Node seismograph vehicle-mounted storage device

Abstract

The utility model discloses a node seismograph vehicle-mounted storage device. The node seismograph vehicle-mounted storage device comprises a carriage and a plurality of storage racks, the carriage comprises a top rail and a bottom rail, the top rail is fixedly connected with the inner top of the carriage, and the bottom rail is fixedly connected with the inner bottom of the carriage; the storage rack comprises a central stand column, a plurality of single-layer instrument trays, a rack body bottom plate and a rack body top plate; the central stand column sequentially penetrates through the mounting holes of the single-layer instrument panels and then is fixedly connected with the single-layer instrument panels; the top end and the bottom end of the center stand column are fixedly connected with the frame body top plate and the frame body bottom plate through bearings correspondingly. The top end of the storage frame is in sliding connection with the top rail, and the bottom end of the storage frame is in sliding connection with the bottom rail. Therefore, the design can completely cover the storage positions of all seismographs, so that all seismographs can be quickly taken and used, and the seismic exploration operation efficiency is relatively high.

Description

TECHNICAL FIELD

[0001] The utility model relates to a kind of storage devices, belong to seismic exploration field, especially a kind of node seismic instrument vehicle storage device. BACKGROUND

[0002] As a kind of key geophysical exploration means, seismic exploration is mainly through the propagation characteristics of seismic wave in the crust to reveal the attribute and structure of underground rock formation, in a seismic exploration process, usually need to use hundreds of node seismic instruments to carry out data acquisition. At present, the storage of node seismic instrument mainly uses special box, each box can only accommodate 10-20 devices;Due to the limited capacity of single box, a plurality of boxes need to be equipped for a single exploration task, and multiple handling is needed. At the same time, in the process of seismic exploration, the operator needs to spend a lot of time and energy to take the instrument from multiple boxes one by one. This storage method not only leads to low utilization of storage space, but also makes the handling and taking operation cumbersome, thereby significantly reducing the efficiency of seismic exploration operation. Therefore, the utility model provides a kind of node seismic instrument vehicle storage device to improve the efficiency of seismic exploration operation.

[0003] The Chinese patent application with application number 202310261243. X and application date March 17, 2023 discloses a kind of wireless seismic instrument field burying equipment and working method, the equipment includes module square storehouse, module square storehouse is equipped with drum stock bin, drum stock bin one side is equipped with drill cloth integrated machine and manipulator;Drum stock bin includes drum stock bin support, the center shaft of drum stock bin support is connected with driven sprocket at one end, the inner side of two drum stock bin supports is equipped with a turntable, two turntables are hinged with the outer side wall of code frame, the wireless seismic instrument is placed in code frame;Drill cloth integrated machine includes mobile platform backboard, mobile platform backboard outer side is equipped with guide rail, the top of guide rail is equipped with first hydraulic cylinder, fixed connection plate top is equipped with hydraulic motor, fixed connection plate outer side is hinged with oil cylinder, oil cylinder is hinged with lower pressing half cylinder, lower pressing half cylinder lower side is equipped with soil pressing outer sleeve and limiting cylinder, limiting cylinder side wall is connected with slide guide cylinder;Manipulator can clamp wireless seismic instrument in code frame, and send into drill cloth integrated machine. Although the patent can realize automatic, high-precision seismic instrument burying, it still has the following defects:

[0004] The design cannot completely cover all seismic instrument storage positions, making it difficult to quickly access some seismic instruments, thereby resulting in low efficiency of seismic exploration operation.

[0005] The information disclosed in this background section is intended only to increase an understanding of the general context of the present patent application, and should not be taken as an acknowledgement or any form of suggestion that this information forms prior art that is already widely known in the art. SUMMARY

[0006] The node seismic instrument vehicle storage device can completely cover all seismic instrument storage positions, all seismic instruments can be quickly taken, and the efficiency of seismic exploration operation is higher.

[0007] To achieve the above object, the technical solution of the utility model is as follows: a node seismic instrument vehicle storage device, the node seismic instrument vehicle storage device comprises a carriage, a plurality of storage racks;

[0008] The carriage comprises a top rail and a bottom rail; the top rail corresponds to the bottom rail, the top rail is fixedly connected with the inner top of the carriage, and the bottom rail is fixedly connected with the inner bottom of the carriage.

[0009] The storage rack comprises a center column, a plurality of single-layer instrument panels, a rack bottom plate and a rack top plate; a through mounting hole is formed in the center of each single-layer instrument panel, the center column passes through the mounting hole of each single-layer instrument panel in sequence, and each single-layer instrument panel is fixedly connected with the middle part of the center column; the top end of the center column is fixedly connected with the rack top plate through a bearing, and the bottom end of the center column is fixedly connected with the rack bottom plate through a bearing.

[0010] The top end of the storage rack is slidably connected with the top rail, and the bottom end of the storage rack is slidably connected with the bottom rail.

[0011] The node seismic instrument vehicle storage device further comprises a vehicle-mounted computer, and the vehicle-mounted computer is located in the carriage.

[0012] A plurality of data lines are arranged in the center column, one end of the data line extends out of the bottom end of the center column, and the other end of the data line extends out of each single-layer instrument panel.

[0013] The node seismic instrument vehicle storage device further comprises a plurality of vehicle-mounted power supplies, and the vehicle-mounted power supplies are located in the carriage.

[0014] A plurality of charging lines are further arranged in the center column, one end of the charging line extends out of the bottom end of the center column, and the other end of the charging line extends out of each single-layer instrument panel.

[0015] The storage rack further comprises a plurality of directional pulleys.

[0016] The upper ends of the directional pulleys are fixedly connected with the rack bottom plate and the rack top plate respectively, and the wheel surfaces of the directional pulleys are slidably connected with the top rail and the bottom rail respectively.

[0017] The single-layer instrument panel comprises a plurality of instrument installation positions;

[0018] The instrument installation position comprises an inner partition and an outer partition;

[0019] The bottom of the outer partition is fixedly connected with the upper surface of the single-layer instrument panel;

[0020] The outer side of the inner partition is tightly attached to the inner wall of the outer partition.

[0021] The instrument installation position further comprises a taking and placing opening;

[0022] The taking and placing opening is movably connected with the side of the outer partition away from the central column.

[0023] The material of the inner partition is foam or sponge;

[0024] The material of the outer partition is any one of plastic, stainless steel and wood.

[0025] The top rail and the bottom rail are respectively provided with sliding outlets at the carriage outlet.

[0026] The node seismograph vehicle storage device further comprises a gentle slope, one side of the gentle slope is connected with the carriage outlet side, and the other side of the gentle slope is in contact with the ground.

[0027] The sliding track is arranged on the slope surface of the gentle slope;

[0028] One end of the sliding track is connected with the sliding outlet of the bottom rail.

[0029] Compared with the prior art, the utility model has the beneficial effects that:

[0030] 1. A node seismograph vehicle storage device, the storage rack comprises a center column, a plurality of single-layer instrument trays, a rack bottom plate and a rack top plate, the two ends of the center column are fixedly connected with the rack top plate and the rack bottom plate through bearings, and the two ends of the storage rack are slidably connected with the top rail and the bottom rail in the vehicle compartment; in application, the storage rack is first moved along the top rail and the bottom rail in the vehicle compartment to the vehicle compartment outlet position, then the node seismographs are sequentially placed in the single-layer instrument trays, after one storage rack is filled, it is moved along the top rail and the bottom rail to the inside of the vehicle compartment, and the empty storage rack is moved to the vehicle compartment outlet position for continuous placement, the operation is repeated until all the storage racks are filled, and the seismographs can be transported, since the storage rack is distributed with a plurality of single-layer instrument trays from bottom to top, and a plurality of storage racks can be arranged in the vehicle compartment, the single storage capacity can reach four hundred instruments, the utilization rate of the vehicle compartment space is improved, the single storage capacity of the seismographs is improved, and the demand of large-scale exploration tasks is met, since the rack bottom plate and the rack top plate are connected with the center column through bearings, the storage rack can rotate around the center column, the seismographs at different positions in the same layer are convenient to take and place, and since the two ends of the storage rack are slidably connected with the top rail and the bottom rail in the vehicle compartment, the position of the storage rack in the vehicle compartment is convenient to adjust, so that the taking and placing of the seismographs on different storage racks are more convenient, the combination of the two can completely cover all the seismograph storage positions, all the seismographs can be quickly taken and used, and the seismic exploration operation efficiency is improved.

[0031] 2. In the node seismograph vehicle storage device, the node seismograph vehicle storage device further comprises a vehicle computer in the vehicle compartment, a plurality of data lines are arranged in the center column, one end of the data line extends from the bottom end of the center column, and the other end extends from each single-layer instrument tray; in application, the seismographs with collected data are first recovered, then sequentially placed in the storage rack, then one end of the data line extending from the bottom end of the center column is connected with the vehicle computer, and the other end of the data line extending from each single-layer instrument tray is connected with the seismograph, so that the data of the seismographs on the storage rack can be downloaded at one time, the recovered seismographs do not need to be placed in a specific device for re-placement and data download, the data download efficiency is improved, the operation time of the seismographs in the data transmission process is reduced, and the risk of equipment damage or data loss caused by frequent handling and re-placement of the seismographs is avoided.

[0032] 3. The node seismograph vehicle storage device further comprises a plurality of vehicle power supplies in the vehicle compartment, and a plurality of charging lines are arranged in the central column, one end of each charging line extends from the bottom end of the central column, and the other end of each charging line extends from each single-layer instrument panel; in use, during the charging of the seismograph, one end of the charging line extending from the bottom end of the central column is connected with the vehicle power supply, and the other end of the charging line extending from each single-layer instrument panel is connected with the seismograph needing to be charged on the storage rack, so that the seismographs on the storage rack can be charged at one time, and the seismographs do not need to be additionally charged by using a charging device, the charging efficiency is greatly improved, space and equipment cost are saved, meanwhile, the seismographs can be kept in the same device during storage and charging, the damage risk caused by frequent movement of the equipment is reduced, and the service life and reliability of the equipment are further improved. Therefore, the utility model not only has the storage function, but also has the charging function.

[0033] 4. The node seismograph vehicle storage device, the instrument installation position comprises an inner side partition layer and an outer side partition layer, the material of the inner side partition layer is foam or sponge, and the material of the outer side partition layer is any one of plastic, stainless steel and wood; in use, the seismograph is in contact with the inner side partition layer, the inner side partition layer is made of soft material and can effectively buffer the collision of the seismograph during storage and transportation, and the outer side partition layer is made of hard material and provides additional protection for the seismograph to resist external impact. Therefore, the utility model not only has the storage function, but also enhances the protection effect of the seismograph.

[0034] 5. The node seismograph vehicle storage device further comprises a gentle slope, one side of the gentle slope is connected with the vehicle compartment exit side, the other side of the gentle slope is in contact with the ground, a sliding track is arranged on the slope surface of the gentle slope, and one end of the sliding track is connected with the sliding outlet of the bottom track; in use, one side of the gentle slope is connected with the vehicle compartment exit side, the sliding track on the gentle slope is aligned with the sliding outlet of the bottom track, the other side of the gentle slope is aligned with the corresponding track on the ground of the warehouse, a continuous sliding path from the vehicle compartment to the warehouse is formed, the storage rack loaded with the seismographs is slid through the bottom track and the top track in the vehicle compartment to the vehicle compartment exit side, and then is stably moved to the track on the ground of the warehouse through the sliding outlet and the sliding track on the gentle slope, so that the storage rack is moved along the track to the warehouse interior, the cumbersome operation of multiple times of carrying and placing the seismographs is effectively reduced, damage caused in the carrying process is avoided, and the storage and management efficiency of the seismographs is improved. Therefore, the utility model not only enhances the protection effect of the seismographs, but also improves the safety and reliability of the overall operation. BRIEF DESCRIPTION OF DRAWINGS

[0035] Figure 1 It is a structural schematic diagram of the utility model.

[0036] Figure 2 is the plan view of the utility model.

[0037] Figure 3 is the structure diagram of the storage rack in the utility model.

[0038] Figure 4 is the plan view of the storage rack in the utility model.

[0039] Figure 5 is the structure diagram of the node seismograph in the utility model.

[0040] Figure 6 is the structure diagram of the instrument installation position in the utility model.

[0041] In the drawing: carriage 1, top rail 11, bottom rail 12, sliding outlet 13, storage rack 2, center column 21, single-layer instrument panel 22, mounting hole 221, instrument installation position 222, inner side partition 223, outer side partition 224, taking and placing opening 225, rack body bottom plate 23, directional pulley 24, fixing device 241, rack body top plate 25, vehicle-mounted computer 3, data line 31, vehicle-mounted power supply 4, charging wire 41, gentle slope 5, sliding rail 51, seismograph 6, vehicle head 7. DETAILED DESCRIPTION

[0042] The utility model is further explained in detail in connection with the drawings, specific embodiments and specific embodiments.

[0043] Referring to Figure 1 — Figure 6 A node seismograph vehicle-mounted storage device, the node seismograph vehicle-mounted storage device includes carriage 1, a plurality of storage racks 2;

[0044] The carriage 1 includes top rail 11, bottom rail 12;The top rail 11 corresponds with bottom rail 12, the top rail 11 is fixedly connected with the inner top of carriage 1, and the bottom rail 12 is fixedly connected with the inner bottom of carriage 1.

[0045] The storage rack 2 includes center column 21, a plurality of single-layer instrument panels 22, rack body bottom plate 23 and rack body top plate 25;Each single-layer instrument panel 22 is provided with through mounting hole 221 in the center, the center column 21 passes through the mounting hole 221 of each single-layer instrument panel 22 in turn, and each single-layer instrument panel 22 is fixedly connected with the middle part of center column 21;The top end of center column 21 is fixedly connected with rack body top plate 25 through bearing, and the bottom end of center column 21 is fixedly connected with rack body bottom plate 23 through bearing.

[0046] The top end of the storage rack 2 is in sliding connection with the top rail 11, and the bottom end of the storage rack 2 is in sliding connection with the bottom rail 12.

[0047] The node seismograph vehicle storage device further comprises a vehicle computer 3 located in the vehicle cabin 1.

[0048] The center column 21 is internally provided with a plurality of data lines 31, one end of the data line 31 extending from the bottom end of the center column 21, and the other end of the data line 31 extending from each single-layer instrument panel 22.

[0049] The node seismograph vehicle storage device further comprises a plurality of vehicle power supplies 4 located in the vehicle cabin 1.

[0050] The center column 21 is further internally provided with a plurality of charging lines 41, one end of the charging line 41 extending from the bottom end of the center column 21, and the other end of the charging line 41 extending from each single-layer instrument panel 22.

[0051] The storage rack 2 further comprises a plurality of directional pulleys 24.

[0052] The upper end of the directional pulley 24 is fixedly connected with the rack bottom plate 23 and the rack top plate 25 respectively, and the wheel surface of the directional pulley 24 is in sliding connection with the top rail 11 and the bottom rail 12 respectively.

[0053] The single-layer instrument panel 22 comprises a plurality of instrument mounting positions 222.

[0054] The instrument mounting position 222 comprises an inner side partition layer 223 and an outer side partition layer 224.

[0055] The bottom of the outer side partition layer 224 is fixedly connected with the upper surface of the single-layer instrument panel 22.

[0056] The outer side of the inner side partition layer 223 is tightly fitted with the inner wall of the outer side partition layer 224.

[0057] The instrument mounting position 222 further comprises a taking and placing opening 225.

[0058] The taking and placing opening 225 is movably connected with the side of the outer side partition layer 224 away from the center column 21.

[0059] The material of the inner side partition layer 223 is foam or sponge.

[0060] The material of the outer side partition layer 224 is any one of plastic, stainless steel, and wood.

[0061] The top rail 11 and the bottom rail 12 are respectively provided with a sliding exit 13 at the exit of the vehicle cabin 1.

[0062] The node seismograph vehicle storage device further comprises a gentle slope 5, one side of the gentle slope 5 being connected with the exit side of the carriage 1, and the other side of the gentle slope 5 being in contact with the ground.

[0063] A sliding track 51 is arranged on the slope surface of the gentle slope 5.

[0064] One end of the sliding track 51 is connected with the sliding exit 13 of the bottom track 12.

[0065] The supplementary explanation of the utility model is as follows:

[0066] The utility model preferably connects the carriage 1 with the vehicle head 7 through a traction device, and the vehicle head 7 is equipped with a cab, which is used for towing the carriage 1 to transport, so that all the seismographs 6 stored on the storage rack 2 in the carriage 1 are transported to a designated position to carry out seismic exploration, or are transported back to a warehouse to be stored.

[0067] The utility model preferably fixes and connects the center stand 21 and each single-layer instrument panel 22 through welding or threaded fasteners.

[0068] The utility model preferably determines the number of layers of the single-layer instrument panel 22 according to the size of the carriage 1.

[0069] The utility model preferably determines the number of the storage rack 2 according to the size of the carriage 1.

[0070] The utility model preferably determines the number of layers of the single-layer instrument panel 22 according to the number of the seismographs 6 required for exploration.

[0071] The utility model preferably determines the number of the storage rack 2 according to the number of the seismographs 6 required for exploration.

[0072] The utility model preferably determines that the number of the instrument mounting positions 222 is three to five.

[0073] The utility model preferably determines that the inner diameter of the inner partition layer 223 is 2cm more than the diameter of the seismograph 6, and the thickness is 4-5cm.

[0074] The utility model preferably determines that the diameter of the outer partition layer 224 is 6-7cm more than the diameter of the seismograph 6.

[0075] The utility model preferably determines that the slope of the gentle slope 5 is 15° to 30°.

[0076] The utility model preferably determines that the slope of the gentle slope 5 is 15° to 30°, because the slope of 15° to 30° of the gentle slope 5 can ensure that the storage rack 2 remains stable during sliding, and avoids the storage rack 2 overturning or the seismograph 6 being damaged due to steep slope or too fast sliding speed.

[0077] The utility model discloses preferably that sliding rail 51 and warehouse ground rail all adopt high strength stainless steel material, and the durability and smoothness are ensured.

[0078] The utility model discloses preferably the storage frame 2 still includes fixing device 241, fixing device 241 set up at the lower part of storage frame 2.

[0079] The utility model discloses preferably seismograph 6 is located in single layer instrument panel 22.

[0080] The utility model discloses preferably that data line 31 from the one end of the bottom end of center column 21 stretches out with on -vehicle computer 3 is connected, data line 31 from the one end of the stretch of each single layer instrument panel 22 with seismograph 6 is connected.

[0081] The utility model discloses preferably that charging wire 41 from the one end of the bottom end of center column 21 stretches out with on -vehicle power supply 4 is connected, and charging wire 41 from the one end of the stretch of each single layer instrument panel 22 with seismograph 6 is connected.

[0082] The utility model discloses preferably that the bottom plate 23 of frame body is located at the bottom end of center column 21, and the center of bottom plate 23 is fixedly connected with the outside of one bearing, and the outside of center column 21 is fixedly connected with the inside of this bearing, and the top plate 25 of frame body is located at the top end of center column 21, and the center of top plate 25 is fixedly connected with the outside of another bearing, and the outside of center column 21 is fixedly connected with the inside of this bearing.

[0083] The utility model discloses preferably that the material of inside partition layer 223 is foam or sponge, and the material of outside partition layer 224 is any one of plastic, stainless steel and wood.

[0084] Example 1:

[0085] Referring to Figure 1 — Figure 6The utility model provides a kind of node seismograph vehicle storage device, the node seismograph vehicle storage device includes carriage 1, several storage racks 2;The carriage 1 includes top rail 11, bottom rail 12;The top rail 11 is corresponding with bottom rail 12, the top rail 11 is fixedly connected with the inner top of carriage 1, the bottom rail 12 is fixedly connected with the inner bottom of carriage 1;The storage rack 2 includes center column 21, several single-layer instrument trays 22, rack bottom plate 23, rack top plate 25;Every single-layer instrument tray 22 is centrally provided with through mounting hole 221, the center column 21 sequentially passes through the mounting hole 221 of every single-layer instrument tray 22, and every single-layer instrument tray 22 is fixedly connected with the middle part of center column 21 respectively;The top end of center column 21 is fixedly connected with rack top plate 25 by bearing, and the bottom end of center column 21 is fixedly connected with rack bottom plate 23 by bearing;The top end of storage rack 2 is slidably connected with top rail 11, and the bottom end of storage rack 2 is slidably connected with bottom rail 12.

[0086] When applied, first, the storage rack 2 is moved to the outlet side of the carriage 1 along the top rail 11 and the bottom rail 12, then the seismograph 6 is placed in the single-layer instrument tray 22 of the storage rack 2 in sequence, when one storage rack 2 is full of seismographs 6, the storage rack 2 is slid along the top rail 11 and the bottom rail 12 to the inside of the carriage 1 to vacate space for loading the next storage rack 2, and the above operation is repeated until all the storage racks 2 are placed full, then the carriage 1 can be transported, and after reaching the destination, the storage racks 2 can be slid to the outlet side of the carriage 1 in sequence to facilitate quick unloading of the seismographs 6 for layout; since the storage rack 2 has multiple single-layer instrument trays 22 distributed from bottom to top, and multiple storage racks 2 are arranged in the inside of the carriage 1, the utilization rate of the storage space in the carriage 1 is improved, thereby improving the single storage amount of the seismographs 6, and the single storage amount reaches four hundred instruments to meet the demand of large-scale exploration tasks; when the seismographs 6 need to be taken or placed, the position of the storage rack 2 in the carriage 1 is adjusted through the top rail 11 and the bottom rail 12 to take or place the seismographs 6 on different storage racks 2, and when the seismographs 6 on a single storage rack 2 are taken or placed, since the rack bottom plate 23 and the rack top plate 25 are connected with the center column 21 through bearings, the storage rack 2 can rotate around the center column 21 to facilitate taking or placing the seismographs 6 at different positions in the same layer; the combination of rail sliding and rotating functions can completely cover all the storage positions of the seismographs 6, so that all the seismographs 6 can be quickly taken or placed to improve the efficiency of seismic exploration operation.

[0087] Embodiment 2:

[0088] The basic content is the same as that of embodiment 1, except that the node seismograph vehicle storage device further comprises a vehicle computer 3 located in the vehicle compartment 1; a plurality of data lines 31 are arranged in the center column 21, one end of the data line 31 extends from the bottom end of the center column 21, and the other end of the data line 31 extends from each single-layer instrument panel 22.

[0089] In application, the data collected by the seismograph 6 is first recovered and sequentially placed in the storage rack 2, then one end of the data line 31 extending from the bottom end of the center column 21 is connected with the vehicle computer 3, and the other end of the data line 31 extending from each single-layer instrument panel 22 is respectively connected with the seismograph 6 in the storage rack 2, so as to realize data downloading of all seismographs 6 in the storage rack 2; compared with the traditional method, the seismograph 6 recovered does not need to be placed in a specific data downloading device, the data downloading efficiency is significantly improved, and the risk of equipment damage or data loss caused by frequent moving and placing of the seismograph 6 is avoided.

[0090] Embodiment 3:

[0091] The basic content is the same as that of embodiment 1, except that the node seismograph vehicle storage device further comprises a plurality of vehicle power supplies 4 located in the vehicle compartment 1; a plurality of charging lines 41 are further arranged in the center column 21, one end of the charging line 41 extends from the bottom end of the center column 21, and the other end of the charging line 41 extends from each single-layer instrument panel 22.

[0092] In application, when the seismograph 6 needs to be charged, one end of the charging line 41 extending from the bottom end of the center column 21 is connected with the vehicle power supply 4, and the other end of the charging line 41 extending from each single-layer instrument panel 22 is respectively connected with the seismograph 6 on the storage rack 2 which needs to be charged, so as to realize charging operation of the seismograph 6 in the storage rack 2; compared with the traditional method, the charging device is not needed in the utility model, charging is directly realized by using the vehicle power supply 4 and the charging line 41, the charging efficiency is greatly improved, space and equipment cost are saved, the seismograph 6 can be kept in the same device during storage and charging, the damage risk caused by frequent moving of the equipment is reduced, and the service life and reliability of the equipment are further improved.

[0093] Embodiment 4:

[0094] The basic content is the same as that of embodiment 1, except that the storage rack 2 further comprises a plurality of directional pulleys 24; the upper end of the directional pulley 24 is fixedly connected with the rack body bottom plate 23 and the rack body top plate 25, and the wheel surface of the directional pulley 24 is slidably connected with the top track 11 and the bottom track 12.

[0095] In application, the directional pulley 24 can slide on the top rail 11 and the bottom rail 12, so as to move the storage rack 2 along the rail direction, facilitate adjustment of the position of the storage rack 2 in the compartment 1, and through the sliding connection of the directional pulley 24, the storage rack 2 can be easily and flexibly moved horizontally in the device, so as to ensure more convenient access and placement of the node seismograph 6; in addition, the use of the directional pulley 24 can also reduce the resistance during movement of the storage rack 2, so that the operation is more labor-saving, and the work efficiency is further improved.

[0096] Embodiment 5

[0097] The basic content is the same as that in Embodiment 1, except that the storage rack 2 further comprises a fixing device 241 arranged at the lower part of the storage rack 2.

[0098] In application, after all the storage racks 2 in the compartment 1 are moved to the appropriate positions, the fixing device 241 is used to fix the storage rack 2 on the top rail 11 and the bottom rail 12 in the compartment 1, so as to prevent the storage rack 2 from sliding or collapsing during transportation, through the use of the fixing device 241, not only the stability of the storage rack 2 during transportation is ensured, but also the service life of the seismograph 6 is prolonged, and the maintenance cost is reduced.

[0099] Embodiment 6

[0100] The basic content is the same as that in Embodiment 5, except that the fixing device 241 is any one of the following:

[0101] The fixing device 241 is a mechanical lock, which comprises a base and a lock interface, the base of the mechanical lock is fixedly connected with the directional pulley 24 at the bottom of the storage rack 2, and the lock interface of the mechanical lock is fixedly connected with the bottom rail 12;

[0102] The fixing device 241 is a buckle device, which comprises a buckle base and a buckle interface, the buckle base is fixedly connected with the directional pulley 24 at the bottom of the storage rack 2, and the buckle interface is fixedly connected with the bottom rail 12;

[0103] The fixing device 241 is a magnetic attraction device, which comprises a magnetic attraction base and a magnetic interface, the magnetic interface is fixedly connected with the top rail 11 or the bottom rail 12, and the magnetic attraction base is fixedly connected with the directional pulley 24 at the bottom of the storage rack 2;

[0104] In application, the fixing device 241 is a mechanical lock buckle. When the storage rack 2 is slid to the target position, the lock buckle base is aligned with the lock buckle interface, and the lock buckle is pressed or rotated to complete the fixing. The fixing device 241 is a buckle device. When the storage rack 2 is slid to the target position, the buckle base is aligned with the buckle interface, and the buckle is pressed to complete the fixing. The fixing device 241 is a magnetic attraction device. When the storage rack 2 is slid to the target position, the magnetic attraction base is automatically attracted to the magnetic interface to complete the fixing.

[0105] Example 7

[0106] The basic content is the same as that in Example 1, except that the seismograph 6 is a node seismograph, the diameter of the seismograph 6 is 20 cm, and the height is 20 cm; the storage rack 2 comprises one central column 21 and five single-layer instrument panels 22, the interval distance between each single-layer instrument panel 22 is 30 cm, the single-layer instrument panel 22 comprises four instrument mounting positions 222, the inner diameter of the inner side partition layer 223 of each instrument mounting position 222 is 22 cm, and the thickness of the inner side partition layer 223 is 5 cm; the diameter of the outer side partition layer 224 of each instrument mounting position 222 is 30 cm; 20 storage racks 2 are arranged in the compartment 1.

[0107] In application, according to the size of a single node seismograph, the size of the instrument mounting position 222 is set to be 20-22 cm in diameter of the inner side partition layer 223 and 30 cm in diameter of the outer side partition layer 224. The diameter of the inner side partition layer 223 is slightly larger than the diameter of the node seismograph 6, which can tightly wrap the seismograph 6 to prevent it from shaking during transportation, and is convenient for operators to quickly take and place; the larger diameter of the outer side partition layer 224 provides additional protection space for the seismograph 6 to avoid external impact; in addition, the interval distance between each single-layer instrument panel 22 is 30 cm, which provides sufficient operating space for the storage, access and maintenance of the seismograph 6; this device can accommodate 400 node seismographs 6 at a time, which is suitable for one-time exploration; by optimizing the structural design of the storage rack 2 and the spatial layout of the compartment 1, the capacity of the node seismograph 6 is maximized, and its safety and stability during transportation and storage are ensured, which is particularly suitable for large-scale seismic exploration projects, can significantly improve the exploration efficiency, and reduce the equipment management cost.

[0108] Example 8

[0109] The basic content is the same as that of embodiment 1, except that the single-layer instrument panel 22 comprises a plurality of instrument mounting positions 222; the instrument mounting position 222 comprises an inner partition 223 and an outer partition 224; the bottom of the outer partition 224 is fixedly connected with the upper surface of the single-layer instrument panel 22; the outer side of the inner partition 223 is tightly fitted with the inner wall of the outer partition 224; the instrument mounting position 222 further comprises a taking and placing opening 225, which is movably connected with the side of the outer partition 224 away from the central column 21; the material of the inner partition 223 is foam or sponge; and the material of the outer partition 224 is any one of plastic, stainless steel and wood.

[0110] In application, the taking and placing opening 225 is opened, and the seismograph 6 is sequentially placed into each instrument mounting position 222 in the single-layer instrument panel 22, so that the outer side of the seismograph 6 is in contact with the inner partition 223. The inner partition 223 is made of soft material such as foam or sponge, which can effectively buffer the vibration and collision of the seismograph 6 during storage and transportation, and prevent the seismograph 6 from being damaged. The outer partition 224 is made of hard material such as plastic, stainless steel or wood, which can avoid additional damage to the seismograph 6 caused by external impact. The buffering effect of the inner partition 223 and the protection effect of the outer partition 224 are combined to provide double protection for the seismograph 6, ensuring the safety and stability of the seismograph 6. At the same time, the design of the taking and placing opening 225 not only protects the seismograph 6, but also facilitates the taking and placing operation of the seismograph 6, improving the convenience of use.

[0111] Embodiment 9

[0112] The basic content is the same as that of embodiment 1, except that the top rail 11 and the bottom rail 12 are respectively provided with a sliding opening 13 at the exit of the carriage 1; the node seismograph vehicle storage device further comprises a gentle slope 5, one side of which is connected with the exit side of the carriage 1, and the other side of which is in contact with the ground; the gentle slope 5 is provided with a sliding rail 51 on the slope surface; and one end of the sliding rail 51 is connected with the sliding opening 13 of the bottom rail 12.

[0113] In application, the storage rack 2 is moved from the carriage 1 to the warehouse for storage, the ground of the warehouse is provided with a track matched with the ramp 5, one side of the ramp 5 is connected with the exit side of the carriage 1, the sliding track 51 on the ramp 5 is aligned with the sliding exit 13 of the bottom track 12, the other side of the ramp 5 is aligned with the track of the ground of the warehouse, forming a continuous sliding path from the carriage 1 to the warehouse; then the storage rack 2 provided with the seismograph 6 is slid through the bottom track 12 and the top track 11 in the carriage 1 to the exit side of the carriage 1, and is stably moved to the track of the ground of the warehouse through the sliding exit 13 and the sliding track 51 on the ramp 5, the storage rack 2 is moved along the track of the ground of the warehouse to the inside of the warehouse, the overall movement and storage of the storage rack 2 not only reduces manual multiple handling, but also reduces the risk of damage of the instrument in the transfer process, and improves the storage and management efficiency of the seismograph 6.

[0114] The above merely describes the preferred embodiments of the present application, and the protection scope of the present application is not limited to the above embodiments, but any equivalent modification or change made by those skilled in the art according to the disclosed content of the present application shall be included in the protection scope recorded in the claims.

Claims

1. A vehicle-mounted storage device for a nodal seismograph, characterized in that: The nodal seismograph vehicle-mounted storage device includes a carriage (1) and several storage racks (2). The carriage (1) includes a top track (11) and a bottom track (12); the top track (11) corresponds to the bottom track (12), the top track (11) is fixedly connected to the inner top of the carriage (1), and the bottom track (12) is fixedly connected to the inner bottom of the carriage (1); The storage rack (2) includes a central column (21), several single-layer instrument trays (22), a rack base plate (23), and a rack top plate (25); each single-layer instrument tray (22) has a through mounting hole (221) in the center, and the central column (21) passes through the mounting hole (221) of each single-layer instrument tray (22) in sequence, and each single-layer instrument tray (22) is fixedly connected to the middle part of the central column (21); the top end of the central column (21) is fixedly connected to the rack top plate (25) through a bearing, and the bottom end of the central column (21) is fixedly connected to the rack base plate (23) through a bearing; The top end of the storage rack (2) is slidably connected to the top rail (11), and the bottom end of the storage rack (2) is slidably connected to the bottom rail (12).

2. The vehicle-mounted storage device for a nodal seismograph according to claim 1, characterized in that: The nodal seismograph vehicle-mounted storage device also includes a vehicle-mounted computer (3), which is located inside the vehicle compartment (1); The central column (21) is equipped with several data lines (31), one end of which extends from the bottom of the central column (21) and the other end of which extends from each single-layer instrument panel (22).

3. The vehicle-mounted storage device for a nodal seismograph according to claim 1, characterized in that: The nodal seismograph vehicle-mounted storage device also includes several vehicle-mounted power supplies (4), which are located inside the vehicle compartment (1); The central column (21) is also equipped with several charging cables (41), one end of which extends from the bottom of the central column (21) and the other end of which extends from each single-layer instrument panel (22).

4. A vehicle-mounted storage device for a nodal seismograph according to claim 1, 2, or 3, characterized in that: The storage rack (2) also includes a number of directional pulleys (24); The upper end of the directional pulley (24) is fixedly connected to the bottom plate (23) and the top plate (25) of the frame, respectively, and the wheel surface of the directional pulley (24) is slidably connected to the top rail (11) and the bottom rail (12), respectively.

5. A vehicle-mounted storage device for a nodal seismograph according to claim 1, 2, or 3, characterized in that: The single-layer instrument panel (22) includes several instrument mounting positions (222); The instrument mounting position (222) includes an inner partition (223) and an outer partition (224); The bottom of the outer partition (224) is fixedly connected to the upper surface of the single-layer instrument panel (22); The outer side of the inner partition (223) is closely fitted to the inner wall of the outer partition (224).

6. The vehicle-mounted storage device for a nodal seismograph according to claim 5, characterized in that: The instrument mounting position (222) also includes a pick-up and drop-out port (225); The loading / unloading port (225) is movably connected to the side of the outer partition (224) away from the central column (21).

7. The vehicle-mounted storage device for a nodal seismograph according to claim 5, characterized in that: The inner partition (223) is made of foam or sponge; The outer partition (224) is made of any one of plastic, stainless steel, or wood.

8. A vehicle-mounted storage device for a nodal seismograph according to claim 1, 2 or 3, characterized in that: The top track (11) and bottom track (12) are respectively provided with sliding exits (13) at the exit of the carriage (1).

9. A vehicle-mounted storage device for a nodal seismograph according to claim 8, characterized in that: The nodal seismograph vehicle-mounted storage device also includes a ramp (5), one side of which is connected to the exit side of the carriage (1), and the other side of which is in contact with the ground.

10. A vehicle-mounted storage device for a nodal seismograph according to claim 9, characterized in that: A sliding track (51) is provided on the slope surface of the gentle slope (5). One end of the sliding track (51) is connected to the slide outlet (13) of the bottom track (12).

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