mhurhangee/patent-ind-claim-en huggingface dataset:
A dressing for treating a tissue site , comprising: a manifold including a non-porous film having two sheets of polymeric film having inner surfaces sealed to each other to form a sealed region defining a plurality of closed cells and apertures disposed in the film between the closed cells and extending through the film to define passageways for fluid to flow between a first side and a second side of the manifold , wherein the manifold is adapted to contact the tissue site ; and a cover adapted to provide a fluid seal between a therapeutic environment including the manifold on one side of the cover and a local external environment on the other side of the cover , wherein the plurality of closed cells are adapted to form distal channels with the cover to provide fluid communication between the distal channels and the tissue site through the passageways; wherein the therapeutic environment is adapted to receive negative pressure that is applied through the distal channels and the passageways to the tissue site. a manifold including a non-porous film having two sheets of polymeric film having inner surfaces sealed to each other to form a sealed region defining a plurality of closed cells and apertures disposed in the film between the closed cells and extending through the film to define passageways for fluid to flow between a first side and a second side of the manifold , wherein the manifold is adapted to contact the tissue site ; and a cover adapted to provide a fluid seal between a therapeutic environment including the manifold on one side of the cover and a local external environment on the other side of the cover , wherein the plurality of closed cells are adapted to form distal channels with the cover to provide fluid communication between the distal channels and the tissue site through the passageways; wherein the therapeutic environment is adapted to receive negative pressure that is applied through the distal channels and the passageways to the tissue site.
An apparatus comprising: a first phase interpolator, PI, (P1); a second PI (P2); a third PI (P3) for providing an output, the third PI calibrated according to delay settings of the first and second PIs; a selection unit arranged for coupling an input of a delay element (d3) of a delay line to an input of the first PI, for coupling an output of the delay element of the delay line to an input of the second PI, and for coupling a node on the delay line to an input of the third PI; a phase detector arranged for comparing the outputs provided by the first and second PIs; and a calibration unit arranged for providing an output code to the first, second and third PIs according to the phase difference between said outputs for setting the propagation delay of said PIs to phase align the outputs of the first and second PIs; wherein the first, second and third PIs are current starved buffer cells arranged to provide a certain propagation delay to the signal at their respective inputs. a first phase interpolator, PI, (P1); a second PI (P2); a third PI (P3) for providing an output, the third PI calibrated according to delay settings of the first and second PIs; a selection unit arranged for coupling an input of a delay element (d3) of a delay line to an input of the first PI, for coupling an output of the delay element of the delay line to an input of the second PI, and for coupling a node on the delay line to an input of the third PI; a phase detector arranged for comparing the outputs provided by the first and second PIs; and a calibration unit arranged for providing an output code to the first, second and third PIs according to the phase difference between said outputs for setting the propagation delay of said PIs to phase align the outputs of the first and second PIs; wherein the first, second and third PIs are current starved buffer cells arranged to provide a certain propagation delay to the signal at their respective inputs.
An information processing apparatus connectable with a terminal via a network to manage a license of a package including one or more applications assignable to a device , the information processing apparatus comprising: a processor configured to: receive, from the terminal , tenant identification information identifying a tenant that purchases a package; send to the terminal , a first screen (G200) for displaying a device list including one or more devices belonging to the tenant identification information, the first screen (G200) including a plurality of first buttons (G250) for assigning the license of the package to each of the devices , the license of the package being cancellable from each of the devices , in response to receiving a first request (S108) from the terminal ; receive, from the terminal , a button selection of a first button from among the plurality of the first buttons (G250), the selected first button corresponding to a specific device from the one or more devices included in the device list displayed on the first screen (G200); generate a first license list including the license information for the package for assigning to the specific device ; generate a package management screen based on the first license list and send the package management screen to the terminal ; and assign the license of the package to the specific device selected from the device list in response to receiving, from the terminal , the selection of the operation of assigning the license of the package from the package management screen. receive, from the terminal , tenant identification information identifying a tenant that purchases a package; send to the terminal , a first screen (G200) for displaying a device list including one or more devices belonging to the tenant identification information, the first screen (G200) including a plurality of first buttons (G250) for assigning the license of the package to each of the devices , the license of the package being cancellable from each of the devices , in response to receiving a first request (S108) from the terminal ; receive, from the terminal , a button selection of a first button from among the plurality of the first buttons (G250), the selected first button corresponding to a specific device from the one or more devices included in the device list displayed on the first screen (G200); generate a first license list including the license information for the package for assigning to the specific device ; generate a package management screen based on the first license list and send the package management screen to the terminal ; and assign the license of the package to the specific device selected from the device list in response to receiving, from the terminal , the selection of the operation of assigning the license of the package from the package management screen.
Apparatus for placing mixture balls into pharmaceutical containers , comprising a transport device for conveying the containers , preferably in cycles, and comprising a supply device for the mixture balls , the supply device being movable between a position for removing mixture balls from a storage means and a position for transferring the mixture balls into the containers , characterized in that the transport device is designed to transport transport containers , a receiving element for receiving a plurality of containers being provided in each of the transport containers , and a centering device being provided for interaction with the receiving element , which centering device aligns the containers arranged in the receiving element with respect to the supply device in the transfer position, the centering device comprising at least one centering element for aligning the receiving element , which centering element interacts with a counter-element of the receiving element in a form-fitting manner.
A system for monitoring the fetal size of an expectant mother, comprising: an acoustic sensor for positioning above the belly of the expectant mother, the acoustic sensor configured to receive an acoustic signal generated by the fetal heartbeat and to generate a sensor output signal; and a processor for processing the sensor output signal, wherein the processor is adapted to determine a fetal size from a sensor output signal strength based on a predetermined correlation between the fetal size and the sensor output signal strength; wherein the processor is adapted to extract a frequency component or multiple frequency components from the sensor output signal at a frequency or having a frequency range and to derive the sensor output signal strength from the extracted frequency component or components for fetal size determination. an acoustic sensor for positioning above the belly of the expectant mother, the acoustic sensor configured to receive an acoustic signal generated by the fetal heartbeat and to generate a sensor output signal; and a processor for processing the sensor output signal, wherein the processor is adapted to determine a fetal size from a sensor output signal strength based on a predetermined correlation between the fetal size and the sensor output signal strength; wherein the processor is adapted to extract a frequency component or multiple frequency components from the sensor output signal at a frequency or having a frequency range and to derive the sensor output signal strength from the extracted frequency component or components for fetal size determination.
A laundry drying apparatus comprising: a cabinet including an introduction port into which external air is introduced; a drum disposed inside the cabinet and configured to accommodate an object which is to be dried; a condensing duct provided to condense moisture in air introduced from the inside of the drum ; a discharge port configured to communicate with the condensing duct to discharge some of the air introduced from the condensing duct to the outside of the cabinet ; and a drying duct connected to the condensing duct , the introduction port , and the drum , wherein external air introduced through the introduction port is provided to the drying duct , and the drying duct is configured to heat some of the air introduced from the condensing duct and the external air introduced through the introduction port , to supply the heated air into the drum , characterized in that the condensing duct includes a first path configured to communicate with the drying duct for introducing some of the humid air into the drum again, and a second path provided separately from the first path and configured to communicate with the discharge port for discharging the remaining humid air to the outside of the drying apparatus, and in that the introduction port is located between the first path and the drying duct . a cabinet including an introduction port into which external air is introduced; a drum disposed inside the cabinet and configured to accommodate an object which is to be dried; a condensing duct provided to condense moisture in air introduced from the inside of the drum ; a discharge port configured to communicate with the condensing duct to discharge some of the air introduced from the condensing duct to the outside of the cabinet ; and a drying duct connected to the condensing duct , the introduction port , and the drum , wherein external air introduced through the introduction port is provided to the drying duct , and the drying duct is configured to heat some of the air introduced from the condensing duct and the external air introduced through the introduction port , to supply the heated air into the drum , characterized in that the condensing duct includes a first path configured to communicate with the drying duct for introducing some of the humid air into the drum again, and a second path provided separately from the first path and configured to communicate with the discharge port for discharging the remaining humid air to the outside of the drying apparatus, and in that the introduction port is located between the first path and the drying duct .
A nucleic acid construct comprising the following structure: A-X-B in which A and B are nucleic acid sequences encoding a first chimeric antigen receptor (CAR) and a second CAR; and X is a nucleic acid sequence which encodes a cleavage site, wherein the first CAR and the second CAR recognise different antigens; the first CAR and the second CAR each comprise an activating endodomain; and wherein (a) the first CAR and/or second CAR comprises an intracellular retention signal selected from the following group: an endocytosis signal; a Golgi retention signal; a trans -Golgi network (TGN) recycling signal; an endoplasmic reticulum (ER) retention signal; and a lysosomal sorting signal; and/or (b) the signal peptide of the first CAR or second CAR comprises one or more mutation(s) such that the signal peptide of the first CAR and second CAR differ in their number of hydrophobic amino acids and wherein one signal peptide comprises up to five more hydrophobic amino acids than the other signal peptide. A and B are nucleic acid sequences encoding a first chimeric antigen receptor (CAR) and a second CAR; and X is a nucleic acid sequence which encodes a cleavage site, wherein the first CAR and the second CAR recognise different antigens; the first CAR and the second CAR each comprise an activating endodomain; and wherein (a) the first CAR and/or second CAR comprises an intracellular retention signal selected from the following group: an endocytosis signal; a Golgi retention signal; a trans -Golgi network (TGN) recycling signal; an endoplasmic reticulum (ER) retention signal; and a lysosomal sorting signal; and/or (b) the signal peptide of the first CAR or second CAR comprises one or more mutation(s) such that the signal peptide of the first CAR and second CAR differ in their number of hydrophobic amino acids and wherein one signal peptide comprises up to five more hydrophobic amino acids than the other signal peptide. (a) the first CAR and/or second CAR comprises an intracellular retention signal selected from the following group: an endocytosis signal; a Golgi retention signal; a trans -Golgi network (TGN) recycling signal; an endoplasmic reticulum (ER) retention signal; and a lysosomal sorting signal; and/or (b) the signal peptide of the first CAR or second CAR comprises one or more mutation(s) such that the signal peptide of the first CAR and second CAR differ in their number of hydrophobic amino acids and wherein one signal peptide comprises up to five more hydrophobic amino acids than the other signal peptide.
A method of manufacturing an electrode for a rechargeable battery, comprising: (a) coating electrode slurry including an electrode active material, a binder, and a solvent on one surface of a sheet-shaped current collector; and (b) drying the electrode slurry while applying vacuum in a direction of decreasing agglomeration of the binder due to vaporization of the solvent, wherein the vacuum pressure is changed with periodic variability, wherein in an XYZ stereotactic coordinate system, the current collector is located on an XY plane at Z=0, the electrode slurry is coated on one surface of the current collector, on the XY plane under a condition of Z>0, and the vacuum is applied in one or more directions selected from optional directions satisfying Z<0 and optional directions on the XY plane at Z=0. (a) coating electrode slurry including an electrode active material, a binder, and a solvent on one surface of a sheet-shaped current collector; and (b) drying the electrode slurry while applying vacuum in a direction of decreasing agglomeration of the binder due to vaporization of the solvent, wherein the vacuum pressure is changed with periodic variability, wherein in an XYZ stereotactic coordinate system,
Flowmeter for flow measurement of a flowing medium having a measuring tube and a measuring device housing , that a reinforcement structure is assigned to the measuring tube and/or the measuring device housing , and that the reinforcement structure consists of at least one reinforcement unit - preferably of several reinforcement units , wherein at least one reinforcement structure is provided, at least on one side, with an end cap that can be screwed onto the reinforcement unit , and wherein the measuring device housing is assigned a preferably plate-like supporting element at least on one side characterized in that at least one reinforcement unit consists of two reinforcement elements , wherein the reinforcement unit consists of one reinforcement pipe and of one reinforcement bolt penetrating the reinforcement pipe , wherein the length of the reinforcement pipe corresponds to the effective length of the measuring tube , so that the pressing of the preferably plate-like supporting elements against the measuring device housing leads to a pressing against the reinforcement pipe.
A sensor device , comprising: an optical sensor, wherein the optical sensor is to perform an optical health-related measurement when a surface of the sensor device is in contact with a human body; and at least one other sensor provided in a barrier or housing of the optical sensor, wherein the at least one other sensor is to perform another health-related measurement, substantially contemporaneously with the optical health-related measurement or with a known time offset from the optical health-related measurement, when the surface of sensor device is in contact with the human body characterized in that the sensor device is configured to identify a region of interest for the at least one other sensor to perform the other health-related measurement using the optical sensor and the at least one other sensor is to perform the other health-related measurement with regard to the region of interest. an optical sensor, wherein the optical sensor is to perform an optical health-related measurement when a surface of the sensor device is in contact with a human body; and at least one other sensor provided in a barrier or housing of the optical sensor, wherein the at least one other sensor is to perform another health-related measurement, substantially contemporaneously with the optical health-related measurement or with a known time offset from the optical health-related measurement, when the surface of sensor device is in contact with the human body characterized in that the sensor device is configured to identify a region of interest for the at least one other sensor to perform the other health-related measurement using the optical sensor and the at least one other sensor is to perform the other health-related measurement with regard to the region of interest. wherein the at least one other sensor is to perform another health-related measurement, substantially contemporaneously with the optical health-related measurement or with a known time offset from the optical health-related measurement, when the surface of sensor device is in contact with the human body characterized in that the sensor device is configured to identify a region of interest for the at least one other sensor to perform the other health-related measurement using the optical sensor and the at least one other sensor is to perform the other health-related measurement with regard to the region of interest.
A method of producing a non-human, mammalian oocyte carrying a modified target sequence in its genome, the method comprising the steps of introducing into a non-human, mammalian oocyte: (a) a clustered, regularly interspaced, short palindromic repeats (CRISPR)-associated protein 9 (Cas9 protein) or a nucleic acid molecule encoding said Cas9; and (b-i) a target sequence specific CRISPR RNA (crRNA) and a trans-activating crRNA (tracr RNA) or a nucleic acid molecule encoding said RNAs; or (b-ii) a chimaeric RNA sequence comprising a target sequence specific crRNA and tracrRNA or a nucleic acid molecule encoding said RNA; wherein the Cas9 protein introduced in (a) and the RNA sequence(s) introduced in (bi) or (b-ii) are injected into both the nucleus/pronucleus and the cytoplasm of said oocyte, or wherein the Cas9 protein introduced in (a) and the RNA sequences introduced in (b-i) or (b-ii) are introduced into the oocyte by electroporation, and wherein the Cas9 protein introduced in (a) and the RNA sequence(s) introduced in (b-i) or (b-ii) form a protein/RNA complex that specifically binds to the target sequence and introduces a single or double strand break within the target sequence. (a) a clustered, regularly interspaced, short palindromic repeats (CRISPR)-associated protein 9 (Cas9 protein) or a nucleic acid molecule encoding said Cas9; and (b-i) a target sequence specific CRISPR RNA (crRNA) and a trans-activating crRNA (tracr RNA) or a nucleic acid molecule encoding said RNAs; or (b-ii) a chimaeric RNA sequence comprising a target sequence specific crRNA and tracrRNA or a nucleic acid molecule encoding said RNA;
A method for detection and isolation of at least one structural fault, comprising: generating, by a computing device communicatively coupled to a monitoring sub-system that is physically coupled to a vehicle and communicatively coupled to one or more load sensors being physically coupled to the vehicle, a plurality of sensed features that correspond to sensor data from the monitoring sub-system , the sensor data being detected by the one or more load sensors ; characterized by generating based on a plurality of models, by the computing device, a plurality of estimated features that correspond to the plurality of sensed features; comparing, by the computing device, the plurality of sensed features and the plurality of estimated features to produce a plurality of residuals; determining, by the computing device, from the plurality of residuals whether the at least one structural fault exists within the vehicle; and isolating, by the computing device, the at least one structural fault from the plurality of residuals, wherein each of the sensed features is compared to estimated features from any number of the models, such that the total number of residuals is equal to the number of the sensed features multiplied by the number of models, and the generation of the plurality of sensed features is based on at least one of the one or more load sensors generating multiple sensed features. generating, by a computing device communicatively coupled to a monitoring sub-system that is physically coupled to a vehicle and communicatively coupled to one or more load sensors being physically coupled to the vehicle, a plurality of sensed features that correspond to sensor data from the monitoring sub-system , the sensor data being detected by the one or more load sensors ; characterized by generating based on a plurality of models, by the computing device, a plurality of estimated features that correspond to the plurality of sensed features; comparing, by the computing device, the plurality of sensed features and the plurality of estimated features to produce a plurality of residuals; determining, by the computing device, from the plurality of residuals whether the at least one structural fault exists within the vehicle; and isolating, by the computing device, the at least one structural fault from the plurality of residuals, wherein each of the sensed features is compared to estimated features from any number of the models, such that the total number of residuals is equal to the number of the sensed features multiplied by the number of models, and the generation of the plurality of sensed features is based on at least one of the one or more load sensors generating multiple sensed features.