mhurhangee/patent-ind-claim-en huggingface dataset:
A method of localized repair to a damaged thermal barrier , the method comprising the following step: a) subjecting a part coated in a damaged thermal barrier to electrophoresis treatment, the part being made of an electrically conductive material, the damaged thermal barrier comprising a ceramic material and presenting at least one damaged zone that is to be repaired, the part being present in an electrolyte comprising a suspension of particles in a liquid medium, the particles in the non-agglomerated state having a mean size lying in the range 20 nm to 1 μm, a ceramic coating being deposited by electrophoresis in the damaged zone in order to obtain a repaired thermal barrier for use at temperatures higher than or equal to 1000°C, the particles being made of a material different from the ceramic material present in the damaged thermal barrier , a generator (G) imposing a voltage difference between the part and a counter-electrode during the electrophoresis treatment, the generator generating a pulsed current during the electrophoresis treatment. a) subjecting a part coated in a damaged thermal barrier to electrophoresis treatment, the part being made of an electrically conductive material, the damaged thermal barrier comprising a ceramic material and presenting at least one damaged zone that is to be repaired, the part being present in an electrolyte comprising a suspension of particles in a liquid medium, the particles in the non-agglomerated state having a mean size lying in the range 20 nm to 1 μm, a ceramic coating being deposited by electrophoresis in the damaged zone in order to obtain a repaired thermal barrier for use at temperatures higher than or equal to 1000°C, the particles being made of a material different from the ceramic material present in the damaged thermal barrier , a generator (G) imposing a voltage difference between the part and a counter-electrode during the electrophoresis treatment, the generator generating a pulsed current during the electrophoresis treatment.
A leading-edge component for an aircraft , comprising at least a part of a flow body having a front skin , a hollow space at least partially delimited by the front skin and at least one separate retention device , wherein the at least one retention device comprises a flexible structure with a mesh, a web, a fabric or a plurality of strings, and wherein the retention device is arranged behind the front skin in a distance thereto and extends along a main extension direction of at least a section of the front skin , characterized in that the retention device is designed for retaining the front skin that deforms to move into the hollow space upon an impact of a foreign object . wherein the at least one retention device comprises a flexible structure with a mesh, a web, a fabric or a plurality of strings, and wherein the retention device is arranged behind the front skin in a distance thereto and extends along a main extension direction of at least a section of the front skin , characterized in that the retention device is designed for retaining the front skin that deforms to move into the hollow space upon an impact of a foreign object .
A control method for starting a wind power generator set, comprising: determining, by a main controller of the wind power generator set, whether a real-time wind speed of the wind power generator set reaches a preset starting wind speed when a wind speed of at least one wind power generator set in a wind farm or an anemometer tower reaches or exceeds the preset starting wind speed, wherein the at least one wind power generator set is located in the wind farm at a location closest to a wind coming direction, the anemometer tower is an anemometer tower located closest to the wind coming direction of the wind farm , and the wind power generator set corresponding to the main controller is any wind power generator set in the wind farm except for the at least one wind power generator set located in the wind farm at a location closest to the wind coming direction; and incrementing, by the main controller, the count of the quantity of analog starts when determining that the real-time wind speed reaches or exceeds the preset starting wind speed, and starting the wind power generator set when the quantity of the analog starts reaches a preset count value. determining, by a main controller of the wind power generator set, whether a real-time wind speed of the wind power generator set reaches a preset starting wind speed when a wind speed of at least one wind power generator set in a wind farm or an anemometer tower reaches or exceeds the preset starting wind speed, wherein the at least one wind power generator set is located in the wind farm at a location closest to a wind coming direction, the anemometer tower is an anemometer tower located closest to the wind coming direction of the wind farm , and the wind power generator set corresponding to the main controller is any wind power generator set in the wind farm except for the at least one wind power generator set located in the wind farm at a location closest to the wind coming direction; and incrementing, by the main controller, the count of the quantity of analog starts when determining that the real-time wind speed reaches or exceeds the preset starting wind speed, and starting the wind power generator set when the quantity of the analog starts reaches a preset count value.
A multiplexer, comprising an input/output apparatus and multiple resonant cavities, wherein the input/output apparatus comprises: a main tap and at least three branch taps of the main tap, wherein each branch tap is configured to couple to a different resonant cavity in the multiplexer, and the at least three branch taps comprise a first branch tap, a second branch tap and a third branch tap configured to connect to a first resonant cavity, a second resonant cavity and a third resonant cavity respectively, wherein operating frequencies of the first resonant cavity, the second resonant cavity and the third resonant cavity are in an ascending order or a descending order and individual coupling polarities of successive branch taps are set to an inductive coupling polarity or a capacitive coupling polarity in an alternating manner such that when the coupling polarity of the first branch tap is set to the inductive coupling polarity, the coupling polarities of the second branch tap and the third branch tap are set to the capacitive coupling polarity and the inductive coupling polarity respectively, and when the coupling polarity of the first branch tap is set to the capacitive coupling polarity, the coupling polarities of the second branch tap and the third branch tap are set to the inductive coupling polarity and the capacitive coupling polarity respectively. a main tap and at least three branch taps of the main tap, wherein each branch tap is configured to couple to a different resonant cavity in the multiplexer, and the at least three branch taps comprise a first branch tap, a second branch tap and a third branch tap configured to connect to a first resonant cavity, a second resonant cavity and a third resonant cavity respectively, wherein operating frequencies of the first resonant cavity, the second resonant cavity and the third resonant cavity are in an ascending order or a descending order and individual coupling polarities of successive branch taps are set to an inductive coupling polarity or a capacitive coupling polarity in an alternating manner such that when the coupling polarity of the first branch tap is set to the inductive coupling polarity, the coupling polarities of the second branch tap and the third branch tap are set to the capacitive coupling polarity and the inductive coupling polarity respectively, and when the coupling polarity of the first branch tap is set to the capacitive coupling polarity, the coupling polarities of the second branch tap and the third branch tap are set to the inductive coupling polarity and the capacitive coupling polarity respectively.
An image processing device comprising: an acquisition unit configured to acquire an input image; a generation unit configured to generate a plurality of comparison images by compressing a target region being at least part of the input image with each of a plurality of compression levels and expanding the compressed target region to its original size; a calculation unit configured to calculate, for each of the plurality of comparison images, a degradation level of the comparison image with respect to the input image; an estimation unit configured to estimate a blur level of the input image based on a plurality of calculated degradation levels; the image processing device being characterized in comprising a super-resolution unit configured to perform super-resolution on the input image by deep learning, wherein a deep learning is a machine learning using a multi-layer neural network, wherein the super-resolution unit is configured to select a learning model corresponding to the blur level estimated by the estimation unit from a plurality of learning models for super-resolution respectively corresponding to a plurality of blur levels, and perform super-resolution on the input image by using the selected learning model. an acquisition unit configured to acquire an input image; a generation unit configured to generate a plurality of comparison images by compressing a target region being at least part of the input image with each of a plurality of compression levels and expanding the compressed target region to its original size; a calculation unit configured to calculate, for each of the plurality of comparison images, a degradation level of the comparison image with respect to the input image; an estimation unit configured to estimate a blur level of the input image based on a plurality of calculated degradation levels; the image processing device being characterized in comprising a super-resolution unit configured to perform super-resolution on the input image by deep learning, wherein a deep learning is a machine learning using a multi-layer neural network, a super-resolution unit configured to perform super-resolution on the input image by deep learning, wherein a deep learning is a machine learning using a multi-layer neural network, wherein the super-resolution unit is configured to select a learning model corresponding to the blur level estimated by the estimation unit from a plurality of learning models for super-resolution respectively corresponding to a plurality of blur levels, and perform super-resolution on the input image by using the selected learning model.
A device for assisting in an open surgery, comprising: a base configured to be mounted on a portion of a handheld medical tool, wherein the base has a cylindrical or round, rather flat frustoconical shape, the base having a central opening configured to be mounted around a portion of the handheld medical tool; and wherein the base comprises a power supply; and an appendage to the base having a receptacle configured to receive an auxiliary medical device; wherein the medical tool is selected from a group consisting of an electrical scalpel, an ultrasonic scalpel, a radiofrequency knife, a surgical clamp, a sealant or a cautery; and characterized in that the base further comprises two or more LEDs , such that when the base is attached to the handheld medical tool, the LEDs are directed towards a distal end of the handheld medical tool. a base configured to be mounted on a portion of a handheld medical tool, wherein the base has a cylindrical or round, rather flat frustoconical shape, the base having a central opening configured to be mounted around a portion of the handheld medical tool; and wherein the base comprises a power supply; and an appendage to the base having a receptacle configured to receive an auxiliary medical device; wherein the medical tool is selected from a group consisting of an electrical scalpel, an ultrasonic scalpel, a radiofrequency knife, a surgical clamp, a sealant or a cautery; and characterized in that the base further comprises two or more LEDs , such that when the base is attached to the handheld medical tool, the LEDs are directed towards a distal end of the handheld medical tool.
A folded absorbent pad having, in its flattened unfolded configuration a central longitudinal axis (I) and a central transversal axis (II) said pad comprising: a topsheet , a backsheet and an absorbent core disposed between said topsheet and backsheet , one or more folding lines parallel to said central transversal axis, said absorbent core comprising a storage layer said storage layer comprising SAP and comprising, in correspondence with the one or more folding lines , one or more folding portions said folding portions being defined as portions of the storage layer overlapping said folding lines and extending for from 3 to 20 mm on both sides of said folding lines along a direction perpendicular to said folding lines wherein in at least one of said folding portions the average basis weight of the SAP is at least 10 gsm lower than the average basis weight of SAP in the entire storage layer . a topsheet , a backsheet and an absorbent core disposed between said topsheet and backsheet , one or more folding lines parallel to said central transversal axis, said absorbent core comprising a storage layer said storage layer comprising SAP and comprising, in correspondence with the one or more folding lines , one or more folding portions said folding portions being defined as portions of the storage layer overlapping said folding lines and extending for from 3 to 20 mm on both sides of said folding lines along a direction perpendicular to said folding lines wherein in at least one of said folding portions the average basis weight of the SAP is at least 10 gsm lower than the average basis weight of SAP in the entire storage layer .
A mixer arrangement for complex signal mixing comprising a first harmonic rejection mixer ; and a second harmonic rejection mixer , wherein each of the harmonic rejection mixers comprises a plurality of mixer unit cells connected in parallel, wherein each mixer unit cell comprises a differential input, transconductance elements connected to the corresponding differential inputs, and a switching network arranged to switch signals from the transconductance elements to a differential output, the first and the second harmonic rejection mixers having a mutual quadrature phase relationship, and wherein the first and the second harmonic rejection mixers share a plurality of mixer unit cells among the mixer unit cells , wherein each shared mixer unit cell comprises an input for receiving a signal to be mixed (Vin), an input for receiving control signals (S1, S2) derived from a local oscillator signal, and one output for each of the first and second harmonic rejection mixers, and characterised in that the control signals comprise an additional signal (Y) configured for causing the switching network to put the shared mixer unit cell in a high impedance state in which the shared mixer unit cell is functionally disconnected from the first and second harmonic rejection mixers. an input for receiving a signal to be mixed (Vin), an input for receiving control signals (S1, S2) derived from a local oscillator signal, and one output for each of the first and second harmonic rejection mixers, and characterised in that the control signals comprise an additional signal (Y) configured for causing the switching network to put the shared mixer unit cell in a high impedance state in which the shared mixer unit cell is functionally disconnected from the first and second harmonic rejection mixers.
A displacement machine according to the spiral principle, in particular a scroll compressor , with a high-pressure area comprising a high-pressure chamber and with a low-pressure chamber and an orbiting displacer spiral , which engages into a counter-spiral in such a way as to form compression chambers between the displacer spiral and the counter-spiral , so as to receive a working medium, wherein a counterpressure chamber is formed between the low-pressure chamber and the displacer spiral , characterized in that the displacer spiral has at least two passages , which temporarily establish a fluid connection between the counterpressure chamber and at least one of the compression chambers , wherein a first passage is formed essentially in a central section of the displacer spiral , and at least one second passage is formed in the initial area of the displacer spiral , wherein the first passage is formed in a section of the displacer spiral of the kind in which the first passage is open in the activated state of the displacement machine once 95 %-85 % of the relative compression chamber volume has been reached, and remains open during a rotation of the displacer spiral by a rotational angle of 180°-360° after opening.
An X-ray imaging device for radiographing an object comprising: a generator configured to emit X-rays; a sensor unit configured to detect the X-rays using at least one sensor ; a gantry including the generator and the sensor unit facing each other with the object therebetween and rotating the generator and the sensor unit about a rotating axis between the generator and the sensor unit ; an image processor configured to produce a three-dimensional X-ray image of the object from a detection result of the sensor ; and a sensor moving part provided in the sensor unit and configured to additionally move the sensor within a limited range with respect to the gantry in a direction of a rotation trajectory of the sensor unit or in a tangential direction of the rotation trajectory while the gantry rotates about the rotating axis between the generator and the sensor unit . a generator configured to emit X-rays; a sensor unit configured to detect the X-rays using at least one sensor ; a gantry including the generator and the sensor unit facing each other with the object therebetween and rotating the generator and the sensor unit about a rotating axis between the generator and the sensor unit ; an image processor configured to produce a three-dimensional X-ray image of the object from a detection result of the sensor ; and a sensor moving part provided in the sensor unit and configured to additionally move the sensor within a limited range with respect to the gantry in a direction of a rotation trajectory of the sensor unit or in a tangential direction of the rotation trajectory while the gantry rotates about the rotating axis between the generator and the sensor unit .
An implantable medical device (IMD) comprising: a sensing circuit configured to sense and output physiologic data indicative of a physiologic characteristic of a patient; at least one processor ; a memory coupled to the at least one processor , the memory to store program instructions and processed data, wherein the program instructions are executable by the at least one processor to execute general operational functions within the IMD ; and a hybrid signal processing (HSP) circuit coupled to the at least one processor and the sensing circuit , the HSP circuit adapted to filter the physiologic data; the HSP circuit comprising: a plurality of first order filters , and a plurality of higher order filters , characterized in that the HSP circuit comprises: a switch matrix configured to interconnecting a combination of the first and higher order filters to form a hybrid digital filter having a select composite frequency response that utilizes no more than a select power demand. a sensing circuit configured to sense and output physiologic data indicative of a physiologic characteristic of a patient; at least one processor ; a memory coupled to the at least one processor , the memory to store program instructions and processed data, wherein the program instructions are executable by the at least one processor to execute general operational functions within the IMD ; and a hybrid signal processing (HSP) circuit coupled to the at least one processor and the sensing circuit , the HSP circuit adapted to filter the physiologic data; the HSP circuit comprising: a plurality of first order filters , and a plurality of higher order filters , characterized in that the HSP circuit comprises: a switch matrix configured to interconnecting a combination of the first and higher order filters to form a hybrid digital filter having a select composite frequency response that utilizes no more than a select power demand. a plurality of first order filters , and a plurality of higher order filters , characterized in that the HSP circuit comprises: a switch matrix configured to interconnecting a combination of the first and higher order filters to form a hybrid digital filter having a select composite frequency response that utilizes no more than a select power demand.
Touch- and/or proximity-sensitive actuation element , in particular for an electronic domestic appliance, having: an electrically non-conductive housing , which has a substantially cylindrical detection portion , which defines a touch- and/or proximity-sensitive detection region of the actuation element, at which a rotary movement of a user around the actuation element can be detected; a plurality of electrically conductive sensor elements , which are arranged in the housing spaced apart from one another along a lateral surface of the detection portion ; and a printed circuit board , which has a plurality of contact faces , which are each electrically conductively in contact with one of the plurality of sensor elements , wherein the housing furthermore has a fastening portion for the stationary and non-rotational mounting of the actuation element on an operator control panel ; the printed circuit board is arranged directly bordering the housing on a side facing away from the user; and the housing is fastened to the printed circuit board in a non-rotational manner by way of the fastening portion , and the plurality of contact faces are arranged on the printed circuit board substantially along a ring and each electrically conductively contact one of the plurality of sensor elements in the housing . an electrically non-conductive housing , which has a substantially cylindrical detection portion , which defines a touch- and/or proximity-sensitive detection region of the actuation element, at which a rotary movement of a user around the actuation element can be detected; a plurality of electrically conductive sensor elements , which are arranged in the housing spaced apart from one another along a lateral surface of the detection portion ; and a printed circuit board , which has a plurality of contact faces , which are each electrically conductively in contact with one of the plurality of sensor elements , wherein the housing furthermore has a fastening portion for the stationary and non-rotational mounting of the actuation element on an operator control panel ; the printed circuit board is arranged directly bordering the housing on a side facing away from the user; and the housing is fastened to the printed circuit board in a non-rotational manner by way of the fastening portion , and the plurality of contact faces are arranged on the printed circuit board substantially along a ring and each electrically conductively contact one of the plurality of sensor elements in the housing .