mhurhangee/patent-ind-claim-en huggingface dataset:
A radio receiver device arranged to receive a radio signal modulated with a plurality of data symbols from an incoming bitstream, said radio receiver device comprising: an analogue circuit portion for connection to an antenna , said analogue circuit portion comprising an analogue-to-digital converter clocked by a first clock signal , wherein the analogue-to-digital converter is arranged to receive the radio signal and produce a digital signal therefrom; a digital circuit portion arranged to receive the digital signal produced by the analogue-to-digital converter , said digital circuit portion comprising: one or more digital processing units, clocked by a second clock derived from the first clock , said one or more digital processing units being arranged to process the digital signal and produce an output signal therefrom at an output sample rate; and characterised by a sample counter clocked by the second clock such that the sample counter counts a number of samples at the output sample rate, said sample counter being arranged to set a trigger flag when the number of samples exceeds a predetermined threshold value ; wherein the radio receiver further comprises a buffer arranged to receive the output signal from the one or more digital processing units, wherein said buffer is enabled only when the trigger flag is set. an analogue circuit portion for connection to an antenna , said analogue circuit portion comprising an analogue-to-digital converter clocked by a first clock signal , wherein the analogue-to-digital converter is arranged to receive the radio signal and produce a digital signal therefrom; a digital circuit portion arranged to receive the digital signal produced by the analogue-to-digital converter , said digital circuit portion comprising: one or more digital processing units, clocked by a second clock derived from the first clock , said one or more digital processing units being arranged to process the digital signal and produce an output signal therefrom at an output sample rate; and characterised by a sample counter clocked by the second clock such that the sample counter counts a number of samples at the output sample rate, said sample counter being arranged to set a trigger flag when the number of samples exceeds a predetermined threshold value ; one or more digital processing units, clocked by a second clock derived from the first clock , said one or more digital processing units being arranged to process the digital signal and produce an output signal therefrom at an output sample rate; and characterised by a sample counter clocked by the second clock such that the sample counter counts a number of samples at the output sample rate, said sample counter being arranged to set a trigger flag when the number of samples exceeds a predetermined threshold value ;
A system for vascular imaging co-registration, the system comprising: a processor , the processor being configured for: obtaining extravascular imaging data of a portion of a blood vessel, the extravascular imaging data including: an extravascular image showing an intravascular imaging device disposed within the vessel, with an imaging element of the intravascular imaging device disposed at a starting location for a translation procedure during which the imaging element is translated within the blood vessel from the starting location to an ending location; an extravascular contrast image showing the portion of the blood vessel with contrast and showing a visualized anatomical landmark; obtaining intravascular imaging data from the intravascular imaging device , the intravascular imaging data including one or more intravascular images obtained during the translation procedure, the one or more intravascular images showing a detected anatomical landmark; marking the starting location and the ending location of the imaging element on the extravascular imaging data; marking a predicted location of the detected anatomical landmark on the extravascular imaging data; and aligning the predicted location of the detected anatomical landmark with the visualized anatomical landmark. obtaining extravascular imaging data of a portion of a blood vessel, the extravascular imaging data including: an extravascular image showing an intravascular imaging device disposed within the vessel, with an imaging element of the intravascular imaging device disposed at a starting location for a translation procedure during which the imaging element is translated within the blood vessel from the starting location to an ending location; an extravascular contrast image showing the portion of the blood vessel with contrast and showing a visualized anatomical landmark; an extravascular image showing an intravascular imaging device disposed within the vessel, with an imaging element of the intravascular imaging device disposed at a starting location for a translation procedure during which the imaging element is translated within the blood vessel from the starting location to an ending location; an extravascular contrast image showing the portion of the blood vessel with contrast and showing a visualized anatomical landmark; obtaining intravascular imaging data from the intravascular imaging device , the intravascular imaging data including one or more intravascular images obtained during the translation procedure, the one or more intravascular images showing a detected anatomical landmark; marking the starting location and the ending location of the imaging element on the extravascular imaging data; marking a predicted location of the detected anatomical landmark on the extravascular imaging data; and aligning the predicted location of the detected anatomical landmark with the visualized anatomical landmark.
A preparation method of multi-sectional aerosol generating products, wherein, the method comprises the following steps: Step 1, preparation of filter-tip rod: A composite tube is used to wrap a plugging part and a filtering part , there is a first axial length of the interval between the plugging part and the filtering part , the length is a cavity section limited by the composite tube , One end of plugging part far away from the cavity section is an aerosol generating matrix accommodating cavity limited by the composite tube ; Step 2, filling of an aerosol generating material: The filter-tip rod is in a vertical state, wherein the aerosol generating matrix accommodating cavity is vertically upward, and the flowing aerosol generating material is filled into the aerosol generating matrix accommodating cavity ; Step 3, forming of an aerosol generating rod : Rotate the filter-tip rod filled with aerosol generating material by 180° , so that the aerosol generating matrix accommodating cavity is vertically downward, place it on the plane to dry and expand at a certain temperature, so that the aerosol generating material is solidified to form a fixed aerosol generating rod in the aerosol generating matrix accommodating cavity . Step 1, preparation of filter-tip rod: A composite tube is used to wrap a plugging part and a filtering part , there is a first axial length of the interval between the plugging part and the filtering part , the length is a cavity section limited by the composite tube , One end of plugging part far away from the cavity section is an aerosol generating matrix accommodating cavity limited by the composite tube ; A composite tube is used to wrap a plugging part and a filtering part , there is a first axial length of the interval between the plugging part and the filtering part , the length is a cavity section limited by the composite tube , One end of plugging part far away from the cavity section is an aerosol generating matrix accommodating cavity limited by the composite tube ; Step 2, filling of an aerosol generating material: The filter-tip rod is in a vertical state, wherein the aerosol generating matrix accommodating cavity is vertically upward, and the flowing aerosol generating material is filled into the aerosol generating matrix accommodating cavity ; Step 3, forming of an aerosol generating rod : Rotate the filter-tip rod filled with aerosol generating material by 180° , so that the aerosol generating matrix accommodating cavity is vertically downward, place it on the plane to dry and expand at a certain temperature, so that the aerosol generating material is solidified to form a fixed aerosol generating rod in the aerosol generating matrix accommodating cavity .
Mirror pyramid with an axis of rotation for a laser scanner , during operation of which a transmission beam hits the rotating mirror pyramid at a non-normal angle to the axis of rotation , which mirror pyramid has pyramid faces that are inclined, each at a respective predetermined inclination (α i ) relative to the axis of rotation , and respectively form a mirror facet (7 i ), wherein at least two mirror facets (7 i ) have different inclinations (α i ), wherein the mirror pyramid is configured in such a manner that, during operation of the laser scanner , the hit point (C) of the transmission beam from the laser transmitter on the mirror pyramid sweeps over an equally large arc angle (δ i ) on each mirror facet (7 i ) when viewed in a direction of the axis of rotation, wherein the mirror pyramid has at least four mirror facets (7 i ), characterized in that from all sequences (P k ) of mirror facets (7 i ) around the axis of rotation obtainable by permutation that sequence (P opt ) is chosen in which a minimal dispersion (S min ) of the receiving areas (AR i ) of all mirror facets (7 i ) is obtained, wherein the receiving area (AR i ) of a mirror facet (7 i ) is considered as its area projected in the direction of a transmission beam reflected therefrom, the hit point (C) of which lies in the centre of said arc angle (δ i ). which mirror pyramid has pyramid faces that are inclined, each at a respective predetermined inclination (α i ) relative to the axis of rotation , and respectively form a mirror facet (7 i ), wherein at least two mirror facets (7 i ) have different inclinations (α i ), wherein the mirror pyramid is configured in such a manner that, during operation of the laser scanner , the hit point (C) of the transmission beam from the laser transmitter on the mirror pyramid sweeps over an equally large arc angle (δ i ) on each mirror facet (7 i ) when viewed in a direction of the axis of rotation, wherein the mirror pyramid has at least four mirror facets (7 i ), characterized in that from all sequences (P k ) of mirror facets (7 i ) around the axis of rotation obtainable by permutation that sequence (P opt ) is chosen in which a minimal dispersion (S min ) of the receiving areas (AR i ) of all mirror facets (7 i ) is obtained, wherein the receiving area (AR i ) of a mirror facet (7 i ) is considered as its area projected in the direction of a transmission beam reflected therefrom, the hit point (C) of which lies in the centre of said arc angle (δ i ).
A double suction impeller, comprising: a hub associated to a tubular center bore , the hub comprising: a plurality of blades integrally attached to the hub and to a left side shroud and to a right side shroud , the left side shroud and the right side shroud being provided with a center aperture adjacent to the tubular center bore , the outer edge of the left side shroud and the outer edge of the right side shroud defining the impeller exit, the impeller exit having a width and a median plane wherein each pair of adjacent blades of the plurality of blades define a plurality of inter-blade channels adapted to connect a plurality of input apertures , located within the center apertures of both the left side shroud and the right side shroud , to a plurality of output apertures located on the impeller exit, the inter-blade channels comprising left side inter-blade channels , having their respective input apertures located within the center aperture of the left side shroud , and right side inter-blade channels , having their respective input apertures located within the center aperture of the right side shroud , wherein the left side inter-blade channels and the right side inter-blade channels intersect the median plane of the impeller exit, in a way to dispose the plurality of output apertures of the left side inter-blade channels to be aligned and alternated with the output apertures of the right side inter-blade channels , on the impeller exit and characterized in that the inter-blade channels have a variable cross section shape, the cross section shape being substantially quadrilateral at the inlet of the inter-blade channel, then becoming substantially a five sided polygon and then becoming back substantially quadrilateral before the impeller outlet.
A scheduling method carried out by a network element, characterised in that it comprises the following steps: obtaining a fifth state information set based on fourth state information sets of K to-be-scheduled terminal devices and a state information set of a system, wherein K is an integer greater than or equal to 1, a dimension of a fourth state information set of any to-be-scheduled terminal device in the K to-be-scheduled terminal devices is L, L is an integer greater than or equal to 1, and a fourth state information set of any to-be-scheduled terminal device comprises state information of the any to-be-scheduled terminal device and state association data between the any to-be-scheduled terminal device and another to-be-scheduled terminal device; inputting the fifth state information set into a third neural network model to determine a weight set, wherein the third neural network model is determined based on L, and a quantity of weights comprised in the weight set is the same as L; determining a scheduled weight of each to-be-scheduled terminal device in the K to-be-scheduled terminal devices based on the weight set, to obtain K scheduled weights; and determining a scheduling result based on the K scheduled weights, wherein the scheduling result indicates a scheduled terminal device. obtaining a fifth state information set based on fourth state information sets of K to-be-scheduled terminal devices and a state information set of a system, wherein K is an integer greater than or equal to 1, a dimension of a fourth state information set of any to-be-scheduled terminal device in the K to-be-scheduled terminal devices is L, L is an integer greater than or equal to 1, and a fourth state information set of any to-be-scheduled terminal device comprises state information of the any to-be-scheduled terminal device and state association data between the any to-be-scheduled terminal device and another to-be-scheduled terminal device; inputting the fifth state information set into a third neural network model to determine a weight set, wherein the third neural network model is determined based on L, and a quantity of weights comprised in the weight set is the same as L; determining a scheduled weight of each to-be-scheduled terminal device in the K to-be-scheduled terminal devices based on the weight set, to obtain K scheduled weights; and determining a scheduling result based on the K scheduled weights, wherein the scheduling result indicates a scheduled terminal device.
A compound represented by Formula I or Formula II or a pharmaceutically acceptable salt thereof: wherein, X is C=O, NR 3 , C=NR 3 , S, S=O, S(=O) 2 , or C=S; R 1 and R 2 are independently selected from: aryl substituted with alkyl, alkoxy, halo, aralkyl, or C(O)Oalkyl and further substituted with halo or alkyl; or heteroaryl, and heterocyclyl optionally substituted with one or more alkyl, alkoxy, halo, aralkyl, or C(O)Oalkyl; R 4 is C(O)aryl substituted with amino, aminoalkoxy, aminoalkylthio, aminoalkylamino, alkynyloxy, alkyl, halo, nitro, or hydroxyl; and R 3 and R 7 are each independently H or alkyl, wherein the term alkyl refers to saturated aliphatic groups, including straight-chain alkyl groups, branched-chain alkyl groups, cycloalkyl (alicyclic) groups, alkyl-substituted cycloalkyl groups, and cycloalkyl-substituted alkyl groups. X is C=O, NR 3 , C=NR 3 , S, S=O, S(=O) 2 , or C=S; R 1 and R 2 are independently selected from: aryl substituted with alkyl, alkoxy, halo, aralkyl, or C(O)Oalkyl and further substituted with halo or alkyl; or heteroaryl, and heterocyclyl optionally substituted with one or more alkyl, alkoxy, halo, aralkyl, or C(O)Oalkyl; R 4 is C(O)aryl substituted with amino, aminoalkoxy, aminoalkylthio, aminoalkylamino, alkynyloxy, alkyl, halo, nitro, or hydroxyl; and R 3 and R 7 are each independently H or alkyl, wherein the term alkyl refers to saturated aliphatic groups, including straight-chain alkyl groups, branched-chain alkyl groups, cycloalkyl (alicyclic) groups, alkyl-substituted cycloalkyl groups, and cycloalkyl-substituted alkyl groups. aryl substituted with alkyl, alkoxy, halo, aralkyl, or C(O)Oalkyl and further substituted with halo or alkyl; or heteroaryl, and heterocyclyl optionally substituted with one or more alkyl, alkoxy, halo, aralkyl, or C(O)Oalkyl; R 4 is C(O)aryl substituted with amino, aminoalkoxy, aminoalkylthio, aminoalkylamino, alkynyloxy, alkyl, halo, nitro, or hydroxyl; and R 3 and R 7 are each independently H or alkyl, wherein the term alkyl refers to saturated aliphatic groups, including straight-chain alkyl groups, branched-chain alkyl groups, cycloalkyl (alicyclic) groups, alkyl-substituted cycloalkyl groups, and cycloalkyl-substituted alkyl groups.
A clothing washing system , comprising: an adjustment unit , connected to a first external fluid source; an electrolysis unit , being in fluid communication with the adjustment unit , and configured to electrolyze fluid loaded therein; a first fluid circulation unit , connected to the adjustment unit and the electrolysis unit , and configured to transfer fluid loaded in the adjustment unit to the electrolysis unit and transfer the fluid loaded in the electrolysis unit to the adjustment unit ; a nano microbubble generation unit , being in fluid communication with the adjustment unit , and configured to process fluid loaded therein to make it comprise nano-scale microbubbles; a second fluid circulation unit , connected to the adjustment unit and the nano microbubble generation unit , and configured to transfer the fluid loaded in the adjustment unit to the nano microbubble generation unit and transfer fluid loaded in the nano microbubble generation unit to the adjustment unit ; and a cleaning unit , being in fluid communication with the adjustment unit . an adjustment unit , connected to a first external fluid source; an electrolysis unit , being in fluid communication with the adjustment unit , and configured to electrolyze fluid loaded therein; a first fluid circulation unit , connected to the adjustment unit and the electrolysis unit , and configured to transfer fluid loaded in the adjustment unit to the electrolysis unit and transfer the fluid loaded in the electrolysis unit to the adjustment unit ; a nano microbubble generation unit , being in fluid communication with the adjustment unit , and configured to process fluid loaded therein to make it comprise nano-scale microbubbles; a second fluid circulation unit , connected to the adjustment unit and the nano microbubble generation unit , and configured to transfer the fluid loaded in the adjustment unit to the nano microbubble generation unit and transfer fluid loaded in the nano microbubble generation unit to the adjustment unit ; and a cleaning unit , being in fluid communication with the adjustment unit .
An intraoral phototherapy device (10; 30; 40) for directing light from an associated light source and propagating the light into an oral cavity of a patient , the device (10; 30; 40) comprising: a light guide (12; 92, 94) that receives light from the associated light source , the light guide (12; 92, 94) comprising a main body portion made of an optically transparent soft flexible biocompatible polymeric material sized and shaped to conform to contours of the oral cavity when inserted therein to direct the light to targeted regions of the oral cavity , wherein: the main body portion comprises a pair of laterally spaced side wings (16, 18; 34, 36; 48, 50) sized and shaped to be received between a patient's teeth and cheeks on opposite sides of the oral cavity for transmitting and directing the light to the targeted regions of the oral cavity ; and the targeted regions of the oral cavity include the mandibular and maxillary buccal surfaces of the oral cavity . the main body portion comprises a pair of laterally spaced side wings (16, 18; 34, 36; 48, 50) sized and shaped to be received between a patient's teeth and cheeks on opposite sides of the oral cavity for transmitting and directing the light to the targeted regions of the oral cavity ; and the targeted regions of the oral cavity include the mandibular and maxillary buccal surfaces of the oral cavity .
A User Equipment , comprising: a receiving unit configured to receive a Machine Type Communication Physical Downlink Control Channel, MPDCCH, and Physical Downlink Shared Channels, PDSCHs, wherein for a first PDSCH carrying First System Information Broadcast, SIB1, a starting Orthogonal Frequency Division Multiplexing, OFDM, symbol for a SIB1 transmission is determined based on information included in a Master Information Block, MIB, for second PDSCHs other than the first PDSCH, starting OFDM symbols are obtained by the SIB1, for the MPDCCH, a starting OFDM symbol is obtained by the SIB1, and the receiving unit is configured to receive the second PDSCHs based on (i) the starting OFDM symbols obtained by the SIB1 carried by the first PDSCH and (ii) resource allocation for the second PDSCHs, the resource allocation being carried by the MPDCCH. a receiving unit configured to receive a Machine Type Communication Physical Downlink Control Channel, MPDCCH, and Physical Downlink Shared Channels, PDSCHs, wherein for a first PDSCH carrying First System Information Broadcast, SIB1, a starting Orthogonal Frequency Division Multiplexing, OFDM, symbol for a SIB1 transmission is determined based on information included in a Master Information Block, MIB, for second PDSCHs other than the first PDSCH, starting OFDM symbols are obtained by the SIB1, for the MPDCCH, a starting OFDM symbol is obtained by the SIB1, and the receiving unit is configured to receive the second PDSCHs based on (i) the starting OFDM symbols obtained by the SIB1 carried by the first PDSCH and (ii) resource allocation for the second PDSCHs, the resource allocation being carried by the MPDCCH.