mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal configured to communicate with a radio base station by using carrier aggregation, the terminal comprising: a receiving section configured to receive a downlink, DL, signal transmitted from the radio base station and including downlink control information, DCI, the DCI including an uplink Downlink Assignment Index, DAI, and being for scheduling a physical uplink shared channel, PUSCH, in a component carrier, CC, of one of a plurality of cell groups; a control section configured to: control transmission of uplink control information, UCI, using an uplink control channel and the transmission of the UCI using an uplink shared channel in each of the plurality of cell groups, each cell group including at least one CC, determine a number of bits for HARQ-ACK to be transmitted in a PUSCH, based on the DAI, and allocate HARQ-ACK bits to a PUSCH of a CC in one cell group; and a transmission section configured to transmit the HARQ-ACK, wherein the terminal is configured to perform a receiving process of a physical downlink control channel on the assumption that an uplink DAI is included in DCI transmitted from each cell group, and the uplink DAI indicates information about a number of DL subframes to be scheduled. a receiving section configured to receive a downlink, DL, signal transmitted from the radio base station and including downlink control information, DCI, the DCI including an uplink Downlink Assignment Index, DAI, and being for scheduling a physical uplink shared channel, PUSCH, in a component carrier, CC, of one of a plurality of cell groups; a control section configured to: control transmission of uplink control information, UCI, using an uplink control channel and the transmission of the UCI using an uplink shared channel in each of the plurality of cell groups, each cell group including at least one CC, determine a number of bits for HARQ-ACK to be transmitted in a PUSCH, based on the DAI, and allocate HARQ-ACK bits to a PUSCH of a CC in one cell group; and control transmission of uplink control information, UCI, using an uplink control channel and the transmission of the UCI using an uplink shared channel in each of the plurality of cell groups, each cell group including at least one CC, determine a number of bits for HARQ-ACK to be transmitted in a PUSCH, based on the DAI, and allocate HARQ-ACK bits to a PUSCH of a CC in one cell group; and a transmission section configured to transmit the HARQ-ACK, wherein the terminal is configured to perform a receiving process of a physical downlink control channel on the assumption that an uplink DAI is included in DCI transmitted from each cell group, and the uplink DAI indicates information about a number of DL subframes to be scheduled.
A power electronics module , comprising: - a substrate with at least a first metallization area ; - a first group of power electronic devices arranged in the first metallization area , wherein the first group comprises a plurality of power electronic devices ; and - a common, uninterrupted joining layer of solder material arranged between the first metallization area and the first group of power electronic devices , wherein the common, uninterrupted joining layer establishes a mechanical and an electrical contact between the first metallization area and the first group of power electronic devices ; - wherein each one of the power electronic devices of the first group is arranged directly adjacent to at least one other power electronic device of the first group; - wherein the individual power electronic devices are self-aligned during a soldering process for joining the power electronic devices to the metallization area by a solder meniscus formed at the periphery of each power electronic device , the solder meniscus of adjacent ones of the power electronic devices merging such that the solder layer comprises a recess in an internal gap between adjacent ones of the power electronic devices ; - wherein the first group of power electronic devices comprises a clear meniscus at its outer periphery; and - wherein a distance between adjacent power electronic devices of the first group is smaller than 1 mm. - a substrate with at least a first metallization area ; - a first group of power electronic devices arranged in the first metallization area , wherein the first group comprises a plurality of power electronic devices ; and - a common, uninterrupted joining layer of solder material arranged between the first metallization area and the first group of power electronic devices , wherein the common, uninterrupted joining layer establishes a mechanical and an electrical contact between the first metallization area and the first group of power electronic devices ; - wherein each one of the power electronic devices of the first group is arranged directly adjacent to at least one other power electronic device of the first group; - wherein the individual power electronic devices are self-aligned during a soldering process for joining the power electronic devices to the metallization area by a solder meniscus formed at the periphery of each power electronic device , the solder meniscus of adjacent ones of the power electronic devices merging such that the solder layer comprises a recess in an internal gap between adjacent ones of the power electronic devices ; - wherein the first group of power electronic devices comprises a clear meniscus at its outer periphery; and - wherein a distance between adjacent power electronic devices of the first group is smaller than 1 mm.
A method for automated generating a compensation echo curve for a fill level measurement of a filling material in a container by means of a radar sensor , wherein the radar sensor is arranged on a mounting above the container and wherein the container has an upper side which is permeable to radar waves, the method comprising the steps: recognizing the container ; creating a preliminary compensation echo curve , wherein the preliminary compensation echo curve corresponds to an echo curve of an empty container ; detecting a first echo curve , wherein the first echo curve comprises at least a first amplitude maximum and a second amplitude maximum , wherein the first amplitude maximum has a smaller distance to an antenna of the radar sensor than the second amplitude maximum ; and creating the compensation echo curve by forming a maximum from the preliminary compensation echo curve and the first amplitude maximum . recognizing the container ; creating a preliminary compensation echo curve , wherein the preliminary compensation echo curve corresponds to an echo curve of an empty container ; detecting a first echo curve , wherein the first echo curve comprises at least a first amplitude maximum and a second amplitude maximum , wherein the first amplitude maximum has a smaller distance to an antenna of the radar sensor than the second amplitude maximum ; and creating the compensation echo curve by forming a maximum from the preliminary compensation echo curve and the first amplitude maximum .
INSULATED ELECTROSTATICALLY-ASSISTED SPRAYING EXTENDER for installation on a spray bar of a grounded agricultural spraying equipment, comprising an induction electrode and a hydrophobic material housing , the spraying extender configured to be positioned adjacent to a hydraulic nozzle which atomizes the spraying solution droplets that are released by the nozzle to be electrically charged when passing through the induction electrode which, in use, creates an electrostatic field that electrically charges the droplets to be directed to surfaces where spraying solution is to be applied, being characterized by the hydrophobic material housing being equipped with an insulated internal rod with an upper end provided with an opening to introduce a power supply cable wherein the insulated rod is configured to be connected, at one end, to a high voltage electronic module powered by a tractor's battery, and at the opposite end connected to an encapsulated electrical device positioned on said insulated internal rod , said electrical device powering the induction electrode , and wherein, on a lower end of the insulated rod a spring is arranged on whose free ends is attached a support of the induction electrode .
A composition comprising a biocompatible microsphere, a biofilm-generating probiotic bacterium, a prebiotic, and a DNA binding polypeptide or protein and/or a DNABII polypeptide or protein or an equivalent of each thereof, optionally, a polypeptide comprising one or more of SEQ ID NO: 1 to 24, or a biologically active fragment or equivalent of each thereof, alone or in combination wherein the prebiotic comprises a nutritional supplementation for the probiotic bacterium.
Nebulizer for nebulizing a liquid , comprising: a preferably replaceable container containing multiple doses of the liquid , a fluid pump for withdrawing a dose of the liquid from the container and pressurizing the respective dose for nebulization, an air pump for pressurizing the liquid in the container to help withdrawing the liquid in doses from the container , and preferably a housing part which can be detached from the nebulizer or opened for inserting or replacing the container , characterized in that the nebulizer or air pump comprises a control valve for limiting the air pressure generated by the air pump for pressurizing the liquid in the container to a maximum value above the ambient pressure (PA) independently from a filling level of the container with the liquid . a preferably replaceable container containing multiple doses of the liquid , a fluid pump for withdrawing a dose of the liquid from the container and pressurizing the respective dose for nebulization, an air pump for pressurizing the liquid in the container to help withdrawing the liquid in doses from the container , and preferably a housing part which can be detached from the nebulizer or opened for inserting or replacing the container , characterized in that the nebulizer or air pump comprises a control valve for limiting the air pressure generated by the air pump for pressurizing the liquid in the container to a maximum value above the ambient pressure (PA) independently from a filling level of the container with the liquid .
A mobile inhaler, comprising: - a mouthpiece comprising at least one inhaling opening ; - a body element connected to the mouthpiece and comprising a housing for holding a DC power source ; - an enclosure holding a container that comprises a liquid into a cavity, and wherein the container comprises a wick arranged in the cavity in contact with the liquid; - a power conversion unit comprising an inverter operative to convert a DC voltage provided by the DC power source into a higher AC voltage; - a nebulizer adapted to enable converting into aerosol droplets at least part of the liquid in the enclosure for directly inhalation from said mouthpiece ; and - a connection enabling fluid transfer from said enclosure to the nebulizer ; said nebulizer comprising: a mesh having disc shape and comprising a central, dome-shaped circular region having a convex side arranged to extend towards the at least one inhaling opening , the dome-shaped circular region comprising a plurality of openings, wherein the mesh is configured to be in contact with the wick, thereby preventing direct contact between the mesh and the liquid comprised within said enclosure ; and an ultrasonic vibrator configured to vibrate the mesh , wherein the ultrasonic vibrator is activatable by the AC voltage, wherein the ultrasonic vibrator is an annular piezo-electric vibration generator, wherein the dome-shaped circular region is aligned with a central hole of the vibration generator , and wherein the mesh is directly attached to a lower side of the annular piezo-electric vibration generator. - a mouthpiece comprising at least one inhaling opening ; - a body element connected to the mouthpiece and comprising a housing for holding a DC power source ; - an enclosure holding a container that comprises a liquid into a cavity, and wherein the container comprises a wick arranged in the cavity in contact with the liquid; - a power conversion unit comprising an inverter operative to convert a DC voltage provided by the DC power source into a higher AC voltage; - a nebulizer adapted to enable converting into aerosol droplets at least part of the liquid in the enclosure for directly inhalation from said mouthpiece ; and - a connection enabling fluid transfer from said enclosure to the nebulizer ; a mesh having disc shape and comprising a central, dome-shaped circular region having a convex side arranged to extend towards the at least one inhaling opening , the dome-shaped circular region comprising a plurality of openings, wherein the mesh is configured to be in contact with the wick, thereby preventing direct contact between the mesh and the liquid comprised within said enclosure ; and an ultrasonic vibrator configured to vibrate the mesh , wherein the ultrasonic vibrator is activatable by the AC voltage, wherein the ultrasonic vibrator is an annular piezo-electric vibration generator, wherein the dome-shaped circular region is aligned with a central hole of the vibration generator , and wherein the mesh is directly attached to a lower side of the annular piezo-electric vibration generator.
A method for utilizing a converting machine in a packaging system for packaging orders, the method comprising: receiving a first order that has been gathered and is ready for packaging; attaching a tracking label to the first order wherein the tracking label comprises a unique tracking code, wherein the tracking label associates the first order with a packaging template; after receiving the first order requesting a packaging template 160 by scanning, with a tracking-code scanner 132, a tracking code associated with the first order 180 , the tracking code being associated with packaging information relating to packaging attributes of the first order; sending a packaging template request to a packaging system to generate a packaging template, the packaging template being associated with the first order, after the first order has been gathered; and generating the packaging template, wherein the packaging template is custom made by the packaging system wherein the packaging information comprises information relating to the dimensions of one or more items within the first order. receiving a first order that has been gathered and is ready for packaging; attaching a tracking label to the first order wherein the tracking label comprises a unique tracking code, wherein the tracking label associates the first order with a packaging template; after receiving the first order requesting a packaging template 160 by scanning, with a tracking-code scanner 132, a tracking code associated with the first order 180 , the tracking code being associated with packaging information relating to packaging attributes of the first order; sending a packaging template request to a packaging system to generate a packaging template, the packaging template being associated with the first order, after the first order has been gathered; and generating the packaging template, wherein the packaging template is custom made by the packaging system wherein the packaging information comprises information relating to the dimensions of one or more items within the first order.
A formulation comprising a zinc-α 2 -glycoprotein (ZAG) for use in the treatment of diabetes by reducing the blood glucose levels in a subject and increasing the subject's endogenous level of a zinc-α 2 -glycoprotein (ZAG), wherein the formulation is administered to the subject by oral administration.
A retainer sleeve for use with a lock in a ground engaging tool with a lock cavity , comprising: a body including an at least partially annular configuration defining a retainer axis , the body including: an inner surface configured to rotatably receive an outer surface of the lock ; and a plurality of plates (608a-e) circumferentially joined together with respect to the retainer axis , wherein a first plate of the plurality of plates includes a first leg joined to the first plate extending away from the retainer axis and configured to contact the lock cavity ; a characterised by an anti-rotation feature , disposed on the first plate , extending inward from the inner surface toward the retainer axis , the anti-rotation feature including a locking surface , the locking surface disposed at a first angle with respect to a bottom end of the first plate . an inner surface configured to rotatably receive an outer surface of the lock ; and a plurality of plates (608a-e) circumferentially joined together with respect to the retainer axis , wherein a first plate of the plurality of plates includes a first leg joined to the first plate extending away from the retainer axis and configured to contact the lock cavity ; a characterised by an anti-rotation feature , disposed on the first plate , extending inward from the inner surface toward the retainer axis , the anti-rotation feature including a locking surface , the locking surface disposed at a first angle with respect to a bottom end of the first plate .
A breathing exerciser comprising a first chamber suitable to be connected with a means for connecting said exerciser to the exerciser user's airways, a second chamber in communication with the first chamber , a third chamber , in communication with the second chamber , means for regulating the respiratory mixture composition and means for regulating the inhalation/exhalation resistance , which is installed a channel of communication which communicates the first chamber with the second chamber , wherein the second chamber communicates with the atmosphere, the third chamber is elastic, means for regulating the respiratory mixture composition is carried out in the form of an adjustable throttling device , which is installed in a channel communicating the second chamber with the third chamber , and a controlled throttling device , which is installed in a channel of communication which communicates the second chamber with the atmosphere, and said means for controlling the inhalation/exhalation resistance is configured to regulate the inhalation resistance and the exhalation resistance separately and independently.
A measuring tube unit for use in a Coriolis mass flowmeter with an inlet end and an outlet end , comprising at least two measuring tubes and at least two transition pieces , wherein, in each case, one transition piece is arranged on a measuring tube at the inlet end , wherein each measuring tube has a measuring tube cross section and each transition piece has a transition piece cross section at the inlet, wherein the transition piece is designed in one piece with the associated measuring tube , and that the transition piece cross section deviates in its shape and/or size from the associated measuring tube cross section , characterized in that the measuring tubes are arranged and aligned in such a manner that the transition piece cross sections form an overall cross section and thus a flow divider, and that the transition piece is adapted in its design, on the one hand, to the cross section of the pipes to be attached and, at the same time, to the measurement configuration, in detail to the number of measuring tubes .
A method for use with a data integration environment, comprising: performing a metadata analysis of accessed entity data to determine at least one entity attribute; performing a search on a plurality of target datasets using the at least one entity attribute to determine a candidate subset of the plurality of target datasets; extracting one or more features of the accessed entity data and the candidate subset of target datasets, wherein the one or more features comprise metadata, data type and statistical profiles for each entity attribute; applying a machine learning process to the accessed entity data and each dataset of the candidate subset of target datasets to determine a similarity score, based on the extracted one or more features; and determining an exact mapping between each dataset of the candidate subset and the accessed entity data based on the similarity score; providing the exact mapping to a software development component. performing a metadata analysis of accessed entity data to determine at least one entity attribute; performing a search on a plurality of target datasets using the at least one entity attribute to determine a candidate subset of the plurality of target datasets; extracting one or more features of the accessed entity data and the candidate subset of target datasets, wherein the one or more features comprise metadata, data type and statistical profiles for each entity attribute; applying a machine learning process to the accessed entity data and each dataset of the candidate subset of target datasets to determine a similarity score, based on the extracted one or more features; and determining an exact mapping between each dataset of the candidate subset and the accessed entity data based on the similarity score; providing the exact mapping to a software development component.
A system, comprising: an airflow passage configured to confine a flow of air and direct the flow of air toward a space; and an air purification element positioned in the airflow passage and configured to produce a peroxide to oxidize contaminants in air flowing through the airflow passage , the air purification element including: a peroxide-generating structure configured to produce the peroxide from a water vapor and oxygen in the air within the airflow passage when energized by an energy source; characterised by a matrix containing a peroxide-activating catalyst configured to activate peroxide produced, the matrix being configured to allow the contaminants to contact peroxide activated by the peroxide-activating catalyst . an airflow passage configured to confine a flow of air and direct the flow of air toward a space; and an air purification element positioned in the airflow passage and configured to produce a peroxide to oxidize contaminants in air flowing through the airflow passage , the air purification element including: a peroxide-generating structure configured to produce the peroxide from a water vapor and oxygen in the air within the airflow passage when energized by an energy source; characterised by a matrix containing a peroxide-activating catalyst configured to activate peroxide produced, the matrix being configured to allow the contaminants to contact peroxide activated by the peroxide-activating catalyst . a peroxide-generating structure configured to produce the peroxide from a water vapor and oxygen in the air within the airflow passage when energized by an energy source; characterised by a matrix containing a peroxide-activating catalyst configured to activate peroxide produced, the matrix being configured to allow the contaminants to contact peroxide activated by the peroxide-activating catalyst .
Separating apparatus for polysilicon with at least one screen plate , comprising a feed area for polysilicon, a profiled area with peaks and depressions , a region adjoining the profiled region and having sieve openings , and a removal region , the sieve openings widening in the direction of the removal region , characterized in that a separating plate is arranged below the sieve openings, which separating plate can be displaced horizontally in order to adjust the position of the separating plate in the direction of the removal area, and which can be moved vertically to vary the distance to the screen openings.