EP2110599B1 - Metallic mesh, disposition of such metallic mesh and method of illumination - Google Patents

Abstract

The wire netting (1) has lamps (15), and can be arranged on a building structure. A lamp support holder (8) integrated into the netting enables a lamp support (12) to be removed and reinserted without damage to the holder. The lamp support holder may be fastened to the netting, with the lamp support attached to the holder by clips.

Description

The invention relates to a curtain, in particular building and / or building facade hangings or hangings for a natural surface, an arrangement of such a curtain and a method for illuminating. In particular, the invention relates to a building and / or Bauwerkfassadenbehang or a curtain for a natural surface, with lights on a light carrier, the arrangement of such a curtain on a building facade and a method for illuminating a facade or for generating a viewable from a great distance light effect.

Illuminations are used regularly in numerous large and small scales. Probably the most impressive lights are those of entire building facades, which are increasingly being installed by lighting designers on behalf of cities or communities using targeted spots. Other very eye-catching lights are large screen-like displays that can display images or movies in a size of 10 meters or more. The latter are often used at trade shows or as advertising material.

The document DE 33 32 536 is considered to be the closest prior art and discloses all features of the preamble of claim 1.

The invention is based on the object to provide an improved and thereby to impressive sizes variable system available, which is easy to design, dimension and build and can also be revised easily and safely.

This object is achieved according to a first aspect of the invention, a curtain with lights to light carriers according to the features of claim 1.

Thus, this aspect of the invention initially provides a curtain as a supporting structural element of the entire lighting system.

It is understood that a conventional, for example, fabric can be used for this task; A metal fabric has the particular advantage that it is very stable and can be readily exposed to the weather, without losing stability. This makes it possible to arrange the curtain according to the invention on the outside of a building, for example as a curtain in front of an entire building façade or a part thereof.

It should be emphasized that the invention can be implemented for example with a curtain of a structure as a woven, braided, knitted or scrim, and for example with metal or plastic as a material.

In a metal fabric, a special advantage is seen, because a metal fabric is very stable to produce, but remains optically filigree and gives a building's architecture a special elegance.

The curtain should carry lights on a light carrier. In other words, at least one light carrier should therefore be provided in the curtain, which carries several lights.

However, in the case of large-scale hangings with luminaires, which are also used for representative purposes, for example, on striking buildings of a large city, it is necessary, especially in view of the often exposed position, to replace defective luminaires as soon as possible and cost-effectively with new, intact luminaires. This problem occurs with any kind of lights. Even with the use of LEDs, regular failures after a certain period of operation of the lighting installation can not be avoided. If, for example, a light installation on a building has to be revised in this way, this is anyway a big one Expenditure associated because often access can only be achieved via ladders from the outside or under considerable safety precautions from the interior of the building. Thus, it is of great importance that the actual replacement of the lights can be done as easily as possible.

For this purpose, the presented aspect of the invention provides a light carrier mount, which is integrated in the curtain. These light carrier recordings take on the actual light carrier in such a way that removal and insertion of the light carrier from the light carrier recordings or into the light carrier recordings without disintegration of the light carrier recordings is made possible. The lights themselves can then be separated from the tissue with the light carrier, while the light carrier recordings as real part of the hangings in this stay. On the light carrier then defective electrical or electronic components can be replaced. Subsequently, the re-usable light carrier can be easily used again in the light carrier recordings and optionally still connected in the intended manner, and the original functionality of the curtain is restored.

The fact that the light carrier recordings can remain as such in the curtain, the structural stability of the blind is guaranteed, even if the light carrier is removed. The curtain as such is thus structurally complete even with the presence of the light carrier support, and the light carrier can only be used afterwards in the light carrier recordings, so be added to the curtain.

If a metal mesh is used, it is advantageous to use stainless steel as the metal. Stainless steel is characterized not only by a particularly corrosion-resistant material quality, but also produces a reflection for many lighting effects at the shots and chains of the fabric, which pleasingly supports the overall visual appearance of the lights.

Particularly diverse lighting effects can be generated when a curtain not only has a light carrier, but several lighting fixtures. Of these, preferably everyone wears several lights. In this way, the lights can be easily distributed evenly over the curtain even with a simple geometry of the individual light carrier.

Several light carriers are preferably arranged regularly above the curtain. Often hangings should be provided, which should give a viewer from a certain distance a special lighting effect. This lighting effect can also be that the viewer should be able to perceive an image or a movie. For this purpose, it is advisable to create a uniform grid of perceptible lights. This can be made possible in the simplest way, that the perceptible lights are provided on a light carrier at a certain distance and that the plurality of light carriers perpendicular to this are also arranged regularly, preferably with the same grid.

The lights are preferably individually controlled by means of control electronics. In this way, the lights can be switched on or off individually or, if desired, their brightness can also be regulated. This not only makes it possible to produce various static images or area lighting effects, but also to achieve a dynamic lighting effect, so that, for example, a film can be generated by means of the lights on the curtain. It is only a question of the viewer's distance and the screen density, in which optical quality of this film - as well as a static image - is recorded by the viewer. Although changing or even dynamic effects can be achieved if only the individual light carriers can be individually controlled or if groups of lights individually can be controlled. It goes without saying, however, that the greatest possible degree of flexibility is produced when the individual luminaires can be activated.

Even with individually controllable lights is proposed that in each case several lights are grouped on a light carrier to light groups. This makes it possible, especially with colored lights, to produce the highest possible quality image for a distant viewer.

To create a colored film for the viewer or to create a colored image with sharp contours for the viewer, different colored lights are needed. In view of the recently advanced semiconductor technology, for example, light-emitting diodes in various colors can be used for this purpose. For example, red, green and blue lights on the fabric can be used, allowing viewers to achieve a nearly unlimited number of different color effects through selective mixing, with sufficient spacing. This effect is known from a conventional tube television.

Unlike the CRT television, however, it should be noted that the individual pixels, which are represented by the lights of the lighting groups in the present curtain, have a different light intensity, especially when using light-emitting diodes. In experiments of the inventor it has been found that it is a very cost-effective and qualitatively satisfactory solution to pull together two red, two green and one blue LED to form a light group. Then there are several light groups on a light carrier, wherein preferably each light group consists of two red, two green and one blue LED - or a multiple thereof. The individual lighting groups are then preferably distributed regularly spaced on the light carrier. The light carriers in turn are then preferably arranged at the same distance from each other over the curtain as the distance between two lighting groups. This creates a very even grid with a wide variety of color options.

A particularly cost-effective solution of bus technology and conventional wiring can be achieved by providing control electronics for the luminaires of this luminous carrier on a respective luminaire carrier. For example, if the light carrier are each rod-shaped and these rods are horizontal when suspended or otherwise attached curtain, the light carrier represent the lines of the overall picture, so to speak. A control electronics on the light carrier can thus be referred to as row control. This control electronics then regulates the lighting state of the lights of this light carrier, so in the overall picture, for example, this line.

The line control as such can - especially in the presence of a large number of individual light holders - are preferably controlled via a bus system, so that only a cable guide is necessary, which leads to all the control electronics of the individual light carrier along and these drives. The control of the lights from the control electronics can then optionally have a simple wiring to light carrier or turn a bus system. In practice, this will mainly depend on how long a light carrier is, how many lights it carries and how much space is available on or in the light carrier for wiring.

In any case, it is advantageous if a light carrier is supplied with power at one of its end faces and is driven, especially if this end face is located at the edge of the curtain.

It has already been mentioned that a light carrier can be designed in particular rod-shaped.

It is of particular advantage if a rod-shaped light carrier in a regular tissue - in the case of a fabric as a curtain - replaced a weft wire. In this way, a still uniform tissue is achieved, in which the light carrier lies exactly in the tissue plane, which creates a particularly harmonious surface of the tissue. The light carrier then extends easily to exactly the edge of the fabric, so there visually inconspicuous and at the same time easily accessible power supply and control can be done.

In particular, when the power supply is at the edge of the curtain, but not limited to this case, it is advantageous if a power distributor leads along several light carriers along and has a plug connection with each light carrier. It is understood that especially when using a bus technology, a very inconspicuous power supply and control can be done by such a central power distribution. Simple connection via a plug connection does not restrict the possibility of revising a single light carrier. Rather, in the case of failure of a light carrier simply the plug connection can be solved and the light carrier can then be pulled out of the light carrier recordings. These steps are very fast to carry out.

The rod-shaped light carrier is preferably tubular. It should be especially thought of a straight pipe. Such not only offers a simple geometry, so it can easily - in the case of a fabric as a hanging - can be inserted between two weft rods in the tissue and, above all, can replace a weft rod of the tissue.

Rather, it allows the tube shape, weatherproof to arrange the lights inside the tube and to provide within the tube and the wiring of the individual lights with each other or with a line controller.

When the luminaires are arranged in a tubular light carrier, it is understood that at least a part of the tube should be translucent. This allows, despite the protected position within the tube, the overall hanging perpendicular to its structural plane - or in any other direction, if desired - to emit light.

Particularly suitable in experiments by the inventor, an acrylic glass tube has been found out as a light carrier. Such a can be manufactured inexpensively, is relatively lightweight and allows the light emitted by the lights to pass almost unhindered in the intended light emission direction.

When using a large translucent light carrier is proposed to provide an opaque partial cover. Such can serve to allow the emission direction of the light from the light carrier only in one or more specific directions. In the case of an acrylic glass tube, it has proved advantageous in experiments by the inventor to use a longitudinally slotted, thin-walled metal tube for this purpose. This can for example be made of aluminum as a very lightweight extruded profile, which surrounds the acrylic glass tube - preferably in a clamped fit - and in exactly one direction perpendicular to the tube axis allows the light exit from the acrylic glass tube.

With such a construction, the acrylic glass tube can be easily inserted with the lights in the aluminum profile, with no great importance to be placed on the fact that the wiring, circuit boards and the like are arranged visually inconspicuous within the acrylic glass tube. Rather, the aluminum profile covers all these necessary electronic elements and looks from the side facing away from the light exit side of the fabric stye after design practically like a conventional rod of the curtain, so for example as a weft rod of a fabric.

Even if the light carrier is larger in diameter than the other weft rods, it still fits harmoniously into the overall visual impression of the fabric.

In addition, an acrylic glass tube obtained by such a metal cover greater stability, so that for large spans between two light carrier recordings of a light carrier attaching the light carrier in the curtain, for example, the threading in the carrier shots, better and with greater safety is possible.

It is proposed by design that a light carrier receptacle has a sleeve woven into the fabric. Thus, a sleeve can be easily integrated into a tissue; For example, it can simply be woven into a chain instead of a weft rod.

A sleeve as light carrier support can for example consist of a short piece of pipe and is thus very inexpensive to manufacture. Also, any complicated mechanics is unnecessary, which is especially in outdoor use under weather conditions of advantage for easy removal and insertion of the light carrier.

In a sleeve then a rod-shaped, in particular tubular, light carrier can be easily inserted from the side.

For a good stability of the entire tissue - in the case of a tissue as a light carrier recording - and a secure recording of the light carrier in the tissue is proposed that sleeve-shaped light carrier recordings are integrated into each chain of a shot. In this way, a weft rod is effectively replaced by a plurality of linearly lined sleeves for the overall structure of the metal fabric. As a result, the chains retain their stability just as if they were replaced by the sleeves Woven slightly larger or identical sized weft rod. Thus, the overall strength of the fabric is not affected.

A sleeve provided as a light carrier holder preferably surrounds the light carrier with a slight play fit. In this way, the light carrier can be particularly easily pulled laterally out of the sleeves and thus out of the curtain and later re-threaded. For threading, it is advantageous if the sleeves have a Einfädelhilfe, for example, a widening of the inner space to the edge. Thus, the laterally einziebenende light carrier even with its leading end easily sag down and can still be inserted and threaded without necessary intervention in the actual tissue surface alone from the side of the curtain. When he has reached his final position, he should then be fixed at the edge of the blind against further displacement. This can be done, for example, directly via the plug connection with the central power supply and control.

So that the light carrier holders do not rotate in their position when the light carrier is removed, it is proposed that the chains - in the case of a fabric as hangings - be combined into groups with an odd number. For example, a sleeve held in a simple warp could potentially twist around the chain once the light carrier is removed. In the case of a tensioned fabric with two chains arranged one on the other, which hold the sleeve, this is even necessarily the case, just as in the case of several grouped chains, this can also occur if the number of grouped chains is straight. With an odd number of chains, however, a symmetrical force is exerted on the sleeve, so that there is no twisting of the sleeve with uniform tension of the fabric. This also makes it possible to simply insert the light carrier from the side of the tissue, without having to make any corrective manual intervention in the tissue surface as such.

The described effect can be achieved particularly easily if in each case three chains are grouped together.

According to the presented aspect of the invention solves the task so particular metal curtain for a building, with lights on a light carrier and arranged on the curtain plurality of light carrier recordings, which allow a recording of the Leuchtenttägers and preferably also its removal.

A curtain produced in this way is technically not as demanding as the alternative with integrated in-tissue images, but also allows a large-scale lighting, especially for a building.

If the receptacles hold the light carriers in a press fit, a sufficiently secure attachment for most applications is achievable.

If the lighting is to be effected by means of separate, fixed light-carrier mountings, it is proposed that the light-carrier mountings make it possible for the illuminant carriers to latch into place. The latching is a cost-effective mounting option and can be used both for attaching the light carrier recordings even on the fabric or other hangings, as well as for attaching the light carrier to the light carrier recordings.

For such a fastening are particularly suitable clips, especially plastic or spring steel.

Depending on the specific requirements, it may be advantageous that the removal is non-destructive or only about a destruction of the clips is possible.

It is understood that the above advantageous design variants of a curtain with integrated recordings can be used advantageously even with a curtain with attached recordings.

According to a second aspect of the invention, the object solves the arrangement of a curtain described above with lights on a light carrier on a building facade. It has already been explained above how such a curtain can also be used over a large area for representative and advertising purposes. For example, large office buildings or engineering structures such as bridges, gates, dams, old city walls and an endless number of other buildings can be extensively equipped with such a metal fabric or such a curtain. Of course, natural surfaces such as rock walls can be hung with such a curtain.

The whole system is mechanically very strong and can be maintained very cheaply, because a revision of the individual lights without great problems and without risks to the operating personnel is possible. In this case, a curtain of the proposed type can be aligned both in such a way that it emits light away from the viewer side, for example to a building facade, where then the lighting effect arises, for example the image or the film. On the other hand, the light emission direction can also be directed towards the viewer. This produces an image with less dispersion, which may be advantageously suitable, for example, for viewing from long distances.

In any case, it is proposed that the weft of the fabric - or in general the light carrier is a different Behang - horizontally aligned especially in large-scale applications.

Especially the shot is particularly suitable for receiving rod-shaped light carrier, so to speak, at certain intervals in each case a weft rod through a light carrier is replaced. It is understood that such a rod-shaped light carrier can be pulled out of the curtain particularly easily horizontally, because this is done while maintaining a working height. If, in contrast, a light carrier would have to be removed, for example, upwards out of the curtain, forcibly would result in a greater working height and thus an avoidable source of danger for the operating personnel.

Incidentally, it is understood that the production of a metal mesh with lights is facilitated just for large-scale applications. It is readily possible to weave the fabric as such in a conventional manner during the production of the metal fabric and thereby to integrate the mechanically very robust light carrier recordings in the tissue. This is particularly clear on the example of sleeves, which can be easily woven into the chains of a metal fabric.

Specifically, a method for producing a metal fabric is proposed for this purpose, wherein in the manufacture of the fabric, a structurally stable fabric of warp yarns and partly weft yarns and partly light carrier recordings is generated, in the light carrier recordings and thus in the tissue later light carrier can be accommodated, in particular inserted

The light carriers as such with the associated lights are usually manufactured by other companies and can be purchased at low cost. It is also possible for many manufacturers to offer light carriers, while it is only possible for very few manufacturers to produce such large metal mesh with sleeves that, for example, a whole building facade can be illuminated.

Technically not so demanding and usually more expensive to maintain, but possibly cheaper for the purchase is a method for producing a metal fabric or curtain, wherein during the manufacture of the fabric or curtain a stable structure is produced and attached to this structure light beam recordings, about which light carrier are receivable, in particular in this are inserted or locked with these.

The invention will be explained in more detail with reference to an embodiment with reference to the drawing. Functionally identical or identical components in different figures of the drawing can carry the same reference numerals.

Figur 1

schematisch eine Draufsicht auf eine Ausführungsform der Erfindung, beispielsweise in Form eines Metallgewebes,

Figur 2

schematisch eine seitliche Ansicht gemäß Kennzeichnung II-II in Figur 1,

Figur 3

schematisch eine seitliche Ansicht gemäß Kennzeichnung III-III in Figur 1,

Figur 4

schematisch eine seitliche Ansicht gemäß Kennzeichnung IV-IV in Figur 1,

Figur 5

schematisch eine seitliche Ansicht gemäß Kennzeichnung V-V in Figur 1,

Figur 6

schematisch eine seitliche Ansicht gemäß Kennzeichnung VI-VI in Figur 1 und

Figur 7

einen größeren Aussicht eines erfindungsgemäßen Gewebes mit einem gleichmäßigen Leuchtraster.

Show it

FIG. 1

1 is a schematic plan view of an embodiment of the invention, for example in the form of a metal mesh,

FIG. 2

schematically a side view according to marking II-II in FIG. 1 .

FIG. 3

schematically a side view according to marking III-III in FIG. 1 .

FIG. 4

schematically a side view according to marking IV-IV in FIG. 1 .

FIG. 5

schematically a side view according to marking VV in FIG. 1 .

FIG. 6

schematically a side view according to marking VI-VI in FIG. 1 and

FIG. 7

a larger view of a fabric according to the invention with a uniform luminous grid.

The fabric 1 in the figures consists structurally predominantly of conventional weft rods (exemplified by 2) and warp wires (marked by 3, 4, 5 by way of example). In each case three warp threads 3, 4, 5 are grouped into a chain 6. Overall, this results in a very robust and weather-resistant, but at the same time aesthetically high-quality fabric structure.

At regular intervals (exemplified with 7), the fabric 1 but not the conventional weft rods 2 made of stainless steel, but has instead where otherwise the now "missing" weft rod 2 would be woven on each chain 6 a metal sleeve (by way of example with 8 marked) woven. The metal sleeves 8 are in the lateral sections of the FIGS. 2 to 6 not marked.

Each sleeve 8 has the basic shape of a pipe section, wherein on the outer jacket, a circumferential groove (indicated by the example 9) is provided, in which the warp threads 3, 4, 5 insert. By the grouping of three warp threads 3, 4, 5 to a chain 6 and the conventional weaving of the sleeves 8 in the fabric 1, each sleeve 8 is on one side of the middle warp 4 and on the other side of the two outer-βeren warp threads 3, 5 surrounded. When the fabric 1 is interwoven with a bias, the sleeves 8 are firmly inserted into the fabric 1. Due to the symmetrical loading of the two warp threads 3, 5 on one side of the sleeve and in particular centered by the groove 9 force from the middle warp thread 4 on the other side of the sleeve, this is also aligned immediately. Each sleeve 8 is thus held in the fabric 1, that the axis of rotation, which runs through the empty interior of the sleeve 8, located exactly where in a conventional tissue of the now "missing" shooting rod 2 would be.

The sleeves 8 are arranged as regularly as possible over the fabric 1, the chains 6 therefore have approximately the same distance as the distance 7 of two "replaced" weft rods.

In the case of a suspension of the fabric 1 as in the figures, rows (exemplarily denoted by 10) and columns (by way of example with reference to FIG characterized in a relatively uniformly arranged grid existing sleeves 8 in the fabric. 1

Through the sleeves 8 of each line 10, a long tube 12 is pushed. Each tube 12 consists essentially of an acrylic glass tube with a continuous casting of aluminum, which surrounds the acrylic glass tube to about three quarters of its circumference. The acrylic glass tube is clamped in the aluminum extruded section, and all tubes 12 are oriented so that the resulting free slots along which the acrylic tubes are not obscured by the aluminum are all oriented parallel to a direction of emission 13 from the tissue 1.

Within each tube 12 are printed circuit boards (identified by way of example with 14) arranged, on each of which five light-emitting diodes (identified by way of example by 15) grouped with two red, two green and one blue LED are connected. The LEDs 15 are grouped on the board 14 so spaced apart that the respective distance between two lighting groups along a line 10 as closely as possible corresponds to the distance between two chains 6 and thus the distance between two columns 11. In this way results in a homogeneously distributed grid of lighting groups.

At one edge 16 of the fabric 1, a compact housing 17 is connected to each lamp-carrying tube 12, in each of which a control electronics for driving the various lights 15 of the tube 12 of a line 10 is present. The control electronics in the housing 17 is in turn fed by a central power and control cable 18.

Overall, the fabric 1 is thus able to individually control the individual light-emitting diodes 15 in each row 10 and column 11, that is to turn them on, turn them off or regulate them in brightness in intermediate stages. Thus, when a viewer views a tissue 1 from a sufficiently large distance, he perceives a grid of luminous dots, with the five LEDs at a sufficient distance a luminaire group are perceived as a luminous spot due to their very close distance from the relatively wide distance between the luminous groups of different rows or columns in relation to this.

With a large distance of the viewer to the tissue 1, therefore, any static or dynamic image can be imparted to it. Depending on the fineness of the grid of lines 10 and columns 11 and distance of the observer even quite sharp contours can be generated. Consider, for example, a fabric 1, which covers the facade of a building in a dimension of, for example, 100 m in height and 30 m in width, with a viewer located several hundred meters away and looking at the building.

Depending on the width of the rows 10 and columns 11 and also the thickness of the warp and weft elements 6, 2, depending on the desired optical impression, the fabric 1 can either be optically very light, so that the observer can also see the underlying facade of the Building is released almost undisturbed; or the tissue is optically dense, so that the viewer practically only perceives the tissue and the light spots 15.

In order to produce the actual image, the individual light-emitting diodes 15 of a tube 12 are regulated highly dynamically via an electronic line controller in the housing 17. A tube 12 serves as a light carrier of the lights 15 of a row 10. The sleeves 8, however, serve in the tissue 1 as a receptacle for the light carrier 12. They are firmly integrated into the tissue, namely by weaving in the chains. 6

The tubes 12 are preferably with a slight play in the sleeves 8, so that a tube 12 can be easily pulled out to the side of the fabric 1 and easily pushed into the tissue 1 again, for example, a failed LED or a to repair or replace failed line controllers.

The fabric 1 preferably hangs exactly in the orientation as shown in the figures, each with a tube 12 in a horizontal orientation. Thus, even with a rough fit of the tubes 12 in the sleeves 8 there is no danger that the tubes 12 move laterally or even slip out of the fabric 1. Nevertheless, as a precaution, in practice, light fuses should be attached to a pipe. This can be done, for example, at the edge of the fabric 16, for example already in that a plurality of tubes 12 and their row controller 17 are connected to a central common power and control connection 18.

It is understood that a tissue of the type described above can be used not only in such a way that it is aligned directly in the emission direction 13 to a designated observer location. Rather, it can also emit light in the opposite direction, ie towards the façade of the building. Due to the radiation angle, especially with light-emitting diodes, a relatively gap-free illuminated image can thus be produced at a suitable distance from the facade, whereby quite sharp contours result even if the viewer maintains a sufficient distance from the image. Of course, it is also possible to use the invention to produce soft or even blurred light effects. Such effects can already be produced with a less dense grid of the fabric and are therefore less expensive to manufacture and to maintain.

Claims (13)

1. Curtain, in particular building facade or structural facade curtain or curtain for a natural surface made of metal or plastic, with lamps (15) on a lamp carrier (12), the curtain has multiple lamp carriers (12), wherein lamp carriers (12) are arranged regularly with respect to one another and a lamp carrier (12) carries a plurality of lamps (15), so that the lamps (15) are distributed two-dimensionally over the curtain, and wherein a plurality of lamp carrier receptacles are respectively integrated into the curtain for the plurality of lamp carriers (12), characterized in that removal of the lamp carriers (12) in the form of a lateral pulling out and an insertion in the form of sliding in and threading in of lamp carriers (12) without disintegration of the lamp carrier receptacles is possible, so that the lamps (15) carried on a lamp carrier (12) can be separated from the curtain with their lamp carrier (12), while the lamp carrier receptacles remain in the curtain as a structural part of the curtain, wherein lamp carriers (12) are respectively configured in the form of a rod, in particular in the form of a tube.
2. Curtain according to claim 1, characterized in that the curtain is configured as a fabric, netting, knitted fabric or clutch.
3. Curtain according to one of the preceding claims, characterized in that the lamps (15) are individually controllable by means of control electronics (17).
4. Curtain according to one of the preceding claims, characterized in that the lamps (15) are grouped in groups of lamps on a respective lamp carrier (12), wherein a group of lamps preferably has two red, two green and one blue lamp, or a multiple thereof, wherein light-emitting diodes are used as lamps (15).
5. Curtain according to one of the preceding claims, characterized in that a line controller (17) is arranged on a lamp carrier (12).
6. Curtain according to claim 2, characterized in that a lamp carrier (12), in the case of a fabric as a curtain, structurally replaces a weft rod (2) in a fabric (1).
7. Curtain according to one of the preceding claims, characterized in that a lamp carrier (12) is supplied with current at one of its end faces (16), preferably at an edge of the curtain, wherein a current distributor (18) preferably leads along a plurality of lamp carriers (12) and is preferably connected to the this via a plug connection.
8. Curtain according to one of the preceding claims, characterized in that a lamp carrier (12) is configured in the form of a tube, wherein a lamp carrier (12) is configured preferably at least partially translucent, in particular with an acrylic glass tube and a partial covering.
9. Curtain according to one of the preceding claims, characterized in that the lamp carrier receptacles are formed by structurally rigidly integrated sleeves (8).
10. Curtain according to claim 9, characterized by, in the case of a fabric as a curtain, interwoven sleeves (8) as lamp carrier receptacles, wherein these are preferably woven into each warp (6) of a weft (2).
11. Arrangement of a curtain according to one of the preceding claims on a building facade.
12. Method for illuminating a building facade or for producing a light effect which can be viewed from a great distance with a curtain according to one of claims 1 to 10 and with an arrangement according to claim 11, wherein the method is used to impart a particular luminous effect to a viewer, in particular a dynamic luminous effect, so that static images or a film are generated by means of the lamps on the curtain.
13. Arrangement according to claim 11 or method according to claim 12, characterized in that a weft (2) is horizontally aligned in the case of a fabric as a covering.

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