mhurhangee/patent-ind-claim-en huggingface dataset:
A flow channel unit for a microparticle analysis device, the flow channel unit being used to allow liquid to flow through in the microparticle analysis device, the flow channel unit comprising a flow rate fluctuation suppressing unit configured to suppress a fluctuation of the flow of the liquid, wherein a first cross-sectional area of at least part of a downstream flow channel of the flow rate fluctuation suppressing unit is smaller than a second cross-sectional area of a remaining part of the downstream flow channel, wherein a third cross-sectional area of at least part of an upstream flow channel of the flow rate fluctuation suppressing unit is smaller than a fourth cross-sectional area of a remaining part of the upstream flow channel, the flow channel unit being characterised in that it comprises a branched flow channel having a first end and a second end, wherein the first end of the branched flow channel is connected to the flow rate suppressing unit, and wherein the second end of the branched flow channel is connected to each of the downstream flow channel and the upstream flow channel. a flow rate fluctuation suppressing unit configured to suppress a fluctuation of the flow of the liquid, wherein a first cross-sectional area of at least part of a downstream flow channel of the flow rate fluctuation suppressing unit is smaller than a second cross-sectional area of a remaining part of the downstream flow channel, wherein a third cross-sectional area of at least part of an upstream flow channel of the flow rate fluctuation suppressing unit is smaller than a fourth cross-sectional area of a remaining part of the upstream flow channel, the flow channel unit being characterised in that it comprises a branched flow channel having a first end and a second end, wherein the first end of the branched flow channel is connected to the flow rate suppressing unit, and wherein the second end of the branched flow channel is connected to each of the downstream flow channel and the upstream flow channel.
A method performed by a wireless communication device, comprising: receiving a response message indicating if a core network node supports one or both of an extended monitoring window and a long paging cycle; monitoring a paging channel of a radio access node using the extended monitoring window and the long paging cycle if the response message indicates that the core network node supports the extended monitoring window and the long paging cycle; monitoring the paging channel using a non-extended monitoring window and the long paging cycle if the response message indicates that the core network node supports the long paging cycle but does not support the extended monitoring window; and monitoring the paging channel using the non-extended monitoring window and a legacy paging cycle if the response message indicates that the core network node does not support the extended monitoring window and does not support the long paging cycle; wherein: the extended monitoring window comprises one or more paging blocks in addition to a nominal paging block associated with the wireless communication device; the non-extended monitoring window includes the nominal paging block and excludes the additional paging blocks; and the long paging cycle has a longer periodicity than that supported by the legacy paging cycle. receiving a response message indicating if a core network node supports one or both of an extended monitoring window and a long paging cycle; monitoring a paging channel of a radio access node using the extended monitoring window and the long paging cycle if the response message indicates that the core network node supports the extended monitoring window and the long paging cycle; monitoring the paging channel using a non-extended monitoring window and the long paging cycle if the response message indicates that the core network node supports the long paging cycle but does not support the extended monitoring window; and monitoring the paging channel using the non-extended monitoring window and a legacy paging cycle if the response message indicates that the core network node does not support the extended monitoring window and does not support the long paging cycle; wherein: the extended monitoring window comprises one or more paging blocks in addition to a nominal paging block associated with the wireless communication device; the non-extended monitoring window includes the nominal paging block and excludes the additional paging blocks; and the long paging cycle has a longer periodicity than that supported by the legacy paging cycle. the extended monitoring window comprises one or more paging blocks in addition to a nominal paging block associated with the wireless communication device; the non-extended monitoring window includes the nominal paging block and excludes the additional paging blocks; and the long paging cycle has a longer periodicity than that supported by the legacy paging cycle.
An image processing apparatus , comprising: a Hardware Abstract Layer, HAL , configured to receive a RAW image, to convert the RAW image into a YUV image, and to transmit at least one of the RAW image or the YUV image to an application, APP ; the APP coupled with the HAL and configured to transmit the at least one of the RAW image or the YUV image to an Algorithm Process Service, APS ; and the APS coupled with the HAL via the APP and storing at least one image processing algorithm for image post-processing, the APS being configured to process, with the at least one image processing algorithm, the at least one of the RAW image or the YUV image; wherein the HAL is further configured to: transmit a suggestion on the number of images to the APP, wherein the suggestion on the number of images is indicative of the number of images needed to be transmitted to the APP, and the number of images have a positive correlation with a shake detection result obtained by a gyro sensor; and the APP is further configured to: transmit a data request to the HAL according to the suggestion on the number of images, receive data from the HAL, and transmit the data to the APS to perform image post-processing, wherein the data is transmitted to the APP by the HAL according to the data request. a Hardware Abstract Layer, HAL , configured to receive a RAW image, to convert the RAW image into a YUV image, and to transmit at least one of the RAW image or the YUV image to an application, APP ; the APP coupled with the HAL and configured to transmit the at least one of the RAW image or the YUV image to an Algorithm Process Service, APS ; and the APS coupled with the HAL via the APP and storing at least one image processing algorithm for image post-processing, the APS being configured to process, with the at least one image processing algorithm, the at least one of the RAW image or the YUV image; wherein the HAL is further configured to: transmit a suggestion on the number of images to the APP, wherein the suggestion on the number of images is indicative of the number of images needed to be transmitted to the APP, and the number of images have a positive correlation with a shake detection result obtained by a gyro sensor; and the APP is further configured to: transmit a data request to the HAL according to the suggestion on the number of images, receive data from the HAL, and transmit the data to the APS to perform image post-processing, transmit a data request to the HAL according to the suggestion on the number of images, receive data from the HAL, and transmit the data to the APS to perform image post-processing,
A method for improving driving of a vehicle, comprising: determining, by a processor in the vehicle, that a trigger has activated; orienting, based on the determining, a single rotating camera towards a direction of interest; and activating a recording functionality of the single rotating camera , wherein the vehicle comprises the single rotating camera and one or more fixed cameras, wherein the single rotating camera provides a redundant functionality for the one or more fixed cameras, and wherein the single rotating camera consumes less power than multiple fixed cameras; wherein a controller controls a motor that mechanically controls the rotating camera , and further wherein the controller is configured to receive pictures and/or video taken by the rotating camera via an image processor of the vehicle; wherein the trigger and the direction of interest are based on an indication of a sensor failure or malfunction. determining, by a processor in the vehicle, that a trigger has activated; orienting, based on the determining, a single rotating camera towards a direction of interest; and activating a recording functionality of the single rotating camera , wherein the vehicle comprises the single rotating camera and one or more fixed cameras, wherein the single rotating camera provides a redundant functionality for the one or more fixed cameras, and wherein the single rotating camera consumes less power than multiple fixed cameras; wherein a controller controls a motor that mechanically controls the rotating camera , and further wherein the controller is configured to receive pictures and/or video taken by the rotating camera via an image processor of the vehicle; wherein the trigger and the direction of interest are based on an indication of a sensor failure or malfunction.
A stapling assembly for use with a surgical stapler , comprising a body having a plurality of staples disposed therein, the plurality of staples being configured to be deployed into tissue; and a three-dimensional compressible adjunct formed from a matrix comprising at least one fused bioabsorbable polymer and configured to be releasably retained on the body such that the adjunct can be attached to tissue by the plurality of staples in the body, wherein the adjunct has a first stiffness when compressed a first amount and a second stiffness when compressed a second amount greater than the first amount; wherein the adjunct comprises an elongate body comprising struts , wherein each strut has a generally elongate planar configuration, with a first portion of each strut having a narrower width than the width section of a second portion of each strut , such that the struts are wider in the middle and narrower at the ends. a body having a plurality of staples disposed therein, the plurality of staples being configured to be deployed into tissue; and a three-dimensional compressible adjunct formed from a matrix comprising at least one fused bioabsorbable polymer and configured to be releasably retained on the body such that the adjunct can be attached to tissue by the plurality of staples in the body, wherein the adjunct has a first stiffness when compressed a first amount and a second stiffness when compressed a second amount greater than the first amount; wherein the adjunct comprises an elongate body comprising struts , wherein each strut has a generally elongate planar configuration, with a first portion of each strut having a narrower width than the width section of a second portion of each strut , such that the struts are wider in the middle and narrower at the ends.
A compound of the formula (I) or a salt thereof: in the formula, R 1 , R 2 , and R 3 are the same as or different from each other, and are H, halogen, lower alkyl, or halo-lower alkyl; R 4 is H, halogen, lower alkyl, or halo-lower alkyl; R 5 is H; R 6 is phenyl which may be substituted; or R 5 and R 6 may form a benzene ring which may be substituted, together with carbon atoms to which they are bonded; and ---- is a single bond or a double bond; and the term "lower" refers to 1 to 6 carbon atoms. R 1 , R 2 , and R 3 are the same as or different from each other, and are H, halogen, lower alkyl, or halo-lower alkyl; R 4 is H, halogen, lower alkyl, or halo-lower alkyl; R 5 is H; R 6 is phenyl which may be substituted; or R 5 and R 6 may form a benzene ring which may be substituted, together with carbon atoms to which they are bonded; and ---- is a single bond or a double bond; and the term "lower" refers to 1 to 6 carbon atoms.
Device for bending pipes, in particular coated pipes , preferably pipes which are insulated and/or coated with PU-foam/rigid PUR foam, for pipelines having a basic body which can be positioned in the pipe, on which basic body a chassis for driving in the pipe is provided and at least three contact elements for creating a contact with an inner wall of the pipe for introducing a bending force, wherein at least a first and a second contact element are provided on one side of the basic body , in each case at the ends of the basic body , and at least one third contact element is arranged on the opposite side of the basic body , and wherein at least one first of the contact elements is provided movable, with respect to the basic body via a force introducing element for introducing the bending force, in the direction (A) of the inner wall of the pipe , characterised in that the at least one second contact element is provided movable, with respect to the basic body via a further force introducing element , separately from the moving of the first contact element , in the direction (C) of the inner wall of the pipe , and that on the opposite side to the second contact element a further contact element is provided on the basic body .
Coupling element for an electrical switching device, wherein the coupling element comprises a first switching contact for opening and closing an electrical contact with a second switching contact , wherein the first switching contact is connected to a push rod , which is mounted such that it can be moved translationally and which is operatively connected to an actuator , which causes a translational movement of the push rod , wherein a pulse mass element is provided, which is coupled to the coupling element by a spring element , characterized in that the push rod is configured in the form of a bar-shaped winding body and the coupling element comprises a rotating body , through which the winding body extends, wherein the rotating body comprises two sides , of which one faces one end of the winding body and the other faces the other end of the winding body , the rotating body is rotatably mounted on the winding body , wherein at least one cord is arranged on each of the two sides of the rotating body , between the rotating body and the winding body , in such a way that winding and unwinding of the cord on the winding body takes place by virtue of opposite rotational movements of the rotating body , which results in the translational movement of the winding body .
A safety belt anchoring system, comprising: an anchor plate coupled to a seat structure , said anchor plate comprising an arcuate channel ; a slidable anchor which serves as an anchor point for an attachment of a safety belt ; said slidable anchor being movable along the arcuate channel in an upward direction extending from the bottom to the top of the seat structure in response to a load being applied to the safety belt , the anchor plate is coupled to the seat structure such that the arcuate channel is located on the seat structure behind a passenger in use; characterised in that : the anchor plate includes a first attachment hole and a second attachment hole for securing the anchor plate to the seat structure.
A color tunable and/or color temperature tunable light emitting diode, LED, filament , said LED filament comprising: an elongated carrier , said elongated carrier comprising a first major surface and a second major surface arranged opposite to said first major surface, a plurality of LEDs arranged in at least one linear array on said first surface of said elongated carrier, wherein the plurality of LEDs includes LEDs of different colors and/or different color temperatures, a first elongated transparent or substantially transparent layer covering the plurality of LEDs on the first major surface and also at least partly covering said first major surface, and a first elongated light scattering layer , arranged to at least partially cover said first transparent or substantially transparent layer, wherein said second maj or surface of the elongated carrier is at least partially covered by a second elongated light scattering layer , and characterized in that said first elongated light scattering layer has a higher reflectance than said second elongated light scattering layer. an elongated carrier , said elongated carrier comprising a first major surface and a second major surface arranged opposite to said first major surface, a plurality of LEDs arranged in at least one linear array on said first surface of said elongated carrier, wherein the plurality of LEDs includes LEDs of different colors and/or different color temperatures, a first elongated transparent or substantially transparent layer covering the plurality of LEDs on the first major surface and also at least partly covering said first major surface, and a first elongated light scattering layer , arranged to at least partially cover said first transparent or substantially transparent layer, wherein said second maj or surface of the elongated carrier is at least partially covered by a second elongated light scattering layer , and characterized in that said first elongated light scattering layer has a higher reflectance than said second elongated light scattering layer.
A tungsten carbide powder comprising tungsten carbide as a main component and chromium, wherein, when mass concentrations of tungsten and chromium are measured at 100 or more analysis points randomly selected from a field of view of SEM observation of the tungsten carbide powder, a standard deviation σ of distribution of the ratio by percentage of the concentration of chromium to the total concentration of tungsten and chromium is 0.5 or less.
A method of forming a stent scaffold, comprising: dissolving a raw polymeric resin in a solvent to form at least a first polymeric solution; forming at least a first layer of a biocompatible polymer tube having a first diameter with the first polymeric solution; characterised by curing the tube; processing the tube to form an expandable scaffold having the first diameter; reducing the first diameter of the scaffold to a second smaller diameter, wherein the scaffold retains at least 90% of the molecular weight of the resin and at least a portion a crystallinity of the resin such that the scaffold exhibits ductility upon application of a load; and deploying the scaffold in a saline environment at a temperature of at least 37°C and below T g of the polymeric resin, wherein the scaffold regains 30% to 60% of the radial strength of the scaffold prior to reducing the first diameter of the scaffold to a second smaller diameter. dissolving a raw polymeric resin in a solvent to form at least a first polymeric solution; forming at least a first layer of a biocompatible polymer tube having a first diameter with the first polymeric solution; characterised by curing the tube; processing the tube to form an expandable scaffold having the first diameter; reducing the first diameter of the scaffold to a second smaller diameter, wherein the scaffold retains at least 90% of the molecular weight of the resin and at least a portion a crystallinity of the resin such that the scaffold exhibits ductility upon application of a load; and deploying the scaffold in a saline environment at a temperature of at least 37°C and below T g of the polymeric resin, wherein the scaffold regains 30% to 60% of the radial strength of the scaffold prior to reducing the first diameter of the scaffold to a second smaller diameter.
A relay and distribution apparatus comprising: a communication platform ; and an antenna system carried by the communication platform and including at least one array of antenna feeds , the antenna system being configured to lay down beams covering respective cells of a cellular communication system , characterized in that the antenna system is configured to lay down beams in overlapping first and M ≥ 2 second N-cell frequency reuse patterns, the first N-cell frequency reuse pattern being for communication of control channels of the cellular communication system , and the M second N-cell frequency reuse patterns being for communication of traffic channels exclusive of control channels of the cellular communication system , wherein the M second N-cell frequency reuse patterns are staggered with one another, and cells of the M second N-cell frequency reuse patterns have a size only a fraction of which is for transmission of traffic channels, and wherein any of the traffic channels are assignable through a control channel of the first N-cell frequency reuse pattern. a communication platform ; and an antenna system carried by the communication platform and including at least one array of antenna feeds , the antenna system being configured to lay down beams covering respective cells of a cellular communication system , characterized in that the antenna system is configured to lay down beams in overlapping first and M ≥ 2 second N-cell frequency reuse patterns, the first N-cell frequency reuse pattern being for communication of control channels of the cellular communication system , and the M second N-cell frequency reuse patterns being for communication of traffic channels exclusive of control channels of the cellular communication system , wherein the M second N-cell frequency reuse patterns are staggered with one another, and cells of the M second N-cell frequency reuse patterns have a size only a fraction of which is for transmission of traffic channels, and wherein any of the traffic channels are assignable through a control channel of the first N-cell frequency reuse pattern.
A traveling vehicle controller configured to assign, to any one of a plurality of traveling vehicles each configured to travel on a travel path including a branch point (BP), a command to travel to a destination point (P) on the travel path, the traveling vehicle controller comprising a command assignment unit configured to detect a first-arrive traveling vehicle being capable of reaching the destination point first among the traveling vehicles, based on travel route candidates on which the traveling vehicles travel along the travel path from respective positions to reach the destination point, and to assign the command to the first-arrive traveling vehicle, wherein, in detection of the first-arrive traveling vehicle, when a traveling vehicle traveling toward the branch point on the travel path is located within a range of a branch-switching impossible distance from the branch point and is scheduled to proceed toward a main way at the branch point, the command assignment unit is configured to perform pseudo-shift processing by which this traveling vehicle is considered to be located in a position downstream of the branch point and on a side of the main way.