Fabricated energy-saving partition board with multiple sound insulation structures and sound insulation method

Abstract

The invention relates to the field of sound insulation of partition wall boards, in particular to an assembly type energy-saving partition wall board with multiple sound insulation structures and a sound insulation method, the assembly type energy-saving partition wall board comprises a first partition wall frame board, and a second partition wall frame board is arranged above the first partition wall frame board. According to the invention, through the insertion of the L-shaped butt joint groove frame and the L-shaped butt joint frame, the edges of the first partition wall frame plate, the second partition wall frame plate and the third partition wall frame plate can be overlapped to a certain extent after the partition wall frame plate, the second partition wall frame plate and the third partition wall frame plate are spliced, so that the gap formed after the aluminum alloy sound insulation plate and the glass fiber sound insulation plate are integrally spliced is reduced, and the sound insulation effect is improved; by means of the structure, building and splicing can be rapidly completed without support of an external frame, the aluminum alloy sound insulation plates and the glass fiber sound insulation plates can be detached and replaced as a whole, sound waves can be rapidly absorbed due to the effect of the arc-shaped reflection grooves, and on the basis that a thick sound insulation layer is not needed, the sound insulation effect is greatly improved. The sound insulation effect, the splicing efficiency and the overall stability are improved, and meanwhile the use cost is reduced.

Description

Technical Field

[0001] The present invention relates to the field of sound insulation of partition boards, and particularly to a prefabricated energy-saving partition board with a multiple sound insulation structure and a sound insulation method. Background Art

[0002] A partition board is a wall material with a partitioning function, mainly used for internal partitions of buildings, etc. The partition board plays multiple roles in modern architecture, such as separating spaces, sound insulation and noise reduction, energy conservation and heat preservation, aesthetic decoration, and providing a flexible space layout. It is an important and indispensable material in interior design and decoration.

[0003] For the patent application with the publication number CN214246233U, a high-strength sound insulation partition board, which relates to the field of sound insulation technology, includes a sound insulation partition board body. The sound insulation partition boards are connected through concave and convex grooves. The sound insulation partition board includes a first sound insulation layer, a second sound insulation layer, and a third sound insulation layer. A fish-scale porous steel mesh or a metal steel mesh is provided between the first sound insulation layer and the second sound insulation layer, and between the second sound insulation layer and the third sound insulation layer, and is fixed by fasteners. This utility model is provided with three sound insulation layers, so that this utility model has excellent sound insulation effect, and the connection method of this utility model is simple and firm. This utility model also uses a fish-scale porous steel mesh or a metal steel mesh as the skeleton, which can make the sound insulation partition board itself more solid.

[0004] In the use of existing partition boards, since their interiors are generally sound-insulated by setting sound insulation layers, only by adding multiple sound insulation layers can the sound insulation effect be improved, but the construction cost is relatively high. Since the sound insulation layer is generally arranged at the center position of the partition board body, a small distance will be reserved around it to facilitate the overall splicing and erection of the partition board. Therefore, although the partition board forms a whole after erection, the internal sound insulation layers do not effectively form a whole, resulting in a decrease in the sound insulation effect. Moreover, in the splicing process of existing partition boards, a special splicing frame is required for splicing, and most of the existing partition boards and sound insulation layers are integrated. After the sound insulation layer effect deteriorates, only the whole can be replaced, resulting in a further increase in the use cost of the wall.

[0005] Therefore, it is very necessary to invent a prefabricated energy-saving partition board with a multiple sound insulation structure and a sound insulation method to solve the above problems. Summary of the Invention

[0006] The object of the present invention is to provide a prefabricated energy-saving partition board with a multi-layer sound insulation structure and a sound insulation method. Through the insertion of an L-shaped docking groove frame and an L-shaped docking frame, there will be an overlapping part at the splicing position of each group of partition boards, so as to reduce the gap between the sound insulation layers, thereby improving the sound insulation effect. And the sound insulation layer is detachable, which can not only assist in splicing but also replace the sound insulation layer. Moreover, the arc-shaped reflection groove of the sound insulation layer can cause sound waves to refract, so that the sound waves can be quickly absorbed by the sound insulation layer, reducing the use thickness of the sound insulation layer, thereby reducing the use cost, so as to solve the problems of high use cost of the sound insulation layer and the splicing method affecting the sound insulation effect in the prior art.

[0007] To achieve the above object, the present invention provides the following technical solution: A prefabricated energy-saving partition board with a multi-layer sound insulation structure, including a partition frame board one, above which there is a partition frame board two, and on one side of the partition frame board one there is a partition frame board three;

[0008] The horizontal splicing component arranged on one side of the partition frame board one includes an L-shaped docking groove frame, which is installed on one side of the partition frame board one. On the opposite side of the partition frame board one away from the L-shaped docking groove frame, an L-shaped docking frame is installed. And the structures of the partition frame board one, the partition frame board two and the partition frame board three are exactly the same. The L-shaped docking groove frame on one side of the partition frame board one is inserted into the L-shaped docking frame on one side of the partition frame board two, and the L-shaped docking groove frame above the partition frame board one is inserted into the L-shaped docking frame at the bottom of the L-shaped docking frame;

[0009] The fixing component arranged in the partition frame board one includes a connecting frame, which is sleeved on one side of the L-shaped docking groove frame and is arranged in three groups in sequence downward. On the inner wall of the L-shaped docking groove frame, extrusion grooves are symmetrically opened. On the side surface of the L-shaped docking groove frame, limiting through holes two are symmetrically opened. A fixing rod two passes through the limiting through holes two, and one side of the fixing rod two is in contact with the extrusion groove. On the side surface of the L-shaped docking frame on one side of the partition frame board three, fixing holes two are symmetrically opened, and the fixing holes two are inserted into the side of the corresponding fixing rod two away from the extrusion groove;

[0010] The longitudinal splicing component arranged in the partition frame board one includes an insertion groove, which is symmetrically opened on one side of the L-shaped docking groove frame in the partition frame board one. An L-shaped insertion plate is inserted into the insertion groove. Bolts are symmetrically installed above the L-shaped insertion plate. On the bottom of the L-shaped docking frame on one side of the partition frame board two, docking holes are symmetrically opened, and the docking holes are inserted into the corresponding bolts. Nuts are screwed on the bolts, and the nuts are in contact with the inside of the docking holes;

[0011] The sound insulation component within partition frame board one includes an aluminum alloy sound insulation board, which is disposed within partition frame board one. One side of the aluminum alloy sound insulation board is inserted into the L-shaped docking frame, and the opposite side of the aluminum alloy sound insulation board is in extrusion fit with the connection frame. Glass fiber sound insulation boards are symmetrically installed on both sides of the aluminum alloy sound insulation board, and multiple groups of arc-shaped reflection grooves are sequentially formed on the surface of the glass fiber sound insulation boards.

[0012] As a preferred embodiment of the present invention, the horizontal splicing component further includes positioning grooves, which are symmetrically formed on the inner wall of the side surface of the L-shaped docking groove frame and are sequentially arranged in multiple groups downward. Multiple docking blocks are symmetrically installed on the side surface of the L-shaped docking frame in sequence downward, and the docking blocks are inserted into the corresponding positioning grooves.

[0013] As a preferred embodiment of the present invention, the fixing component further includes a first spring, which is sleeved on the second fixing rod, and both sides of the first spring are in fit with the second fixing rod and the inner part of the second limiting through hole.

[0014] As a preferred embodiment of the present invention, fixing rods one are symmetrically installed at the edge of the opening of the connection frame. On the inner wall side of partition frame board one close to the L-shaped docking groove frame, limiting through holes one are symmetrically formed, and the limiting through holes one are inserted into the corresponding fixing rods one.

[0015] As a preferred embodiment of the present invention, fixing holes one are symmetrically formed on one side of partition frame board three, and the fixing holes one are inserted into the corresponding fixing rods one. A second spring is sleeved on the fixing rod one, and both sides of the second spring are in fit with the edge of the opening of the connection frame and the inner wall of partition frame board one respectively.

[0016] As a preferred embodiment of the present invention, fixing rods three are symmetrically installed on the inner wall of the L-shaped docking groove frame, and the fixing rods three penetrate through the L-shaped docking groove frame. Fixing holes three are symmetrically formed on the side surface of the L-shaped docking frame on one side of partition frame board three, and the fixing holes three are inserted into the corresponding fixing rods three.

[0017] As a preferred embodiment of the present invention, the longitudinal splicing component further includes positioning holes, which are symmetrically formed on one side of the L-shaped plug board in sequence downward. Positioning rods are symmetrically installed within the connection frame, and the positioning rods are inserted into the corresponding positioning holes.

[0018] As a preferred embodiment of the present invention, the sound insulation component further includes absorption holes, which are symmetrically formed on the inner wall of partition frame board one and are sequentially arranged in multiple groups, and the absorption holes and the corresponding multiple groups of arc-shaped reflection grooves are at the same horizontal position.

[0019] A sound insulation method for an assembled energy-saving partition board with a multiple sound insulation structure, including an assembled energy-saving partition board with a multiple sound insulation structure as described above, and the processing steps are specifically as follows:

[0020] S1: Insert the L-shaped plug board into the plugging groove, and insert the L-shaped docking frame on one side of the partition wall frame board two into the L-shaped docking groove frame on one side of the partition wall frame board one;

[0021] S2: At this time, insert the aluminum alloy sound insulation board and the glass fiber sound insulation board into the interior of the partition wall frame board one, so that the connection frame is squeezed, the first fixing rod and the first fixing hole are plugged, at the same time the second fixing rod and the second fixing hole are plugged, and the third fixing rod is also plugged with the third fixing hole;

[0022] S3: At the same time, the positioning hole and the positioning rod are plugged, and after the docking hole below the partition wall frame board two is plugged with the bolt above the L-shaped plug board and fixed by a nut. By continuously performing the above steps, the construction of the entire sound insulation wall is completed;

[0023] S4: Absorb the generated noise into the interior of the partition wall frame board one through the absorption holes, and since the sound wave will refract after coming into contact with the arc-shaped reflection groove after entering, and continuously refract in the partition wall frame board one, and during this process, the aluminum alloy sound insulation board and the glass fiber sound insulation board absorb the noise, thereby achieving the sound insulation effect.

[0024] In the above technical solution, compared with the prior art, the technical effects and advantages provided by the present invention are as follows:

[0025] Through the plugging of the L-shaped docking groove frame and the L-shaped docking frame, after the partition wall frame board one, the partition wall frame board two and the partition wall frame board three are spliced, there is a certain overlap at their edges, thereby reducing the gap after the overall splicing of the aluminum alloy sound insulation board and the glass fiber sound insulation board, thereby improving the sound insulation effect. And with this structure, without the support of an external frame, the splicing construction can be quickly completed, and the aluminum alloy sound insulation board and the glass fiber sound insulation board as a whole can be disassembled and replaced. And due to the function of the arc-shaped reflection groove, the sound wave can be quickly absorbed. On the basis of not requiring a thick sound insulation layer, while improving the sound insulation effect, the splicing efficiency and the overall stability, the use cost is reduced. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings required to be used in the embodiments. Obviously, the drawings described below are only some embodiments recorded in the present invention. For those of ordinary skill in the art, other drawings can also be obtained according to these drawings.

[0027] Figure 1 It is a schematic diagram of the splicing structure of the present invention;

[0028] Figure 2 It is a schematic diagram of the connection structure between the partition wall frame board one and the partition wall frame board three of the present invention;

[0029] Figure 3Schematic diagram of the connection frame structure of the present invention;

[0030] Figure 4 Schematic diagram of the L-shaped insertion plate structure of the present invention;

[0031] Figure 5 Exploded structure diagram of partition wall panel one and partition wall panel three of the present invention;

[0032] Figure 6 Schematic diagram of the connection structure between partition wall panel one and partition wall panel two of the present invention;

[0033] Figure 7 Disassembly structure diagram of partition wall panel one and aluminum alloy sound insulation board of the present invention;

[0034] Figure 8 Schematic diagram of the planing structure of partition wall panel one of the present invention;

[0035] Figure 9 For the present invention Figure 2 Enlarged structure diagram at position A in;

[0036] Figure 10 For the present invention Figure 6 Enlarged structure diagram at position B in.

[0037] Explanation of reference numerals:

[0038] 001, partition wall panel one; 101, partition wall panel two; 102, partition wall panel three; 002, horizontal splicing assembly; 201, L-shaped docking groove frame; 202, positioning groove; 203, L-shaped docking frame; 204, docking block; 003, fixing assembly; 301, limiting through hole one; 302, fixing rod one; 303, connection frame; 304, extrusion groove; 305, limiting through hole two; 306, fixing rod two; 307, spring one; 308, fixing hole one; 309, fixing hole two; 310, fixing rod three; 311, fixing hole three; 312, spring two; 004, longitudinal splicing assembly; 401, insertion slot; 402, L-shaped insertion plate; 403, positioning hole; 404, positioning rod; 405, bolt; 406, docking hole; 407, nut; 005, sound insulation assembly; 501, aluminum alloy sound insulation board; 502, glass fiber sound insulation board; 503, arc-shaped reflection groove; 504, absorption hole. Detailed implementation manners

[0039] In order to enable those skilled in the art to better understand the technical solutions of the present invention, the present invention will be further introduced in detail below in conjunction with the accompanying drawings.

[0040] The present invention provides as Figures 1 - 10An assembled energy-saving partition board with a multi-layer sound insulation structure is shown, including a first partition frame board 001. Above the first partition frame board 001, there is a second partition frame board 101. On one side of the first partition frame board 001, there is a third partition frame board 102.

[0041] The horizontal splicing component 002 arranged on one side of the first partition frame board 001 includes an L-shaped docking groove frame 201. The L-shaped docking groove frame 201 is installed on one side of the first partition frame board 001. On the opposite side of the first partition frame board 001 away from the L-shaped docking groove frame 201, there is an L-shaped docking frame 203 installed. And the structures of the first partition frame board 001, the second partition frame board 101, and the third partition frame board 102 are exactly the same. The L-shaped docking groove frame 201 on one side of the first partition frame board 001 is inserted into the L-shaped docking frame 203 on one side of the second partition frame board 101, and the L-shaped docking groove frame 201 above the first partition frame board 001 is inserted into the L-shaped docking frame 203 at the bottom of the L-shaped docking frame 203.

[0042] Through the cooperation of the L-shaped docking groove frame 201 and the L-shaped docking frame 203, the first partition frame board 001, the second partition frame board 101, and the third partition frame board 102 are tightly connected after splicing, avoiding the appearance of gaps, and there will be a large number of overlapping parts at the splicing place, thus ensuring the stability and sealing performance of the splicing.

[0043] The fixing component 003 arranged in the first partition frame board 001 includes a connecting frame 303. The connecting frame 303 is sleeved on one side of the L-shaped docking groove frame 201 and is arranged in three groups in sequence downward. On the inner wall of the L-shaped docking groove frame 201, there are symmetrically arranged extrusion grooves 304. On the side surface of the L-shaped docking groove frame 201, there are symmetrically arranged second limiting through holes 305. A second fixing rod 306 is penetrated and connected in the second limiting through hole 305, and one side of the second fixing rod 306 is attached to the extrusion groove 304. On the side surface of the L-shaped docking frame 203 on one side of the third partition frame board 102, there are symmetrically arranged second fixing holes 309, and the second fixing holes 309 are inserted into the side of the corresponding second fixing rod 306 away from the extrusion groove 304.

[0044] Through the movement of the connecting frame 303, the extrusion groove 304 pushes the second fixing rod 306 and the second fixing hole 309 to be inserted, so that the L-shaped docking frame 203 on one side of the third partition frame board 102 is connected to the L-shaped docking groove frame 201 on one side of the first partition frame board 001, thus realizing the construction of the whole partition board to both sides.

[0045] The longitudinal splicing component 004 disposed within the partition wall frame panel 001 includes a plug-in groove 401. The plug-in groove 401 is symmetrically opened on one side of the L-shaped docking groove frame 201 within the partition wall frame panel 001. An L-shaped plug board 402 is inserted into the plug-in groove 401. Bolts 405 are symmetrically installed above the L-shaped plug board 402. Docking holes 406 are symmetrically opened at the bottom of the L-shaped docking frame 203 on one side of the partition wall frame panel 101, and the docking holes 406 are inserted with the corresponding bolts 405. Nuts 407 are screwed onto the bolts 405, and the nuts 407 are in contact with the interior of the docking holes 406;

[0046] Through the insertion of the L-shaped plug board 402 and the plug-in groove 401, the L-shaped plug board 402 is connected to the partition wall frame panel 001. And through the cooperation of the bolts 405 and the nuts 407, the partition wall frame panel 001 and the partition wall frame panel 101 can be quickly spliced, realizing the upward construction of the entire partition wall panel.

[0047] The sound insulation component 005 within the partition wall frame panel 001 includes an aluminum alloy sound insulation board 501. The aluminum alloy sound insulation board 501 is disposed within the partition wall frame panel 001, and one side of the aluminum alloy sound insulation board 501 is inserted into the L-shaped docking frame 203, and the opposite side of the aluminum alloy sound insulation board 501 is in extrusion contact with the connection frame 303. Glass fiber sound insulation boards 502 are symmetrically installed on both sides of the aluminum alloy sound insulation board 501. A plurality of groups of arc-shaped reflection grooves 503 are sequentially opened on the surface of the glass fiber sound insulation boards 502.

[0048] Through the arc-shaped reflection grooves 503 on the surface of the glass fiber sound insulation boards 502, when the noise sound wave contacts the surface of the glass fiber sound insulation boards 502, refraction will occur, and during the continuous refraction process, the glass fiber sound insulation boards 502 and the aluminum alloy sound insulation board 501 will absorb the sound wave, thereby realizing the use of less sound insulation material to improve the sound insulation effect.

[0049] Further, in the above structure, the transverse splicing component 002 further includes positioning grooves 202. The positioning grooves 202 are symmetrically opened on the inner wall of the side surface of the L-shaped docking groove frame 201, and a plurality of groups are sequentially opened downward. A plurality of groups of docking blocks 204 are symmetrically installed downward in sequence on the side surface of the L-shaped docking frame 203, and the docking blocks 204 are inserted into the corresponding positioning grooves 202.

[0050] Through the insertion of the positioning grooves 202 and the docking blocks 204, the L-shaped docking groove frame 201 on one side of the partition wall frame panel 001 and the L-shaped docking frame 203 on one side of the partition wall frame panel 102 can be quickly spliced and positioned, avoiding the situation of misalignment during insertion, and also improving the overall strength after insertion.

[0051] Further, in the above structure, the fixing component 003 further includes a first spring 307. The first spring 307 is sleeved on the second fixing rod 306, and both sides of the first spring 307 are in contact with the second fixing rod 306 and the inner wall of the second limiting through hole 305.

[0052] The position of the second fixing rod 306 can be maintained by pushing through the first spring 307. After the connection frame 303 is reset, the second fixing rod 306 can quickly disengage from the second fixing hole 309.

[0053] Further, in the above structure, first fixing rods 302 are symmetrically installed at the opening edge of the connection frame 303. On the inner wall side of the partition wall frame board 001 close to the inner wall of the L-shaped docking groove frame 201, first limiting through holes 301 are symmetrically opened, and the first limiting through holes 301 are inserted into the corresponding first fixing rods 302.

[0054] By moving the connection frame 303, the first fixing rod 302 can slide in the first limiting through hole 301.

[0055] Further, in the above structure, first fixing holes 308 are symmetrically opened on one side of the partition wall frame board 102, and the first fixing holes 308 are inserted into the corresponding first fixing rods 302. A second spring 312 is sleeved on the first fixing rod 302, and both sides of the second spring 312 are in contact with the opening edge of the connection frame 303 and the inner wall of the partition wall frame board 001 respectively.

[0056] By driving the first fixing rod 302 to move through the connection frame 303, the second spring 312 is compressed, so that the first fixing rod 302 forms an insertion fit with the first fixing hole 308. And the second spring 312 can enable the connection frame 303 to quickly reset after losing the pressure on one side, so that the first fixing rod 302 disengages from the first fixing hole 308.

[0057] Further, in the above structure, third fixing rods 310 are symmetrically installed on the inner wall of the L-shaped docking groove frame 201, and the third fixing rods 310 penetrate through the L-shaped docking groove frame 201. On the side surface of the L-shaped docking frame 203 on one side of the partition wall frame board 102, third fixing holes 311 are symmetrically opened, and the third fixing holes 311 are inserted into the corresponding third fixing rods 310.

[0058] By moving the connection frame 303, the third fixing rod 310 can be inserted into the third fixing hole 311, thereby improving the docking strength between the L-shaped docking groove frame 201 and the L-shaped docking frame 203.

[0059] Further, in the above structure, the longitudinal splicing component 004 further includes positioning holes 403. The positioning holes 403 are symmetrically opened downward in sequence on one side of the L-shaped plug board 402. Positioning rods 404 are symmetrically installed in the connection frame 303, and the positioning rods 404 are inserted into the corresponding positioning holes 403.

[0060] By moving the connecting frame 303, the positioning rod 404 can be inserted into the positioning hole 403, so that the L-shaped insertion plate 402 is tightly connected to the insertion slot 401.

[0061] Furthermore, in the above structure, the sound insulation component 005 further includes absorption holes 504, which are symmetrically arranged on the inner wall of the partition wall frame board one 001. A plurality of groups of absorption holes 504 are arranged in sequence, and the absorption holes 504 and the corresponding plurality of arc-shaped reflection grooves 503 are in the same horizontal position.

[0062] By arranging the absorption holes 504, when the sound wave of the noise enters the partition wall frame board one 001, it can directly contact the arc-shaped reflection groove 503, thereby producing the effect of refracting the sound wave.

[0063] A sound insulation method for an assembled energy-saving partition board with a multiple sound insulation structure, including an assembled energy-saving partition board with a multiple sound insulation structure as above, and the processing steps are as follows:

[0064] S1: Insert the L-shaped insertion plate 402 into the insertion slot 401, and insert the L-shaped docking frame 203 on one side of the partition wall frame board two 101 into the L-shaped docking slot frame 201 on one side of the partition wall frame board one 001;

[0065] S2: At this time, insert the aluminum alloy sound insulation board 501 and the glass fiber sound insulation board 502 into the partition wall frame board one 001, so that the connecting frame 303 is squeezed, the fixing rod one 302 and the fixing hole one 308 are inserted, and at the same time the fixing rod two 306 and the fixing hole two 309 are inserted, and the fixing rod three 310 is also inserted into the fixing hole three 311;

[0066] S3: At the same time, the positioning hole 403 and the positioning rod 404 are inserted, and after the docking hole 406 below the partition wall frame board two 101 is inserted into the bolt 405 above the L-shaped insertion plate 402 and fixed by the nut 407, by continuously performing the above steps, the construction of the entire sound insulation wall is completed;

[0067] S4: Absorb the generated noise into the partition wall frame board one 001 through the absorption holes 504, and since the sound wave will contact the arc-shaped reflection groove 503 and refract after entering, it will continuously refract in the partition wall frame board one 001, and during this process, the aluminum alloy sound insulation board 501 and the glass fiber sound insulation board 502 absorb the noise, thereby achieving the sound insulation effect.

[0068] As Figures 1 - 10As shown, by inserting the L-shaped docking frame 203 on one side of the partition wall frame board three 102 into the L-shaped docking groove frame 201 on one side of the partition wall frame board one 001, and at the same time, the docking block 204 needs to be aligned with the positioning groove 202. At this time, the L-shaped insertion plate 402 is inserted into the insertion groove 401. Then, the aluminum alloy sound insulation board 501 and the glass fiber sound insulation board 502 are integrally inserted into the partition wall frame board two 101, so that the aluminum alloy sound insulation board 501 and the glass fiber sound insulation board 502 integrally extrude the connection frame 303 on one side, thereby causing the connection frame 303 to move to one side, so that the first fixing rod 302 is inserted into the first fixing hole 308, and the second fixing rod 306 is extruded through the extrusion groove 304, so that the second fixing rod 306 is inserted into the second fixing hole 309. At the same time, the third fixing rod 310 and the third fixing hole 311 are inserted, thus completing the construction of the partition wall frame board one 001 and the partition wall frame board three 102. And due to the reaction force exerted by the second spring 312 on the connection frame 303, the aluminum alloy sound insulation board 501 and the glass fiber sound insulation board 502 are integrally firmly fixed in the partition wall frame board one 001. And during this process, due to the movement of the connection frame 303, the positioning rod 404 and the positioning hole 403 are firmly inserted, so that the L-shaped insertion plate 402 can be firmly fixed in the insertion groove 401. Then, after inserting the docking hole 406 at the bottom of the partition wall frame board two 101 into the bolt 405 of the L-shaped insertion plate 402, it is fixed by the nut 407. In this way, the construction of the entire partition wall is completed in sequence. And when the noise sound wave contacts the partition wall frame board one 001, the sound wave will enter the arc-shaped reflection groove 503 through the absorption hole 504, and the sound wave is refracted inside the partition wall frame board one 001 through the arc-shaped reflection groove 503, so that the sound wave is effectively absorbed by the glass fiber sound insulation board 502 during the refraction process. Through this structure, the rapid construction of the partition wall board can be achieved. And when the L-shaped docking groove frame 201 and the L-shaped docking frame 203 are connected during the construction process, there will be an overlapping part, so that there will be no gap between each group of aluminum alloy sound insulation boards 501 and glass fiber sound insulation boards 502, thereby improving the sound insulation effect. And through this structure, without the support of an external frame, the construction and splicing can be quickly completed, and the aluminum alloy sound insulation board 501 and the glass fiber sound insulation board 502 as a whole can be disassembled and replaced. And due to the function of the arc-shaped reflection groove 503, the sound wave can be quickly absorbed. On the basis of not requiring a thick sound insulation layer, the sound insulation effect is improved, the use cost is reduced, and the splicing efficiency and stability are improved.

[0069] Only some exemplary embodiments of the present invention have been described by way of illustration above. Undoubtedly, for those of ordinary skill in the art, without departing from the spirit and scope of the present invention, the described embodiments can be modified in various different ways. Therefore, the above drawings and descriptions are illustrative in nature and should not be construed as limiting the protection scope of the claims of the present invention.

Claims

1. An assembled energy-saving partition wall panel with multiple sound insulation structures, comprising a partition wall frame panel (001), characterized in that: A partition wall frame plate 2 (101) is arranged above the partition wall frame plate 1 (001), and a partition wall frame plate 3 (102) is arranged on one side of the partition wall frame plate 1 (001); The transverse splicing assembly (002) arranged on one side of the partition wall frame plate 1 (001) comprises an L-shaped docking groove frame (201), the L-shaped docking groove frame (201) being installed on one side of the partition wall frame plate 1 (001), an L-shaped docking frame (203) being installed on the opposite side of the partition wall frame plate 1 (001) away from the L-shaped docking groove frame (201), and the structures of the partition wall frame plate 1 (001), the partition wall frame plate 2 (101) and the partition wall frame plate 3 (102) are completely the same, the L-shaped docking groove frame (201) on one side of the partition wall frame plate 1 (001) is plugged into the L-shaped docking frame (203) on one side of the partition wall frame plate 2 (101), and the L-shaped docking groove frame (201) above the partition wall frame plate 1 (001) is plugged into the L-shaped docking frame (203) at the bottom of the L-shaped docking frame (203); The fixing assembly (003) arranged in the partition wall frame plate 1 (001) comprises a connection frame (303), the connection frame (303) is sleeved on one side of the L-shaped docking groove frame (201), and three groups are arranged in sequence downward, the inner wall of the L-shaped docking groove frame (201) is symmetrically provided with extrusion grooves (304), the side of the L-shaped docking groove frame (201) is symmetrically provided with two limiting through holes (305), the two limiting through holes (305) are penetrated and connected with two fixing rods (306), and one side of the two fixing rods (306) is in contact with the extrusion groove (304), the side of the L-shaped docking frame (203) on one side of the partition wall frame plate 3 (102) is symmetrically provided with two fixing holes (309), and the two fixing holes (309) are plugged with the side of the corresponding two fixing rods (306) away from the extrusion groove (304); The longitudinal splicing assembly (004) arranged in the partition wall frame plate 1 (001) comprises a plug-in slot (401), the plug-in slot (401) is symmetrically arranged on one side of the L-shaped docking slot frame (201) in the partition wall frame plate 1 (001), an L-shaped plug-in plate (402) is inserted in the plug-in slot (401), bolts (405) are symmetrically installed on the top of the L-shaped plug-in plate (402), docking holes (406) are symmetrically arranged at the bottom of the L-shaped docking frame (203) on one side of the partition wall frame plate 2 (101), and the docking holes (406) are plugged with corresponding bolts (405), nuts (407) are screwed on the bolts (405), and the nuts (407) fit inside the docking holes (406); The sound insulation component (005) in the partition wall frame plate 1 (001) comprises an aluminum alloy sound insulation board (501), wherein the aluminum alloy sound insulation board (501) is arranged in the partition wall frame plate 1 (001), and one side of the aluminum alloy sound insulation board (501) is plugged into an L-shaped docking frame (203), and the opposite side of the aluminum alloy sound insulation board (501) is pressed and fitted with a connection frame (303), and glass fiber sound insulation boards (502) are symmetrically installed on both sides of the aluminum alloy sound insulation board (501), and a plurality of groups of arc-shaped reflection grooves (503) are sequentially provided on the surface of the glass fiber sound insulation board (502).

2. The assembled energy-saving partition board with multiple sound insulation structures according to claim 1 is characterized by: The transverse splicing assembly (002) further comprises positioning grooves (202), wherein the positioning grooves (202) are symmetrically arranged on the inner wall of the side of the L-shaped docking groove frame (201), and a plurality of groups of the positioning grooves are arranged downward in sequence, and a plurality of groups of docking blocks (204) are symmetrically installed downward in sequence on the side of the L-shaped docking frame (203), and the docking blocks (204) are plugged into the corresponding positioning grooves (202).

3. The assembled energy-saving partition board with multiple sound insulation structures according to claim 1 is characterized by: The fixing assembly (003) also includes a spring 1 (307), which is sleeved on the fixing rod 2 (306), and two sides of the spring 1 (307) are in contact with the fixing rod 2 (306) and the limiting through hole 2 (305).

4. The assembled energy-saving partition board with multiple sound insulation structures according to claim 1 is characterized by: A fixing rod (302) is symmetrically installed at the opening edge of the connection frame (303), and a limiting through hole (301) is symmetrically opened on one side of the inner wall of the partition wall frame plate (001) close to the L-shaped docking groove frame (201), and the limiting through hole (301) is plugged into the corresponding fixing rod (302).

5. The assembled energy-saving partition board with multiple sound insulation structures according to claim 1 is characterized by: A fixing hole (308) is symmetrically provided on one side of the partition wall frame plate (102), and the fixing hole (308) is plugged into the corresponding fixing rod (302). A spring (312) is sleeved on the fixing rod (302), and the two sides of the spring (312) are respectively in contact with the opening edge of the connecting frame (303) and the inner wall of the partition wall frame plate (001).

6. The assembled energy-saving partition board with multiple sound insulation structures according to claim 1 is characterized by: A fixing rod three (310) is symmetrically installed on the inner wall of the L-shaped docking groove frame (201), and the fixing rod three (310) penetrates the L-shaped docking groove frame (201). A fixing hole three (311) is symmetrically opened on the side surface of the L-shaped docking frame (203) on one side of the partition wall frame plate three (102), and the fixing hole three (311) is plugged into the corresponding fixing rod three (310).

7. The assembled energy-saving partition board with multiple sound insulation structures according to claim 1 is characterized by: The longitudinal splicing assembly (004) further comprises positioning holes (403), which are symmetrically arranged downward on one side of the L-shaped plug plate (402) in sequence, and positioning rods (404) are symmetrically installed in the connection frame (303), and the positioning rods (404) are plugged into the corresponding positioning holes (403).

8. The assembled energy-saving partition board with multiple sound insulation structures according to claim 1 is characterized by: The sound insulation component (005) further comprises absorption holes (504), wherein the absorption holes (504) are symmetrically arranged on the inner wall of the partition frame plate (001), and the absorption holes (504) are arranged in multiple groups in sequence, and the absorption holes (504) and the corresponding multiple groups of arc-shaped reflection grooves (503) are at the same horizontal position.

9. A sound insulation method for an assembled energy-saving partition wall panel with multiple sound insulation structures, comprising an assembled energy-saving partition wall panel with multiple sound insulation structures as claimed in any one of claims 1 to 8, characterized in that: The processing steps are as follows: S1: inserting the L-shaped plug board (402) into the plug slot (401), and inserting the L-shaped docking frame (203) on one side of the partition wall frame plate 2 (101) into the L-shaped docking slot frame (201) on one side of the partition wall frame plate 1 (001); S2: At this time, the aluminum alloy sound insulation board (501) and the glass fiber sound insulation board (502) are inserted into the partition wall frame board 1 (001), so that the connection frame (303) is squeezed, and the fixing rod 1 (302) and the fixing hole 1 (308) are inserted, and at the same time, the fixing rod 2 (306) and the fixing hole 2 (309) are inserted, and the fixing rod 3 (310) is also inserted into the fixing hole 3 (311); S3: At the same time, the positioning hole (403) is plugged into the positioning rod (404), and the bolt (405) on the top of the L-shaped plug plate (402) is plugged into the docking hole (406) below the partition wall frame plate (101) and then fixed with a nut (407). By continuing the above steps, the entire sound insulation wall is built; S4: The generated noise is absorbed into the partition wall frame plate 1 (001) through the absorption hole (504), and since the sound waves come into contact with the arc-shaped reflection groove (503) after entering, the sound waves are refracted and continue to be refracted in the partition wall frame plate 1 (001). In this process, the noise is absorbed by the aluminum alloy sound insulation board (501) and the glass fiber sound insulation board (502), thereby achieving a sound insulation effect.

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