• 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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    • 专利摘要:

    公开号:AT510324A1
    申请号:T0140610
    申请日:2010-08-23
    公开日:2012-03-15
    发明作者:Hartmut Dipl Ing Schneider
    申请人:Hartmut Dipl Ing Schneider；
    IPC主号:
    专利说明:

    Au g. 2010 09! 54 00431503510520 DIPL ING EDITH VINAZZER # 2225 P.004 / 027
    Au g. 2010 09! 54 00431503510520 DIPL ING EDITH VINAZZER # 2225 P.004 / 027 PA 8231
    Schneider 5 mirror module 10 The invention relates to a mirror module of a Fresnel solar collector system with a plurality of parallel to each other on a support plate pivotally mounted mirror elements, which focus the sunlight on a raised above the mirror module mounted receiver unit. 15 Description - State of the art
    As a rule, Fresnel solar collector systems are used in thermal power plants for power generation. However, the invention can also be used in Fresnel solar collector Syatemen for the production of process heat, in desalination plants or for power generation with Sterling engines or photovoltaic systems. 20
    Fresnel solar collector SySterne have long been known from the prior art. Characteristics of these systems are a large number of elongated, mostly flat or slightly curved mirrors, which individually focus the sunlight onto a linear receiver. For this purpose, the mirrors are tracked about their longitudinal axis of the sun. In the rule, several mirrors are grouped together and moved via rods coupled with a common drive.
    For example, in US-A-3861379 a Fresnel solar collector system is described which has a plurality of coupled and controlled by a drive, flat mirror 30. 0O < > 4 23/08 2010 MQ 10:05 [SE / EM HR 9558]
    Aug. 2010 09:54 00431503510520 DIPL ING EDITH VINAZZER # 2225 P.OOS / 027
    In US-A-5542409 a Fresnel solar collector system is also cited, which aligns a series of axially successively arranged mirrors the sun's position via a gear and a coupling rod. 5 EP-A-1754942 describes a supporting frame for a Fresnel solar collector system with pivotable, coupled primary and secondary mirrors arranged directly above the receiver. In EP-A-2088384 a solar power plant with adjustment device is described, whose io mirror elements have a length of up to 100 in and a width of 10 cm to 25 cm and are pivotally mounted on a support plate
    In all four documents, the pivotable mirror elements are each mounted at both ends. 15
    Problem Description
    A major problem of previously known, large-scale economic Fresnel Solar Koliektor systems represents the setting of each mirror during installation on site. The mirrors are mechanically coupled to each other, then 20 with a common group drive the sun can be tracked. In the coupling of the individual mirror elements, a high setting accuracy is required in order to achieve a good optical efficiency later. Since this assembly is due to the size of conventional mirror elements of Fresnel solar collector systems on the site, the setting of the coupling is not always exactly to accomplish or represents a large amount of time and personnel. Imprudently adjusted mirror reduce the efficiency of Plant essential.
    Another problem is the reduction in optical efficiency caused by the width of the mirrors. This problem necessitates a secondary mirror, which, while concentrating on the receiver passing sunbeams through a second reflection on the receiver, but the efficiency of the system by just this second 23/08 2010 MO 10:05 [SE / EM NR 8558] @ 005
    Aug.2C1C 09:34 00431503510520 DIPL ING EDITH VINAZZER # 2225 P.006 / 02
    Reflection reduced. The reason for this is that the mirrors are wider than the receiver tube. Reducing the mirror width would increase the yield of solar radiation directly impinging upon the receiver by simple reflection at the primary mirror, but would require a higher number of mirrors. In general, narrower mirrors also cause a parallel reduction in the cross-section of the mirror
    Supporting body and thus a reduction in the rigidity of the same. This reduction in stiffness necessitates a shortening of the mirror-mounted mirror elements while maintaining maximum deflection, which in turn increases the cost of the system. Another possibility is a relative to a smaller mirror width reinforced 10 embodiment of the support body, which, however, also to an increase in cost of
    Systems leads. For both variants, installation of the mirror elements with a smaller width and a larger number on site increases installation costs and thus significantly reduces the cost-effectiveness of the system. 15 Fresnel solar collector systems have less wind susceptibility compared to other concentrated solar collector systems, such as linear parabolic mirror collector systems. Nevertheless, the robustness and strength of the execution of the storage of the mirror as well as those of KoppelLsysteme and the associated actuators is given even in Fresnel solar collector systems essentially 20 by the possible wind forces on the mirror elements. A further reduction of the windage area would lead to a further reduction of the coupling systems and the associated actuators, whereby the total cost of the mirror module could be reduced. 25 Fresnel solar collector systems are used to generate steam and, in addition to power plants for power generation, can also be used in industry as alternative systems for process steam generation. It is advantageous to use existing roofs of storage or production sites as a site. Conventional systems typically consist of glass mirrors that are mounted on 30 steel girders and carried by steel girders. Such systems have a high total weight. In order to minimize the gains of existing building allowances, it is expedient to use a Fresnel solar system
    DIPL ING EDITH VINAZZER # 2225 P.007 / 02
    Develop collector system with low total weight. In addition, lighter systems simplify handling throughout the product lifecycle, especially transport and on-site assembly. 5 solution / invention
    Based on the prior art, the present invention seeks to develop a prefabricated, high-precision mirror module with low windage surface of the moving parts and high optical efficiency by direct focusing on the receiver tube and with low weight and easy installation. 10
    The object is achieved according to the invention in that the mirror elements are pivotally mounted on the support plate at least along longitudinal sections.
    Advantageous Ausfübrungsformen and developments are the subject of the 15 dependent claims. In particular, the mirror elements are pivotally mounted on the support plate at least substantially over its entire length. 20 By the storage according to the invention, it is possible to produce the mirror elements with low weight and with reduced material use. The support function is taken over in the invention by the stationary, rigid support plate, the function of mirroring the sunlight on the receiver unit by the pivotable mirror elements. This separation of the functions according to the invention allows a narrow but extremely long and extremely light design of the pivotable and sun tracking mirror elements. The pivotable mounting of each mirror element further takes place according to the invention by at least one film hinge, which runs in a preferred embodiment over a large part of the length of the mirror element and thus always provides the appropriate support and alignment. 23/08 2010 MO 10:05 [ΞΕ / ΕΜ NR 9558] @ 007
    DIPL ING EDITH VINAZ2ER # 2225 P.008 / 027
    The carrier plate itself is preferably produced in a lightweight construction and, in addition to the mirror elements, also carries the connection unit and the drive for the tracking. The adjustment of the individual mirror elements, the attachment of the connection unit and the installation of the drive can be done so already in the factory hall by machine and under s optimal conditions and it can be controlled according to their quality. A fully functional and high-precision mirror module is delivered, which must be aligned on site only as a complete module opposite the receiver unit. 10 The width of the mirror elements can now be chosen so that it corresponds at most to the diameter of the receiver unit, in particular smaller than the diameter of the receiver unit, and thus the entire reflected sunlight hits directly without secondary mirror on the receiver unit. This increases the optical efficiency of the overall system. The small width also causes a very low windage surface of the moving parts, whereby they realized with little use of material and the drive can be made small. In addition to the cost savings in manufacturing and. During transport, this also brings with it easier assembly.
    In general, a preferred application of the Fresnel solar collector system is the use on flat roof surfaces due to the extremely light and material-saving design.
    Through the support plate and the connection with the roof can be variably selected in those places where support profiles and stiffeners are located under the roof. 25 According to the invention can be located on the outside of the mirror modules edge strips that fulfill several functions. On the one hand, the edge strips provide an additional wind cover of the outer mirror elements, on the other hand they allow by their height stacking of the mirror modules one above the other without touching the mirror elements themselves. Preferably, the edge strips are also carried out with handles and eyelets for easy handling during assembly and with fairways for receiving a cleaning slide. Additionally provided integrated pins and corresponding recesses prevent 23/08 2010 MO 10:05 [SE / EM NR 9558] @ 008
    Aug. 2010 09:55 UÜ431503510S20 DIPL ING EDITH VINAZ2ER # 2225 P, 009/027 C * * * «« »* t * ·« · «· · slipping of mirror modules when these are piled up on top of each other during storage or transport.
    Description 5 The invention will be explained in more detail below with reference to the exemplary, schematic sketches. 1 shows a Fresnel solar collector system, FIGS. 2a and 2b show variants of the alignment of the mirror modules, FIG. 3 shows a nested Fresnel solar collector system, FIG. 4 shows mirror elements, FIG. 5 shows variants of cross sections of the mirror elements, FIG coupled mirror elements, FIG 7 stacked mirror modules with edge strips and 8 shows manufacturing steps of mirror elements with triangular 15-section.
    The Fresnel solar collector system in FIG. 1 consists essentially of mirror modules 1 according to the invention, which focus the incident sunlight onto the receiver unit 2, which is mounted at a height of several meters above the mirror module 1 20. The receiver unit 2 can be fixed in the prior art via rods 3 and wire ropes 4 so that even in wind and sun, the situation is generally stationary. The mirror module 1 according to the invention consists of mirror elements 5 which are mounted on a support plate 6 substantially over the entire length, but at least partially, pivotally. The support plate 6 is mounted over 25 anchored in the ground supports 7 precisely to the receiver unit 2 aligned. The storage of the carrier plates 6 can be carried out in an alternative embodiment according to the prior art on a supporting structure instead of individual supports 7. The support plate 6 is made in lightweight construction, either as a composite panel with foamed core, as a honeycomb template or in any other construction with 30 low weight and high rigidity, but the materials used should have a similar thermal expansion as the material of the mirror elements 5. 23/08 2010 MO 10:05 [SE / EM NR 9558] @ 009 3.Aug.2 010 C9: 55 0 0 4 315 03510520 DIPL ING EDITH VINAZZER # 2225 P.010 / 027
    The size of the mirror modules is generally based on the dimensions of standard transport means, but may in principle also have other dimensions adapted to the respective application. As a rule, such standard transport means as containers or trucks result in oblong, rectangular mirror modules l 5 of, for example, about 3 m x about 12 m. However, it may be appropriate for certain applications to choose any other sizes. The arrangement of the individual mirror modules 1 along the receiver unit 2 can then take place both in parallel, as shown in FIG. 2a, or else, as sketched in FIG. 2b, normal to the longitudinal side of the carrier plate 6. However, the position of the mirror elements 5 is always designed so that these 10 are parallel to the receiver unit 2. Depending on the desired concentration and the height of the receiver unit 2, several mirror modules 1 can be arranged parallel to one another in both embodiments.
    As in the case of known Fresnel solar collector systems, the receiver units 2, 15, as shown in FIG. 3, can also be arranged such that they run parallel to one another at a defined distance and part of the mirror elements arranged between the two receiver units 2 5 of the one and a part of the other receiver unit 2 is assigned. By this alternately the left and right receiver unit 2 associated mirror elements 5 increases the efficiency due to the lower 20 shading of the individual mirrors with each other, This known, optimized arrangement can also be realized with the objective, inventive mirror module i. FIG. 4 shows the mounting according to the invention of the mirror elements 5 on the door plate 6 25 by means of film screening 8. These film layers 8 run either over sections of the lengths of the mirror elements 5 or over all or most of the lengths of the mirror elements 5, so that they are due to the storage the support plate 6 can not bend or only together with the support plate 6. The resulting dimensional stability ensures a high optical efficiency of the mirror module 1. The 30 mirror elements 5 thus have a support element 11 consisting of a base element 9 and a mirror support part 12, which are connected to one another in an articulated manner by a film hinge 8. On the upper side of the mirror support member 12 is a mirror surface 10, 23/08 2010 MO 10.05 [SE / EM NR 9558] @ 010
    DIPL ING EDITH VINA2ZER # 2225 F.011 / 027 in particular from a highly reflective optical coating, a mirror foil or a thin glass mirror. The support element 11 of the mirror elements 5 consists in a Aüsfuhrungsform the invention of a Khnststoflprofil, so that the mirror support member 12 forms with the film hinge 8 and the foot member 9 a single component. The 5 support member 11 can over the entire Lenge of the mirror elements 5 by means of a
    Filmschamiers 8 and a foot member 9 may be arranged on the support plate 6, but it may also be partially provided with film hinge 8 with sections provided foot elements 9 or with an over the support element length extending single foot member 9. The film hinge 8 can in the lower part of the mirror element. 5 , be provided at or near the Trägexplatte 6, in the middle or upper region of the mirror element 5, but must allow at least that tilt angle, which always directs the solar radiation over a whole day on the receiver unit 2. The tilt angle depends on the geometry of the Fresnel solar collector system as well as on the orientation of the receiver unit 2 according to the cardinal directions, should 15 but usually allow a Wext of about 90 °. An embodiment with a
    Tilt angle Above 90 °, it may be useful if the mirror surface 10 is to be pivoted beyond a vertical position to protect against the effects of weather. The width of the mirror elements 5 is between a few millimeters up to about 100 mm, corresponding to the diameter of the receiver unit 2, in particular corresponds to the width 20 of the mirror 10 or mirror elements 5 at most the diameter of the receiver unit 2. The length of the mirror elements 5 depends according to the arrangement and dimension of the mirror modules 1, so that the mirror elements 5 extend over the entire length of the mirror modules 1, resulting in lengths of for example 3 m to 12 m. The different cross-sectional shapes of mirror-supporting parts 12 and 12a to 12e of the mirror elements 5 are shown in FIG. 5 depending on the position of the fumishing stripper 8 and the size of the mirror element 5 and should have the highest possible torsional resistance. This ensures that during a tilting movement, the mirror surface 10 remains dimensionally stable over the entire length. The mirror support member 12a has a T-shaped profile, the cross-sectional shape of the mirror support member 12b is triangular, and the cross-sectional shape of the mirror support member 12c is L-shaped. The mirror support member 12d is also T-shaped with a film hinge 8 located near the mirror surface 8. 23/08 2010 MO 10:05 [SE / ENN 9556] 001t .Aug.201 Ο 09:55 004 31503510520 DIPL ING EDITH VINAZZER # 2225 P.012 / 02
    The mirror support member 12c together with the foot member 9 forms an X in cross section. The compound hiss the foot member 9 and support plate 6 can be done by a tongue and groove system, by gluing, riveting or screwing or any other type of connection according to the prior art. s
    The tracking of the linear mirror elements 5 is preferably carried out as in the prior art via a coupling of the same with each other with a connection unit 13 shown in simplified form in Figure 6. The Vefbindungseinheit 13 connects all or a group of mirror elements 5 of a mirror module 1 with a, due to the 10 low Wind forces on the narrow mirror elements 5 small executable drive 14. The positioning of the connection unit 13 and the drive 14 can be done at the edge or in the middle of the respective mirror module 1. By recesses or lateral passage of the drive 14 can be mounted in the middle of the support plate 6 or on the underside of the support plate 6. The choice of the location of the 15 connection point between the mirror element 5 and the Verbindungseinbeit 13 is the largest possible distance and thus large lever to the axis of the film hinge 8 aufweisem to ensure the angular accuracy and thus the good optical efficiency of the solar mirror system. The drive 14 can be advantageously realized as an electric linear drive with a self-locking spindle, but 20 can also have any other form of drive, such as pneumatic or hydraulic, and both directly or via a gearbox. By fixing the mirror elements 5, the connecting unit 13 and the drive 14 on the support plate 6 is a completely functional ready and transportable mirror module 1 is created, the production of which can be done in particular supported robot in a factory floor. The quality inspection of the optical accuracy of
    Mirror module 1 can also be made directly during and after production, so that the orientation during the installation on site is limited to the precise position of the mirror module 1. The mirror elements 5 themselves and the connection unit 13 with the drive 14 do not have to be readjusted, which simplifies and accelerates the erection of the entire solar field. 23/08 2010 MO 10:05 [SE / EM HR 9558] @ 012 3-Aug.ZOlO 09:56 00431503510520 DIPL ING EDITH VINAZZER # 2225 P.013 / 027
    The fixation of the mirror modules 1 on the supports 7 is erfmdungsgemäß realized by fixed to the support plate 6 fixing elements IS, which on the one hand a simple and quick installation can be done and on the other hand, a high setting accuracy is achieved. 5
    Although the wind forces on the moving parts through the narrow mirror elements S are already very low, covering the Windangrißsflächen the outer linear mirror elements 5 can also be done, for example by edge strips 16, as outlined in FIG. Furthermore, these marginal strips 16 can also perform a protective function for the 10 mirror elements 5 in the stacking of several mirror modules 1 during storage or transport. This is erfmdungsgemäß achieved in that the edge strips 16 on the mirror module 1 so much further up and down than the extent of a possible deflection of the Spiegeldemente 5 or the support plate 6 at static weight load but also under dynamic load 15 during transport is. If a plurality of mirror modules 1 are stacked on top of each other, only the edge strips 16 now come to rest on one another and all other parts of the mirror module 1 do not touch one another. In the marginal ridges 16 mounted pins 17 or studs and these adapted recesses 18 on the other edge of the edge strips 16 make accurate positioning of the individual mirror modules 1 20 above each other possible and additionally prevent slipping and thus a
    Damaging the same. In addition, eyelets 19 may be located in the skirting 16 for receiving lifting slings or hoes for lifting the mirror modules 1 with different hoists. Assistive positioning by hand during stacking and assembly can be greatly facilitated by grips 20 integral with the skirt 16.
    The cleaning of the mirror elements 5 can be done by a movable over the mirror module 1 cleaning slide. For this purpose, according to the invention at two or more points, a corresponding distance between mirror elements 5 30 are provided and here in the support plate 6, a fairway 21 may be provided for receiving and guiding the cleaning slide. The fairways can also be formed on the edge of the support plate 6. In an alternative embodiment, such a 23/08 2010 MO 10:05 [SE / EM NR 9558] @ 013 .Aug.2010 09:56 00431503510520 DIPL ING EDITH VINAZZER # 2225 P.014 / 027 * ι * ι · 1 * · »* · · • 1 * 1 · ·» '. «« · ·
    Fairway 21 are also realized as an integral part of the laterally mounted edge strips 16. In both cases, the fairway can also be designed as a rail or profile guide. In order to protect the mirror elements 5 not only against wind but also against further weather influences 2u, a non-illustrated, translucent 5 cover made of glass or plastic can be mounted on each mirror module 1. F1G 8 shows schematically an inventive manufacturing method of the mirror elements 5 with triangular mirror support members 12b of a plate 22 made of plastic, fiber composite material or in particular from a solidified by hardening agent 10 cardboard. In this case, the plate 22 is provided at certain intervals with a plurality of parallel creases 23, with some of the creases 23 later acting as Fümschamier 8. The material must therefore be dimensionally stable on the one hand and on the other hand be flexible and weather-resistant at the kinks 23. After bending, the individual sections are brought in the direction desired in each case and at the same time the plate 22 is pushed together from the side. The resulting zahnformige cross-section is transferred by further pushing into the desired cross-section. As a result, interconnected support members 11 are formed with mirror support members 12b, foot members 9 and film hinges 8. This structure can be assembled by attaching, preferably by gluing, with a finished or a 20 still open at the top composite panel in lightweight construction to the desired support plate 6 with mirror elements 5. Depending on the application, the mirror surface 10 designed as a reflective coating, foil or glass mirror can be applied before or after this production step. 23/08 2010 M0 10:05 [SE / EM NO. 955Θ] ®014 3.Aug.2010 09:56 00431503510520 DIPL ING EDITH VINAZZER # 2225 P.015 / 02
    it
    5 Reference number list 1 ............... Mirror module 2 ............... Receiver unit 10 3 .......... ..... rod 4 ............... wire rope 5 .. ............. mirror element 6 ......... ...... TrägeipJatte 7 ............... Prop 15 8 ............... Fümscharnier 9 ....... ........ Foot element 10 ............. Mirror surface 11 .......... ". Support element 12 ........... ..Mirror support part 20 12 ae ....... mirror support part 13 ............. connection unit 14 ............. drive 15 .. ... ........ fixing element 16 ............. sidebar 25 17 ............. pin 18 ......... .... recess 19 ........... eyelet 20 ............. grip 21 ............. fairway 30 22 ............. Plate 23 ............. Kick 23/08 2010 MO 10 05 [SE / EM NR 3558] @ 015
    权利要求:
    Claims (19)
    [1]
    3.Aug.2010 09:56 0 0431503510520 DIPL ING EDITH VINAZZER # 2225 P.016; 027:: 19: 5 Claims 1. Mirror module (1) of a Fresnel solar collector system with a plurality of parallel to each other on a support plate (6) pivotally mounted mirror elements (5) which focus the sunlight onto a receiver unit (2) mounted above the mirror module (1), characterized in that the mirror elements (5) on the carrier plate (6) at least along LSngsabschnitten are pivotally mounted.
    [2]
    2. mirror module (1) according to claim 1, characterized in that the 20 Spiegelelcmente (5) on the support plate (6) are at least substantially pivotally mounted over its entire length.
    [3]
    3. mirror module (1) according to claim 1 or 2, characterized in that the pivotable mounting of the mirror elements (5) is designed as a film hinge (8). 25
    [4]
    4. mirror module (1) according to one of claims l to 3, characterized in that the mirror elements (5) comprises a support member (11) from a mirror support member (12, 12a to 12e) and one with the support plate (6) connectable foot element (9 ), wherein the mirror support member (12, 12a to 12e) is connected to the foot member (9) 30 via the at least one co-integrated film hinge (8). 23/08 2010 MO 10:05 [SE / EM NO 9558] ®01G Aug-2010 03:56 00431503510520 DIPL ING EDITH VINAZZER # 2225 P.017 / 02


    [5]
    5, mirror module (1) according to one of claims 1 to 4, characterized in that the support element (11) is a preferably made of plastic profile, wherein the mirror support member (12,12a to 12e) in particular a T-shaped, L-shaped or has triangular cross section, 5
    [6]
    6, mirror module (1) according to one of claims l to 5, characterized in that on the side facing the sun of the support element (11), a mirror surface (10), in particular as a reflective coating, as a glued mirror foil or as a glass mirror applied 10
    [7]
    7, mirror module (1) according to one of claims 1 to 6, characterized in that the mirror surfaces (10) have a width which corresponds at most to the diameter of the receiver unit (2).
    [8]
    8. mirror module (1) according to one of claims 1 to 7, characterized in that the carrier plate (6) in lightweight construction, in particular as a composite material plate or honeycomb plate, is executed.
    [9]
    9, mirror module (1) according to one of claims 1 to 8, characterized in that the pivotable mirror elements (5) in groups or all via at least one connection unit (13) are mechanically coupled to each other and about this with the aid of a drive (14) Sun are nachfahrbar.
    [10]
    10. Mirror module (1) according to one of claims 1 to 9, characterized in that the mirror elements (5) are aligned parallel or normal to the longitudinal side of the carrier plate (6) and together with the connection unit (13) and the drive (14). form a prefabricated, with standard transport means transportable unit.
    [11]
    11. mirror module (1) according to one of claims 1 to 10, characterized in that on the support plate (6) between mirror elements (5) or edge, 23/08 2010 MO 10:05 [SE / EM HR 9558] @ 017 Aug .2010 09:56 00431503510S2Q DIPL ING EDITH VINAZ2ER # 2225 P.018 / 0 as at least on two parts, one gap each being designed as a driving groove (21) for a cleaning slide
    [12]
    12. mirror module (1) according to one of claims 1 to 11, characterized in that 5 over the mirror elements (5) an additional translucent cover made of glass or plastic for the protection of the mirror elements (5) from Wittemngseinfiüssen is attachable.
    [13]
    13. mirror module (1) according to one of claims l to 12, characterized in that io that the support plate (6) fixing elements (15) for rapid attachment and subsequent Feiryustage on supports (7) showL
    [14]
    14. mirror module (1) according to one of claims l to 13, characterized in that the Trägcrplatte (6) on at least two of its sides each one, the 15 mirror elements (5) superior edge strip (16).
    [15]
    15. mirror module (1) according to claim 14, characterized in that the upper or lower edges of the edge strips (16) pins (17) or nubs and corresponding recesses (18), such that a plurality of mirror modules (1) 20 mutually immovable are stackable.
    [16]
    16, mirror module (1) according to claim 14 or 15, characterized in that on the edge strips (16) eyelets (19) and handles (20) are arranged so that hoists mounted for transport and mounting and supportive positioning of 25 hand is possible ,
    [17]
    17 mirror module (1) according to one of claims 14 to 16, characterized in that the edge strips (16) have fairways (21) for receiving a Reinigungsscblitten. 30
    [18]
    18. A method for producing a mirror module (1) according to claim 1 with mirror support members (12b) with triangular cross section according to claim 5, 23/08 2010 MO 10:05 [SE / EM NR 9558] 0018 Aug.2010 03:56 00431503510520 DIPL ING EDITH VINAZZER # 2225 P.019 / 027

    characterized in that a plate (22) at certain intervals with a plurality of parallel creases (23) is provided such that connected by folding and pushing together in cross-section triangular mirror support members (12b) together with 5 integrated film hinge (8) and foot elements (9) are formed, wherein the thus formed mirror elements (5) varschau with mirror surfaces (10) and are mounted on a support plate (6).
    [19]
    19. The method according to claim 18, characterized in that the plate (22) made of plastic, fiber composite material or solidified by hardening cardboard is 23/08 2010 MO 10:05 [SE / EM NR 8558] @ 019
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    MX2013002092A|2013-05-09|
    引用文献:
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    法律状态:
    2014-05-15| PC| Change of the owner|Owner name: FRESNEX GMBH, AT Effective date: 20140402 |
    2020-12-15| PC| Change of the owner|Owner name: ECOTHERM AUSTRIA GMBH, AT Effective date: 20201027 |
    优先权:
    申请号 | 申请日 | 专利标题
    ATA1406/2010A|AT510324B1|2010-08-23|2010-08-23|SPIEGEL MODULE|ATA1406/2010A| AT510324B1|2010-08-23|2010-08-23|SPIEGEL MODULE|
    PT117497818T| PT2609377E|2010-08-23|2011-08-04|Mirror module|
    EP11749781.8A| EP2609377B1|2010-08-23|2011-08-04|Mirror module|
    US13/703,747| US9036236B2|2010-08-23|2011-08-04|Mirror module|
    SI201130288T| SI2609377T1|2010-08-23|2011-08-04|Mirror module|
    CN201180033771.5A| CN102985764B|2010-08-23|2011-08-04|Magnifier module|
    JP2013525222A| JP6012110B2|2010-08-23|2011-08-04|Mirror module|
    KR1020137002466A| KR101871519B1|2010-08-23|2011-08-04|Mirror module|
    MX2013002092A| MX2013002092A|2010-08-23|2011-08-04|Mirror module.|
    ES11749781.8T| ES2516941T3|2010-08-23|2011-08-04|Mirror module|
    AU2011295296A| AU2011295296B2|2010-08-23|2011-08-04|Mirror module|
    PCT/EP2011/063424| WO2012025356A1|2010-08-23|2011-08-04|Mirror module|
    MA35431A| MA34298B1|2010-08-23|2012-12-05|MIRROR MODULE|
    CL2012003743A| CL2012003743A1|2010-08-23|2012-12-28|Mirror module of a fresnel solar collector system with a plurality of mirror elements parallel to each other, rotatably supported on a support plate, which focus sunlight towards a receiving unit supported in a higher position above the module mirror, where the mirror elements are rotatably supported on the support plate; manufacturing procedure|
    ZA2013/00068A| ZA201300068B|2010-08-23|2013-01-03|Mirror module|
    HRP20140972AT| HRP20140972T1|2010-08-23|2014-10-13|Mirror module|
    CY141100858T| CY1120676T1|2010-08-23|2014-10-21|MIRROR ELEMENT|
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