mhurhangee/patent-ind-claim-en huggingface dataset:
An electric machine comprising: a housing including at least one air intake , an air outlet , and an air passage extending between the at least one air intake and the air outlet; a substantially air-tight electronics enclosure located within the housing, the electronics enclosure comprising a first heat sink positioned at least partially within the air passage and thermally coupled to an electronics component positioned within said electronics enclosure; a substantially air-tight motor enclosure located within the housing , wherein said electronics enclosure and said motor enclosure are substantially thermally isolated from each other within said housing at least partially by the air passage; a second heat sink located within said motor enclosure , the second heat sink positioned at least partially within the air passage downstream of said first heat sink and thermally coupled to a stator positioned within said motor enclosure, wherein a cooling airflow through the at least one air intake flows through the air passage to cool said first heat sink and said second heat sink before the cooling airflow is exhausted through the air outlet; and a fan rotatably mounted at least partially within the air passage downstream of said first heat sink, wherein said fan is configured to pull the cooling airflow into the at least one air intake and across said first heat sink, so that said cooling airflow through the at least one air intake flows through the air passage to cool said first heat sink and said second heat sink before the cooling airflow is exhausted through the air outlet. a housing including at least one air intake , an air outlet , and an air passage extending between the at least one air intake and the air outlet; a substantially air-tight electronics enclosure located within the housing, the electronics enclosure comprising a first heat sink positioned at least partially within the air passage and thermally coupled to an electronics component positioned within said electronics enclosure; a substantially air-tight motor enclosure located within the housing , wherein said electronics enclosure and said motor enclosure are substantially thermally isolated from each other within said housing at least partially by the air passage; a second heat sink located within said motor enclosure , the second heat sink positioned at least partially within the air passage downstream of said first heat sink and thermally coupled to a stator positioned within said motor enclosure, wherein a cooling airflow through the at least one air intake flows through the air passage to cool said first heat sink and said second heat sink before the cooling airflow is exhausted through the air outlet; and a fan rotatably mounted at least partially within the air passage downstream of said first heat sink, wherein said fan is configured to pull the cooling airflow into the at least one air intake and across said first heat sink, so that said cooling airflow through the at least one air intake flows through the air passage to cool said first heat sink and said second heat sink before the cooling airflow is exhausted through the air outlet.
A software-defined media platform having distributed computer hardware including processing circuitry for executing computer program instructions, memory and interconnect for storing and transferring data during processing, and interface circuitry coupling the computer hardware to external devices and sub-systems including one or more data communication networks, the memory storing a plurality of software modules executed by the distributed computer hardware to form corresponding media processing units including one or more transcoder processing units (112-1 to 112-N, 200) and one or more packager processing units , each transcoder processing unit including at least a recorder , decoder , encoder , segmenter and uploader for (a) receiving and decoding an input media stream , (b) encoding and segmenting the media stream into segments (214-1 to 214-N), and (c) uploading the segments (214-1 to 214-N) to a content delivery network , each packager processing unit including at least a recorder , segmenter and uploader for (a) retrieving input segments of source media (302-1 to 302-M), (b) re-segmenting the retrieved segments to generate output segments to be delivered to an end consumer (122-1 to 122-N), and (c) uploading the output segments to an external content delivery network accessible by the end consumer (122-1 to 122-N) to obtain the output segments therefrom for playback of the media stream, the software-defined media platform further including a system manager subsystem operative to dynamically instantiate and configure the media processing units and respective connections therebetween to adapt operation according to changes in demand, resource availability, and other parameters affecting system performance relative to demand.
Method for testing and inspecting containers coated by means of a plasma treatment, e.g. plastic bottles, which are coated for instance with amorphous silicon oxide or carbon compounds, the method comprising that the containers are tested inline, i.e. at the speed at which they run through the production process and treatment process, by a measuring device trace-gas-analytically, e.g. mass-spectrometrically, for undesired foreign substances, such as acetaldehyde and/or antimony, escaping from the container material after a plasma coating treatment.
A method for treating a tissue matrix, comprising: selecting a collagen-containing tissue matrix; providing a solid surface having one or more channels configured to allow fluid to flow therethrough; contacting the tissue matrix with the surface; and causing a fluid containing a cross-linking agent to flow through the channels to cross-link select portions of the tissue matrix to produce a tissue matrix having mechanical or biological properties that vary across the tissue matrix. selecting a collagen-containing tissue matrix; providing a solid surface having one or more channels configured to allow fluid to flow therethrough; contacting the tissue matrix with the surface; and causing a fluid containing a cross-linking agent to flow through the channels to cross-link select portions of the tissue matrix to produce a tissue matrix having mechanical or biological properties that vary across the tissue matrix.
A tire comprising: circumferential direction grooves extended in a tire circumferential direction; lug grooves extended in a tire width direction; and blocks defined by the circumferential direction grooves and the lug grooves , wherein in each block : the block includes sipes inclined against the tire width direction; a side wall of the block located at an end in the tire width direction of the block includes a notched recess portion recessed to notch the block ; the sipes include a communication sipe communicated with the notched recess portion ; a circumferential direction length along the tire circumferential direction of the notched recess portion becomes larger toward an end portion of the block in the tire width direction; characterized in that the block includes a projection portion projected toward one direction of the tire circumferential direction and a recess portion recessed toward the one direction of the tire circumferential direction, so that the block is formed in a V-shape or a chevron-like shape in the tread surface view. circumferential direction grooves extended in a tire circumferential direction; lug grooves extended in a tire width direction; and blocks defined by the circumferential direction grooves and the lug grooves , wherein in each block : the block includes sipes inclined against the tire width direction; a side wall of the block located at an end in the tire width direction of the block includes a notched recess portion recessed to notch the block ; the sipes include a communication sipe communicated with the notched recess portion ; a circumferential direction length along the tire circumferential direction of the notched recess portion becomes larger toward an end portion of the block in the tire width direction; characterized in that the block includes a projection portion projected toward one direction of the tire circumferential direction and a recess portion recessed toward the one direction of the tire circumferential direction, so that the block is formed in a V-shape or a chevron-like shape in the tread surface view. the block includes sipes inclined against the tire width direction; a side wall of the block located at an end in the tire width direction of the block includes a notched recess portion recessed to notch the block ; the sipes include a communication sipe communicated with the notched recess portion ; a circumferential direction length along the tire circumferential direction of the notched recess portion becomes larger toward an end portion of the block in the tire width direction; characterized in that the block includes a projection portion projected toward one direction of the tire circumferential direction and a recess portion recessed toward the one direction of the tire circumferential direction, so that the block is formed in a V-shape or a chevron-like shape in the tread surface view.
A biopsy device comprising: (a) a body; (b) a needle extending distally from the body; (c) a cutter tube longitudinally translatable and rotatable relative to the needle , wherein the cutter defines a cutter lumen; (d) a tissue sample holder coupled to the body; (e) a sample stopping assembly disposed between a distal end of the cutter tube and the tissue sample holder, the sample stopping assembly being configured to selectively stop a tissue sample being transported through the body from the cutter tube to the tissue sample holder for inspection and to allow movement of the tissue sample towards the tissue sample holder ; and characterised by further comprising (f) a sample inspection member attached to the cutter tube such that the inspection member is configured to rotate simultaneously with the cutter tube , the sample inspection member allowing inspection of the tissue sample through a sample window of the device. (a) a body; (b) a needle extending distally from the body; (c) a cutter tube longitudinally translatable and rotatable relative to the needle , wherein the cutter defines a cutter lumen; (d) a tissue sample holder coupled to the body; (e) a sample stopping assembly disposed between a distal end of the cutter tube and the tissue sample holder, the sample stopping assembly being configured to selectively stop a tissue sample being transported through the body from the cutter tube to the tissue sample holder for inspection and to allow movement of the tissue sample towards the tissue sample holder ; and characterised by further comprising (f) a sample inspection member attached to the cutter tube such that the inspection member is configured to rotate simultaneously with the cutter tube , the sample inspection member allowing inspection of the tissue sample through a sample window of the device.
Buffer configuration method, wherein the method comprises: sending (S101), by a first switching device , a first measurement frame to a second switching device ; receiving (S102), by the first switching device , a second measurement frame sent by the second switching device , wherein the second measurement frame is generated through triggering based on the first measurement frame; determining (S103), by the first switching device , a buffer configuration parameter based on the first measurement frame and the second measurement frame; and setting (S104), by the first switching device , a local buffer based on the configuration parameter. sending (S101), by a first switching device , a first measurement frame to a second switching device ; receiving (S102), by the first switching device , a second measurement frame sent by the second switching device , wherein the second measurement frame is generated through triggering based on the first measurement frame; determining (S103), by the first switching device , a buffer configuration parameter based on the first measurement frame and the second measurement frame; and setting (S104), by the first switching device , a local buffer based on the configuration parameter.
A film comprising hydrophobically modified cellulose fibers in which cellulose fibers are bound to a modifying group at one or more groups selected from anionic groups and hydroxyl groups present in the cellulose fibers, and an oil having an SP value of 10 or less. hydrophobically modified cellulose fibers in which cellulose fibers are bound to a modifying group at one or more groups selected from anionic groups and hydroxyl groups present in the cellulose fibers, and an oil having an SP value of 10 or less.
A dehumidification system for a laundry appliance comprising: a blower that delivers humid process air along an airflow path ; a drum positioned along the airflow path ; a condensing apparatus that dehumidifies the humid air to define dehumidified air; and a membrane having a plurality of nanopores that define a portion of the airflow path within the condensing apparatus , wherein the humid air is delivered along the membrane having the plurality of nanopores and the nanopores operate through capillary condensation to dehumidify the humid air and separate condensate away from the humid air to define the dehumidified air, and wherein the condensate removed by the nanopore membrane is delivered away from the airflow path and to a condensate collection area within the laundry appliance , characterized in that the nanopore membrane is disposed in a tube shape that defines an air conduit, wherein the air conduit forms a portion of the airflow path within the condensing apparatus , wherein the condensing apparatus includes a plurality of nanopore conduits that include the nanopore membrane . a blower that delivers humid process air along an airflow path ; a drum positioned along the airflow path ; a condensing apparatus that dehumidifies the humid air to define dehumidified air; and a membrane having a plurality of nanopores that define a portion of the airflow path within the condensing apparatus , wherein the humid air is delivered along the membrane having the plurality of nanopores and the nanopores operate through capillary condensation to dehumidify the humid air and separate condensate away from the humid air to define the dehumidified air, and wherein the condensate removed by the nanopore membrane is delivered away from the airflow path and to a condensate collection area within the laundry appliance , characterized in that the nanopore membrane is disposed in a tube shape that defines an air conduit, wherein the air conduit forms a portion of the airflow path within the condensing apparatus , wherein the condensing apparatus includes a plurality of nanopore conduits that include the nanopore membrane .
A capsule for delivery of a flavoring in water-pipe smoke, the capsule comprising: (a) a core bead of an inert material, and (b) a coating layer encapsulating the bead, characterised in that : (i) the coating layer comprises the flavoring, an absorbent-binder, a mist-maker, a sweetener, a thickener, and (ii) the coating layer is configured to release the flavoring, sweetener, and mist-maker when heated. (a) a core bead of an inert material, and (b) a coating layer encapsulating the bead, (i) the coating layer comprises the flavoring, an absorbent-binder, a mist-maker, a sweetener, a thickener, and (ii) the coating layer is configured to release the flavoring, sweetener, and mist-maker when heated.
A transmission method, comprising: receiving, by a terminal device, a resource configuration of a reference signal from a network device; receiving, by the terminal device, from the network device over higher layer signaling state information configuration for a measurement report of the reference signal; receiving, by the terminal device, downlink control information, DCI, from the network device, wherein the DCI comprises a channel state information, CSI, request field used to indicate sending the reference signal to the terminal device, and to trigger the terminal device to report a measurement result of the reference signal to the network device; and receiving, by the terminal device, the reference signal; and reporting, by the terminal device, the measurement result according to the CSI request field and the state information configuration to the network device, the measurement report comprising at least one of state information: beam state information, BSI, and CSI; wherein the BSI comprises reference signal received power, RSRP, of the reference signal; and wherein the resource configuration includes information of a first resource, the first resource being one reference signal resource set of S first reference signal resource sets, and the S being an integer greater than or equal to 1. receiving, by a terminal device, a resource configuration of a reference signal from a network device; receiving, by the terminal device, from the network device over higher layer signaling state information configuration for a measurement report of the reference signal; receiving, by the terminal device, downlink control information, DCI, from the network device, wherein the DCI comprises a channel state information, CSI, request field used to indicate sending the reference signal to the terminal device, and to trigger the terminal device to report a measurement result of the reference signal to the network device; and receiving, by the terminal device, the reference signal; and reporting, by the terminal device, the measurement result according to the CSI request field and the state information configuration to the network device, the measurement report comprising at least one of state information: beam state information, BSI, and CSI; wherein the BSI comprises reference signal received power, RSRP, of the reference signal; and wherein the resource configuration includes information of a first resource, the first resource being one reference signal resource set of S first reference signal resource sets, and the S being an integer greater than or equal to 1.
A system including an upper actuator , a lower valve and a coupler to be detachably sandwiched between the actuator and the valve for coupling the actuator to the valve , wherein the valve includes a flange portion that projects from an outer periphery of a valve main body, and the coupler includes a pair of elastically deformable hook portions that are latchable onto an outer periphery of the flange portion thereby to prevent the coupler from detaching, and a fixing portion to be fastened to the actuator , wherein the elastically deformable hook portions formed to project downward are releasably engageable with the flange portion , wherein the bottom surface of the coupler includes an annular wall having a predetermined height for providing a predetermined clearance between the actuator and the valve main body, wherein the pair of hook portions is a part of the outer periphery of the annular wall , wherein the hook portions include toes which are formed in an arc shape to match an inner periphery of the annular wall and are configured to be easily detachable from the outer periphery of the flange portion ; wherein the coupler includes slits extending from a side surface to an upper surface of the coupler , wherein the slits are formed on both sides of each of the hook portions . a coupler to be detachably sandwiched between the actuator and the valve for coupling the actuator to the valve , wherein the valve includes a flange portion that projects from an outer periphery of a valve main body, and the coupler includes a pair of elastically deformable hook portions that are latchable onto an outer periphery of the flange portion thereby to prevent the coupler from detaching, and a fixing portion to be fastened to the actuator , wherein the elastically deformable hook portions formed to project downward are releasably engageable with the flange portion , wherein the bottom surface of the coupler includes an annular wall having a predetermined height for providing a predetermined clearance between the actuator and the valve main body, wherein the pair of hook portions is a part of the outer periphery of the annular wall , wherein the hook portions include toes which are formed in an arc shape to match an inner periphery of the annular wall and are configured to be easily detachable from the outer periphery of the flange portion ; wherein the coupler includes slits extending from a side surface to an upper surface of the coupler , wherein the slits are formed on both sides of each of the hook portions .
An aerosol composition comprising a population of a human or humanized IgG monoclonal antibody directed against a virus that causes a respiratory disease, each antibody in the population comprising an oligosaccharide at a glycosylation site, characterized in that the population comprises glycosylation patterns that enhance trapping potency of the antibody in mucus, the antibody specifically binds an epitope of the virus, and at least 30% of the antibodies in the population have a glycosylation pattern comprising the biantennary core glycan structure Man•1-6(Man•1-3)Man•1-4GlcNAc• 1-4GlcNAc• 1 with terminal N-acetylglucosamine on each branch
A wireless communication apparatus comprising: an antenna unit that switches between a plurality of beam patterns by using a plurality of antenna elements ; a communication unit that performs wireless communication with a communication terminal by using the antenna unit; a quality information acquisition unit that acquires quality information indicating a communication quality of the wireless communication; a movement information acquisition unit that acquires movement information indicating movement of a relative position of the communication terminal with respect to the antenna unit; and a beam control unit that controls the beam pattern to be switched by the antenna unit on the basis of the acquired quality information and movement information, wherein the quality information indicates a reception intensity of a signal transmitted from the communication terminal and received by the antenna unit, and characterized in that if a margin to an allowable minimum value of the reception intensity is greater than a first threshold value, a half-value angle of the current beam pattern is increased. an antenna unit that switches between a plurality of beam patterns by using a plurality of antenna elements ; a communication unit that performs wireless communication with a communication terminal by using the antenna unit; a quality information acquisition unit that acquires quality information indicating a communication quality of the wireless communication; a movement information acquisition unit that acquires movement information indicating movement of a relative position of the communication terminal with respect to the antenna unit; and a beam control unit that controls the beam pattern to be switched by the antenna unit on the basis of the acquired quality information and movement information, wherein the quality information indicates a reception intensity of a signal transmitted from the communication terminal and received by the antenna unit, and characterized in that if a margin to an allowable minimum value of the reception intensity is greater than a first threshold value, a half-value angle of the current beam pattern is increased.
A compound represented by Formula I or a pharmaceutically acceptable salt thereof, wherein, n is an integer selected from 0 to 6, R 1 is selected from the group consisting of H, NH 2 , CN, methyl, ethyl, propyl, isopropyl, butyl, cyclopropyl, cyclobutyl, cyclopentyl, cyclohexyl, methoxycarbonyl, tert-butoxycarbonyl, fluorenylmethoxycarbonyl, allyloxycarbonyl, benzyl, and 5-azaindene methylcarbonyl. wherein, n is an integer selected from 0 to 6, R 1 is selected from the group consisting of H, NH 2 , CN, methyl, ethyl, propyl, isopropyl, butyl, cyclopropyl, cyclobutyl, cyclopentyl, cyclohexyl, methoxycarbonyl, tert-butoxycarbonyl, fluorenylmethoxycarbonyl, allyloxycarbonyl, benzyl, and 5-azaindene methylcarbonyl.