• 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:
    Article (1) which consists of a transparent or translucent material, in particular of glass, at least in one region (2), wherein the article (1) has a dynamic moiré pattern in the transparent or translucent region (2) Moire pattern by superposition of at least two, preferably of exactly two, lasered and at least partially visually separated raster structures (3) comes about, wherein the grid structures (3) - in different layers (4) in the interior and / or on the surface of the transparent or translucent area (2) - or in at least one layer (4) in the interior and in a coating (5) of at least one surface of the transparent or translucent area (2) - or in at least one first layer (4) in the interior of the transparent or translucent region (2) and at least one second virtual layer (6), which is formed by mirroring the first layer (4) on a mirror surface e (7).
    公开号:AT511056A4
    申请号:T301/2011
    申请日:2011-03-07
    公开日:2012-09-15
    发明作者:
    申请人:Swarovski D Kg；
    IPC主号:
    专利说明:

    1
    The invention relates to an article which consists, at least in one region, of a transparent or translucent material, in particular of glass. Furthermore, a method for producing the article according to the invention is to be specified.
    The objects to which the invention is concerned have a laser marking in the transparent or translucent region. Preferably, it is decorative objects, which is particularly important in the jewelry sector, as decorative objects in living rooms or, for example, as name tags an economic importance.
    Transparent or translucent materials are understood in the following to mean materials that are permeable to electromagnetic waves whose wavelengths are in the visible range. However, this property does not exclude the fact that the materials are removed by laser engraving techniques such as laser engraving. The lasers can be processed, the wavelengths of the lasers used here being in the range of UV (abbreviation of "ultraviolet") to IR (abbreviation of "infrared") and thus can go beyond the range of visible light.
    Transparent or translucent materials which are relevant in the context of the invention preferably include transparent brittle-hard materials, such as certain types of glass (e.g., crystal glass), gemstones, diamonds or diamond imitations, e.g. from (cubic) cubic zirconia.
    The mentioned method of laser internal marking, e.g. from glass, has long been known. In this context, reference is made to the patent US 5,206,496. In summary, this method uses a laser beam directed onto the glass surface, which penetrates the glass body to a predetermined depth at which the marking is to be made, is focusable there and, with sufficiently high intensity, a slightly milky material change that can be recognized by the human eye without changing the glass surface. In the extreme case, the marking can of course also be done on the glass surface itself.
    The disadvantage here is that the markings generated by means of this method have a rigid appearance. 69357 31 / eh
    The object of the present invention is to obviate this drawback and to provide articles with laser markings which have a dynamic and / or spatial appearance (with a slight change in the viewing angle and / or the angle of the incident light rays).
    This is achieved in the article according to the invention, which consists at least in one region of a transparent or translucent material, in particular of glass, in that the article has a dynamic moire pattern in the transparent or translucent region, the moire pattern being superimposed of at least two, preferably of exactly two, lasered and at least partially visually separated grid structures comes about, wherein the grid structures - in different layers in the interior and / or on the surface of the transparent or translucent area - or in at least one layer in the interior and in a coating of at least one surface of the transparent or translucent region - or in at least one first layer in the interior of the transparent or translucent region and at least one second virtual layer resulting from reflection of the first layer on a mirror surface , are located.
    Although the Moire effect, which is responsible for the occurrence of Moire patterns, is a well-known phenomenon, it should be redefined at this point: The Moirö effect is an optical interference effect, which is due to the superimposition of fine, eg grid-shaped, grid structures is achieved.
    A "dynamic" moiré pattern is understood to mean a moiré pattern that changes dynamically with a slight change in the viewing angle and / or the angle of the incident light beams. This is only possible if the two raster structures are at least partially separated from each other. If they were superimposed on top of each other, only a rigid moiré pattern would result which does not change with a slight change in the angle of view and / or the angle of the incident light rays. The term "visually" in the case of "separated from one another" takes into account the fact that the material changes that can be achieved with the aid of laser engraving methods can not be clearly defined. They typically consist of a visual, i. core area recognizable with the human eye (eg under a microscope) and additional »» MM · * * * I * t * · · ···· 4 * * * * • · I »·« · ··· * • · · Φ · 4 * * 4 »· * ·· 4 4« * * 3
    Artifacts that become visible only with the help of special imaging methods. Essentially, only the core regions play a role in the present invention.
    A basic idea of the invention is therefore to produce, with the aid of the method of laser marking, at least two raster structures whose superposition results in a dynamic moiré pattern. Three possibilities are provided according to the invention at which location the raster structures can be located: 1. in different layers in the interior and / or on the surface of the transparent or translucent area, 2. in at least one layer in the interior and in a coating of at least one surface 3) in at least one first layer in the interior of the transparent or translucent region and at least one second virtual layer, which results from reflection of the first layer on a mirror surface. The term "layer" is understood to mean a planar expansion of finite thickness, such a layer also being able to be curved. These are "imaginary" layers of a homogeneous body and not physically distinguishable layers.
    The coating mentioned in connection with the second option may be, for example, a typical metallic effect coating for crystal glasses, which preferably has a color effect. The mirror surface mentioned in connection with the third possibility can for example be vapor-deposited on a surface of the transparent or translucent region.
    In an advantageous embodiment, the outlines of the grid structures and thus the outline of the entire Moire pattern represent a motif, this motif can also be composed of several, spatially separated parts. Examples include animals, celestial bodies, letters, logos composed thereof, company symbols and logos.
    Further advantageous embodiments are characterized in that 1. the raster structures are identical or different, and / or that 2. one of the raster structures of at least two segments with a different screening, and / or 3. with a same, but mutually rotated screening , and / or 4. with a same, but mutually shifted screening exists. In the first three examples, a dynamically stepless appearance, in the fourth example, a dynamic-jumpy appearance can be created. In addition, there is another t < ·······································································································. «· ·« · 4
    The advantage of examples 2 and 3 is that (if the outline of the Moire pattern represents a motif) you can use this motif to give this motif an internal structure. This makes it possible to create a spatial impression, even though it is really just a two-dimensional motif.
    According to a further embodiment, the grid structures consist of lines. Preferably, they are arranged equidistant from each other. However, embodiments are also possible in which the spacing of the centers of two adjacent lines varies in a predetermined manner, e.g. follows a certain mathematical function.
    To be particularly advantageous, it has been found that the ratio of the track width of a line to the distance between the centers of two adjacent lines is between 1: 1.5 and 1:10. Preferably, the ratio is 1: 3.5 and / or the track width of a line is less than or equal to 15 microns.
    It is advantageous to produce the grid structures by means of a pulsed laser in the production of the article according to the invention. Here are suitable, for example Commercially available solid-state lasers with pulse durations in the range of a few nanoseconds and UV wavelengths or commercially available ultrashort pulse lasers with pulse durations in the range of a few picoseconds or femtoseconds and wavelengths in the UV to IR range, advantageously in a range of about 300 nm to 550 nm The result of using pulsed lasers is that the individual lines from which the raster structures can be made, for example, must be successively composed of individual points. This fact has no negative impact on the appearance of the Moire pattern.
    According to a further advantageous procedure in the production of the article according to the invention, the raster structures are generated successively, in each case in the focus of the laser beam. In the event that the Moire pattern is to be achieved by the superimposition of exactly two lasered raster structures, wherein the two raster structures are located in a layer in the interior and in the coating of a surface of the transparent or translucent region and are of identical design, it is suitable Alternatively, a different advantageous procedure: If one chooses a value for the distance between the layer in the interior and the coating, which is not too large compared to the Rayleigh length, it is possible to lase the grid structure inside and at the same time create a grid structure in the coating behind the focal plane. This is possible because typically lower intensities are required for modifying the coating. It should be noted that the raster structure produced in this way in the coating is slightly widened in comparison to the raster structure lying in the interior of the transparent or translucent region, since the laser beam at this point has already moved slightly apart from the focus and the light -Material interactions in the transparent or translucent area and in the coating of different nature. From a manufacturing point of view, this method has the advantage that the Moire pattern can be produced in just one step.
    Further details and advantages of the present invention will be explained in more detail below with reference to the exemplary embodiments with reference to the exemplary embodiments illustrated in the drawings. Showing:
    Fig. 1a is a perspective view of a first schematically illustrated preferred embodiment of the subject invention, Fig. 1b shows a cross section of the first schematically illustrated embodiment of the subject invention, preferred Fig. 2 is a cross section of a second schematically illustrated embodiment of the subject invention, preferred Fig. 3 a FIG. 4 a shows a plan view of a first schematically illustrated raster structure; FIG. 4 b shows a moire * pattern that results from superimposing the first raster structure. FIG. 5 shows the plan view of a second schematically illustrated one 6 shows the plan view of a third schematically illustrated grid structure, by way of example FIG. 7a shows the plan view of a fourth schematically FIG. 7b shows the plan view of a fifth grid structure shown schematically, by way of example
    Fig. 8a is a plan view of a sixth exemplary illustrated schematically
    Grid structure,
    Fig. 8b is a plan view of a seventh exemplary illustrated schematically
    Grid structure,
    FIG. 9a shows a moiré pattern, which is achieved by superimposing the sixth and the seventh exemplary raster structure, and FIG. 9b shows a moiré pattern which (compared to the moiré pattern shown in FIG. 9a) is replaced by a slightly different superposition of the sixth and seventh exemplary grid structure is achieved.
    1 a serves to illustrate a first preferred exemplary embodiment of the article 1 according to the invention, which consists of a transparent or translucent material, in particular of glass, at least in a region 2. In this case, the moire pattern is achieved by the superimposition of two lasered raster structures 3, wherein the raster structures 3 are located in different layers 4 in the interior of the transparent or translucent area 2. The outlines of the raster structures 3 (and thus the outline of the moiré pattern) in this case are an arrow as a motif. The raster structures 3 consist of lines. A part of the arrowhead of the upper grid structure 3 is shown enlarged. In this enlargement is schematically indicated that the lines are composed of individual points - as would be the case in the production of the article 1 according to the invention by means of a pulsed laser. Of course, it is possible to place the individual points so close to each other that they can no longer be distinguished from each other in hindsight. Therefore, as already mentioned above, this production method has no negative effects on the appearance of the Moire pattern. In the enlarged view of the arrowhead the track width of a line with B and the distance of the centers of two adjacent lines with A are indicated. It should be noted that the points shown in the enlargement represent the visual, i. indicate with the human eye (e.g., under a microscope) recognizable core areas of the material changes produced by the laser light.
    1 b shows a cross section of the first preferred exemplary embodiment of the article 1 according to the invention shown in FIG. 1 a. The cross-sectional plane shown is indicated in FIG. 1 a by dotted passage lines. FIG. 1b contains different dimension variables: the distances d and f of the layers 4 (and thus the grid pattern 3) to the top and bottom surfaces of the transparent or translucent
    Area 2, the distance e between the layers 4 and the thickness g of the layers 4. The thickness g is determined by the fact that the necessary for the visible material change laser intensity is available only in a limited area around the focus. If a smaller thickness g is desired, then you must increase the opening angle in the focus, so that the light intensity with the distance from the focus decreases faster, and / or reduce the laser power. The minimum distance which the layers 4 should have is given by the fact that the two raster structures 3 are visually separated from each other so that a dynamic moire pattern is achieved. However, this does not exclude that the raster structures 3 can not overlap in a small area or adjoin one another. In its entirety, such a case would then still be a dynamic moire pattern in the sense of this disclosure. At the top, the distance e is naturally limited by the loss of the moiré pattern from a certain size of the distance. Typerweise this limit is in the range of a few millimeters. Special cases of the embodiment shown here are embodiments in which d = 0 (the upper grid structure is at the surface) and / or f = 0 (the lower grid structure is at the lower surface).
    FIG. 2 serves to illustrate a second preferred exemplary embodiment of the article 1 according to the invention. In this case, the moire pattern is achieved by superposition of exactly two lasered screen structures 3, the two screen structures 3 being in a layer 4 in the interior and in the coating 5 a surface of the transparent or translucent area 2 are located. In addition, a laser beam 8 is indicated schematically, by means of which the two raster structures 3 can be generated simultaneously. The propagation direction of the laser beam 8 is marked by a dashed arrow. Drawing attention has also been given to the fact that the grid structure in the coating 5 is slightly widened in comparison with the grid structure lying in the interior of the transparent or translucent area 2. It should be pointed out that the two raster structures 3 can also be generated independently of one another in two temporally successive method steps. For example, one could first laser the grid structure inside the transparent or translucent area 2, then make the coating 5 and finally create the grid structure in it. Alternatively, one could also realize a large opening angle in the focus, so that the energy at the location of the coating 5 is no longer sufficient to modify it at the same time as the generation of the internal grid structure. Subsequently, one would shift the focus of the laser beam into the coating plane and there laser the grid structure. • t «····································» *
    3 serves to illustrate a third preferred exemplary embodiment of the article 1 according to the invention. In this case, the moire pattern results from the superposition of two raster structures 3, wherein the two raster structures 3 are in a first layer 4 in the interior of the transparent or translucent region 2 and a second virtual layer 6 resulting from mirroring the first layer 4 on a mirror surface 7. So only one grid structure has to be lasered. Their mirror image then gives the second (virtual) grid structure when looking at the object 1 from above.
    FIG. 4a shows the plan view of a first exemplary grid structure, the outline of which represents a swan. The grid structure consists in this case of several segments with the same, but rotated against each other screening: The screening consists everywhere of mutually equidistant lines, but there are several segments distinguishable from each other at the separation boundaries, the lines not "continuous" into each other, but a kink exhibit. As described above, the swan thereby has an internal structure. For example, One eye or different wing parts are recognizable. The grid structure is shown here only schematically. In fact, for example, it has an extension of about 7.5 millimeters, the track of one line is 10 microns and the distance between the centers of two adjacent lines 35 microns. FIG. 4b shows a moiré pattern which results from the superposition of two identical raster structures, namely the raster structures shown in FIG. 4a. It is clearly the optical interference effect, which manifests itself in a brightness modulation, recognizable. For illustration-technical reasons, it is only possible here to represent a rigid moiré pattern. However, if the two raster structures are at least partially visually separated from one another in reality, then the brightness modulation changes dynamically for a slight change in the viewing angle and / or the angle of the incident light beams - stepless and results in a dynamic Moire pattern.
    FIGS. 5, 6, 7a and 7b show the plan views of further exemplary grid structures whose outlines represent stars or the sun.
    The grid structure shown in Figure 6 consists of segments with a different screening: The screening in the sun's interior are concentric circles in the screening of the sun's rays around nested triangles, each one side of the triangles is slightly curved.
    As mentioned above, a moiré pattern can also be achieved by the superimposition of raster structures, which are designed differently. For example, the two grid structures shown in FIGS. 7a and 7b can be combined to form a moiré pattern.
    Two further exemplary raster structures are shown schematically and in plan view in FIGS. 8a and 8b. The raster structure shown in Fig. 8a consists of two segments (namely the swan in the middle and the outer frame) with a same, but slightly mutually shifted screening. If one now superimposes this grid structure with the grid structure shown in FIG. 8b, the two moire patterns shown schematically in FIGS. 9a and 9b come about as limiting cases. In the first limit, the lines of the frame come with the lines of the "background grid". in cover. At the same time the impression arises that the swan has a double screening (and thus is darker). In the second limit, the opposite is true. If the two raster structures are now visually separated from each other, at least in regions, the brightness modulation changes dynamically with a slight change in the angle of view and / or the angle of the incident light rays - leaps and bounds: the appearance of the swan "bounces" in comparison to the outer frame dark back and forth.
    Innsbruck, March 3, 2011
    权利要求:
    Claims (11)
    [1]
    «··································································································. 1. An article (1) which consists, at least in one region (2), of a transparent or translucent material, in particular of glass, characterized in that the article (1) in the transparent or translucent region (2) has a dynamic Moire pattern, wherein the Moire pattern by superposition of at least two, preferably of exactly two, lasered and at least partially visually separated from each other raster structures (3) comes about, wherein the grid structures (3) in different layers (4) in the interior and / or on the surface of the transparent or translucent area (2) or in at least one layer (4) in the interior and in a coating (5) of at least one surface of the transparent or translucent area (2) or in at least ei a first layer (4) in the interior of the transparent or translucent region (2) and at least one second virtual layer (6), which results from reflection of the first layer (4) on a mirror surface (7).
    [2]
    2. article (1) according to claim 1, characterized in that the outlines of the grid structures (3) or the outline of the Moire pattern represent a motif.
    [3]
    3. article (1) according to claim 1 or 2, characterized in that the grid structures (3) are identical or different.
    [4]
    4. article (1) according to one of claims 1 to 3, characterized in that one of the grid structures (3) of at least two segments with a different screening and / or at least two segments with a same, but rotated against each other screening and / or consists of at least two segments with a same, but mutually shifted screening. 69357 31 / eh
    [5]
    5. article (1) according to one of claims 1 to 4, characterized in that the grid structures (3) consist of lines.
    [6]
    6. article (1) according to claim 5, characterized in that the lines are arranged equidistant from each other or that the distance (A) of the centers of two adjacent lines varies in a predetermined manner.
    [7]
    7. article (1) according to claim 5 or 6, characterized in that the ratio of the track width (B) of a line to the distance (A) of the centers of two adjacent lines is between 1: 1.5 and 1:10 and preferably 1: 3.5.
    [8]
    8. article (1) according to claim 7, characterized in that the track width (B) of a line is less than or equal to 15 microns.
    [9]
    9. A method for producing an article (1) according to any one of claims 1 to 8, characterized in that the grid structures (3) are generated by means of a pulsed laser.
    [10]
    10. The method according to claim 9, characterized in that the raster structures (3) are generated successively in each case in the focus of the laser beam (8).
    [11]
    11. The method according to claim 9, wherein the Moire pattern is achieved by superposition of exactly two lasered raster structures (3), wherein the two raster structures (3) in a layer (4) in the interior and in the coating (5) of a surface of the transparent or translucent region (2) and are identically formed, characterized in that the two raster structures (3) are lasered simultaneously. Innsbruck, March 3, 2011
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    法律状态:
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    CN201280011950.3A| CN103415801B|2011-03-07|2012-03-06|The object of laser index carving with moire pattern|
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    US14/013,133| US10365499B2|2011-03-07|2013-08-29|Laser-marked article with moire pattern|
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