• 专利附录
  • 专利说明
  • 权利要求
  • 类似技术
  • 同族专利
  • 引用文献
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  • 优先权
    • 专利摘要:
    The invention relates to a device (100..103) for plasma coating a substrate (2), in particular a press plate, comprising a vacuum chamber (3) and an electrode (400..409) arranged therein, which is segmented, wherein each of the electrode segments (500..512) has its own connection (6) for an electrical energy source (700.702). Furthermore, a method for operating said device (100..103) is specified, in which a substrate (2) to be coated is positioned opposite to said electrode (400..409) and at least one associated with an electrode segment (500..512) Energy source (700..706) is activated. In addition, a gas is introduced, which causes a plasma-enhanced chemical vapor deposition on the substrate (2).
    公开号:AT513190A1
    申请号:T877/2012
    申请日:2012-08-08
    公开日:2014-02-15
    发明作者:Andreas Dipl Ing Gebeshuber；Daniel Dr Heim；Johann Dr Laimer；Thomas Dipl Ing Mueller；Michael Dr Proschek；Otto Ing Stadler
    申请人:Berndorf Hueck Band Und Pressblechtechnik Gmbh；
    IPC主号:
    专利说明:

    1 25 11:31:32 08-08-2012 6/38
    Apparatus and method for plasma coating a substrate, in particular a press plate
    The invention relates to a device for plasma coating a substrate, in particular a press plate, comprising a vacuum chamber and an electrode disposed therein, which is aligned in operation substantially parallel to said substrate and against its side to be coated. Furthermore, a method for producing a substrate, in particular a press plate, is specified. Finally, the invention also relates to a method for producing single-layer or multi-layered plate-shaped materials, in particular of plastics, wood-based materials and laminates with and without overlay papers.
    An apparatus and a method of the type mentioned are known in principle. For example, EP 1417 090 B1 discloses a method for processing and producing a surface of a material having a reproducible degree of gloss as well as a pressed wheat mold for the application of the method. In order to increase the stability of the dies, a cutting tool is provided with a coating consisting of carbon with diamond-like layers. As a result, the abrasion of the pressing tool surface in the processing of highly abrasion-resistant materials, for example in the Hersteiking of floorboards with corundum particles in the surface layer considerably reduced
    The diamond-like layers mentioned are also known by the term "diamond like carbon" (DLC). These are characterized by high hardness and high wear resistance and can be, for example, with the help of plasmaun- N2011 / 34400 08/08/2012 11:35
    No .: R730 P.006 / 038 2 25 11:32:09 08-08-2012 7/38 * · assisted chemical vapor deposition (PECVD). In this case, above the workpiece to be coated, a plasma is ignited from which ionized components reach the workpiece to be coated.
    Since there is a tendency to ever larger formats of the materials mentioned above (for example, floor panels, chipboard, fiberboard, etc.), correspondingly large press plates are required for the production of these materials. The problem is that the applied to the press plate layer is very difficult to produce within a narrow tolerance range and thus is only partially reproducible. One reason for this is inhomogeneous or difficult to influence process conditions. For example, the plasma concentration in the plasma over the press plate is very different and difficult to control, which results in different deposition rates from the plasma, even when the electrode is of constant field strength and current intensity. In reality, however, it is not possible to achieve a constant or tight distribution of fats and current distribution within a narrow tolerance range anyway, so that this also results in undesirable differences in the rate of deposition of the layer to be applied.
    Unfortunately, the above variations cause process instabilities as well as vibrational phenomena. For example, a locally increased lonenkonzentratkm in the plasma due to the increased conductivity to a locally increased current, which can cause not only an increased deposition rate of the applied layer, but in extreme cases, a flashover. As a rule, the surface of the press plate is so severely destroyed by the high current that it has to be disposed of. This leads to high economic damage, since both the base material of the press plate, as well as the processing of the same (for example, the photolithographic generating a surface texture or creating a surface structure or a mask for photofithography by means of the inkjet printing, screen printing, offset printing or Calendering process) very expensive isL per N2011 / 34400 08/08/2012 11:35
    No .: R730 P.007 / 038 25 11:32:54 08-08-2012 8/38
    The larger the pressure plate is, the greater the probability of one of the above errors occurring.
    An object of the invention is therefore to provide an improved apparatus and an improved method for plasma coating a substrate, in particular a press plate. In particular, a possibility should be created to apply a layer to a substrate in a narrow tolerance range and to avoid an electrical flashover in the plasma, or mitzumildem its effects. Another object of the invention is to provide an improved manufacturing method for single or multilayer plate-shaped materials. In particular, the production of large format plates should be facilitated or made possible.
    The object of the invention is achieved by a device of the type mentioned, in which the electrode is segmented and each of the Eiektrodensegmente has its own connection for an electrical energy source
    Furthermore, the object of the invention is achieved by a method for producing a substrate, in particular a press plate, comprising the steps: a) arranging a substrate to be coated in a vacuum chamber with respect to a segmented electrode arranged in the vacuum chamber and oriented substantially parallel thereto , b) activating at least one energy source associated with an electrode segment, and c) introducing a gas which effects plasma assisted chemical vapor deposition on the substrate (eg, billet blank).
    Finally, the object of the invention is achieved by a process for producing single or multilayer plate-shaped materials, in particular of plastics, wood-based materials and laminates with and without overlay papers, in which a substrate or press plate produced by means of said method is used. N2011 / 34400 08/08/2012 11:36
    No .: R730 P.008 / 038 25 11:33:34 08-08-2012 9/38
    4
    An electrode segment is defined in the context of the invention in that it can assume a significantly different potential than the other segments, without causing a significant compensating current would flow, in other words, a high insulation resistance is provided between the individual segments. The segmentation is in the context of the invention therefore in electrical terms, not necessarily seen in terms of construction. The term "connection" is to be understood broadly, in principle it can be understood as a possibility for electrical connection of any type.
    According to the invention, it is achieved by the segmentation that the electrode can be locally supplied differently with electrical energy, or the supply of electrical energy can be influenced in a very differentiated manner.
    As a result, not only can a distribution of the electric field strength or the current intensity across the substrate be predetermined, but the given values can also be kept well within a narrow tolerance range because of the segmentation of the electrode. For example, the energy supply per electrode segment can be controlled independently. In addition, the gaps between the individual segments mean that the process gas can be better directed to the substrate "so that the ion concentration above the substrate can be kept constant or in a tight clamping band.
    Finally, the probability of the occurrence of an electrical flashover in the plasma is significantly reduced, or its effects are significantly mitigated. Namely, the segmentation can not "pull off" the electrical energy from other regions of the electrode and concentrate it to a point, as is the case with an unsegmented electrode. Here, a flashover leads to a concentration of the energy or power made available for the coating of the entire substrate to a point and thus to a correspondingly severe damage to the substrate.
    However, if electrode segments are provided, only the electrical power available for the coating of the substrate in this area may be N2011 / 34400 08/08/2012 11:37
    No .: R730 P.009 / 038 25 11:34:18 08-08-2012 10/38
    5
    Energy and performance are concentrated to a point, which is naturally smaller than that provided for the coating of the entire substrate electrical energy / suppression. The finer the segmentation, the smaller are the stated amounts of energy or services. By correspondingly fine segmentation, the power per electrode segment can be reduced so much that the electrical energy within the segment is no longer sufficient for an electric flashover, while the power per unit area remains constant Surface of the substrate is only slightly damaged by such, so that it can be easily reused or repaired with little effort.
    In general, the goal in most cases is to coat a substrate as evenly as possible. In this case, the above-mentioned measures can be used to achieve the most homogeneous possible distribution of the current intensity, the electric field strength and the ion concentration in the plasma. Alternatively, it may also be the goal of the process to coat the substrate inhomogeneously. In this case, the measures mentioned are used to achieve an inhomogeneous, but in a narrow tolerance band to a predetermined distribution of the current, the electric field strength and the ion concentration in the plasma.
    By providing said substrates or press plates, the production of large-sized plate materials is facilitated or made possible under large-sized plates in the invention are plates with a size of greater than or equal to 1 m2, in particular plates with a size of greater than or equal to 5 m2 and im To understand special panels with a size greater than or equal to 10 m2. Thus, for example, plate-shaped materials with a standard size of 2 x 5 m can be produced in one operation. N2011 / 34400 08/08/2012 11:37
    No .: R730 P.010 / 038 25 11:34:59 08-08-2012 11/38 ♦ ♦ ·· · · · · ♦ ♦ #
    6 · ♦ * · 4 ·
    Advantageous embodiments and developments of the invention will become apparent from the dependent claims and from the description in conjunction with the figures. .............. .............................. ......
    It is advantageous if the individual electrode segments are insulated from each other. As a result, virtually no equalizing current can flow between the segments.
    However, it is also advantageous if the individual electrode segments are connected to one another via narrow webs or defined ohmic resistances. As a result, small, defined equalizing currents between the segments can be allowed, or the electrode can be constructed in one piece despite its segmentation, if narrow webs are provided between the segments.
    It is also advantageous if the individual electrode segments are connected via narrow webs or defined ohmic resistances with at least one energy source. Advantageously, the electrode segments can be differently powered with only a single energy source in this way by providing different resistances to the individual electrode segments. In addition, the probability of the occurrence of an electrical flashover in the plasma is significantly reduced, or its effects are significantly mitigated because the resistors inhibit a concentration of electrical energy in only one electrode segment.
    It is particularly advantageous if the device comprises a plurality of independently controllable / controllable energy sources which are connected to the electrode segments via said connections. On this catfish several electrode fragments can be supplied with energy independently. By way of example, a separate current intensity and / or an own potential can be specified for them, and if the energy source is regulated, they can also be accepted under varying process conditions. N2011 / 34400 08/08/2012 11:38
    No .: R730 P.011 / 038 7 25 11:35:39 08-08-2012 12/38 · * ·· ♦ * ··· ♦ * ► · · * ··
    It is also particularly advantageous if one electrode segment is connected to one energy source each, which is controllable independently of the other energy sources. Thus, one energy source per electrode segment ..... is activated and controlled independently of the other energy sources. In this way, all electrode segments can be powered independently of each other. For example, a separate current strength and / or a separate potential can be specified for each electrode segment, and if the energy source is regulated, even under varying process conditions.
    Moreover, it is particularly advantageous if the device comprises a controller which is set up to switch an energy source alternately to one electrode segment of a group of electrode segments and the connections of the remaining electrode segments of this group into an open state isolated from the first-mentioned electrode segment. Thus, one energy source is alternately switched to one electrode segment of a group of electrode segments and the terminals of the remaining electrode segments of this group are switched to an insulated state from the first electrode segment. Thus, it is possible to independently energize all the electrode segments with only a small number of energy sources to supply. In each case, an electrode segment of a group of segments Eiektraden is connected to the energy source and given a current strength and / or potential for this. The remaining electrode segments of this group are shadowed in an open state in which they are isolated from the energy source or the electrode segment connected thereto. The current intensity for these electrode segments is thus zero, or only a small outflow current can flow between the segments. Accordingly, the potential can be virtually any value ("floating potential"). After a certain time, the energy source is connected to another electrode segment of the group and the previously connected electrode segment is also switched to an open state. In this way, all the electrode segments of the group can be gradually connected to the energy source. It is by no means necessary for the electrode segments in each N2011 / 34400 08/08/2012 11:39
    No .: R730 P.012 / 038 25 11:36:25 08-08-2012 13/38
    8 ········································································································.
    Cycle in the same order as the energy source. Also, an electrode segment may be connected to the energy source several times in a cycle to produce, for example, a thicker coating on the fuse.
    For example, the selection of the electrode segment associated with the activated energy source may also be random. This avoids effects that can be caused by the same repetition of one and the same cycle.
    It is also particularly advantageous if electrode segments arranged in the manner of the white fields of a chess board and electrode segments arranged in the manner of the black areas of a chess board are alternately supplied with electrical energy. In this variant, therefore, electrode segments arranged in a matrix are activated alternately. In a first period of time, those segments are activated whose row and column index result in an even number. In a second period of time, those segments are activated whose row and column index result in an odd number. It is advantageous if the area of an electrode segment is less than or equal to 1 m2. It is even better if the area mentioned is less than or equal to 0.25 m2. These values represent a good compromise in terms of the coating Of course, although the above values have been found to be advantageous, the invention is not limited to the same. Of course, other values may be chosen within the scope of the advantages achieved by the invention. It is advantageous if the energy sources are designed as power sources. In this way it is possible to adjust the deposition rate of the coating to be applied to the substrate.
    It is advantageous in this context if the maximum current per electrode segment (peak current) is less than or equal to 150 A. NZ011 / 34400 08/08/2012 11:39 is even more advantageous
    No .: R730 P.013 / 038 25 11:37:06 08-08-2012 14/38 ·· 4 * 9 · »» 1 * fl · • • «• * * · # · e • · • ** If the mentioned current is less than or equal to 15 A, it can be used. These values are a good compromise where the coating of the substrate is not at risk of "destructive" electrical breakdown.
    Electrode and substrate work well. Although the above values have been found to be advantageous, the invention is of course not limited to the same. Of course, other values may be chosen within the scope of the advantages achieved by the invention.
    It is also advantageous if the EEektrodensegmente are lattice-shaped. As a result, the process gas can be conducted particularly well to the coating substrate.
    It is also advantageous if the electrode is bent in its edge region in the direction of the substrate to be coated in this way, a drop in the electric field strength in the plasma in the edge region of the electrode, as it results in a plate-shaped electrode, which everywhere the same distance from Substrate should be balanced.
    An advantageous variant of a method for coating a substrate is also provided when the voltage between an electrode segment and the substrate to be coated is measured and the power supply is regulated or switched off when a collapse of said voltage is detected. If the said voltage drops very quickly to a relatively low value, then it can be assumed that an electrical flashover occurs between the workpiece and the electrode. In order to stem the harmful effects thereof, or even to stop them, the energy supply of the affected electrode segment is reduced or even eliminated off.
    It is advantageous if electrode segments located at the edge of the electrode are set at a higher potential than internal segments. In this way, a drop in the electric field strength in the plasma, as it results in a plate-shaped electrode aligned parallel to the substrate, balanced graze. NZ011 / 34400 08/08/2012 11:40
    No .: R730 P.014 / 038 25 11:37:47 08-08-2012 15/38
    10
    It is also advantageous if electrode segments situated on the edge of the electrode are set or regulated to a higher current intensity than internal segments. The catfish can be provided with a thicker layer on this catfish. Usually, the substrates are in fact claimed the highest in the production of plate-shaped materials.
    Finally, it is advantageous if the plate-shaped material contains particles with a Vickers hardness between 1000 and 1800 or corundum or aluminum oxide Al 2 O 3, in particular in the region of its surface facing the press plate. The advantage of the coated press plate emerges particularly at this point, since a high service life of the press plate can be ensured by the coating despite abrasive constituents in the material to be produced. Press plates for large-format plate-shaped materials according to the prior art can not have such a long service life.
    It should be noted at this point that the variants mentioned for the coating device and the resulting advantages are also applicable mutatis mutandis to the method for coating the substrate and vice versa.
    For a better understanding of the invention, this wind explained in more detail with reference to the following figures.
    Fig. 1 shows schematically a device for plasma coating a substrate;
    FIG. 2 shows a first schematically illustrated example of an electrode with segments completely insulated from one another; FIG.
    3 shows a second schematically illustrated example of an electrode with interconnected segments;
    4 shows a further schematically illustrated example of a grid-shaped electrode; N2011 / 34400 08/08/2012 11:41
    No .: R730 P.015 / 038 25 11:38:25 08-08-2012 16/38 · " ». * ·. ** ·: .......: :::. · ···: ::: ..... ♦. ·· .. · 11
    Fig. 5 shows another schematically illustrated example of an electrode with Fig. 6 differently shaped segments; a further schematically illustrated example of a bent in the RanÜbereich electrode; Fig. 7 is an illustrative example in which a controller switches an energy source to different electrode segments; 8 shows an example of an electrode whose segments are made or driven in the manner of a chess board; 9 shows an illustrative example in which one electrode segment is connected to one energy source each; Fig. 10 is another illustrative example in which a voltage between an electrode segment and the substrate is measured; 11 shows a schematically illustrated example in which segments located at the edge of the electrode are set to a higher potential and / or adjusted to a higher current intensity than internal segments, and FIG. 12 shows a schematically illustrated example in which the electrode segments via Resistors are connected to a power supply.
    By way of introduction, it should be noted that in the differently described embodiments, the same TePe are provided with the same reference numerals or the same component names, the disclosures contained throughout the description can be mutatis mutandis transferred to the same TePe with the same reference numerals or component names. Also, the location information chosen in the description, such as top, bottom, side, etc. related to the immediately described and illustrated figure and are to be transferred to the new situation mutatis mutandis when a change in position. Furthermore, individual characteristics or combinations of features can also be shown and curtailed »1/34400 08/08/2012 11:41
    No .: R730 P. 016/038 25 11:39:03 08-08-2012 17/38 ·· Μ * · · I '«· 4 ►Μ · μ« · * · Μ ♦ · Μ * · · « • · · «f < • Be different embodiments for themselves, inventive or inventive solutions represent. All information on ranges of values in objective description should be understood to include any and all sub-ranges thereof, eg, the indication 1 to 10 should be understood to mean that all sub-ranges, starting from the lower limit 1 and the upper limit 10 are included, ie all subregions begin with a lower limit of 1 or greater and end at an upper limit of 10 or less, e.g. 1 to 1.7, or 3.2 to 8.1 or 5.5 to 10.
    1 shows a device 100 for plasma coating a substrate 2, comprising a vacuum chamber 3 and an electrode 400 arranged therein, which in operation is oriented substantially parallel to the said substrate 2 and opposite its side to be coated. For the following considerations, it is assumed that the substrate is a press plate 2. Of course, however, the following teaching can also be applied to other substrates.
    The electrode 400 is segmented, and each of the segments 500 has its own terminal 6 for an electrical energy source 700, which in this example is designed as a current source. Of course, the energy source could also be designed as voltage sources, for example. Finally, Fig. 1 also shows a connection 8 for introducing a process gas (for example ChU) into the vacuum chamber 3, in which, for example, there is a pressure of approximately 1 mbar.
    Preferably, the area of an electrode segment 500 is less than or equal to 1 m2, and the current strength of a power source 700 is less than or equal to 150 amps. These values represent a good compromise, in which the coating of the press plate 2 succeeds well if the segmentation of the electrode 400 is not overly strong and the risk of destructive electrical flashover between the electrode 400 and the press plate 2 is not too high. N2011 / 34400 08/08/2012 11:42
    No .: R730 P.017 / 038 13 25 11:39:43 08-08-2012 18/38 ··· * »»
    Generally, the power source 700 may provide DC or AC power. Particularly successful is the coating of Pressbiechs 2 with pulsed current. In this case, the current amplitude of the pulses is preferably less than 150 A. In order to dissipate electrical charges on the deposited layer, e.g. When electrically insulating layers are applied, the polarity of the pulses may also be reversed from time to time. For example, one of ten pulses may have a different polarity.
    Fig. 2 now shows an example of an electrode 401 whose segments 501 are completely isolated from each other. The individual segments 501 are thus formed by individual conductive and spaced plates. These can be applied, for example, on a non-conductive substrate, so that the electrode 401 is easier to handle. The electrode 401 may also be perforated, so that the process gas can more easily reach the press plate 2, in particular by recesses in said substrate in the region between the segments 501. For example, they may have the shape of elongated holes (see also Fig. 3).
    FIG. 3 shows a further example of an electrode 402 whose segments 502 are connected to one another via narrow webs 9 and thus via (high) ohmic resistors. The electrode 402 can thus in principle be designed in one piece by corresponding recesses 10, for example milled out, punched out, ausgenibbelt from a sheet metal or cut out with a laser.
    FIG. 4 shows another example of an electrode 403 in which the electrode segments 503 are formed in a lattice shape. In this way, the process gas can still reach the press plate 2 more easily.
    FIG. 5 shows another example of an electrode 404 constructed of circular electrode segments 504 and checkered electrode segments 505. This example is purely illustrative and merely intended to demonstrate that an electrode 400 is not necessarily made of rectangular electrode segments. N2011 / 34400 08/08/2012 11:43
    No .: R730 P.018 / 038 25 11:40:25 08-08-2012 19/38 ··· I ψ * • · «14 menten 500. Of course, besides the shapes shown in Fig. 5, a variety of other non-rectangular shapes are replaceable.
    6 shows an example of an electrode 405 which is bent in its field region in the direction of the press plate 2 to be coated. Specifically, the electrode segments 506 are arranged parallel to the press plate 2, whereas the electrode segments 507 are inclined in the direction of the press plate 2 or as in FIG bent this example in the direction of the press plate 2. In this way, a drop in the electric field strength in the plasma, as it results in a also in the edge region of the press plate 2 parallel to the same aligned, plate-shaped electrode can be compensated.
    As an alternative or in addition to the embodiment shown in FIG. 6, it would also be conceivable, for example, for segments 500 located in the edge region of the electrode 400 (compare also FIG. 11) to be arranged closer to the press plate 2 than inner segments. In particular, all segments 500 may be arranged parallel to the press plate 2.
    In an honing for producing a press plate 2, the following steps are now carried out: a) arranging a press plate 2 to be coated in a vacuum chamber 3 with respect to a segmented electrode 400 arranged in the vacuum chamber 3 and aligned substantially parallel, b) activation of at least one , an electrode segment 500 associated energy source 700 and c) introducing a gas, which causes a plasma-enhanced chemical vapor deposition on the press plate Rohiing 2.
    For completeness, it is noted at this point that step c) of course, before step b) can be performed. FIG. 1 shows, purely illustratively, only a single energy source 700, which is connected to an electrode segment 500. This can in principle be connected in succession to the various electrode segments 500. Alternatively, it is also conceivable that a device for plasma coating N2011 / 34400 08/08/2012 11:43
    No .: R730 P.019 / 038 25 11:41:06 08-08-2012 20/38
    15 of a press plate 2 comprises a plurality of mutually independently controllable / controllable energy sources 700, which can be connected or connected via the connections 6 to the electrode layers 500.
    Flg. 7 shows an illustrative example in which a controller 1101 of a device 101 (shown here without a vacuum chamber 3) is set up to alternately apply an energy source 701, 702 to electrode segments 508 of a group 1301, 1302 of electrode segments by means of the switches 1201 and 1202 508, and to switch the terminals of the remaining electrode segments 508 of this group 1301, 1302 into an open state isolated from the first-mentioned electrode segment 508 (the press plate 2 is grounded in this example and the other examples). Specifically, in the example shown in FIG. 7, the electrode segments 508 are subdivided into two groups 1301 and 1302, the first group 1301 comprising three electrode segments 508 of equal size and the second group 1302 comprising five electrode segments 508 of different size. The subdivision is purely illustrative and is intended, inter alia, to demonstrate that the electrode segments 508 of an electrode 406 need not necessarily be the same size. Furthermore, it can also be seen from FIG. 7 that the electrode segments 508 need not necessarily be square, but may also be generally rectangular. In particular, the heddle segments 508 may be in the form of bands, rods and / or strips. A first energy source 701 is now connected to one electrode segment 508 of the group 1301, a second energy source 702 to an electrode segment 508 of the group 1302. The remaining electrode segments 508 are switched to an open state.
    After a certain time, the associations between the power sources 701, 702 and the electrode segments 508 are changed. That is, power source 701 is connected to another electrode segment 508 of group 1301 and the previously connected electrode segment 508 is switched to an open state. Similarly, power source 702 is connected to another electrode segment 508 of group 1302 and the previously connected electrode segment 508 is switched to an open state. On this N2011 / 34400 08/08/2012 11:44
    No .: R730 P.020 / 038 16 25 11:41:50 08-08-2012 21/38
    As such, all electrode segments 508 of groups 1301 and 1302 may be progressively connected to power sources 701 and 702. This makes it possible. to supply all electrode segments SOe with a small number of energy sources 701.702 independently of each other with energy.
    The selection of the electrode segment 508 associated with the activated energy source 701, 702 may be random or according to a predetermined scheme. The electrode segments 508 do not need to be connected to the power source 701, 702 in each cycle in the same order. Also, an electrode segment 508 may be repeatedly connected to the power source 701, 702 in one cycle.
    A particularly advantageous method is provided when electrode segments arranged in the manner of the white fields of a chess board and electrode segments arranged after the black fields of a chess board are alternately supplied with electrical energy. 8 shows an illustrative example with electrode segments 509 arranged in a 6x9 matrix to make it clear that the electrode segments 509 need not necessarily be arranged in an 8x8 matrix, as is the case with a chessboard. According to this variant, the "white" segments 509, in a second segment, the "black" segments 509 (shown hatched here) are activated in a second time segment.
    When assigning an energy source 701, 702 to an electrode segment 508, it is generally possible to specify a current intensity and / or a potential for the same. The remaining electrode segments 508, which are not assigned to any energy source 701, 702, are switched to an open state, in which they are isolated from the energy source 701, 702 or the electrode segment 508 connected thereto. The current for these electrode segments 508 is thus zero, or only a small equalizing current can flow between the segments 508. Accordingly, the potential can be virtually any value ("floating potential"). N2011 / 34400 08/08/2012 11:45
    No .: R730 P.021 / 038 17 25 11:42:32 08-08-2012 22/38 ·· ··
    FIG. 9 now shows an example in which one electrode segment 510 is connected to one energy source 701.706, which is controllable / rechargeable independently of the other energy sources 701.706. This means that the energy source 701 can be controlled / mirrored independently of the energy sources 702..706, etc. Accordingly, one energy source 701 .706 per electrode segment 510 is activated in each case and controlled / regulated independently of the other energy sources 701.706. In this way, all electrode segments 510 can be independently powered. For example, for each electrode segment 510, a separate current intensity and / or a separate potential can be preset, and if the energy source 701.706 is regulated, it can also be maintained under varying process conditions.
    In a further example shown in FIG. 10, the voltage between an electrode segment 511 and the press plate 2 to be coated is measured with the aid of a voltage measuring device 14 and the power supply 700 is regulated by a controller 1102 and / or the power supply to the electrode segment 511 with the aid of one of the Control switch 1102 switch switch 1200 off when a break in said voltage is detected. The voltage measuring device 14 may be formed, for example, as an analog-to-digital converter, which is connected to a microcontroller, in which, for example, the controller 1102 may be integrated. In this way, an electrical impact between the electrode segment 511 and the press plate can be determined, and its destructive effect can be contained. In addition, it is also possible to actively end the rollover caused by the above measures. Of course, a common control for the functionality of the controller 1101 shown in FIG. 7 and the controller 1102 shown in FIG. 10 may also be provided.
    In a further variant of the method for plasma coating a pressed sheet 2, segments 512 (shown hatched in FIG. 11) located at the edge of an electrode 409 are set to a higher potential and / or adjusted to a higher current intensity than internal segments 512 (shown in white) ). In this way, a drop in the electric field strength in the plasma N2011 / 34400 08/08/2012 11:46
    No .: R730 P.022 / 038 25 11:43:16 08-08-2012 23/38
    18, as it results in a parallel to the press plate 2 aligned, plate-shaped electrode 409 (see also Fig. 6), are compensated and / or die.Pießblech 2 can at its edge with a thicker Schjcht be provided. Usually, the press plates 2 in the production of plate-shaped materials namely the highest stress there.
    Finally, FIG. 12 shows a schematically illustrated example in which the electrode segments 510 are connected to a power source 700 via resistors 15. Advantageously, the electrode segments 510 can be supplied with energy in this way with only a single energy source 700 by different resistors 15 are provided. Of course, however, the same resistors 15 may be provided. In addition, the probability of the occurrence of an electrical flashover in the plasma is significantly reduced, or its effects are significantly mitigated because the resistors 15 inhibit a concentration of electrical energy in only one electrode segment 510. Of course, the arrangement 103 shown in FIG. 12 can also be used in combination with the arrangements already described. For example, instead of a single energy source 700, multiple energy sources may also be provided. In addition, it is also conceivable, for example, for additional resistances (not shown) to be arranged between the electrode segments 510, for example because the electrode 408 is designed as shown in FIGS. 3 and 4. Finally, it is also conceivable that the resistors 15 are formed by narrow terminal lugs 6, in particular when comparatively high currents must be nelnifAt to the electrode segment 510.
    The embodiments show possible embodiments of a device according to the invention 100..103 for plasma coating of a substrate 2, it being noted at this point that the invention is not limited to the specifically illustrated embodiments thereof, but rather various combinations of the individual embodiments are possible with each other and This possibility of variation due to the doctrine of technical action by objective invention in the ability of this technical N201104400 08/08/2012 11:46
    No .: R730 P. 023/038 25 11:44:01 08-08-2012 24/38
    19
    Area professional. Thus, all conceivable embodiments which are possible by combinations of individual details of the illustrated and described embodiment variant are also included in the scope of protection.
    In particular, it is noted that said device 100..103 may in reality also comprise more stock than shown. In particular, it should also be noted that although the disclosed teaching is particularly advantageous in the context of press plates, it can be applied without restriction to other substrates such as thermoforming, extrusion and generally pressing tools.
    In particular, the presented substrates 2 or pressing plates are suitable for producing single-layer or multi-layered plate-shaped materials. In particular, these include thermoplastics and thermosets such as epoxy resins, polyester resins and phenolic resins, which may be offset for increased abrasion resistance at least at their the Pressbiech 2 facing surface with particles having a Vickershäite between 1000 and 1800 or corundum particles (A (2Ü3) In the same way, wood-fiber materials such as chipboard, medium-density fiberboard (MDF) and high-density fiberboard (HDF) can be produced, in particular, these wood-based materials can be coated with layers of plastic of the type mentioned, or even paper, to produce a laminate Unfortunately, for example, the production of artificial stone or "engineered stone" (composite material of stone and resin) is possible, especially when using hard In the case of rocks such as granite, the long service life of the disclosed substrates 2 or pressing plates is advantageous.
    As a precaution, it should be pointed out that for a better understanding of the structure of the device 100... 103 for plasma coating of a N2011 / 34400 08/08/2012 11:47
    No .: R730 P.024 / 038 20 25 11:44:43 08-08-2012 25/38 20 25 11:44:43 08-08-2012 25/38 »» * ♦ * ♦ · + «1 * · ··· · * *
    Substrate 2 these or their components were partially displayed off-scale and / or enlarged and / or reduced.
    The problem underlying the inventive solutions can be seen from the description. N2011 / 34400 08/08/2012 11:47
    No .: R730 P.025 / 038 25 11:47:49 08-08-2012 31/38 25 11:47:49 08-08-2012 31/38 • «* * • * * ** ·· ·· if * •: * ·: ··. • * ·; ,
    ·· · M
    Reference designation 1.00,, 1.03 ._____ Apparatus for plasma coating 2 Substrate (press plate) 3 Vacuum chamber 400..409 Electrode 500..512 Electrode segment 6 Electrode connection 700.702 Energy source 8 Gas connection 9 Bar 10 Recess 1101.1102 Control 1201.1202 Switches 1301.1302 Group of electrode segments 14 Voltage measuring device 15 (resistive) Resistor N2011 / 34400 08/08/2012 11:51
    No .: R730 P.031 / 038
    权利要求:
    Claims (24)
    [1]
    25 11:45:05 08-08-2012 26/38 Claims 1. A device (100..103) for plasma coating a substrate (2) comprising a vacuum chamber (3) and an electrode (400..409) disposed therein, which is aligned in operation substantially parallel to the said substrate (2) and to its side to be coated, characterized in that the electrode (400..409) is segmented and each of the electrode segments (500..512) has its own connection ( 6) for an electrical energy source (700..702).
    [2]
    2. Device (100..103) according to claim 1, characterized in that the individual electrode segments (501,504,505) are isolated from each other.
    [3]
    3. Device (100..103} according to claim 1, characterized in that the individual electrode segments (502,503) are connected to each other via narrow webs (9) or defined ohmic resistances.
    [4]
    4. Device (100..103) according to one of claims 1 to 3, characterized in that the individual electrode segments (510) via narrow webs or defined ohmic resistors with at least one energy source (700) are connected.
    [5]
    5. Device (100..103) according to one of claims 1 to 4, characterized by a plurality of independently controllable / controllable energy sources (701,702), which are connected via said terminals (6) with the electrode segments (500..512). N2011 / 34400 08/08/2012 11:48 no .: R730 P.026 / 038 25 11:45:39 08-08-2012 27/38 ♦ · • * * • · · «« ·. ··· * «· • · ♦:. : ··.: ·. • * · · · · · · · · · · I I 2 2 2
    [6]
    6. Device (100..103) according to claim 5, characterized in that each one electrode segment (510) is connected to one energy source (701.706); soft-independent of the other sources of energy (701 ..- 706) tax-bar / is controllable
    [7]
    7. Device (100..103) according to claim 5, characterized by a controller (1101), which is adapted to a power source (701,702) alternately on each one electrode segment (508) of a group (1301,1302) of electrode segments (508 ) and the terminals (6) of the remaining electrode segments (508) of this group (1301, 1302) into an open state isolated from the first-mentioned electrode segment (508).
    [8]
    8. Device (100..103) according to one of the preceding claims, characterized in that the surface of an electrode segment (500..512) is less than or equal to 1 m2.
    [9]
    9. Device (100..103) according to one of the preceding claims, characterized in that the energy sources (700..706) are designed as current sources.
    [10]
    10. Device (100..103) according to claim 9, characterized in that the maximum current per electrode segment (500..512) is less than or equal to 150 A.
    [11]
    11. Device (100..103) according to any one of the preceding claims, characterized in that the electrode segments (503) are formed lattice-shaped.
    [12]
    12. Device (100..103) according to one of the preceding claims, characterized in that the electrode (405) is bent in its edge region in the direction of the substrate to be coated (2). N2011 / 34400 08/08/2012 11:49 no .: R730 P.027 / 038 25 11:46:13 08-08-2012 28/38 ···:. ··, · ♦ ·· ·::; : ····.
    [13]
    13. A method for producing a substrate (2), characterized by the steps: a) ---------- arranging a substrate to be coated (2) in a vacuum chamber (3) with respect to one in the vacuum chamber (3 b) activation of at least one energy source (700.706) associated with an electrode segment (000..512) of the electrode (400..40Θ); and c) initiating said segmented electrode (400..409) arranged substantially parallel to it; a gas which causes a plasma enhanced chemical vapor deposition on the substrate blank (2).
    [14]
    14. The method according to claim 13, characterized in that each one energy source (701.706) per electrode segment (500..512) is activated and controlled independently of the other energy sources (701.706).
    [15]
    15. The method according to claim 13, characterized in that an energy source (701, 702) is alternately formed on one electrode segment (508) of a group (1301, 1302) of electrode segments (508) and the connections (6) of the remaining electrode segments (508) of this group (508). 1301.1302) are switched into an open state isolated from the first-mentioned electrode segment (508).
    [16]
    16. The method according to claim 15, characterized in that the selection of the electrode segments (508), which is associated with the activated energy source (701,702), happens at random
    [17]
    17. Method according to claim 15, characterized in that electrode segments (509) arranged in the manner of the white fields of a chess board and electrode segments (509) arranged in the manner of the black fields of a chess board are alternately supplied with electrical energy. N2011 / 34400 08/08/2012 11:49 No .: R730 P.028 / 038 25 11:46:50 08-08-2012 29/38 * • · 9 · ·· ** • ·· • ee · ♦ • «* * • •« «* * * e • 1 • * • e« • »• • • • • • m * · * * * e» * · 4
    [18]
    18. The method according to any one of claims 13 to 17, characterized in that the voltage between an electrode segment (511) and the substrate to be coated (2) is measured-and-the power supply-abge-regulated or turned off when a collapse the said voltage is detected. 1Θ. Method according to one of Claims 13 to 18, characterized in that electrode segments (512) located at the edge of the electrode (409) are set at a higher potential than internal electrode segments (512).
    [19]
    20. The method according to any one of claims 13 to 1Θ, characterized in that at the edge of the electrode (409) located electrode segments (512) are set / regulated to a higher current than internal electrode segments (512).
    [20]
    21. Use of a device (100..103) according to any one of claims 1 to 12 and / or a method according to any one of claims 13 to 20 for the plasma coating of a press plate (2).
    [21]
    22. A process for producing single or multilayer plate-shaped materials, in particular of plastics, wood materials and laminates with and without Overiaypapieren, characterized in that for this purpose using a method according to any one of claims 13 to 20 produced substrate or press plate (2) is used ,
    [22]
    23. The method according to claim 22, characterized in that the surface of the hergesteiiten plates is greater than or equal to 1 m2.
    [23]
    24. The method according to claim 22 or 23, characterized in that the plate-shaped material particles with a Vickers hardness between 1000 and N201U34400 08/08/2012 11:50 No .: R730 P.029 / 038 25 11:47:26 08-08 -2012 30/38 25 11:47:26 08-08-2012 30/38 ♦ · ** t »* · • ··· ·· tt ϊ * * * •« * «ί * * * * * · · ♦ * 4 »♦ · * ·! * * ι • 4 ··· ♦ 1800, especially in the area of the press plate (2) facing surface.
    [24]
    25. The method according to claim 22 or 23, characterized in that the plate-shaped material corundum or alumina Afe03 includes, in particular in the region of the press plate (2) facing surface. Bemdorf Hueck Band and Preßbiechtechnik GmbH by

    Lawyers Burger & Parkier Rechtsanwalt GmbH N2O1U3440Q 08/08/2012 11:50 no .: R730 P.030 / 038
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    公开号 | 公开日
    CL2015000301A1|2015-09-21|
    KR20150042817A|2015-04-21|
    DK2882885T3|2016-09-05|
    EP2882885B8|2016-08-31|
    EP2882885B1|2016-05-25|
    JP2015531820A|2015-11-05|
    AU2013302202B2|2015-12-03|
    EP2882885A2|2015-06-17|
    RU2615743C2|2017-04-11|
    NZ704253A|2016-08-26|
    BR112015002657A2|2017-07-04|
    RU2015107784A|2016-09-27|
    PL2882885T3|2016-11-30|
    CN104755653A|2015-07-01|
    US9530624B2|2016-12-27|
    CN104755653B|2017-09-19|
    MY176134A|2020-07-24|
    CA2881069A1|2014-02-13|
    CA2881069C|2017-11-07|
    AU2013302202A1|2015-02-26|
    BR112015002657A8|2019-07-30|
    AT513190B1|2014-03-15|
    IN2015DN01149A|2015-06-26|
    KR101742744B1|2017-06-01|
    JP6140286B2|2017-05-31|
    AT513190B9|2014-05-15|
    US20150255254A1|2015-09-10|
    WO2014022872A3|2014-05-15|
    ES2587929T3|2016-10-27|
    WO2014022872A2|2014-02-13|
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    法律状态:
    2019-07-15| PC| Change of the owner|Owner name: BERNDORF INNOVATIONS UND TECHNOLOGIE GMBH, AT Effective date: 20190523 |
    优先权:
    申请号 | 申请日 | 专利标题
    ATA877/2012A|AT513190B9|2012-08-08|2012-08-08|Apparatus and method for plasma coating a substrate, in particular a press plate|ATA877/2012A| AT513190B9|2012-08-08|2012-08-08|Apparatus and method for plasma coating a substrate, in particular a press plate|
    MYPI2015700347A| MY176134A|2012-08-08|2013-08-06|Apparatus and method for the plasma coating of a substrate, in particular a press platen|
    DK13791714.2T| DK2882885T3|2012-08-08|2013-08-06|Method for Plating a Press Plate|
    JP2015525690A| JP6140286B2|2012-08-08|2013-08-06|Apparatus and method for plasma coating a substrate, particularly a press plate|
    NZ704253A| NZ704253A|2012-08-08|2013-08-06|Apparatus and method for the plasma coating of a substrate, in particular a press platen|
    ES13791714.2T| ES2587929T3|2012-08-08|2013-08-06|Procedure for plasma coating of a pressing plate|
    PCT/AT2013/050152| WO2014022872A2|2012-08-08|2013-08-06|Apparatus and method for the plasma coating of a substrate, in particular a press platen|
    CN201380042267.0A| CN104755653B|2012-08-08|2013-08-06|Application and correlation method for the device to pressing plate progress plasma coating|
    IN1149DEN2015| IN2015DN01149A|2012-08-08|2013-08-06|
    EP13791714.2A| EP2882885B8|2012-08-08|2013-08-06|Method for the plasma coating of a press platen|
    KR1020157006106A| KR101742744B1|2012-08-08|2013-08-06|Apparatus and method for the plasma coating of a substrate, in particular a press platen|
    BR112015002657A| BR112015002657A8|2012-08-08|2013-08-06|apparatus and method for plasma coating a substrate, in particular a press plate|
    AU2013302202A| AU2013302202B2|2012-08-08|2013-08-06|Apparatus and method for the plasma coating of a substrate, in particular a press platen|
    PL13791714.2T| PL2882885T3|2012-08-08|2013-08-06|Method for the plasma coating of a press platen|
    US14/420,194| US9530624B2|2012-08-08|2013-08-06|Method for the plasma coating of a substrate, in particular a press platen|
    CA2881069A| CA2881069C|2012-08-08|2013-08-06|Apparatus and method for the plasma coating of a substrate, in particular a press platen|
    RU2015107784A| RU2615743C2|2012-08-08|2013-08-06|Device and method for plasma substrate coating, in particular, to press list|
    CL2015000301A| CL2015000301A1|2012-08-08|2015-02-06|Use of a device for plasma coating of a pressing plate, comprising a vacuum chamber and an electrode that during operation is oriented essentially parallel to the pressing plate and facing its side to be coated, and which is segmented and each of its segments has its own connection for an electric power source; procedures|
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