Abstract: A collapsible wind turbine includes a turbine with a vertical axis (A). The turbine is supported by a vertical pylon, pivotably mounted about a hinge, and by linking members connecting the rotation shaft of the turbine to the pylon while maintaining a separation therebetween. The wind turbine includes: —an electricity generator of which the axis of rotation is perpendicular to the longitudinal axis of the pylon, the generator being secured to the ground; and—at least one flexible link connecting and synchronising the rotation of the generator with the rotation shaft of the turbine by linear travel of the flexible link in a closed-circuit path, so as to drive the rotation shaft of the generator by the movement of the turbine. The present structure is, in particular related to land-based wind turbines in a cyclone-prone area.

Abstract: A new rack equipped with at least one ToR switch is pushed into operational mode in a datacenter equipped with at least one operational datacenter switch. A script server fetches from a database information about a first networking configuration of the datacenter switch, and a minimal profile information of the rack. The script server devises a physical cabling plan between the ToR switch and the datacenter switch, reserves ports on the datacenter switch, computes and stores into the database enriched information of the rack, and provides cabling instructions relative to the physical cabling plan to a datacenter technician. The script server fills-in a configuration template, and causes a configuration builder to apply a first networking configuration of the ToR switch, applies a second networking configuration to the datacenter switch, pushes the rack into production, completes a second networking configuration of the ToR switch, and pushes the rack into operational mode.

Abstract: A collapsible wind turbine includes a turbine with a vertical axis (A). The turbine is supported by a vertical pylon, pivotably mounted about a hinge, and by linking members connecting the rotation shaft of the turbine to the pylon while maintaining a separation therebetween. The wind turbine includes: —an electricity generator of which the axis of rotation is perpendicular to the longitudinal axis of the pylon, the generator being secured to the ground; and—at least one flexible link connecting and synchronising the rotation of the generator with the rotation shaft of the turbine by linear travel of the flexible link in a closed-circuit path, so as to drive the rotation shaft of the generator by the movement of the turbine. The present structure is, in particular related to land-based wind turbines in a cyclone-prone area.

Abstract: A new rack equipped with at least one ToR switch is pushed into operational mode in a datacenter equipped with at least one operational datacenter switch. A script server fetches from a database information about a first networking configuration of the datacenter switch, and a minimal profile information of the rack. The script server devises a physical cabling plan between the ToR switch and the datacenter switch, reserves ports on the datacenter switch, computes and stores into the database enriched information of the rack, and provides cabling instructions relative to the physical cabling plan to a datacenter technician. The script server fills-in a configuration template, and causes a configuration builder to apply a first networking configuration of the ToR switch, applies a second networking configuration to the datacenter switch, pushes the rack into production, completes a second networking configuration of the ToR switch, and pushes the rack into operational mode.

Abstract: The invention relates to an assembly for a turbine engine extending about a longitudinal axis, comprising: a nose cone (20) comprising a conical body (22) extending about the longitudinal axis and a flange (23) comprising a first contact surface (24) forming an extension of an inner surface (25) of the conical body (22); a front shroud (21) comprising an overall annular body (26) extending about the longitudinal axis and a flange (27) comprising a first contact surface (28) forming an extension of an outer surface (29) of the annular body (26), the first contact surface (24) of the nose cone (20) being in contact with the first contact surface (28) of the front shroud (21), the first contact surfaces (24, 28) of the nose cone (20) and the front shroud (21) being tilted in the downstream direction towards the longitudinal axis, so that the flange (23) of the nose cone (20) is secured to the flange (27) of the front shroud (21); and attachment elements (30) configured to clamp the first contact surface (24) of

Abstract: Embodiments presented herein provide techniques for generating test cases for transformation modules that are part of a larger data-integration workflow for an extract, transfer, and load (ETL) project. A test case generated according to the present disclosure can be executed independently of the application that generated it and independently of data sources and destinations referenced in the data-integration workflow. To achieve this independence, the test case can include code that simulates data sources and destinations that interact with the transformation module in the data-integration workflow. Furthermore, the test case can be a unit test based on a unit testing framework and can be compatible with a selected software framework.

Abstract: The invention relates to an assembly for a turbine engine extending about a longitudinal axis, comprising: a nose cone (20) comprising a conical body (22) extending about the longitudinal axis and a flange (23) comprising a first contact surface (24) forming an extension of an inner surface (25) of the conical body (22); a front shroud (21) comprising an overall annular body (26) extending about the longitudinal axis and a flange (27) comprising a first contact surface (28) forming an extension of an outer surface (29) of the annular body (26), the first contact surface (24) of the nose cone (20) being in contact with the first contact surface (28) of the front shroud (21), the first contact surfaces (24, 28) of the nose cone (20) and the front shroud (21) being tilted in the downstream direction towards the longitudinal axis, so that the flange (23) of the nose cone (20) is secured to the flange (27) of the front shroud (21); and attachment elements (30) configured to clamp the first contact surface (24) of

Abstract: Techniques for converting a data integration job from one framework to a target are disclosed herein. A conversion tool receives a data integration job comprising a plurality of components. Each component performs an assigned task. The first data integration job is of a given framework. The conversion tool receives a request to convert the data integration job to a data integration job of a target framework. In response to the request, the conversion tool converts the data integration job by determining whether, for each component of the data integration job, a corresponding component in the target framework is available. The conversion tool converts the components to corresponding components and stored the new data integration job in a data store.

Abstract: A method and system for controlling equipment by using gestures. There can be various types of equipment, such as displays, electronically controlled mechanical devices, electronic communication devices or e.g. lighting or audio volume in a room. By choosing e.g. a limited set of gestures, which also can be easy for the user to perform, and a limited amount of method steps, reduction of false positives and false negatives and an efficient way of working with the user can be provided.

Abstract: Techniques for converting a data integration job from one framework to a target are disclosed herein. A conversion tool receives a data integration job comprising a plurality of components. Each component performs an assigned task. The first data integration job is of a given framework. The conversion tool receives a request to convert the data integration job to a data integration job of a target framework. In response to the request, the conversion tool converts the data integration job by determining whether, for each component of the data integration job, a corresponding component in the target framework is available. The conversion tool converts the components to corresponding components and stored the new data integration job in a data store.

Abstract: Embodiments presented herein provide techniques for generating test cases for transformation modules that are part of a larger data-integration workflow for an extract, transfer, and load (ETL) project. A test case generated according to the present disclosure can be executed independently of the application that generated it and independently of data sources and destinations referenced in the data-integration workflow. To achieve this independence, the test case can include code that simulates data sources and destinations that interact with the transformation module in the data-integration workflow. Furthermore, the test case can be a unit test based on a unit testing framework and can be compatible with a selected software framework.