mhurhangee/ep-ind-claims huggingface dataset:
An energy conversion device for converting mechanical energy obtained from flowing fluid into electrical energy, comprising: a blade; a primary measuring device for measuring a response of the blade when the fluid flow is applied to the blade by an external force and generating a primary measured value corresponding to the measurement result of the response; a memory for storing control values including primary control values that represent internal environment of the device and secondary control values that represent external environment of the device; a controller configured to read a primary control value among the control values within the memory in response to the primary measured value, and to generate control signal using the primary control value; and an actuator configured to change a three-dimensional shape of the blade in response to the control signal output from the controller, wherein the energy conversion device is configured to measure wind direction and wind speed using a wind vane or anemometer installed in a nacelle, or using a receiver that receives weather information including information about the wind direction and wind speed from a system that provides satellites or the weather information, and wherein the internal environment including at least one of a cumulative generation amount of the energy conversion device, a cumulative fatigue of the blade, a cumulative ultraviolet light amount on the blade, and a remaining lifespan of the blade. a blade; a primary measuring device for measuring a response of the blade when the fluid flow is applied to the blade by an external force and generating a primary measured value corresponding to the measurement result of the response; a memory for storing control values including primary control values that represent internal environment of the device and secondary control values that represent external environment of the device; a controller configured to read a primary control value among the control values within the memory in response to the primary measured value, and to generate control signal using the primary control value; and an actuator configured to change a three-dimensional shape of the blade in response to the control signal output from the controller, wherein the energy conversion device is configured to measure wind direction and wind speed using a wind vane or anemometer installed in a nacelle, or using a receiver that receives weather information including information about the wind direction and wind speed from a system that provides satellites or the weather information, and wherein the internal environment including at least one of a cumulative generation amount of the energy conversion device, a cumulative fatigue of the blade, a cumulative ultraviolet light amount on the blade, and a remaining lifespan of the blade.
An anesthesia system having a volume reflector, a breathing circuit, a gas sensor unit, a processing unit, and a display operatively connected to said processing unit, wherein said processing unit is configured to provide a status indicator on said display for gas in said volume reflector, characterized in said status indicator including a graphical representation of: - an extent of a driving gas of said volume reflector and/or a patient gas in said volume reflector, and - a flow of gas and a direction of said flow in said volume reflector, wherein said driving gas and said patient gas are present as adjacent gas pillars in operation of said volume reflector, and said graphical representation includes a representation of a present extent of said driving gas pillar and/or said patient gas pillar in said volume reflector, and, wherein said graphical representation further includes a representation of a present wave front position and/or direction of said driving gas pillar in said volume reflector indicating the propagation of the driving gas in the volume relfector during a breathing cycle. - an extent of a driving gas of said volume reflector and/or a patient gas in said volume reflector, and - a flow of gas and a direction of said flow in said volume reflector,
A method for controlling acceleration of a work vehicle, the method comprising: - determining, by a computing device, a vehicle speed error based on a desired speed for the work vehicle and an actual speed of the work vehicle; - calculating, by the computing device, an initial acceleration command for the work vehicle based on the vehicle speed error, - monitoring, by the computing device, a current engine load on an engine of the work vehicle; - determining, by the computing device, an engine load error for the engine based on the current engine load, the engine load error signal corresponding to the excess load capability for the engine based on the current operating conditions; - calculating, by the computing device, an acceleration limit for the work vehicle based on the engine load error, the acceleration limit being calculated via a PID control algorithm implemented by the computing device; and - controlling, by the computing device, the operation of at least one of the engine or a transmission of the work vehicle based on a final acceleration command to adjust the actual speed of the work vehicle, the final acceleration command corresponding to the lesser of the initial acceleration command and the acceleration limit. - determining, by a computing device, a vehicle speed error based on a desired speed for the work vehicle and an actual speed of the work vehicle; - calculating, by the computing device, an initial acceleration command for the work vehicle based on the vehicle speed error, - monitoring, by the computing device, a current engine load on an engine of the work vehicle; - determining, by the computing device, an engine load error for the engine based on the current engine load, the engine load error signal corresponding to the excess load capability for the engine based on the current operating conditions; - calculating, by the computing device, an acceleration limit for the work vehicle based on the engine load error, the acceleration limit being calculated via a PID control algorithm implemented by the computing device; and - controlling, by the computing device, the operation of at least one of the engine or a transmission of the work vehicle based on a final acceleration command to adjust the actual speed of the work vehicle, the final acceleration command corresponding to the lesser of the initial acceleration command and the acceleration limit.
Air pipe or air hose, in particular, for an intake tract of an internal combustion engine, with a pipe or hose end for attachment to a pipe socket and with a clamp seat for a clamp serving to attach the pipe or hose end to the pipe socket, wherein the pipe or hose end radially inward from the clamp seat has an inwardly projecting peripheral annular ring, whose width is less than the width of the clamp seat and is integrally formed on an inner periphery of the pipe or hose end, characterized in that the annular ring crosses the longitudinal central plane of the clamp seat perpendicular to the longitudinal central axis of the pipe or hose end in at least two places.
A bone screw comprising (a) a shaft comprising: (i) a head, a lower section, and a middle section therebetween, wherein the shaft comprises a circular cross-section; (ii) an outer wall surface, wherein a plurality of threads is disposed along at least a portion of the outer wall surface; and (iii) a bore defining an inner wall surface and located in the middle section, wherein the bore comprises a substantially cylindrical shape; and (b) a magnet configured to fit within the bore, wherein the magnet is a rare-earth magnet, characterized in that the bore comprises a substantially cylindrical shape containing a flattened side in the direction of the long axis of the bore; and wherein the magnet comprises a substantially cylindrical shape containing a flattened side in the direction of the long axis of the magnet. (a) a shaft comprising: (i) a head, a lower section, and a middle section therebetween, wherein the shaft comprises a circular cross-section; (ii) an outer wall surface, wherein a plurality of threads is disposed along at least a portion of the outer wall surface; and (iii) a bore defining an inner wall surface and located in the middle section, wherein the bore comprises a substantially cylindrical shape; and (i) a head, a lower section, and a middle section therebetween, wherein the shaft comprises a circular cross-section; (ii) an outer wall surface, wherein a plurality of threads is disposed along at least a portion of the outer wall surface; and (iii) a bore defining an inner wall surface and located in the middle section, wherein the bore comprises a substantially cylindrical shape; and (b) a magnet configured to fit within the bore, wherein the magnet is a rare-earth magnet,
Rotor for an electric motor, having a cylindrical shape and comprising a main body which is mounted on a shaft, in which body at least a plurality of peripherally arranged grooves are formed, into each of which a permanent magnet is inserted and fixed, the main body and the permanent magnets inserted therein being embedded in a plastics compound in order to form a cage having peripheral rings (16a, 16b) formed on the end faces thereof, which rings are connected to one another by means of longitudinal struts which are formed between two inserted permanent magnets in each case, characterised in that, each of the grooves in the main body have at least one continuous channel in the groove base thereof containing a continuous strut (17b, 17c) made of plastics material which connects the two rings (16a, 16b) formed on the end faces and by means of which the permanent magnet in question is held in the predetermined position.
A serving tray comprising: a top surface; a bottom surface disposed on an opposing side of the top surface; a raised edge disposed about the top surface; at least two elongated lips disposed within the raised edge; a textured relief defined into the top surface, wherein the top surface and the bottom surface are comprised of at least one synthetic material; characterized in that it further comprises an inner support structure disposed circumferentially around the top surface; wherein the textured relief is comprised of an insert integrally bonded with the at least one synthetic material, and the tray is comprised of a plurality of synthetic layers comprising at least two layers of randomly distributed and continuous glass fiber filament sheets, at least two layers of crisscrossed interlocking glass fiber sheets with a chemical binder, and an interstitial layer of polycarbonate resin.. a top surface; a bottom surface disposed on an opposing side of the top surface; a raised edge disposed about the top surface; at least two elongated lips disposed within the raised edge; a textured relief defined into the top surface, wherein the top surface and the bottom surface are comprised of at least one synthetic material; characterized in that it further comprises an inner support structure disposed circumferentially around the top surface; wherein the textured relief is comprised of an insert integrally bonded with the at least one synthetic material, and the tray is comprised of a plurality of synthetic layers comprising at least two layers of randomly distributed and continuous glass fiber filament sheets, at least two layers of crisscrossed interlocking glass fiber sheets with a chemical binder, and an interstitial layer of polycarbonate resin..
A gantry for spanning a traffic area, comprising a pole (25, 26) having an arm (27, 28) projecting laterally at the top for mounting components thereon, wherein the pole (25, 26) and arm (27, 28) are each manufactured from a longitudinal construction element made of a synthetic material with hollow chambers, and wherein said pole (25, 26) has a pivot (30, 31) for swivelling the arm (27, 28) projecting therefrom around a vertical axis, characterized in that the gantry has two poles (25, 26), each pole (25, 26) having an arm (27, 28), wherein the poles (25, 26) and arms (27, 28) are each manufactured from said longitudinal construction element and at least one of the poles (25, 26) has said pivot (30, 31) for swivelling between a first position in which the arm (27, 28) is aligned with the arm (27, 28) of the other pole (25, 26), thereby spanning the traffic area, and a second position in which the arm (27, 28) is swivelled away from the traffic area, wherein the longitudinal construction element comprises a generally-cylindrical mantle made of synthetic composite material and a core sheathed by the mantle, the core having a plurality of chambers extending in the longitudinal direction of the element, wherein the chambers are delimitated by intermediate walls deposited successively in layers by means of a 3D-printing process.
A biocompatible material comprising a conductive polymer and a biocompatible component, wherein the conductive polymer is a polypyrrole-based polymer; the biocompatible component is chitosan; and the material further comprises a crosslinking agent and the conductive polymer and the biocompatible component are chemically conjugated to form a matrix throughout to form the material which is a homogenous hydrogel.
A fault detection circuit for a N-to-1 Dickson topology hybrid DC-DC power converter having at least (N-1) level-setting capacitors, an input terminal for receiving an input voltage, a ground terminal, and a switching node connected to an inductor, and operational according to an operating cycle comprising first, second and third states; the fault detection circuit comprising: a first measuring circuit (611, 612) configured to measure a first voltage, V SW1, at the switching node in the first state in which first and second sets of the level-setting capacitors are being respectively charged and discharged; a first calculation circuit (613, 614) configured to calculate a first error voltage as a difference between the first voltage in one operating cycle (V SW1 [n-1]) and in a next subsequent operating cycle (V SW1 [n]); a first fault circuit configured to provide a first fault output indicative of a fault in response to an absolute value of the first error voltage exceeding a short-circuit-trip level; a second measuring circuit (621, 622) configured to measure a second voltage, V SW2, at the switching node in the second state in which the first and second sets of the level-setting capacitors are being respectively discharged and charged; a second calculation circuit (623, 624) configured to calculate a second error voltage as a difference between the second voltage in one operating cycle (V SW2 [n-1]) and in a next subsequent operating cycle (V SW2 [n]); and a second fault circuit configured to provide a second fault output indicative of a fault in response to an absolute value of the second error voltage exceeding the short-circuit-trip level. a first measuring circuit (611, 612) configured to measure a first voltage, V SW1, at the switching node in the first state in which first and second sets of the level-setting capacitors are being respectively charged and discharged; a first calculation circuit (613, 614) configured to calculate a first error voltage as a difference between the first voltage in one operating cycle (V SW1 [n-1]) and in a next subsequent operating cycle (V SW1 [n]); a first fault circuit configured to provide a first fault output indicative of a fault in response to an absolute value of the first error voltage exceeding a short-circuit-trip level; a second measuring circuit (621, 622) configured to measure a second voltage, V SW2, at the switching node in the second state in which the first and second sets of the level-setting capacitors are being respectively discharged and charged; a second calculation circuit (623, 624) configured to calculate a second error voltage as a difference between the second voltage in one operating cycle (V SW2 [n-1]) and in a next subsequent operating cycle (V SW2 [n]); and a second fault circuit configured to provide a second fault output indicative of a fault in response to an absolute value of the second error voltage exceeding the short-circuit-trip level.
Process for the production of a cemented-carbide product with the steps of: - powder-metallurgical production of a cemented carbide with hard-material particles embedded in a ductile first metallic binder, where the hard-material particles are at least predominantly formed by WC or TiCN and the first metallic binder is formed by Co, Ni, Fe or a base alloy of at least one of Co, Ni, Fe, - selective removal of the first metallic binder in the region of the surface of the cemented carbide with, at least in the vicinity of the surface, exposure of the hard-material particles in the said region, characterized by: - infiltration of the exposed hard-material particles with at least one of Cu, Ag or a base alloy of Cu or Ag as a second metallic binder at a temperature below the melting point of the first metallic binder and above the melting point of the second metallic binder, and - removal of any continuous layer of the second metallic binder at the surface in a manner such that a composite material comprising the hard-material particles embedded into a material predominantly formed by the second metallic binder remains at the surface and has a layer thickness that is greater than the average grain size of the embedded hard-material particles, preferably ≥ 1 μm, more preferably ≥ 3 μm. - powder-metallurgical production of a cemented carbide with hard-material particles embedded in a ductile first metallic binder, where the hard-material particles are at least predominantly formed by WC or TiCN and the first metallic binder is formed by Co, Ni, Fe or a base alloy of at least one of Co, Ni, Fe, - selective removal of the first metallic binder in the region of the surface of the cemented carbide with, at least in the vicinity of the surface, exposure of the hard-material particles in the said region, - infiltration of the exposed hard-material particles with at least one of Cu, Ag or a base alloy of Cu or Ag as a second metallic binder at a temperature below the melting point of the first metallic binder and above the melting point of the second metallic binder, and - removal of any continuous layer of the second metallic binder at the surface in a manner such that a composite material comprising the hard-material particles embedded into a material predominantly formed by the second metallic binder remains at the surface and has a layer thickness that is greater than the average grain size of the embedded hard-material particles, preferably ≥ 1 μm, more preferably ≥ 3 μm.
Cutting device (1; 1'; 1") configured to cut a cap intended to close a container, said cutting device (1; 1'; 1") comprising: - support means to support at least one horizontal blade (3, 4) configured to perform at least one circumferential cut on the cap rolling on said cutting device (1; 1'; 1") along an advancement direction; characterized by comprising: - at least one modular insert supported by said support means to perform at least one vertical or oblique cut on the cap; said at least one modular insert including at least one cutting element provided at an end thereof with a cutting edge, and at least one abutting block which is interchangeable, and which is couplable with said cutting element to fix a dimension of said at least one modular insert, said dimension being a length between said cutting edge and an abutting face of said at least one abutting block; said support means comprising a support body which comprises, on a peripheral edge thereof and for each modular insert, a housing cavity, said modular insert being insertable in, and removable from, said housing cavity which is shaped for receiving said modular insert so that said cutting edge protrudes from said peripheral edge, said abutting face being configured to abut a back wall of said housing cavity so that a rear end of said cutting element opposed to said cutting edge is spaced from said back wall. - support means to support at least one horizontal blade (3, 4) configured to perform at least one circumferential cut on the cap rolling on said cutting device (1; 1'; 1") along an advancement direction; - at least one modular insert supported by said support means to perform at least one vertical or oblique cut on the cap; said at least one modular insert including at least one cutting element provided at an end thereof with a cutting edge, and at least one abutting block which is interchangeable, and which is couplable with said cutting element to fix a dimension of said at least one modular insert, said dimension being a length between said cutting edge and an abutting face of said at least one abutting block;
An apparatus for associating a video block partitioning pattern (503, 505, 507, 509, 511, 513) to a video coding block, wherein the apparatus comprises: an obtainer adapted to obtain values of a set of segmentation mask samples (A, B,C,D,E,F),; a selector adapted to select a video block partitioning pattern (503, 505, 507, 509, 511, 513) from a predetermined group of video block partitioning patterns (503, 505, 507, 509, 511, 513) based only on the values of segmentation mask samples of the set of segmentation mask samples; and an associator adapted to associate the selected video block partitioning pattern (503, 505, 507, 509, 511, 513) to the video coding block; characterized in that: the set of segmentation mask samples comprises only 4 to 6 segmentation mask samples and each segmentation sample of the set of segmentation mask samples represents a different predetermined position in a segmentation mask adapted to define video coding block partitions of the video coding block. an obtainer adapted to obtain values of a set of segmentation mask samples (A, B,C,D,E,F),; a selector adapted to select a video block partitioning pattern (503, 505, 507, 509, 511, 513) from a predetermined group of video block partitioning patterns (503, 505, 507, 509, 511, 513) based only on the values of segmentation mask samples of the set of segmentation mask samples; and an associator adapted to associate the selected video block partitioning pattern (503, 505, 507, 509, 511, 513) to the video coding block; characterized in that: the set of segmentation mask samples comprises only 4 to 6 segmentation mask samples and each segmentation sample of the set of segmentation mask samples represents a different predetermined position in a segmentation mask adapted to define video coding block partitions of the video coding block.
A server comprising: a first interfacing means, which is accessible from a private address space specific to an Internet Protocol, IP, network and has at least one address of the private address space; a second interfacing means, which is accessible from a public address space common to IP networks and has at least one address of the public address space; and processing means configured to process a service on an application level between the public address space and the private address space via the first and second interfacing means such that the service is served without network address translation at IP level. a first interfacing means, which is accessible from a private address space specific to an Internet Protocol, IP, network and has at least one address of the private address space; a second interfacing means, which is accessible from a public address space common to IP networks and has at least one address of the public address space; and processing means configured to process a service on an application level between the public address space and the private address space via the first and second interfacing means such that the service is served without network address translation at IP level.