mhurhangee/patent-ind-claim-en huggingface dataset:
Underframe of a laundry treatment apparatus for holding a heat pump, comprising a heat source and a heat sink, which are embodied in each case as a heat exchanger and received at least partially in a receiving area of the underframe , which can be covered at least in sections by a cover arranged above the heat source and the heat sink, wherein the cover has at least one diffusor as part of a system for cleaning the heat source and/or the heat sink, wherein retaining elements which extend substantially at right angles to the cover are arranged on the diffusor below the cover , wherein the respective retaining element is brought into engagement in a form-fit manner with a respective corresponding element arranged on an end face of the heat exchanger , wherein the at least one diffusor is mounted in a floating manner in a cut-out of the cover , wherein the diffusor follows a movement of the heat exchanger during assembly of the cover on the underframe .
A method for estimating an identity of a user of a computing system , the method comprising: an act of estimating environment-specific alterations of a received user sound that is received at the computing system , the environment-specific alterations being associated with an environment in which the computing system is placed and representing alterations that occur between a time that the user sound originated from a user and the time that the user sound was received by a microphone of the computing system and dependent upon one or more of a relative position between the user and the microphone of the computing system ; echoes, filtering, absorption, reflections, and/or impulse response resulting from the environment in which the microphone of the computing system is placed; and/or congestion of the room with other users, humidity, and/or detected obstacles; an act of facilitating a formulation of an expected audio model of a user's sound when a corresponding user-dependent audio model is subject to the estimated environment-specific alterations ; an act of obtaining a comparison result of comparing the received user sound with the formulation of the expected audio model; and an act of estimating whether the user corresponding to the user-dependent audio model is the same as the user that emitted the user sound based on the comparison result, the user-dependent audio model being stored in a multi-system store accessible such that the method may be performed for a given user across multiple systems and on a system that the user has never before trained to recognize the user . an act of estimating environment-specific alterations of a received user sound that is received at the computing system , the environment-specific alterations being associated with an environment in which the computing system is placed and representing alterations that occur between a time that the user sound originated from a user and the time that the user sound was received by a microphone of the computing system and dependent upon one or more of a relative position between the user and the microphone of the computing system ; echoes, filtering, absorption, reflections, and/or impulse response resulting from the environment in which the microphone of the computing system is placed; and/or congestion of the room with other users, humidity, and/or detected obstacles; an act of facilitating a formulation of an expected audio model of a user's sound when a corresponding user-dependent audio model is subject to the estimated environment-specific alterations ; an act of obtaining a comparison result of comparing the received user sound with the formulation of the expected audio model; and an act of estimating whether the user corresponding to the user-dependent audio model is the same as the user that emitted the user sound based on the comparison result, the user-dependent audio model being stored in a multi-system store accessible such that the method may be performed for a given user across multiple systems and on a system that the user has never before trained to recognize the user .
A generator configured to provide power to sustain an inductively coupled plasma in a torch body in a driven mode and in an oscillation mode, the generator comprising: a circuit configured to electrically couple to an induction device and provide power to the induction device in the driven mode to sustain the inductively coupled plasma in the torch body in the driven mode and configured to provide power to the induction device in the oscillation mode to sustain the inductively coupled plasma in the torch body in the oscillation mode; wherein the circuit comprises driving circuit enabled in the driven mode and an oscillating circuit enabled in the oscillation mode-wherein the driving circuit is configured to provide a substantially constant frequency and amplitude to the induction device during operation in the driven mode, wherein the oscillating circuit is configured to provide a variable frequency and amplitude during operation in the oscillation mode, wherein the inductively coupled plasma is ignited with the driving circuit enabled and the oscillating circuit disabled, and wherein once the inductively coupled plasma is ignited, the generator is switched from the driven mode to the oscillation mode by disabling the driving circuit and enabling the oscillating circuit and a processor electrically coupled to the circuit and configured to switch operation of the circuit between the driven mode and the oscillation mode. a circuit configured to electrically couple to an induction device and provide power to the induction device in the driven mode to sustain the inductively coupled plasma in the torch body in the driven mode and configured to provide power to the induction device in the oscillation mode to sustain the inductively coupled plasma in the torch body in the oscillation mode; wherein the circuit comprises driving circuit enabled in the driven mode and an oscillating circuit enabled in the oscillation mode-wherein the driving circuit is configured to provide a substantially constant frequency and amplitude to the induction device during operation in the driven mode, wherein the oscillating circuit is configured to provide a variable frequency and amplitude during operation in the oscillation mode, wherein the inductively coupled plasma is ignited with the driving circuit enabled and the oscillating circuit disabled, and wherein once the inductively coupled plasma is ignited, the generator is switched from the driven mode to the oscillation mode by disabling the driving circuit and enabling the oscillating circuit and a processor electrically coupled to the circuit and configured to switch operation of the circuit between the driven mode and the oscillation mode.
A sample analysis device for analyzing a sample solution, in particular of contaminated water or waste water, having a reaction vessel (EB) for thermal digestion of a weight-measured sample of the sample solution to be analyzed, wherein the reaction vessel (EB) includes an injection port for introducing the sample into the reaction vessel, at least one sample solution storage vessel (CM1) for storing the sample solution internally in the device, and a controllable injection syringe device (MM) that is movable between the sample solution storage vessel (CM1) and the reaction vessel (EB) and adapted to take up the sample from the sample solution storage vessel (CM1) and to introduce the sample into the injection port of the reaction vessel (EB), characterized in that at least one first and second sample solution storage vessels are provided, wherein the second sample solution storage vessel (CM6) is formed for preparing and storing diluted sample solution, and the injection syringe device (MM) is formed for introducing sample solution taken up from the first sample solution storage vessel (CM1) optionally into the second sample solution storage vessel (CM6) for preparing the diluted sample solution.
An adjustable length barrier, the barrier comprising: a plurality of spaced substantially parallel cross members , with each cross member having a telescopic part selectively movable into or out of a home part to adjust the barrier length; a plurality of spaced connecting members which extend substantially perpendicular to the cross members and interconnect the cross members , a one of the connecting members interconnecting the home part cross members adjacent an end of the home part cross members , thereof through which the respective telescopic parts are selectively movable, the one spaced connecting member and/or the home part cross members being profiled so as to define a plurality of open ended channels therebetween; a locking member being slidably locatable in each open ended channel, the locking member having a locking formation adjacent an end thereof which is accessible when the locking member is located in the open ended channel, which locking formation permits engagement with the telescopic part to lock the telescopic part in a required position relative to the home part ; wherein the open ended channels extend substantially parallel to the cross members . a plurality of spaced substantially parallel cross members , with each cross member having a telescopic part selectively movable into or out of a home part to adjust the barrier length; a plurality of spaced connecting members which extend substantially perpendicular to the cross members and interconnect the cross members , a one of the connecting members interconnecting the home part cross members adjacent an end of the home part cross members , thereof through which the respective telescopic parts are selectively movable, the one spaced connecting member and/or the home part cross members being profiled so as to define a plurality of open ended channels therebetween; a locking member being slidably locatable in each open ended channel, the locking member having a locking formation adjacent an end thereof which is accessible when the locking member is located in the open ended channel, which locking formation permits engagement with the telescopic part to lock the telescopic part in a required position relative to the home part ; wherein the open ended channels extend substantially parallel to the cross members .
A method of storing asset verification information implemented by a computing device, the method utilizing identifying asset information associated with an asset, the method comprising: collecting first asset information from a user; collecting second asset information from the computing device; the method characterized by further: generating a merkle trie tree from the first asset information and the second asset information; and adding the merkle trie tree to a blockchain. collecting first asset information from a user; collecting second asset information from the computing device; the method characterized by further: generating a merkle trie tree from the first asset information and the second asset information; and adding the merkle trie tree to a blockchain. generating a merkle trie tree from the first asset information and the second asset information; and adding the merkle trie tree to a blockchain.
Laser clock signal generator for controlling a laser beam generator for generating pulsed laser radiation with a clock signal output which can be supplied to the laser beam generator and a basic clock generator which generates a basic clock signal which can be output at the clock signal output , a clock signal specification input for connecting an external clock specification signal, wherein there is provided a control unit which controls the basic clock generator , and having an overclocking protection device which is arranged between the basic clock generator and the clock signal output .
A rough cast blading of a turbomachine blade produced according to the lost-wax casting technique, the blade including an airfoil having a leading edge and a trailing edge opposite each other and connected by a pressure sidewall and a suction sidewall extending between a blade root and a blade tip, characterized in that , in order to produce on said blade a thin trailing edge which is not deformed by a subsequent material removal operation, said rough cast blading of said blade includes on a suction sidewall and/or on a pressure sidewall of said blading intended to respectively form said suction sidewall and/or said pressure sidewall of the blade, a casting allowance extending from a trailing edge of said blading intended to form said trailing edge of the blade over a determined width in the direction of a leading edge of said blading intended to form said leading edge of the blade, except for a reserved area extending in width according to the chord length of said blade between said trailing edge of the blading and the casting allowance and over at least part of the height of the blading.
A method of capturing and processing images of an area of terrain, from an aircraft flying over the area of terrain, the method comprising: for each of a plurality of time-steps within a time period, using each of a plurality of cameras in a camera array having a fixed position relative to the aircraft, generating an image of a respective portion of terrain , wherein the cameras in the camera array have substantially fixed positions relative to each other, and the portions of terrain are such that the whole of the area of terrain has been imaged by the end of the time period; processing the generated images to identify an object of interest in those images; from each image in which the object of interest has been identified, extracting a sub-image containing that object of interest; and selecting a subset of the generated images, the subset being the minimum number of images that provides that the whole of the terrain is covered by the portions of the terrain in the images in the subset. for each of a plurality of time-steps within a time period, using each of a plurality of cameras in a camera array having a fixed position relative to the aircraft, generating an image of a respective portion of terrain , wherein the cameras in the camera array have substantially fixed positions relative to each other, and the portions of terrain are such that the whole of the area of terrain has been imaged by the end of the time period; processing the generated images to identify an object of interest in those images; from each image in which the object of interest has been identified, extracting a sub-image containing that object of interest; and selecting a subset of the generated images, the subset being the minimum number of images that provides that the whole of the terrain is covered by the portions of the terrain in the images in the subset.
A displacement system for displacing vehicles of an aerial lift facility by pull cable when the vehicles are disengaged from the pull cable , the displacement system comprising: - a slow-down device intended to be disposed in a station of the aerial lift facility and configured to slow down vehicles disengaged from the pull cable along a slow-down path (TR), the slow-down device including at least one first slow-down belt and a second slow-down belt , the first slow-down belt being configured to cooperate with and slow down a vehicle along a first portion (TR1) of the slow-down path (TR), the second slow-down belt being configured to cooperate with and slow down a vehicle along a second portion (TR2) of the slow-down path (TR), - a first drive device including a first drive motor configured to drive the first slow-down belt at a first variable displacement speed (V1), and - a second drive device including a second drive motor configured to drive the second slow-down belt at a second variable displacement speed (V2). - a slow-down device intended to be disposed in a station of the aerial lift facility and configured to slow down vehicles disengaged from the pull cable along a slow-down path (TR), the slow-down device including at least one first slow-down belt and a second slow-down belt , the first slow-down belt being configured to cooperate with and slow down a vehicle along a first portion (TR1) of the slow-down path (TR), the second slow-down belt being configured to cooperate with and slow down a vehicle along a second portion (TR2) of the slow-down path (TR), - a first drive device including a first drive motor configured to drive the first slow-down belt at a first variable displacement speed (V1), and - a second drive device including a second drive motor configured to drive the second slow-down belt at a second variable displacement speed (V2).
Bragg-grating erosion sensor comprising: - one or more optical fibres , each optical fibre comprising one or more cores and an optical sheath surrounding the core(s), - a variable-pitch measurement Bragg grating inscribed in one of the cores of one of the optical fibres in a measurement section intended to undergo an erosion, and - one or more reference Bragg gratings , each reference Bragg grating being inscribed in one of the cores of one of the optical fibres, characterised in that at least one of the one or more reference Bragg gratings is a constant-pitch Bragg grating. - one or more optical fibres , each optical fibre comprising one or more cores and an optical sheath surrounding the core(s), - a variable-pitch measurement Bragg grating inscribed in one of the cores of one of the optical fibres in a measurement section intended to undergo an erosion, and - one or more reference Bragg gratings , each reference Bragg grating being inscribed in one of the cores of one of the optical fibres,
A method performed by a user equipment, UE, (10; 1210) in a wireless communication system, the method comprising: receiving (S810), from a base station (40; 1200), a radio resource control, RRC, message comprising priority information including a scaling factor for prioritized random access; initiating (S820) a random access procedure for a handover; receiving (S830), from the base station (40; 1200), a random access response comprising a backoff indicator related to a first random access backoff parameter value; (i) based on the random access procedure being initiated for the handover, and (ii) based on the scaling factor being included in the RRC message, setting (S840) a second random access backoff parameter value to the first random access backoff parameter value multiplied with the scaling factor included in the RRC message, wherein the second random access backoff parameter value is smaller than the first random access backoff parameter value, otherwise, if the scaling factor is not included in the RRC message, setting (S840) the second random access backoff parameter value to zero ms; and transmitting, based on the second random access backoff parameter value, a random access preamble to the base station (40; 1200). receiving (S810), from a base station (40; 1200), a radio resource control, RRC, message comprising priority information including a scaling factor for prioritized random access; initiating (S820) a random access procedure for a handover; receiving (S830), from the base station (40; 1200), a random access response comprising a backoff indicator related to a first random access backoff parameter value; (i) based on the random access procedure being initiated for the handover, and (ii) based on the scaling factor being included in the RRC message, setting (S840) a second random access backoff parameter value to the first random access backoff parameter value multiplied with the scaling factor included in the RRC message, wherein the second random access backoff parameter value is smaller than the first random access backoff parameter value, otherwise, if the scaling factor is not included in the RRC message, setting (S840) the second random access backoff parameter value to zero ms; and transmitting, based on the second random access backoff parameter value, a random access preamble to the base station (40; 1200).
A method of tracking multiple objects with a probabilistic hypothesis density filter, the method comprising: generating a first intensity by combining a first one or more measurements from a first one or more sensors, wherein a first set of track identifiers, IDs, includes one or more track IDs provided by the first one or more sensors corresponding to their respective measurement in the first one or more measurements , wherein the first intensity includes a weight, a state mean vector, and a state covariance matrix of statistics of a track of an object at a first time; generating a second intensity by combining a second one or more measurements from a second one or more sensors, wherein a second set of track IDs includes one or more track IDs provided by the second one or more sensors corresponding to their respective measurement in the second one or more measurements , wherein the second intensity includes a weight, a state mean vector, and a state covariance matrix of statistics of a track of an object at a second time; selectively comparing the first set of track IDs to the second set of track IDs based on whether there are any track IDs in the first set of track IDs and the second set of track IDs that are the same type; and selectively merging the first intensity with the second intensity based on whether any track IDs in the first set of track IDs match any track IDs in the second set of track IDs. generating a first intensity by combining a first one or more measurements from a first one or more sensors, wherein a first set of track identifiers, IDs, includes one or more track IDs provided by the first one or more sensors corresponding to their respective measurement in the first one or more measurements , wherein the first intensity includes a weight, a state mean vector, and a state covariance matrix of statistics of a track of an object at a first time; generating a second intensity by combining a second one or more measurements from a second one or more sensors, wherein a second set of track IDs includes one or more track IDs provided by the second one or more sensors corresponding to their respective measurement in the second one or more measurements , wherein the second intensity includes a weight, a state mean vector, and a state covariance matrix of statistics of a track of an object at a second time; selectively comparing the first set of track IDs to the second set of track IDs based on whether there are any track IDs in the first set of track IDs and the second set of track IDs that are the same type; and selectively merging the first intensity with the second intensity based on whether any track IDs in the first set of track IDs match any track IDs in the second set of track IDs.