mhurhangee/patent-ind-claim-en huggingface dataset:
Power plant for generating electrical power, comprising - a burner unit , in which thermal energy can be produced by burning a fuel, - a turbine unit , in which a rotational movement can be produced with the thermal energy, and - a generator unit which is driven by the rotational movement to generate electrical power, wherein an electric heating unit is provided in addition to the burner unit in order to produce the thermal energy, wherein through the electric heating unit electrical energy can be converted into thermal energy to drive the turbine unit , characterised in that a control unit is provided and configured to - increase a heating power of the electric heating unit and reduce a heating power of the burner unit in the case of an over-supply of electrical energy, wherein the electrical energy is converted into thermal energy, then into a rotational motion and finally again into electrical energy by means of the generator unit , and - reduce the heating power of the electric heating unit and increase the heating power of the burner unit again if there is no longer an over-supply of electrical energy. - a burner unit , in which thermal energy can be produced by burning a fuel, - a turbine unit , in which a rotational movement can be produced with the thermal energy, and - a generator unit which is driven by the rotational movement to generate electrical power, - increase a heating power of the electric heating unit and reduce a heating power of the burner unit in the case of an over-supply of electrical energy, wherein the electrical energy is converted into thermal energy, then into a rotational motion and finally again into electrical energy by means of the generator unit , and - reduce the heating power of the electric heating unit and increase the heating power of the burner unit again if there is no longer an over-supply of electrical energy.
An apparatus comprising: a vertical microphone array ; a horizontal microphone array ; and a processor coupled to the vertical microphone array and to the horizontal microphone array, wherein the processor is configured to: obtain, from the vertical microphone array, a first audio signal including audio from a target sound source and audio from a horizontally-displaced sound source ; obtain, from the horizontal microphone array, a second audio signal and a third audio signal both including the audio from the target sound source and the audio from the horizontally-displaced sound source; based on the second audio signal and the third audio signal, determine at least one of a first angle of arrival of the audio from the target sound source or a second angle of arrival of the audio from the horizontally-displaced sound source; and based on the at least one of the first angle of arrival or the second angle of arrival, adjust a gain of the first audio signal. a vertical microphone array ; a horizontal microphone array ; and a processor coupled to the vertical microphone array and to the horizontal microphone array, wherein the processor is configured to: obtain, from the vertical microphone array, a first audio signal including audio from a target sound source and audio from a horizontally-displaced sound source ; obtain, from the horizontal microphone array, a second audio signal and a third audio signal both including the audio from the target sound source and the audio from the horizontally-displaced sound source; based on the second audio signal and the third audio signal, determine at least one of a first angle of arrival of the audio from the target sound source or a second angle of arrival of the audio from the horizontally-displaced sound source; and based on the at least one of the first angle of arrival or the second angle of arrival, adjust a gain of the first audio signal. obtain, from the vertical microphone array, a first audio signal including audio from a target sound source and audio from a horizontally-displaced sound source ; obtain, from the horizontal microphone array, a second audio signal and a third audio signal both including the audio from the target sound source and the audio from the horizontally-displaced sound source; based on the second audio signal and the third audio signal, determine at least one of a first angle of arrival of the audio from the target sound source or a second angle of arrival of the audio from the horizontally-displaced sound source; and based on the at least one of the first angle of arrival or the second angle of arrival, adjust a gain of the first audio signal.
Topical composition comprising at least one inorganic micropigment and a cetyl phosphate surfactant mixture, characterized in that the cetyl phosphate surfactant mixture contains no organochlorine impurities and consists essentially of 60-95 wt.-% of monocetyl phosphoric acid or a salt thereof, 0-15 wt.-% of dicetyl phosphoric acid or a salt thereof, 0-20 wt.-% of cetyl alcohol, 0-0.7 wt.-% of inorganic phosphate, 0-12ppm of heavy metals and 0-4 wt.-% of residual water, wherein the mono- and dicetyl esters of phosphoric acid or salts thereof are the potassium salts thereof and wherein the inorganic phosphate content in the topical composition is less than 0.01 wt.-%. wherein the mono- and dicetyl esters of phosphoric acid or salts thereof are the potassium salts thereof and wherein the inorganic phosphate content in the topical composition is less than 0.01 wt.-%.
A heterodimeric protein comprising: a first polypeptide of a first homodimeric protein, said first polypeptide comprising a first variable region having a first binding specificity and a first Fc region, said first Fc region comprising a first CH3 domain; and a second polypeptide of a second homodimeric protein, said second polypeptide comprising a second variable region having a second binding specificity and a second Fc region, said second Fc region comprising a second CH3 domain, wherein the variable regions may originate from any species and the Fc regions are rodent species IgG Fc regions, and wherein the first CH3 domain comprises a lysine at position 370 and a substitution of the amino acid residue at position 409 to arginine, and the second CH3 domain comprises a substitution of the amino acid residue at position 405 to leucine, relative to the wild type IgG isotype from said rodent species when using EU numbering index. a first polypeptide of a first homodimeric protein, said first polypeptide comprising a first variable region having a first binding specificity and a first Fc region, said first Fc region comprising a first CH3 domain; and a second polypeptide of a second homodimeric protein, said second polypeptide comprising a second variable region having a second binding specificity and a second Fc region, said second Fc region comprising a second CH3 domain, wherein the variable regions may originate from any species and the Fc regions are rodent species IgG Fc regions, and wherein the first CH3 domain comprises a lysine at position 370 and a substitution of the amino acid residue at position 409 to arginine, and the second CH3 domain comprises a substitution of the amino acid residue at position 405 to leucine, relative to the wild type IgG isotype from said rodent species when using EU numbering index.
A surgical fixation system , comprising: a fixation device including a top surface and a bottom surface; and an adjustable loop connected to the fixation device wherein the adjustable loop includes a first adjustable eyesplice loop that passes through and interlinks with a second adjustable eyesplice loop at an interconnection that rests over a bridge of the fixation device , wherein the bridge is located between a first aperture and a second aperture of the fixation device characterized in that the bridge is countersunk from the top surface to establish a channel at the top surface, wherein the first adjustable eyesplice loop , the second adjustable eyesplice loop , and free braid strands of the adjustable loop cooperate to establish a knot stack that rests over the bridge of the fixation device and is at least partially received within the channel . a fixation device including a top surface and a bottom surface; and an adjustable loop connected to the fixation device wherein the adjustable loop includes a first adjustable eyesplice loop that passes through and interlinks with a second adjustable eyesplice loop at an interconnection that rests over a bridge of the fixation device , wherein the bridge is located between a first aperture and a second aperture of the fixation device characterized in that the bridge is countersunk from the top surface to establish a channel at the top surface, wherein the first adjustable eyesplice loop , the second adjustable eyesplice loop , and free braid strands of the adjustable loop cooperate to establish a knot stack that rests over the bridge of the fixation device and is at least partially received within the channel .
An apparatus for alignment of a driver and a driven component, comprising: a tubular body including a shaft , a shoulder , and a neck , the shaft coupled to the shoulder , the shoulder coupled to the neck , the shoulder having a greater diameter than respective diameters of the shaft and the neck ; a plug coupled to the neck at a first plug edge and coupled to a first fastener at a second plug edge , the first fastener including a hole ; and a second fastener coupled to the first fastener , the second fastener extending through the tubular body , the plug , and the first fastener . a tubular body including a shaft , a shoulder , and a neck , the shaft coupled to the shoulder , the shoulder coupled to the neck , the shoulder having a greater diameter than respective diameters of the shaft and the neck ; a plug coupled to the neck at a first plug edge and coupled to a first fastener at a second plug edge , the first fastener including a hole ; and a second fastener coupled to the first fastener , the second fastener extending through the tubular body , the plug , and the first fastener .
A dental implant anchor comprising a coronal portion and a body portion that are continuous with one another, the coronal portion defining the proximal end of the implant anchor and the body portion defining the distal end of the implant anchor , said body portion having an inner core fit with at least two threads extending therefrom along its length; said inner core defining an internal diameter of said body portion and said at least two threads defining the external diameter of said body portion ; each thread comprising: a) an apical side , a coronal side , and a lateral edge connecting the apical side and the coronal side , a base connecting the thread to the inner core , a thread depth defined between the lateral edge and the base , said thread depth defining a horizontal plane of said thread , the horizontal plane having a medial-lateral axis (M-L) and an anterior-posterior axis (A-P); b) and wherein adjacent threads defined between adjacent thread bases are connected over the external surface of the inner core defining an inter-thread face ; c) said thread apical side and said thread coronal side of said at least two threads being fitted with at least one respective contour modification along said horizontal plane , the contour modifications being defined along the medial-lateral axis (M-L) of the horizontal plane , wherein the contour modifications are symmetric about the horizontal plane , wherein said inner core is configured from at least two sub-segments , namely a proximal sub-segment and a distal sub-segment , and wherein said at least two threads have a variable depth that is generally increasing along the length of the proximal sub-segment in an apical direction, and is generally decreasing along the length of the distal sub-segment in an apical direction, so that the smallest depth of the threads is adjacent the coronal portion of the inner core and the largest depth of the threads is found between the distal sub-segment and proximal sub-segment . a) an apical side , a coronal side , and a lateral edge connecting the apical side and the coronal side , a base connecting the thread to the inner core , a thread depth defined between the lateral edge and the base , said thread depth defining a horizontal plane of said thread , the horizontal plane having a medial-lateral axis (M-L) and an anterior-posterior axis (A-P); b) and wherein adjacent threads defined between adjacent thread bases are connected over the external surface of the inner core defining an inter-thread face ; c) said thread apical side and said thread coronal side of said at least two threads being fitted with at least one respective contour modification along said horizontal plane , the contour modifications being defined along the medial-lateral axis (M-L) of the horizontal plane , wherein the contour modifications are symmetric about the horizontal plane ,
Method for authenticating a user with a secure web application, said user being equipped with a smartphone onto which an Internet browser has been pre-loaded, said method including steps of: - loading a mobile authentication application onto the smartphone; - requesting access to the secure web application via the browser of the smartphone; - the web application redirecting the access request to an authentication server; - the authentication server sending an authentication request to the user in the form of a challenge sent to the user's smartphone; - the user inputting their connection identifier (email address, telephone number, biometric identification information, etc.) on their smartphone; - the mobile authentication application of the smartphone asking the user to present, by means of a secure external medium, a key and a certificate obtained on the basis of the user's connection identifier in order to enable use of the key and of the certificate, and the authentication application of the smartphone calculating a cryptogram on the basis of the challenge received from the authentication server and the key obtained from the external medium; - the smartphone transmitting the calculated cryptogram and the user's certificate to the authentication server; - verifying, by means of the authentication server, the cryptogram received from the smartphone by means of the transmitted challenge and the user's authentication certificate; - if the verification is positive, the user is authenticated and is granted access to the services of the web application. - loading a mobile authentication application onto the smartphone; - requesting access to the secure web application via the browser of the smartphone; - the web application redirecting the access request to an authentication server; - the authentication server sending an authentication request to the user in the form of a challenge sent to the user's smartphone; - the user inputting their connection identifier (email address, telephone number, biometric identification information, etc.) on their smartphone; - the mobile authentication application of the smartphone asking the user to present, by means of a secure external medium, a key and a certificate obtained on the basis of the user's connection identifier in order to enable use of the key and of the certificate, and the authentication application of the smartphone calculating a cryptogram on the basis of the challenge received from the authentication server and the key obtained from the external medium; - the smartphone transmitting the calculated cryptogram and the user's certificate to the authentication server; - verifying, by means of the authentication server, the cryptogram received from the smartphone by means of the transmitted challenge and the user's authentication certificate; - if the verification is positive, the user is authenticated and is granted access to the services of the web application.
A method of manufacturing an electronic assembly, the method comprising: disposing a circuit card assembly within a volume defined by a housing ; at least partially filling the volume with a curable liquid such that the curable liquid encapsulates at least a circuit card of the circuit card assembly ; curing the curable liquid to form a potted circuit card assembly; and characterised by after at least partially filling the volume with the curable liquid and after curing the curable liquid, vacuum impregnating the potted circuit card assembly with a sealant to form a sealed circuit card assembly ; wherein the circuit card of the circuit card assembly comprises an annular shape and defines a central pass-through bore; and wherein the circuit card assembly further comprises at least one pass-through wire extending past and through the central pass-through bore of the circuit card . disposing a circuit card assembly within a volume defined by a housing ; at least partially filling the volume with a curable liquid such that the curable liquid encapsulates at least a circuit card of the circuit card assembly ; curing the curable liquid to form a potted circuit card assembly; and characterised by after at least partially filling the volume with the curable liquid and after curing the curable liquid, vacuum impregnating the potted circuit card assembly with a sealant to form a sealed circuit card assembly ;
For use in a user equipment, UE, in a wireless communication system, a method of determining channel quality information, CQI, the method comprising: receiving , from an eNodeB, eNB, signaling parameters related to a co-channel precoding matrix indicator, PMI, codebook, wherein the co-channel PMI codebook is selected from a plurality of predefined co-channel PMI codebooks; determining a single user PMI, SU-PMI; determining a co-channel PMI based on the determined SU-PMI and the received signaling parameters; determining a multi-user CQI, MU-CQI, based on the determined co-channel PMI; and transmitting the MU-CQI to the eNB. receiving , from an eNodeB, eNB, signaling parameters related to a co-channel precoding matrix indicator, PMI, codebook, wherein the co-channel PMI codebook is selected from a plurality of predefined co-channel PMI codebooks; determining a single user PMI, SU-PMI; determining a co-channel PMI based on the determined SU-PMI and the received signaling parameters; determining a multi-user CQI, MU-CQI, based on the determined co-channel PMI; and transmitting the MU-CQI to the eNB.
Image processing system (IPS), comprising: an input port (IN) for receiving at least one image including a projection view of an object of interest; a segmenter (SEG) configured to segment the image to obtain an object segmentation for the object as per the projection view; a partitioner (PAR) configured to partition the segmentation into components; a database (DB) configured to hold templates of a plurality of local effect transfer functions each representing, in isolation, a different physical effect causing a pressure drop; an adaptation (ADP) unit communicatively coupled to the database (DB) configured to adapt one or more of the plurality of local effect transfer functions to the local geometry of the object as recorded in respective ones of the components to obtain a plurality of global effect transfer functions; characterized in that the system further comprises: a combiner (Σ) configured to combine the plurality of global effect transfer functions into a composite transfer function for the object; an evaluator (EVAL) configured to compute from the composite transfer function an FFR estimate for a fluid flowing through the object. an input port (IN) for receiving at least one image including a projection view of an object of interest; a segmenter (SEG) configured to segment the image to obtain an object segmentation for the object as per the projection view; a partitioner (PAR) configured to partition the segmentation into components; a database (DB) configured to hold templates of a plurality of local effect transfer functions each representing, in isolation, a different physical effect causing a pressure drop; an adaptation (ADP) unit communicatively coupled to the database (DB) configured to adapt one or more of the plurality of local effect transfer functions to the local geometry of the object as recorded in respective ones of the components to obtain a plurality of global effect transfer functions; characterized in that the system further comprises: a combiner (Σ) configured to combine the plurality of global effect transfer functions into a composite transfer function for the object; an evaluator (EVAL) configured to compute from the composite transfer function an FFR estimate for a fluid flowing through the object.
Measurement tool for measuring the interior of an article of clothing, comprising at least one inner support member , at least one inlet opening , arranged in a first plane of the measurement tool and extending into the support member , at least one outlet opening , arranged in a second plane of the measurement tool and extending out of the support member , wherein the at least one outlet opening is connected to the at least one inlet opening via at least one connecting passage , further comprising at least one holding member enclosing the support member , and a cavity , which is arranged inbetween the at least one support member and the at least one holding member , and which is connected fluidically to the at least one outlet opening .
A flow rate measuring apparatus that intermittently measures the flow rate of a fluid, comprising: a heating unit for heating the fluid; a control unit that controls a drive voltage for driving the heating unit and an interval at which the drive voltage is applied, to a desired value; a temperature sensing unit that senses information about a temperature of the heated fluid; and a flow rate measurement unit that measures the flow rate of the fluid based on a sensing signal outputted from the temperature sensing unit , characterized in that , in intermittently measuring the flow rate, the control unit varies a heating amount of the heating unit in each measurement by varying the drive voltage and the interval at which the drive voltage is applied. a heating unit for heating the fluid; a control unit that controls a drive voltage for driving the heating unit and an interval at which the drive voltage is applied, to a desired value; a temperature sensing unit that senses information about a temperature of the heated fluid; and a flow rate measurement unit that measures the flow rate of the fluid based on a sensing signal outputted from the temperature sensing unit , characterized in that , in intermittently measuring the flow rate, the control unit varies a heating amount of the heating unit in each measurement by varying the drive voltage and the interval at which the drive voltage is applied.