 3134, wherein the axial direction of the mounting hole 3134 is the horizontal direction. The first side plate 3232 and the second side plate 3233 are arranged on the two sides of the cutting tool 3220 in the horizontal direction and are connected with the top plate 3231 to form a U-shaped soundproof cavity, which can wrap three sides of the cutting area. The three-side wrapping structure can isolate noise in all directions, achieve three-dimensional noise reduction, improve the noise reduction effect, and at the same time, the soundproof cover 3230 can act as a protective barrier to prevent cutting debris from splashing and improve the operation safety.

[0080] Referring to Figure 1 and Figure 9As shown, in some embodiments, the core sample cutting device 30 further comprises a cooling mechanism 3300 for cooling the cutting tool 3220. Specifically, the cooling mechanism 3300 comprises a cooling driving member 3310, a cooling pipeline 3320, a distribution member 3330 and a filter 3350. The inlet of the cooling pipeline 3320 is connected to a cooling liquid source, for example, the cooling liquid can be cooling water or cutting fluid. The cooling driving member 3310 is arranged on the cooling pipeline 3320 and is electrically connected to the control module 40, for example, the cooling driving member 3310 can be a water pump, which is controlled by the control module 40 to adjust the flow of the cooling liquid. The inlet of the cooling pipeline 3320 is connected to the filter 3350, which has a filter screen to filter impurities such as debris, prevent pipeline blockage, reduce wear of the cooling driving member 3310 and the distribution member 3330, and prolong the service life of the cooling mechanism 3300. In particular, when the cooling liquid washes the cutting tool 3220, it will accumulate at the bottom of the shell 10 to form a certain amount of cooling waste liquid. At this time, the filter 3350 can be immersed in the cooling waste liquid at the bottom of the shell 10, so that the cooling waste liquid is recycled for the cooling process, thereby improving the utilization rate of the cooling liquid and reducing the cooling cost. The outlet of the cooling pipeline 3320 is connected to the distribution member 3330, which is connected to the mounting assembly 3130. The distribution member 3330 has a plurality of liquid outlets corresponding to different positions of the cutting tool 3220. The distribution member 3330 can disperse the liquid flow from the cooling pipeline 3320 into multiple liquid flows, which are discharged through the multiple liquid outlets, respectively, so as to deliver multiple cooling liquid flows to the cutting tool 3220 to uniformly cool different positions of the cutting tool 3220, improve the cooling effect, and avoid thermal damage to the cutting tool 3220 caused by high temperature. Moreover, the cooling liquid can also remove cutting debris to prevent the accumulation of debris from affecting the cutting precision and prolong the service life of the cutting tool 3220.

[0081] To improve the dispersion effect of the cooling liquid, in some embodiments, the cooling mechanism 3300 further comprises a nozzle 3340 in communication with the liquid outlet of the distribution member 3330. The nozzle 3340 can be bendably arranged. For example, the nozzle 3340 can be made of metal hose material, so that its spray angle can be adjusted. In this way, the multiple liquid outlets of the distribution member 3330 are respectively provided with the bendable nozzles 3340, which can further improve the dispersion effect, increase the coverage area of the cooling liquid, and also adapt to different cutting angle requirements, so that the cooling liquid can accurately aim at the cutting point to improve the cooling efficiency.

[0082] Referring to Figure 2 and Figure 3As shown, in some embodiments, the shell 10 has a receiving cavity 11, the core sample transfer device 20 and the core sample cutting device 30 are arranged in the receiving cavity 11, and the inner wall of the shell 10 is provided with a sound insulation layer. For example, the shell 10 has a generally cuboid box structure, and the sound insulation layer can be made of sound insulation cotton to reduce the noise of the core sample cutting system 1. Further, the sound insulation layer can cooperate with the sound insulation cover 3230 to effectively insulate the noise generated during the cutting process. In addition, the shell 10 can also be sealed, for example, the shell 10 is made of a suitable thickness of plate material, or the shell 10 is coated with sealing glue at the joint of the plate material, or the opening door of the shell 10 is locked to close the receiving cavity 11 inside the shell 10, or other sealing measures are used to improve the sealing effect, thereby reducing the working noise. Thus, in this embodiment, the shell 10 is sealed (plate thickness, joint treatment, locking measures, etc.) and the sound insulation layer is arranged on the inner wall of the shell 10 to absorb sound and reduce noise, so that the core sample cutting system 1 has the characteristics of low working noise.

[0083] In addition, the bottom of the shell 10 is provided with a transfer wheel 51 and a load-bearing foot cup 52, for example, the transfer wheel 51 can be a universal wheel, which facilitates the movement and fixation of the core sample cutting system 1. In addition, the shell 10 is provided with at least one of an observation window 60, a dust removal fan 70 and a warning light 80. The observation window 60 facilitates observation of the cutting process, the dust removal fan 70 and the warning light 80 are electrically connected with the control module 40, the dust removal fan 70 can be regularly cleaned, and the warning light 80 can alarm when an abnormality occurs during the cutting process, so that the operator can timely solve the abnormal problem.

[0084] The technical features of the above-mentioned embodiments can be combined arbitrarily. In order to make the description simple, not all possible combinations of the technical features in the above-mentioned embodiments are described, but as long as the combinations of the technical features do not exist contradictory, they should be considered as the scope of the present application.

[0085] The above-mentioned embodiments only express several implementation manners of the present application, and the description is more specific and detailed, but it should not be understood as a limitation on the patent scope of the application. It should be pointed out that for ordinary skilled in the art, without departing from the concept of the present application, a number of modifications and improvements can be made, which are all within the protection scope of the present application. Therefore, the protection scope of the patent of the present application should be subject to the appended claims.

Claims

1. A core sample cutting system characterized by, The core sample cutting system comprises: a housing; a core sample transfer device, the core sample transfer device comprising a transfer mechanism and a clamping mechanism, the transfer mechanism being movably connected to the housing, the clamping mechanism being connected to the transfer mechanism, the clamping mechanism being configured to clamp or release a core sample; a core sample cutting device, the core sample cutting device comprising a lifting mechanism and a cutting mechanism, the lifting mechanism being arranged on the housing, the lifting mechanism being drivingly connected to the cutting mechanism, the cutting mechanism being configured to cut a core sample; a control module, the control module being electrically connected to the transfer mechanism, the lifting mechanism and the cutting mechanism; the clamping mechanism comprises a carrier and a clamping piece, the carrier being connected to the transfer mechanism, the carrier forming a receiving groove, the receiving groove having a bottom surface and a side surface, the bottom surface being obliquely arranged, and the depth of the receiving groove gradually increasing towards the side surface, the clamping piece being connected to the transfer mechanism, the clamping piece being configured to clamp or release a core sample in cooperation with the carrier; the core sample transfer device further comprises a supporting mechanism, the supporting mechanism comprising a supporting seat and a rack, the supporting seat being connected to the housing, the rack being connected to the supporting seat and being arranged in a straight line; the transfer mechanism comprises a transfer platform and a driving assembly, the transfer platform being connected to the clamping mechanism, the driving assembly comprising a power piece and a driving gear, the power piece being connected to the transfer platform and being electrically connected to the control module, the power piece being drivingly connected to the driving gear, the driving gear being engaged with the rack; the supporting mechanism further comprises a guide rail assembly, the guide rail assembly comprising a first rail and a second rail, the first rail and the second rail being respectively connected to the supporting seat, the first rail and the second rail being arranged in parallel to the rack, the first rail being formed with a first oil immersion groove, the first oil immersion groove having a rectangular cross section, the second rail being formed with a second oil immersion groove, the second oil immersion groove having an inverted triangular or inverted trapezoidal cross section; the transfer mechanism further comprises a roller assembly, the roller assembly comprising a plurality of first rollers and a plurality of second rollers, the first rollers being cylindrical, the first rollers being rollingly fitted with the first rail through the first oil immersion groove, the second rollers gradually narrowing in width towards the edges, the second rollers being rollingly fitted with the second rail through the second oil immersion groove.

2. The core sample cutting system of claim 1, wherein, the carrier comprises a carrier portion and a limiting portion, the carrier portion being connected to the transfer mechanism, the limiting portion being connected to the carrier portion and forming the receiving groove, the thickness of the carrier portion gradually decreasing towards the limiting portion, the carrier portion constituting the bottom surface of the receiving groove, the limiting portion constituting the side surface of the receiving groove.

3. The core sample cutting system of claim 1, wherein, the clamping piece comprises a connecting portion, a fastening portion and a buffer pad, the connecting portion being movably connected to the transfer mechanism, the fastening portion being connected to the connecting portion, the fastening portion being arranged opposite to the receiving groove, the buffer pad being arranged on one side of the fastening portion facing the receiving groove.

4. The core sample cutting system of claim 1, wherein, The lifting mechanism comprises a lifting base, a lifting driving element and a mounting assembly, the lifting base is connected with the shell, the lifting driving element is arranged on the lifting base and is electrically connected with the control module, and the lifting driving element is drivingly connected with the mounting assembly; The cutting mechanism comprises a cutting driving element, a cutting transmission assembly, a cutting tool and a soundproof cover, the cutting driving element is arranged on the mounting assembly and is electrically connected with the control module, the cutting driving element is drivingly connected with the cutting transmission assembly, the cutting tool is connected with the cutting transmission assembly, and the soundproof cover is connected with the mounting assembly and arranged on at least one side of the cutting tool.

5. The core sample cutting system of claim 4, wherein, The mounting assembly comprises a first mounting element and a second mounting element, the first mounting element is connected with the output end of the lifting driving element, the first mounting element has a mounting channel in the interior, and the second mounting element is connected with the first mounting element and is provided with a mounting hole coaxially arranged with the mounting channel. The cutting transmission assembly comprises a central shaft, a transmission belt and a support, the central shaft is arranged in the mounting channel and the mounting hole and is rotationally connected with the first mounting element and the second mounting element, the cutting driving element is arranged on the first mounting element, the transmission belt is connected between the central shaft and the cutting driving element, the support is arranged outside the central shaft and in the mounting channel, the cutting tool is connected with the central shaft and arranged between the mounting channel and the mounting hole, and the soundproof cover is connected with the second mounting element.

6. The core sample cutting system of claim 5, wherein, The soundproof cover comprises a top plate, a first side plate and a second side plate, the top plate is connected with the mounting assembly and arranged on the top of the cutting tool, the first side plate and the second side plate are respectively connected with the top plate, and the first side plate and the second side plate are arranged on opposite sides of the cutting tool in a direction perpendicular to the axis of the mounting hole.

7. The core sample cutting system of claim 4, wherein, The core sample cutting device further comprises a cooling mechanism, the cooling mechanism comprises a cooling driving element, a cooling pipeline, a liquid distributor and a filter tip, the cooling driving element is arranged on the cooling pipeline and is electrically connected with the control module, the inlet of the cooling pipeline is connected with the filter tip, the outlet of the cooling pipeline is connected with the liquid distributor, the liquid distributor is connected with the mounting assembly, and the liquid distributor is provided with a plurality of liquid outlets configured to deliver cooling liquid to the cutting tool.

8. The core sample cutting system of claim 1, wherein, The shell has a receiving cavity, the core sample transfer device and the core sample cutting device are arranged in the receiving cavity, and the inner wall of the shell is provided with a sound insulation layer.

9. The core sample cutting system of claim 1, wherein, The bottom of the shell is provided with a transfer wheel and a load-bearing foot cup.

10. The core sample cutting system of claim 1, wherein, The shell is provided with an observation window, a dust removal fan and / or a warning light, the dust removal fan and the warning light are electrically connected with the control module.

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