mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission method, comprising: configuring , by a base station, a resource request parameter for first user equipment, UE, and sending the resource request parameter to the first UE; allocating , by the base station, a first physical uplink shared channel, PUSCH, resource to the first UE, wherein the first PUSCH resource is used by the first UE to send resource request information; and allocating , by the base station to the first UE when the base station detects, on the first PUSCH resource, resource request information sent by the first UE based on the resource request parameter, a second PUSCH resource used for sending data, characterised in that the step of allocating, by the base station, a second PUSCH resource to the first UE comprises: if the base station pre-allocates a common uplink semi persistent scheduling, SPS, resource to the first UE and at least one contention UE, detects resource request information separately sent by the first UE and the at least one contention UE, and determines that the first UE and the at least one contention UE request to send data on the common uplink SPS resource, allocating, by the base station, a PUSCH resource that is different from a PUSCH resource used by the at least one contention UE to the first UE, and using the PUSCH resource as the second PUSCH resource used by the first UE to send data. configuring , by a base station, a resource request parameter for first user equipment, UE, and sending the resource request parameter to the first UE; allocating , by the base station, a first physical uplink shared channel, PUSCH, resource to the first UE, wherein the first PUSCH resource is used by the first UE to send resource request information; and allocating , by the base station to the first UE when the base station detects, on the first PUSCH resource, resource request information sent by the first UE based on the resource request parameter, a second PUSCH resource used for sending data, characterised in that the step of allocating, by the base station, a second PUSCH resource to the first UE comprises: if the base station pre-allocates a common uplink semi persistent scheduling, SPS, resource to the first UE and at least one contention UE, detects resource request information separately sent by the first UE and the at least one contention UE, and determines that the first UE and the at least one contention UE request to send data on the common uplink SPS resource, allocating, by the base station, a PUSCH resource that is different from a PUSCH resource used by the at least one contention UE to the first UE, and using the PUSCH resource as the second PUSCH resource used by the first UE to send data.
A container arrangement , comprising: a container body comprising an interior for receiving solid matters or liquids; a first wireless communication system , wherein the first wireless communication system is composed of a Near Field Communication system (NFC) including a Near Field (NFC) antenna formed by a conductor arranged in one or more windings, a controller and a data storage area ; a first sensing-switching arrangement , wherein the first sensing-switching arrangement is configured to include a first preset status disabling a primary operation mode of the first wireless communication system , wherein the first sensing-switching arrangement is configured to deregulate irreversibly its first preset status upon an initial opening event; characterised in that the container arrangement further comprises a second sensing-switching arrangement , wherein the second sensing-switching arrangement is configured to include a second preset status disabling the primary operation mode of the first wireless communication system ; wherein the second sensing-switching arrangement is configured to deregulate its second preset status upon an unloading event and only for the duration of the respective unloading event, which refers to an unloading act of contents of the container body ; and wherein the first and any subsequent unloading acts from the interior trigger the unloading event respectively; wherein i) the first preset status includes an enabling of an alternative operation mode of the Near Field Communication system (NFC); or ii) the first preset status includes a fully disabled operability of the NFC system and the second preset status includes an enabling of an alternative operation mode of the Near Field Communication system (NFC). a container body comprising an interior for receiving solid matters or liquids; a first wireless communication system , wherein the first wireless communication system is composed of a Near Field Communication system (NFC) including a Near Field (NFC) antenna formed by a conductor arranged in one or more windings, a controller and a data storage area ; a first sensing-switching arrangement , wherein the first sensing-switching arrangement is configured to include a first preset status disabling a primary operation mode of the first wireless communication system , wherein the first sensing-switching arrangement is configured to deregulate irreversibly its first preset status upon an initial opening event; i) the first preset status includes an enabling of an alternative operation mode of the Near Field Communication system (NFC); or ii) the first preset status includes a fully disabled operability of the NFC system and the second preset status includes an enabling of an alternative operation mode of the Near Field Communication system (NFC).
A self-propelled combine harvester with a housing containing a housing wall , wherein the housing is a drum housing for a threshing assembly of the self-propelled combine harvester , wherein • the self-propelled combine harvester is of the shaker machine type, wherein the first conveying and/or processing assembly is a separating drum and the first floor segment is a concave floor segment , or • the self-propelled combine harvester is of the axial flow machine type, in particular a hybrid machine, wherein the first conveying and/or processing assembly is a feed drum and the first floor segment is an inflow floor segment , wherein the housing wall has at least one first through opening through which a first conveying and/or processing assembly of the combine harvester can be removed, characterized in that it has a first positioning module (I) with at least two first articulation points of which, depending on the type of combine harvester , • at least one can be selected for securing components (501 - 507) of an adjustment mechanism for a first floor segment , and/or • one can be selected in order to dispose a second conveying and/or processing assembly of the combine harvester downstream of the first conveying and/or processing assembly. • the self-propelled combine harvester is of the shaker machine type, wherein the first conveying and/or processing assembly is a separating drum and the first floor segment is a concave floor segment , or • the self-propelled combine harvester is of the axial flow machine type, in particular a hybrid machine, wherein the first conveying and/or processing assembly is a feed drum and the first floor segment is an inflow floor segment , wherein the housing wall has at least one first through opening through which a first conveying and/or processing assembly of the combine harvester can be removed, characterized in that it has a first positioning module (I) with at least two first articulation points of which, depending on the type of combine harvester , • at least one can be selected for securing components (501 - 507) of an adjustment mechanism for a first floor segment , and/or • one can be selected in order to dispose a second conveying and/or processing assembly of the combine harvester downstream of the first conveying and/or processing assembly. • at least one can be selected for securing components (501 - 507) of an adjustment mechanism for a first floor segment , and/or • one can be selected in order to dispose a second conveying and/or processing assembly of the combine harvester downstream of the first conveying and/or processing assembly.
A cyclic polypeptide comprising at least six contiguous amino acids from the amino acid sequence SEQ ID NO:1 Gly-Gln-Arg-Glu-Thr-Pro-Glu-Gly-Ala-Glu-Ala-Lys-Pro-Trp-Tyr for the use in the treatment of autosomal recessive pseudohypoaldosteronism type 1B (PHA type1B).
An electrically heated aerosol-generating system comprising a primary device and a secondary, aerosol-generating, device having a cavity at a proximal end for receiving an aerosol-generating substrate, and a distal end: the primary device comprising: a housing ; a power supply ; a cavity in the housing configured to receive the secondary device; a plurality of electrical contacts within the cavity each contact configured to contact a corresponding contact of the secondary device when the secondary device is in the cavity, at least one of the contacts being connected to the power supply; and a lid configured to cover the opening of the cavity, moveable between a first, closed, position, and a second, open, position, wherein, the lid further comprises a protrusion , having a maximum width less than the diameter of the cavity of the secondary device, such that when the secondary device is provided in the cavity of the primary device, distal end first, the protrusion extends into the cavity of the secondary device when the lid is in the first position, and such that when the secondary device is provided in the cavity, proximal end first, the protrusion engages with a distal end of the secondary device to prevent the lid from moving to the first position. a housing ; a power supply ; a cavity in the housing configured to receive the secondary device; a plurality of electrical contacts within the cavity each contact configured to contact a corresponding contact of the secondary device when the secondary device is in the cavity, at least one of the contacts being connected to the power supply; and a lid configured to cover the opening of the cavity, moveable between a first, closed, position, and a second, open, position, wherein, the lid further comprises a protrusion , having a maximum width less than the diameter of the cavity of the secondary device, such that when the secondary device is provided in the cavity of the primary device, distal end first, the protrusion extends into the cavity of the secondary device when the lid is in the first position, and such that when the secondary device is provided in the cavity, proximal end first, the protrusion engages with a distal end of the secondary device to prevent the lid from moving to the first position.
A scattered object collection system comprising: an autonomous collector configured to perform a collecting operation by picking up scattered objects scattered in a work area (W) while traveling in the work area (W); a collector management unit configured to manage the autonomous collector and to acquire positional information on the autonomous collector ; and a sensor for sequentially detecting that each scattered object has been picked up and collected and for acquiring collection information, characterized in that the collector management unit comprises an information acquisition unit configured to identify an actual position where each scattered object was picked up in the work area (W) using the acquired positional information and the acquired collection information, and an object position identification unit configured to correct the positional information on the collector at a time point when the objects are detected by the sensor , using information acquired by the information acquisition unit , thereby acquiring the actual position where each object were picked up, and wherein the collector management unit is further configured to manage the autonomous collector to perform a collecting operation in an area having a high density of scattered objects with a higher travel ratio than in an area having a low density of scattered objects using the identified actual positional information on each scattered object. an autonomous collector configured to perform a collecting operation by picking up scattered objects scattered in a work area (W) while traveling in the work area (W); a collector management unit configured to manage the autonomous collector and to acquire positional information on the autonomous collector ; and a sensor for sequentially detecting that each scattered object has been picked up and collected and for acquiring collection information, characterized in that the collector management unit comprises an information acquisition unit configured to identify an actual position where each scattered object was picked up in the work area (W) using the acquired positional information and the acquired collection information, and an object position identification unit configured to correct the positional information on the collector at a time point when the objects are detected by the sensor , using information acquired by the information acquisition unit , thereby acquiring the actual position where each object were picked up, and wherein the collector management unit is further configured to manage the autonomous collector to perform a collecting operation in an area having a high density of scattered objects with a higher travel ratio than in an area having a low density of scattered objects using the identified actual positional information on each scattered object.
A method of optimizing production of a hydrocarbon-containing reservoir comprising: a) collecting Low-Frequency Distributed Acoustic Sensing LF-DAS in the low frequency band of greater than 0 to 0.05Hz data from a fiber optic sensing element in at least one well in a hydrocarbon-containing reservoir; b) applying at least one drift removal processing technique to said LF-DAS data to reduce noise and enhance the signal in the low frequency band of greater than 0 to 0.05Hz to form a corrected data set; c) analyzing said corrected data set; and, d) optimizing a production plan for producing hydrocarbons from said reservoir based on said analysis; and e) implementing said optimized production plan to produce hydrocarbons; characterized in that the drift removal processing technique comprises; searching for a quiet section of channels of the fiber optic sensing element at a single time that has a nonexistent, or low, signal strength; determining a quiet section for each time sample; using the median of the designated channels having a quiet section to extract a time dependent drift function; subtracting the time dependent drift function from all channels of the fiber optic sensing element at each time to remove the drift; wherein DRIFT t = MED x x q t where x q is a set of quiet depth channels, t is time, MED x is a median calculation of just the channel dimension, and DRIFT(t) is the time dependent drift calculation for each time sample, t. a) collecting Low-Frequency Distributed Acoustic Sensing LF-DAS in the low frequency band of greater than 0 to 0.05Hz data from a fiber optic sensing element in at least one well in a hydrocarbon-containing reservoir; b) applying at least one drift removal processing technique to said LF-DAS data to reduce noise and enhance the signal in the low frequency band of greater than 0 to 0.05Hz to form a corrected data set; c) analyzing said corrected data set; and, d) optimizing a production plan for producing hydrocarbons from said reservoir based on said analysis; and e) implementing said optimized production plan to produce hydrocarbons; the drift removal processing technique comprises; searching for a quiet section of channels of the fiber optic sensing element at a single time that has a nonexistent, or low, signal strength; determining a quiet section for each time sample; using the median of the designated channels having a quiet section to extract a time dependent drift function; subtracting the time dependent drift function from all channels of the fiber optic sensing element at each time to remove the drift; wherein DRIFT t = MED x x q t where x q is a set of quiet depth channels, t is time, MED x is a median calculation of just the channel dimension, and DRIFT(t) is the time dependent drift calculation for each time sample, t. x q is a set of quiet depth channels, t is time, MED x is a median calculation of just the channel dimension, and DRIFT(t) is the time dependent drift calculation for each time sample, t.
A process for the compounding of rubber wherein at least one processing additive is added to the rubber before or during compounding and separately adding at least one phenolic reinforcing resins of the novolak type, which are substantially cured with formaldehydes releasing substances, wherein the processing additive is a functional reactive diluent having at least one functional group in the molecule which is not an olefinic unsaturation and wherein the at least one processing additive is an addition resin AC made from a monofunctional or multifunctional aldehyde A, and an organic compound C having at least one carbamate group -O-CO-NH 2 , and an organic radical, where the radical can be a monovalent radical R selected from the group consisting of linear, branched or cyclic aliphatic radicals having from one to thirty carbon atoms, and aralkyl radicals, or a divalent organic radical -R'- selected from the group consisting of linear, branched or cyclic aliphatic diradicals having from two to thirty carbon atoms and bisalkyl aryl radicals having from 8 to 30 carbon atoms.
Method of managing unusable printed products in a system for processing printing substrates, the system consisting of at least one computer and at least one printing machine , the method comprising the steps of allotting by means of a computer a central ID for every print product to be processed in the system, assigning specific events to every ID by means of the computer , printing on print products in a printing machine of the system, examining the print products that have been printed in this way by means of a computer-assisted image recording system , and, as a function of the examining step, assigning a specific state to every one of the printed print products by means of the computer , assigning, by means of the computer all recorded states to a respective specific event, and initiating the specific event for all of the printed print products as a function of the respective assigned state of the respective print product and of a specific further processing by means of the computer , wherein the printing machine is a sheet-fed printing machine , characterized in that the computer assigns an ID to every utilized print sheet in a corresponding way, in that, in case of further processing in the sheet-fed printing machine , the events comprise activating a good sheet counter or stopping the printing machine and, in case of further processing in a separate further processing unit, the events comprise feeding the printed print product to the separate further processing unit, separately depositing the printed print product as a sample sheet, stopping the separate further processing unit, as well as loading provided configuration data for an autonomous presetting of the separate further processing unit and in that in both cases, the events comprise removing the printed product as unusable.
Protective cover for a syringe having a syringe body and a proximal syringe outlet , the protective cover being a slip cover that is attachable outside around the syringe body , wherein a further outlet is formed proximally at the slip cover comprising a) an attachment , the slip cover proximally having the attachment , the attachment having proximally inside the slip cover 1) an inside thread and a mechanical stop for a counter stop at the proximal end of the syringe body, or 2) a cone widening towards distal, the inside thread being screwable onto an outside thread of the syringe body , b) connector , c) connector system , d) lumen , the outer periphery of which being made of an elastic material, or e) a cannula , characterised in that the slip cover has a circumferential sealing lip in the distal region. a) an attachment , the slip cover proximally having the attachment , the attachment having proximally inside the slip cover 1) an inside thread and a mechanical stop for a counter stop at the proximal end of the syringe body, or 2) a cone widening towards distal, the inside thread being screwable onto an outside thread of the syringe body , b) connector , c) connector system , d) lumen , the outer periphery of which being made of an elastic material, or e) a cannula ,
A multi-span greenhouse, comprising a lateral frame , a vertical frame , a top cover , an inflatable and thermal insulation system , a plurality of rotary shafts and a plurality of flexible mounting slots , wherein the lateral frame and the vertical frame are connected to each other by the plurality of flexible mounting slots, the vertical frame is arranged at left and right sides, the lateral frame is arranged above and supported by the vertical frame , the top cover is arranged above the lateral frame , the plurality of rotary shafts are provided at both ends of the lateral frame , and at a top end of the vertical frame , wherein the inflatable and thermal insulation system includes an air compressor , a dust collector , a dehydrator , a dryer , a constant-pressure and air-releasing controller , and a thermal insulation quilt which are communicated with each other in this order through a pipeline, wherein the thermal insulation quilt is inflated by starting the air compressor to have a stable shape and engage with the plurality of flexible mounting slots so that the thermal insulation quilt is provided in the lateral frame and the vertical frame to have the functions of sealing and heat preservation, and in a case that the thermal insulation quilt reaches a predetermined pressure, the air compressor stops working, and in a case that the thermal insulation quilt has insufficient pressure, the air compressor restarts working.