mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, configuration information on at least one reference signal identifying one or more candidate downlink transmission beams for a beam failure recovery and information on a search space for a response regarding the beam failure recovery; if the beam failure is detected, identifying a reference signal of which reference signal receiving power, RSRP, is greater than a predetermined threshold, for determining a candidate downlink transmission beam, based on the information on at least one reference signal, wherein there is binding relationship between candidate downlink transmission beams and beam failure recovery request time-frequency resources; determining a time-frequency resource based on the determined candidate beam and the binding relationship; transmitting, to the base station, on the determined time-frequency resource, a beam failure recovery request signal; identifying the search space for a response regarding the beam failure recovery based on the information on the search space; monitoring a downlink control channel based on the identified search space, the downlink control channel being identified by a cell radio network temporary identifier, C-RNTI; and receiving, from the base station, the response regarding the beam failure recovery on the downlink control channel. receiving, from a base station, configuration information on at least one reference signal identifying one or more candidate downlink transmission beams for a beam failure recovery and information on a search space for a response regarding the beam failure recovery; if the beam failure is detected, identifying a reference signal of which reference signal receiving power, RSRP, is greater than a predetermined threshold, for determining a candidate downlink transmission beam, based on the information on at least one reference signal, wherein there is binding relationship between candidate downlink transmission beams and beam failure recovery request time-frequency resources; determining a time-frequency resource based on the determined candidate beam and the binding relationship; transmitting, to the base station, on the determined time-frequency resource, a beam failure recovery request signal; identifying the search space for a response regarding the beam failure recovery based on the information on the search space; monitoring a downlink control channel based on the identified search space, the downlink control channel being identified by a cell radio network temporary identifier, C-RNTI; and receiving, from the base station, the response regarding the beam failure recovery on the downlink control channel.
Wound dressing with a carrier layer and an absorbent wound contact layer fixed to the carrier layer , which has wound contact surfaces spaced from one another by interstices , in which the absorbent wound contact layer has no contact with the wound wherein the wound contact surfaces are connected to each other by connection regions of the absorbent wound contact layer , wherein the absorbent wound contact layer comprises or is a hydrogel and/or silica gel, characterized in that in the area of the interstices the carrier layer is not covered by the absorbent wound contact layer .
A method of forming a layered structure , the method comprising: forming a layer over a monolithic substrate, the substrate being a single material, wherein the layer is coupled to the substrate, the layer comprising an active region to generate radiation or detect radiation; and thereafter porosifying the substrate to form a porous region to form a first distributed Bragg reflector ,DBR, the porous region comprising alternating first porous and second porous sublayers (251-258, 351-358, 351'-358', 461-468, 651-658) of the single material to form the first DBR, wherein the first porous and second porous sublayers have different porosities. forming a layer over a monolithic substrate, the substrate being a single material, wherein the layer is coupled to the substrate, the layer comprising an active region to generate radiation or detect radiation; and thereafter porosifying the substrate to form a porous region to form a first distributed Bragg reflector ,DBR, the porous region comprising alternating first porous and second porous sublayers (251-258, 351-358, 351'-358', 461-468, 651-658) of the single material to form the first DBR, wherein the first porous and second porous sublayers have different porosities.
A core body thermometer that estimates a core body temperature of a subject (O) based on first heat flow (Ipa) and second heat flow (Ipb) flowing from the subject (O), the core body thermometer comprising: a substrate ; a heat receiving terminal which is provided on one face of the substrate , with which heat from the subject (O) is received, and which divides the heat into the first heat flow (Ipa) and the second heat flow (Ipb) and causes the first heat flow (Ipa) and the second heat flow (Ipb) to flow out; a first heat flow measurement system that is provided on the other face of the substrate and that is capable of measuring the first heat flow (Ipa) using a first input-side temperature sensor arranged at an upstream side of the first heat flow (Ipa) and a first output-side temperature sensor arranged at a downstream side of the first heat flow (Ipa); and a second heat flow measurement system that is provided on the other face of the substrate and that is capable of measuring the second heat flow (Ipb) using a second input-side temperature sensor arranged at an upstream side of the second heat flow (Ipb) and a second output-side temperature sensor arranged at a downstream side of the second heat flow (Ipb); a first thermal resistance body that is provided between the heat receiving terminal and the first input-side temperature sensor and that has a predetermined thermal resistance value; and a second thermal resistance body that is provided between the heat receiving terminal and the second input-side temperature sensor and that has a predetermined thermal resistance value. a substrate ; a heat receiving terminal which is provided on one face of the substrate , with which heat from the subject (O) is received, and which divides the heat into the first heat flow (Ipa) and the second heat flow (Ipb) and causes the first heat flow (Ipa) and the second heat flow (Ipb) to flow out; a first heat flow measurement system that is provided on the other face of the substrate and that is capable of measuring the first heat flow (Ipa) using a first input-side temperature sensor arranged at an upstream side of the first heat flow (Ipa) and a first output-side temperature sensor arranged at a downstream side of the first heat flow (Ipa); and a second heat flow measurement system that is provided on the other face of the substrate and that is capable of measuring the second heat flow (Ipb) using a second input-side temperature sensor arranged at an upstream side of the second heat flow (Ipb) and a second output-side temperature sensor arranged at a downstream side of the second heat flow (Ipb); a first thermal resistance body that is provided between the heat receiving terminal and the first input-side temperature sensor and that has a predetermined thermal resistance value; and a second thermal resistance body that is provided between the heat receiving terminal and the second input-side temperature sensor and that has a predetermined thermal resistance value.
A set of biomarkers comprising at least: i) the subset of 6 mRNA listed in the following Table: Name Ensemble ID Calpain 2 (CAPN2) ENSG00000162909 Dynactin Subunit 2 (DCTN2) ENSG00000175203 Diacylglycerol Kinase Delta (DGKD) ENSG00000077044 Major Histocompatibility Complex, Class II, DP Alpha 1 (HLA-DPA1) ENSG00000231389 Major Histocompatibility Complex, Class II, DP Beta 1 (HLA-DPB1) ENSG00000223865 WD Repeat Domain 86 (WDR86) ENSG00000187260 ii) the subset of the following 7 metabolites: - 2-aminooctanoate - 4-methoxyphenol sulfate - hypotaurine - lysine - N-acetyl-2-aminooctanoate - phenol sulfate - γ-glutamylleucine; and iii) the lipid dodecanedioate (C12:1-DC); for the diagnosis of Brugada Syndrome in a human being. i) the subset of 6 mRNA listed in the following Table: Name Ensemble ID Calpain 2 (CAPN2) ENSG00000162909 Dynactin Subunit 2 (DCTN2) ENSG00000175203 Diacylglycerol Kinase Delta (DGKD) ENSG00000077044 Major Histocompatibility Complex, Class II, DP Alpha 1 (HLA-DPA1) ENSG00000231389 Major Histocompatibility Complex, Class II, DP Beta 1 (HLA-DPB1) ENSG00000223865 WD Repeat Domain 86 (WDR86) ENSG00000187260 ii) the subset of the following 7 metabolites: - 2-aminooctanoate - 4-methoxyphenol sulfate - hypotaurine - lysine - N-acetyl-2-aminooctanoate - phenol sulfate - γ-glutamylleucine; and - 2-aminooctanoate - 4-methoxyphenol sulfate - hypotaurine - lysine - N-acetyl-2-aminooctanoate - phenol sulfate - γ-glutamylleucine; and iii) the lipid dodecanedioate (C12:1-DC);
A tube stent, comprising: a first tube body , the first tube body comprising a first section , a second section and a transition section which is positioned between the first section and the second section , one end of the transition section is connected with the first section , the other end of the transition section is connected with the second section , and shortening ratios of the first section and the second section are less than a shortening ratio of the transition section , characterized in that the shortening ratio of the transition section is greater than or equal to 30% and less than or equal to 50%. a first tube body , the first tube body comprising a first section , a second section and a transition section which is positioned between the first section and the second section , one end of the transition section is connected with the first section , the other end of the transition section is connected with the second section , and shortening ratios of the first section and the second section are less than a shortening ratio of the transition section , characterized in that the shortening ratio of the transition section is greater than or equal to 30% and less than or equal to 50%.
An information processing apparatus comprising: obtainment means for obtaining device information regarding a storage device provided in the information processing apparatus; control means for controlling a state of the storage device to shift between an activation state and a power saving state in which supply of power is less than in the activation state; and determination means for determining, based on the device information, a shift time which is a period of time after completion of a last access to the storage device until the control means shifts the storage device from the activation state to the power saving state, wherein the shift time determined by the determination means in a case where the device information indicates information on an SSD is shorter than the shift time determined by the determination means in a case where the device information indicates information on a HDD, and wherein the determination means, in the case where the device information indicates information on a HDD, is configured to determine the shift time to be a period of time predetermined based on a relationship between a number of shifts of the storage device to the power saving state and a lifetime of the storage device, and in the case where the device information indicates information on an SSD, is configured to determine the shift time based on a return time that is a period of time required for the storage device to return from the power saving state to the activation state. obtainment means for obtaining device information regarding a storage device provided in the information processing apparatus; control means for controlling a state of the storage device to shift between an activation state and a power saving state in which supply of power is less than in the activation state; and determination means for determining, based on the device information, a shift time which is a period of time after completion of a last access to the storage device until the control means shifts the storage device from the activation state to the power saving state, wherein the shift time determined by the determination means in a case where the device information indicates information on an SSD is shorter than the shift time determined by the determination means in a case where the device information indicates information on a HDD, and wherein the determination means, in the case where the device information indicates information on a HDD, is configured to determine the shift time to be a period of time predetermined based on a relationship between a number of shifts of the storage device to the power saving state and a lifetime of the storage device, and in the case where the device information indicates information on an SSD, is configured to determine the shift time based on a return time that is a period of time required for the storage device to return from the power saving state to the activation state.
An ultrasound imaging system for acquiring ultrasound images of an anatomical feature of interest in a subject, comprising: an input for receiving the ultrasound images; a controller operable by a user and configured to: - monitor the ultrasound images, as they are received, for determining their compliance with determined constraints; and - generate an indication based on the determined compliance; and an output for providing the indication to the user; characterized in that the controller is further configured to: - process the ultrasound images to extract anatomical data; and - wherein said determined constraints to be applied to the ultrasound images are spatial, temporal and/or of image quality, derived from the extracted anatomical data and/or on user input. an input for receiving the ultrasound images; a controller operable by a user and configured to: - monitor the ultrasound images, as they are received, for determining their compliance with determined constraints; and - generate an indication based on the determined compliance; - monitor the ultrasound images, as they are received, for determining their compliance with determined constraints; and - generate an indication based on the determined compliance; and an output for providing the indication to the user; characterized in that the controller is further configured to: - process the ultrasound images to extract anatomical data; and - wherein said determined constraints to be applied to the ultrasound images are spatial, temporal and/or of image quality, derived from the extracted anatomical data and/or on user input. - process the ultrasound images to extract anatomical data; and - wherein said determined constraints to be applied to the ultrasound images are spatial, temporal and/or of image quality, derived from the extracted anatomical data and/or on user input.
A pixel circuit for a ultra-low power image sensor , comprising: - a photodiode for receiving a light beam (L) representing a visual scene and for generating a photodiode current, - an integration node (int), on which said photodiode current is integrated during an integration phase (int_ph), - a comparator arranged to compare a voltage (Vint) at said integration node (int) with a reference voltage (Vref), and to generate a comparator output voltage (Vcmp), said comparator comprising a current source (MN3) arranged for generating a current (Iq), - a memory element comprising a memory node (m1; m0), - a writing pulse signal generator arranged to generate a writing pulse signal (WR), on the basis of said comparator output voltage (Vcmp) and on the voltage at said memory node (m1; m0), said writing pulse signal comprising a pulse having a start (S) and an end (E), characterised in that said comparator further comprises a switch (MN4) in series with said current source (MN3), said switch (MN4) being arranged to be commanded by the voltage at said memory node (m1; m0) so that said switch is open at the end (E) of said pulse, so as to limit the consumption of static power of the pixel circuit during said integration phase (int_ph). - a photodiode for receiving a light beam (L) representing a visual scene and for generating a photodiode current, - an integration node (int), on which said photodiode current is integrated during an integration phase (int_ph), - a comparator arranged to compare a voltage (Vint) at said integration node (int) with a reference voltage (Vref), and to generate a comparator output voltage (Vcmp), said comparator comprising a current source (MN3) arranged for generating a current (Iq), - a memory element comprising a memory node (m1; m0), - a memory element comprising a memory node (m1; m0), - a writing pulse signal generator arranged to generate a writing pulse signal (WR), on the basis of said comparator output voltage (Vcmp) and on the voltage at said memory node (m1; m0), said writing pulse signal comprising a pulse having a start (S) and an end (E), said comparator further comprises a switch (MN4) in series with said current source (MN3), said switch (MN4) being arranged to be commanded by the voltage at said memory node (m1; m0) so that said switch is open at the end (E) of said pulse, so as to limit the consumption of static power of the pixel circuit during said integration phase (int_ph).
A heater assembly for an aerosol-generating system, the heater assembly comprising: a fluid permeable heating element for heating a liquid aerosol-forming substrate to form an aerosol, the fluid permeable heating element comprising a plurality of apertures to allow fluid to permeate through the heating element ; and a transport material comprising a plurality of channels for conveying a liquid aerosol-forming substrate to the plurality of apertures of the fluid permeable heating element ; wherein the transport material comprises a ceramic which is deposited directly on to a fluid permeable surface of the fluid permeable heating element ; and wherein, for over 50 percent of the apertures of the fluid permeable heating element , the transport material comprises a corresponding channel for conveying liquid aerosol-forming substrate to its respective aperture . a fluid permeable heating element for heating a liquid aerosol-forming substrate to form an aerosol, the fluid permeable heating element comprising a plurality of apertures to allow fluid to permeate through the heating element ; and a transport material comprising a plurality of channels for conveying a liquid aerosol-forming substrate to the plurality of apertures of the fluid permeable heating element ; wherein the transport material comprises a ceramic which is deposited directly on to a fluid permeable surface of the fluid permeable heating element ; and wherein, for over 50 percent of the apertures of the fluid permeable heating element , the transport material comprises a corresponding channel for conveying liquid aerosol-forming substrate to its respective aperture .
Cleaning apparatus for wet cleaning a surface , - with a housing , - with a drive means having a drive axle and - with a carrier element , - wherein the drive means is arranged to move the carrier element relative to the housing , characterised - in that the drive axle can be displaced from a first angular position defined in relation to the housing into a further angular position inclined by an angle relative to the first angular position. - with a housing , - with a drive means having a drive axle and - with a carrier element , - wherein the drive means is arranged to move the carrier element relative to the housing , characterised - in that the drive axle can be displaced from a first angular position defined in relation to the housing into a further angular position inclined by an angle relative to the first angular position.
A method for determining a radius of particles suspended in a medium, comprising: superposing first and second Doppler- shifted optical waves having a variable frequency shift between them in the medium such that there is a gain in energy of the first optical wave with respect to the second optical wave; varying the frequency shift and measuring the gain while varying the frequency shift to determine the value of the frequency shift at which there is a peak in the gain; and determining the radius of the particles based on the value of the frequency shift at which there is a peak in the gain. superposing first and second Doppler- shifted optical waves having a variable frequency shift between them in the medium such that there is a gain in energy of the first optical wave with respect to the second optical wave; varying the frequency shift and measuring the gain while varying the frequency shift to determine the value of the frequency shift at which there is a peak in the gain; and determining the radius of the particles based on the value of the frequency shift at which there is a peak in the gain.
Hot-rolling stand for a hot-rolling mill and for producing a metal flat product, comprising an adjusting device provided for receiving a work roll pair and for positioning work rolls (18, 19; 20, 21) of the work roll pair relative to one another with definition of a rolling gap, characterised in that the adjusting device is arranged to exchangeably accommodate, in the work roll pair , different roll diameter ranges with mutually corresponding work rolls (18, 19; 20, 21), a difference between the different roll diameter ranges ≥ 6%, preferably ≥ 10%, a respective lower work roll (18; 20) of the work roll pair is adjustable by its upper edge to the height of a desired pass line by way of the adjusting device in such a way that a pass line fluctuation in use of the different roll diameter ranges is less than +/-20 mm, preferably +/- 15 mm, particularly preferably +/- 10 mm. the adjusting device is arranged to exchangeably accommodate, in the work roll pair , different roll diameter ranges with mutually corresponding work rolls (18, 19; 20, 21), a difference between the different roll diameter ranges ≥ 6%, preferably ≥ 10%, a respective lower work roll (18; 20) of the work roll pair is adjustable by its upper edge to the height of a desired pass line by way of the adjusting device in such a way that a pass line fluctuation in use of the different roll diameter ranges is less than +/-20 mm, preferably +/- 15 mm, particularly preferably +/- 10 mm.
An apparatus , comprising: a charge pump comprising a first charge pump output node ; a charge pump voltage controller coupled to a voltage input of the charge pump and coupled to a supply voltage input node, wherein the charge pump voltage controller is configured to receive a supply voltage at the supply voltage input node and use the supply voltage to generate a voltage provided to the voltage input of the charge pump; an input switch coupled between the charge pump voltage controller and the voltage input of the charge pump ; and an amplifier controller configured to transition the charge pump from a higher voltage mode to a lower voltage mode and to configure the input switch to provide a high impedance path through the input switch during a transition period between the higher voltage mode and the lower voltage mode . a charge pump comprising a first charge pump output node ; a charge pump voltage controller coupled to a voltage input of the charge pump and coupled to a supply voltage input node, wherein the charge pump voltage controller is configured to receive a supply voltage at the supply voltage input node and use the supply voltage to generate a voltage provided to the voltage input of the charge pump; an input switch coupled between the charge pump voltage controller and the voltage input of the charge pump ; and an amplifier controller configured to transition the charge pump from a higher voltage mode to a lower voltage mode and to configure the input switch to provide a high impedance path through the input switch during a transition period between the higher voltage mode and the lower voltage mode .