mhurhangee/ep-ind-claims huggingface dataset:
Device for processing a material mixture, in particular for separating stones, inert materials and/or heavy parts, with a first conveyor belt, which is connected with a chamber, wherein at least two collecting means (9, 10) are arranged offset along the chamber floor with different distances to the chamber-side entry point of the material mixture, and are separated from one another in terms of area by at least one separating crown, which extends from the chamber floor in the direction of the chamber upper side, wherein, in a first separation area defined by the separating crown, a first material group, such as stones and/or inert materials and/or heavy parts with the least fluid resistance of all material groups of the material mixture is at least partially separable from the material flow, wherein the device can be flown through by a fluid flow and, as a material flow, a material mixture, separable by means of the device, of at least three different material groups, characterized in that in the inner space of the chamber, at least one pressure blower is provided for generating an air flow directed from below onto the material mixture falling into the chamber, and that the separating crown is displaceably designed, wherein a first collecting means for collecting or separating material constituents, and a second collecting means, in the form of a second conveyor belt is provided, wherein, in a second separation area, and above the second conveyor belt, a fluid guide plate is provided, in the slipstream of which a settling zone results, and wherein, by means of a first negative pressure region, a second material group is at least partially separable in a horizontally lateral direction from a main direction of the material flow and from the settling zone.
A high-bypass ratio geared turbomachine, comprising: a compressor section, the compressor section providing at least a low-pressure compressor and a high-pressure compressor, wherein a rotor of the low-pressure compressor rotates together with a rotor of a fan at the same speed and in the same direction, characterised in that: the low-pressure compressor comprises a single rotor; and a low-pressure turbine shaft rotates a geared architecture to rotate the rotor of the low-pressure compressor and the rotor of the fan at a lower speed than the low-pressure turbine shaft. the low-pressure compressor comprises a single rotor; and a low-pressure turbine shaft rotates a geared architecture to rotate the rotor of the low-pressure compressor and the rotor of the fan at a lower speed than the low-pressure turbine shaft.
A device (10, 30) for recognizing activity of an object, the device comprising: a housing configured to be attached to the object; a processing unit (17, 32) disposed in the housing comprising a processor and a movement sensor; wherein the movement sensor measures a signal related to movement of the object during a time window; wherein the processor assigns at least one preliminary activity label to the time window based on at least one numerical descriptor computed from the measured signal; wherein the processor is adapted to determine whether to perform additional analysis dependent upon at least the preliminary activity label; wherein the processor is adapted to assign a final activity label to the time window; wherein if the processor does not perform additional analysis, the final activity label is the same as the preliminary activity label; and wherein if the processor does perform additional analysis, the processor assigns the final activity label subsequent to the additional analysis. a housing configured to be attached to the object; a processing unit (17, 32) disposed in the housing comprising a processor and a movement sensor; wherein the movement sensor measures a signal related to movement of the object during a time window; wherein the processor assigns at least one preliminary activity label to the time window based on at least one numerical descriptor computed from the measured signal; wherein the processor is adapted to determine whether to perform additional analysis dependent upon at least the preliminary activity label; wherein the processor is adapted to assign a final activity label to the time window; wherein if the processor does not perform additional analysis, the final activity label is the same as the preliminary activity label; and wherein if the processor does perform additional analysis, the processor assigns the final activity label subsequent to the additional analysis.
A method for domain activation during wireless communication device (16, 700) power-up carried out by the wireless communication device (16, 700), comprising: powering-up the wireless communication device that is adapted to communicate with at least a first and second domain, wherein the first domain is a Wireless Local Area Network, WLAN, domain and the second domain is a cellular network; attempting to acquire (806, 904) the first domain upon powering-up the wireless communication device by measuring a received signal strength indication, RSSI; attempting to acquire (808, 906) the second domain simultaneous with the attempt to acquire the first domain by measuring a pilot Ec/Io signal; attempting to register (812, 908) on whichever of the first and second domains is acquired first-in-time; and attempting to register on the domain which was acquired second-in-time, if the registration of the first-in-time acquired domain is unsuccessful. powering-up the wireless communication device that is adapted to communicate with at least a first and second domain, wherein the first domain is a Wireless Local Area Network, WLAN, domain and the second domain is a cellular network; attempting to acquire (806, 904) the first domain upon powering-up the wireless communication device by measuring a received signal strength indication, RSSI; attempting to acquire (808, 906) the second domain simultaneous with the attempt to acquire the first domain by measuring a pilot Ec/Io signal; attempting to register (812, 908) on whichever of the first and second domains is acquired first-in-time; and attempting to register on the domain which was acquired second-in-time, if the registration of the first-in-time acquired domain is unsuccessful.
A clay-supported complex comprising: a metal complex comprising a phosphinobenzenesulfonate ligand coordinated to Pd or Ni; and a clay combined with said metal complex. a metal complex comprising a phosphinobenzenesulfonate ligand coordinated to Pd or Ni; and a clay combined with said metal complex.
A method for cleaning an ink jet imaging device, the ink jet imaging device comprising a main ink supply channel comprising an entrance side for supplying ink, a first ink channel comprising a first pressure chamber fluidly connected to a first nozzle; and a first actuator associated with the first pressure chamber, the first ink channel being in fluid connection with the main ink supply channel and defining a first ink path from the entrance side of the main ink supply channel to the first nozzle and having a first length L1, the ink jet imaging device comprising a second ink channel comprising a second pressure chamber fluidly connected to a second nozzle; and a second actuator associated with the second pressure chamber, the second ink channel being in fluid connection with the main ink supply channel and defining a second ink path from the entrance side of the main ink supply channel to the second nozzle and having a second length L2, wherein L2>L1; the method comprising the step of: a) purging ink through the first and the second nozzle by applying a pressure on the entrance side of the main ink supply channel; characterized in that the method comprises the step of: b) simultaneously to step a) actuating the first ink channel by applying a first actuation pulse to the first actuator wherein the actuation pulse provides a pressure wave in the first ink channel that counteracts the local pressure in the first ink channel, such that the flow through the first ink channel is reduced during purging. a) purging ink through the first and the second nozzle by applying a pressure on the entrance side of the main ink supply channel;
A method for processing a session, applied to a terminal device and comprising: determining a processing manner of a second protocol data unit PDU session based on a priority of a first PDU session and a number of PDU sessions, wherein the second PDU session is an activated PDU session including an activated user plane resource; wherein determining a processing manner of a second protocol data unit PDU session based on a priority of a first PDU session and a number of PDU sessions comprises: determining the processing manner of the second PDU session based on a comparison result between a number of activated PDU sessions and a number threshold. determining a processing manner of a second protocol data unit PDU session based on a priority of a first PDU session and a number of PDU sessions, wherein the second PDU session is an activated PDU session including an activated user plane resource; wherein determining a processing manner of a second protocol data unit PDU session based on a priority of a first PDU session and a number of PDU sessions comprises: determining the processing manner of the second PDU session based on a comparison result between a number of activated PDU sessions and a number threshold.
A water-in-oil emulsion cosmetic comprising: a polar oil that is liquid at 25 °C and of which an IOB value is greater than 0.1; a hydrocarbon oil; a polyoxyalkylene/alkyl co-modified organopolysiloxane represented by general formula below: where R represents a hydrogen atom or an alkyl group having 1 to 5 carbon atoms, x represents an integer from 5 to 50, y represents an integer from 1 to 30, z represents an integer from 20 to 200, a represents an integer from 2 to 20, b represents an integer from 1 to 5, c represents an integer from 2 to 20, and d represents an integer from 0 to 20; and a powder that is surface-treated with an N-acylamino acid and a methylpolysiloxane. a polar oil that is liquid at 25 °C and of which an IOB value is greater than 0.1; a hydrocarbon oil; a polyoxyalkylene/alkyl co-modified organopolysiloxane represented by general formula below: where R represents a hydrogen atom or an alkyl group having 1 to 5 carbon atoms, x represents an integer from 5 to 50, y represents an integer from 1 to 30, z represents an integer from 20 to 200, a represents an integer from 2 to 20, b represents an integer from 1 to 5, c represents an integer from 2 to 20, and d represents an integer from 0 to 20; and a powder that is surface-treated with an N-acylamino acid and a methylpolysiloxane.
A light emitting device (1; 100) comprising a package (4; 101) that has an opening provided with a side surface and a bottom surface, and a lead frame (6; 102) that is exposed to the bottom surface, the lead frame (6; 102) includes a reflection portion bent on the side surface of the opening, and a portion of an inner wall surface of the reflection portion is positioned in an inner portion of the package; characterised in that the side surface of the opening, at an upper part of the opening adjacent to the inner wall surface of the reflection portion, includes an inclination face that has an angle of inclination (θ 1) relative to the bottom surface of the opening that is smaller than an angle of inclination (θ 2) of the reflection portion relative to the bottom surface.
An elastic tube as a driving force source of a fluid pressure actuator that is driven by supplying and discharging fluid such as air or liquid; wherein a wear-resistant flocked layer is provided on an entire outer circumferential surface of the elastic tube; wherein the wear-resistant flocked layer is formed by an electrostatic flocking process in which short fibers (f) made of synthetic resin are flocked to be perpendicular to the outer circumferential surface of the elastic tube; characterized in that each one of the short fibers (f) has a length of 0.5 mm and a diameter of 20 μm; and in that the wear-resistant electrostatic flocked layer has a fiber density of at least 5,000 fibers per square centimeter.
A cutting-off processing tool comprising: an upper surface; a front surface continuous with the upper surface; a rear surface opposite to the front surface; a first side surface continuous with both the upper surface and the front surface; a second side surface continuous with both the upper surface and the front surface and opposite to the first side surface; and a reference surface opposite to the upper surface and having a planar shape, wherein the upper surface includes a first breaker projection face extending along the first side surface, a second breaker projection face extending along the second side surface, and a rake face located between the first breaker projection face and the second breaker projection face in top view, a ridgeline between the rake face and the front surface includes a cutting edge, in a direction from the rear surface to the front surface, a first front end of the first breaker projection face is located ahead of a second front end of the second breaker projection face, the cutting edge has a first cutting edge portion continuous with the first breaker projection face and inclined relative to the reference surface, and a second cutting edge portion continuous with both the first cutting edge portion and the second breaker projection face and inclined relative to the reference surface, characterized in that in a direction perpendicular to the reference surface, the distance between the second front end and the reference surface is shorter than the distance between the first front end and reference surface. an upper surface; a front surface continuous with the upper surface; a rear surface opposite to the front surface; a first side surface continuous with both the upper surface and the front surface; a second side surface continuous with both the upper surface and the front surface and opposite to the first side surface; and a reference surface opposite to the upper surface and having a planar shape, wherein the upper surface includes a first breaker projection face extending along the first side surface, a second breaker projection face extending along the second side surface, and a rake face located between the first breaker projection face and the second breaker projection face in top view, a ridgeline between the rake face and the front surface includes a cutting edge, in a direction from the rear surface to the front surface, a first front end of the first breaker projection face is located ahead of a second front end of the second breaker projection face, the cutting edge has a first cutting edge portion continuous with the first breaker projection face and inclined relative to the reference surface, and a second cutting edge portion continuous with both the first cutting edge portion and the second breaker projection face and inclined relative to the reference surface, characterized in that in a direction perpendicular to the reference surface, the distance between the second front end and the reference surface is shorter than the distance between the first front end and reference surface.
A system for reconstructing a trajectory of an optical fiber which is configured to be inserted into an object, comprising: - an optical fiber having a length and at least one bending sensor unit arranged along its length; - a measurement device configured to measure insertion length increments of the optical fiber; - an interrogation device configured to detect optical feedback signals from the at least one bending sensor unit; and - a processor device configured to reconstruct the trajectory of the optical fiber along its inserted length using a weighted interpolation between data pairs which are based on measured insertion length increments and detected optical feedback signals assigned thereto, wherein the weighted interpolation gives more weight to data pairs acquired at a later stage of the insertion of the optical fiber into the object. - an optical fiber having a length and at least one bending sensor unit arranged along its length; - a measurement device configured to measure insertion length increments of the optical fiber; - an interrogation device configured to detect optical feedback signals from the at least one bending sensor unit; and - a processor device configured to reconstruct the trajectory of the optical fiber along its inserted length using a weighted interpolation between data pairs which are based on measured insertion length increments and detected optical feedback signals assigned thereto, wherein the weighted interpolation gives more weight to data pairs acquired at a later stage of the insertion of the optical fiber into the object.
An optical connection module, of parallelepiped shape, comprising a module body comprising: - a coupling area provided with connectors making it possible to connect optical fibers coming from a set of optical fibers with coupling cords intended to link said module to other optical connection modules, and - a passage area of said cords, allowing a vertical passage of the cords through the module, the module comprising a front face for access to the module, a back face joined to the front face by a lower face, an upper face and two side faces, characterized in that the coupling area and the passage area are two separate areas and are horizontally aligned, the connectors being arranged in a same vertical plane, said plane being parallel to the direction of alignment of the coupling area and the passage area, such that a user can access the connectors directly without passing through the passage area, in that the connectors are arranged in a plane parallel to the front face, and in that the connectors comprise couplers with an elongate shape and the longitudinal axis of which is inclined relative to said plane. - a coupling area provided with connectors making it possible to connect optical fibers coming from a set of optical fibers with coupling cords intended to link said module to other optical connection modules, and - a passage area of said cords, allowing a vertical passage of the cords through the module,
Vehicle control device for manually controlling vehicle means, with at least one rotary knob and at least one gear wheel connected to the rotary knob which is rotatably mounted such that it shares an axis of rotation with the rotary knob, with at least one magnet element (9a, 9b, 9c, 9d) which is assigned to at least one tooth (10, 10a, 10b, 10c, 10d, 10e, 10f, 10g, 10h) of the gear wheel and is mounted in a stationary manner towards a rotation of the gear wheel, characterised in that the gear wheel has five slot-like through-openings (24a-24e) which extend in the radial direction and are arranged on a common circular path, wherein depending on the current rotational position of the gear wheel, a first laser beam or LED beam can be assigned to a first of the through-openings or by means of a first optical fibre (17, 23a) and a second laser beam can be assigned to a second of the through-openings which is adjacent to the first through-opening by means of a second optical fibre (18, 23b).
A method for acquiring sensor data related to a wind turbine, using an unmanned aerial vehicle comprising at least one inspection sensor for acquiring the sensor data, the method comprising the steps of • determining a reference flight path for the UAV; • operating the UAV to automatically fly along an actual flight path derived from the reference flight path, • acquiring, as the UAV flies along one or more sections of the actual flight path, with the inspection sensor, multiple sets of sensor data, characterised in that the method comprises the steps of • storing each set of sensor data in association with sensor pose data that defines the pose of the inspection sensor at the time at which the set of sensor data was acquired; and in that for operating the UAV to automatically fly along a actual flight path, the following step is performed: • determining at least one of the pose of the UAV and the pose of the inspection sensor by integrating data from at least one of a satellite navigation system and an inertial navigation system with data from a distance sensor located on the UAV and a computer model of at least part of the turbine. • determining a reference flight path for the UAV; • operating the UAV to automatically fly along an actual flight path derived from the reference flight path, • acquiring, as the UAV flies along one or more sections of the actual flight path, with the inspection sensor, multiple sets of sensor data, • storing each set of sensor data in association with sensor pose data that defines the pose of the inspection sensor at the time at which the set of sensor data was acquired; and in that • determining at least one of the pose of the UAV and the pose of the inspection sensor by integrating data from at least one of a satellite navigation system and an inertial navigation system with data from a distance sensor located on the UAV and a computer model of at least part of the turbine.
A control device for a variable compression ratio internal combustion engine equipped with a variable compression ratio device capable of changing an engine compression ratio (ε) of the internal combustion engine, the control device comprising: an exhaust component temperature acquisition section that detects or estimates a temperature of an exhaust component; a target exhaust gas temperature set section that sets a target exhaust gas temperature based on the temperature of the exhaust component; and a mixing ratio and compression ratio set section that sets an air-fuel ratio (A/F) of fuel and air and the engine compression ratio (ε) within such a range (β) as not to exceed the target exhaust gas temperature such that energy loss is reduced, based on at least the target exhaust gas temperature, wherein in a case where an operating region is an operating region in which the temperature of the exhaust component is to be restricted to a predetermined limit value (α) or less, and the temperature of the exhaust component is lower than the limit value (α), the target exhaust gas temperature set section sets the target exhaust gas temperature higher as the temperature of the exhaust component becomes lower. an exhaust component temperature acquisition section that detects or estimates a temperature of an exhaust component; a target exhaust gas temperature set section that sets a target exhaust gas temperature based on the temperature of the exhaust component; and a mixing ratio and compression ratio set section that sets an air-fuel ratio (A/F) of fuel and air and the engine compression ratio (ε) within such a range (β) as not to exceed the target exhaust gas temperature such that energy loss is reduced, based on at least the target exhaust gas temperature,