Composite bathroom cabinet material and processing technology thereof

By employing a composite processing technique involving staggered splicing and milling, the problem of deformation in solid wood lattice bathroom cabinets has been solved, resulting in improved stability and decorative effect.

CN116787570BActive Publication Date: 2026-07-03ZHEJIANG HENGYUAN SANITARY WARE

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
ZHEJIANG HENGYUAN SANITARY WARE
Filing Date
2022-12-12
Publication Date
2026-07-03

AI Technical Summary

Technical Problem

Existing solid wood lattice bathroom cabinets are prone to severe deformation after processing, which cannot meet the needs of a light luxury decoration style.

Method used

A composite processing technology involving staggered splicing and milling is adopted, including staggered sawing, constant temperature treatment, multi-layer board bonding and MDF fixing, to form a H-shaped structure. melamine MDF is used for reverse bonding to balance internal stress.

Benefits of technology

It effectively reduces the deformation of solid wood grilles, improves the stability and bending resistance of the boards, and meets the decoration needs of light luxury decoration style.

✦ Generated by Eureka AI based on patent content.

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Abstract

This invention belongs to the field of bathroom cabinet technology, specifically a processing technology for composite bathroom cabinet materials. The processing technology includes the following steps: S1: Take several sets of cut and shaped raw wood boards, and use a multi-blade saw to cut a 45-60 degree groove along the side of the raw wood board with an offset sawing method. The groove width is 3-3.8cm, completing the bevel sawing; S2: Place the raw wood boards with the bevel sawing completed in a constant temperature room and place them evenly and flat. Place them in an environment with a temperature of 40-45℃ and a humidity of 48-50%RH for 4-12 hours; S3: Take two raw wood boards and splice them with an offset of 1.5mm. Use glue to stick them together at the splicing point. The bevel angles are opposite when splicing, resulting in a set of raw wood mechanical boards. In this invention, pine boards are staggered and spliced ​​to achieve balance. The boards are milled back and forth at a 60-degree angle and a width of 5 cm in the thickness direction to reduce the internal stress of the boards. At the same time, melamine is applied to the back of the backing board to make the internal stress direction outward, so that it is opposite to the internal stress of the solid wood grid and achieves a balancing effect. This solves the problem of severe deformation after the solid wood grid is milled.
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Description

Technical Field

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[0001] The present invention relates to the technical field of bathroom cabinets, and particularly to a composite bathroom cabinet material and its processing technology. Background Art

[0002] With the pursuit of modern young people for decoration styles, the轻奢 style is becoming more and more popular among young people. The轻奢 decoration style often uses grilles for embellishment. Solid wood grille bathroom cabinets are even more the pursuit direction of young people. Since the solid wood grilles on the market will be severely deformed after milling, it causes regret for young people in the pursuit of bathroom cabinets. Therefore, we introduce a complex anti-bending solid wood grille bathroom cabinet. Summary of the Invention

[0003] The present invention aims to solve one of the technical problems existing in the prior art or related technologies.

[0004] For this reason, the technical solution adopted by the present invention is as follows:

[0005] A processing technology for a composite bathroom cabinet material, the processing technology includes the following processing steps:

[0006] S1: Take several groups of cut and formed original wood boards, and use a multi-blade saw to cut obliquely at 45 - 60 degrees along the side of the original wood board in a way that the upper and lower saws are misaligned, with the groove width of 3 - 3.8 cm, to complete the bevel sawing;

[0007] S2: Place the original wood boards after the bevel sawing in a constant temperature room to be placed balanced and flat, and place them for 4 - 12 h in an environment with a temperature of 40 - 45 °C and a humidity of 48 - 50% RH;

[0008] S3: Take two original wood boards and splice them with a 1.5 mm offset, and use glue to bond at the splicing position. When splicing, the bevel angles are in opposite directions, and a set of log mechanical boards is obtained;

[0009] S4: Take two groups of log mechanical boards, adhesively fix three groups of multi-layer boards horizontally on the sides of the two groups of log mechanical boards, and then adhesively bond two groups of multi-layer boards longitudinally on the sides of the two groups of log mechanical boards to form a "day" shape, and a cabinet material substrate is obtained;

[0010] S5: Take a solid wood grille board for milling, with the milling groove width of 4 - 6 mm and the depth of 2 - 4 mm, place it in a constant temperature room for balancing, and place it for 6 - 24 h in an environment with a temperature of 40 - 45 °C and a humidity of 48 - 50% RH;

[0011] S6: Take the solid wood grille board after balancing and a single-sided density board of 2 - 4 mm and adhesively fix them on the upper and lower sides of the cabinet material substrate respectively. The upper solid wood grille board and the bottom density board both bend outwards, and are single-sidedly reversely pasted to make the inner layer balanced;

[0012] S7: Finally, trim the edges with a precision saw and apply wood veneer of the same size to obtain the composite bathroom cabinet material.

[0013] In a preferred embodiment, the present invention may be further configured such that the log is made of pine.

[0014] In a preferred embodiment, the present invention can be further configured such that the multilayer board is a vertically arranged multilayer board.

[0015] In a preferred embodiment, the present invention can be further configured such that the milling groove in step S5 has a width of 5 mm and a depth of 3 mm.

[0016] In a preferred embodiment, the present invention may be further configured such that the density board is a single-sided melamine-coated density board.

[0017] In a preferred embodiment, the present invention can be further configured such that the temperature of the constant temperature room in steps S2 and S5 is 43°C and the humidity is 49%RH.

[0018] A composite bathroom cabinet material is manufactured using the above-mentioned processing technology.

[0019] A composite bathroom cabinet material includes a solid wood board, the four sides of which are provided with multi-layer boards, the upper surface of which is covered with a solid wood lattice board, and the bottom surface of which is covered with a density board.

[0020] The log is composed of at least two log units spliced ​​together, and each log unit has several saw grooves.

[0021] The solid wood grating includes a bottom partition and a grating surface layer on the outer surface.

[0022] The above-described technical solution of the present invention has the following beneficial technical effects:

[0023] In this invention, pine boards are staggered and spliced ​​to achieve balance. The boards are milled back and forth with a certain width in the thickness direction to reduce the internal stress of the boards. At the same time, melamine is applied to the back of the backing board to make the internal stress direction outward, so that it is opposite to the internal stress of the solid wood grid to achieve a balancing effect. This solves the problem of severe deformation after the solid wood grid is milled. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of the composite bathroom cabinet material structure according to an embodiment of the present invention;

[0025] Figure 2 This is a schematic diagram of the splicing of wooden boards according to an embodiment of the present invention;

[0026] Figure 3 This is a side view of a wooden board according to an embodiment of the present invention;

[0027] Figure 4 This is a schematic diagram of the lateral bonding of a multilayer board according to an embodiment of the present invention;

[0028] Figure 5 This is a schematic diagram of the longitudinal bonding of a multilayer board according to an embodiment of the present invention.

[0029] Figure label:

[0030] 1. Solid wood boards; 2. Multi-layer boards; 3. Solid wood grating boards; 4. MDF (medium-density fiberboard). Detailed Implementation

[0031] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to specific embodiments and accompanying drawings. It should be noted that, unless otherwise specified, the embodiments and features described herein can be combined with each other.

[0032] It should be understood that these descriptions are merely exemplary and are not intended to limit the scope of the invention.

[0033] The following describes, with reference to the accompanying drawings, some embodiments of the present invention, a composite bathroom cabinet material and its processing technology. Example 1

[0034] Combination Figure 1-5 As shown, the present invention provides a processing technology for a composite bathroom cabinet material, the processing technology including the following processing steps:

[0035] S1: Take several sets of cut and shaped raw wood boards 1, and use a multi-blade saw to cut a 45-60 degree groove along the side of the raw wood board 1 with an up-and-down staggered sawing method. The groove width is 3-3.8cm. This completes the bevel sawing. The initial cutting of the raw wood board 1 is completed to form a structure that is easy to assemble. At the same time, the up-and-down staggered sawing is used to break the internal stress and form an internal balance.

[0036] S2: Place the log 1 after the bevel sawing in a constant temperature room and place it evenly and flat. Keep it in an environment with a temperature of 40-45℃ and a humidity of 48-50%RH for 4-12 hours to further eliminate internal stress, avoid deformation in later processing, and increase the stability of the board and reduce the amount of deformation.

[0037] S3: Take two log boards 1, offset by 1.5mm, and splice them together. Use glue to bond them together. When splicing, the diagonal angles are opposite, resulting in a set of log mechanical boards. The staggered arrangement achieves a toothed interlocking structure, which improves the stability of the log boards 1 after they are joined together.

[0038] S4: Take two groups of log mechanical boards, adhesively and transversely fix three groups of multi-layer boards 2 on the sides of the two groups of log mechanical boards, and then adhesively and longitudinally bond two groups of multi-layer boards 2 on the sides of the two groups of log mechanical boards to form a "day" shape, obtaining the cabinet material substrate;

[0039] S5: Take the solid wood grid board 3 for milling. The width of the milled groove is 4 - 6 mm, and the depth is 2 - 4 mm. Put it into a constant temperature room for equilibration, and place it for 6 - 24 h in an environment with a temperature of 40 - 45 °C and a humidity of 48 - 50% RH; Use the constant temperature room for equilibration to prevent deformation of the solid wood grid board 3 after milling;

[0040] S6: Take the equilibrated solid wood grid board 3 and the single-sided veneer density board 4 with a thickness of 2 - 4 mm, and adhesively and fixedly attach them to the upper and lower sides of the cabinet material substrate respectively. The upper solid wood grid board 3 and the bottom density board 4 both bend outwards, and are adhesively attached on one side to achieve inner layer balance; Optimize the bonding process, make the bending direction of the melamine face the melamine surface bonding part, so as to keep balance with the solid wood bending direction in the later stage and form a more stable structural effect.

[0041] S7: Finally, use a precision saw for trimming and paste wood veneer of the same size to obtain the composite bathroom cabinet material.

[0042] Preferably, the original wood board 1 is made of pine wood board.

[0043] Preferably, the multi-layer board 2 is a multi-layer board arranged vertically.

[0044] Preferably, in step S5, the width of the milled groove is 5 mm and the depth is 3 mm. Optimize the size specification of the milled groove. Considering the characteristics of the bathroom cabinet door product, the overall specification of its door panel is relatively small. Optimize the size specification of the milled groove to avoid large shrinkage of the solid wood grille and deformation.

[0045] Preferably, the density board 4 is a single-sided melamine-coated density board.

[0046] Preferably, in step S2 and step S5, the temperature of the constant temperature room is 43 °C and the humidity is 49% RH.

[0047] Comparison of this solution with existing products: 1: Improve the deformation of the board through dislocation and milling; 2: Level the solid wood grille through the equilibration room; 3: Composite three kinds of boards to achieve no deformation of the solid wood grille. Example 2

[0048] Combined with Figure 1-5 As shown, a processing technology for a composite bathroom cabinet material provided by the present invention, the processing technology includes the following processing steps:

[0049] S1: Take several groups of cut and formed original wood boards 1, and use a multi-blade saw to perform a 45-degree oblique cut along the side of the original wood board 1 in a way of up-and-down staggered sawing. The width of the groove is 3.8 cm to complete the oblique sawing;

[0050] S2: Place the original wooden board 1 after the bevel sawing into a constant-temperature room and arrange it to be balanced and flat. Place it for 12 hours in an environment with a temperature of 40 - 45 °C and a humidity of 48% RH;

[0051] S3: Take two original wooden boards 1 and splice them with a 1.5 mm offset, and use glue to bond at the splicing position. When splicing, the bevel directions are opposite, obtaining a set of log mechanical boards;

[0052] S4: Take two sets of log mechanical boards, adhesively fix three sets of multi-layer boards 2 horizontally on the sides of the two sets of log mechanical boards, and then adhesively bond two sets of multi-layer boards 2 longitudinally on the sides of the two sets of log mechanical boards to form a shape like a Chinese character 'ri' (日), obtaining the cabinet material substrate;

[0053] S5: Take the solid wood grid board 3 and mill it. The width of the milled groove is 4 mm and the depth is 3 mm. Put it into a constant-temperature room for balancing, and place it for 20 hours in an environment with a temperature of 42 °C and a humidity of 48% RH; Complete stress relief and reduce product deformation;

[0054] S6: Take the balanced solid wood grid board 3 and the single-sided veneer density board 4 with a thickness of 3 mm, and adhesively fix them on the upper and lower sides of the cabinet material substrate respectively. The upper solid wood grid board 3 and the bottom density board 4 both bend outwards, and are adhesively pasted on one side to make the inner layer balanced;

[0055] S7: Finally, use a precision saw to trim the edges and paste wood veneer of the same size, obtaining the composite bathroom cabinet material. Example 3

[0056] Combined with Figure 1-5 As shown, a processing technology for a composite bathroom cabinet material provided by the present invention, the processing technology includes the following processing steps:

[0057] S1: Take several groups of original wooden boards 1 cut and formed, and use a multi-blade saw to cut a 50-degree groove obliquely along the side of the original wooden board 1 in an up-and-down offset sawing manner. The width of the groove is 3.5 cm, and complete the bevel sawing;

[0058] S2: Place the original wooden board 1 after the bevel sawing into a constant-temperature room and arrange it to be balanced and flat. Place it for 10 hours in an environment with a temperature of 44 °C and a humidity of 50% RH;

[0059] S3: Take two original wooden boards 1 and splice them with a 1.5 mm offset, and use glue to bond at the splicing position. When splicing, the bevel directions are opposite, obtaining a set of log mechanical boards;

[0060] S4: Take two sets of log mechanical boards, adhesively fix three sets of multi-layer boards 2 horizontally on the sides of the two sets of log mechanical boards, and then adhesively bond two sets of multi-layer boards 2 longitudinally on the sides of the two sets of log mechanical boards to form a shape like a Chinese character 'ri' (日), obtaining the cabinet material substrate;

[0061] S5: Take the solid wood grid board 3 for milling. The width of the milled groove is 4 mm and the depth is 4 mm. Place it in a constant temperature room for equilibration, and place it for 24 h in an environment with a temperature of 40 °C and a humidity of 48% RH; complete stress relief to reduce product deformation;

[0062] S6: Take the equilibrated solid wood grid board 3 and the single-sided pasted density board 4 with a thickness of 4 mm, and respectively glue and fix them on the upper and lower sides of the cabinet material substrate. The upper solid wood grid board 3 and the bottom density board 4 both bend outwards, and are pasted on one side reversely to make the inner layer balanced;

[0063] S7: Finally, use a fine saw for trimming and paste wood veneer of the same size to obtain the composite bathroom cabinet material. Example 4

[0064] Combined with Figure 1-5 As shown in

[0065] S1: Take several groups of cut and formed original wood boards 1, and use the multi-blade saw to cut obliquely at 48 degrees along the side of the original wood board 1 in a way that the upper and lower saws are misaligned. The width of the groove is 3.6 cm to complete the bevel saw;

[0066] S2: Place the original wood board 1 after the bevel saw in a constant temperature room to be placed and balanced flatly, and place it for 12 h in an environment with a temperature of 43 °C and a humidity of 50% RH;

[0067] S3: Take two original wood boards 1 and splice them with a misalignment of 1.5 mm, and use glue to bond at the splicing position. The bevel directions are opposite during splicing to obtain a set of log mechanical boards;

[0068] S4: Take two groups of log mechanical boards, adhesively fix three groups of multi-layer boards 2 transversely on the sides of the two groups of log mechanical boards, and then adhesively bond two groups of multi-layer boards 2 longitudinally on the sides of the two groups of log mechanical boards to make them form a "day" shape to obtain the cabinet material substrate;

[0069] S5: Take the solid wood grid board 3 for milling. The width of the milled groove is 5 mm and the depth is 2 mm. Place it in a constant temperature room for equilibration, and place it for 18 h in an environment with a temperature of 40 °C and a humidity of 50% RH; complete stress relief to reduce product deformation;

[0070] S6: Take the equilibrated solid wood grid board 3 and the single-sided pasted density board 4 with a thickness of 4 mm, and respectively glue and fix them on the upper and lower sides of the cabinet material substrate. The upper solid wood grid board 3 and the bottom density board 4 both bend outwards, and are pasted on one side reversely to make the inner layer balanced;

[0071] S7: Finally, use a fine saw for trimming and paste wood veneer of the same size to obtain the composite bathroom cabinet material. Example 5

[0072] In conjunction with any of the above embodiments, this embodiment includes a composite bathroom cabinet material, including a solid wood board 1, multi-layer boards 2 on the four sides of the solid wood board 1, a solid wood lattice board 3 covering the upper surface of the solid wood board 1, and a density board 4 covering the bottom surface of the solid wood board 1.

[0073] The original wood board 1 is composed of at least two original wood board units spliced ​​together, and the original wood board 1 unit is provided with several saw grooves; by using the staggered splicing structure, the diagonal directions are opposite when splicing, forming a good stress effect, while increasing the bonding effect; the above structure product is optimized so that the product has better strength and better screw holding force.

[0074] The solid wood grating panel includes a bottom layer of partitions and a grating surface layer on the outer surface. The grating surface layer is a decorative surface that enhances the overall appearance and decorative effect.

[0075] Comparative Example 1

[0076] In conjunction with the process of Example 2, in the comparative example, the milling groove width is 10mm and the depth is 5mm in the milling groove size specifications.

[0077] Comparative Example 2

[0078] In conjunction with the process of Example 2, in the comparative example, the milling groove width is 10mm and the depth is 6mm in the milling groove size specifications.

[0079] Comparative Example 3

[0080] In conjunction with the process of Example 2, in the comparative example, the milling groove width and depth are 2mm in the milling groove size specifications.

[0081] Comparative Example 4

[0082] In conjunction with the process of Example 2, in the comparative example, the milling groove width is 2mm and the depth is 1mm in the milling groove size specifications.

[0083] Based on the above embodiments, the performance test data of the composite bathroom cabinet material are as follows, wherein the reference testing standards are GB / T1034-2008, GB / T17657-2013, GB / T4897-2015, and GB / T1033.

[0084] Based on the above embodiments, the performance test data of the composite bathroom cabinet material are as follows, wherein the reference testing standards are GB / T23997-2009, GB / T9341-2008, GB / T8427-2008, GB / T17657-2013, and GB / T4893.7-2013.

[0085] Although embodiments of the invention have been shown and described, those skilled in the art will understand that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the claims and their equivalents.

Claims

1. A processing technology for a composite bathroom cabinet material, characterized in that, The processing technology includes the following processing steps: S1: Take several groups of cut and formed original wood boards, and use a multi-blade saw to perform a 45-60 degree inclined cut along the side of the original wood board in a way that the upper and lower saws are misaligned, with the groove width being 3-3.8 cm, to complete the inclined sawing; S2: Place the original wood boards after the inclined sawing in a constant temperature room to be arranged in a balanced and flat manner, and place them for 4-12 h in an environment with a temperature of 40-45 °C and a humidity of 48-50% RH; S3: Take two original wood boards and splice them with a 1.5 mm misalignment, and use glue to bond at the splicing position. When splicing, the inclined angles are in opposite directions, obtaining a set of log mechanical boards; S4: Take two sets of log mechanical boards, adhesively fix three layers of multi-layer boards horizontally on the sides of the two sets of log mechanical boards, and then longitudinally bond two layers of multi-layer boards on the sides of the two sets of log mechanical boards to form a "day" shape, obtaining a cabinet material substrate; S5: Take a solid wood grid board for milling, with the milling groove width being 4-6 mm and the depth being 2-4 mm, place it in a constant temperature room for balancing, and place it for 6-24 h in an environment with a temperature of 40-45 °C and a humidity of 48-50% RH; S6: Adhesively fix the balanced solid wood grid board and a single-sided veneer density board with a thickness of 2-4 mm on the upper and lower sides of the cabinet material substrate respectively. The density board is a single-sided melamine density board. The upper solid wood grid board and the bottom density board both bend outward, and the single-sided reverse veneering makes the inner layer balanced, so that the melamine bending direction faces the melamine surface bonding part; S7: Finally, use a fine saw for trimming and paste wood veneer of the same size to obtain a composite bathroom cabinet material.

2. The processing technology of a composite bathroom cabinet material according to claim 1, characterized in that, The original wood board uses a pine wood board.

3. The processing technology of a composite bathroom cabinet material according to claim 1, characterized in that, The multi-layer board uses vertically arranged multi-layer boards.

4. The processing technology of a composite bathroom cabinet material according to claim 1, characterized in that, In step S5, the milling groove width is 5 mm and the depth is 3 mm.

5. The processing technology of a composite bathroom cabinet material according to claim 1, characterized in that, In steps S2 and S5, the temperature of the constant temperature room is 43 °C and the humidity is 49% RH.

6. A composite bathroom cabinet material is made by using the processing technology described in any one of claims 1 to 5.

7. The composite bathroom cabinet material according to claim 6, characterized in that: It includes an original wood board, and multi-layer boards are provided on the side walls around the original wood board. A solid wood grid board is covered on the upper surface of the original wood board, and a density board is covered on the bottom surface of the original wood board.

8. The composite bathroom cabinet material according to claim 7, characterized in that: The original wood board is composed of at least two original wood board units spliced together, and several saw grooves are provided on the original wood board units.

9. A composite bathroom cabinet material according to claim 8, characterized in that: The solid wood grid board includes a partition bottom layer and a grid surface layer located on the outer surface.