mhurhangee/patent-ind-claim-en huggingface dataset:
A method for managing a supply of breast milk of a mother, the method comprising: receiving, via a computing device , at least one image of a container for receiving expressed breast milk , the container including a codification element associated therewith and the at least one image incorporating the codification element ; recognizing the codification element within the at least one image using the computing device ; analyzing the at least one image and codification element using the computing device ; and producing feedback regarding the supply of expressed breast milk based on the analysis. receiving, via a computing device , at least one image of a container for receiving expressed breast milk , the container including a codification element associated therewith and the at least one image incorporating the codification element ; recognizing the codification element within the at least one image using the computing device ; analyzing the at least one image and codification element using the computing device ; and producing feedback regarding the supply of expressed breast milk based on the analysis.
A calculation method, implemented by computer, of a suitable ultrasonic lens for insonification of a medium comprising at least one aberrating barrier and a substantially homogeneous internal part masked by said aberrating barrier , the calculation method comprising at least a lens calculation step (c) during which an ultrasonic lens is calculated, using a model of the medium comprising a mapping of ultrasonic wave propagation properties obtained from actual imaging of the medium , the ultrasonic lens being configured to, when the ultrasonic lens is interposed between an ultrasound probe and the aberrating barrier and when the ultrasound probe placed in a predetermined position relative to said medium on the other side of said internal part relative to said aberrating barrier sends a predetermined ultrasonic wave , generate aberrations such as said predetermined wave generates a predetermined objective ultrasonic wave field in at least one predetermined area (F) belonging to said internal part . the calculation method comprising at least a lens calculation step (c) during which an ultrasonic lens is calculated, using a model of the medium comprising a mapping of ultrasonic wave propagation properties obtained from actual imaging of the medium , the ultrasonic lens being configured to, when the ultrasonic lens is interposed between an ultrasound probe and the aberrating barrier and when the ultrasound probe placed in a predetermined position relative to said medium on the other side of said internal part relative to said aberrating barrier sends a predetermined ultrasonic wave , generate aberrations such as said predetermined wave generates a predetermined objective ultrasonic wave field in at least one predetermined area (F) belonging to said internal part .
Coil arrangement for receiving radio-frequency radiation, - comprising at least one flexible local coil in a planar embodiment as well as a rigid local coil in a semi-tubular embodiment, - wherein the flexible local coil comprises first antenna elements (303.1, 303.2, 303.3, 303.4, 303.5) in a planar embodiment for receiving radio-frequency radiation, as well as at least two first connection elements (301.1, 301.2) on different sides of the flexible local coil , - wherein the rigid local coil comprises second antenna elements (102.1, 102.2) for receiving radio-frequency radiation, as well as at least two receiving elements (101.1, 101.2), wherein the first connection elements (301.1, 301.2) and the receiving elements (101.1, 101.2) are designed to connect the flexible local coil in a first alignment to the rigid local coil to form a first tubular overall local coil , characterised in that - the flexible local coil also comprises at least two second connection elements (302.1, 302.2), - wherein the second connection elements (302.1, 302.2) and the receiving elements (101.1, 101.2) are designed to connect the flexible local coil in a second alignment to the rigid local coil to form a second tubular overall local coil , wherein the first alignment of the flexible local coil differs from the second alignment of the flexible local coil . - comprising at least one flexible local coil in a planar embodiment as well as a rigid local coil in a semi-tubular embodiment, - wherein the flexible local coil comprises first antenna elements (303.1, 303.2, 303.3, 303.4, 303.5) in a planar embodiment for receiving radio-frequency radiation, as well as at least two first connection elements (301.1, 301.2) on different sides of the flexible local coil , - wherein the rigid local coil comprises second antenna elements (102.1, 102.2) for receiving radio-frequency radiation, as well as at least two receiving elements (101.1, 101.2), - the flexible local coil also comprises at least two second connection elements (302.1, 302.2), - wherein the second connection elements (302.1, 302.2) and the receiving elements (101.1, 101.2) are designed to connect the flexible local coil in a second alignment to the rigid local coil to form a second tubular overall local coil ,
A sheet separation device comprising: a sheet separator configured to separate a non-bonding portion of a two-ply sheet (PJ) in which two sheets (P1, P2) are overlapped and bonded together at a bonding portion (A) of the two-ply sheet (PJ); a conveyor configured to convey the two-ply sheet (PJ) toward the sheet separator while bending the two-ply sheet (PJ) in a direction that intersects a conveyance direction of the two-ply sheet (PJ), characterized in that the conveyor includes: a belt ; and a roller that presses a belt face of the belt to form a nip region between the belt face of the belt and the roller , the two-ply sheet (PJ) to be conveyed through the nip region. a sheet separator configured to separate a non-bonding portion of a two-ply sheet (PJ) in which two sheets (P1, P2) are overlapped and bonded together at a bonding portion (A) of the two-ply sheet (PJ); a conveyor configured to convey the two-ply sheet (PJ) toward the sheet separator while bending the two-ply sheet (PJ) in a direction that intersects a conveyance direction of the two-ply sheet (PJ), characterized in that the conveyor includes: a belt ; and a roller that presses a belt face of the belt to form a nip region between the belt face of the belt and the roller , the two-ply sheet (PJ) to be conveyed through the nip region. a belt ; and a roller that presses a belt face of the belt to form a nip region between the belt face of the belt and the roller , the two-ply sheet (PJ) to be conveyed through the nip region.
Illumination device, in particular for a motor vehicle, comprising a plurality of multi-colour LED units with respectively settable brightness and settable colour point, wherein each multi-colour LED unit is an individual semiconductor device with a plurality of single-colour LEDs of different colour and a microcontroller , characterized in that the single-colour LEDs and the microcontroller of each multi-colour LED unit are enclosed by a corresponding package of the semiconductor device, wherein a temperature sensor (TS) is integrated in the semiconductor device, which temperature sensor measures an instantaneous temperature value of the respective multi-colour LED unit and makes it available to the microcontroller , wherein the microcontroller is set up to control a respective multi-colour LED unit in dependence on the instantaneous temperature value of the respective multi-colour LED unit .
A rotary parlour for milking of animals, wherein the parlour comprises an annular rotary platform adapted to form a support surface for the animals , a drive mechanism adapted to supply a rotational motion to the platform , and teat cup storing devices for holding parked teat cups in predetermined storing positions, wherein the teat cup storing devices are mounted in positions such that the teat cups are located vertically above the platform in their storing positions and each teat cup storing device is included in a cabinet like structure , wherein the teat cup storing devices are arranged in positions such that an animal standing in a milking position has a teat cup storing device on each side characterized in that at least one teat cup from each of the storing devices arranged on the different sides of the animal are adapted to be attached to said animal , the teat cup storing devices are adapted to hold the teat cups in storing positions such that an end surface of the teat cups comprising a recess for receiving a teat of an animal is located at a lower level than an opposite end surface of the teat cups.
An x-ray beam control system , comprising: a feedback control loop circuit , including a modulation circuit , configured to generate a control signal; an x-ray tube , having a filament response profile of tube current versus filament temperature which is non-linear, the filament response profile being stored, and being generated unique for the x-ray tube in place; and a compensation circuit configured to receive the control signal and to modify the control signal to output a modified control signal according to a compensating function of the control signal that is matched to the filament response profile; wherein: the modulation circuit is configured to receive the modified control signal and generate a filament drive signal in accordance with the modified control signal; the x-ray tube is configured to receive the filament drive signal at a filament thereof, and output a tube current signal indicative of the x-ray tube current and having a linear response to the control signal; and the feedback control loop circuit is configured to receive the tube current signal, such that the feedback control loop circuit is configured to generate the control signal based on the tube current signal by closed loop control. a feedback control loop circuit , including a modulation circuit , configured to generate a control signal; an x-ray tube , having a filament response profile of tube current versus filament temperature which is non-linear, the filament response profile being stored, and being generated unique for the x-ray tube in place; and a compensation circuit configured to receive the control signal and to modify the control signal to output a modified control signal according to a compensating function of the control signal that is matched to the filament response profile; wherein: the modulation circuit is configured to receive the modified control signal and generate a filament drive signal in accordance with the modified control signal; the x-ray tube is configured to receive the filament drive signal at a filament thereof, and output a tube current signal indicative of the x-ray tube current and having a linear response to the control signal; and the feedback control loop circuit is configured to receive the tube current signal, such that the feedback control loop circuit is configured to generate the control signal based on the tube current signal by closed loop control. the modulation circuit is configured to receive the modified control signal and generate a filament drive signal in accordance with the modified control signal; the x-ray tube is configured to receive the filament drive signal at a filament thereof, and output a tube current signal indicative of the x-ray tube current and having a linear response to the control signal; and the feedback control loop circuit is configured to receive the tube current signal, such that the feedback control loop circuit is configured to generate the control signal based on the tube current signal by closed loop control.
A computer-implemented method for selecting a face among faces of a 3D object in a 3D immersive environment of a CAD system, each face being oriented in the 3D immersive environment's reference frame, comprising: - displaying (S10) the 3D object in the 3D immersive environment; - detecting (S20) a hand gesture of a user's hand comprising an adduction of all fingers except thumb; - determining (S30) an oriented plane formed with the palm and/or the back of the user's hand in the 3D immersive environment's reference frame; and - identifying (S40, S400) the face of the 3D object having the closest orientation with the oriented plane. - displaying (S10) the 3D object in the 3D immersive environment; - detecting (S20) a hand gesture of a user's hand comprising an adduction of all fingers except thumb; - determining (S30) an oriented plane formed with the palm and/or the back of the user's hand in the 3D immersive environment's reference frame; and - identifying (S40, S400) the face of the 3D object having the closest orientation with the oriented plane.
Coupling element for connecting two fluid line sections , in particular of a domestic water installation, to two fluid lines of at least one water treatment apparatus , comprising - a first connector for a first fluid line section , - a second connector for a second fluid line section , - a multi-connector for simultaneously connecting the two fluid lines of the water treatment apparatus , wherein the first connector and the second connector are arranged on opposite sides of the coupling element , characterized in that the multi-connector is formed such that when the two fluid lines are connected it can simultaneously also connect a third fluid line of the water treatment apparatus to an additive line in the coupling element in a fluid-tight manner. - a first connector for a first fluid line section , - a second connector for a second fluid line section , - a multi-connector for simultaneously connecting the two fluid lines of the water treatment apparatus , wherein the first connector and the second connector are arranged on opposite sides of the coupling element ,
A method comprising: determining whether or not a first user device is within coverage of a network ; and if the first user device is not within the coverage of the network: upon detection of an in-network-coverage synchronization signal from an in-network-coverage user device , causing the first user device to use the in-network-coverage synchronization signal for synchronization and to transmit an out-of-network-coverage synchronization signal exhibiting timing based on the detected in-network-coverage synchronization signal , characterised in that : if the first user device is not within the coverage of the network and the first user device fails to detect the in-network coverage synchronization signal: upon detection of an out-of-network-coverage synchronization signal from an out-of-network-coverage user device, causing the first user device to use the out-of-network-coverage synchronization signal for synchronization and to transmit an out-of-network-coverage synchronization signal exhibiting timing based on the detected out-of-network-coverage synchronization signal . determining whether or not a first user device is within coverage of a network ; and if the first user device is not within the coverage of the network: upon detection of an in-network-coverage synchronization signal from an in-network-coverage user device , causing the first user device to use the in-network-coverage synchronization signal for synchronization and to transmit an out-of-network-coverage synchronization signal exhibiting timing based on the detected in-network-coverage synchronization signal , characterised in that : if the first user device is not within the coverage of the network and the first user device fails to detect the in-network coverage synchronization signal: upon detection of an out-of-network-coverage synchronization signal from an out-of-network-coverage user device, causing the first user device to use the out-of-network-coverage synchronization signal for synchronization and to transmit an out-of-network-coverage synchronization signal exhibiting timing based on the detected out-of-network-coverage synchronization signal .
A wireless transmit/receive unit, WTRU , for reporting power headroom, the WTRU comprising: a processor configured to: determine that the WTRU is configured for simultaneous physical uplink shared channel, PUSCH, / physical uplink control channel, PUCCH, transmission; and determine a PUSCH transmit power for a PUSCH transmission in a subframe for a carrier, characterized in that the processor is further configured to: derive a PUCCH transmit power based on a reference downlink control information, DCI, format in the absence of a PUCCH transmission in the subframe for the carrier; and determine a power headroom using the PUSCH transmit power and the PUCCH transmit power; and a transceiver configured to send the power headroom. a processor configured to: determine that the WTRU is configured for simultaneous physical uplink shared channel, PUSCH, / physical uplink control channel, PUCCH, transmission; and determine a PUSCH transmit power for a PUSCH transmission in a subframe for a carrier, characterized in that the processor is further configured to: derive a PUCCH transmit power based on a reference downlink control information, DCI, format in the absence of a PUCCH transmission in the subframe for the carrier; and determine a power headroom using the PUSCH transmit power and the PUCCH transmit power; and determine that the WTRU is configured for simultaneous physical uplink shared channel, PUSCH, / physical uplink control channel, PUCCH, transmission; and determine a PUSCH transmit power for a PUSCH transmission in a subframe for a carrier, characterized in that the processor is further configured to: derive a PUCCH transmit power based on a reference downlink control information, DCI, format in the absence of a PUCCH transmission in the subframe for the carrier; and determine a power headroom using the PUSCH transmit power and the PUCCH transmit power; and derive a PUCCH transmit power based on a reference downlink control information, DCI, format in the absence of a PUCCH transmission in the subframe for the carrier; and determine a power headroom using the PUSCH transmit power and the PUCCH transmit power; and a transceiver configured to send the power headroom.
A high gamma prime nickel-based superalloy, comprising by wt. %: - Chromium from 9.0 to 10.5 %, - Cobalt from about 16 to 22 %, - Molybdenum from 1.0 to 1.4 %, - Tungsten from 5.0 to 5.8 %, - Tantalum from 2.0 to 6.0 %, - Niobium from 1.0 to 4.0 %, - Tantalum plus Niobium from 3.0 to 7.0 %, - Aluminum from 3.0 to 6.5 %, - Hafnium from 0.2 to 1.5 %, - Germanium from 0 to 1.0 %, - Yttrium from 0 to 0.2 %, - Silicon from 0 to 1.0 %, - Boron from 0 to 0.015 %, - Carbon from 0.01 to 0.2%, - Rhenium from 1.5 to 3.5 %, and - Nickel with impurities to balance. - Chromium from 9.0 to 10.5 %, - Cobalt from about 16 to 22 %, - Molybdenum from 1.0 to 1.4 %, - Tungsten from 5.0 to 5.8 %, - Tantalum from 2.0 to 6.0 %, - Niobium from 1.0 to 4.0 %, - Tantalum plus Niobium from 3.0 to 7.0 %, - Aluminum from 3.0 to 6.5 %, - Hafnium from 0.2 to 1.5 %, - Germanium from 0 to 1.0 %, - Yttrium from 0 to 0.2 %, - Silicon from 0 to 1.0 %, - Boron from 0 to 0.015 %, - Carbon from 0.01 to 0.2%, - Rhenium from 1.5 to 3.5 %, and - Nickel with impurities to balance.
A method for producing a medical instrument for use in mammals, including human beings, comprising a step of coating a part or the entirety of a substrate with a crystalline or an amorphous form of an inorganic salt into which a protein having bioactivity and heparin are embedded and a step of exposing the coated substrate to ionizing radiation at a dose sufficient for sterilization, wherein the substrate is a metal, a ceramic or both, the inorganic salt is one or more inorganic salts selected from the group consisting of apatite, tricalcium phosphate, octacalcium phosphate, amorphous calcium phosphate, and calcium carbonate, the inorganic salt is provided in a step selected from the group consisting of controlled delay co-precipitation method in a neutral or weak alkaline unstable supersaturated calcium phosphate solution which generates spontaneous nucleation, a coverage sandwich method, and a drying method, and the medical instrument is one or more medical instruments selected from the group consisting of an intracorporeal fixation pin, an intracorporeal fixation screw, an artificial bone, a bone prosthetic material, a dental endosseous implant, a spinal fixation device, an intramedullary nail, and a spinal cage. the substrate is a metal, a ceramic or both, the inorganic salt is one or more inorganic salts selected from the group consisting of apatite, tricalcium phosphate, octacalcium phosphate, amorphous calcium phosphate, and calcium carbonate, the inorganic salt is provided in a step selected from the group consisting of controlled delay co-precipitation method in a neutral or weak alkaline unstable supersaturated calcium phosphate solution which generates spontaneous nucleation, a coverage sandwich method, and a drying method, and the medical instrument is one or more medical instruments selected from the group consisting of an intracorporeal fixation pin, an intracorporeal fixation screw, an artificial bone, a bone prosthetic material, a dental endosseous implant, a spinal fixation device, an intramedullary nail, and a spinal cage.
A method for analyzing gas by Raman spectrometry, the method comprising the steps of: applying a control signal to a laser source to produce a laser beam sweeping a range of frequencies including frequencies of multiple resonant modes of an optical cavity holding gases to be analyzed, the width of the frequency range being less than the resolution of a Raman spectrometer, supplying the laser beam to an entrance of the optical cavity, extracting a feedback beam from the optical cavity, adjusting a phase and an amplitude of the feedback beam, sending the phase and amplitude adjusted feedback beam to the laser source, during sweeping of the frequency range, measuring light intensity variations of the laser beam in the optical cavity, and detecting light intensity peaks (221-229) in the light intensity variations, each light intensity peak corresponding to a resonance mode of the optical cavity, the phase of the feedback beam being adjusted to reduce a deviation between a median time and the time of occurrence of an apex of one of the light intensity peaks, the amplitude of the feedback beam being adjusted to reduce at least an interval of zero intensity between the light intensity peaks, and acquiring, with a spectrometer sensor , measurements of the spectrum of light inelastically scattered by the laser beam in the optical cavity to determine the nature and/or concentration of gases in the optical cavity. applying a control signal to a laser source to produce a laser beam sweeping a range of frequencies including frequencies of multiple resonant modes of an optical cavity holding gases to be analyzed, the width of the frequency range being less than the resolution of a Raman spectrometer, supplying the laser beam to an entrance of the optical cavity, extracting a feedback beam from the optical cavity, adjusting a phase and an amplitude of the feedback beam, sending the phase and amplitude adjusted feedback beam to the laser source, during sweeping of the frequency range, measuring light intensity variations of the laser beam in the optical cavity, and detecting light intensity peaks (221-229) in the light intensity variations, each light intensity peak corresponding to a resonance mode of the optical cavity, the phase of the feedback beam being adjusted to reduce a deviation between a median time and the time of occurrence of an apex of one of the light intensity peaks, the amplitude of the feedback beam being adjusted to reduce at least an interval of zero intensity between the light intensity peaks, and acquiring, with a spectrometer sensor , measurements of the spectrum of light inelastically scattered by the laser beam in the optical cavity to determine the nature and/or concentration of gases in the optical cavity.