Abstract: Façade structure and/or wall structure for a building including tiles (1) and a support structure (2), in which the tiles (1) are received oriented in each case in a vertical plane. The support structure (2) has vertical tension elements (3), to which bearing bodies (4) are attached axially fixed. The vertical tension elements (3) are allocated to the tiles (1) in such a way that at least one of the vertical tension elements (3) allocated to a tile in each case passes through two holding elements (5) of the tile (1), namely a first holding element (5), which is arranged in a lower area of the tile, and a second holding element (5), which is arranged in an upper area of the tile (1). To mount the tiles on the vertical tension elements (3) it is provided that the bearing bodies (4) attached to the vertical tension elements cooperate with the holding elements (5).

Abstract: The invention relates to a method of manufacturing a pressure vessel and to a corresponding pressure vessel. The invention proposes a manufacturing method for a pressure vessel where first a pressure vessel blank having at least one liner type 4 and a cylindrical pipe operatively connected to it is manufactured and subsequently, for instance, a fibre composite material is wrapped onto the pressure vessel blank.

Abstract: A façade structure and/or wall structure for a building which includes comprises tiles (1) and a support structure (2), in which the tiles (1) are received oriented in each case in the vertical plane. The support structure (2) has taut tension elements (3) with bearing bodies (4) fastened thereto, wherein the taut tension elements (3) are preferably formed as taut support cables or as taut tension rods or the like. The several, or at least one, of the tiles (1) received in the support structure (2) are held directly or indirectly supported on the bearing bodies (4) with a weight-supporting bearing, and/or are held locked by means of the bearing bodies (4). The several or at least one of the bearing bodies (4) are or is attached axially fixed exclusively to tension elements (3) oriented vertically in the support structure (2).

Abstract: A façade structure and/or wall structure for a building which includes tiles (1) and a support structure (2), in which the tiles (1) are received oriented in each case in the vertical plane. The support structure (2) has taut tension elements (3). The tiles (1) received in the support structure (2) are mounted in a weight-supporting manner and/or held locked by means of one or more of the allocated tension elements (3), directly and/or via bearing bodies (4) attached to the tension elements (3). The several or at least one of the tiles (1) are or is allocated in each case at least one holding element (5). For anchoring to the tile (1), the holding element (5) has at least one anchoring portion that can be anchored in a receiver (1hn) of the tile, and/or cooperates with an anchor (6) received in a receiver (1hn) of the tile (1), and wherein the holding element (5) has at least one tension element gripping portion for gripping on at least one of the tension elements (3) allocated to the tiles (1).

Abstract: Façade structure and/or wall structure for a building including tiles (1) and a support structure (2), in which the tiles (1) are received oriented in each case in a vertical plane. The support structure (2) has vertical tension elements (3), to which bearing bodies (4) are attached axially fixed. The vertical tension elements (3) are allocated to the tiles (1) in such a way that at least one of the vertical tension elements (3) allocated to a tile in each case passes through two holding elements (5) of the tile (1), namely a first holding element (5), which is arranged in a lower area of the tile, and a second holding element (5), which is arranged in an upper area of the tile (1). To mount the tiles on the vertical tension elements (3) it is provided that the bearing bodies (4) attached to the vertical tension elements cooperate with the holding elements (5).

Abstract: A façade structure is described, with a substructure formed of support profiles, which is arranged in front of a building wall and anchored fixedly in the floor and/or in the building wall, with extruded façade tiles made of ceramic material, which are fastened to the substructure via tile holders, wherein the tile holders are arranged on all or only some of the support profiles, the tile holders being fastened to the support profiles directly or via separate supports, and the tile holders having receivers, which engage with edge areas of the façade tiles to fasten the façade tiles.

Abstract: A centralizer can be produced from a process comprising forming a plurality of composite bow spring from a fiber and a resin, curing the composite bow springs in a desired shape to form a plurality of cured bow springs, disposing a first portion of a resin-wetted fiber about a cylindrical mandrel to form a plurality of collars, disposing the plurality of cured bow springs onto the mandrel with the bow spring ends in contact with the first portion of resin-wetted fiber, disposing a second portion of the resin-wetted fiber about the cylindrical mandrel, curing the collars to form a cured centralizer, and pressing the mandrel out of the cured centralizer.

Abstract: A façade structure is described, with a substructure formed of support profiles, which is arranged in front of a building wall and anchored fixedly in the floor and/or in the building wall, with extruded façade tiles made of ceramic material, which are fastened to the substructure via tile holders, wherein the tile holders are arranged on all or only some of the support profiles, the tile holders being fastened to the support profiles directly or via separate supports, and the tile holders having receivers, which engage with edge areas of the façade tiles to fasten the façade tiles.

Abstract: A façade structure is described, preferably a curtain-wall back-ventilated façade structure, with a substructure formed from support profiles which is arranged in front of a building wall and anchored fixedly in the floor and/or in the building wall, with extruded façade tiles made of ceramic material, preferably clay material, which are fastened to the substructure via tile holders. In order to be able to arrange the façade tiles in the vertical format, in addition to the tile holders which grip on the vertical edges of the façade tiles, it is provided that weight-supporting holders, which have receivers which engage in each case in a lower edge of the façade tiles, are fastened to the support profiles to which the tile holders are fastened or to further support profiles of the substructure directly or via separate supports.

Abstract: A centralizer can be produced from a process comprising forming a plurality of composite bow spring from a fiber and a resin, curing the composite bow springs in a desired shape to form a plurality of cured bow springs, disposing a first portion of a resin-wetted fiber about a cylindrical mandrel to form a plurality of collars, disposing the plurality of cured bow springs onto the mandrel with the bow spring ends in contact with the first portion of resin-wetted fiber, disposing a second portion of the resin-wetted fiber about the cylindrical mandrel, curing the collars to form a cured centralizer, and pressing the mandrel out of the cured centralizer.

Abstract: A centralizer can be produced from a process comprising forming a plurality of composite bow spring from a fiber and a resin, curing the composite bow springs in a desired shape to form a plurality of cured bow springs, disposing a first portion of a resin-wetted fiber about a cylindrical mandrel to form a plurality of collars, disposing the plurality of cured bow springs onto the mandrel with the bow spring ends in contact with the first portion of resin-wetted fiber, disposing a second portion of the resin-wetted fiber about the cylindrical mandrel, curing the collars to form a cured centralizer, and pressing the mandrel out of the cured centralizer.

Abstract: A centralizer comprises a first collar, a second collar, a plurality of bow springs coupling the first collar to the second collar, and a plurality of particulates disposed on an outer surface of at least one bow spring. One or more of the first collar, the second collar, and the bow springs comprises a composite material. In some embodiments, the centralizer comprises a third collar, wherein the plurality of bow springs comprise a first portion of bow springs and a second portion of bow springs, and wherein the first portion of the bow springs couple the first collar to the third collar and the second portion of the bow springs couple the second collar to the third collar.

Abstract: A centralizer comprises a first collar, a second collar, a plurality of bow springs coupling the first collar to the second collar, and a plurality of particulates disposed on an outer surface of at least one bow spring. One or more of the first collar, the second collar, and the bow springs comprises a composite material. In some embodiments, the centralizer comprises a third collar, wherein the plurality of bow springs comprise a first portion of bow springs and a second portion of bow springs, and wherein the first portion of the bow springs couple the first collar to the third collar and the second portion of the bow springs couple the second collar to the third collar.

Abstract: A centralizer comprises a first collar, a second collar, a plurality of bow springs coupling the first collar to the second collar, and a plurality of particulates disposed on an outer surface of at least one bow spring. One or more of the first collar, the second collar, and the bow springs comprises a composite material. In some embodiments, the centralizer comprises a third collar, wherein the plurality of bow springs comprise a first portion of bow springs and a second portion of bow springs, and wherein the first portion of the bow springs couple the first collar to the third collar and the second portion of the bow springs couple the second collar to the third collar.

Abstract: A system and method are disclosed, which can detect and process a position of at least one storage space device moving a bulk material. A first storage space device can have a gantry having two gantry legs, each of the two gantry legs supported on a linearly displaceable foot element. The system can include at least one first non-contact distance sensor, which is fitted on one of the two foot elements to measure a first relative distance between the one foot element and a first fixed reference point. A second non-contact distance sensor is fitted to the other of the two foot elements in order to measure a second relative distance between the other foot element and a second fixed reference point, and an evaluation unit is configured to determine rotation of the first storage space device about a central vertical axis and control the movement of the foot elements.

Abstract: A system and method are disclosed, which can detect and process a position of at least one storage space device moving a bulk material. A first storage space device can have a gantry having two gantry legs, each of the two gantry legs supported on a linearly displaceable foot element. The system can include at least one first non-contact distance sensor, which is fitted on one of the two foot elements to measure a first relative distance between the one foot element and a first fixed reference point. A second non-contact distance sensor is fitted to the other of the two foot elements in order to measure a second relative distance between the other foot element and a second fixed reference point, and an evaluation unit is configured to determine rotation of the first storage space device about a central vertical axis and control the movement of the foot elements.

Abstract: A centralizer can be produced from a process comprising forming a plurality of composite bow spring from a fiber and a resin, curing the composite bow springs in a desired shape to form a plurality of cured bow springs, disposing a first portion of a resin-wetted fiber about a cylindrical mandrel to form a plurality of collars, disposing the plurality of cured bow springs onto the mandrel with the bow spring ends in contact with the first portion of resin-wetted fiber, disposing a second portion of the resin-wetted fiber about the cylindrical mandrel, curing the collars to form a cured centralizer, and pressing the mandrel out of the cured centralizer.

Abstract: A centralizer comprises a first collar, a second collar, a plurality of bow springs coupling the first collar to the second collar, and a plurality of particulates disposed on an outer surface of at least one bow spring. One or more of the first collar, the second collar, and the bow springs comprises a composite material. In some embodiments, the centralizer comprises a third collar, wherein the plurality of bow springs comprise a first portion of bow springs and a second portion of bow springs, and wherein the first portion of the bow springs couple the first collar to the third collar and the second portion of the bow springs couple the second collar to the third collar.

Abstract: A centralizer comprises a first collar, a second collar, a plurality of bow springs coupling the first collar to the second collar, and a plurality of particulates disposed on an outer surface of at least one bow spring. One or more of the first collar, the second collar, and the bow springs comprises a composite material. In some embodiments, the centralizer comprises a third collar, wherein the plurality of bow springs comprise a first portion of bow springs and a second portion of bow springs, and wherein the first portion of the bow springs couple the first collar to the third collar and the second portion of the bow springs couple the second collar to the third collar.

Abstract: A propellant for guns includes at least one energy carrier, nitrocellulose and cellulose acetate butyrate. At least part of the nitrocellulose is alcohol-soluble nitrocellulose. The nitrocellulose serves as a binder and for that purpose is present in a concentration of at least 15% by weight in the propellant. A process for producing a propellant is also provided.