mhurhangee/ep-ind-claims huggingface dataset:
A system for damping a vessel's motion using a lifting effect, comprising at least - one first stabilisation element (104, 204) that extends from the vessel's hull, below the water line, on a side of the vessel, which at least one stabilisation element (104, 204) is configured as a wing, - sensor means for sensing the vessel's motion and delivering control signals on the basis thereof, as well as - moving means (101, 201) for moving the at least one wing-shaped stabilisation element (104, 204) relative to the hull, characterised in that the at least one wing-shaped stabilisation element (104, 204) is a wing-shaped non-rotating stabilisation element and wherein the moving means are configured for imparting a non-rotatable, pivoting movement in the direction of the stem or the stern of the vessel to the at least one wing-shaped non-rotating stabilisation element and setting a tilt angle (α, β) of the at least one wing-shaped non-rotating stabilisation element (104, 204) relative to the ship's hull in dependence on the speed of the vessel and the control signals delivered by the sensor means, such that the lifting effect generated by the at least one wing-shaped non-rotating stabilisation element (104, 204) will have a damping effect on the ship's motion being sensed. - one first stabilisation element (104, 204) that extends from the vessel's hull, below the water line, on a side of the vessel, which at least one stabilisation element (104, 204) is configured as a wing, - sensor means for sensing the vessel's motion and delivering control signals on the basis thereof, as well as - moving means (101, 201) for moving the at least one wing-shaped stabilisation element (104, 204) relative to the hull, characterised in that the at least one wing-shaped stabilisation element (104, 204) is a wing-shaped non-rotating stabilisation element and wherein the moving means are configured for imparting a non-rotatable, pivoting movement in the direction of the stem or the stern of the vessel to the at least one wing-shaped non-rotating stabilisation element and setting a tilt angle (α, β) of the at least one wing-shaped non-rotating stabilisation element (104, 204) relative to the ship's hull in dependence on the speed of the vessel and the control signals delivered by the sensor means, such that the lifting effect generated by the at least one wing-shaped non-rotating stabilisation element (104, 204) will have a damping effect on the ship's motion being sensed.
A current-voltage non-linear resistor comprising: a sintered body of a mixture whose chief constituent is zinc oxide and including as auxiliary constituents at least Bi, Sb, Mn, Co, and Ni; characterized in that an average grain size of said mixture is no more than 0.4 μ m before the heating step of sintering, as measured by laser diffraction/dispersion; and an average grain size of zinc oxide grains in said sintered body is no more than 7.5 μ m, as measured with a scanning Electron Microscope, and a standard deviation based on a grain size distribution of zinc oxide grains in said sintered body is no more than 15% of said average grain size of said zinc oxide grains. a sintered body of a mixture whose chief constituent is zinc oxide and including as auxiliary constituents at least Bi, Sb, Mn, Co, and Ni; an average grain size of said mixture is no more than 0.4 μ m before the heating step of sintering, as measured by laser diffraction/dispersion; and an average grain size of zinc oxide grains in said sintered body is no more than 7.5 μ m, as measured with a scanning Electron Microscope, and a standard deviation based on a grain size distribution of zinc oxide grains in said sintered body is no more than 15% of said average grain size of said zinc oxide grains.
A flight control system for an aircraft having an autoflight and autothrust system for receiving and processing a target airspeed, the autoflight system being arranged to control the speed of the aircraft via an elevator of the aircraft and the autothrust system being arranged to control the speed of the aircraft via engine power, the autoflight system and the autothrust system configured to receive control mode inputs to automatically manage energy by coordinating autoflight target and autothrust system commands, the system comprising a control module with a processor configured by programming instructions or non-transient computer readable media, the autothrust system configured to: determine an equivalent true airspeed error between a target airspeed and a measured realtime airspeed; convert the equivalent true airspeed error into a desired acceleration command; limiting the desired acceleration command using a pre-programmed acceleration limiter converting the limited desired acceleration command into a potential flight path angle target tFPA; and the control module configured to: receive the potential flight path angle target tFPA from the autothrust system; receive a vertical target from the autoflight system rFPA that is based on the autoflight control mode inputs, the autoflight control mode inputs including a mode selection; generate a potential flight path angle command PFPAcmd for use as an active autothrust command based on the rFPA and tFPA by summing the rFPA and tFPA, the summing being bounded by an available acceleration provided by an acceleration limiter; generate an FPA command FPAcmd for use as the active autoflight target based on the rFPA; and present the rFPA and the PFPAcmd on a primary flight display. determine an equivalent true airspeed error between a target airspeed and a measured realtime airspeed; convert the equivalent true airspeed error into a desired acceleration command; limiting the desired acceleration command using a pre-programmed acceleration limiter receive the potential flight path angle target tFPA from the autothrust system; receive a vertical target from the autoflight system rFPA that is based on the autoflight control mode inputs, the autoflight control mode inputs including a mode selection; generate a potential flight path angle command PFPAcmd for use as an active autothrust command based on the rFPA and tFPA by summing the rFPA and tFPA, the summing being bounded by an available acceleration provided by an acceleration limiter; generate an FPA command FPAcmd for use as the active autoflight target based on the rFPA; and present the rFPA and the PFPAcmd on a primary flight display.
A pneumatic tire, comprising a sidewall produced from a rubber composition for a sidewall, comprising: a rubber component that contains a modified natural rubber with a phosphorus content of 200 ppm or less; and carbon black and/or a white filler. a rubber component that contains a modified natural rubber with a phosphorus content of 200 ppm or less; and carbon black and/or a white filler.
An intermediate material for the manufacture of composite components, the intermediate material comprising: a flat and elongate prepreg layer; and, an interleaving layer in contact with at least one side of the prepreg layer, the interleaving layer comprising at least two sections of thermoplastic interleaving material (120a, 120b), each of the sections of thermoplastic interleaving material (120a, 120b) being joined by heat to at least one other section of thermoplastic interleaving material to form a continuous length of interleaving material, whereby the at least two sections of thermoplastic interleaving material (120a, 120b) are joined by partial melting, which partial melting is caused by the application of heat; and in which the intermediate material is wound such that the interleaving layer reduces or eliminates self-contact of the prepreg layer. a flat and elongate prepreg layer; and, an interleaving layer in contact with at least one side of the prepreg layer, the interleaving layer comprising at least two sections of thermoplastic interleaving material (120a, 120b), each of the sections of thermoplastic interleaving material (120a, 120b) being joined by heat to at least one other section of thermoplastic interleaving material to form a continuous length of interleaving material, whereby the at least two sections of thermoplastic interleaving material (120a, 120b) are joined by partial melting, which partial melting is caused by the application of heat; and in which the intermediate material is wound such that the interleaving layer reduces or eliminates self-contact of the prepreg layer.
A processor-based device, comprising: a processing element, PE, comprising: an execution pipeline circuit comprising an instruction decode stage and an execute stage; and a memory management unit, MMU; the PE configured to: receive, using the instruction decode stage, a memory-pointer-referencing, MPR, instruction that references a plurality of bytes that comprises a virtual memory address, wherein the MPR instruction comprises an enqueue instruction directed to a peripheral device; transmit, to the MMU, a request for address translation of the virtual memory address; perform, using the MMU, speculative address translation of the virtual memory address into a corresponding translated memory address; execute, using the execute stage of the execution pipeline circuit, the MPR instruction; and responsive to executing the MPR instruction, transmit an enqueue command referencing the plurality of bytes to the peripheral device. a processing element, PE, comprising: an execution pipeline circuit comprising an instruction decode stage and an execute stage; and a memory management unit, MMU; an execution pipeline circuit comprising an instruction decode stage and an execute stage; and a memory management unit, MMU; the PE configured to: receive, using the instruction decode stage, a memory-pointer-referencing, MPR, instruction that references a plurality of bytes that comprises a virtual memory address, wherein the MPR instruction comprises an enqueue instruction directed to a peripheral device; transmit, to the MMU, a request for address translation of the virtual memory address; perform, using the MMU, speculative address translation of the virtual memory address into a corresponding translated memory address; execute, using the execute stage of the execution pipeline circuit, the MPR instruction; and responsive to executing the MPR instruction, transmit an enqueue command referencing the plurality of bytes to the peripheral device. receive, using the instruction decode stage, a memory-pointer-referencing, MPR, instruction that references a plurality of bytes that comprises a virtual memory address, wherein the MPR instruction comprises an enqueue instruction directed to a peripheral device; transmit, to the MMU, a request for address translation of the virtual memory address; perform, using the MMU, speculative address translation of the virtual memory address into a corresponding translated memory address; execute, using the execute stage of the execution pipeline circuit, the MPR instruction; and responsive to executing the MPR instruction, transmit an enqueue command referencing the plurality of bytes to the peripheral device.
A method for receiving a media content by an apparatus in a multimedia system, the method comprising: receiving, through a communication network, a data stream comprising data for a transmission unit which comprises at least a part of media data related to the media content, wherein the transmission unit is one of a media unit, a media fragment unit, MFU, which is a fragment of the media unit, or a fragment of the MFU, and processing the received data stream, the method being characterized in that: wherein if the transmission unit is the MFU, the MFU comprises a count value indicating a number of at least one subsequent MFU of which decoding is processed dependently based on the MFU, and information indicating a priority of the MFU relative to another MFU within the media unit, and wherein the count value and the information indicating the priority are included in a header of the MFU. receiving, through a communication network, a data stream comprising data for a transmission unit which comprises at least a part of media data related to the media content, wherein the transmission unit is one of a media unit, a media fragment unit, MFU, which is a fragment of the media unit, or a fragment of the MFU, and processing the received data stream, the method being characterized in that: wherein if the transmission unit is the MFU, the MFU comprises a count value indicating a number of at least one subsequent MFU of which decoding is processed dependently based on the MFU, and information indicating a priority of the MFU relative to another MFU within the media unit, and wherein the count value and the information indicating the priority are included in a header of the MFU. wherein if the transmission unit is the MFU, the MFU comprises a count value indicating a number of at least one subsequent MFU of which decoding is processed dependently based on the MFU, and information indicating a priority of the MFU relative to another MFU within the media unit, and wherein the count value and the information indicating the priority are included in a header of the MFU.
A cutter, comprising: a base body portion that comprises an end portion and a back portion; and a cutting edge portion disposed along the end portion of the base body portion and connected to the end portion, wherein the base body portion includes a first region, a second region, and a third region in an order from the back portion to the cutting edge portion, the second region has hardness lower than those of the first region and the third region, the third region has hardness higher than that of the first region, and the base body portion comprises a fourth region located between the third region and the cutting edge portion and has hardness lower than that of the first region. a base body portion that comprises an end portion and a back portion; and a cutting edge portion disposed along the end portion of the base body portion and connected to the end portion, wherein the base body portion includes a first region, a second region, and a third region in an order from the back portion to the cutting edge portion, the second region has hardness lower than those of the first region and the third region, the third region has hardness higher than that of the first region, and the base body portion comprises a fourth region located between the third region and the cutting edge portion and has hardness lower than that of the first region.
Method for producing a raw material comprising the steps, Feeding CO 2 and H 2 O into the cathode compartment of an electrolysis apparatus and generating a synthesis gas by applying a DC voltage to the anode located in the anode compartment and the cathode of the electrolysis apparatus located in the cathode compartment, wherein the anode compartment is separated from the cathode compartment by a wall permeable to oxygen ions; wherein a high temperature electrolysis is performed; Further processing the synthesis gas produced by electrolysis into an intermediate product in an intermediate product generating apparatus, Producing the raw material by oxidizing the intermediate product with oxygen generated by the electrolysis in a raw material generating apparatus, characterized in that oxygen is introduced into the anode compartment via a gas inlet during the electrolysis, wherein the purity of the oxygen introduced into the anode compartment is at least 90%.
Door frame construction, in particular for an aircraft or spacecraft, comprising: a former; a fibre metal laminate which is connected to the former; and an outer skin which is connected to the fibre metal laminate. a former; a fibre metal laminate which is connected to the former; and an outer skin which is connected to the fibre metal laminate.
A method for applying network services related to geographic location comprising: receiving definition information for a plurality of regions within an operator's network at a region detection module; receiving geo-service definitions for the regions from a geo-service definition and enablement module, wherein the geo-service definitions comprise geo-service actions based on pre-determined logical conditions for the regions and subscriber traffic flows, wherein the geo-service actions are configured to impact a subscriber's traffic flow; periodically monitoring a subscriber's traffic flow, to determine information related to a subscriber from the subscriber's traffic flow by a subscriber detection and traffic management module, wherein the information related to the subscriber's traffic flow comprises at least one of application and protocol being accessed by the subscriber; determining the subscriber's location by a location detection module, based on information exchanged over network links; determining the subscriber's region within the plurality of regions based on the subscriber's location; defining at least one correlated geo-service definition to apply to the traffic flow; applying the at least one correlated geo-service definition based on the subscriber's region and based on the information related to the subscriber's traffic flow to modify the traffic flow; determining if the subscriber's traffic flow has changed; and re-applying geo-service definitions based on the subscriber's region and information related to the changed traffic flow. receiving definition information for a plurality of regions within an operator's network at a region detection module; receiving geo-service definitions for the regions from a geo-service definition and enablement module, wherein the geo-service definitions comprise geo-service actions based on pre-determined logical conditions for the regions and subscriber traffic flows, wherein the geo-service actions are configured to impact a subscriber's traffic flow; periodically monitoring a subscriber's traffic flow, to determine information related to a subscriber from the subscriber's traffic flow by a subscriber detection and traffic management module, wherein the information related to the subscriber's traffic flow comprises at least one of application and protocol being accessed by the subscriber; determining the subscriber's location by a location detection module, based on information exchanged over network links; determining the subscriber's region within the plurality of regions based on the subscriber's location; defining at least one correlated geo-service definition to apply to the traffic flow; applying the at least one correlated geo-service definition based on the subscriber's region and based on the information related to the subscriber's traffic flow to modify the traffic flow; determining if the subscriber's traffic flow has changed; and re-applying geo-service definitions based on the subscriber's region and information related to the changed traffic flow.
Method for controlling a recirculation pump system comprising a recirculation pump with measurable running properties for the circulation of suds at an adjustable volumetric flow rate in a suds container of a washing machine, wherein the measurable running properties of the recirculation pump system are selected from the group that comprises: direct pump parameters such as a time curve and/or an amount of an electric motor current that drives the recirculation pump, a time curve and/or an amount of a recirculation pump rotational speed, and a time curve and/or an amount of an electric power that is received by the recirculation pump, and wherein the method comprises the following method steps: a) operating the recirculation pump system with operating parameters such as at least one volumetric flow rate during at least one volumetric flow rate-time interval, b) analysing the running properties of the recirculation pump system during the operation of the recirculation pump system according to method step a) in order to detect slurp-pumping of a suds-air mixture through the recirculation pump system, c) recording slurp pump information if the slurp-pumping of the recirculation pump has been detected in step b), d) comparing the slurp pump information obtained in step c) with at least one predetermined and associated slurp pump standard value, e) varying at least one of the operating parameters consisting of the volumetric flow rate and the volumetric flow rate-time interval such that a time-averaged volumetric flow rate circulated by the circulation pump system is reduced if the at least one slurp pump standard value in method step d) has been exceeded, and waiting for a wait time and/or repeating method steps b) to e) until the slurp-pumping of the recirculation pump is no longer detected by means of the measurable running properties during the operation of the recirculation pump system. a) operating the recirculation pump system with operating parameters such as at least one volumetric flow rate during at least one volumetric flow rate-time interval, b) analysing the running properties of the recirculation pump system during the operation of the recirculation pump system according to method step a) in order to detect slurp-pumping of a suds-air mixture through the recirculation pump system, c) recording slurp pump information if the slurp-pumping of the recirculation pump has been detected in step b), d) comparing the slurp pump information obtained in step c) with at least one predetermined and associated slurp pump standard value, e) varying at least one of the operating parameters consisting of the volumetric flow rate and the volumetric flow rate-time interval such that a time-averaged volumetric flow rate circulated by the circulation pump system is reduced if the at least one slurp pump standard value in method step d) has been exceeded, and