Virtual simulation resource and virtual simulation experiment management device

Abstract

The invention provides a virtual simulation resource and virtual simulation experiment management device which structurally comprises a base, a virtual simulation bin, a manager and an electrically operated gate, the upper end of the base is fixedly connected with the virtual simulation bin, and the manager is embedded in the center of the side edge of the virtual simulation bin; after the manager is further improved, the data storage module is arranged on the back of the control screen, and then the data adapters in the upper area and the lower area are matched to complete electric connection with the virtual simulation bin in a penetrating and inserting mode, so that the original multi-line connection process is replaced; and after the data storage module, the control screen and the virtual simulation bin are combined into a whole, the original large-area space occupation condition can be reduced, so that the use convenience of the management device can be improved, and meanwhile, the data storage module and the control screen can be conveniently separated from the interior of the virtual simulation bin by utilizing the front-back movement of a sliding block; and the effect of disassembling and assembling with the virtual simulation bin in the later period is improved.

Description

Technical Field

[0001] This invention relates to the field of virtual simulation experiment technology, and more specifically to a virtual simulation resource and virtual simulation experiment management device. Background Technology

[0002] Virtual simulation resources are teaching resources constructed using digital and simulation technologies. They simulate and reproduce actual experimental scenarios, operations, and data through computer systems. Combined with virtual simulation experiment management devices, the corresponding data and programs can be effectively stored, facilitating storage after each use and avoiding the need for reconstruction for secondary use. This improves the convenience and efficiency of virtual simulation experiments. Furthermore, virtual simulation experiment management devices can effectively enhance the effectiveness and accuracy of virtual simulation experiments. In summary, the inventors have found that existing virtual simulation experiment management devices have the following main drawbacks: Because current virtual simulation experiment management devices require a large number of lines and fixed modules for electrical connection with the simulation experiment platform, the management device and the experiment platform must be powered on separately before the database of the simulation experiment platform is built. This reduces the convenience of data management. Furthermore, since the management device and the experiment platform are two different components, their combined use occupies excessive space, requiring separate disassembly for later maintenance. This reduces the ease of powering on and maintaining the management device. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical objective is: a virtual simulation resource and virtual simulation experiment management device, the structure of which includes: a base, a virtual simulation chamber, a manager, and an electric door. The upper end of the base is fixedly connected to the virtual simulation chamber, the manager is embedded in the center of the side of the virtual simulation chamber, and the electric door is installed at the center of the front end of the virtual simulation chamber and electrically connected to the manager.

[0004] As a further improvement of the present invention, the manager includes a reinforced frame, a control screen, a data storage module, an insulating wall, a slider, and a data connector. The reinforced frame covers the edge of the control screen, the data storage module is fixedly connected to the back of the control screen, the insulating wall covers the back area of ​​the data storage module, the slider is installed on the left and right sides of the data storage module, and the data connector is embedded in the upper and lower center areas of the data storage module and electrically connected to the virtual simulation chamber through the control screen. The data storage module is embedded in the side of the virtual simulation chamber through the slider. The reinforced frame is square in shape and its shape matches the edge of the control screen. The surface of the control screen is finely polished. The insulating wall on the back of the data storage module is made of rubber. There is one slider on each of the left and right sides of the data storage module, and one set of data connectors is provided at the upper and lower ends of the data storage module.

[0005] As a further improvement of the present invention, the data connector includes an electrical connection block, a cover, a slide rail, and a movable protrusion. The electrical connection block extends through the lower end of the cover. The slide rail and the interior of the cover are an integrated structure. The movable protrusion is embedded in the interior of the cover through the slide rail and is electrically connected to the electrical connection block. The movable protrusion completes the electrical connection with the data storage module and the virtual simulation chamber through the electrical connection block. The electrical connection block is protruding, the cover is rectangular, the thickness of the movable protrusion is less than the thickness of the cover, and the slide rail is set in a straight line orientation.

[0006] As a further improvement of the present invention, the movable protrusion is provided with a positioning bolt, an adapter block, an extension member, a slot, and a data transmission hard disk. The positioning bolt passes through the center of the adapter block, the extension member is embedded inside the adapter block and contacts the positioning bolt, the slot passes through the center of the extension member and is an integral structure, the data transmission hard disk is fixedly connected to the extension member and can move back and forth, and the data transmission hard disk completes the electrical connection with the electrical connection block through the adapter block of the extension member; there are two positioning bolts on the adapter block, the adapter block contains a rectangular track, the slot of the extension member passes through vertically, and the data transmission hard disk is solid.

[0007] As a further improvement of the present invention, the front end of the data transmission hard disk is provided with a contact layer, parallel blocks, pillars, a limiting frame, and a power-conducting groove. The edge of the contact layer is fixedly connected to the parallel blocks, the pillars are perpendicular to the parallel blocks, the edge of the limiting frame is fixedly connected to the pillars, and the power-conducting groove passes through the center of the limiting frame and is an integral structure with the data transmission hard disk. The surface of the contact layer is flattened and carries multiple sets of parallel blocks and pillars inside. The limiting frame has three sets and is positioned in a parallel orientation. The through groove is a square hollow shape.

[0008] As a further improvement of the present invention, the reinforced frame is provided with pull blocks, a first frame, an overlapping layer, a second frame, a slot, and a solid rod. The pull blocks are welded to the left and right sides of the first and second frames. The overlapping layer is an integrated structure with the first and second frames. The slot is located in the front end area of ​​the second frame and is adapted to the solid rod. The solid rod is welded to the first frame in parallel. The solid rod is located at the edge of the control screen through the first and second frames. One pull block is provided on each of the left and right sides of the first and second frames. The overlapping layer is finely polished. The shape of the slot is consistent with the shape of the solid rod.

[0009] As a further improvement of the present invention, the solid rod is provided with a welding plate, a rod body, and an adsorption block. The upper center of the welding plate is welded to the lower end of the rod body. The adsorption block is positioned in the top area of ​​the rod body. The rod body is welded to the first frame through the welding plate. The rod body carries the adsorption block into the slot of the second frame and they overlap. The welding plate is perpendicular to the rod body. The surface of the rod body is finely polished. The adsorption block overlaps with the top of the rod body.

[0010] Compared with the prior art, the present invention has the following beneficial effects: 1. This invention, after further improvement of the manager, places the data storage module on the back of the control screen. Then, in conjunction with the data connectors in the upper and lower areas, it can complete the electrical connection with the virtual simulation chamber in an interlocking manner, thus replacing the original multi-line connection process. In addition, the data storage module, control screen and virtual simulation chamber are integrated into one unit, which can reduce the original large area occupied, thereby improving the ease of use of the management device. At the same time, the forward and backward movement of the slider can facilitate the removal of the data storage module and control screen from the interior of the virtual simulation chamber, improving the efficiency of subsequent disassembly and assembly with the virtual simulation chamber.

[0011] 2. This invention further improves upon the movable protrusion of the data connector. When the position of the adapter block and positioning bolt is determined, the extension can control the displacement of the data transmission hard disk in conjunction with the control panel. This allows the data transmission hard disk to be precisely inserted into the virtual simulation chamber for electrical connection through parallel back-and-forth movement. At the same time, the power-conducting slot at the front end of the data transmission hard disk can overlap with the internal components of the virtual simulation chamber, further improving the accuracy of the electrical connection between the manager and the virtual simulation chamber, and ensuring the accuracy of the simulation of virtual simulation resources in the virtual simulation chamber.

[0012] 3. This invention further improves upon the reinforced frame by using overlapping layers within frames one and two to effectively cover the edges of the control screen. This enhances the sealing of the control screen edges, preventing moisture and dust contamination inside the control screen due to excessive edge gaps. Furthermore, the solid rod on frame one can move parallel to the slot area of ​​frame two, achieving easy assembly of frames one and two. Finally, the adsorption block carried on the solid rod effectively improves the assembly stability with frame two, preventing instability and shaking during use. Attached Figure Description

[0013] Figure 1 This is a structural diagram of a virtual simulation resource and virtual simulation experiment management device.

[0014] Figure 2 This is a three-dimensional structural diagram of an improved manager.

[0015] Figure 3 This is a three-dimensional structural diagram of an improved data connector.

[0016] Figure 4 This is a schematic diagram of a three-dimensional structure of an improved movable bump.

[0017] Figure 5 This is a cross-sectional structural diagram of an improved front-end of a data transmission hard disk.

[0018] Figure 6 This is a schematic diagram of a three-dimensional structure with an improved reinforced border.

[0019] Figure 7 This is a schematic diagram of a three-dimensional structure of an improved solid rod.

[0020] In the diagram: Base-1, Virtual Simulation Chamber-2, Manager-3, Electric Door-4, Reinforced Frame-31, Control Panel-32, Data Storage Module-33, Insulating Wall-34, Slider-35, Data Connector-36, Electrical Connection Block-361, Cover-362, Slide Rail-363, Movable Protrusion-364, Positioning Bolt-a1, Adapter Block-a2, Extension Part-a3, Empty Slot-a4, Data Transmission Hard Disk-a5, Contact Layer-a51, Parallel Block-a52, Support Column-a53, Limiting Frame-a54, Power Slot-a55, Pull Block-311, Frame 1-312, Overlapping Layer-313, Frame 2-314, Slot-315, Solid Rod-316, Welded Plate-b1, Rod Body-b2, Adsorption Block-b3. Detailed Implementation

[0021] The present invention will be further described below with reference to the accompanying drawings: Example

[0022] Figures 1 to 5 As shown: This invention provides a virtual simulation resource and virtual simulation experiment management device. Its structure includes a base 1, a virtual simulation chamber 2, a manager 3, and an electric door 4. The upper end of the base 1 is fixedly connected to the virtual simulation chamber 2. The manager 3 is embedded in the center of the side of the virtual simulation chamber 2. The electric door 4 is installed at the center of the front end of the virtual simulation chamber 2 and is electrically connected to the manager 3.

[0023] The manager 3 includes a reinforced frame 31, a control screen 32, a data storage module 33, an insulating wall 34, a slider 35, and a data connector 36. The reinforced frame 31 covers the edge of the control screen 32. The data storage module 33 is fixedly connected to the back of the control screen 32. The insulating wall 34 covers the back area of ​​the data storage module 33. The slider 35 is installed on the left and right sides of the data storage module 33. The data connector 36 is embedded in the upper and lower center areas of the data storage module 33 and is electrically connected to the virtual simulation chamber 2 through the control screen 32. The data storage module 33 is embedded in the side of the virtual simulation chamber 2 through the slider 35. The reinforced frame 31 is square in shape and its edge shape is consistent with that of the control screen 32. The surface of the control screen 32 is finely polished. The insulating wall 34 on the back of the data storage module 33 is made of rubber. There is one slider 35 on each of the left and right sides of the data storage module 33. There is one set of data connectors 36 at each of the upper and lower ends of the data storage module 33. The reinforced frame 31, with its square shape, can overlap with the edge of the control screen 32, thereby improving the sealing effect of the control screen 32's edge. The control screen 32, with its finely polished surface, can effectively avoid hand damage caused by excessive friction during touch control. The data storage module 33, with its back rubber insulating wall 34, can prevent large-scale power leakage and instability after contact with components. Furthermore, the flexible rubber can achieve a shock absorption effect, preventing the positional displacement of small parts caused by assembly impacts. The slider 35, located on the left and right sides of the data storage module 33, can improve the forward and backward movement stability of the data storage module 33. The data connector 36, with its upper and lower parts, can improve the stability of subsequent power-on use.

[0024] The data connector 36 includes an electrical connection block 361, a cover 362, a slide rail 363, and a movable protrusion 364. The electrical connection block 361 extends through the lower end of the cover 362. The slide rail 363 and the cover 362 are integrated into one structure. The movable protrusion 364 is embedded in the cover 362 through the slide rail 363 and is electrically connected to the electrical connection block 361. The movable protrusion 364 is electrically connected to the data storage module 33 and the virtual simulation chamber 2 through the electrical connection block 361. The electrical connection block 361 is a protrusion, the cover 362 is rectangular, the thickness of the movable protrusion 364 is less than the thickness of the cover 362, and the slide rail 363 is set in a straight line. The electrical connection block 361 can be embedded in the inner layer of the component through its protruding shape to achieve the effect of contact and power conduction. The cover 362 can cover the outside of the movable protrusion 364 through its rectangular shape. The movable protrusion 364 can move parallel inside the cover 362 through its own thickness. The slide rail 363 can ensure the stable movement of the movable protrusion 364 through its linear orientation setting.

[0025] The movable protrusion 364 includes a positioning bolt a1, an adapter block a2, an extension a3, a slot a4, and a data transmission hard disk a5. The positioning bolt a1 passes through the center of the adapter block a2. The extension a3 is embedded inside the adapter block a2 and contacts the positioning bolt a1. The slot a4 passes through the center of the extension a3 and is an integral structure. The data transmission hard disk a5 is fixedly connected to the extension a3 and can move back and forth. The data transmission hard disk a5 is electrically connected to the electrical connection block 361 through the adapter block a2 of the extension a3. There are two positioning bolts a1 on the adapter block a2. The adapter block a2 contains a rectangular track. The slot a4 of the extension a3 passes through vertically. The data transmission hard disk a5 is solid. The positioning bolt a1 determines the position of the adapter block a2 through two bolts. The adapter block a2 allows the extension piece a3 to move linearly through a rectangular track. The extension piece a3 can be stably installed into the adapter block a2 through its own slot a4. At the same time, the movement of the slot a4 together will not be blocked by the positioning bolt a1 and will not cause jamming. The data transmission hard disk a5, with its solid shape, can improve the accuracy of power and data transmission and improve the comprehensiveness of virtual simulation data transmission.

[0026] The data transmission hard disk a5 has a contact layer a51, parallel blocks a52, support pillars a53, a limiting frame a54, and a power-conducting groove a55 at its front end. The edge of the contact layer a51 is fixedly connected to the parallel blocks a52. The support pillars a53 are perpendicular to the parallel blocks a52. The edge of the limiting frame a54 is fixedly connected to the support pillars a53. The power-conducting groove a55 passes through the center of the limiting frame a54 and is an integral structure with the data transmission hard disk a5. The surface of the contact layer a51 is flat and carries multiple sets of parallel blocks a52 and support pillars a53 inside. The limiting frame a54 has three sets and is positioned in a parallel orientation. The power-conducting groove a55 is a square hollow shape. The contact layer a51, with its flattened surface, prevents tilting after the parallel block a52, support column a53, and limiting frame a54 are installed. The limiting frame a54, with its three sets of supports a53 that cooperate with the parallel block a52, can be stably installed on the surface of the contact layer a51. The through groove a55, with the support of the edge limiting frame a54 and support column a53, can avoid deformation caused by frequent overlap or detachment with the component.

[0027] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The virtual simulation experiment management device can position the virtual simulation chamber 2 in a specific experimental area via the base 1. After the virtual simulation chamber 2 is connected to an external power source, it can control the scene inside the virtual simulation chamber 2 according to the virtual simulation data of the manager 3. When the electric door 4 of the virtual simulation chamber 2 is opened, the experimenter can enter the virtual simulation chamber 2 to conduct a virtual simulation experiment. This immersive experience can further improve the accuracy and data precision of the virtual simulation experiment. During the process, the corresponding simulation resource data can be adjusted at any time with the help of the manager 3, which can improve the scene change effect of the virtual simulation chamber 2. At the same time, it can replace the process of wearing 3D glasses in the experiment, further improving the use effect of the experiment management device and the virtual simulation chamber 2. Secondly, the control panel 32 of the manager 3 can improve its edge sealing by reinforcing the frame 31. This edge sealing prevents external moisture and dust from intruding and causing malfunctions, ensuring stable operation. The data storage module 32 on the back of the control panel 32 can store virtual simulation resource data, eliminating the need to rebuild the database for subsequent use and improving the efficiency of virtual simulation experiments. Furthermore, the data storage module 33 can avoid direct contact with the virtual simulation chamber 2 through the insulating wall 34, improving the safety of the assembled components and preventing power leakage caused by direct contact. The left and right sides of the data storage module 33... The slider 35 can move back and forth in parallel to enter or leave the virtual simulation chamber 2, which facilitates subsequent disassembly and maintenance. It can replace the original two facilities that occupy a lot of space when placed separately. As an integrated unit, it can reduce the size of the device and improve the overall ease of use. It can also replace the original multi-line connection, avoiding the clutter caused by too many lines. At the same time, the data storage module 33 can use the upper and lower data connectors 36 to complete the data transmission with the virtual simulation chamber 2, thereby ensuring that the data constructed or stored by the data storage module 33 can be accurately imported into the virtual simulation chamber 2, providing the virtual simulation chamber 2 with suitable data for the experimental effect of virtual simulation resources. Third: The cover 362 of the data connector 36 can move the movable protrusion 364 in parallel via the slide rail 363, so that the electrical connection block 361 at the lower end of the cover 362 can be embedded in the upper and lower parts of the data storage module 33, and the movable protrusion 364 can move back and forth in the slide rail 363 in conjunction with the control screen 32. When the virtual simulation chamber 2 needs to conduct an experiment, the movable protrusion 364 can extend from the slide rail 363 area under the control of the control screen 32 and then insert into the interior of the virtual simulation chamber 2 to complete data transmission and electrical connection, so that the virtual simulation chamber 2 can operate stably. Conversely, after the virtual simulation chamber 2 has completed the experiment, the movable protrusion 364 will be reset again under the control of the control screen 32, so that it is disconnected from the electrical connection with the virtual simulation chamber 2, ensuring that the virtual simulation chamber 2 can completely stop the program running effect, thereby improving the control and management effect of the experimental management device on the virtual simulation experiment. Fourth: The adapter block a2 of the movable protrusion 364 can be fixed inside the cover 362 by the positioning bolt a1. Then the adapter block a2 can complete the electrical connection with the electrical connection block 361. The extension a3 of the adapter block a2 can import the electrical energy and data of the electrical connection block 361 into the data transmission hard disk a5, so that the data transmission hard disk a5 can transmit data when it is inserted into the virtual simulation chamber 2. For this reason, when the data transmission hard disk a5 moves back and forth, the extension a3 will move parallel inside the adapter block a2, so as to complete the position control of the data transmission hard disk a5. During the process, the empty slot a4 in the middle of the extension a3 can play an auxiliary role to prevent the extension a3 from being unable to reset due to the influence of the positioning bolt a1 when it enters the adapter block a2. Therefore, the extension a3 can be stably reset into the adapter block a2 through the empty slot a4. Fifth: The contact layer a51 at the front end of the data transfer hard disk a5 can be fixed by multiple support pillars a53 through parallel blocks a52. The cross-shaped fixing of the support pillars a53 can determine the position of the three sets of limiting frames a54. For this reason, the power-conducting slot a55 can pass through the middle of the limiting frame a54. So when the data transfer hard disk a5 enters the virtual simulation chamber 2, the power-conducting slot a55 can embed the internal components of the virtual simulation chamber 2, thereby improving the fixed power-conducting stability of the two. At the same time, the edge of the power-conducting slot a55 can improve its own shape stability through the cooperation of the limiting frame a54 and the support pillars a53, avoiding shape deformation caused by frequent insertion with the virtual simulation chamber 2. Therefore, the shape stability of the power-conducting slot a55 can be improved. Example

[0028] Figures 6 to 7 As shown: This invention provides a virtual simulation resource and virtual simulation experiment management device. Its structure includes: the reinforced frame 31 is provided with pull blocks 311, a first frame 312, an overlapping layer 313, a second frame 314, a slot 315, and a solid rod 316; the pull blocks 311 are welded to the left and right sides of the first frame 312 and the second frame 314; the overlapping layer 313 is an integrated structure with the first and second frames 312 and 314; the slot 315 is located in the front end area of ​​the second frame 314 and is adapted to the solid rod 316; the solid rod 316 is connected to the first frame 312 by parallel welding; the solid rod 316 is located at the edge of the control screen 32 through the first and second frames 312 and 314; one pull block 311 is provided on each of the left and right sides of the first and second frames 312 and 314; the overlapping layer 313 is finely polished; and the shape of the slot 315 is consistent with the shape of the solid rod 316. The pull block 311 allows the left and right sides of the first and second frames 312 and 314 to be easily pulled. The overlapping layer 313, through its fine polishing, can improve the accuracy of its overlap with the edge of the component. The slot 315, based on its own shape, allows the solid rod 316 to be inserted and overlap in a straight line.

[0029] The solid rod 316 is provided with a welding piece b1, a rod body b2, and an adsorption block b3. The upper center of the welding piece b1 is welded to the lower end of the rod body b2. The adsorption block b3 is positioned in the top area of ​​the rod body b2. The rod body b2 is welded to the first frame 312 through the welding piece b1. The rod body b2 carries the adsorption block b3 into the slot 315 of the second frame 314 and they overlap. The welding piece b1 and the rod body b2 are perpendicular to each other. The surface of the rod body b2 is finely polished. The top of the adsorption block b3 overlaps with the top of the rod body b2. The welding piece b1, by being perpendicular to the rod b2, can effectively improve the verticality of the rod b2. The rod b2, through surface polishing, can prevent jamming during the insertion process. The adsorption block b3, based on its own position, can improve the overlap and firmness between the rod b2 and the inside of the component, avoiding shaking caused by gaps.

[0030] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The reinforced frame 31 is composed of frames 312 and 314, and each of them has a pull block 311 on its side center, which improves the ease of pulling them left and right. At the same time, the overlapping layer 313 inside frames 312 and 314 can be polished to overlap with the edge of the control screen 32, preventing unevenness from causing inaccurate overlap and improving the airtightness of the control screen 32 edge. Furthermore, the two solid rods 316 carried by frame 312 can be inserted into the slots 315 of frame 314 by manual control of the pull block 311, so that the two can form a square shape after assembly, completing the coverage and fixing effect of the control screen 32 edge. This improves the ease of disassembly and assembly of the control screen 32 edge components, and at the same time, it can prevent dust and moisture intrusion that could cause malfunctions, ensuring the stability of the experimental management device's control and management of the virtual simulation database. Second: The bottom of the solid rod 316, b2, can be welded to one end of the first frame 312 via a welding piece b1. This allows the rod b2 to be aligned with the first frame 312 through the welding connection. Furthermore, the adsorption block b3 carried at the top of the rod b2 can enhance the connection and fixation with the inside of the second frame 314 through the adsorption effect after the rod b2 enters the slot 315 of the second frame 314. This prevents shaking and instability caused by gaps, avoids damage to the overall airtight seal due to instability, and further improves the protection performance of the device edges, preventing the inability to stably control virtual simulation resources after a failure.

[0031] Any technical solution that achieves the above-mentioned technical effects by utilizing the technical solutions described in this invention, or by designing similar technical solutions by those skilled in the art under the inspiration of the technical solutions described in this invention, falls within the protection scope of this invention.

Claims

1. A virtual simulation resource and virtual simulation experiment management device, the structure of which includes: The base (1), virtual simulation chamber (2), manager (3), and electric door (4) are characterized in that: the upper end of the base (1) is fixedly connected to the virtual simulation chamber (2), the manager (3) is embedded in the center of the side of the virtual simulation chamber (2), and the electric door (4) is installed at the center of the front end of the virtual simulation chamber (2) and electrically connected to the manager (3).

2. The virtual simulation resource and virtual simulation experiment management device according to claim 1, characterized in that: The manager (3) is provided with a reinforced frame (31), a control screen (32), a data storage module (33), an insulating wall (34), a slider (35), and a data connector (36). The reinforced frame (31) covers the edge of the control screen (32). The data storage module (33) is fixedly connected to the back of the control screen (32). The insulating wall (34) covers the back area of ​​the data storage module (33). The slider (35) is installed on the left and right sides of the data storage module (33). The data connector (36) is embedded in the upper and lower center areas of the data storage module (33) and completes the electrical connection with the virtual simulation chamber (2) through the control screen (32). The data storage module (33) is embedded in the side part of the virtual simulation chamber (2) through the slider (35).

3. The virtual simulation resource and virtual simulation experiment management device according to claim 2, characterized in that: The data connector (36) is provided with an electrical connection block (361), a cover (362), a slide rail (363), and a movable protrusion (364). The electrical connection block (361) passes through the lower end of the cover (362). The slide rail (363) and the interior of the cover (362) are an integrated structure. The movable protrusion (364) is embedded in the interior of the cover (362) through the slide rail (363) and is electrically connected to the electrical connection block (361). The movable protrusion (364) completes the electrical connection with the data storage module (33) and the virtual simulation chamber (2) through the electrical connection block (361).

4. The virtual simulation resource and virtual simulation experiment management device according to claim 3, characterized in that: The movable protrusion (364) is provided with a positioning bolt (a1), an adapter block (a2), an extension (a3), a slot (a4), and a data transmission hard disk (a5). The positioning bolt (a1) passes through the center of the adapter block (a2). The extension (a3) ​​is embedded inside the adapter block (a2) and contacts the positioning bolt (a1). The slot (a4) passes through the center of the extension (a3) ​​and is an integrated structure. The data transmission hard disk (a5) is fixedly connected to the extension (a3) ​​and moves back and forth. The data transmission hard disk (a5) completes the electrical connection with the electrical connection block (361) through the adapter block (a2) of the extension (a3).

5. The virtual simulation resource and virtual simulation experiment management device according to claim 4, characterized in that: The front end of the data transmission hard disk (a5) is provided with a contact layer (a51), a parallel block (a52), a support column (a53), a limiting frame (a54), and a power-conducting groove (a55). The edge of the contact layer (a51) is fixedly connected to the parallel block (a52). The support column (a53) is perpendicular to the parallel block (a52). The edge of the limiting frame (a54) is fixedly connected to the support column (a53). The power-conducting groove (a55) passes through the center of the limiting frame (a54) and is an integral structure with the data transmission hard disk (a5).

6. The virtual simulation resource and virtual simulation experiment management device according to claim 2, characterized in that: The reinforced frame (31) is provided with a pull block (311), a first frame (312), an overlapping layer (313), a second frame (314), a slot (315), and a solid rod (316). The pull block (311) is welded to the left and right sides of the first frame (312) and the second frame (314). The overlapping layer (313) is an integrated structure with the first and second frames (312, 314). The slot (315) is located in the front end area of ​​the second frame (314) and is adapted to the solid rod (316). The solid rod (316) is connected to the first frame (312) by parallel welding. The solid rod (316) is located at the edge of the control screen (32) through the first and second frames (312, 314).

7. The virtual simulation resource and virtual simulation experiment management device according to claim 6, characterized in that: The solid rod (316) is provided with a welding piece (b1), a rod body (b2), and an adsorption block (b3). The upper center of the welding piece (b1) is welded to the lower end of the rod body (b2). The adsorption block (b3) is positioned in the top area of ​​the rod body (b2). The rod body (b2) is welded to the first frame (312) through the welding piece (b1). The rod body (b2) carries the adsorption block (b3) into the slot (315) of the second frame (314) and they overlap.

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