Abstract: The present disclosure is related to a display device. The disclosure is further directed towards a method, a computer program code, and an apparatus for providing a correction map for such a display device. The disclosure is further related to a method and a computer program code for operating a display device. The display device comprises a display panel comprising pixels, a cover element, and a decorative element arranged on the cover element. An individual brightness of the pixels of the display panel is adapted to a light transmissivity of the decorative element at the respective pixel positions.

Abstract: A method includes detecting a first time, at which a specific partial discharge pulse is detected in an energy transmission cable at a first point at one cable end; detecting a second time, at which the pulse is detected in the cable at a second point at the other cable end; determining a fault location along the in accordance with the first and the second times; determining third and fourth points located in the cable, the third and fourth points delimiting a portion of the cable, including the fault location and none of the other points; detecting a third time, at which a further specific partial discharge pulse is detected in the cable at the third point; detecting a fourth time, at which the further pulse is detected in the cable at the fourth point; correcting the determined fault location in accordance with the third and fourth times.

Abstract: The following steps are carried out for localizing a fault location (6) in a power transmission cable (1): Detecting a first time at which a specific partial discharge pulse is detected in the power transmission cable (1) at a first measurement point (E1) which is arranged at one end of the power transmission cable (1). Detecting a second time at which the specific partial discharge pulse is detected in the power transmission cable (1) at a second measurement point (E6) which is arranged at the other end of the power transmission cable (1). Determining a fault location (6) along the power transmission cable (1), at which fault location the specific partial discharge pulse was generated, depending on the first and the second time.

Abstract: A method automatically parameterizes bay controllers and/or protective devices of a switching arrangement. The method includes automatically detecting the topology of the switching arrangement on the basis of topology information, and automatically determining interlocking and/or enabling conditions for at least one device on the basis of the topology. Communication connections for the at least one device are automatically specified while taking into account the interlocking and/or enabling conditions determined for this device. The at least one device is parameterized with the interlocking and/or enabling conditions and the communication connections and the topology determined for this device, so that interlocking or enabling of a switching action in the at least one device is controllable during the operation of the switching arrangement.

Abstract: Virtual machines may be configured in a complex computing environment having dependencies among themselves and on the virtualization platform they operate on. The present disclosure formalizes these dependencies by defining a component framework that enables a deployer to know about the dependencies at deployment time and allow the platform to ensure that all required dependencies are satisfied at runtime. Disclosed is a set of Open Virtualization Format (OVF) sections that allow an OVF package to express dependencies to services using OVF meta-data. At deployment time, those OVF sections allow the platform to recognize and honor those dependencies, and at runtime provide the virtual machines with appropriate configuration meta-data.

Abstract: A method automatically parameterizes bay controllers and/or protective devices of a switching arrangement. The method includes automatically detecting the topology of the switching arrangement on the basis of topology information, and automatically determining interlocking and/or enabling conditions for at least one device on the basis of the topology. Communication connections for the at least one device are automatically specified while taking into account the interlocking and/or enabling conditions determined for this device. The at least one device is parameterized with the interlocking and/or enabling conditions and the communication connections and the topology determined for this device, so that interlocking or enabling of a switching action in the at least one device is controllable during the operation of the switching arrangement.

Abstract: A disclosed example method to aggregate resources in a cloud involves receiving a request for a resource at a first tenant application programming interface provider of an internal cloud service. The example method involves using a virtualization platform application programming interface client of the internal cloud service to access the resource when the resource is an internal resource. When the resource is an external resource, a tenant application programming interface client of the internal cloud service is used to send a second request for the resource to a second tenant application programming interface provider of an external cloud service.

Abstract: A disclosed example method to aggregate resources in a cloud involves receiving a request for a resource at a first tenant application programming interface provider of an internal cloud service. The example method involves using a virtualization platform application programming interface client of the internal cloud service to access the resource when the resource is an internal resource. When the resource is an external resource, a tenant application programming interface client of the internal cloud service is used to send a second request for the resource to a second tenant application programming interface provider of an external cloud service.

Abstract: The present invention relates to a protection device for a vehicle intended for military application comprising a wall configuration with ballistic protection properties arranged to constitute a delimitation of a protection zone of the vehicle, wherein said wall configuration is movably arranged in the vehicle for adaptation according to needs of the configuration of said protection zone. The invention also relates to a vehicle.

Abstract: Virtual machines may be configured in a complex computing environment having dependencies among themselves and on the virtualization platform they operate on. The present disclosure formalizes these dependencies by defining a component framework that enables a deployer to know about the dependencies at deployment time and allow the platform to ensure that all required dependencies are satisfied at runtime. Disclosed is a set of Open Virtualization Format (OVF) sections that allow an OVF package to express dependencies to services using OVF meta-data. At deployment time, those OVF sections allow the platform to recognize and honor those dependencies, and at runtime provide the virtual machines with appropriate configuration meta-data.

Abstract: In a specific embodiment, a secure two-way multi-message communication channel between a virtualization platform and a guest running on a virtual machine hosted on the virtualization platform is provided using the OVF environment channel. The OVF environment may be used to transmit communication parameters from the platform to the virtual machine during power-on. At runtime, a guest executing on the virtual machine may use the communication parameters to establish a secure two-way communication channel with the virtualization platform.

Abstract: A weapon turret (10) intended for a military vehicle and equipped with a medium-calibre automatic weapon (12) and a relatively heavy-calibre weapon (14), in which the two weapons are, firstly, mounted in a weapon holder fitted in the weapon turret such that they can be jointly pivoted about a common horizontal pivot axis (18) and, secondly, can be pivoted jointly with the turret about a vertical centre axis (20) of the same, the heavy-calibre weapon (14) being mounted next to and parallel with the automatic weapon (12) and close up to this. At least one ammunition magazine (48) in the weapon turret (10) is provided with at least one guide duct (44, 46) for guiding an ammunition belt from the magazine to the automatic weapon (12). The automatic weapon (12) is mounted in the weapon holder such that the longitudinal axis of the barrel (26) of the automatic weapon extends through the common horizontal pivot axis (18) and through the vertical centre axis (20) of the weapon turret.