• 专利附录
  • 专利说明
  • 权利要求
  • 类似技术
  • 同族专利
  • 引用文献
  • 法律状态
  • 优先权
    • 专利摘要:

    公开号:SE1350085A1
    申请号:SE1350085
    申请日:2013-01-28
    公开日:2014-07-29
    发明作者:Peter Lindberg
    申请人:Oneday Wall Ab；
    IPC主号:
    专利说明:

    15 20 25 30 PROBLEMS RELATED TO PRIOR ART The above-mentioned solution for the manufacture of building boards makes it possible to produce boards for cladding floors, ceilings or walls, which boards both provide aesthetically pleasing joints and are robust in terms of construction. However, the manufacturing method is relatively inefficient in terms of time and cost.
    SUMMARY OF THE INVENTION The object of the present invention is therefore to provide a solution by which frame elements for building boards are finalized in a cost-effective and uncomplicated manner the resulting building boards can be easily mounted on a support structure, for example by screw-free snap into each other.
    According to a first aspect of the invention, the object is achieved by the machine initially described, wherein a first processing station comprises laterally operating processing means configured to apply by gluing a first edging along a first edge side of the frame element in such a way that a primary side of the first edging is made to be parallel to the primary main side of the body element. A second machining station in the machine comprises vertically acting machining means configured to apply a primary surface layer by gluing, which covers the entire primary main side and the primary side of the first edging. In the second processing station, a vertical pressure is also applied over the frame element and the first edge strip across the working direction of the conveyor track while the frame element and the first edge strip pass the second processing station. The vertical pressure is applied in such a way that the primary side of the first edging is leveled with the primary main side of the frame element during the passage of the second processing station.
    This machine is advantageous because it ensures that the edging mounted on the frame member becomes completely parallel to the frame member along its primary side. Thereby a smooth and aesthetically pleasing surface is obtained, which is covered by a primary surface layer, for example in the form of a wallpaper. the building board is thus suitable for direct mounting on an inner wall of a house.
    According to an embodiment of this aspect of the invention, the laterally acting machining means in the first machining station are further configured to apply a second edging along a second edge side of the frame element by gluing. The second edge side is opposite to the first edge side, and the second edge strip is applied in such a way that a primary side of the second edge strip is made to become parallel to the primary main side. In addition, the vertically acting machining means in the second machining station are configured to apply by gluing the primary surface layer so that it covers the entire primary main side, the primary side of the first edging and the primary side of the second edging. After application of the primary surface layer, the laterally acting machining means in the second machining station are configured to apply a pressure over the frame member, the first edging and the second edging across the working direction of the conveyor track as the frame member, first edging and second edging pass the other processing station. The vertical pressure here results in both the primary side of the first edging and the primary side of the second edging being brought into level with the primary main side of the frame element during the passage of the second machining station. This ensures that both edging strips are completely parallel to the frame element along its primary side, and that the resulting building board has a smooth and aesthetically pleasing surface, which makes it suitable for sequential direct mounting on a support structure, for example where a second building board is snapped into a first building board, a third is snapped into the second building board, etc. The first edging can thus be of so-called female type and the other edging of so-called hantyp.
    According to another embodiment of this aspect of the invention, the first processing station comprises at least one first guide roller and at least one second guide roller, which are arranged to, while the frame element and the one applied thereto the first edging passes the first machining station, applying a lateral pressure over the frame element and the first edging across the working direction of the conveyor track. The inner dimension between the guide rollers corresponds to a desired width dimension of a final-treated building board, which leads to this dimension being given a very precise dimension.
    Given that both a first and a second edge strip are applied to the frame element, the first and second guide rollers are arranged that, while the frame element and the edge strips applied thereto pass the first processing station, a lateral pressure is applied over the frame element, the first edge strip and the the second edge strip across the working direction of the conveyor track, an inner dimension between the guide rollers corresponding to a desired width of a finished building board. Such an adaptation is very advantageous if the building boards are suitable for sequential mounting on a support structure, since it is thus possible to avoid incorrect propagation due to varying widths of the building boards and / or due to the fact that the edge sides of the building boards are not mutually parallel.
    According to yet another embodiment of this aspect of the invention, a third machining station in the machine comprises vertically acting machining means configured to apply a secondary surface layer by means of gluing, which covers the entire secondary main side and a secondary side of the first edging strip. . Thus, the strength of the attachment of the first edging to the frame element is increased. The secondary side of the construction disc is also given a more appealing appearance. If a second edging has also been applied to the frame element, the vertically acting processing means in the third processing station are advantageously configured to apply the secondary surface layer by gluing, so that it covers the entire secondary main side, a secondary side of the the first edging and a secondary side of the second edging. According to a further embodiment of this aspect of the invention, the vertically active processing means in the second processing station comprise a first and a second pressing roller, which are configured abutting against the primary and secondary main sides, respectively. Each of the first and the second pressing roller here has an axis of rotation which is substantially perpendicular to the working direction of the conveyor track. Furthermore, each of the first and second pressing rollers has a length exceeding a width of a finished building board.
    This is advantageous as it thereby processes the entire profile of the building board in a uniform manner.
    According to a further embodiment of this aspect of the invention, the axis of rotation of the first pressing roller is bluntly attached to the machine and consists of a hard and relatively inelastic material.
    The second pressing roll, on the other hand, is flexible in radial direction, so that a distance between the periphery of the second pressing roll and the periphery of the first pressing roll is adaptable to a thickness of an object which passes between the first and the second pressing roll. Consequently, any variations in the thickness of the frame element as well as differences in thickness between the first and / or the second edging and the frame element can be handled. In addition, the building board and its primary surface layer are advantageously oriented in such a way that the primary surface layer abuts against the first, dumb and hard pressing roller. This results in that all possible irregularities in the finished building board due to thickness variations are placed on its secondary side.
    The second pressing roll may comprise a core of a relatively hard material, which core is covered by a resilient material (such as a textile) arranged to abut against said building board during passage of the same between the first and the second pressing roll. Alternatively, the second pressing roller may include a set of resilient discs, which are arranged along the axis of rotation of the second pressing roller. Each resilient disc here has a segment width and an individually variable radius, which is adaptable to the thickness of an object passing between the first pressing roller and the disc. The second pressing roller thus becomes segmentally flexible in radial direction in units corresponding to the segment width of each disc in the set of resilient discs, which is an efficient and reliable way of achieving the desired flexibility of the second pressing roller. According to another embodiment of this aspect of the invention, a fourth machining station in the machine includes cutting means configured to, after application of the primary surface layer on the primary main side, by cutting align the primary surface layer across the working direction of the conveyor path so that the extent of the primary surface layer matches the width of a finished building board. This ensures that the primary surface layer covers exactly the entire desired surface of the building board and an aesthetically pleasing product can be achieved.
    According to a second aspect of the invention, the object is achieved by the method described in the introduction, wherein a first edge strip is applied by gluing along a first edge side of the frame element in such a way that a primary side of the first edge strip is made parallel to the primary main side.
    Then, by gluing, a primary surface layer is applied, which covers the entire primary main side and the primary side of the first edging, whereupon a vertical pressure is applied over the frame element and the first edging across the conveying path while the frame element and the first edging are transported. along the working direction of the transport path. The vertical pressure results in the primary side of the first edging being leveled with the primary main side. The advantages of this method, as well as of the preferred embodiments thereof, appear from the discussion above with reference to the proposed construction board. BRIEF DESCRIPTION OF THE BITTING BACKGROUND The present invention will now be explained in more detail by means of embodiments, which are described by way of example, and with reference to the accompanying drawings.
    Figure 1 shows an overview of a machine according to an embodiment of the invention; Figure 2 illustrates how an edge strip is glued to a frame element according to an embodiment of the invention, Figure 3 illustrates how a vertical pressure across the working direction is applied over a frame element and an edge strip and how an applied surface layer is cut according to an embodiment of the invention; Figure 4 shows a plan view of certain details in Figure 3, and Figure 5 shows a flow chart of the general method according to the invention.
    DESCRIPTION OF THE EMBODIMENT OF THE INVENTION We first refer to Figure 1, which shows an overview of a machine according to an embodiment of the invention for the final treatment of frame elements 120 for building boards. Each frame element 120 is here substantially formed as a straight block including a primary main side and an opposite secondary main side, each with a relatively large limiting area and four edge sides with a relatively small limiting area.
    The machine comprises a transport path 110 configured to receive incoming frame elements 120, for example between a first and a second receiving roller 111 and 112, respectively, and to move the frame elements 120 in a working direction F along a set of processing stations A, B, C and D. - workstation has a certain function here. For implementation reasons, however, some of these functions are integrated into each other, so that the volumes of the machine corresponding to the designations of the processing stations A, B, C and D partly overlap.
    A first machining station A comprises laterally acting machining means configured to apply by gluing a first edging 121 along a first edge side of said four edge sides in such a way that a primary side of the first edge strip 121 is made parallel to the primary main side of the frame element. The laterally operative processing means in the first processing station A advantageously include at least one gluing device 131A and at least a first guide roller 133A and at least a second guide roller 134A, which guide rollers are arranged so that, while the frame element 120 and the applied first edging 121 passes, apply a lateral pressure over the frame member 120 and the first edging 121 across the working direction F of the conveyor track 110. This pressure fixes the first edging 121 at the frame member 120. In addition, an inner dimension between the guide rollers 132A and 134A corresponds to a desired width dimension of a finished 120F building board.
    This is desirable because the building boards can be produced with very tight tolerances and one can thus minimize the risk of incorrect propagation when mounting two or more building boards on a load-bearing structure.
    Figure 2 illustrates how a first edging 121 is glued to frame elements 120 according to an embodiment of the invention. The edge strip 121 is gradually inserted parallel to the frame element 120. In connection with this, an adhesive device 131A is configured to apply glue via a nozzle 231A to at least one of the first edge side of the frame element 120 and a side 233 of the first edge strip 121 which is directed towards the first the edge side. The machine may also include a spacer adapted to provide a required gap between the edging 121 and the frame member 120 to provide space for the nozzle 231A.
    A second machining station B includes vertically operative machining means 141B, 151B, 152BC and 148B configured to apply a primary surface layer 140 to the building board. Specifically, the primary surface layer 140 is applied by gluing so that it covers the entire primary main side and the primary side of the first edge strip 121. The machine suitably includes a vertically operative machining means 141B, which is configured to apply the primary surface layer 140 to the body element 120 and the first edge strip 121 applied thereto in connection with transport past the second processing station B. The required adhesive can here be applied via gluing means 148B to the frame element 120 and the first edge strip 121 and / or to the primary surface layer 140. With the In the orientation illustrated, it is easiest to apply glue to the primary surface layer 140. The primary surface layer 140, which may be, for example, a wallpaper or fine mesh fabric, is conveniently stored on a roll 145 and may be provided to the second processing station B via one or more rollers 142.
    After application of the primary surface layer 140, a vertical pressure is applied over the frame member 120 and the first edge strip 121 across the working direction F of the conveyor track 110 while the frame member 120 and the first edge strip 121 pass the second processing station B. The pressure is applied in such a manner that the primary side of the first edging strip 121 is flush with the primary main side at the passage of the second processing station B. This in turn can be achieved by the vertically active processing means in the second processing station B comprising pressing rollers 151B res 152BC, respectively, which are configured to abut the primary and secondary main sides, respectively, of the body member 120. Both rollers 151B and 152BC have an axis of rotation which is substantially perpendicular to the working direction F of the conveyor track 110 and each roller 151B and 152BC has a length exceeding one width of a finished 120F building board.
    Figures 3 and 4 show how the pressing rollers 151B and 152BC can be arranged according to embodiments of the invention. A rotary shaft 451 of a first pressing roller 151B is here bluntly attached to the machine and the first pressing roller 151B consists of a hard and relatively inelastic material, such as steel. However, a second pressing roller 152BC is flexible in radial direction. This means that a distance between the periphery of the second pressing roller 152BC and the periphery of the first pressing roller 151B is adaptable to a thickness of an object which passes between the first and the second pressing roller 151B and 152BC, such as a frame element 120 and edge strips 121 and / or 122 applied thereto, a primary surface layer 140 and a possible secondary surface layer 160 (see below).
    According to one embodiment of the invention, the second pressing roller 152BC comprises a core of a relatively hard material, such as steel. The core is in turn covered by a resilient material 352, which is arranged to abut against the building boards as these pass between the first pressing roller 151B and the second pressing roller 152BC. The building boards here include a frame element 120, at least one edging 121 and / or 122 and a primary surface layer 140. If a building board is to be provided with a secondary surface layer 160, it is preferred that this is applied in connection with the building board passing the pressing rollers. 151B and 152BC. The resilient material can advantageously consist of a textile, for example in the form of a carpet of suitable thickness.
    According to another embodiment of the invention, the second pressing roller 152BC includes a set of resilient discs 452, which are arranged along the axis of rotation 455 of the second pressing roller 152BC. Here, each resilient disc 452 has a segment width and an individually variable radius which is adaptable to the thickness. of an object passing between the first pressing roller 151B and the disc 452. In other words, the second pressing roller 152BC is segmentally flexible in radial direction in units corresponding to the segment width of each disc 452 in the set of resilient discs. The discs 452 can thus be formed of rubber or similar material. Of course, the mutual relationship between the first pressing roller 151B and the second pressing roller 152BC can be reversed, i.e. the first roller 151B is at the top , the second roller 152BC is at the bottom and the building boards are transported with the primary side upwards through the machine. However, such an arrangement is generally less advantageous since the pressing rollers 151B and 152BC, respectively, then also need to overcome the force of gravity with respect to the weight of the building board.
    According to an embodiment of the invention, the laterally acting processing means 131A, 132A, 133AB and 134AB in the first processing station A are also configured to apply by gluing a second edging strip 122 along a second edge side of said four edge sides of the frame element 120. The second edge side is opposite to the first edge side, and the second edge strip 122 is applied to a corresponding one as described above, i.e. so that a primary side of the second edge strip 122 is made to become parallel to the primary main side of the body element 120. The vertically active processing means 151B, 152BC and 148B in the second processing station B are therefore further configured to apply the primary surface layer 140 by gluing, so that it covers the entire primary main side of the frame element 120, the primary side of the the first edging 121 and the primary side of the second edging 122. Then, via the vertically pressing ru, 151B and 152BC, a pressure over the frame member 120, the first edge strip 121 and the second edge strip 122 across the working direction F of the conveyor track 110 while the frame member 120, the first edge strip 121 and the second edge strip 122 pass through the second processing station B in such a way that both the primary side of the first edge strip 121 and the primary side of the second edge strip 122 at the passage of the second processing station B end up level with the primary main side.
    Figure 1 shows a roller 165 which stores a secondary surface layer 160. According to embodiments of the invention, a third processing station C comprises vertically active processing means 152BC and 168C configured to apply a secondary surface layer 160 by gluing, covering the entire secondary surface layer 160. the main side of the frame element 120 and a secondary side of the first edge strip 121 and in the case where a second edge strip 122 has been applied, also a secondary side of the second edge strip 122. The secondary surface layer 160, which may for instance be constituted by a protective and / or reinforcing fabric, the third processing station B is suitably provided via one or more rollers 162. Adhesive means 168C are suitably arranged to apply the required adhesive to the frame member 120 and the first edge strip 121 and / or to the secondary surface layer 160.
    Figure 3 shows how an applied surface layer 140 and / or 160 in a fourth processing station D is cut according to an embodiment of the invention. According to this embodiment, at least one cutting member 171D (and 172D Figure 1) is configured to, after applying the primary surface layer 140 to the primary main side of the body member 120 (respectively applying a possible secondary surface layer 160 to the secondary main side) by cutting, adapt the surface layer 140 and / or 160 across the working direction F of the conveyor track 110, so that the extent of the surface layer matches the width of a finished building board 120F. For the sake of clarity, Figure 3 shows a cutting member 171D located above the building board, i.e. adjacent to the side which is coated with the secondary surface layer 160. However, the primary surface layer 140 is most suitably cut from the opposite main side of the building board (i.e. from below in Figure 3).
    The above-described mode of operation of the machine is controlled with the advantage of software / software in the form of a set of computer program instructions, which are stored in a memory unit in communicative connection to a control unit of the machine.
    In order to summarize, the general method according to the invention for finalizing frame elements for building boards will now be described with reference to the flow chart in Figure 5. In a first step 510 it is examined whether a frame element 120 (in the form of a straightening block including a primary main side and an opposite secondary main side, each with a relatively large limiting area and four edge sides with a relatively small limiting area) have been received on the machine transport path 110. If so, a step 520 follows. Otherwise the procedure loops back and stops in step 510 .
    Step 520 moves the frame member 120 the transport path 110 in a working direction past a set of processing stations. This movement takes place throughout the machine, which is symbolized by an arrow, which runs parallel to subsequent steps 530, 540 and 550 to a final step 560.
    In the subsequent step 530, by gluing, a first edge strip 121 is applied along a first edge side of the frame element 120 in such a way that a primary side of the first edge strip 121 is made to become parallel to the primary main side of the frame element 120. Thereafter, by gluing, a primary surface layer 140 is applied so that it covers the entire primary main side and the primary side of the first edging 121.
    Then, in step 550, a vertical pressure is applied over the frame member 120 and the first edge strip 121 across the working direction of the conveyor track 110 while the frame member 120 and the first edge strip 121 are transported along the working direction of the conveyor path (110). The primary side of the first edging 121 is thus leveled with the primary main side of the frame member 120. In a step 560 thereafter, a finished building board is discharged from the machine, and the procedure loops back to step 510 to check if a new frame member has been received.
    The method steps described with reference to Figure 5 can thus also be controlled by means of a programmed computer apparatus. In addition, although the embodiments of the invention described above with reference to the figures include a computer and processes performed in a computer, the invention extends to computer programs, especially computer programs on or in a carrier adapted to practically implement the invention. The program may be in the form of source code, object code, a code which constitutes an intermediate between source and object code, such as in partially compiled form, or in any other form suitable for use in implementing the process according to the invention. The carrier can be any entity or device which is capable of carrying the program. For example, the carrier may comprise a storage medium such as a flash memory, a ROM (Read Only Memory), for example a CD (Compact Disc) or a semiconductor ROM, EPROM (Electrically Programmable ROIVI), EEPROIVI (Erasable EPROIVI), or a magnetic recording medium , such as a floppy disk or hard disk. In addition, the carrier may be a transmitting carrier such as an electrical or optical signal, which may be conducted through an electrical or optical cable or via radio or otherwise. When the program is formed by a signal which can be conducted directly by a cable or other device or means, the carrier can be constituted by such a cable, device or means. Alternatively, the carrier may be an integrated circuit in which the program is embedded, where the integrated circuit is adapted to perform, or to be used in performing, the actual processes.
    The invention is not limited to the embodiments described with reference to the figures but can be varied freely within the scope of the appended claims.
    权利要求:
    Claims (18)
    [1]
    A machine for finishing building boards which are substantially shaped as a straight block including a primary main side and an opposite secondary main side each with a relatively large limiting area and four edge sides with a relatively small limiting area, the machine comprising: a transport path (110) configured receiving incoming body elements (120) for building boards and moving the body elements (120) in a working direction (F) along a set of machining stations (A, B, C, D) in the machine, characterized in that a first machining station (A) of said processing stations comprise laterally operative processing means (131A, 132A, 132B) configured to apply by gluing a first edging (121) along a first edge side of said four edge sides in such a manner that a primary side of the first edging (121) is made to become parallel to the primary main side; and a second processing station (B) of said processing stations comprises vertically operative processing means (141B, 151B, 152BC, 148B) configured to: by gluing apply a primary surface layer (140) covering the entire primary main side and the primary side of the first the edge strip (121), and then apply a vertical pressure over the frame element (120) and the first edge strip (121) across the working direction (F) of the conveyor track (110) while the frame element (120) and the first edge strip (121) pass the second bear the pickling station (B) in such a way that the primary side of the first edging strip (121) is leveled with the primary main side when passing the second processing station (B).
    [2]
    The machine of claim 1, wherein the laterally operative machining means (131A, 132A, 133A, 134A) in the first machining station (A) are further configured to apply by gluing a second edging 10 (25) along a second edge side of said four edge sides, which second edge side is opposite to the first edge side, and where the second edge strip (122) is applied in such a way that a primary side of the second edge strip (122) is made parallel to the primary main side; and the vertically active processing means (151B, 152BC, 148B) in the second processing station (B) are further configured to apply by gluing the primary surface layer (140) so that it covers the entire primary main side, the primary side of the first edging. (121) and the primary side of the second edging (122), and then applying pressure to the frame member (120), the first edging (121) and the second edging 122) across the working direction (F) of the conveyor track (110) during that the frame member (120), the first edging (121) and the second edging (122) pass the second processing station (B) in such a way that both the primary side of the first edging (121) and the primary side of the second edging (122) at the passage of the second processing station (B) is brought into level with the primary main side.
    [3]
    The machine according to claim 1, wherein the first processing station (A) comprises at least a first guide roller (133AB) and at least a second guide roller (134AB), which guide rollers (133AB; 134AB) are arranged to, while the body element (120 ) and the first edging (121) applied thereto passes the first processing station (A), applying a lateral pressure over the frame element (120) and the first edging (121) across the working direction (F) of the conveyor path (110), an inner dimension between the guide rollers (133AB; 134AB) corresponds to a desired width dimension of a finished building board (120F).
    [4]
    The machine according to any one of claims 2 or 3, wherein a third processing station (C) of said processing stations comprises vertically active processing means (152BC) configured to apply a secondary surface layer (168C) by gluing (168C). 160) which covers the entire secondary main side and a secondary side of the first edging (121).
    [5]
    The machine of claim 2, wherein the first processing station (A) comprises at least a first guide roller (133AB) and at least a second guide roller (134AB) which guide rollers are arranged to, while the body member (120), the to the applied first edging (121) and the second edging (122) applied thereto passes the first processing station (A), applying a lateral pressure over the frame element (120), the first edging (121) and the second edging (122) across the working direction (F) of the conveyor track (110), an inner dimension between the guide rollers (133AB; 134AB) corresponding to a desired width of a finished building board (120F).
    [6]
    The machine of claim 5, wherein a third processing station (C) of said processing stations comprises vertically operative processing means (152BC) configured to apply by means of gluing (168C) a secondary surface layer (160) covering the entire secondary main side, a secondary side of the first edging (121) and a secondary side of the second edging (122).
    [7]
    The machine according to any one of the preceding claims, wherein the vertically operative processing means in the second processing station (B) comprises a first and a second pressing roller (151B; 152BC) which are configured abutting against the primary and secondary main sides, respectively, wherein each of the first and second pressing rollers (151B; 152BC) has an axis of rotation which is substantially perpendicular to the working direction (F) of the conveyor track (110), and where each of the first and second pressing rollers (151B; 152BC) ) has a length exceeding a width of a finished building board (120F). 10 15 20 25 30 18
    [8]
    The machine of claim 7, wherein the axis of rotation (451) of the first pressing roller (151B) is bluntly attached to the machine, the first pressing roller (151B) consisting of a hard and relatively inelastic material; and the second pressing roller (152BC) is flexible in radial direction, so that a distance between the periphery of the second pressing roller (152BC) and the periphery of the first pressing roller (151B) is adaptable to a thickness of an object which passes between the first and second pressing rollers (151B, 152Bc).
    [9]
    The machine of claim 8, wherein the second pressing roller (152BC) comprises a core of a relatively hard material, the core being covered by a resilient material (352) arranged to abut against said building board during passage thereof. the first and second pressing rollers (151B; 152BC).
    [10]
    The machine of claim 8, wherein the second pressing roller (152BC) includes a set of resilient discs (452) arranged along the axis of rotation (455) of the second pressing roller (152BC), each resilient disc (452) having a segment width and an individually variable radius adaptable to the thickness of an object passing between the first pressing roller (151B) and the disc, so that the second pressing roller (152BC) is segmentally flexible in radial direction in units corresponding to the segment width of each disc (452 ) in the set of resilient discs.
    [11]
    The machine according to any one of claims 5 to 11, wherein a fourth machining station (D) of said machining stations comprises cutting means (171D, 172D) configured to, after applying the primary surface layer (140) to the primary main side, , by cutting, adjusting the primary surface layer (140) across the working direction (F) of the conveyor track (110) so that the extent of the primary surface layer (140) matches the width of a finished building board (120F). 10 15 20 25 30 35 19
    [12]
    A method of finishing building boards which are substantially shaped as straight blocks including a primary main side and an opposite secondary main side each having a relatively large limiting area and four edge sides with a relatively small limiting area, the method comprising: receiving incoming frame elements (120 ) to construction discs on a conveyor track (110), and moving the frame elements (120) in a working direction (F) along a set of processing stations (A, B, C, D) in a machine, characterized by application, by gluing , of a first edge strip (121) along a first edge side of said four edge sides in such a way that a primary side of the first edge strip (121) is caused to become parallel to the primary main side; applying, by gluing, a primary surface layer (140) covering the entire primary main side and the primary side of the first edging (121); and then applying a vertical pressure over the body member (120) and the first edging (121) across the working direction of the conveyor path (110) during transport of the body member (120) and the first edging (121) along the working direction (110) of the conveying path (110). F), so that the primary side of the first edging (121) is aligned with the primary main side.
    [13]
    The method of claim 12, comprising: applying, by gluing, a second edge strip (122) along a second edge side of said four edge sides, said second edge side being opposite to the first edge side, and wherein the second edge strip (122) is applied to such that a primary side of the second edging (122) is made parallel to the primary main side; applying, by gluing, the primary surface layer (140) so as to cover the entire primary main side, the primary side of the first edging (121) and the primary side of the second edging (122); and then applying a pressure over the body member (120), the first edging (121) and the second edging (122) across the working direction (F) of the conveyor track (110) during transport of the body member (120), the first the edging (121) and the second edging (122) along the working direction (F) of the conveyor track (110), so that both the primary side of the first edging (121) and the primary side of the second edging (122) are aligned with the primary main page.
    [14]
    The method of claim 13, comprising applying, by means of a first and a second guide roller (133AB, 134AB), a lateral pressure over the body member (120) and the first edging (121) across the working direction (F) of the conveyor track (110) during transport. of the frame member (120) and the first edge strip (121) along the working direction (F) of the conveyor path (110), so that a total extension of the frame member (120) and the first edge strip (121) across the working direction (110) of the conveyor track (110) F) corresponds to a desired width dimension of a finished building board (120F)
    [15]
    The method of any of claims 13 or 14, comprising applying, by gluing, a secondary surface layer (160) covering the entire secondary main side and a secondary side of the first edging (121).
    [16]
    The method of claim 13, comprising applying, by a first and a second guide roller (133AB, 134AB), a lateral pressure over the body member (120), the first edging (121) and the second edging (122) across the conveyor track (110). ) working direction (F) during transport of the frame element (120), the first edge strip (121) and the second edge strip (122) along the working direction (F) of the conveyor path (110), so that a total extension of the frame element (120) 120), the first edging (121) and the second edging (122) across the working direction (F) of the conveyor track (110) correspond to a desired width dimension of a finished building board (120F). 10 21
    [17]
    The method of any of claims 15 or 16, comprising applying, by gluing, a secondary surface layer (160) covering the entire secondary main side, a secondary side of the first edging (121) and a secondary side of the second edge list (122).
    [18]
    The method according to any one of claims 12 to 17, comprising, after applying the primary surface layer (140) to the primary main side, cutting the primary surface layer along the working direction (F) of the conveyor path (110) so that the primary surface layer extends The transverse working direction (F) is adapted to match the width of a finished building board (120F).
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    同族专利:
    公开号 | 公开日
    CN104956012B|2019-08-20|
    WO2014116157A1|2014-07-31|
    SE537025C2|2014-12-09|
    ES2687032T3|2018-10-23|
    EP2948602A1|2015-12-02|
    PL2948602T3|2018-11-30|
    CN104956012A|2015-09-30|
    EP2948602B1|2018-06-13|
    US10189234B2|2019-01-29|
    EP2948602A4|2016-10-12|
    DK2948602T3|2018-09-10|
    US20150360456A1|2015-12-17|
    RU2637677C2|2017-12-06|
    US9694566B2|2017-07-04|
    US20170232723A1|2017-08-17|
    RU2015136473A|2017-03-06|
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    法律状态:
    2020-09-01| NUG| Patent has lapsed|
    2020-09-29| NUG| Patent has lapsed|
    优先权:
    申请号 | 申请日 | 专利标题
    SE1350085A|SE537025C2|2013-01-28|2013-01-28|Machine and manufacturing method for building board|SE1350085A| SE537025C2|2013-01-28|2013-01-28|Machine and manufacturing method for building board|
    CN201380071666.XA| CN104956012B|2013-01-28|2013-11-28|Machine and manufacturing method for building board|
    DK13872425.7T| DK2948602T3|2013-01-28|2013-11-28|Machine and process for making building boards|
    ES13872425.7T| ES2687032T3|2013-01-28|2013-11-28|Machine and manufacturing method for a construction board|
    EP13872425.7A| EP2948602B1|2013-01-28|2013-11-28|Machine and manufacturing method for building board|
    PL13872425T| PL2948602T3|2013-01-28|2013-11-28|Machine and manufacturing method for building board|
    US14/761,875| US9694566B2|2013-01-28|2013-11-28|Machine and manufacturing method for building board|
    PCT/SE2013/051409| WO2014116157A1|2013-01-28|2013-11-28|Machine and manufacturing method for building board|
    RU2015136473A| RU2637677C2|2013-01-28|2013-11-28|Machine and method of manufacturing construction panel|
    US15/581,840| US10189234B2|2013-01-28|2017-04-28|Machine and manufacturing method for building board|
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