EP3638388A1

EP3638388A1 - Self-supporting weaving-module building system

Info

Publication number: EP3638388A1
Application number: EP18816490.9A
Authority: EP
Inventors: Ole Vestergaard Poulsen
Original assignee: Individual
Current assignee: Individual
Priority date: 2017-06-12
Filing date: 2018-06-12
Publication date: 2020-04-22
Also published as: WO2018228649A1; EP3638388A4; DK201700346A1

Abstract

A module system comprising substantially flat base modules and connector elements, wherein the base modules comprise edges in the same dimensions and at each edge comprise two or more slots located adjacent to each other and parallel. The individual connector element can be retained in the two or more slots in the same basic module, and the modular system can form 5 self-supporting spacious structures. (Fig. 5)

Description

SELF-SUPPORTING WEAVING-MODULE BUILDING SYSTEM

CONCEPT DESCRIPTION OF THE INVENTION:

The system consists of a basic element, which may be square and a connector ele- ment, which may be symmetrically cross-shaped. Wth these elements, a number of different shapes, sizes and expressions can be created. 3-Dimensionelle models can be made like stars, hearts, wreaths, animals, fish, birds, plants, abstract designed sculptures etc. Designer lamps in many different shapes, Christmas lamps and kids deco lamps. The possibilities are limitless.

The light sources are mainly mini LED lights on a copper wire that can be flared into the inside of the lamps by hanging fixed in the cross-sectional joint's hooks / arrows.

The output can be different plastic materials such as PP, PVC, ABS, Acrylic, etc. With the advantage that they can be translucent and light can shine through. It can also be carried out in thin metals, which have the necessary flexibility as well as various wood types made from thin plates that can give enough holding power when merged. Final- ly, it is also possible to combine the different materials mentioned to achieve the right coupling function and / or design expression.

Size dimensions are without limitations. WO 2012/026226 describes a modular system comprising substantially flat base modules and assembly elements. The basic modules comprise edges of the same dimensions and two or more slots located in two layers of the base module at its edges. Each assembly element can be retained in the slots via flaps in the base module, which are positioned so that they can retain the counter-elemental tips of the connector element. The modular system can form self-supporting spacious structures.

BACKGROUND OF THE INVENTION:

Most people are not really creative or struggling to create something creative that they are content with. It does not mean that people do not want to unfold themselves and if only the risk of failing is manageable, and the success is fairly secured, they will really like to make something. In fact, it is relaxing and pleasant to do something concrete with your hands, such as weaving.

This is becoming an increasing need because the society's development of digitization causes people to create fewer concrete things in their everyday life.

At the same time, there has been a rapid development within LED lighting within the last few years. One of the innovations is copper wire mini LED light. Because they work at low voltage, it is possible for end-users themselves safely to use them creatively for decorating etc.

But the challenge for the users has been to find objects where they can "sling" these light chains into, to make them decorative. For both manufacturers and consumers, it is difficult to create different designs where the LED lights sit on the inner / outer "shell", thus making the shape or sculpture bright as a whole. Currently, you can only buy fin- ished metal grids shaped like a star, for example.

If the lights could only follow the inner contour, then it would be possible to make the shape of a semitransparent material that will make the light more or less diffuse and illuminate the whole rather than just the LED light point. These two needs have now been united and possible to be met by means of the invention of the self-supporting modular building system.

The system is a modular and creative design building system for creating shapes, design lights, light decorations, Christmas decorations and season lighting effects as well and much more.

The light effects that can be created with this system are quite unique and in addition to lamps and decorative lighting in all shapes, - letters and numbers can also be created. In this way, the flexible wiring module system can act the same as neon lights, but in a new way that allows the user to create what to write with the light, at low cost, easy and instantly.

GENERAL DESCRIPTION OF THE INVENTION

The novelty of the invention is a modular system comprising substantially flat base modules and connector elements wherein the base modules comprise edges of the same dimensions and at each edge comprise two or more slots located adjacent to each other and in parallel and where the individual assembly element can be retained in the two or more slots in the same basic module, and where the modular system can form self-supporting spacious constructions.

Self-stabilizing and self-supporting spatial modular weaving system, where base modules can be connected through two or more slots with one or more connector elements.

A modular folding system that creates stability between the individual connectors, so that the basic elements can be in level to each other when assembled.

With the module, it is understood that the weaving side always are joint together in the same dimensions and in a grit module, so that they reach same height, length and width measurements

At the same time, they ensure self-supporting stability for the 3-D spatial structures that can be created by the system. The system is unique in that it does not need an inner skeleton to achieve stable special constructions.

This is crucial in the users' creative process, where stability can be achieved without planning an inner design first.

The basic modules can have a diagonal curved edge that creates a basic structural geometric design.

A diagonal bend edge can ensure all basic elements to have a triangular structure that provides stability to the basic static structure.

The unique three-point design can provide a strong static construction to any shape that are created with the system. Although the connector joints are flexible, the triangle geometry can make all shapes created with the system become stable and static, making big and spatial shapes possible..

The connector elements may have one or more barb-shaped coupling head members. By means of an insert guiding shape and subsequent barb functions that can hold, once the connector element is weaved fully in to the base element.

Basic elements and connector elements may have a material flexibility that allows them to mitigate the oversize of the braid head relative to the braces. This makes it thus possible for them to get braided together.

The connector elements may have barb heads that can flip up to lock back and forth and side to side.

In this way the distance between two basic elements will be kept precise.

This feature further strengthens the self-supporting construction.

It is possible to choose only to lock on one side, with a fixed angle between two basic elements in the horizontal plane.

The modular system may have variable and flexible angles in the horizontal plane and the distance between basic elements in the mode when they are joint together.

By making the root of the connector element longer than just able to reach through the tilts, it is possible to vary the horizontal distance and angle between the basic elements.

This gives great design freedom while maintaining stability and fixation. The slots may have a smiley shape. The smiley slot allows the plastic foil meshes to withstand greater pressure from the punching process in production without being deformed or forming unwanted shadows in the component.

In addition, this form guides and helps the insertion of itself.

The module system can have a 360 degree variable angle between basic elements relative to each other.

The flexible bracket assembly allows the base elements to be angled up to 360 de- grees in relation to each other. This gives the ultimate module grit, which makes the module always live up to the basic geometric. The module system can have 130 degree angle connection, which provides a closed half module. When two diagonal-bend elements are directly weaved together, a closed half-module will occur.

The connector elements may have a fixation insertion function of LED light chains.

The connector elements are designed to receive an insertion of a copper wire.

The wire with LED lights on can be merged completely close to the inner surface in any shape created by the system.

The basic elements and connector elements can be formed with a suspension function. In order to hang or attach the modular system it is possible to design functions that click or snap or can be screwed, glued, taped to other objects or interior objects.

CLAIMS:

1. A modular system comprising of substantially flat base modules (1 , 24, etc.) and connector elements (2.13, etc.), wherein the base modules (1 , 24, etc.) comprise edges of the same dimensions and at each edge comprise two or several slots located next to each other and parallel (5, 8, etc.), and where the individual assembly elements (2, 13, etc.) can be retained in the two or more slots (5, 8, etc.) in the same basic module , and where the modular system can form self-supporting spacious structures.

2. Modular system according to claim 1 , wherein the base modules have a diag- onal bending line that creates a basic structural geometric construction.

3. A modular system according to claim 1 or claim 2, wherein the connector elements have one or more barb-shaped coupling head means. 4. Modular system according to any of the preceding claims 1 to 3, wherein the connector elements have coupling heads that can flip up to lock back and forth and side to side.

5. Modular system according to any one of the preceding claims 1 to 4, wherein modular systems have variable and flexible angles in the horizontal plane and the distance between basic elements when weaved together. 6. A modular system according to any one of the preceding claims 1 to 5, wherein the gap openings have a smiley shape. 7. A modular system according to any one of the preceding claims 1 to 6, wherein the modular system has a 360 degree variable angle between basic elements relative to each other.

8. A modular system according to any one of the preceding claims 1 to 7, where- in the modular system has 130 degree angular joints, which provides a closed half module.

9. Modular system according to any one of the preceding claims 1 to 8, wherein the connector elements when weaved in have a fixation function of LED light chains.

10. Modular system according to any one of the preceding claims 1 to 9, wherein the basic elements and connector elements are formed with a suspension function

SUMMARY OF THE INVENTION:

The basic element is a square flat plate with two or more slots 46 in each coupling direction. (FIG 1.) These slots are braid openings 303, 306 for a cross-shaped connector element 108,260. (FIG. 2). The coupling principle consists in merging the two slots in the base element and the cross-shaped connector element four arrow-shaped insertion members 16. (FIG. 3). The elements are merged and laced into each other through the two slots 46 of the base element, whereby the outer ends of the arrow shape then form a retention, which makes them not easily and unintentionally slide apart. (FIG. 4). How powerful this clutch power must be is determined by the overlap of the arrows in relation to the slots. (FIG. 5). The connector element 108, 260 can be inserted through the front slit hole from one side, thereby reaching the other side of the square element. Then it can be inserted through the next slit hole, through which it comes through to the first side again. In this manner, the square element and connector element 108, 260 are braided together. The reason for the two slots 46 is to ensure that the connections are in line with each other. (FIG 6.) Two or more slots 46 ensures the cross-shaped connector element 108,260 and the square element to be brought into alignment with each other. This is important when the next basic element is added to the cross element. It is now possible to continue to weave elements after each other like a flat blanket. (FIG 7.)

When the elements are made of flexible materials such as thin wood, thin metal, plastic and rubber, it will be possible to deflect the connector element's 108,260 arrow tips when pressed into a slit hole. Therefore, they can be made with a wider width than the slit holes they must pass true (FIG. 8)

In case both the base plates and the assembly members materials are not flexible, it may be necessary to force the connector element 108,260 a portion to the side to make it pass the slit hole. The slit hole closest to the outer edge must be made slightly wider than the inner one so that it can give enough leave way. (FIG 9.) To avoid the el- ements twisting in relation to each other so they risk falling appart, it is important that the two middle arrows on the connector that are not used for the weaving joint, can be flipped up so that they gets locked and prevented from twisting to the sides. (FIG. 10 & FIG. 1 1) In the building of the models it is important to be able to control whether elements should hold a certain distance or not. Especially when elements are to be angled, ie 90 degrees or 180 degrees, it is necessary that they do not slide completely close together. (FIG. 12) Both elements can be made in a flat flexible material such as plastic foil, cardboard, paper, metal foil, rubber, EVA or other foam types, natural materials such as wood, bamboo etc.

When two base plates are connected to a connector element, they can be pushed close together, but can also slide out to the point where the arrow couplings barb and hold the elements. The square base plate has two hooks that can form clutch power when the cross element's arrow ends, which are not used to hold plates together, are tilted on the top of the two basic elements. This creates a controlled distance between the basic elements with the maximum connection distance. (Figures 13 & 14) If the arrow-shaped connector element 108, 260 is not "locked" by flipping the two unlocked ends upwards, it is possible to angle two basic elements a lot with each other. So the bending or angle between two basic elements in flat planes can be 35 degrees or more depending on the slit holes lengths relative to the connector element's arrow rod. This technical option allows for the connection of basic elements in a ring of 5, 6, 7, 8 etc. and provides plentiful of design constructions.

Since the connector elements 108,260 are narrower than the basic elements, it will be possible to bend these without slipping out of the grooves in the two slots 46 in each basic element. This allows two basic elements to bend freely relative to each other at 45 degrees or 90 degrees or even 180 degrees until the two basic elements cover each other just by the distance a connector cross gives.

Since the basic elements themselves can be bent diagonally from corner to corner, it is possible to weave a basic element by itself by using a single connector component.

When two basic elements are bent diagonally and each is assembled with a cross- connector, they can be combined with two additional cross connectors, thus acting as a 2/3 module relative to the basic elements.

They will also merge into a diagonal line relative to the basic elements of the basic components.

The flexible modular module building system is able to bend and rotate in any direction, so even though its basic orientation is the total matrix straight up and down, it has very flexible design features that enable it to recreate almost every conceivable form and expression , one can imagine.

The basic element is shaped in its basic form, consisting of four equal sides, each of which forms a module connector side. On the surface of the base element, two or more brackets are made for each module side. The shape of the braid slits may be strait, curved as a smile, oval or arrow-shaped, as well as combinations thereof (FIG 15.) The corners of the slits may be semicircular, rectangular, straight, arrow-shaped or combinations thereof. The slot termination may also be formed with a circle or square larger than the sides of the slit it selves 5, 8, 22, 33, 51 , 59, 61 , 74, 85, 87, 93, 97, 99, 103, 106, 125, 126, 130, 133, 134, 135, 140, 143, 146, 149, 155, 156, 162, 165, 170, 175, 184, 186, 193, 219, 285, 287, 314. Finally, all designs can also be performed as one slot line and thus not at a given distance between the two slot opening sides.

Manufacturingly, there may be advantages to some of these in terms of production giv- ing flawless items.

The basic element may also be formed in a number of geometric shapes, which may advantageously have an appropriate number of side modules (Figures 16, 17, 18 & 19).

The basic elements have a diagonal bending line that gives the elements a triangular geometry. This particular geometry makes it possible to shape, merge or build an array of exciting shapes and expressions. You decide how much you want to bend the items, and depending on how they turn, they will turn in different directions. (FIG 20.)

The angular, triangular shape together with the adjustable angles between the joints created by the cross and base elements make the system create almost every con- ceivable shape. Especially very organic shapes are possible to achieve in stable constructions. (FIG 21.)

THE CONNECTOR COMPONENT

The connector element 108,260 is flexible and can be bent. This allows for 3D con- struction, and not only flat models, but also 3-dimensional models.

The cross-shaped connector element 108,260 with arrows at the ends can be formed in several ways. In case of double symmetry, it is to ease the users in the construction because it will always turn correctly, no matter which end is used. (FIG. 2). However, only two of the arrows are actually used for the connection of two basic elements. The arrow form is chosen to communicate a connecting direction, and also because they have a natural insertion control and a natural clutch power when they are larger than the bracket hole. A circular shape, a drop shape, a square of the tip or an oval shape may also be used. (FIG. 22). On the other hand, the arrow shape is more ideal when slid into a slightly angled, whereby its oversize may slide into place and subsequently, when aligned, give maximum pull back resistance. (FIG. 23)

It will be possible to design only the two unifying ends as arrows, thus creating other possible functions and shaping on one or two of the remaining ends. This can, for example, be used to make a circular end with a hole that can be used for fastening wire, cord or other suspension functionality as attachment to a wall, ceiling or other object. (FIG. 24) The connector element 108,260 can also be made of injection molded plastic, whereby the attachment function can be designed more advanced with click or snap. (FIG. 25)

Furthermore, cross-connectors 108, 260 are configured to form the wires passing through LED light chains that weave into lamps and decorations on the inside. Thus, without the use of tools or other coupling means, it is possible to attach the micro LED light chains close to the foil surface. (FIG. 26 & 27). This creates the maximum "dim" light in accordance to the desired transparency of the foil.

The LED chains can also be retained using a custom-made clip. These clips can be snapped onto the grooves or base plates as they get a hole in the middle or other stra- tegic places as an example. (FIGS. 28 & 29.) The clip is thus fixed in the flexible elements and forms anchor point for the wires or LED lights which are subsequently clipped.

It is also possible to integrate the basic element and the connector element 108,260 in- to one and the same element. (FIG 30.) Hereby, the system is a hermaphrodite construct, which thus has male organs and female organs integrated on the same basic element. In this case, it is therefore unnecessary to have dedicated connector elements. SHORT FIGURE EXPLANATION:

1. Basic element in square version

2. Connector element in cross shaped version

3. Basic element and connector element

4. A connector element weaved into a basic element

5. 2 basic elements weaved by a connector element

6. Cross section of connector element weaved into 2 basic elements 7. 4 basic elements connected by 3 connector elements

8. Connector components arrow-shaped barb head, weaved into 2 slots

9. 2 slots with variable lengths

10. Connector elements "free" coupling heads tilted up and locked on the base element 1 1. Connector element tilted in lock between 2 basic elements

12. 2 basic elements assembled in a 90 degree angle

13. 2 basic elements weaved with the largest possible assembly gap

14. 2 basic elements weaved with the smallest possible assembly gap

15. weaving slot in different designs, arrows, smiles, straight, half-oval, oval,

16. Long 6 module basic element

17. Long 8 module basic element

18. Short 3 module basic element

19. 5 module element

20. Diagonally slightly bent 4 module base element

21. 3 basic elements connected around a 90 degree corner

22. Various configurations of the connector head shape - square, oval, arrow-shaped, circular,

23. Connector elements weaving head inserted in slot with clutch power

24. Connector element head with function as wire holder / fastener.

25. Connector element head with retaining clip function

26. Basic Elements and Connector Element Heads as a wire holder and Light fixation divise.

27. LED light wire inserted between multiple connector elements

28. Snap element for assembly of wires and connector elements

29. Basic element for mounting snap element

30. Androgyn foundation and connector element in one.

31. Split connector element and base element with single slot openings.

DETAILED FIGURE DESCRIPTION:

1. Basic element in square version

1) Is a diagonal curvature across the base element. This makes it possible to bend the element at all angles at 360 degrees and create a triangular prism geometry.

2) Is a notch in the outer edge of the base element, with eg. an angle of 120 degrees and a width corresponding to the arrow-shaped connector so that it can be flipped over the edge.

3) Is the outermost side flank of the base element 4) Is the point of transition on the side to hack shape. This is located in alignment with the lower edge of the inner slot hole.

5) Is the outermost slot hole.

6) Is the middle edge of the base element. The spacing is adjusted precisely according to the spacing of the joint between the arrow-shaped braid members.

7) Is the corner tip of the base element where the diagonal curvature expires.

8) Is the inner weaving hole slot.

2. Connector element in cross-shaped version

9) The joining point of the connector element that is first inserted into the merge hole slots

10) Connector element flip tip side flange with insertion angle

1 1) Retention curve for clutch power and easy removal

12) Connector element braiding head

13) Merge Organ

3. Basic element and connector element

14) Merge Organ

15) Connector Cross

16) Arrow-shaped braid head

17) Weaving head insertion side

18) Weaving head insertion tip

19) Weaving organ side

20) Cross connector-corner

21) Cross connector insertion point height side

22) Basic element braid slots

23) Basic element braid side

24) Basic unit

25) Outer corner side flank

26) Inner side flanks

27) Merge Corner Slit

28) Merge locking hook

29) Basic unit Corner Peak

30) Flip-heeled bottom rounding

31) Basic element side flank height

4. A connector element braided into a basic element

32) Cross shaped connector element inserted in a slot

33) Inner braid slot 34) Braid slot corner

35) Braid hack

36) Basic element middle flank

37) Basic element Corner

38) connector cross arrow head

39) Connector body arrow head rounding

40) Cross-connector organ corner assembly

41) Braid Organ Peak

42) Cross-shaped connector

5. 2 basic elements braided by a connector element

43) Basic element corner

44) Cross-shaped braid element

45) Braid element tip

46) Braid slot

47) Basic element side flanks

48) Braid element end tip.

49) latch lock hack

50) Basic element side flank

51) Braid slot

6. Cross section of connector element braided into 2 basic elements

52) Braid element bent

53) Basic element edge

54) Braid Element Peak

55) Braid element tip edge

56) Basic element center

57) Braid element center

58) Braid element clutch power

59) Basic element brackets

7. 4 basic elements connected by 3 connector elements

60) Cross-shaped braid element

61) Braid slot

62) Braid Element Peak

63) Basic unit Peak

64) Braid Element Peak

65) Braid element tip flank 66) Braid element tip flank

67) Braid element tip flank

68) Basic element side flank

69) Basic element corner

8. Connector head arrow-shaped coupling head braided into 2 braces

70) Connector component tip

71) Connector component tip retention corner

72) Weaving component base

73) Merge slot corner rounding

74) Smile shaped slot

75) Connector element base flange

76) Merge slot side flange

77) Merge Element tip Flange

78) Merge slot curve

9. 2 slots with variable lengths

79) Merge slot ending curve

80) Prolonged merge slot ending top

81) Original prolonged merge slot ending top.

82) Original bracket opening end

83) Merge slot side

10. Connector elements "free" coupling heads tilted up and locked on the base element

84) Connector element corner tip

85) Outermost merge slot

86) Basic unit

87) Inner merge slot

88) Basic element corner

89) Basic element middle flank

90) latch means

91) Cross-shaped braid element

92) Merge element tip retention corner

93) Merge slot with merged connector element

94) Connector element tip flange

95) Connector element tip

96) Connector element base

1 1. Connector element tilted in lock between 2 basic elements 97) Merge slot

98) Connector element tip

99) Merge slot with interlocked connector element

100) Basic element Corner

101) Basic unit side flange

102) Connector element tip

103) Outer merge slot

104) latch means

105) Basic element side flange

106) Inner braid slots

107) Connector element tip retention corner

12. 2 basic elements assembled at 90 degree angle

108) connector element

109) Basic element bend line

1 10) I nner connector slot

1 11) latch means

1 12) Basic unit corner

1 13) Basic unit side flange

1 14) Basic element bending line

1 15) Basic element corner tip

13. 2 basic elements braided with the largest possible assembly gap

1 16) Basic element side flange

1 17) Basic Element Corner

8) latch means

1 19) Basic element side flange

120) Basic element side flange

121) Basic element tip

122) Basic element side flange

123) Connector element tip

124) Basic element tip

125) Basic element merge slot

126) Merge slot

127) Basic element side flank

14. 2 basic elements braided with least possible merge slot 128) latch means

129) Basic element tip 130) merge slot

131) Merge means

132) Basic element side flange

133) Merge slot

134) Merge slot with connector element

135) Merge slot with connector element

136) Basic element tip

15. Splitters in different designs, arrows, smiles, straight, half-oval, oval,

137) Angled braid tip front

138) Merge slot corner rounding

139) Angled merge slot tip back edge

140) Smile shaped merge slot

141) Merge slot corner rounding

142) Smile-shaped merge slot front

143) Linear merge slot

144) Corner rounding

145) Front edge

146) Half-oval merge slot

147) Corner rounding

148) Equilateral merge slot front

149) Oval merge slot

150) Corner rounding

151 ) Merge slot front edge

16. Long 6 module basic element-diamond shaped

152) Long diamond shaped element

153) Side flange locking means

54) Latch means

155) Basic element nose outer merge slot

156) Basic element nose inner merge slot

157) Latch means

158) Basic element nose tip

17. Long 8 module basic element - double diamond

159) Basic Element nose tip

160) Nose Flange

161) Latch means 162) Basic element nose outer merge slot.

163) Side flange

164) Latch means

165) Merge slot

166) Double diamond top

67) Short side flange

168) Side flange

169) Diamond tip

170) Merge slot

171) Bending centerline

172) Latch means

173) Double diamond top

8. Short 3 module basic element

174) Merge slot rounding

175) Merge slot

176) Latch means

177) Short side flange

178) End tip

19.5 module basic element

79) Latch means

180) Latch mean flange

181 ) Short side flange

182) Between flange

183) Five edged basic element center

184) Merge slot

20. Slightly diagonally bent 4 module base element

185) Basic element bending linie

186) Merge slot

187) Basic element corner

188) Side flange

189) Bend linie tip

190) Side flange

191) Base element tip

21. 3 basic elements gathered around 90 degree corner

192) Basic element tip 193) Merge slot

194) Basic element bending edge tip

195) Latch means

196) Basic element bending edge

197) Basic element corner flange

198) Basic element corner

199) Basic element side flange

200) Basic element corner tip

201) Corner

22. Various configurations of the connector elements headers, square, oval, arrow- shaped, circular,

202 ) Square merge head

203 ) Merge head insertion flange

204 ) Merge head restrain flange

205 ) Merge head insertion flange

206 ) Merge head tip

207 ) Oval merge head

208 ) Connector element root

209 ) Merge head restraint corner

210 ) Circular merge head

211 ) Merge head restrain rounding

212 ) Connector element root

213 ) Circular merge head rounding

214 ) Arrow-shaped merge head

215 ) Arrow-shaped retention flange

216 ) Retention rounding

23 Connector element merge head inserted in slot with retention

217 ) Arrow-shaped merge head tip

218 ) Smile-shaped merge slot

219 ) Merge head insertion flange

220 ) Merge head retention rounding

221 ) Connector element root

222 ) Merge slot front edge

223 ) Merge slot rounding

224 ) Merge slot corner rounding

225 ) Merge slot back edge 24. Connector element head with function as wire holder / fastener.

226) Ring-shaped connector element

227) LED power cord insertion.

228) LED power cord jack

229) Connector element circle

230) Connector element base

231) Power cord holding knot

232) LED cord

233) LED cord jack

234) Switching element's function head

25. Connector element head with retaining clip function

235) Clamp-open pressure arm

236) Connector element merge head

237) Connector element root corner

238) Merge head insertion flange

239) Merge head element restrain corner

240) Connector element root

241) Arrow-shaped merge head

242) Merge head tip

243) Merge head restraints corner

244) retaining wall

245) Finger Flange

246) Spring Casing

247) Snap head

248) claw lip

26. Basic elements and connector elements heads as power cord holder and light fixing device

249) Copper wire LED chain

250) Mini LED light

251) Power cord braided behind merge head in a weaved in position.

252) Power cord and LED braided between more connector element organs

253) LED light detached between weavings.

254) copper wire

27. LED light cord inserted between multiple connector elements

255) copper wire

256) Mini LED 257) Weaved in copper wire under connector element merge head

258) Copper wire weaving

259) Basic unit

260) connector element

261 ) Merge tip

262) Basic element side flange

263) Connector element head tip

264) Mini LED

265) Mini LED on copper wire

28. Snap element for assembly of wires and connector elements

266) Connector element tip

267) Connector element root corner

268) Connector element merge tip flange

269) Connector element root

270) Connector element head restraining corner

271 ) Connector element head

272) Merge tip

273) Retainers inner corner

274) Snap Socket

275) Snap

276) Snap collar

277) Mini LED

278) Snap socket

279) Copper Wire

280) Wire Snap

281) Wre snap lip

282) Wre Snap collar

29. Basic element for mounting snap element

283) Basic element

284) Center snap hole

285) Merge slot

286) Basic element Corner

287) Inner merge slot

288) Merge slot corner

289) Merge slot flange 290) Latch means

291) Basic element corner

292) Latch mean flange

293) Basic element side

294) Merge slot side

295) Opening to other fitting elements

296) Circular opening for fittings elements

297) Opening wall

298) Spring slot

299) Spring slot corner curve

300) Opening hole

30. Androgyn base and connector element in one.

301) Merge head

302) Merge head restraint arrow

303) Single merge opening

304) merge head tip

305) Diagonal bending line

306) merge opening

31. Split connector element and base element with single slot openings. 307) Cleaved merge head tip

308) Merge tip flange

309) Latch means

310) Connector element root

311) Basic element side flange

312) Cleaved merge element root

313) Connector element root

314) Merge slot

315) Arrow-shaped merge head restrain hook

316) Split- merge head tip.

Claims

1. 1. A module system comprising substantially flat base modules (24, 86, 259, 283) and connector elements (108,260), wherein the base modules comprise edges (53) in the same dimensions and at each edge comprise two or more slots (5, 8, 22, 33, 51 , 59, 61 , 74, 85, 87, 93, 97, 99, 103, 106, 125, 126, 130, 133, 134, 135, 140, 143, 146, 149, 155, 156, 162, 165, 170, 175, 184, 186, 193, 219, 285, 287, 314) located adjacent to each other and parallel, characterized in that the individual connector element (108,260) can be retained in the two or more slots in the same basic module 24, 86, 259, 283), and the modular system can form self-supporting spacious structures.

2. Modular system according to claim 1 , characterized in that the base modules (24, 86, 259, 283) have a diagonal arc edge (1 , 305) which creates a basic structural geometric construction.

3. Modular system according to claim 1 or claim 2, characterized in that the connector elements (108, 260) have one or more bracket-shaped coupling head members.

4. Modular system according to any one of the preceding claims 1 to 3, character- ized in that the connector elements (108, 260) have coupling heads that can flip up to lock back and forth and side to side.

5. Modular system according to any one of the preceding claims 1 to 4, characterized in that the modular system has variable and flexible angles in the horizontal plane and the distance between basic elements (24, 86, 152, 259, 283) in overall state.

6. Modular system according to any one of the preceding claims 1 to 5, characterized in that the gap openings (74, 140, 218) have a smiley shape.

7. Modular system according to any one of the preceding claims 1 to 6, characterized in that the modular system has a 360 degree variable angle between base elements (24, 86, 152, 259, 283) relative to each other.

8. Modular system according to any of the preceding claims 1 to 7, characterized in that the modular system has 130 degree angular joints, which provides a closed half module.

9. Modular system according to any of the preceding claims 1 to 8, characterized in that the connector elements (108, 260) have a retaining infeed function of LED light chains.

10. Modular system according to any one of the preceding claims 1 to 9, character- ized in that the base elements (24, 86, 152, 259, 283) and connector elements (108, 260) are formed with a suspension function.