mhurhangee/patent-ind-claim-en huggingface dataset:
A humanized isolated anti-properdin antibody or antigen-binding portion thereof, for use in treating a disease or disorder selected from the group consisting of autoimmune thrombotic thrombocytopenic purpura (TTP), hemolytic uremic syndrome (HUS), atypical hemolytic uremic syndrome (aHUS), paroxysmal nocturnal hemoglobinuria (PNH), systemic lupus erythematosus, myasthenia gravis, Alzheimer's disease, multiple sclerosis, rheumatoid arthritis, osteo-arthritis, juvenile arthritis, diabetic retinopathy, histoplasmosis of the eye, age-related macular degeneration, choroidal neo-vascularization (CNV), uveitis, diabetic macular edema, pathological myopia, von Hippel-Lindau disease, histoplasmosis of the eye, Central Retinal Vein Occlusion (CRVO), corneal neo-vascularization, retinal neovascularization, asthma, chronic obstructive pulmonary disease ("COPD"), allergic broncho-pulmonary aspergillosis, hypersensitivity pneumonia, eosinophilic pneumonia, emphysema, bronchitis, allergic bronchitis bronchiecstasis, cyctic fibrosis, tuberculosis, hypersensitivity pneumonitis, occupational asthma, sarcoidosis, reactive airway disease syndrome, interstitial lung disease, hyper-eosinophilic syndrome, rhinitis, sinusitis, exercise-induced asthma, pollution-induced asthma, cough variant asthma, parasitic lung disease, respiratory syncytial virus ("RSV") infection, parainfluenza virus ("PIV") infection, rhinovirus ("RV") infection, and adenovirus infection in a mammal, optionally in a human, the anti-properdin antibody or antigen-binding portion thereof comprising a) a heavy chain variable domain of SEQ ID NO: 1 and light chain variable domain of SEQ ID NO: 9; b) a heavy chain variable domain of SEQ ID NO: 36 and light chain variable domain of SEQ ID NO: 19; c) a heavy chain variable domain of SEQ ID NO: 37 and light chain variable domain of SEQ ID NO: 20; or d) a heavy chain variable domain of SEQ ID NO: 44 and light chain variable domain of SEQ ID NO: 27; and wherein said antibody binds an epitope within the sequence of SEQ ID NO:51. a) a heavy chain variable domain of SEQ ID NO: 1 and light chain variable domain of SEQ ID NO: 9; b) a heavy chain variable domain of SEQ ID NO: 36 and light chain variable domain of SEQ ID NO: 19; c) a heavy chain variable domain of SEQ ID NO: 37 and light chain variable domain of SEQ ID NO: 20; or d) a heavy chain variable domain of SEQ ID NO: 44 and light chain variable domain of SEQ ID NO: 27;
A method performed at a user equipment, UE, for transmitting and receiving signal, comprising: receiving code block groups, CBGs, of a transport block, TB, included in a physical downlink shared channel, PDSCH; generating hybrid automatic repeat request, HARQ, feedback bits including a negative acknowledgement, NACK, bit for each of the received CBGs in case that each of the received CBGs are correctly detected based on cyclic redundancy checks, CRCs, for each CBG while the TB is not correctly detected based on CRC for the TB; and transmitting the generated HARQ feedback bits (S230), wherein in case that a number of the received CBGs, NCBG, is less than a configured maximum number, Nmax_CBG, of CBGs, at least one NACK bit is further generated, wherein a number of the at least one NACK bit further generated is equal to a difference between the Nmax _CBG and the NCBG, wherein the UE receives a signaling from a base station to configure a HARQ-ACK spatial bundling, and wherein in case that a CBG-based scheduling is configured for at least one carrier, the HARQ-ACK spatial bundling is not configured by the base station for the at least one carrier at a same time. receiving code block groups, CBGs, of a transport block, TB, included in a physical downlink shared channel, PDSCH; generating hybrid automatic repeat request, HARQ, feedback bits including a negative acknowledgement, NACK, bit for each of the received CBGs in case that each of the received CBGs are correctly detected based on cyclic redundancy checks, CRCs, for each CBG while the TB is not correctly detected based on CRC for the TB; and transmitting the generated HARQ feedback bits (S230), wherein in case that a number of the received CBGs, NCBG, is less than a configured maximum number, Nmax_CBG, of CBGs, at least one NACK bit is further generated, wherein a number of the at least one NACK bit further generated is equal to a difference between the Nmax _CBG and the NCBG, wherein the UE receives a signaling from a base station to configure a HARQ-ACK spatial bundling, and wherein in case that a CBG-based scheduling is configured for at least one carrier, the HARQ-ACK spatial bundling is not configured by the base station for the at least one carrier at a same time.
A system for a 3D printer, comprising: a roller to spread and compact build material powder on a surface ; and a controller operatively connected to the roller and programmed to: simultaneously translate and rotate the roller over the surface at a first translational speed and with a first tangential speed of rotation greater than the first translational speed, to spread build material powder on the surface in a layer; and then simultaneously translate and rotate the roller over the surface at a second translational speed and with a second tangential speed of rotation less than the second translational speed, to compact the layered build material powder on the surface. a roller to spread and compact build material powder on a surface ; and a controller operatively connected to the roller and programmed to: simultaneously translate and rotate the roller over the surface at a first translational speed and with a first tangential speed of rotation greater than the first translational speed, to spread build material powder on the surface in a layer; and then simultaneously translate and rotate the roller over the surface at a second translational speed and with a second tangential speed of rotation less than the second translational speed, to compact the layered build material powder on the surface. simultaneously translate and rotate the roller over the surface at a first translational speed and with a first tangential speed of rotation greater than the first translational speed, to spread build material powder on the surface in a layer; and then simultaneously translate and rotate the roller over the surface at a second translational speed and with a second tangential speed of rotation less than the second translational speed, to compact the layered build material powder on the surface.
A heat exchanger comprising: - a core - a heat exchanger tubing for a first liquid, - a body surrounding the heat exchanger tubing , wherein the inner surface of the body has the same shape as the outer borderline of the heat exchanger tubing , wherein the inner surface of the body is formed as a shell around the heat exchanger tubing and delineates with the core a flow path for the second liquid, the heat exchanger being characterized in that - the core is cylindrical and each coil tube is wounded parallel to the core , - the heat exchanger tubing has a first part formed as a cone having first diameter and a second larger diameter, and a second part formed as a cylinder having the same diameter as the second larger diameter of the cone. - a core - a heat exchanger tubing for a first liquid, - a body surrounding the heat exchanger tubing , wherein the inner surface of the body has the same shape as the outer borderline of the heat exchanger tubing , wherein the inner surface of the body is formed as a shell around the heat exchanger tubing and delineates with the core a flow path for the second liquid, the heat exchanger being - the core is cylindrical and each coil tube is wounded parallel to the core , - the heat exchanger tubing has a first part formed as a cone having first diameter and a second larger diameter, and a second part formed as a cylinder having the same diameter as the second larger diameter of the cone.
A method for wireless communication, comprising: receiving first signaling indicating a plurality of channel state information reference signal, CSI-RS, configurations configured for a user equipment, UE, ; receiving second signaling indicating at least two active CSI-RS configurations for the UE, wherein at least a subset of the plurality of CSI-RS configurations are active as indicated by the second signaling, wherein the plurality of CSI-RS configurations comprise at least two sets of CSI-RS configurations, each set of CSI-RS configurations being associated with one or more communication tasks by the UE , wherein the at least two sets of CSI-RS configurations are associated with different communication tasks by the UE ; and performing, by the UE , de-rate matching for one or more subframes based on one of the at least two active CSI-RS configurations indicated by the second signaling and another communication task for the one or more subframes based on the other of the at least two active CSI-RS configurations indicated by the second signaling. receiving first signaling indicating a plurality of channel state information reference signal, CSI-RS, configurations configured for a user equipment, UE, ; receiving second signaling indicating at least two active CSI-RS configurations for the UE, wherein at least a subset of the plurality of CSI-RS configurations are active as indicated by the second signaling, wherein the plurality of CSI-RS configurations comprise at least two sets of CSI-RS configurations, each set of CSI-RS configurations being associated with one or more communication tasks by the UE , wherein the at least two sets of CSI-RS configurations are associated with different communication tasks by the UE ; and performing, by the UE , de-rate matching for one or more subframes based on one of the at least two active CSI-RS configurations indicated by the second signaling and another communication task for the one or more subframes based on the other of the at least two active CSI-RS configurations indicated by the second signaling.
A method for determining a search space, the method being executed by a communication apparatus and comprising: determining a quantity N CCE of control channel elements CCEs comprised in a control resource set of a terminal device, wherein N CCE is a positive integer, the control resource set is corresponding to at least two aggregation levels, the at least two aggregation levels comprise a maximum aggregation level and a first aggregation level, the first aggregation level is less than the maximum aggregation level, and the maximum aggregation level is the highest aggregation level in the at least two aggregation levels; determining a second search space based on a parameter α , wherein the second search space is a search space corresponding to the maximum aggregation level, α meets a relation that a maximum common divisor of α and ⌊ N CCE L MAX ⌋ = 8 is 1, and L MAX is the maximum aggregation level; and determining , based on the quantity N CCE of CCEs and the maximum aggregation level, a first search space corresponding to the first aggregation level; or determining , based on the quantity N CCE of CCEs and a quantity of CCEs comprised in the search space corresponding to the maximum aggregation level, a first search space corresponding to the first aggregation level. determining a quantity N CCE of control channel elements CCEs comprised in a control resource set of a terminal device, wherein N CCE is a positive integer, the control resource set is corresponding to at least two aggregation levels, the at least two aggregation levels comprise a maximum aggregation level and a first aggregation level, the first aggregation level is less than the maximum aggregation level, and the maximum aggregation level is the highest aggregation level in the at least two aggregation levels; determining a second search space based on a parameter α , wherein the second search space is a search space corresponding to the maximum aggregation level, α meets a relation that a maximum common divisor of α and ⌊ N CCE L MAX ⌋ = 8 is 1, and L MAX is the maximum aggregation level; and determining , based on the quantity N CCE of CCEs and the maximum aggregation level, a first search space corresponding to the first aggregation level; or determining , based on the quantity N CCE of CCEs and a quantity of CCEs comprised in the search space corresponding to the maximum aggregation level, a first search space corresponding to the first aggregation level.
A gas humidification apparatus for use in a medical procedure comprising: a housing defining a channel having a gas inlet and a gas outlet in fluid communication with a humidification device; said humidification device being in fluid communication with said inlet, said humidification device comprising: a heater for warming a gas flowing through the channel; a humidification material adjacent to said heater that readily absorbs moisture and readily releases moisture when exposed to a dry environment; an insufflator comprising a gas source and connected to said humidification device receiving said gas from said insufflator which receives said gas from said gas source characterized in that a control is tied to said insufflator so as to control said heater and said insufflator by dynamically controlling temperature, gas volume, gas flow rate and humidity. a housing defining a channel having a gas inlet and a gas outlet in fluid communication with a humidification device; said humidification device being in fluid communication with said inlet, said humidification device comprising: a heater for warming a gas flowing through the channel; a humidification material adjacent to said heater that readily absorbs moisture and readily releases moisture when exposed to a dry environment; an insufflator comprising a gas source and connected to said humidification device receiving said gas from said insufflator which receives said gas from said gas source characterized in that a control is tied to said insufflator so as to control said heater and said insufflator by dynamically controlling temperature, gas volume, gas flow rate and humidity. a heater for warming a gas flowing through the channel; a humidification material adjacent to said heater that readily absorbs moisture and readily releases moisture when exposed to a dry environment; an insufflator comprising a gas source and connected to said humidification device receiving said gas from said insufflator which receives said gas from said gas source characterized in that a control is tied to said insufflator so as to control said heater and said insufflator by dynamically controlling temperature, gas volume, gas flow rate and humidity.
A light control film comprising: a first laminate having at least an alignment layer ; a second laminate having at least an alignment layer ; a liquid crystal layer sandwiched between the first and second laminates; and electrodes , which are provided in the first and second laminates, configured to control alignment of liquid crystal molecules of the liquid crystal layer to control transmitted light when the electrodes are driven, wherein the first laminate has a spacer provided on a base formed of a transparent film material to maintain a thickness of the liquid crystal layer , a front end of the spacer abuts on the second laminate , and a Vickers hardness Xs of the spacer is set to 16.9 to 40.2 inclusive, and a Vickers hardness Xf of the second laminate is set to 11.8 to 35.9 inclusive. a first laminate having at least an alignment layer ; a second laminate having at least an alignment layer ; a liquid crystal layer sandwiched between the first and second laminates; and electrodes , which are provided in the first and second laminates, configured to control alignment of liquid crystal molecules of the liquid crystal layer to control transmitted light when the electrodes are driven, wherein the first laminate has a spacer provided on a base formed of a transparent film material to maintain a thickness of the liquid crystal layer , a front end of the spacer abuts on the second laminate , and a Vickers hardness Xs of the spacer is set to 16.9 to 40.2 inclusive, and a Vickers hardness Xf of the second laminate is set to 11.8 to 35.9 inclusive.
An endoscopic stitching device comprising: an elongate shaft assembly including an axial rod extending therethrough; a tool assembly coupled with the elongate shaft assembly, the tool assembly including: first and second jaws operatively coupled with the axial rod of the elongate shaft assembly such that axial displacement of the axial rod transitions the first and second jaws between open and closed positions; and first and second needle receiving blades slidably disposed in the respective first and second jaws; and a sealing pack disposed in the elongate shaft assembly to inhibit passage of fluid into the elongate shaft assembly, the sealing pack defining a central lumen configured to receive the axial rod therethrough, and first and second lumens dimensioned to receive the respective first and second needle receiving blades therethrough, the sealing pack including a body portion, characterized in including a plurality of outer lips extending outwardly from the body portion, and a plurality of inner lips extending inwardly from the central lumen, each outer lip of the plurality of outer lips configured to engage the elongate shaft assembly in a sealing relation, each inner lip of the plurality of inner lips configured to engage the axial rod in a sealing relation. an elongate shaft assembly including an axial rod extending therethrough; a tool assembly coupled with the elongate shaft assembly, the tool assembly including: first and second jaws operatively coupled with the axial rod of the elongate shaft assembly such that axial displacement of the axial rod transitions the first and second jaws between open and closed positions; and first and second needle receiving blades slidably disposed in the respective first and second jaws; and first and second jaws operatively coupled with the axial rod of the elongate shaft assembly such that axial displacement of the axial rod transitions the first and second jaws between open and closed positions; and first and second needle receiving blades slidably disposed in the respective first and second jaws; and a sealing pack disposed in the elongate shaft assembly to inhibit passage of fluid into the elongate shaft assembly, the sealing pack defining a central lumen configured to receive the axial rod therethrough, and first and second lumens dimensioned to receive the respective first and second needle receiving blades therethrough, the sealing pack including a body portion, characterized in including a plurality of outer lips extending outwardly from the body portion, and a plurality of inner lips extending inwardly from the central lumen, each outer lip of the plurality of outer lips configured to engage the elongate shaft assembly in a sealing relation, each inner lip of the plurality of inner lips configured to engage the axial rod in a sealing relation.
An isolated canine influenza A virus, the influenza virus comprising a hemagglutinin (HA) polypeptide or a polynucleotide which encodes an HA polypeptide, wherein the HA polypeptide comprises the amino acid sequence shown in SEQ ID NO: 62, or a mature sequence thereof wherein the N-terminus amino acid signal sequence of a full-length sequence has been removed.
A high-lift actuation system of an aircraft , comprising: a centralized drive device including a central power drive unit (PDU) operably coupled to a common central driveline for driving a first high-lift surface on a first wing and a second high-lift surface on a second wing , the common central driveline connecting the central PDU to a plurality of mechanical actuators coupled to the first high-lift surface and the second high-lift surface; a first local drive device including a first local PDU operably coupled to a first local driveline for driving a first local high-lift surface on the first wing ; a second local drive device including a second local PDU operably coupled to a second local driveline for driving a second local high-lift surface on the second wing ; wherein the first local driveline and the second local driveline are each spaced apart in the spanwise direction from the common central driveline and separate from the common central driveline ; and wherein the first local PDU and the second local PDU are selectively operable to move the first local high-lift surface and the second local high-lift surface, respectively, independently of each other and independently of the first and second high-lift surface, characterized in that the first local driveline and the second local driveline do not mechanically interact with the common central driveline . a centralized drive device including a central power drive unit (PDU) operably coupled to a common central driveline for driving a first high-lift surface on a first wing and a second high-lift surface on a second wing , the common central driveline connecting the central PDU to a plurality of mechanical actuators coupled to the first high-lift surface and the second high-lift surface; a first local drive device including a first local PDU operably coupled to a first local driveline for driving a first local high-lift surface on the first wing ; a second local drive device including a second local PDU operably coupled to a second local driveline for driving a second local high-lift surface on the second wing ; wherein the first local driveline and the second local driveline are each spaced apart in the spanwise direction from the common central driveline and separate from the common central driveline ; and wherein the first local PDU and the second local PDU are selectively operable to move the first local high-lift surface and the second local high-lift surface, respectively, independently of each other and independently of the first and second high-lift surface, characterized in that the first local driveline and the second local driveline do not mechanically interact with the common central driveline .
A joint assembly comprising: a composite body having a first fastener opening extending therethrough; wherein the composite body comprises a rotational axis; a first load body having a second fastener opening extending therethrough; and a first fastener extending along an insertion axis (IA) through the first fastener opening and the second fastener opening to connect the composite body and the first load body together, the first fastener configured to transmit forces therebetween; wherein the first fastener has an elongated, elliptical, oblong or oval cross-section orthogonal to the insertion axis; and wherein the first fastener is oriented such that the major axis of the first fastener is transverse to the rotational axis of the composite body . a composite body having a first fastener opening extending therethrough; wherein the composite body comprises a rotational axis; a first load body having a second fastener opening extending therethrough; and a first fastener extending along an insertion axis (IA) through the first fastener opening and the second fastener opening to connect the composite body and the first load body together, the first fastener configured to transmit forces therebetween; wherein the first fastener has an elongated, elliptical, oblong or oval cross-section orthogonal to the insertion axis; and wherein the first fastener is oriented such that the major axis of the first fastener is transverse to the rotational axis of the composite body .