Abstract: A frame for a façade, a façade element, a window or a door is formed from a number of profiled elements, at which an insulating glazing unit having at least two glass panes held at a distance from one another is retained. An intermediate space under negative pressure is formed between the glass panes. The insulating glazing unit is clampingly retained at the edge thereof between an inner sealing profiled element and an outer sealing profiled element and pressure strips are provided on the exterior of the insulating glazing unit, which pressure strips are fastened to the profiled elements of the frame. A thermal-conductor arrangement is provided on and/or in the inner sealing profiled elements at least in some areas. Due to the thermal-conductor arrangement, heat can be fed to the edge of the insulating glazing unit lying against the inner sealing profiled element in the event of cold outside temperatures.

Abstract: An element for a window, door, pitched roof, or façade for installation in a building opening of a wall, a façade, or a pitched roof, includes a device for sending or receiving letters and parcels. The device is designed such that the letters and parcels can be picked up or delivered by an unmanned air vehicle. The element for a window, door, pitched roof, or façade includes an outer leaf and an inner leaf, which are separated from one another by an intermediate space.

Abstract: The present disclosure relates to a frame section for a window or casement frame of a window, door or facade. The frame section includes an undercut cable groove, which is situated on the outer periphery of the frame section and is designed to hold an electric cable including two or more electric conductors in a positive fit. The frame section has a centering frame for the cable, which can be placed over the cable.

Abstract: Wall structure in particular for industrial buildings having a vertical support post (5) supported on the ground, to which an upper end of a support rail (1) is affixed, wherein at least one carrier (2) with a solar module (3) is fixed to the support rail (1) and the support rail (1) is fixed in an inclined position relative to the vertical by means of a spacer (9) positioned between the support post (5) and the support rail (1).

Abstract: Mounting system (1) for solar modules (6), having a substructure (7, 9, 11) on which a frame (2) is supported on which one or more plate-shaped solar modules (6) are held, and having an anchor (13, 35) that can be affixed to a building structure and supports the frame (2) in an upper region, wherein a retainer part (20, 50?) is provided at the anchor (13, 35) in order to fix the frame (2) and being adjustable to alter the inclination relative to the anchor (13, 35) by at least one axis.

Abstract: Mounting system for solar modules (6) having a frame (2) on which one or more plate-shaped solar modules (6) are held, wherein the frame (2) is supported on a substructure (7, 9, 11) that is fixed to a subsurface, characterized in that an anchor (13, 35) is provided that can be affixed to a building structure (17) and supports the frame (2) in an upper region, the frame (2) being slidably positioned relative to the anchor (13, 35).

Abstract: A mounting system (1) for solar modules (6) having base part (11) on which a frame (2) is supported to which one or more plate-shaped solar modules (6) are held, and having an anchor (13, 35) capable of being attached to a wall of a building structure and which supports the frame (2) in an upper region, wherein the base part (11) is pivotable about a horizontal axis (10). Further, the invention relates to a method for installing a solar system.

Abstract: An absorber includes an absorber plate having an at least partly or entirely flat surface. At least one preferably metallic pipe, which likewise has a partly flat surface that rests against the flat surface of the absorber plate, and through which a heat transfer medium for carrying heat can flow, is disposed on the absorber plate with the aid of at least one heat-conducting plate. A method for manufacturing the absorber is characterized in that the at least one pipe and the heat-conducting plate(s) are placed on top of each other or combined. On this arrangement consisting of the at least one pipe and the at least one heat-conducting plate, the partly flat surface of the metallic pipe is then molded in a non-cutting forming work process.

Abstract: A frame section for a window or a door or a façade. The frame section includes an external shell and an internal shell. Each shell has hollow chambers. At least one of the shells includes a first groove and a second groove. The first groove is configured to accommodate hardware fittings. The second groove is configured to accommodate a cable.

Abstract: The invention relates to a frame section (1, 2, 3, 4) for a window or casement frame of a window, door or facade. Said section comprises an undercut cable groove (11), which is situated on the outer periphery of the section and is designed to hold an electric cable (12) comprising two or more electric conductors (14) in a positive fit. The section has a centring (34) frame for the cable (12), which can he placed over the latter (12) and can be fixed to the section.

Abstract: The invention relates to a section for a window or facade and an electric cable for a section for a window, door or facade. The section is characterized by a cable groove, which extends in the longitudinal direction of the frame section and is designed to hold a ribbon cable in a positive fit. According to the invention, the cable groove and the cable are adapted to fit one another in such a way that the conductor cores of the cable can be contacted from the exterior by insulation-piercing or cutting contacts. The invention also relates to a corresponding ribbon cable.