Glass composite with functional element

Abstract

A glass composite has at least one first main glass panel ( 2 ), at least one second main glass panel ( 3 ) arranged at a distance from the first main glass panel, and at least one plate element ( 5 ) arranged between the main glass panels ( 2, 3 ), wherein at least one technical module ( 4 ) is arranged between the two main glass panels ( 2, 3 ) and the plate element ( 5 ) borders a recess ( 6 ) that is adapted to the shape of the technical module ( 4 ), in which recess the technical module ( 4 ) is accommodated.

1 . A glass composite comprising:
 at least one first main glass panel ( 2 ),   at least one second main glass panel ( 3 ) that is spaced apart from the first,   at least one plate element ( 5 ) that is located between the main glass panels ( 2 ,  3 ) and bordering a recess ( 6 ), and   at least one technical module ( 4 ) located between the first and second main glass panels ( 2 ,  3 ) and accommodated within the recess ( 6 ),   wherein a shape of the recess ( 6 ) matches a shape of the at least one technical module ( 4 ).   
     
     
         2 . A glass composite according to  claim 1 , wherein the at least one plate element ( 5 ) is made at least in two parts and wherein the at least two parts in the plane between the first and second main glass panels ( 2 ,  3 ) adjoin the edges of the technical module ( 4 ). 
     
     
         3 . A glass composite according to  claim 1 , wherein the at least one technical module ( 4 ) has one of the group consisting of a display unit, an input unit, a sensor unit, a photovoltaic panel, a current-carrying apparatus, a data-carrying apparatus and a data-recording apparatus. 
     
     
         4 . A glass composite according to  claim 1 , wherein at least one of the first and second main glass panels ( 2 ,  3 ) and the at least one technical module ( 4 ) are arranged at a distance to one another using a spacer ( 9 ) such that cooling of the at least one technical module ( 4 ) is ensured. 
     
     
         5 . A glass composite according to  claim 1 , wherein adjacent to one of the first and second main glass panels ( 2 ,  3 ), there is an illumination system that runs in a plane parallel to these main glass panels ( 2 ,  3 ) and between these main glass panels ( 2 ,  3 ), and a third main glass panel ( 22 ) has an embedded light-conducting illumination panel ( 21 ). 
     
     
         6 . A glass composite according to  claim 1 , wherein adjacent to one of the main glass panels ( 2 ,  3 ,  22 ), especially the main glass panel ( 3 ,  22 ) that is facing a back of the technical module ( 4 ), there is a color layer that runs in a plane that is parallel to these main glass panels ( 2 ,  3 ,  22 ) and between these main glass panels ( 2 ,  3 ,  22 ), and another main glass panel ( 33 ) has a color panel ( 34 ) that is embedded. 
     
     
         7 . A glass composite according to  claim 1 , wherein there are conducting means ( 11 ) that are intended for electrically-conductive connection of the electrical terminals ( 12 ) of the technical module ( 4 ) to the vicinity of the glass composite ( 1 ),
 the conducting means ( 11 ) in the plate element ( 5 ) having a hole or notch or groove ( 13 ) and an electrical line ( 14 ) that is accommodated there, and/or   the conducting means ( 11 ) having first printed conductors ( 15 ) that run on the edges of the plate element ( 5 ) and that are line-like or surface-like there, and/or   between the main glass panels ( 2 ,  3 ), spacers ( 9 ) being inserted on the edge side that define the distance of the main glass panels ( 2 ,  3 ) to one another, the spacer ( 9 ) being a component of the conducting means ( 11 ) and having electrically-conductive structures in regions, especially in the form of cable-like, line-like or surface-like second printed conductors ( 16 ), and/or corner elements ( 17 ) between the spacers ( 9 ) forming a component of the conducting means ( 11 ) and having an electrically-conductive penetration ( 18 ) in order to electrically connect the technical module ( 4 ) to the vicinity of the glass composite ( 1 ).   
     
     
         8 . A glass composite according to  claim 1 , wherein illumination means ( 19 ) are integrated between two main glass panels ( 2 ,  3 ,  22 ,  33 ) and are designed for lateral feed of light between the main glass panels ( 2 ,  3 ,  22 ,  33 ) and wherein the illumination means ( 19 ) are thermally coupled to a spacer ( 9 ). 
     
     
         9 . A glass composite according to  claim 8 , wherein the illumination means ( 19 ) have a light-emitting diode strip ( 24 ) having a board ( 32 ) with light-emitting diodes ( 23 ) attached to it and wherein the board ( 32 ) is used as a cooling body. 
     
     
         10 . A glass composite according to  claim 1 , wherein the at least one plate element ( 5 ) is located between the two main glass panels ( 2 ,  3 ) in one function plane and acts as a frame in this function plane for at least one technical module ( 4 ) by its bordering a recess ( 6 ) that is matched to the shape of the technical module ( 4 ) and in which the technical module ( 4 ) is accommodated. 
     
     
         11 . A glass composite according to  claim 1 , wherein the at least one technical module ( 4 ) is a camera. 
     
     
         12 . A glass composite according to  claim 1 , wherein adjacent to one of the second main glass panel ( 3 ) faces a back of the technical module ( 4 ), there is an illumination system that runs in a plane parallel to the first and second main glass panels ( 2 ,  3 ) and between the first and second main glass panels ( 2 ,  3 ), and a third main glass panel ( 22 ) has an embedded light-conducting illumination panel ( 21 ). 
     
     
         13 . A method for producing a glass composite ( 1 ) with at least one first main glass panel ( 2 ), at least one second main glass panel ( 3 ) that is spaced apart from the first, and at least one plate element ( 5 ) that is located between the main glass panels ( 2 ,  3 ), wherein at least one technical module ( 4 ) is located in a recess ( 6 ) of at least one plate element ( 5 ), which recess is matched to the shape of the technical module ( 4 ), and wherein the at least one plate element ( 5 ) and the at least one technical module ( 4 ) are located between the two main glass panels. 
     
     
         14 . A method according to  claim 16 , wherein the plate element ( 5 ) is made at least in two parts and the parts of the plate element ( 5 ) during arrangement are aligned such that in the plane between the main glass panels ( 2 ,  3 ), edges of the technical module ( 4 ) adjoin the plate edges of the parts of the plate element ( 5 ). 
     
     
         15 . A method according to  claim 16 , wherein between the main glass panels ( 2 ,  3 ) on the edge side, spacers ( 9 ) are inserted so that at least one of the main glass panels ( 2 ,  3 ) and the technical module ( 4 ) are arranged at a distance to one another using the spacers ( 9 ) such that cooling of the technical module ( 4 ) is ensured. 
     
     
         16 . A method according to  claim 16 , wherein adjacent to one of the main glass panels ( 2 ,  3 ), especially the main glass panel ( 3 ) that is facing a back of the technical module ( 4 ), there is an illumination system that runs in a plane that is parallel to these main glass panels ( 2 ,  3 ) and between these main glass panels ( 2 ,  3 ), and a third main glass panel ( 22 ) has an embedded light-conducting illumination panel ( 21 ). 
     
     
         17 . A method according to  claim 16 , wherein adjacent to one of the main glass panels ( 2 ,  3 ,  22 ), especially the main glass panel ( 3 ,  22 ) that is facing a back of the technical module ( 4 ), there is a color layer that runs in a plane that is parallel to these main glass panels ( 2 ,  3 ,  22 ) and between these main glass panels ( 2 ,  3 ,  22 ), and another main glass panel ( 33 ) has a color panel ( 34 ) that is embedded.