Explosion configuration method and device for three-dimensional geologic model

Abstract

The invention provides an explosion configuration method and device for a three-dimensional geologic model. The method comprises the following steps that drilling layering data and geophysical prospecting data are collected; rotating and adjusting the direction of the stratum structure, and establishing a stratum structure model based on drilling layering data; drawing an underground rock mass according to the geophysical prospecting data, and performing color marking on the structure of the rock mass; and combining the adjusted stratigraphic structure model with the rock mass, and configuring a three-dimensional geologic model marked by various colors. Through the method and the device, the geological structure can be distinguished, and the geological structure can be observed through the three-dimensional geological model; during disassembly, one mode is that a stratum structure model synthesized by drilling layering data and a rock mass synthesized by geophysical prospecting data are in a solid form and are independently seen through different color marks; one is a hollow grid form, a stratum structure model and a rock mass structure style can be seen, and the structure in the stratum can be clearly known through the observation in the grid forming process.

Description

Technical Field

[0001] The present invention belongs to the field of geographic modeling, and in particular relates to an explosion configuration method and device for a three-dimensional geological model. Background Art

[0002] At present, when generating a height map of a virtual scene terrain, a high-resolution image of the virtual scene terrain is usually generated from relevant software, and its internal structure cannot be seen well. In addition, due to the different structures in the geological layers, different rock structures and geological structures are integrated into one, making it difficult to intuitively distinguish the internal composition of the two, which is not conducive to the visual observation of the terrain and geological structure.

[0003] When introducing geography, a unified stratigraphic structure is used to introduce the geographical scene. The geographical information introduced is often vague, the structure between each layer is not so clear, and it is difficult to define the geographical location range between each layer, resulting in poor visualization effect. Summary of the Invention

[0004] The purpose of the present invention is to overcome the above problems and provide a method and device for blasting configuration of a three-dimensional geological model.

[0005] In order to achieve the above purpose, the technical solution adopted by the present invention is:

[0006] On the one hand, a method for explosive configuration of a three-dimensional geological model is proposed, comprising the following steps:

[0007] Collect drill hole layer data and geophysical data;

[0008] Rotating and adjusting the direction of the stratum structure, and establishing a stratum structure model based on the drill hole layer data;

[0009] Mapping underground rock masses based on geophysical data and color-coding the structures of the rock masses;

[0010] The adjusted stratum structure model and the rock mass are combined to form a three-dimensional geological model labeled with multiple colors; wherein the configured three-dimensional geological model is splittable, and the split stratum structure model and / or the rock mass can be presented in the form of border lines.

[0011] As a further improvement, the rotation adjustment of the stratigraphic structure and the establishment of a stratigraphic structure model based on the drilling layer data include the following steps:

[0012] Coordinate drilling data at locations on multiple geological horizons;

[0013] The direction of the stratum structure is adjusted by rotation, the marked drilling layer data is placed at the coordinate position, and a stratum structure model is established based on the drilling layer data.

[0014] As a further improvement, the rotation adjustment of the stratigraphic structure to place the marked drilled layer data at a coordinate position includes the following steps:

[0015] Divide the regional space, mark the coordinates of the space, and obtain a coordinate space with multiple coordinate grids;

[0016] Based on the acquired borehole layering data and layering threshold, the borehole data is filled in the coordinate space divided by the layering threshold to obtain multiple layers of equidistant flaky geological layers.

[0017] As a further improvement, combining the adjusted stratum structure model with the rock mass to form a three-dimensional geological model with multiple color markings includes the following steps:

[0018] In the coordinate space, place the marked rock mass at the corresponding coordinate position;

[0019] Inserting the rotated multi-layer flaky geological plane into the coordinate space to obtain a fusion structure of the multi-layer flaky geological plane and the rock mass;

[0020] Taking the set coordinates as the starting point, multiple layers of equally spaced flaky geological layers are generated again;

[0021] The multiple layers of equally spaced flaky geological layers are filled into the multi-layer flaky geological layers and rock mass fusion structure according to the coordinate marked positions, and configured into a three-dimensional geological model marked with multiple colors.

[0022] As a further improvement, the adjusted stratigraphic structure model is combined with the rock mass to form a three-dimensional geological model marked with multiple colors, and the direction of the stratigraphic structure is adjusted by rotation, including:

[0023] Adjust the geological model to multiple different perspectives.

[0024] As a further improvement, the step of filling the multiple layers of equally spaced flaky geological layers into the multi-layer flaky geological layer and rock mass fusion structure according to the coordinate marked positions includes the following steps:

[0025] In the multi-layer flaky geological layer and rock mass fusion structure, coordinate marking points are added on the vertical section at equal intervals, and multiple marking points on the same vertical section are connected;

[0026] The multiple layers of equally spaced flaky geological layers are filled into a frame formed by connecting multiple marking points of the same vertical section in the multiple layers of flaky geological layers and rock mass fusion structure according to the coordinate marked positions.

[0027] As further improvements, it also includes:

[0028] The configured three-dimensional geological model can be split, and the split stratigraphic structure model and / or the rock mass can be presented in the form of border lines; wherein, during the process of splitting the three-dimensional geological model, the coordinate points of the border lines are continuously compared with the coordinate data points of the stratigraphic structure model and / or the rock mass; if the two are offset, correction is performed;

[0029] When the configured 3D geological model is split, after the multiple flaky geological layers are peeled off from the rock mass, different colored lines corresponding to the rock mass structures marked with different colors are displayed vertically on each flaky geological layer in the same vertical section in the coordinate space, and the border lines of multiple layers of equally spaced flaky geological layers are displayed horizontally. This allows the structural pattern of the rock strata to be clearly visualized.

[0030] As a further improvement, the three-dimensional geological model includes:

[0031] The configurable mobile environment includes a mobile area, a mobile speed, and a mobile space style, and the operating client can move in the configured mobile environment; and,

[0032] Based on the configured digging scenario, click on multiple location coordinates (you can divide some coordinate points in the configured 3D geological model and then perform other operations such as digging), connect the multiple location coordinates, start digging, and present the vertical section stratigraphic structure pattern on the vertical section.

[0033] As a further improvement, the three-dimensional geological model includes:

[0034] Select two points on the three-dimensional geological model and mark them;

[0035] Between the two marked points, configure the number of layers of multi-layered flaky geological layers;

[0036] Based on the number of layers of the multi-layered flaky geological layers configured at the two marked points, a plurality of equally sized cube frames are generated; wherein the cube frames are located above the base plane of the three-dimensional geological model; (the base plane is a structure similar to the foundation of the three-dimensional geological model and is a horizontal cross-section)

[0037] The stratum structure model is filled in the cube frame area, and the rock mass is inserted into the stratum structure model. The fusion of the stratum structure model and the rock mass above the base plane is an inverted solid of the portion below the base plane, with the base plane as the plane. (By displaying the underground part above ground, it is easier to observe it clearly and intuitively, and by manipulating the structure of the above-ground part, a reference for processing the underground part can be achieved.)

[0038] On the other hand, the present invention also provides an explosion configuration device for a three-dimensional geological model, which includes at least one processor and a memory storing instructions. When the instructions are executed by at least one processor, the method in the above technical solution is implemented.

[0039] A computer-readable storage medium stores a computer program, wherein the computer program is executed by a processor to implement the method described in the steps of the above technical solution.

[0040] A computer program product includes a computer program, and when the computer program is executed by a processor, the method described in the steps of the above technical solution is implemented.

[0041] The beneficial effects of the present invention are:

[0042] By using this method and device, the geological structure can be clearly distinguished. In the present invention, the geological structure can be observed through the overall three-dimensional geological model; it can also be split for observation. When it is split, two shape structures can be viewed. One is the stratum structure model synthesized from the drilling layered data and the rock mass synthesized from the geophysical data in a solid form, which can be seen independently through different color markings; the other is a hollow grid form, in which the structural style of the stratum structure model and the rock mass can be seen in the grid, wherein each small structure (stratum structure model or / and each rock mass) is marked with a different color. By such observation The structure in the stratum can be clearly seen; at the same time, when the stratum structure model and the rock mass are split, the stratum structure model or the rock mass can be dragged and moved so that the two are in different coordinate positions in the three-dimensional space; in addition, the present invention also provides a three-dimensional geological model with a normal plane based on the base plane, and the actual structural style below the base plane is displayed above the base plane. Similarly, when displayed above the base plane, it can be a solid structure or a grid structure, and the structural style below can be clearly observed through the content displayed above; through such a configuration, the stratum construction personnel can be guided in their work. BRIEF DESCRIPTION OF THE DRAWINGS

[0043] The present invention has the following accompanying drawings:

[0044] Figure 1 is a flow chart of a method for blast configuration of a three-dimensional geological model in some specific embodiments of the present invention;

[0045] Figure 2 It is a multi-layered sheet geological layer and coordinate annotation diagram of an explosion configuration method of a three-dimensional geological model in some specific embodiments of the present invention;

[0046] Figure 3 It is a structural diagram of a three-dimensional geological model of some specific embodiments of the present invention.

[0047] Figure 4 A schematic diagram of an explosion configuration device for a three-dimensional geological model according to the present invention. DETAILED DESCRIPTION

[0048] The following examples further illustrate the present invention, but should not be construed as limiting the present invention. Without departing from the spirit and substance of the present invention, modifications or substitutions made to the methods, steps or conditions of the present invention are within the scope of the present invention.

[0049] like Figure 1-3 As shown, the present invention proposes a method for blast configuration of a three-dimensional geological model, comprising the following steps:

[0050] Step S10: collecting drilling layer data (through drilling data acquisition equipment) and geophysical data (geophysical data acquisition equipment);

[0051] In this invention, drilling technology is used to obtain data at various levels. Based on this data, different levels can be constructed. Levels composed of the same geological elements can be composed of multiple layers of flaky geological levels. The same data can be marked with different colors, which makes it easier to distinguish.

[0052] Step S11: Rotate and adjust the direction of the stratum structure, and establish a stratum structure model based on the drill hole layer data (the layered structure in the geological layer, the rock mass mentioned below refers to each independent structure in the geological layer, such as an independent individual stone; the stratum structure model is the geological layer that wraps or inlays these rock masses, or it can be a framework filling body that wraps or inlays these rock masses);

[0053] In the present invention, after the stratum framework is built, the direction of the stratum structure can be continuously adjusted to a constant position. Such a position is consistent with the direction of the rock mass in the geology, so that the rock mass can be inserted into it later. In the process of continuous adjustment of this module, the structural coordinates of the rock mass in the framework are constantly compared with the actual coordinates of the rock mass. For example, the position between two rock masses in the stratum structure framework is compared with the position where the rock mass should be placed in the framework, and then the coordinates of the rock mass in the stratum structure framework are also compared with the actual coordinate position of the rock mass in the stratum structure. This comparison is carried out in two aspects. Only in this way can the results of the subsequent fusion of the rock mass model be more accurate.

[0054] Step S12: Draw the underground rock mass according to the geophysical data, and mark the structure of the rock mass with colors; for example, red represents boulders and green represents broken zones.

[0055] In this invention, data acquired using geophysical exploration equipment is used as rock mass data, and a rock mass model is then constructed based on this rock mass data. By labeling the rock mass with different colors, a rock mass structure that is easily distinguishable is obtained. The data is analyzed to determine its type, modeled, and then different data types are labeled with different colors. If the rock mass contains other rock masses, different colors are used. For example, if a large rock is enclosed by multiple smaller rocks or embedded in other rocks, these rocks are labeled with different colors.

[0056] Step S13: combining the adjusted stratum structure model and the rock mass to configure a three-dimensional geological model labeled with multiple colors; wherein the configured three-dimensional geological model is splittable, and the split stratum structure model and / or the rock mass can be presented in the form of border lines.

[0057] For example, in coordinate space, based on layer structure data, the space is divided into multiple layers. Fixed coordinate locations within the layers are selected and connected pairwise to create multiple layer structures (stratum structure models). The data element types within the structures are then identified and the different elements are then marked with arcs within the layer structures, which have been drawn using these connections. Each data element represents the geological content within a different geological layer within the layer structure. For example, granite data elements represent granite, and sandstone data elements represent sandstone layers. Within a rectangular layer structure, there may be mixed granite and sandstone layers. When drawing, the granite layer is first filled into the layer structure and marked with a color. The granite layer may then appear bumpy. The sandstone layer is then filled in and marked with a color. Once the stratigraphic structure model is complete, the rock mass is then filled into the spatial locations of the stratigraphic structure model that are not filled with other data, resulting in a complete geological representation of each layer.

[0058] In this way, the geological structure can be clearly distinguished. In the present invention, the geological structure can be observed through the overall three-dimensional geological model; one is in the form of a hollow grid, in which the structural style of the stratum structure model and the rock mass can be seen, in a grid, in which each small structure (stratum structure model and / or each rock mass) is marked with a different color. Through such observation, the structure in the stratum can be known at a glance.

[0059] Rotating and adjusting the direction of the stratum structure, and establishing a stratum structure model based on the drill hole layer data, including the following steps:

[0060] Step S110: coordinate marking of the drilling data at locations on multiple geological layers.

[0061] For example, mark the coordinates in space and then fill in the data so that each data has its own coordinate position.

[0062] Step S111: Rotate and adjust the direction of the stratum structure, place the marked drilling layer data at the coordinate position, and establish a stratum structure model based on the drilling layer data.

[0063] For example, because the structure is composed of data from multiple different elements and is continuously filled in, the orientation of each element layer may be inconsistent. As different elements are continuously filled in, it is necessary to constantly compare with the actual topographic and geological elements and constantly adjust the layer orientation to ensure the accuracy of the geological layers. This also includes the rock mass, which needs to be constantly rotated when filling in smaller rock masses.

[0064] In step S111, the rotation adjustment of the stratigraphic structure to place the marked drilled layer data at a coordinate position includes the following steps:

[0065] Step S1110: Divide the regional space, mark the coordinates of the space, and obtain a coordinate space with multiple coordinate grids.

[0066] For example, multiple modules can be divided in the coordinate space, and each module is independent. This allows the styles of each independent layer to be clearly reflected when rotating the individual modules later.

[0067] Step S1111: Based on the acquired drilling layer data and layer threshold, the drilling data is filled in the coordinate space divided by the layer threshold to obtain multiple layers of equally spaced flaky geological layers.

[0068] For example, you can set the distance between each layer to clearly define the layer names. You can set the layers horizontally or vertically. When you set them crosswise, they form a rectangular parallelepiped.

[0069] Combining the adjusted stratum structure model with the rock mass to form a three-dimensional geological model with multiple color markings includes the following steps:

[0070] Step S130: placing the marked rock mass at the corresponding coordinate position in the coordinate space;

[0071] Step S131: inserting the rotated multi-layer flaky geological layer into the coordinate space to obtain a fusion structure of the multi-layer flaky geological layer and the rock mass;

[0072] Step S132: Using the set coordinates as the starting point, generate multiple layers of equally spaced flaky geological layers again;

[0073] Step S133: Fill the multiple layers of equally spaced flaky geological layers into the multi-layer flaky geological layers and rock mass fusion structure according to the coordinate marked positions, and configure them into a three-dimensional geological model marked with multiple colors.

[0074] In some embodiments of the present invention, the adjusted stratum structure model is combined with the rock mass to form a three-dimensional geological model marked with multiple colors, and the direction of the stratum structure is adjusted by rotating the geological model, including adjusting the geological model to multiple different angles.

[0075] For example, the three-dimensional geological model of the entire space can be rotated together, or the combination of each independent small three-dimensional geological model can be rotated independently, so that the structure in the geological layer can be displayed more clearly.

[0076] In step S133, the multiple layers of equally spaced flaky geological layers are filled into the multi-layer flaky geological layer and rock mass fusion structure according to the coordinate marked positions, including the following steps:

[0077] Step S1330: In the multi-layer flaky geological layer and rock mass fusion structure, coordinate marking points are added at equal intervals on the vertical section, and multiple marking points on the same vertical section are connected;

[0078] Step S1331: Fill the multiple layers of equally spaced flaky geological layers into a frame formed by connecting multiple marking points of the same vertical section in the fusion structure of the multiple layers of flaky geological layers and the rock mass according to the coordinate marked positions.

[0079] In the present invention, spatial coordinates are first marked in the coordinate space, and the coordinates are connected in pairs, and then the corresponding sheet geological layers are placed therein.

[0080] In some embodiments of the present invention, the three-dimensional geological model is configured to be split, and the split stratigraphic structure model and / or the rock mass can be presented in the form of border lines; wherein, during the process of splitting the three-dimensional geological model, the coordinate points of the border lines are continuously compared with the coordinate data points of the stratigraphic structure model and / or the rock mass; if the two are offset, correction is performed.

[0081] The generated 3D geological model can be disassembled. For example, the solid structure in a certain area can be removed, leaving an empty shell sub-frame. However, this shell retains the original structure without the solid structure. The only difference is that the area that was originally solid is now empty. At the same time, the surface of the structure composed of different data elements is marked with network lines of multiple or uniform colors. This allows users to clearly observe the internal structure pattern.

[0082] When the configured 3D geological model is split, after the multiple flaky geological layers are peeled off from the rock mass, different colored lines corresponding to the rock mass structures marked with different colors are displayed vertically on each flaky geological layer in the same vertical section in the coordinate space, and the border lines of multiple layers of equally spaced flaky geological layers are displayed horizontally. This allows the structural pattern of the rock strata to be clearly visualized.

[0083] In some embodiments of the present invention, the three-dimensional geological model includes: a configurable mobile environment including a mobile area, a mobile speed, and a mobile space style, and the operating client can move within the configured mobile environment; here, each area within each area can be moved, and each flaky geological layer within each area can also be moved, and can be moved out for observation individually, or can be observed together, or several can be moved out for observation together; when moving, it can be configured to be automated, and the movement distance and time can be set to automatically run. And,

[0084] Based on the configured digging scenario, click on multiple location coordinates (you can divide some coordinate points in the configured 3D geological model and then perform other operations such as digging), connect the multiple location coordinates, start digging, and present the vertical section stratigraphic structure pattern on the vertical section.

[0085] For example, you can configure a digging action. When setting the digging action, you only need to click on multiple locations, and then you can dig out the solid space within the range of the lines connecting these coordinate points. What remains is the hollow space mentioned above, which is only filled with the original geological elements composed of multiple network lines.

[0086] In some embodiments of the present invention, the three-dimensional geological model includes:

[0087] Select two points on the three-dimensional geological model and mark them;

[0088] Between the two marked points, configure the number of layers of multi-layered flaky geological layers;

[0089] For example, when you want to display the part below the base plane above the base plane, you can first select two points when configuring the flaky geological layer, and then generate many flaky geological layers at these points based on the threshold distance. Then fill the part above the base plane one layer at a time as described above, and fill each independent structure in a layer. The final structure and the part below the base plane are inverted and symmetrical with the base plane as the axial plane. When displaying a certain part below it on the top, you can select a base plane and follow these steps to display the content below the base plane. Among them, the base plane here is selectable and is not limited to a certain location, so that geological structures in multiple different places can be easily displayed.

[0090] Based on the number of layers of the multi-layered flaky geological layers configured at the two marked points, a plurality of equally sized cube frames are generated; wherein the cube frames are located above the base plane of the three-dimensional geological model; (the base plane is a structure similar to the foundation of the three-dimensional geological model and is a horizontal cross-section)

[0091] The stratum structure model is filled in the cube frame area, and the rock mass is inserted into the stratum structure model. The fusion of the stratum structure model and the rock mass above the base plane is an inverted solid of the portion below the base plane, with the base plane as the plane. (By displaying the underground part above ground, it is easier to observe it clearly and intuitively, and by manipulating the structure of the above-ground part, a reference for processing the underground part can be achieved.)

[0092] By using this method and device, the geological structure can be clearly distinguished. In the present invention, the geological structure can be observed through the overall three-dimensional geological model; it can also be split for observation. When it is split, two shape structures can be viewed. One is the stratum structure model synthesized from the drilling layered data and the rock mass synthesized from the geophysical data in a solid form, which can be seen independently through different color markings; the other is a hollow grid form, in which the structural style of the stratum structure model and the rock mass can be seen in the grid, wherein each small structure (stratum structure model or / and each rock mass) is marked with a different color. By such observation The structure in the stratum can be clearly seen; at the same time, when the stratum structure model and the rock mass are split, the stratum structure model or the rock mass can be dragged and moved so that the two are in different coordinate positions in the three-dimensional space; in addition, the present invention also provides a three-dimensional geological model with a normal plane based on the base plane, and the actual structural style below the base plane is displayed above the base plane. Similarly, when displayed above the base plane, it can be a solid structure or a grid structure, and the structural style below can be clearly observed through the content displayed above; through such a configuration, the stratum construction personnel can be guided in their work.

[0093] In some specific embodiments, Figure 4 As shown, a device for configuring explosions of a three-dimensional geological model includes at least one processor and a memory storing instructions for implementing any one of the methods for configuring explosions of a three-dimensional geological model in the above technical solutions.

[0094] In some specific embodiments, a computer-readable storage medium stores a computer program, and the computer program is executed by a processor to implement the steps in the above technical solution.

[0095] In some specific embodiments, a computer program product includes a computer program, and when the computer program is executed by a processor, the method of implementing the steps in the above technical solution is implemented.

[0096] The embodiments and functional operations of the subject matter described in this specification may be implemented in digital electronic circuitry, tangibly implemented computer software or firmware, computer hardware including the structures disclosed in this specification and their structural equivalents, or a combination of more than one of the foregoing. The embodiments of the subject matter described in this specification may be implemented as one or more computer programs, i.e., one or more modules of computer program instructions encoded on one or more tangible, non-transitory program carriers, for execution by, or to control the operation of, a data processing apparatus.

[0097] Alternatively or additionally, the program instructions may be encoded on an artificially generated propagated signal, such as a machine-generated electrical, optical, or electromagnetic signal, which is generated to encode information for transmission to an appropriate receiver device for execution by a data processing device. The computer storage medium may be a machine-readable storage device, a machine-readable storage substrate, a random or serial access memory device, or a combination of one or more of the foregoing.

[0098] A computer program (which may also be referred to or described as a program, software, software application, module, software module, script, or code) may be written in any form of programming language, including compiled or interpreted languages ​​or declarative or procedural languages, and the computer program may be deployed in any form, including as a stand-alone program or as a module, component, subroutine, or other unit suitable for use in a computing environment. A computer program may, but need not, correspond to a file in a file system. A program may be stored as part of a file that stores other programs or data, for example, as one or more scripts in a markup language document, in a single file dedicated to the program in question, or in multiple collaborative files, for example, files storing one or more modules, subroutines, or portions of code. A computer program may be deployed to execute on one or more computers, located in one location or distributed across multiple locations and interconnected by a communications network.

[0099] The contents not described in detail in this specification belong to the prior art known to those skilled in the art.

[0100] Although the present invention has been described in detail above using general explanations, specific embodiments, and experiments, it will be apparent to those skilled in the art that modifications and improvements may be made based on the present invention. Therefore, such modifications and improvements, which do not depart from the spirit of the present invention, are intended to be within the scope of protection claimed herein.

Claims

1. A method for blast configuration of a three-dimensional geological model, characterized in that: The following steps are involved: Collect drill hole layer data and geophysical data; Rotating and adjusting the direction of the stratum structure, and establishing a stratum structure model based on the drill hole layer data; Mapping underground rock masses based on geophysical data and color-coding the structures of the rock masses; The adjusted stratum structure model and the rock mass are combined to form a three-dimensional geological model labeled with multiple colors; wherein the configured three-dimensional geological model is splittable, and the split stratum structure model and / or the rock mass can be presented in the form of border lines.

2. The method for blasting and configuring a three-dimensional geological model according to claim 1, wherein: The rotation adjusts the direction of the stratum structure and establishes a stratum structure model based on the drilling layer data, including the following steps: Coordinate drilling data at locations on multiple geological horizons; The direction of the stratum structure is adjusted by rotation, the marked drilling layer data is placed at the coordinate position, and a stratum structure model is established based on the drilling layer data.

3. The method for blasting a three-dimensional geological model according to claim 21, wherein: The method of rotating and adjusting the direction of the stratum structure to place the marked drill hole layer data at the coordinate position includes the following steps: Divide the regional space, mark the coordinates of the space, and obtain a coordinate space with multiple coordinate grids; Based on the acquired borehole layering data and layering threshold, the borehole data is filled in the coordinate space divided by the layering threshold to obtain multiple layers of equidistant flaky geological layers.

4. The method for blasting and configuring a three-dimensional geological model according to claim 3, wherein: The step of combining the adjusted stratum structure model with the rock mass to form a three-dimensional geological model with multiple color markings includes the following steps: In the coordinate space, place the marked rock mass at the corresponding coordinate position; Inserting the rotated multi-layer flaky geological plane into the coordinate space to obtain a fusion structure of the multi-layer flaky geological plane and the rock mass; Taking the set coordinates as the starting point, multiple layers of equally spaced flaky geological layers are generated again; The multiple layers of equally spaced flaky geological layers are filled into the multi-layer flaky geological layers and rock mass fusion structure according to the coordinate marked positions, and configured into a three-dimensional geological model marked with multiple colors.

5. The method for blasting and configuring a three-dimensional geological model according to claim 1, wherein: The step of combining the adjusted stratum structure model with the rock mass to form a three-dimensional geological model marked with multiple colors and rotating the model to adjust the direction of the stratum structure includes: Adjust the geological model to multiple different perspectives.

6. The method for blasting and configuring a three-dimensional geological model according to claim 4, wherein: The step of filling the multiple layers of equally spaced flaky geological layers into the multi-layer flaky geological layer and rock mass fusion structure according to the coordinate marked positions comprises the following steps: In the multi-layer flaky geological layer and rock mass fusion structure, coordinate marking points are added on the vertical section at equal intervals, and multiple marking points on the same vertical section are connected; The multiple layers of equally spaced flaky geological layers are filled into a frame formed by connecting multiple marking points of the same vertical section in the multiple layers of flaky geological layers and rock mass fusion structure according to the coordinate marked positions.

7. The method for blasting and configuring a three-dimensional geological model according to claim 1, wherein: During the process of splitting the three-dimensional geological model, the coordinate points of the border lines are continuously compared with the coordinate data points of the stratigraphic structure model and / or the rock mass; if the two are offset, correction is performed; When the configured three-dimensional geological model is split, in the configured three-dimensional geological model, after the multiple layers of flaky geological layers are peeled off from the rock mass, different color lines are displayed on each flaky geological layer in the vertical direction in the same vertical section in the coordinate space for rock structures marked with different colors, and border lines of multiple layers of equally spaced flaky geological layers are displayed in the horizontal direction.

8. The method for blasting and configuring a three-dimensional geological model according to claim 1, wherein: The three-dimensional geological model includes: The configurable mobile environment includes a mobile area, a mobile speed, and a mobile space style, and the operating client can move in the configured mobile environment; and, Based on the configured digging scenario, click on multiple location coordinates, connect the multiple location coordinates, start digging, and present the vertical section stratigraphic structure pattern on the vertical section.

9. The method for blasting and configuring a three-dimensional geological model according to claim 1, wherein: The three-dimensional geological model includes: Select two points on the three-dimensional geological model and mark them; Between the two marked points, configure the number of layers of multi-layered flaky geological layers; Based on the number of layers of the multi-layered flaky geological layers configured by the two marked points, a plurality of cube frames of equal size are generated; wherein the cube frames are located above the base plane of the three-dimensional geological model; The stratum structure model is filled in the cube frame area, and the rock mass is inserted into the stratum structure model, wherein the fusion body of the stratum structure model and the rock mass above the base plane is an inverted solid of the part below the base plane with the base plane as the plane.

10. An explosion configuration device for a three-dimensional geological model, comprising at least one processor and a memory storing instructions, characterized in that: When the instruction is executed by at least one processor, the explosion configuration method of a three-dimensional geological model as claimed in any one of claims 1 to 9 is implemented.

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