mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing a hybrid radio broadcast signal received by a receiver, the method comprising: (a) separating an analog audio portion of the hybrid radio broadcast signal from a digital audio portion of the hybrid radio broadcast signal; (b) determining a loudness of the analog audio portion over a first short time interval; (c) determining a loudness of the digital audio portion over the first short time interval; (d) using the loudness of the analog audio portion over the first short time interval and the loudness of the digital audio portion over the first short time interval to calculate a short term average gain; characterised by (e) determining a long term average gain, wherein the long term average gain is determined independently of the short term average gain based on the loudness of the analog audio portion over a long time interval and the loudness of the digital audio portion over the long time interval or comprises a running average of the short term average gain; (f) converting one of the long term average gain and the short term average gain to dB; (g) if an output of the receiver receiving the hybrid radio broadcast signal has been blended to digital, adjusting a digital gain parameter by a preselected increment towards the long term average gain to produce an adjusted digital gain parameter; (h) if the output of the receiver has not been blended to digital, setting the digital gain parameter to the short term average gain; (i) providing the digital gain parameter adjusted by step (g) or step (h) to an audio processor; and (j) repeating steps (a) through (i) using a second short time interval. (a) separating an analog audio portion of the hybrid radio broadcast signal from a digital audio portion of the hybrid radio broadcast signal; (b) determining a loudness of the analog audio portion over a first short time interval; (c) determining a loudness of the digital audio portion over the first short time interval; (d) using the loudness of the analog audio portion over the first short time interval and the loudness of the digital audio portion over the first short time interval to calculate a short term average gain; characterised by (e) determining a long term average gain, wherein the long term average gain is determined independently of the short term average gain based on the loudness of the analog audio portion over a long time interval and the loudness of the digital audio portion over the long time interval or comprises a running average of the short term average gain; (f) converting one of the long term average gain and the short term average gain to dB; (g) if an output of the receiver receiving the hybrid radio broadcast signal has been blended to digital, adjusting a digital gain parameter by a preselected increment towards the long term average gain to produce an adjusted digital gain parameter; (h) if the output of the receiver has not been blended to digital, setting the digital gain parameter to the short term average gain; (i) providing the digital gain parameter adjusted by step (g) or step (h) to an audio processor; and (j) repeating steps (a) through (i) using a second short time interval.
A circulating video recording apparatus for recording video data from a plurality of video sources, comprising a recording device having a video data area and an arrangement information area , wherein the video data area includes a plurality of blocks having the same size of 1 MB or more, wherein the arrangement information area stores arrangement information indicating a location at which each block of the video data area is arranged on the recording device , wherein each of the plurality of blocks stores video data of a plurality of frames, and some blocks among the plurality of blocks include an index area storing index information of a respective block and a plurality of past consecutive blocks with respect to the respective block, wherein the index information is configured to index data stored in the corresponding block, wherein the video data area is divided for each video source, and wherein, in the circulating video recording apparatus , when a write destination address reaches a final address, the video data is overwritten and stored sequentially from a start address.
A microfluidic device comprising: (a) a sample loading chamber comprising a plurality of outlets, (b) a migration chamber having a plurality of inlets and configured and sized to provide motile cells a choice of directional migration, and (c) a plurality of migration channels arranged in fluid communication between the one or more outlets of the sample loading chamber and the one or more inlets of the migration chamber , wherein each migration channel is connected to enable a sample to flow from an outlet of the sample loading chamber to an inlet of the migration chamber , wherein the migration channels are sized to allow the migration of neutrophils, and (d) a baffle arranged in fluid communication between the outlets of the sample loading chamber and the migration channels or within the migration channels , but at a point before each migration channel enters an inlet of the migration chamber , wherein the baffle comprises one or more passageways configured to inhibit the movement of red blood cells through the baffle to a greater extent than the baffle inhibits movement of the neutrophils through the baffle , characterized in that the microfluidic device further comprises a buffer liquid that includes no exogenous chemical attractant. (a) a sample loading chamber comprising a plurality of outlets, (b) a migration chamber having a plurality of inlets and configured and sized to provide motile cells a choice of directional migration, and (c) a plurality of migration channels arranged in fluid communication between the one or more outlets of the sample loading chamber and the one or more inlets of the migration chamber , wherein each migration channel is connected to enable a sample to flow from an outlet of the sample loading chamber to an inlet of the migration chamber , wherein the migration channels are sized to allow the migration of neutrophils, and (d) a baffle arranged in fluid communication between the outlets of the sample loading chamber and the migration channels or within the migration channels , but at a point before each migration channel enters an inlet of the migration chamber , wherein the baffle comprises one or more passageways configured to inhibit the movement of red blood cells through the baffle to a greater extent than the baffle inhibits movement of the neutrophils through the baffle , characterized in that the microfluidic device further comprises a buffer liquid that includes no exogenous chemical attractant.
A method in a user equipment comprising: receiving zero power channel state information reference signal configuration information for an aperiodic zero power channel state information reference signal of a serving cell; receiving downlink control information on a physical control channel in a subframe of the serving cell, the downlink control information indicating whether a physical downlink shared channel of the user equipment in the subframe of the serving cell is rate-matched around resource elements indicated by the zero power channel state information reference signal configuration information; and decoding the physical downlink shared channel in the subframe of the serving cell based on rate-matching around the resource elements indicated by the zero power channel state information reference signal configuration information when the downlink control information indicates the physical downlink shared channel of the user equipment is rate-matched around the resource elements indicated by the zero power channel state information reference signal configuration information, wherein the subframe comprises a first subframe, and wherein the method further comprises: determining channel state information based on a set of resource elements that is a subset of resource elements indicated by the zero power channel state information reference signal configuration information; and sending the determined channel state information in a second subframe. receiving zero power channel state information reference signal configuration information for an aperiodic zero power channel state information reference signal of a serving cell; receiving downlink control information on a physical control channel in a subframe of the serving cell, the downlink control information indicating whether a physical downlink shared channel of the user equipment in the subframe of the serving cell is rate-matched around resource elements indicated by the zero power channel state information reference signal configuration information; and decoding the physical downlink shared channel in the subframe of the serving cell based on rate-matching around the resource elements indicated by the zero power channel state information reference signal configuration information when the downlink control information indicates the physical downlink shared channel of the user equipment is rate-matched around the resource elements indicated by the zero power channel state information reference signal configuration information, wherein the subframe comprises a first subframe, and wherein the method further comprises: determining channel state information based on a set of resource elements that is a subset of resource elements indicated by the zero power channel state information reference signal configuration information; and sending the determined channel state information in a second subframe. determining channel state information based on a set of resource elements that is a subset of resource elements indicated by the zero power channel state information reference signal configuration information; and sending the determined channel state information in a second subframe.
Pharmaceutical composition comprising iron oxy-hydroxide in high loading, in a form suitable for oral administration wherein iron oxy-hydroxide is present in an amount of 10 to 80 % (w/w), expressed in relation to the total weight of the composition, the iron oxy-hydroxide is present in an amount of > 300 mg per dosage form as dosage form capable of disintegration in the oral cavity, the composition further comprising one or more glidants in an amount of 0,01 to 10% (w/w), expressed in relation to the total weight of the composition, and at least one carbohydrate selected from the group consisting of saccharose, dextrin, and starch.
A compound for use in treating epilepsy or an epileptic seizure disorder in a human subject, wherein the compound is selected from norfenfluramine and a pharmaceutically acceptable salt thereof, and wherein the norfenfluramine or a pharmaceutically acceptable salt thereof comprises (R)-norfenfluramine or a pharmaceutically acceptable salt thereof at an enantiomeric excess (ee) greater than 80%.
A head-mounted display, HMD, comprising: a rod coupled to a midframe of the HMD; a pair of lens tubes coupled to the rod, each lens tube being movable bidirectionally along the rod; an actuator accessible from outside of a housing of the HMD; a movable elongate member coupled to the actuator and to the midframe; a first biasing member coupled to the movable elongate member and to the midframe, the first biasing member configured to apply a biasing force to the movable elongate member to resist movement of the movable elongate member in a direction of travel of the movable elongate member as the movable elongate member moves; a rotatable gear coupled to the midframe and disposed between the pair of lens tubes, the rotatable gear being engaged with the movable elongate member; and a pair of second biasing members coupled to the rod, the pair of second biasing members configured to physically bias the pair of lens tubes toward the rotatable gear. a rod coupled to a midframe of the HMD; a pair of lens tubes coupled to the rod, each lens tube being movable bidirectionally along the rod; an actuator accessible from outside of a housing of the HMD; a movable elongate member coupled to the actuator and to the midframe; a first biasing member coupled to the movable elongate member and to the midframe, the first biasing member configured to apply a biasing force to the movable elongate member to resist movement of the movable elongate member in a direction of travel of the movable elongate member as the movable elongate member moves; a rotatable gear coupled to the midframe and disposed between the pair of lens tubes, the rotatable gear being engaged with the movable elongate member; and a pair of second biasing members coupled to the rod, the pair of second biasing members configured to physically bias the pair of lens tubes toward the rotatable gear.
Polyurethane composition comprising: a) at least 98% by weight of at least one polyurethane bearing NCO end groups based on diphenylmethane diisocyanate (MDI), with a viscosity measured at 23°C of less than or equal to 300 000 mPa.s, said viscosity being measured using a Brookfield viscometer according to the standard ISO 2555, b) a content of MDI monomer, derived from the synthesis of said polyurethane a), less than or equal to 1% by weight, c) at least one isocyanate compound with a molar volume of less than or equal to 300 millilitres per mole (mL/mol) (noted compound A), chosen from those in which the isocyanate group (s) are not linked to a carbon atom of an aromatic hydrocarbon-based ring, the molar volume being measured at a temperature ranging from 20 to 25°C and at atmospheric pressure of 1 bar, the weight percentages being expressed relative to the total weight of said composition. a) at least 98% by weight of at least one polyurethane bearing NCO end groups based on diphenylmethane diisocyanate (MDI), with a viscosity measured at 23°C of less than or equal to 300 000 mPa.s, said viscosity being measured using a Brookfield viscometer according to the standard ISO 2555, b) a content of MDI monomer, derived from the synthesis of said polyurethane a), less than or equal to 1% by weight, c) at least one isocyanate compound with a molar volume of less than or equal to 300 millilitres per mole (mL/mol) (noted compound A), chosen from those in which the isocyanate group (s) are not linked to a carbon atom of an aromatic hydrocarbon-based ring,
An energy delivery device comprising: an antenna comprising an inner conductor; and a conductive tip at a distal end of said antenna, wherein said conductive tip comprises one or more sharpness enhancing features selected from the group consisting of a diamond like coating, a plurality of micro-serrations, and a vibration component, wherein said diamond like coating is less than 20 microns; wherein said micro-serrations are in a tri-facet or quad-facet design, and/or wherein said micro-serrations are 50-100 μm in length; wherein said vibration component is a piezoelectric transducer, and/or wherein said vibration component generated a vibration of 0.1 to 20 kHz of less than 1 mm travel in the axial direction of the tip. an antenna comprising an inner conductor; and a conductive tip at a distal end of said antenna, wherein said conductive tip comprises one or more sharpness enhancing features selected from the group consisting of a diamond like coating, a plurality of micro-serrations, and a vibration component, wherein said diamond like coating is less than 20 microns; wherein said micro-serrations are in a tri-facet or quad-facet design, and/or wherein said micro-serrations are 50-100 μm in length; wherein said vibration component is a piezoelectric transducer, and/or wherein said vibration component generated a vibration of 0.1 to 20 kHz of less than 1 mm travel in the axial direction of the tip.
Method for setting a layer thickness of a covering coating material to be applied to a substrate by an application device , wherein the coating material is applied to the substrate in a printing machine or in a paper-processing machine, wherein the coating material is applied at various points on the substrate in question by means of the application device in a machine process, wherein at each of at least one first point on the substrate in question the coating material is applied in a grid having a plurality of grid points, and at each of at least one other second point on the substrate in question the coating material is applied over the full area, wherein each first point in question on the substrate in question forms a grid zone and each second point in question on the substrate in question forms a solid zone, wherein a control unit connected to a sensing device determines, from data captured by the sensing device at the respective first and second point on the substrate in question, a respective value for the optical density of the layer of the coating material applied at the points in question on the substrate, wherein at least one covering printing ink is used as the coating material, wherein the covering printing ink in question is formed as a primary colour, characterized in that the sensing device continuously collects measured values during ongoing operation of the printing machine or of the paper-processing machine, wherein the application of the coating material to the substrate in question during the ongoing operation of the printing machine or of the paper-processing machine, which is carried out by the application device , is continuously monitored during production within the respective machine by the sensing device , wherein the control unit defines the layer thickness of the coating material currently being applied to the substrate in question by the application device during the ongoing machine process, at which layer thickness the value (DR) for the optical density determined in a grid zone corresponds to the value (DV) for the optical density determined in a solid zone, as that layer thickness of the coating material that has an opacity value of 100%.
Method of producing a sensor element for detecting at least one property of an analysis gas in an analysis gas space, especially for detecting a proportion of a gas component in the analysis gas or a temperature of the analysis gas, comprising the steps of: - providing at least one solid-state electrolyte with at least one functional element , - applying at least one first layer of a ceramic material at least to sections of the solid-state electrolyte , wherein the first layer has a first porosity after the application, and - forming a second layer having a second porosity by partly melting the surface of the first layer remote from the solid-state electrolyte using a plasma burner. - providing at least one solid-state electrolyte with at least one functional element , - applying at least one first layer of a ceramic material at least to sections of the solid-state electrolyte , wherein the first layer has a first porosity after the application, and - forming a second layer having a second porosity by partly melting the surface of the first layer remote from the solid-state electrolyte using a plasma burner.
Luminous module for a motor vehicle comprising: - a light source ; - an electronic support ; - a driver device driving the electrical power supply of said one light source arranged on said electronic support ; - a heatsink comprising a void in which said driver device is housed, said light source being directly fixed onto said heatsink , characterized in that said void is produced on a face of said heatsink onto which said light source is fixed. - a light source ; - an electronic support ; - a driver device driving the electrical power supply of said one light source arranged on said electronic support ; - a heatsink comprising a void in which said driver device is housed, said light source being directly fixed onto said heatsink ,
Process for the purification of curcumin in its enol and ketone form, comprising (i) the provision of a standard natural curcumin extract comprising 55 to 85 wt% curcumin, and demethoxycurcumin and bisdemethoxycurcumin, (ii) contacting said curcuminoid composition with a basic amino acid capable of forming an amino acid salt of curcumin, wherein the basic amino acid is selected from lysine, arginine and histidine (iii) separating the salt of curcumin, and (iv) recovering curcumin at increased purity levels.
Modular switching cell of a high voltage direct current power converter , comprising a base module with • a first switching unit , • a second switching unit , • a first capacitor , and • a second capacitor , characterized in that the first switching unit , the second switching unit , the first capacitor , and the second capacitor are mounted on a common chassis , wherein the base module is adapted to receive at least three different busbar sets, each including a plurality of busbars for interconnecting the first switching unit , the second switching unit , the first capacitor , and the second capacitor to form one of • two parallel half bridge circuits between a first cell terminal and a second cell terminal , and • two serial half bridge circuits between the first cell terminal and the second cell terminal , and • a full bridge circuit between the first cell terminal and the second cell terminal , wherein the busbar sets are configured to realize different cell designs by using the same base module for either a fully-rated cell being configured to carry a whole predetermined current, or two series half-rated cells being configured to carry half of the predetermined current. • a first switching unit , • a second switching unit , • a first capacitor , and • a second capacitor , characterized in that the first switching unit , the second switching unit , the first capacitor , and the second capacitor are mounted on a common chassis , wherein the base module is adapted to receive at least three different busbar sets, each including a plurality of busbars for interconnecting the first switching unit , the second switching unit , the first capacitor , and the second capacitor to form one of characterized in that the first switching unit , the second switching unit , the first capacitor , and the second capacitor are mounted on a common chassis , wherein the base module is adapted to receive at least three different busbar sets, each including a plurality of busbars for interconnecting the first switching unit , the second switching unit , the first capacitor , and the second capacitor to form one of • two parallel half bridge circuits between a first cell terminal and a second cell terminal , and • two serial half bridge circuits between the first cell terminal and the second cell terminal , and • a full bridge circuit between the first cell terminal and the second cell terminal ,