Special non-ignition static-conducting floor structure for cremation industry and construction process

Abstract

The application relates to a special non-ignition static-conducting floor structure for a pyro-processing industry and a construction process, and belongs to the technical field of static electricity dissipation. The floor structure comprises a putty layer for installing a copper foil layer and a mortar layer for coating the putty layer, an installation groove is arranged on the mortar layer, a sealing plate is arranged on the installation groove to seal the opening of the installation groove, the copper foil layer is fixedly arranged on the sealing plate, a strip-shaped notch is arranged on the sealing plate and penetrates through the sealing plate, a connecting copper foil is arranged in the installation groove, the length direction of the connecting copper foil is parallel to the length direction of the strip-shaped notch, and the floor structure further comprises an installation device which is used for driving the connecting copper foil to pass through the strip-shaped notch and be bonded on the copper foil layer. The application has the effect of ensuring the conductivity of the floor.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of electrostatic dissipation results, in particular to a non-ignition electrostatic-conducting floor structure special for cremation and chemical industry and a construction process. BACKGROUND

[0002] Static electricity is a kind of charge in a static state, which is inevitable in industrial production and has many hazards, mainly including the following two mechanisms. One is the hazard caused by electrostatic discharge, such as causing failure or malfunction of electronic equipment, causing electromagnetic interference, breaking integrated circuits and precision electronic components, or promoting component aging and reducing production yield. High-voltage electrostatic discharge can cause electric shock, endanger personal safety, and easily cause explosion and fire in production places of many flammable and explosive products or dust and oil mist in fire factories and chemical factories. Therefore, the storage place of products in a fire / chemical factory needs to prevent the hazards caused by static electricity.

[0003] At present, a static-conducting floor is disclosed in a patent document with the authorized announcement number CN210421804U, which comprises a base layer, a closed primer layer compounded on the base layer, a mortar layer compounded on the closed primer layer, a putty layer compounded on the mortar layer, a copper foil layer compounded on the putty layer, and a graphene static-conducting finish layer compounded on the copper foil layer. The generated static electricity is transmitted to the copper foil layer through the graphene static-conducting finish layer, then transmitted to the grounding copper wire, and then transmitted to the outdoor, thereby eliminating static electricity.

[0004] According to the related technology in the above, the inventors believe that the following defects exist. In the use process of the floor, a vehicle or the like drives on the floor, and the vehicle applies a large friction force to the floor, so that the copper foil has a tendency to deform on the base surface, which leads to the possibility that the copper foil is easily broken, and in turn leads to the decrease of the conductive capacity of the floor. SUMMARY

[0005] In order to ensure the conductive capacity of the floor, the application provides a non-ignition electrostatic-conducting floor structure special for cremation and chemical industry and a construction process.

[0006] In the first aspect, the application provides a non-ignition electrostatic-conducting floor structure special for cremation and chemical industry, which adopts the following technical scheme:

[0007] The application discloses a special non-ignition and static-conducting floor structure for cremation industry, which comprises a putty layer for mounting a copper foil layer and a mortar layer for coating the putty layer, the mortar layer is provided with a mounting groove, a sealing plate is arranged at the opening of the mounting groove, the copper foil layer is fixed on the sealing plate, the sealing plate is provided with a strip-shaped notch, the strip-shaped notch penetrates through the sealing plate, a connecting copper foil is arranged in the mounting groove, the length direction of the connecting copper foil is parallel to the length direction of the strip-shaped notch, and the floor structure further comprises a mounting device which is used for driving the connecting copper foil to pass through the strip-shaped notch and be bonded on the copper foil layer.

[0008] By using the above technical scheme, when the copper foil layer in the floor is broken due to long-term extrusion and wear, the connecting copper foil in the mounting groove is driven to move out of the strip-shaped notch by the mounting device, and then is bonded on the copper foil layer, so that the broken copper foil layer is connected, the static electricity accumulated on the floor is transmitted to the grounding wire through the connecting copper foil, and the static electricity is dissipated; the copper foil layer is connected and repaired through the connecting copper foil, so that the conductivity of the copper foil layer is ensured, and the conductivity of the floor is ensured.

[0009] Optionally, the width of the conductive copper foil of the copper foil layer is greater than the width of the strip-shaped notch, the conductive copper foil spans the strip-shaped notch, the width of the connecting copper foil is less than the width of the strip-shaped notch, and the floor structure further comprises a strip-shaped block which is used for entering the strip-shaped notch and supporting the conductive copper foil.

[0010] By using the above technical scheme, the conductive copper foil spans the strip-shaped notch, so that the two sides of the conductive copper foil are fixed on the sealing plate, and then the conductive copper foil is fixed on the sealing plate; the middle part of the conductive copper foil cannot be effectively supported because the conductive copper foil spans the strip-shaped notch, the strip-shaped block is used for supporting the conductive copper foil by moving into the strip-shaped notch, and the service life of the conductive copper foil is prolonged.

[0011] Optionally, the strip-shaped block is a cuboid, the cross section of the strip-shaped block is a square, the connecting copper foil is fixed on the square surface of the strip-shaped block, the strip-shaped block is rotatably arranged in the mounting groove, the rotation axis of the strip-shaped block is parallel to the length direction of the mounting groove, the mounting device comprises a first mounting member which is used for driving the strip-shaped block to rotate so that the square surface of the strip-shaped block faces the strip-shaped notch, and the strip-shaped block is slidably arranged in the mounting groove, the sliding direction of the strip-shaped block is parallel to the depth direction of the mounting groove, and the mounting device further comprises a second mounting member which is used for driving the strip-shaped block to slide into or slide out of the strip-shaped notch.

[0012] By adopting the technical scheme, when the fractured conductive copper foil is connected, the strip-shaped block is first driven to rotate by the first mounting member, so that the connecting copper foil is opposite to the strip-shaped gap and located in the projection of the strip-shaped gap, then the strip-shaped block is driven to slide by the second mounting member, the strip-shaped block slides into the strip-shaped gap, and meanwhile, the connecting copper foil is in contact with the fractured conductive copper foil to complete the connection, so that the operation is simple and convenient.

[0013] Optionally, the first mounting member comprises a first mounting plate arranged in the mounting groove, and a first micro motor is arranged on the first mounting plate, the length direction of an output shaft of the first micro motor is parallel to the length direction of the mounting groove, and the center of the square end of the strip-shaped block is coaxially arranged on the output shaft of the first micro motor.

[0014] By adopting the technical scheme, the first micro motor is started, the first micro motor drives the strip-shaped block to rotate, the strip-shaped block rotates to reverse the connecting copper foil, so that the intact connecting copper foil is opposite to the strip-shaped gap, and the operation is simple and convenient; under the action of the first mounting plate, the first micro motor is conveniently mounted.

[0015] Optionally, the second mounting member comprises a second micro motor arranged in the mounting groove, the length direction of an output shaft of the second micro motor is parallel to the depth direction of the mounting groove, a lead screw is coaxially arranged on the output shaft of the second micro motor, and the first mounting plate is threadedly connected to the lead screw.

[0016] By adopting the technical scheme, the second micro motor is started, the second micro motor drives the lead screw to rotate, the lead screw drives the first mounting plate to slide, the first mounting plate drives the first micro motor to slide, and then drives the strip-shaped block to slide, so that the strip-shaped block enters the strip-shaped gap, and the operation is simple and convenient.

[0017] Optionally, a positioning plate is arranged on the sealing plate and located at the opening of the strip-shaped gap close to the ground, the surface of the positioning plate away from the bottom wall of the mounting groove is flush with the top surface of the sealing plate, and the connecting copper foil is removed through the gap between the positioning plate and the side wall of the strip-shaped gap.

[0018] By adopting the technical scheme, the sliding distance of the strip-shaped block is limited under the action of the positioning plate, so as to reduce the possibility that the strip-shaped block is slid to open the conductive layer, improve the integrity of the conductive layer, and then ensure the conductive capacity of the terrace.

[0019] Optionally, a receiving rod is slidingly arranged on the sealing plate, the sliding direction of the receiving rod is parallel to the width direction of the mounting groove, the receiving rod is slid into the strip-shaped gap to receive the strip-shaped block, and the terrace structure further comprises a driving member for driving the receiving rod to slide.

[0020] By adopting the technical scheme, when the strip block enters the strip-shaped gap, the strip block will transmit the load to the output shafts of the first micro motor and the second micro motor when the load passes through the strip block, which is easy to cause damage to the first micro motor and the second micro motor; after the strip block enters the strip-shaped gap, the strip block is supported by the driving member to drive the supporting rod to slide, so as to reduce the load of the first micro motor and the second micro motor, facilitate replacement of the connected copper foil, and prolong the service life of the first micro motor and the second micro motor.

[0021] Optionally, the driving member comprises a first driving rod arranged in the sealing plate, a sliding direction of the first driving rod is parallel to a sliding direction of the supporting rod, the driving member further comprises a second driving rod slidingly arranged in the sealing plate, a sliding direction of the second driving rod is parallel to a depth direction of the mounting groove, two ends of the second driving rod are respectively in abutment with the first driving rod and the supporting rod, and the second driving rod, the first driving rod and the supporting rod are all provided with a guide surface on the abutment surface, and the guide surface is used to slide the first driving rod, the second driving rod and the supporting rod when the strip block is in abutment with the first driving rod.

[0022] By adopting the technical scheme, after the strip block is in abutment with the first driving rod, the first driving rod is driven to slide, the first driving rod slidingly drives the second driving rod to slide, and the second driving rod slidingly drives the supporting rod to slide, so that the supporting rod slides out to support the strip block, and the operation is simple and convenient.

[0023] In a second aspect, the application provides a special non-sparking and static-conducting floor construction process for cremation industry, which adopts the following technical scheme:

[0024] Optionally, the special non-sparking and static-conducting floor construction process for cremation industry uses the special non-sparking and static-conducting floor structure for cremation industry, and further comprises:

[0025] S1: coating a mortar layer on a base layer, and opening a mounting groove on the mortar layer after the mortar layer is solidified;

[0026] S2: fixing the sealing plate at the opening of the mounting groove, fixing the conductive copper foil on the sealing plate, and making the conductive copper foil cross the strip-shaped gap;

[0027] S3: installing the first motor and the second motor in the mounting groove, and adjusting the position of the strip block;

[0028] S4: inserting and fixing the strip block in the strip-shaped gap of the sealing plate by the first motor and the second motor to fix the conductive copper foil;

[0029] S5: coating a putty layer on the surface of the mortar layer and leveling the base surface, and then coating a conductive layer on the surface of the putty layer.

[0030] To sum up, the application includes the following beneficial technical effects:

[0031] 1. In the process of long-term extrusion and wear of the copper foil layer in the floor, if the copper foil layer is broken by accident, the connecting copper foil in the mounting groove is driven to move out through the strip-shaped gap by the mounting device, and then is bonded on the copper foil layer, thereby connecting the broken copper foil layer, and the accumulated static electricity in the floor is transmitted to the grounding wire through the connecting copper foil, and the static electricity is dissipated; the copper foil layer is connected and repaired by the connecting copper foil, thereby ensuring the conductivity of the copper foil layer, and further ensuring the conductivity of the floor. BRIEF DESCRIPTION OF DRAWINGS

[0032] Figure 1 is a whole structure schematic view of a special non-sparking and static-conducting floor structure for cremation and industry according to an embodiment of the application;

[0033] Figure 2 is a sectional view of a special non-sparking and static-conducting floor structure for cremation and industry according to an embodiment of the application;

[0034] Figure 3 is a sectional view of a copper foil layer in a special non-sparking and static-conducting floor structure for cremation and industry according to an embodiment of the application;

[0035] Figure 4 is a sectional view of a sealing plate in a special non-sparking and static-conducting floor structure for cremation and industry according to an embodiment of the application.

[0036] Reference signs: 1, mortar layer; 2, mounting groove; 3, sealing plate; 4, copper foil layer; 5, strip-shaped gap; 6, connecting copper foil;

[0037] 7, mounting device; 71, first mounting plate; 72, first micro motor; 73, second micro motor; 74, lead screw;

[0038] 8, strip-shaped block; 9, positioning plate; 10, bearing rod; 101, sleeve rod; 102, sliding rod; 11, first driving rod; 12, second driving rod; 13, guide surface. DETAILED DESCRIPTION

[0039] The following will be described in detail with reference to the accompanying drawings Figures 1-4 The application will be further described in detail.

[0040] The embodiment of the application discloses a special non-sparking and static-conducting floor structure for cremation and industry. Referring to Figure 1 , the special non-sparking and static-conducting floor structure for cremation and industry comprises a putty layer (not shown in the figure) for mounting the copper foil layer 4 and a mortar layer 1 for coating the putty layer;

[0041] Referring to Figure 2In the embodiment of the present application, the mounting groove 2 is formed in the mortar layer 1, the opening of the mounting groove 2 faces the ground, the sealing plate 3 is arranged to seal the opening of the mounting groove 2, the sealing plate 3 is a rectangular plate, the copper foil layer 4 is fixedly arranged on the sealing plate 3, further, the strip-shaped notch 5 is formed in the sealing plate 3, the strip-shaped notch 5 penetrates the sealing plate 3 along the thickness direction of the sealing plate 3;

[0042] With reference to Figure 2 And Figure 3 The connecting copper foil 6 is arranged in the mounting groove 2, the length direction of the connecting copper foil 6 is parallel to the length direction of the strip-shaped notch 5, and the floor structure further comprises a mounting device 7, which is used to drive the connecting copper foil 6 to pass through the strip-shaped notch 5 and be bonded to the copper foil layer 4.

[0043] After the conductive copper foil of the copper foil layer 4 is broken, the connecting copper foil 6 is driven by the mounting device 7 to move out of the strip-shaped notch 5 and be bonded to the conductive copper foil, so that the connection and repair of the conductive copper foil are completed, thereby ensuring the conductive performance of the floor.

[0044] With reference to Figure 2 And Figure 3 In order to facilitate the conductive copper foil to be fixedly arranged on the sealing plate 3, the width of the conductive copper foil of the copper foil layer 4 is greater than the width of the strip-shaped notch 5, and the conductive copper foil spans the strip-shaped notch 5, further, the two sides of the conductive copper foil are bonded to the sealing plate 3;

[0045] With reference to Figure 2 And Figure 3 In order to facilitate the connecting copper foil 6 to move out of the strip-shaped notch 5, the width of the connecting copper foil 6 is less than the width of the strip-shaped notch 5;

[0046] With reference to Figure 2 And Figure 3 In order to improve the stability and service life of the conductive copper foil, the floor structure further comprises a strip-shaped block 8, which is used to enter the strip-shaped notch 5 to support the conductive copper foil; after the conductive copper foil is arranged on the sealing plate 3, the strip-shaped block 8 is inserted into the strip-shaped notch 5, the strip-shaped block 8 supports the conductive copper foil, thereby reducing the possibility that the conductive copper foil bends towards the strip-shaped notch 5 under load, and prolonging the service life and stability of the conductive copper foil.

[0047] With reference to Figure 2 And Figure 3 In the embodiment, the strip-shaped block 8 is a cuboid, and the cross section of the strip-shaped block 8 is a square, and the connecting copper foil 6 is fixedly arranged on the square surface of the strip-shaped block 8;

[0048] With reference to Figure 2 And Figure 3, the strip-shaped block 8 is rotationally arranged in the mounting groove 2, an axis of rotation of the strip-shaped block 8 is parallel to a length direction of the mounting groove 2, the mounting device 7 comprises a first mounting piece for driving the strip-shaped block 8 to rotate so that a long rectangular face of the strip-shaped block 8 faces the strip-shaped gap 5, the first mounting piece comprises a first mounting plate 71 arranged in the mounting groove 2, the first mounting plate 71 is fixedly provided with a first micro motor 72, a length direction of an output shaft of the first micro motor 72 is parallel to the length direction of the mounting groove 2, a center of a square end of the strip-shaped block 8 is coaxially arranged on the output shaft of the first micro motor 72;

[0049] With reference to Figure 3 and Figure 4 Further, the strip-shaped block 8 is also slidingly arranged in the mounting groove 2, a sliding direction of the strip-shaped block 8 is parallel to a depth direction of the mounting groove 2, the mounting device 7 further comprises a second mounting piece for driving the strip-shaped block 8 to slide into or out of the strip-shaped gap 5, the second mounting piece comprises a second micro motor 73 arranged on a bottom wall of the mounting groove 2, a length direction of an output shaft of the second micro motor 73 is parallel to the depth direction of the mounting groove 2, a lead screw 74 is coaxially arranged on the output shaft of the second micro motor 73, and the first mounting plate 71 is threadedly connected to the lead screw 74.

[0050] When the connecting copper foil 6 is replaced to repair the conductive copper foil, first, the second micro motor 73 is started, the second micro motor 73 drives the lead screw 74 to rotate, the lead screw 74 drives the first mounting plate 71 to slide, the first mounting plate 71 drives the first micro motor 72 and the strip-shaped block 8 to slide towards the bottom wall of the mounting groove 2, so that the strip-shaped block 8 is separated from the strip-shaped gap 5; then the first micro motor 72 is started, the first micro motor 72 drives the strip-shaped block 8 to rotate by 90°, and then the second micro motor 73 drives the strip-shaped block 8 to enter the strip-shaped gap 5, and the connecting copper foil 6 abuts against the conductive copper foil.

[0051] With reference to Figure 3 and Figure 4 In order to reduce the possibility that the strip-shaped block 8 pries up the conductive copper foil after entering the strip-shaped gap 5, a positioning plate 9 is arranged on the sealing plate 3 and located at an opening of the strip-shaped gap 5 close to the ground, a face of the positioning plate 9 away from the bottom wall of the mounting groove 2 is flush with a top face of the sealing plate 3, and the connecting copper foil 6 moves out through a gap between the positioning plate 9 and a side wall of the strip-shaped gap 5; under the action of the positioning plate 9, the position of the strip-shaped block 8 is limited so that the strip-shaped block 8 abuts against a bottom face of the positioning plate 9, thereby reducing the possibility that the strip-shaped block 8 pries up the conductive copper foil.

[0052] With reference to Figure 3 and Figure 4In order to reduce the load of the strip-shaped block 8 on the first micro motor 72 and the second micro motor 73, a bearing rod 10 is slidingly arranged on the sealing plate 3, the sliding direction of the bearing rod 10 is parallel to the width direction of the mounting groove 2, the bearing rod 10 is slidingly arranged in the strip-shaped gap 5 to bear the strip-shaped block 8, in the embodiment, the bearing rod 10 is slidingly arranged in the sealing plate 3; after the strip-shaped block 8 enters the strip-shaped gap 5, the bearing rod 10 is slid out of the sealing plate 3, the bearing rod 10 bears the bottom surface of the strip-shaped block 8, thereby reducing the load of the strip-shaped block 8 on the first micro motor 72 and the second micro motor 73.

[0053] With reference to Figure 3 And Figure 4 In order to facilitate the sliding of the bearing rod 10, the floor structure further comprises a driving member for driving the bearing rod 10 to slide, the driving member comprises a first driving rod 11 arranged in the sealing plate 3, the sliding direction of the first driving rod 11 is parallel to the sliding direction of the bearing rod 10 and opposite to the sliding direction of the bearing rod 10, the driving member further comprises a second driving rod 12 slidingly arranged in the sealing plate 3, the sliding direction of the second driving rod 12 is parallel to the depth direction of the mounting groove 2, the two ends of the second driving rod 12 are respectively in abutment with the first driving rod 11 and the bearing rod 10, the abutment surfaces of the second driving rod 12, the first driving rod 11 and the bearing rod 10 are all provided with a guide surface 13, in the embodiment, the angle of the guide surface 13 is 45°, the guide surface 13 is used to slide the first driving rod 11, the second driving rod 12 and the bearing rod 10 when the strip-shaped block 8 abuts against the first driving rod 11.

[0054] After the strip-shaped block 8 enters the strip-shaped gap 5, the strip-shaped block 8 abuts against the guide surface 13 of the first driving rod 11 and drives the first driving rod 11 to slide, at this time, the bearing rod 10 has not been slid out of the sealing plate 3; the strip-shaped block 8 continues to rise and abut against the first driving rod 11, the first driving rod 11 drives the second driving rod 12 to slide, the second driving rod 12 drives the bearing rod 10 to slide, when the strip-shaped block 8 completely passes through the guide surface 13 of the first driving rod 11, the bearing rod 10 is slid out of the sealing plate 3 to bear the strip-shaped block 8.

[0055] With reference to Figure 3 And Figure 4 Figure 3 Figure 4In the embodiment of the present application, the receiving rod 10 comprises a sleeve rod 101 abutting against the second driving rod 12 and a sliding rod 102 slidingly sleeved in the sleeve rod 101, and the sliding rod 102 is used for receiving the strip-shaped block 8. Further, the top surface of the sliding rod 102 for receiving the strip-shaped block 8 is provided with an inclined surface, and the inclined surface on the sliding rod 102 is used for the strip-shaped block 8 to be recovered into the sleeve rod 101 under the pulling-down action of the second micro motor 73. Further, the sleeve rod 101 is provided with a micro push rod for driving the sliding rod 102 to slide out, and further, the sliding rod 102 is fixedly arranged on the micro push rod. Under the action of the sleeve rod 101 and the sliding rod 102, the stroke of the output shaft of the micro push rod is greatly reduced, and further, the volume of the micro push rod is reduced, thereby facilitating the reduction of the volume of the sealing plate 3, and further facilitating the installation of the floor.

[0056] The second micro motor 73 is started, the strip-shaped block 8 slides down under the pulling-down action of the second micro motor 73, the strip-shaped block 8 presses down the sliding rod 102, the sliding rod 102 drives the output shaft of the micro push rod to be recovered into the sleeve rod 101, and then the strip-shaped block 8 passes through the sliding rod 102 and moves out of the strip-shaped gap 5. After the connection copper foil 6 is replaced, the strip-shaped block 8 slides towards the strip-shaped gap 5, then the sleeve rod 101 slides, and the micro push rod is started again to drive the sliding rod 102 to slide out to receive the strip-shaped block 8.

[0057] In other embodiments of the present application, the driving member can be replaced by an electric push rod, which is embedded in the sealing plate 3, and the receiving rod 10 is fixedly arranged on the output shaft of the electric push rod.

[0058] The implementation principle of the special non-firing static-conducting floor structure for cremation engineering in the embodiment of the present application is as follows:

[0059] When the conductive copper foil is broken after long-term use, the second micro motor 73 is started, the strip-shaped block 8 slides down under the pulling-down action of the second micro motor 73, the strip-shaped block 8 presses down the sliding rod 102, the sliding rod 102 drives the output shaft of the micro push rod to be recovered into the sleeve rod 101, and then the strip-shaped block 8 passes through the sliding rod 102 and moves out of the strip-shaped gap 5;

[0060] Then the first micro motor 72 is started to drive the strip-shaped block 8 to rotate by 90°, and the second micro motor 73 is started to drive the lead screw 74 to rotate to drive the strip-shaped block 8 to slide into the strip-shaped gap 5;

[0061] When the strip-shaped block 8 enters the strip-shaped gap 5, the strip-shaped block 8 abuts against the first driving rod 11, thereby driving the sleeve rod 101 to slide, and then the micro push rod is started to drive the sliding rod 102 to slide out to receive the strip-shaped block 8;

[0062] At this time, the connection copper foil 6 is attached below the conductive copper foil, and the connection of the conductive copper foil is completed.

[0063] The application discloses a special non-ignition electrostatic-conducting floor construction process for crematoria, which uses a special non-ignition electrostatic-conducting floor structure for crematoria and further comprises the following steps.

[0064] S1: coating a mortar layer 1 on a base layer, and opening an installation groove 2 on the mortar layer 1 after the mortar layer 1 is solidified;

[0065] S2: fixing a sealing plate 3 at the opening of the installation groove 2, fixing a conductive copper foil on the sealing plate 3, and making the conductive copper foil cross the strip-shaped notch 5;

[0066] S3: installing a first motor and a second motor in the installation groove 2, and adjusting the position of the strip-shaped block 8;

[0067] S4: inserting and fixing the strip-shaped block 8 in the strip-shaped notch 5 of the sealing plate 3 by the first motor and the second motor, and fixing the conductive copper foil;

[0068] S5: coating a putty layer on the surface of the mortar layer 1 and leveling the base surface, and then coating a conductive layer on the surface of the putty layer.

[0069] The above are preferred embodiments of the application, and the protection scope of the application is not limited thereto, so that: equivalent changes made according to the structure, shape and principle of the application should be covered in the protection scope of the application.

Claims

1. A non-sparking, static-conductive flooring structure for chemical applications, comprising a putty layer for installing a copper foil layer (4) and a mortar layer (1) for applying the putty layer, characterized in that: An installation groove (2) is provided on the mortar layer (1), and a sealing plate (3) is provided to seal the opening of the installation groove (2). The copper foil layer (4) is fixedly provided on the sealing plate (3). A strip-shaped notch (5) is provided on the sealing plate (3), and the strip-shaped notch (5) penetrates the sealing plate (3). A connecting copper foil (6) is provided in the installation groove (2). The length direction of the connecting copper foil (6) is parallel to the length direction of the strip-shaped notch (5). The floor structure also includes an installation device (7). The installation device (7) is used to drive the connecting copper foil (6) through the strip-shaped notch (5) and stick it to the copper foil layer (4).

2. The non-sparking, electrostatically conductive flooring structure for chemical engineering as described in claim 1, characterized in that: The width of the conductive copper foil in the copper foil layer (4) is greater than the width of the strip notch (5), and the conductive copper foil spans the strip notch (5). The width of the connecting copper foil (6) is less than the width of the strip notch (5). The floor structure also includes a strip block (8), which is used to enter the strip notch (5) to receive the conductive copper foil.

3. The non-sparking, electrostatically conductive flooring structure for chemical engineering as described in claim 2, characterized in that: The strip block (8) is cuboid with a square cross-section. The connecting copper foil (6) is fixedly disposed on the rectangular surface of the strip block (8). The strip block (8) is rotatably disposed in the mounting groove (2). The rotation axis of the strip block (8) is parallel to the length direction of the mounting groove (2). The mounting device (7) includes a first mounting member for driving the strip block (8) to rotate so that the rectangular surface of the strip block (8) faces the strip notch (5). The strip block (8) is slidably disposed in the mounting groove (2). The sliding direction of the strip block (8) is parallel to the depth direction of the mounting groove (2). The mounting device (7) also includes a second mounting member for driving the strip block (8) to slide into or out of the strip notch (5).

4. The non-sparking, electrostatically conductive flooring structure for chemical engineering as described in claim 3, characterized in that: The first mounting component includes a first mounting plate (71) disposed in the mounting groove (2), a first micro motor (72) is disposed on the first mounting plate (71), the length direction of the output shaft of the first micro motor (72) is parallel to the length direction of the mounting groove (2), and the center of the square end of the strip block (8) is coaxially disposed on the output shaft of the first micro motor (72).

5. The non-sparking, electrostatically conductive flooring structure for chemical applications according to claim 4, characterized in that: The second mounting component includes a second micro motor (73) disposed in the mounting groove (2). The length direction of the output shaft of the second micro motor (73) is parallel to the depth direction of the mounting groove (2). A lead screw (74) is coaxially disposed on the output shaft of the second micro motor (73). The first mounting plate (71) is threadedly connected to the lead screw (74).

6. The non-sparking, electrostatically conductive flooring structure for chemical applications according to claim 2, characterized in that: A positioning plate (9) is provided on the sealing plate (3) and at the opening of the strip notch (5) near the ground. The surface of the positioning plate (9) away from the bottom wall of the mounting groove (2) is flush with the top surface of the sealing plate (3). The connecting copper foil (6) is moved out through the gap between the positioning plate (9) and the side wall of the strip notch (5).

7. The non-sparking, electrostatically conductive flooring structure for chemical applications according to claim 6, characterized in that: A receiving rod (10) is slidably disposed on the sealing plate (3). The sliding direction of the receiving rod (10) is parallel to the width direction of the mounting groove (2). The receiving rod (10) slides into the strip notch (5) to receive the strip block (8). The floor structure also includes a driving component for driving the receiving rod (10) to slide.

8. The non-sparking, electrostatically conductive flooring structure for chemical engineering as described in claim 7, characterized in that: The driving component includes a first driving rod (11) disposed within the sealing plate (3), the sliding direction of the first driving rod (11) being parallel to the sliding direction of the receiving rod (10). The driving component also includes a second driving rod (12) slidably disposed within the sealing plate (3), the sliding direction of the second driving rod (12) being parallel to the depth direction of the mounting groove (2). The two ends of the second driving rod (12) abut against the first driving rod (11) and the receiving rod (10) respectively. The abutting surfaces of the second driving rod (12), the first driving rod (11), and the receiving rod (10) are all provided with guide surfaces (13). The guide surfaces (13) are used to slide the first driving rod (11), the second driving rod (12), and the receiving rod (10) when the strip block (8) abuts against the first driving rod (11).

9. A construction process for a non-sparking, static-conductive floor specifically designed for chemical applications, characterized in that: The non-sparking, static-conductive flooring structure for chemical applications as described in any one of claims 1-8 further includes; S1: Apply a mortar layer (1) to the base layer. After the mortar layer (1) has solidified, open an installation groove (2) on the mortar layer (1). S2: Then fix the sealing plate (3) at the opening of the mounting groove (2), then fix the conductive copper foil on the sealing plate (3), and make the guide copper foil cross the strip notch (5); S3: Install the first motor and the second motor in the mounting slot (2) and adjust the position of the strip block (8); S4: The first motor and the second motor drive the strip block (8) to be inserted into and fixed in the strip notch (5) of the sealing plate (3) to fix the conductive copper foil; S5: Apply a putty layer to the surface of the mortar layer (1) and level the base surface, then apply a conductive layer to the surface of the putty layer.

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