Abstract: A container body has a lower body part and an upper body part separated by a visible marking. The lower part only is filled with a body of a liquid substantially up to the marking while leaving the upper part liquid-free and the upper part is closed by a cap. For subsequent consumption of the liquid, the cap is removed and then an additive fluid is added to the liquid in the body an additive and mixed therewith before consumption of the liquid.

Abstract: A method for producing a component from hardenable material, wherein, in a first method step, at least one layer of the material is printed in a 3D printing process, in a second method step, multiple similar reinforcing elements are introduced into the layer(s) and the two method steps are cyclically repeated until the component is completed, characterized in that, with the exception of the two bottommost and the topmost layers, each reinforcing element extends over at least three layers, and the reinforcing elements are arranged in strands which extend through all the layers and have, in each layer, at least three reinforcing elements, the lateral distance (A) of these reinforcing elements from each other within a strand being a maximum of five times the largest lateral extent (D) of a reinforcing element.

Abstract: A process for producing a component from a curable material, a new layer of the material being printed in periodically recurring steps in a 3D printing process onto a layer located thereunder so as to have lower reinforcing elements which protrude above the top of this new layer, and also relates to a component produced by a corresponding process. Known processes and components do not allow reinforcement over a large surface area. The object of designing a process in such a way that the reinforcement thereof withstands high loads is achieved by providing that, after each layer has been printed, upper reinforcing elements are connected to the lower reinforcing elements so as to extend said lower reinforcing elements and so as to form the lower reinforcing elements of the subsequent layer.

Abstract: A process for producing a component from a curable material, a new layer of the material being printed in periodically recurring steps in a 3D printing process onto a layer located thereunder so as to have lower reinforcing elements which protrude above the top of this new layer, and also relates to a component produced by a corresponding process. Known processes and components do not allow reinforcement over a large surface area. The object of designing a process in such a way that the reinforcement thereof withstands high loads is achieved by providing that, after each layer has been printed, upper reinforcing elements are connected to the lower reinforcing elements so as to extend said lower reinforcing elements and so as to form the lower reinforcing elements of the subsequent layer.

Abstract: A container body has a lower body part and an upper body part separated by a visible marking. The lower part only is filled with a body of a liquid substantially up to the marking while leaving the upper part liquid-free and the upper part is closed by a cap. For subsequent consumption of the liquid, the cap is removed and then an additive fluid is added to the liquid in the body an additive and mixed therewith before consumption of the liquid.

Abstract: In a method of additively manufacturing a component from a building material, a material output unit deposits the building material in layers along a defined print pathway. At least, one load transfer element extends into the print pathway. The material output unit deposits the building material onto the load transfer element present in the print pathway, and a load transfer element present in a movement pathway of the material output unit is at least temporarily pushed out of the print pathway by the material output unit while the material output unit deposits the building material along the defined print pathway.

Abstract: A method for producing a component from hardenable material, wherein, in a first method step, at least one layer of the material is printed in a 3D printing process, in a second method step, multiple similar reinforcing elements are introduced into the layer(s) and the two method steps are cyclically repeated until the component is completed, characterized in that, with the exception of the two bottommost and the topmost layers, each reinforcing element extends over at least three layers, and the reinforcing elements are arranged in strands which extend through all the layers and have, in each layer, at least three reinforcing elements, the lateral distance (A) of these reinforcing elements from each other within a strand being a maximum of five times the largest lateral extent (D) of a reinforcing element.

Abstract: A method for producing a component from hardenable material, wherein, in a first method step, at least one layer of the material is printed in a 3D printing process, in a second method step, multiple similar reinforcing elements are introduced into the layer(s) and the two method steps are cyclically repeated until the component is completed, characterized in that, with the exception of the two bottommost and the topmost layers, each reinforcing element extends over at least three layers, and the reinforcing elements are arranged in strands which extend through all the layers and have, in each layer, at least three reinforcing elements, the lateral distance (A) of these reinforcing elements from each other within a strand being a maximum of five times the largest lateral extent (D) of a reinforcing element.

Abstract: The invention relates to a process for producing a component (1) from a curable material, a new layer (2) of the material being printed in periodically recurring steps in a 3D printing process onto a layer (3) located thereunder so as to have lower reinforcing elements (4) which protrude above the top of this new layer (2), and also relates to a component produced by a corresponding process. Known processes and components do not allow reinforcement over a large surface area. The object of designing a process in such a way that the reinforcement thereof withstands high loads is achieved by providing that, after each layer (3) has been printed, upper reinforcing elements (5) are connected to the lower reinforcing elements (4) so as to extend said lower reinforcing elements and so as to form the lower reinforcing elements of the subsequent layer. A corresponding component is the subject of claim 11.

Abstract: A shut-off member for a fluid valve is proposed. The shut-off member includes a blind hole that is made in the shut-off member, the blind hole leading from a dorsal side into a ventral portion; an electronic data carrier which is arranged in a base region of the blind hole; and a casting compound that is introduced into the blind hole and that fixes the electronic data carrier to the shut-off member.

Abstract: A method for producing a component (1) from hardenable material, wherein, in a first method step, at least one layer (2, 3) of the material is printed in a 3D printing process, in a second method step, multiple similar reinforcing elements (4) are introduced into the layer(s) (2, 3) and the two method steps are cyclically repeated until the component (1) is completed, characterized in that, with the exception of the two bottommost and the topmost layers, each reinforcing element (4) extends over at least three layers (2, 3), and the reinforcing elements (4) are arranged in strands (5) which extend through all the layers (2, 3) and have, in each layer (2, 3), at least three reinforcing elements (4), the lateral distance (A) of these reinforcing elements from each other within a strand (5) being a maximum of five times the largest lateral extent (D) of a reinforcing element (4).

Abstract: A scenario may arise in which a circuit switched (CS) bearer reservation is successful but a voice media switching from packet switched (PS) to CS performed by a mobile switching center (MSC) server fails. Certain embodiments provides systems, apparatuses, and methods for recovery from such a scenario. A method, for example, can include determining whether session transfer of a user equipment is possible in response to a request from a network element to initiate session transfer of the user equipment and reporting to the requesting network element either a generic or specific indication that the transfer is not possible, when it is determined that the session transfer is not possible.

Abstract: A shut-off member for a fluid valve is proposed. The shut-off member includes a blind hole that is made in the shut-off member, the blind hole leading from a dorsal side into a ventral portion; an electronic data carrier which is arranged in a base region of the blind hole; and a casting compound that is introduced into the blind hole and that fixes the electronic data carrier to the shut-off member.

Abstract: Systems and techniques for handover management between macro base stations and home base stations. Upon receiving a measurement report from a user device including a physical cell identity and frequency pair associated with a candidate handover home base station, a macro base station transmits a message to a home base station gateway to obtain cell global identifiers of specified home base stations, which may include home base stations associated with a list of physical cell identifiers and frequency pairs including the pair received in the measurement report. Upon receiving the cell global identifiers, the base station identifies a handover target and performs signaling to the user device to direct handover to the target.

Abstract: There is provided a mechanism for executing a handover for a subscriber between mobility management entities for load balancing reasons. A current mobility management entity sends (S10) a handover trigger message to a communication network control element like an eNB for indicating a relocation to the current cell and tracking area of the subscriber. The eNB starts (S20) a handover procedure to itself and sends (S30) a handover required message to the current mobility measurement entity. The current mobility measurement entity continues a handover procedure of a connection for the at least one subscriber from the current mobility management entity to a new mobility management entity, wherein the new mobility management entity is selectable (S40) at the current mobility management entity. The handover procedure can be modified in comparison to a default handover procedure by modifying and/or omitting handover related signaling.

Abstract: A scenario may arise in which a circuit switched (CS) bearer reservation is successful but a voice media switching from packet switched (PS) to CS performed by a mobile switching center (MSC) server fails. Certain embodiments provides systems, apparatuses, and methods for recovery from such a scenario. A method, for example, can include determining whether session transfer of a user equipment is possible in response to a request from a network element to initiate session transfer of the user equipment and reporting to the requesting network element either a generic or specific indication that the transfer is not possible, when it is determined that the session transfer is not possible.

Abstract: Systems and techniques for handover management. A serving base station identifies one more candidate base stations as candidates to receive a handover of a user device and selects a target base station to receive the access request from the user device. The serving base station prepares the candidate base stations to receive the user device's access request and sends a connection reestablishment command to the user device, identifying the target base station by physical cell identifier and frequency. The user device synchronizes to the target base station identified by the physical cell identifier and frequency and performs a connection reestablishment request procedure with respect to the target base station.

Abstract: An automobile windshield wiper blade has an elongated belt-shaped, flexible resilient support element, on the lower belt surface which faces the windshield and has an elastic rubber wiper strip extending along the windshield parallel to the longitudinal axis. A wind deflection strip on the upper belt surface has an incident surface facing the direction of driving wind. The deflection strip extends longitudinally, and has two sides that diverge from a common base point as seen in cross section, such that the incident surface is located at one exterior side and the wind deflection strip has a constant cross section along its entire length. The support element has outer edges, and the sides of the wind deflection strip have respective free ends that have respective claw-like extensions that grip the outer edges of the support element, wherein the wind deflection strip can be snapped or slid longitudinally onto the outer edges.

Abstract: There are provided measures for mobility in heterogeneous network environments, said measures exemplarily including configuring, at a network entity, and/or transmitting, from the network entity to one or more terminals, one or more terminal-unspecific handover qualification data defining a qualification of one or more cells for handover cell selection depending on a terminal speed, autonomously determining a terminal speed, and selecting one or more cells for handover cell selection using the received one or more handover qualification data on the basis of the determined terminal speed. Said measures may exemplarily be applied for mobility procedures in heterogeneous network environments based on LTE, LTE-Advanced, HSPA and/or UMTS radio access systems.

Abstract: An automobile windshield wiper blade has an elongated belt-shaped, flexible resilient support element, on the lower belt surface which faces the windshield and has an elastic rubber wiper strip extending along the windshield parallel to the longitudinal axis. A wind deflection strip on the upper belt surface has an incident surface facing the direction of driving wind. The deflection strip extends longitudinally, and has two sides that diverge from a common base point as seen in cross section, such that the incident surface is located at one exterior side and the wind deflection strip has a constant cross section along its entire length. The support element has outer edges, and the sides of the wind deflection strip have respective free ends that have respective claw-like extensions that grip the outer edges of the support element, wherein the wind deflection strip can be snapped or slid longitudinally onto the outer edges.