WO2018153543A1

WO2018153543A1 - Connection system for intersecting profiles having adjustable connection elements, solar plant, open area plant, roof, carport having the lift-up sliding technology system

Info

Publication number: WO2018153543A1
Application number: PCT/EP2018/000061
Authority: WO
Inventors: Erhan Dinçer; Muhsin DINÇER
Original assignee: Dincer Erhan; Dincer Muhsin
Priority date: 2017-02-24
Filing date: 2018-02-14
Publication date: 2018-08-30
Also published as: DE102018001170A1; DE102018001171A1

Abstract

The invention relates to a connection system (500) consisting of lift-up sliding connection elements (501) and intersecting module carriers (502), main carriers (503) and vertically standing supports (504), wherein the module carriers, main carriers and supports are C-shaped. The lift-up sliding connection elements (501) are, on the one hand, for fastening solar panels, wherein the lift-up sliding connection elements are preferably arranged on two sides of the solar panels, and, on the other hand, are connected to the module carriers (502). The supports (504) are connected vertically to the main carriers (503), wherein the main carriers (503) are connected to the intersecting module carriers (502).

Description

Connection system for intersecting profiles with adjustable connecting elements, solar system, open space system, roof, carport with the system of lifting and sliding technology

description

The invention relates to a connection system consisting of the intersecting C-profiles and the lifting-sliding connection elements, from the module supports, the module carriers attaching lifting-sliding fasteners, wherein the lifting-sliding fasteners on the one hand for attachment of the solar panels preferably arranged on two sides and on the other hand connected to the module carriers, the to the

Module carriers crossing main beams and the main beams perpendicular supports, the beams and the supports are C-shaped and further the vertical C-profiles, the supports at the upper ends with the intersecting C-profiles, the main beams and intersecting C-profiles, the module carriers are connected. Furthermore, the invention relates to a connection system, which is formed from the wave-shaped plates, the lift-slide fasteners, the wave-shaped plates consist of flat part and parallel trapezoidal shapes, the trapezoidal shapes each having an upper segment and the upper segment of lopsided and Side legs which connect the upper segments connected lifting-sliding fasteners together.

State of the art

DE 20 2007 0012 570 Ul shows a device for solar systems, which consists of intersecting and consists of the attachment of solar panels on several connected in a row carriers. In addition, DE 297 20 487 Ul describes a mounting bracket with two legs which are perpendicular to each other, which are reinforced by two spaced apart support walls.

DE 20 200 9006 970 Ul discloses a foundation system for inclined to the sun storage of flat juxtaposed solar panels, which are held in one or more rows of side rails side by side, which rest on a plurality of cross members, which in turn to each one shorter stand and a longer stand are stored so that they and the stored on them at least one row of panels are inclined to the sun. In addition, DE 20 200 9006 970 Ul describes a shorter and a longer stand, which together via guide obliquely with a strut and in the transverse direction with cross member, wherein the cross member in the longitudinal direction with the

Side members are connected. The panels are arranged side by side in two rows held by side rails.

The mounting plate from DE 20 2007 012 570 Ul or the mounting bracket from DE 20 200 9006 970 Ul may not be sufficient in the solar system for stability at the point of installation. The high load on the posts and the wind force, which have a negative effect on the support system in the long term on an open area, press against the module tables or pull on them.

DE 10 2013 0108 418 AI describes a fastener with a rail for the attachment of a module frame with the module carrier.

DE 20 2005 003 224 Ul describes a mounting system for solar panels, which can be mounted using support profiles on roofs or other portable structures. Under reference, a receiving channel serves a supplementary profile for receiving the electrical conduit means.

On the website of the company calyxo an MX profile insertion system is described (Access: 01.02.2018), which is suitable for fixing the frameless solar panels of glass-glass laminates. The insertion principle of the modules takes place in three steps. In the first step, the module frame is inserted on the upper profile rail, in the second step, the lower module frame is placed on the lower profile. In the third step, the module frame is finally placed on the lower profile for attachment.

task

The invention has for its object to provide a connection system consisting essentially of the explained at the entrance intersecting profiles,

in particular from the C-profiles, the supports, the main beams, the C-profiles ideally extruded and made of steel, the module carriers and the module carriers connected lifting-sliding fasteners are made, the lifting-sliding fasteners extruded profiles and ideally are made of aluminum, wherein the solar panels are received with the lifting-sliding fasteners in five steps in the connection system, adjusted and fixed. The connection system represents the entire carrier system for solar system that the

Connection system improved uses, such. lighter and more flexible

Handling and fixing, the equipotential bonding between the solar panels and the carrier, and also without special tools difficult disassembly and damping of vibration between the panels and fasteners, and further dampens the wobbling between lifting-sliding fasteners and panels and noise protection. Furthermore, to provide a connection system

essentially consisting of the wavy plates explained at the entrance, the wave-shaped plates being in sheet form and ideally made of steel, flat plates and trapezoidal shapes and lifting-sliding fasteners, the lifting-sliding fasteners being extruded profiles and ideally made of Aluminum, wherein the solar panels are received, adjusted and fixed with the lift-slide fasteners in five steps in the connection system.

The interconnect system ideally represents the entire solar system support system in the roofs, ground-mounted systems, carports, that the interconnect system provides enhanced utility, such easy and flexible handling and fixation, the

Potential equalization between the solar panels and the carrier, and also without special tools difficult disassembly and damping of vibration between the panels and fasteners. In addition, the invention has some advantages. In order to facilitate mounting, the attachment of the lifting-sliding Connecting elements in the longitudinal / transverse direction versatile to choose from.

Novelty - solution of the existing problem

This object is achieved by a connection system by means of intersecting profiles to be mounted together, by means of which to be mounted together

undulating plates, kits and lift-and-slide fasteners,

connect with the help of the versatile selection for mounting the solar panels with the carrier system, solved with the characterizing features of claim 1. Advantageous embodiments of the invention are subject matters of the subclaims.

The assembly of the fasteners in a connection system and the installation of a connection system should ideally be practical and above all cost and consist of robust, durable kits. These features will cause the cost of the construction is also reduced. The advantageous embodiment of the invention lies in the reduction of the components used in the connection system, as long as statics allows this and considerable reduction of the workload during assembly to help. It leads to permanent stability of solar systems.

According to the invention, in particular optional practical handling and implementation of the assembly of the connection system for assembling person is visibly arranged. Due to the design of the connection system, and the segments of the trapezoidal shapes with the attachment of the lift-slide fasteners, and the outward openings at both ends and in the longitudinal and transverse direction of the C-profiles, the assembly of the components is greatly facilitated and thereby the extension and the extension of the C-profiles in all directions freely determined, as long as the distances between the module tables during assembly by the assembly personnel are determined freely to measure. According to this method, the assemblers are able to carry out the assembly independently without additional measures and instructions. This basic handling allows free dimensioning of the C-profiles and / or the lift-slide fasteners on the undulating plates without additional static computational effort. To install or adjust the

Practicing connection system, the assemblers can easily handle the assembly and the positioning of the elements with the help of the arrangement and the instructions.

To attach a solar panel in the connection system, four lift-slide fasteners are necessary. The connection system requires 2k + 2 lifting / sliding fasteners per pickup per solar panel; where k is the number of

Represents connecting elements. For example, for a solar panel 2x1 + 2, for two

Solar panels 2x2 + 2, for three solar panels 2x3 + 2 lifting-sliding fasteners are needed.

Because each lift-slide fastener two mutually directed

Having receiving spaces, solar panels are inserted by lifting-sliding method in the mutually facing receiving spaces and ideally attached in pairs in at least two receiving spaces by means of the fasteners.

The solar panels are brought for inclusion in the receiving spaces in one direction, the solar panels sold in the first in the receiving spaces and in the second, the remote frame of the solar panels are inserted into the receiving spaces. After the first engagement of the remote frame of the solar panels, the solar panels are inclined in one direction.

In the third are after the first intervention of the opposite frame of

Solar panels deposited in the first opposite receiving spaces. This time, the solar panel moves from an open position to a closed position. In the fourth, the solar panels are inserted in the opposite receiving spaces up to the partitions. In the fifth, the solar panels are between in pairs in both

Adjusted receiving spaces and then by means of the fasteners with the lifting Sliding fasteners attached.

With this type of attachment, each solar panel is positioned in two positions and adjusted in two other positions and fixed so that the effect of a

unexpected strong wind flow on the solar panels during assembly time is overridden. This attachment provides vibration-free stabilization of the attached solar panel.

For this purpose, a connection system with the lifting-sliding connection elements for attaching the solar panels with the module carriers by means of versatile

Attachment available. The lift-slide fasteners are longitudinally mounted on the module supports at intervals plus tolerances of the solar panels so as to secure the solar panels by means of the fasteners through the grooves in the transverse direction either from the inside or from the outside. In

Embodiments only one attachment option are shown.

The each lifting-sliding connector is extruded and ideally made of aluminum, has dimensions in relative length and width and two

Functional areas substantially in receiving spaces, wherein the lift-slide fasteners are not continuous, are short cut and correspond to the width of the underlying module carrier, ideally have the width of the lift-slide fasteners between 20 - 200 mm, are in the transverse direction and /or in

Longitudinally arranged for receiving and fixing the solar panels in two parts, each consisting of a short and a long three open receiving space, and a

Partition, wherein the partition separates the two receiving spaces from each other, the partition is perpendicular to the two shelves and the cover and closes the two receiving spaces, each with a cover. The cover has a width, forms relatively and two-sided legs.

Preferably, both receiving spaces relative to each other and have one-sided opening, ideally has only one receiving space in the longitudinal direction one Recessed recessed in the shelf, both shelves can be recessed as needed, each with a receiving recess forms this

Recording recess ideally relatively semicircular, takes the

Receiving recess a fastener (screw or the like) rotatably, is used to attach the solar panels with the lift-slide fasteners.

Furthermore, each lifting-sliding connecting element has a broad and a narrow leg on the cover, wherein the broad leg is formed at the front end with a bore and is used by means of a fastening element for fastening the underlying solar panels.

Furthermore, each lifting-sliding connecting element on the underside in the longitudinal direction of square formed on one side open receiving grooves, the

Receive fasteners used for attachment on the one hand with the solar panels lying on the other hand with the underlying module carriers by means of

Fasteners. The one-sided opening in the longitudinal direction of the grooves allows the fasteners on both sides adjustability.

The mutually directed receiving spaces according to the invention relative to each other, and have different width. Where the relatively wider receiving space is formed for comparison, the relatively narrower receiving space in the transverse direction a little longer. The function of the relatively wider recording space has wider

Shelf and wider coverage for inclusion in the first of the directed in this direction frame of the solar panel, the relatively narrow receiving space is suitable due to its relatively shorter leg of the cover to accommodate the second frame of a solar panel can.

In the second, after the reception of the directional frame of the

deposited opposite side of the solar panel in the relatively narrow receiving space of the opposite lifting-sliding connector. After settling the solar panel, the solar panel is located between the opposing lifting Sliding fasteners. In order to position the solar panel exactly between the pairwise directed lifting-sliding fasteners, the

Solar panel inserted to the partition wall of the narrower receiving space, is adjusted before attachment. In the first and second, the first recording function of the solar panel is so far with the lift-slide function, in the third, the sliding function of the solar panel is completed.

It may happen that the lift-slide connection element ideally have different sizes of the grooves, the width of the module carrier protrude to accommodate the grooves of different sizes of fasteners can. Of the three grooves are two receiving grooves below the wider storage surface side of the receiving recess to strengthen the receiving recess additionally against stress and the third receiving groove is slightly wider than the two grooves below the directed against the counter surface.

Due to the application areas, the lift-slide fasteners are presented in various embodiments. The scope of this

Connection system is particularly preferred in the field, also is

Connection system for the roof and the facade suitable. Alternatively, the lift-and-slide fasteners, although their operation is the same as in

Embodiment for attaching a solar panel, especially in the roof area another embodiment operable. The differences of the mounting embodiments according to this invention are that the embodiments have different security features.

drawings

Embodiments of the invention are illustrated in the drawings and are explained in more detail in the following description. Show it:

1 is a perspective view of a connection system with a module carrier, a main carrier, a lifting-sliding connector and a supported,

2 perspective view of a lifting-sliding connecting element,

3 perspective view of another embodiment of a lifting-sliding connecting element,

4a-c cross-sectional view of two lifting-sliding fasteners with a solar panel,

5 is a perspective view of two pairs of lift-slide fasteners with solar panels,

6 shows a further perspective view of a connection system with a module carrier, a main carrier, a lift-and-slide connection element and a support,

7 shows a further perspective view of a connection system with a module carrier, a main carrier, a lift-and-slide connection element and a support,

8 shows a further perspective view of a connection system with a module carrier, a main carrier, a lift-and-slide connection element and a support,

9 perspective view of another lifting-sliding connecting element,

10a-c is a further sectional view of two lifting-sliding connecting elements with a solar panel,

11 is a perspective view of a connection system with two pairs of lift-slide fasteners on a wave-shaped plate,

12 shows a perspective view of a connection system with two pairs of lifting-sliding connecting elements and a solar panel on a wave-shaped plate,

Fig. 13 perspective view of a module table with module rows. The following is the explanation of the invention with reference to the drawings according to the structure and possibly also after the operation of the illustrated invention.

Fig. 1 shows a perspective view of a connection system 1, which consists of a module carrier 3, a main carrier 4, wherein the main carrier 4 with the module carrier 3 by means of the fastening elements (Fig. 6) is interconnected, a support 5, wherein the support 5 with the main carrier 4 by means of the fastening elements (Fig. 6) are interconnected and a lifting-sliding connection element 2 consists. The module carrier 3 and the main carrier 4 and the support 5 have either beveled or rollformed C-shaped support profile, which is preferably made of steel due to the higher portability.

Fig. 2 and Fig. 3 show two perspective views of a lift-slide fastener 100, 200 in two embodiments. The lifting / sliding connecting element 100, 200 is extruded profile and ideally made of aluminum, consists of two functional areas, the first functional area being two mutually facing laterally outwardly open receiving spaces 101a, 101b, 201a, 201b, the receiving spaces 101a, 101b, 201a, 201b each accessible on three sides, is in each case delimited by the support surface 102a, 102b, 202a, 202b of the partition wall 103, 203 and partially by the cover 104, 204. In pairs, each receiving space 101a, 101b, 201a, 201b consists of a storage surface 102a, 102b, 202a, 202b and the cover 104, 204 and is separated from a dividing wall 103, 203.

In addition, the receiving spaces 101a, 101b, 201a, 201b insertion depth, which are separated from each other and bounded by a relative to the support surface 102a, 102b, 202a, 202b dividing wall 103, 203 and serve for receiving.

The receiving spaces 101a, 101b, 201a, 201b are relative to each other according to the invention. The receiving space 101a, 201a differs substantially from the

Receiving space 101b, 201b, lift-slide fasteners 100, 200 are not continuous and short according to the invention, ideally have the width of the Lift-slide fasteners between 20 - 200 mm, the differences of the receiving spaces 101a, 101b, 201a, 201b depend appropriately on the width of the shelves

102a, 102b, 202a, 202b and the width of the covers 104a, 104b, 204a, 204b.

The cover 104, 204 closes the partition 103, 203 relative to each other at a right angle, also represents the conclusion of the receiving space 101a, 101b and 201a, 201b. The cover is inventively formed on two sides, with a leg 104a, 204a relative to the other leg 104b, 204b, so that the cover 104, 204 is substantially slightly shorter than the support surface 102a, 102b, 202a, 202b.

In addition, the storage surface 102a, 202a in the longitudinal direction of this surface on a receiving recess 105, 205, which serves to receive a fastening element 105a, 205a to the frame 303a (Fig. 4a-c) of the receiving space 101a, 201a

to mount solar panels 405 (FIG. 5). Care is taken to ensure that the fastening element 105a, 205a, the solar panel mounted dismantling and in the

Recording recess 105, 205 is firmly closed.

The partition wall 103, 203 closes the storage surfaces 102a, 202a, 102b, 202b, separates the completion of the first functional area. So take the width of the

Storage surfaces 102a, 202a, 102b, 202b, the transverse and / or longitudinal frame of the solar panels 303 (Fig. 4a-c) for attachment to the lifting-sliding connector 100, 200, and are protected against suction forces of the wind and external intervention.

According to the invention, the storage surfaces 102a, 202a differ from the

Ablageflächen 102b, 202b and the receiving spaces 101a, 201a of the storage surfaces 101b, 201b further, the legs 104a, 204a of the opposite leg 104b, 204b such that these legs 104a, 204a, 104b, 204b have different functions, as the widths and Areas of the storage surfaces 102a, 202a and the storage surfaces 102b, 202b relative to each other.

3 further shows the extended embodiment of a lifting-sliding In this embodiment, pairs of round holes 207 are in openings that pass through the shelves 202a, 202b and the receiving grooves 206a, 206c to serve other fasteners from the second functional area in addition to allow additional attachment of the frame 303a of the solar panel 303 (Figures 4a-c), 405 (Figure 5), 600 (Figure 7) to the lift-and-slide connector 200.

This type of attachment preferably has the advantage that the solar panel 303 (Fig. 4a-c), 405 (Fig. 5) with its transverse and / or longitudinal frame after lifting-sliding connection due to the additional tolerances between the Solar panel 303 (Fig. 4a-c), 405 (Fig. 5) and the receiving space 201a, 201b protect against suction forces of the wind and external interference.

The second functional area is according to the invention below the first

Functional area and has a plurality of elongated outwardly open receiving grooves 106a, 106b, 106c, 206a, 206b, 206c, wherein the receiving grooves 106a, 106b, 106c, 206a, 206b, 206c for securing the lifting-sliding connector 100, 200 with the module carrier 4 (Fig. 1), 503 (Fig. 6) are provided.

4a-c each show a sectional view of a lift-slide connection 300a-c with two mutually oppositely directed lift-slide connection elements 301 with an inserted therebetween according to the principle of the lift-slide connection

Solar panel 303.

In order to be able to insert both frames 303a, 303b of the solar panel 303 into the receiving spaces 301a, 301b (FIG. 4a), the two frames 303a, 303b of the solar panel 303 are initially inserted at an oblique angle into the receiving space 301a between the two

Leg 301g and the storage surface 301c of the lift-and-slide fastener 301 is engaged as far as the stop to the partition wall 301e, so that the opposite frame 303b on the second storage surface 301c of the lift-slide connector 301 is freely deductible. In the first use of a solar panel 303, 405 between two module carriers 3, 502 of the frame 303a of the solar panel 303 is inserted to the partition 301e with the stop each flush with the receiving space 101a, 301a, since the width of the solar panel plus the tolerances and the two opposing receiving spaces of the opposing lifting-sliding fasteners correspond, in which state about a portion of the frame 303a of the solar panel 303, 405 under the cover 104, 301 remains, the opposite frame 303b is above the associated lifting-sliding Connecting element 301.

The distance between two oppositely directed lift-slide fasteners 301 is positioned such that a solar panel 303 are firstly freely adjustable for lifting and pushing, secondly for setting, thirdly for pushing and fastening.

As shown in Fig. 4a, the solar panel 303 is inclined by the frame 303a of the solar panel 303 in the receiving space 301a of the lift-slide connection element 301 to the partition 301e inserted as far as the stop by the frame 303a on the storage surface 301c is placed. The opposing frame 303b of the solar panel 303 projects obliquely over the opposing lift-and-slide fastener 301.

Thus, Fig. 4b shows the solar panel 303 deposited on the shelf 301d, the solar panel 303 is prior to attachment between the leg 301h and

Deposited surface 301d in the receiving space 301b exactly positioned to the direction of the partition wall 301f, further, the solar panel 303 placed exactly.

Subsequently, after the opposite frame 303b of the solar panel 303 is placed on the tray surface 301d, as shown in Fig. 4b, the solar panel 303 is after a pre-adjustment in the receiving space 301b to the partition wall 301f

inserted. This time, a second pre-adjustment of the solar panel 303 takes place.

Care must be taken in the third section that the solar panel 303 is in the receiving space 301b inserted to the partition wall 301f (Fig. 4c) and the right side of the solar panel 303 with the frame 303a is placed on the fastener 304.

During the attachment, care must be taken in particular that before the attachment of the mutual frame 303a, 303b of the solar panel 303 the partition wall 301f abuts and is flush with the outer contour of the partition wall 301f.

After the end adjustment, the fastening element 304 (preferably an elongated threaded pin with hexagon socket) is fastened by means of a fastening means (not shown).

The mutual frames 303a, 303b of the solar panel 303 are each provided with a receiving space 301a, 301b with an abutment up to the partition wall 301e, 301f and, before the fixing of the frames 303a, 303b with their ends in each case substantially to the lifting Sliding fasteners 301 connected in parallel and at right angles to each other and are in the two receiving spaces 301 a, 301 b each other with the

Distance from the leg 301g, 301h and the shelf surface 301e, 301d spaced and the frame 303a, 303b each secured with a fastener 304.

Fig. 5 shows a perspective view of an embodiment of a connection system 400, in which the integrated modules 404, which consist of the module rows of the solar panels 405. A module row 404 is formed from two module carriers 1202 (FIG. 13) with mutually mutually facing lifting-sliding connecting elements 401, and between the module carriers 1202 (FIG. 13) inserted solar panels 405, 1207 wherein each lift-slide connecting element 401 two against directed

Receiving spaces 401a, 301b, each receiving space 401a, 301b with a shelf 401c, 401d, a partition 301e, 301f and two legs 401g, 401h limited. The solar panels 405 are part of the module row 404.

According to the invention, the lifting-sliding connecting elements 401 to be fastened, the module carrier 1202 (FIG. 13) and the solar panels 405 are by means of the Fastening element 205a (FIG. 3) (eg threaded pin with internal hexagonal edge) through the receiving recess 205 plus by means of the fastening elements 405a, 207a (FIG. 3) through the bores 607, 207 and by means of the fastening elements 105a (FIG. 2), 205a (Fig. 3), 607a (Fig. 7), 705a (Fig. 8) through the bores (not shown) supplied and are connected to each other via the receiving groove 406b and are each provided with a

Fixing nut 702b (Fig. 8) fixed in such a way that the fastening nut 702b is locked against rotation of the stopper face.

It is still possible to additionally connect the solar panel 405 with the lifting / sliding connecting element 401 via the bores 207 (FIG. 3), 607 (FIG. 8).

In order to prevent the detachment of the fastening element 207a, the length of the fastening element 207a will reach 2/3 of the receiving recess 105, 205, so that a special tool is necessary for releasing the fastening element 207a.

Because the receiving space 101a, 401a is relatively wider than 301b, the solar panel 405 is located longitudinally on the shelf 401c, the shelf 401c having a recessed receiving recess 105 (Figs the

Fastening member 405a for attaching a frame 303a of the solar panel 303, 405 with the lift-slide connector 301, 401 in the longitudinal direction of the lift-slide fastener 401 recessed receiving recess 105, wherein the fastener 405a is used.

The opposite frame 303b of the solar panel 405 (Fig. 5), 303 (Fig. 4a-c) is in the receiving space 301b optionally also fastened by the fastener 405a and / or the lifting-sliding connector 401 through the receiving bore 207 by means of a Fastening element 207 a directed from bottom to top with the frame 303 b of the solar panel 405 additionally attached.

6 shows a further perspective view of a connection system 500, which consists of intersecting C-profiles, the module carrier 502, the main carrier 503 and the support 504 and the lifting slide mounted on the module carrier 502. Connecting element 501 is assembled.

Before the use of the first row of the solar panels 303 according to the invention first rows of lifting-sliding fasteners 501 in pairs on the module supports 502 used such that in pairs between the lift-slide fasteners 301, 401 creates a module spacing to the first Step of the lift-push method.

The intersecting C-profiles of a module carrier 502, a main carrier 503 and a support 504 each consist of a rear wall 502a, 503a, 504a, two mutually facing side walls 502b, 502c, 503b, 503c, 504b, 504c and to the outside With the side walls 502b, 502c, 504b, 504c being relatively perpendicular to the back wall 502a, 504a, the differences of the side walls 503b, 503c are in that the side walls 503b, 503c are trapezoidally directed toward each other and relatively wide in the back wall 503a Angle are dressed. Furthermore, the upper ones have

Side wall 503c and the lower side wall 503d a plurality of holes, wherein the lower side wall 503d is preferably provided by a plurality of round holes 502d and long holes 502e.

The long bore 502e serves to make the module carrier 502 by means of a

Fastener 502f via long hole 502e the module carrier 502 by means of a fastener 502f with the main carrier 503 on the upper side wall 503c of the main carrier 503 interconnects and is ideally the connecting element 502f on the long hole 502e for adjusting and adjusting the connection system 500 displaced.

On the upper side wall 502c of the module carrier 502 is located to the

Module carrier 502 transverse at least one lift-slide connector 501, the second functional area (Fig. 2, Fig. 3) a plurality of receiving grooves 106a, 106b, 106c, 206a, 206b, 206c (Fig. 2. Fig. 3) , 406a, 406b, 406c (FIG. 5), wherein at least one receiving groove receives an outer hexagonal fastening element (not drawn) connecting the lift-and-slide connection element 501 to the module carrier 502 with the upper side wall 502c, wherein the connection element can be operated through the round bore 502d.

The lift-slide connector 501 is inventively in this

Embodiment to the module support 502 transversely directed, so that further lifting-sliding fasteners 501 are directed in the same direction in series. The insertion length of the module carrier 502 correspond to the total length or width of the solar panels 303, 405, 1207 with lift-slide fasteners 501, 1201 plus the tolerances.

The height of the partition wall 103 incl. The tolerances corresponds to the height of the frame 303a, 303b of the solar panel 303, 405. The distances of the opposing lift-slide fasteners 501 on the module supports 502 also correspond either the length or width of between parallel two module carriers 502 used solar panels 303, 405.

During the use of the solar panels 303, 405, 1207 tolerances between the solar panels used 303, 405, 1207 and the receiving spaces 101a, 101b arise, these are subsequently by means of the fasteners 105a, 205a, 207a adjustable and adjustable.

FIG. 7 also shows a further embodiment of a

Connecting system 600, as also shown in Fig. 6, which is composed of intersecting C-profiles, the module carrier 602, the main carrier 603 and the support 604 and the mounted on the module carrier 602 lift-slide connector 601.

In this embodiment, another embodiment of another lift / slide fastener 601 is presented which differs from the lift / slide fastener 501 (FIG. 6), 200 (FIG. 3) such that the lift / push fastener Connecting element 601 in this embodiment is also not continuous and short according to the invention, ideally have the width of the lifting-sliding Connecting elements between 20 - 200 mm on that the length of the lifting-sliding connection element 601 in the transverse direction extends beyond the width of the module carrier 602, so that in the width of the storage surfaces 202a, 202b (Figure 3) are each recessed with a few holes 207, wherein the extension of the lifting-sliding connecting element 601, consequently the extension of the storage surfaces 202a, 202b and the receiving bore 207 are outside the width of the upper side wall 602c of the module carrier 602 and by means of a tool (not shown) through the round hole 602d are freely operated ,

According to the invention, the lift / slide fasteners 601 below the receiving spaces 202a, 202b ideally have a multiplicity of receiving grooves 206a, 206b, 206c (FIG. 3). According to the invention, the lift-slide connection element 601 can be connected to the middle receiving groove 206b by means of a fastening element 607a

Secure module carrier 602. Optionally further fasteners for additional fasteners can be inserted into the further receiving grooves 206a, 206c.

For example, to ensure an effective additional attachment of the frame 303a, 303b (Fig. 4), each receiving bore 207 (Fig. 3) in the receiving groove 206a, 206c z. Example, a four-sided screw nut 607 b, whereby the fastener 607 a (a hexagon socket screw) below the receiving groove 206 a, 206 c are inserted through the square hole nut 607 b through the receiving bore 207. In order to operate the fasteners 607a, it is provided that the tool (not shown) through the round hole 602d reaches the fasteners 607a.

Ideally, this type of additional mounting embodiments according to the invention has the advantage that the frame 303a, 303b of the solar panel 303 to fix as needed due to the tolerances between the solar panel 303 and the receiving space 201a, 201b, with its transverse and / or Longitudinal frame 303a, 303b of the solar panel 303 after lifting-sliding connection to protect against unexpected external interference.

Although the soil usually have the unevenness and differences in height or slope, the inclination angle of the erected on the ground outdoor facilities are too to adjust the sun's rays. During the construction of the racks the unevenness as well as the hurdles of the ground are taken into account. The resulting gaps lead to the iterative inclination of the racks, so that the inclination with external forces on the connection system 600 requires additional attachment of the solar panels 303. The resulting slope of the floor is taken into account in order to keep the solar panels in the desired position, the solar panels 303 in

Main mounting direction by means of the lifting-sliding connector 601 by means of the elongate fastener 105 a, 205 a attached.

Due to the inclination and the obstacles of the surface structure of the soil to determine the optimum radiation angle of the sun's rays, a considerable difference arises between the radiation angle and the bottom tilt angle whereby this difference for receiving the solar rays on solar panels 303, 405, 1207 a variety of installation angles represent. This difference is indicated by that at the entrance

Feature solved. This difference can be achieved by means of the adjustable installation angle of the

Solar system adjustable to be changed. The adjustable changes in the installation angle of the module tables 1200, wherein a row of solar panels 1207 form a module table 1200, with respect to the bottom tilt angle can be adjusted by the displacement over long hole 602e and therefrom approximately results in an optimal acceptance angle of the solar rays via solar panels 303, 405, 1207. In the other case, in order to stabilize solar panels 303, 405, 1207 transversely to the main mounting direction, in addition to pairwise fasteners 607a act on the fastener 105a, 205a to frictionally hold the solar panel 303, 405, 1207 in position.

The frictional engagement of the elongated fastener 105a, 205a may not be sufficient in certain circumstances during the decay of the ground in connection with the opposing forces of the wind and snow load to keep the solar panels 303, 405 stable against frictional force. The frictional connection of the elongated

Fastener 105a, 205a can cause without additional fasteners that on the solar panels 303, 405 counteracting forces push the solar panels 303, 405 in one direction. To avoid this effect, are to eliminate the defect According to the invention advantageously additional fasteners 207 a used to stabilize the solar panels 303, 405 in all directions against unexpected external forces.

The side walls of the C-profiles of the module carrier 602b, 602c and the main carrier 603b, 603c and the support 604b, 604c are ideally either recessed either with round holes 602d or each with long holes 602e, 604e or with both holes. These types of holes are optional for attachment of the C-profiles 602, 603, 604 with each other or for fixing the lifting-sliding fasteners 601 with the

Module carrier 502 provided. In addition, the elongated bores 602e on the lower side wall 602b of the module carrier 602 serve for positioning and subsequently for fastening the module carrier 602 relative to the main carrier 603.

Fig. 8 shows another perspective view of a connection system 700, which represents a bottom view of the connection system 700, which, as shown in Figs. 1, 6, and 13 are intersecting module supports 702, main supports 703, and support 704 To ensure intersecting attachment of the profiles have a plurality of round holes 702d and long holes 702e. The round holes 702d are the passage of a tool (not shown) for serving the opposite fastener 705a, and the main beams 703 intersecting with the module beams 702 via the long holes 702e and the main beams 703 with the intersecting ones Supports 704 attached.

In the receiving groove 106b, 206b, the head of a fastener 705a is rotationally fixed, wherein the fastener 705a is secured by means of a screw nut 705b on the threaded pin on the upper side wall 702c, the module carrier 702.

According to the invention, the lower side wall 702b has a plurality of round 702d and elongated holes 702e to operate the fasteners 705a, a tool (not shown) is supplied accessible through the round hole 702e, and further the long hole 702c of the Module carrier 702 serves to the

Module carrier 702 by means of a fastener 705a through the long bore 702c with to attach to the crossing main carrier 703. This type of attachment contributes through the long hole 702c possibly to the displacement and adjustability of the two carriers.

Fig. 9 shows an embodiment of a lift-slide fastener 800, which is ideally suited for the roof, carport and façade systems, in this embodiment, a lift-slide fastener 800, for a

Connection system described which has advantageous three functional areas, wherein the first functional area of two mutually facing laterally open to the outside

Receiving spaces 801a, 801b is formed and further the receiving spaces 801a, 801b are accessible from three sides and each of the storage surfaces 802a, 802b and the partition wall 803 and in part from the legs 804a, 804b of the cover 804 demarcate.

The cover 804 divides into a wider leg 804a and a narrower leg 804b, the wider leg 804a has a bore 804c, whereby a fastening element 804d for fastening the frame 903a (FIG. 10a-c), 1105a (FIG 12) of the solar panel 903, 1105 is used.

The receiving spaces 801a, 801b are relative to each other according to the invention. The receiving space 801 a is expediently similar in comparison to the receiving space 801 b, differs substantially from the width, as well as the shelf surface 802 a, 802 b and the width of the leg 804 a, 804 b of the cover 804.

In addition, the receiving spaces 801a, 801b each have an insertion depth, whereby the receiving spaces 801a, 801b can be differentiated from the insertion depth, which are separated and bounded by a relative to the storage surface 802a, 802b vertical partition 803 and for receiving the frame 903a, 903b, 303a, 303b of the solar panels 303 (Figures 4a-c). 407 (FIG. 5).

The second functional area of the lift-and-slide fastener 800 is one-sided with an opening 805e, a receiving channel 805 (eg, a cable channel) defined by three segments 805a, 805b, 805c and a half-opening 805e, and the receiving channel 805 consists of an upper segment 805a, which is shown below the storage surface 802a, a relatively vertical to the upper segment 805a segment 805b, the rear wall, the lower segment 805c, the storage surface of the receiving channel 805, a block segment 805d, and a Opening 805e.

The third functional area of the lift-and-slide connection element 800 lies partly below the shorter reception space 801b and on the side of the second one

Functional area, are preferably both parts of the third functional area of the lift-slide fastener 800 complete, and have on the same plane against directional cross connector 806, these cross connectors 806 are connected at right angles to the block segment 805 d and with the opposing segment 807, These cross-connectors 806 are each provided with a bore 806a, whereby the lifting-sliding connecting elements 800, 1001 firmly connect the lifting-sliding connecting elements 800, 1001 to the underlying trapezoidal shapes 1004 by means of the fastening elements 1002a (FIG. 11).

Each of FIGS. 10a-c shows a sectional view of a lift-and-slide connection 900a-c. In this embodiment, there are two mutually oppositely directed lift-slide fasteners 901 with an inserted therebetween according to the principle of the lift-slide connection solar panel 903th

In the first step, the frame 903a of the solar panel 903 is slid into the receiving space 901a via shelf 901c slidably up to the partition wall 901e, during which stands on the opposite side of the frame 903b directly over the opposite lifting-sliding connector 901.

In the following step, the frame 903b can be deposited on the storage surface 901d, so that the solar panel 903 is flush with the two opposed lifting-sliding connecting elements 901.

In the third step, the solar panel 903 is in the receiving space 901b to the partition wall 901f inserted (Fig. 900c). After adjusting the solar panel 903 between mutually facing lift-and-slide fasteners 901, the frame 903a is fastened to the leg 101h with the lift-and-push fasteners 101 by means of a fastener 902 through the bore 6a (Figure 9).

Before attaching the solar panel 903, care must be taken that the wiring is inserted in the receiving channel 904, so that via the opening 805 (FIG. 9) the

Displacement of the wiring is possible.

The connection system 1000 shown in FIG. 11 has a wave-shaped plate 1003 which is mounted on the roof or the façade of an object, with parallel trapezoidal shapes 1004 running on the plate 1003, and a plurality of lifting elements arranged longitudinally on these trapezoidal shapes 1004. Slide fasteners 1001 are placed to couple in pairs between lift-slide fasteners 1001 solar panels 1105 (Fig. 12) to attach the trapezoidal shapes 204 parallel to each other in the transverse direction expedient expedient assigned.

The lift-slide fastener 1001 is attached in the third functional area with two counter-directed cross connectors 1002 by means of a respective fastener 1002 a with the underlying trapezoidal molds 1004 and also the

Seal joint, both the cross connector 1002 and the fastener 1002a are provided with a sealing material.

In Fig. 12 connection system 1100 is shown with solar panels 1105, which with a plate-like (with frame or frameless) solar panel 1105 to recognize that the broader legs 1101a of the paired lift-slide fasteners 1101 the frame 1105a of the solar panel 1105th by means of a respective fastener 1102d through the bore 1101c, further secured by means of the cross connector 1102 of the paired lift-slide fasteners 1101 with the trapezoidal shapes 1104 of a wave-shaped plate 1103, which in turn on a

wave-shaped plate 1103 of an object is mounted. Although in Fig. 12 only a single Solar panel 1105 is shown, it is understood that a plurality of such solar panels 1105 can be mounted side by side in series in the transverse and / or longitudinal direction by means of the lift-slide fasteners 1101 on a wave-shaped plate 1103.

Fig. 13 shows a perspective view of a module table 1208 in a connection system 1200, of the aforementioned type with the intersecting C-profiles, with what in module rows 1205, 1206 erected solar panels 1207, wherein a row of modules 1205, 1206 of a Variety of transverse to each other in series between two adjacent or / against each other arranged module carriers 1202 are used.

The lift-and-slide fastener 1201 according to the invention comprises, in one embodiment, front and rear supports 1204a, 1204b arranged in pairs in rows and intersecting the main supports 1203a, 1203b, the height of the supports 1204a, 1204b on the rear row 1204b are proportional to the heights of the supports 1204a on the front row, the height differences of the front and rear supports 1204a, 1204b give rise to an inclination at an angle, this angle being the angle

Height adjustment (Fig. 6, 7, 13) of the main beam 1203a, 1203b according to the shape of the ground substantially corresponds to the sun's beam angle, a main beam 1203a, 1203b cross-linked longitudinally on the supports 1204a, 1204b, the supports 1204a, 1204b and the main beams 1203a , 1203b for fastening round and long holes 1202d, 702d, 602e, 702e have, connected to each other via these recesses, are suitably adjustable.

A module row 1205, 1206 consists of a number of limited number of solar panels 1207, which are used for lifting-sliding connection.

A modular module table 1208 is made up of a group of module rows 1205, 1206. For each module carrier 1202, lifting / sliding connecting elements 1201 are assigned in pairs by lifting / sliding method per solar panel 1207.

In order to stabilize the inclination of the module row 1205, 1206 against external forces, it is more advantageous according to the invention that the two ends of the module row 1205, 1206 additionally completed with a pair of lift and slide fasteners 100, 200, with the receiving spaces 101b, 201b facing the solar panels 1207.

In order to gain more electrical energy from the sun's rays, a search is made for a flat bottom surface, which is usually in vain. The adjustability of the installation angle between the module carrier 1202 and the main carrier 1203a, 1203b brings with it an advantage to adapt the table tilt angle and to the radiation angle, wherein both angles preferably have to be relatively perpendicular to each other.

LIST OF REFERENCE NUMBERS

connection system

Lift-slide connection module module carrier

main carrier

Support lifting-sliding connection element, b reception room

a, b storage area

partition wall

cover

a, b thighs

receiving recess

a fastener

a, b, c receiving groove lifting-sliding connecting element, b receiving space

a, b storage area

partition wall

cover

a, b thighs

receiving recess

a fastener

a, b, c receiving groove

location hole

a fastener 300a, b, c Lift-and-slide connection

301 Lift-slide connection element

301a, b recording room

301c, d storage area

301e, f partition

301g, h thighs

303 solar panel

303a frame

303b frame

304 fastener

400 connection system

401 Lift-slide connector 401a, b receiving space

401c, d storage area

401g, h thighs

405a fastener

406a, b, c receiving groove

404 Integrated module series

405 solar panel

500 connection system

501 Lift-slide connection element

502 module carrier

502a rear wall

502b lower sidewall

502c upper side wall

502d round bore

502e long bore

502f fastener

503 main beams 503a rear wall

503b lower sidewall

503c upper side wall

assisted

rear wall

lower side wall upper side wall

fastener

connection system

Lift and slide connection member

module carrier

rear wall

lower side wall upper side wall

round hole

long hole

main carrier

rear wall

lower side wall upper side wall

support

long hole

drilling

Fastening element fixing nut

connection system

Lift and slide connection member

module carrier

rear wall 702b lower sidewall

702c upper side wall

702d round bore

702e long bore

703 main beams

703a rear wall

703b lower sidewall

703c upper side wall

703e long bore

704 support

705a fastener

705b nut

800 lifting-sliding connector

801a recording room

801b recording room

802a shelf

802b shelf

803 partition

804 coverage

804a, b thighs

804a hole

804b fastener

805 recording channel

805a segment

805b segment

805c segment

805d block segment

806 cross connector

807 segment 900a, b, c Lift-and-slide connection

901 Lift-and-slide connector 901a, b Receptacle

901c, d storage area

901e, f partition

902 fastener

903 solar panel

903a, b frame

904 recording channel

1000 connection system

1001 Lift-slide connection element

1002 cross connector

1002a fastener

1003 plate

1004 trapezoidal shape

1100 connection system with solar panels

1101 Lift-slide connection element 1101a, b leg

1101c bore

llOld fastener

1102 cross connector

1102a fastener

1103 plate

1104 Trapezoidal shape

1105 solar panel

1105a, b frame

1200 connection system, module table

1201 Lift-slide connection element 1202 module carrier

1203a, b main carrier

1204a, b support

1205 module series

1206 module series

1207 solar panel

1208 module table

Claims

claims

1. Connection system (1, 400, 500, 600, 700, 1000, 1200)

with at least four lifting-sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201), wherein the lifting-sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) ideally have the same design and are made of extruded aluminum, from at least two profiles, with at least two module carriers (3, 502, 602, 702, 1202), at least two second profiles, with at least two main girders (4, 503, 603, 703, 1203a, 1203b), at least four third girders, with four vertical girders (5, 504, 604, 704, 1204a, 1204b ), wherein the first profiles (3, 502, 602, 702, 1201) and the second profiles (4,

503, 603, 703, 1203a, 1203b), the third profiles of the vertical supports (5,

504, 604, 704, 1204a, 1204b) are secured to the main beams, the profiles (3, 502, 4, 503, 5, 504, 604, 704, 1204a, 1204b) being made of square C-profiles with outwardly directed openings , with rear walls (502a, 602a, 702a) and two vertical side walls (502b, 602b, 702b), the side walls (502b, 602b, 702b) round and

Long holes (602d, 602c, 702d, 702c), in which fasteners (502f, 705a) which are connected to the crossing second profiles (4, 503, 603, 703) with their rear walls (503a, 603a, 703a), the second Profiles (4, 503, 603, 703) with the upper ones

Sidewalls (503c, 603c, 703c) having intersecting first profiles (3, 502, 602, 702, 1202) are fastened to its lower side walls (502b, 602b, 702b), the first profiles (3, 502, 602 , 702) fasten lifting-sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) for fastening, for example, the

Solar panels (303, 405, 1105, 1207) are arranged on two sides, wherein the lift-slide fasteners (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) two functional areas wherein the first functional region of the lift-and-slide connection elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) has two receiving spaces (101a, 101b, 301a, 301b, 401a, 801a, 801b, 901a, 901b), wherein the receiving spaces (101a, 101b, 301a, 301b, 401a, 801a, 801b, 901a, 901b) are each accessible on three sides, to the one in the Receptacles (101a, 101b, 301a, 301b, 401a, 801a, 801b, 901a, 901b) to the Ablageflächen (102a, 102b, 202a, 202b, 301c, 301d, 401c, 401d, 802a, 802b, 901c, 901d) at least each have a receiving recess (105, 205) with undercut screw groove, for receiving at least one fastener (105a, 205a, 304, 405a) in each case from the storage surfaces (102a, 102b, 202a, 202b) of the dividing wall 103, 203 and in each case in each case by the leg (104a, 104b, 204a, 204b, 301g, 301h, 401g, 401h, 904a, 804b, 901g, 901h, 1101a, 1101b), wherein each lift-and-slide connection element (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) in the second functional region is ideally three Receiving grooves (106a, 106b, 106c, 206a, 206b, 206c, 406a, 406b, 406c) in the longitudinal direction of the lifting-sliding connecting element (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001 , 1101, 1201) in different width for receiving the

Fastening elements (207a, 607a) are formed, each pair of lifting / pushing connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) for fixing the solar panels (303, 405, 903, 1105, 1207) are arranged on two sides, for receiving the frames (303a, 303b, 903a, 903b, 1105a, 1105b) of the solar panels (303, 405, 903, 1105, 1207) from two mutually relative receiving spaces (101a, 101b, 301a, 301b, 401a, 801a, 801b, 901a, 901b), at least one of the receiving spaces (101a, 101b, 301a, 301b, 401a, 801a, 801b, 901a, 901b) at least one in the longitudinal direction of the lift-slide Connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) receiving recess (105, 205) for receiving at least one fastening element (105a, 205a, 304, 405) the second one of the first opposing receiving spaces (101b, 301b, 401b, 801b, 901b) relative to the first

Receiving spaces (101a, 301a, 401a, 801a, 901a) are, wherein the solar panels (303, 405, 903, 1105, 1207) by lifting-sliding method in series in the first

Receptacles (101a, 201a, 301a, 401a) and then in the second

opposite receiving spaces (101b, 301b, 401b, 801b, 901b) and by means of the fastening elements (105a, 205a, 207a, 405a, 607a), the solar panels (303, 405, 903, 1105, 1207) with the lifting-sliding fasteners ( 2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201), the lifting-sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) having a plurality of trapezoidal shapes (1004, 1104) on one wave-shaped plate (1003, 31103) are connected, wherein the lift-slide fasteners (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) for receiving the frame (303a , 303b, 903a, 903b, 1105a, 1105b) of the solar panels (303, 405, 903, 1105, 1207) are formed from two mutually relative receiving spaces (101a, 101b, 301a, 301b, 401a, 801a, 801b, 901a, 901b) Fixing the solar panels (303, 405, 903, 1105, 1207) are arranged bilaterally, wherein one of the receiving spaces (101a, 101b, 301a, 301b, 401a, 401b, 801a, 801b, 901a, 901b) at least one leg (104a, 104b, 301g, 301h, 401g, 401h, 804a, 804b, 901g, 901h, 1101a, 1101b) at depth of the lift and slide fasteners (2, 100, 200, 301, 401, 501, 601, 701, 800, 901 , 1001, 1101, 1201) directed bore (4c, 105, 205) for receiving a fastening element (4d, 102, 301d),

the second receiving space (101b, 301b, 401b, 801a, 801b, 901a, 901b) facing the first is relative to the first receiving space (101a, 301a, 401a, 801a, 901a), the lifting-sliding connecting elements (2, 100 , 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) have advantageous three functional areas, wherein the first functional area consists of two mutually directed laterally outwardly open receiving spaces (1a, 1b, 101a, 101b, 901a, 901b) is formed and further the receiving spaces (101a, 101b, 201a, 201b, 301a, 301b, 901, 401a, 401b, 801a, 801b, 901a, 901b) are accessible from three sides, and each of the storage surfaces (102a , 102b, 202a, 202b, lld, 201, 301c, 301d, 401c, 401d, 802a, 802b, 901c, 901d) and the partition wall (103, 203, 301e, 301f, 803, 901e, 901f) and in part from the Cover (804) are demarcated, wherein the cover (804) divides into a wider leg (4a, 101g) and a narrower leg (4b, 101h), the wider Sche nocks (104a, 204a, 301g, 401g, 904a, 901g, 1101a) has a bore (105, 205), whereby at least one fastening element (105a, 205a, 304, 405a, 804c, 904, HOld) for fastening the frames (303a , 303b, 903a, 903b, 1105a, 1105b) of

Solar panels (303, 405, 903, 1105, 1207) is used, wherein the second functional area of the lifting-sliding connecting element (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201 ) on one side with a half-opening (5e) represents a receiving channel (5) which is made up of three segments (805a, 805b, 805c, 805d) and a half-opening (805e), wherein the third functional area of the lifting-sliding connecting element (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) has a pair of cross connectors (806), wherein these cross connectors (806) on the one hand with the block segment (805d) and with the oppositely directed segment (807) connected at right angles and are each provided with at least one bore (806a), by means of each of the fastening elements (1002a) the lifting-sliding connector ( 2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) to the trapezoidal molds (1004, 1102) underneath, the solar panels (303, 405, 903, 1105 , 1207) are picked up in series in the first receiving spaces (101a, 201a, 301a, 401a) and then in the second opposing receiving spaces (101b, 301b, 401b, 801b, 901b) by means of lifting / pushing processes and by means of the fastening elements (804c , 902, HOld) the solar panels (303, 405, 903, 1105, 1207) with the lifting-sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201).

2. Connection system (1, 400, 500, 600, 700, 1000, 1200) according to claim 1,

characterized,

in that the lifting-sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) are each provided with a receiving space (101a, 101b, 301a, 301b, 401a, 401b 801a, 801b, 901a, 901b) are formed, wherein the width of the lifting-sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201 ) are ideally to the width of the underlying profiles, in particular not continuous, have between 35 - 120 mm in width, wherein the first receiving spaces (101a, 301a, 401a, 801a, 901a) relative to the opposite receiving spaces (101b, 301b, 401b , 801b, 901a, 901b), preferably both

Reception spaces (101a, 101b, 301a, 301b, 401a, 401b, 801a, 801b, 901a, 901b)

have different width and versatile functional areas, and for receiving the solar panels (303, 405, 903, 1105, 1207) with directed against receiving space (101b, 301b, 401b, 801b, 901b) are formed.

3. Lift-slide connection elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) in a connection system (1, 400, 500, 600, 700, 1000, 1200) according to claims 1 or 2, characterized,

in that the receiving spaces (101a, 201a, 301a, 401a) of the first lifting / sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 801) are provided for receiving at least one fastening element (105a, 205a, 207a, 405a, 607a) at least one

Receiving recess (105, 205, 607).

4. Lift-slide connection elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) in a connection system (1, 400, 500, 600, 700, 1000, 1200) according to at least one of the preceding claims,

characterized,

in that the lifting / sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) have two receiving spaces (101a, 101b, 301a, 301b, 401a, 401b, 801a, 801b, 901a, 901b), wherein the receiving spaces are separated from a partition (103, 203, 301e, 301f, 803, 901e, 901f).

5. Lift-slide connection elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) in a connection system (1, 400, 500, 600, 700, 1000, 1200) according to at least one of the preceding claims,

characterized,

in that the lifting / sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) have two receiving spaces (101a, 101b, 301a, 301b, 401a, 401b, 801a, 801b, 901a, 901b), the receiving spaces each having a storage surface (102a, 102b, 202a, 202b, 180d, 201, 301c, 301d, 401c, 401d, 802a, 802b, 901c, 901d) and one each over the receiving spaces (101a, 101b, 301a, 301b, 401a, 401b, 801a, 801b, 901a, 901b) of the partition (2e, 103, 203, 301e, 803, 901e) relatively vertical legs (104a, 104b, 204a, 204b , 301g, 301h, 401g, 401h) have a covering (104, 204) with different recording depths and mutually relative size.

6. Lift-slide connection elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) in a connection system (1, 400, 500, 600, 700, 1000, 1200) according to at least one of the preceding claims, characterized,

in that the lifting / sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) have two receiving spaces (101a, 101b, 201a, 201b, 301a, 301b, 401a), wherein the solar panels (303, 405, 903, 1102, 1207) with the frames (303a, 303b, 903a, 903b, 1105a, 1105b) in the first place in the receiving spaces (101a, 301a, 401a, 501a, 801a, 901a) to the partition wall (2e, 103, 203, 301e, 803, 901e) are inserted.

7. Lift-slide connection elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) in a connection system (1, 400, 500, 600, 700, 1000, 1200)

at least one of the preceding claims,

characterized,

in that the lifting-sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) have two receiving spaces (101a, 101b, 201a, 201b, 301a, 301b, 401a), wherein solar panels (303, 405, 903, 1105, 1207) with the frame (303a, 303b, 903a, 903b, 1105a, 1105b) further in the receiving spaces (101a, 101b, 301a, 301b, 401a , 401b, 801a, 801b, 901a, 901b) are used.

8. Lift-slide connection elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) in a connection system (1, 400, 500, 600, 700, 1000, 1200)

at least one of the preceding claims,

characterized,

in that the lifting-sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) have receiving grooves (106a, 106b, 106c, 206a, 206b, 206c), for receiving the fastening elements (607b, 705a) for fastening the solar panels (303, 405, 903, 1105, 1207) as well as for fastening the lifting-sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) with the module carriers (3, 502, 602, 702, 801) are suitable.

9. Lift-slide connection elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) in a connection system (1, 400, 500, 600, 700, 1000, 1200) at least one of the preceding claims,

characterized,

in that the lifting / sliding connecting elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201), with the module carriers (3, 502, 602, 702, 1202), the main supports (4, 503, 603, 703, 1203a, 1203b), the upright supports (5, 504, 604, 704, 1204a, 1204b) in the connection system (1, 400, 500, 600, 700, 1100, 1200) and the solar panels (303, 405, 903, 1105, 1207) integrated module row (1205, 1206) form.

10. Lift-slide connection elements (2, 100, 200, 301, 401, 501, 601, 701, 800, 901, 1001, 1101, 1201) in a connection system (1, 400, 500, 600, 700, 1000, 1200) according to at least one of the preceding claims,

characterized,

in order to stabilize the inclination of the module row (1205, 1206) against external forces, both ends of the module rows 1205, 1206 are additionally closed with a pair of lifting / sliding connecting elements (100, 200), wherein the receiving spaces (101a, 101b, 301a, 301b, 401a, 401b, 801a, 801b, 901a, 901b) are directed to the solar panels (303, 405, 903, 1105, 1207).

This is followed by 13 sheets of drawings