mhurhangee/patent-ind-claim-en huggingface dataset:
A powdery material measurement device (M) configured to measure characteristics of mixed powdery materials obtained by mixing two or more types of powdery materials and then deliver the mixed powdery materials toward equipment configured to execute a post process using the mixed powdery materials, the powdery material measurement device (M) comprising: a sensor probe (S3) configured to receive reflected light from the mixed powdery materials passing nearby or transmitted light through the mixed powdery materials to measure the characteristics of the mixed powdery materials while the powdery material measurement device (M) is in operation to deliver the mixed powdery materials toward the equipment; a standard sample (M23; M74) having known characteristics and facing the sensor probe (S3) that is disposed to receive reflected light from the standard sample (M23; M74) or transmitted light through the standard sample (M23; M74), when the mixed powdery materials are not present near the sensor probe (S3) while the powdery material measurement device (M) is in operation to deliver the mixed powdery materials toward the equipment; and a movable member (M2; M72) having a portion (M22) facing the sensor probe (S3) and having the standard sample (M23; M74), characterized in that the movable member (M2; M72) is configured to capture and transfer the mixed powdery materials to be delivered toward the equipment and to move to pass by the sensor probe (S3). a sensor probe (S3) configured to receive reflected light from the mixed powdery materials passing nearby or transmitted light through the mixed powdery materials to measure the characteristics of the mixed powdery materials while the powdery material measurement device (M) is in operation to deliver the mixed powdery materials toward the equipment; a standard sample (M23; M74) having known characteristics and facing the sensor probe (S3) that is disposed to receive reflected light from the standard sample (M23; M74) or transmitted light through the standard sample (M23; M74), when the mixed powdery materials are not present near the sensor probe (S3) while the powdery material measurement device (M) is in operation to deliver the mixed powdery materials toward the equipment; and a movable member (M2; M72) having a portion (M22) facing the sensor probe (S3) and having the standard sample (M23; M74), characterized in that the movable member (M2; M72) is configured to capture and transfer the mixed powdery materials to be delivered toward the equipment and to move to pass by the sensor probe (S3).
A vehicle thrust bearing comprising: an upper case that is to be attached to a body of a vehicle having an air suspension including an air spring (AS); and a lower case that is arranged under the upper case so as to be rotatable with respect to the upper case , wherein the lower case includes in a bottom area thereof a tube upper-end attaching portion to which a rubber tube (RT) constituting the air spring (AS) is to be attached, characterized in that the upper case includes in a top surface area thereof a concave portion created by cutting away a part of the upper case toward the air spring (AS), and the lower case includes an air nozzle that communicates with an air chamber (AC) of the rubber tube (RT) constituting the air spring (AS) and that radially extends through the concave portion from an axis center (AX) side of the concave portion . the lower case includes in a bottom area thereof a tube upper-end attaching portion to which a rubber tube (RT) constituting the air spring (AS) is to be attached, characterized in that the upper case includes in a top surface area thereof a concave portion created by cutting away a part of the upper case toward the air spring (AS), and the lower case includes an air nozzle that communicates with an air chamber (AC) of the rubber tube (RT) constituting the air spring (AS) and that radially extends through the concave portion from an axis center (AX) side of the concave portion .
An enema nozzle (1, 1', 1", 1′′′) for an enema system , and wherein said enema nozzle (1,1', 1", 1′′′) comprises a catheter provided with a retention member , said retention member is arranged for being placed in a compact form during insertion in a body cavity and for being placed in an expanded form for retaining the enema nozzle (1, 1', 1", 1′′′) in said body cavity after insertion, and wherein the enema nozzle (1, 1', 1", 1′′′) further comprises a restriction unit arranged for placing the retention member in its compact form during insertion, and wherein the restriction unit is arranged for at least partly surrounding/encompassing the retention member during insertion in the body cavity, and characterized in that the enema nozzle comprises a one-way valve arranged for preventing backflow into the enema nozzle.
A sequence recognition system comprising a prediction component , a classification component , a synchronization component , and an output component ; the prediction component being configured to receive a set of observed features from a first frame of a speech signal to be recognized and to output a prediction output indicative of a predicted phoneme label for a second, subsequent frame of the speech signal based on the set of observed features for the first frame and on auxiliary information provided for the prediction component by an output layer or a hidden layer of a deep neural network of the classification component ; the classification component being configured to receive the prediction output and a set of observed features for the second frame, to correct the predicted phoneme label for the second frame based on the set of observed features for the second frame, and to output the corrected phoneme label as a classification result ; the synchronization component being configured to receive the prediction output from the prediction component, to implement a delay function on the prediction output, wherein the delay function synchronizes the prediction output and the set of observed features for the second frame received by the classification component, and to provide the prediction output to the classification component; and the output component being configured to output a recognition result based on the classification result from the classification component .
A method for providing an antibody with improved in vivo half-live, comprising the following steps: a) determining the relative retention time of a parent antibody in an FcRn affinity chromatography, b) modifying the Fc-region of the antibody by introducing mutations that increase the binding of the Fc-region to human FcRn to obtain a modified antibody, c) determining the relative retention time of the modified antibody in an FcRn affinity chromatography, d) repeating step b) if the change of the relative retention time between the parent antibody and the modified antibody is less than 1 minute and more than 5 minutes, whereby in case the change of the relative retention time is less than 1 minute mutations are chosen that result in a further increased binding of the Fc-region to human FcRn or in case the change of the relative retention time is more than 5 minutes mutations are chosen that result in a less increased binding of the Fc-region to human FcRn, e) providing an antibody with improved in vivo half-live if the change of the relative retention time between the parent antibody and the modified antibody is more than 1 minute and less than 5 minutes. a) determining the relative retention time of a parent antibody in an FcRn affinity chromatography, b) modifying the Fc-region of the antibody by introducing mutations that increase the binding of the Fc-region to human FcRn to obtain a modified antibody, c) determining the relative retention time of the modified antibody in an FcRn affinity chromatography, d) repeating step b) if the change of the relative retention time between the parent antibody and the modified antibody is less than 1 minute and more than 5 minutes, whereby in case the change of the relative retention time is less than 1 minute mutations are chosen that result in a further increased binding of the Fc-region to human FcRn or in case the change of the relative retention time is more than 5 minutes mutations are chosen that result in a less increased binding of the Fc-region to human FcRn, e) providing an antibody with improved in vivo half-live if the change of the relative retention time between the parent antibody and the modified antibody is more than 1 minute and less than 5 minutes.
A wireless communication system, comprising: a first NodeB that is configured to form a cell ; a first Home NodeB Gateway, HNB-GW, that is configured to connect to said first NodeB and to relay data transmitted and received between said first NodeB and a core network ; a second NodeB that is configured to connect to a second HNB-GW , which is different from said first HNB-GW , and to transmit and receive data to/from the core network through said second HNB-GW ; and a user equipment that is configured to connect to said second NodeB , wherein said first NodeB is configured to broadcast system information comprising a cell Identifier including an RNC identifier that identifies the first HNB-GW , and wherein the user equipment is configured to receive the system information broadcasted from said first Node B in said cell , to acquire from the system information a cell Identifier including the RNC identifier that identifies the first HNB-GW and to transmit said cell Identifier, including said RNC identifier of said first HNB-GW , to said second NodeB . a first NodeB that is configured to form a cell ; a first Home NodeB Gateway, HNB-GW, that is configured to connect to said first NodeB and to relay data transmitted and received between said first NodeB and a core network ; a second NodeB that is configured to connect to a second HNB-GW , which is different from said first HNB-GW , and to transmit and receive data to/from the core network through said second HNB-GW ; and a user equipment that is configured to connect to said second NodeB , wherein said first NodeB is configured to broadcast system information comprising a cell Identifier including an RNC identifier that identifies the first HNB-GW , and wherein the user equipment is configured to receive the system information broadcasted from said first Node B in said cell , to acquire from the system information a cell Identifier including the RNC identifier that identifies the first HNB-GW and to transmit said cell Identifier, including said RNC identifier of said first HNB-GW , to said second NodeB .
A method for configuring a redundant protocol data unit, PDU, session, and/or a redundant quality of service, QoS, flow, comprising: obtaining (S402), by a RAN master node, first redundancy indication information for establishing or modifying a PDU session and/or a quality of service, QoS, flow from a core network or a source RAN master node; and configuring (S404) the redundant PDU session and/or the redundant QoS flow on a corresponding radio access network, RAN, node, according to the first redundancy indication information; wherein configuring (S404) the redundant PDU session and/or the redundant QoS flow on the corresponding RAN node comprises: configuring the redundant PDU session and/or the redundant QoS flow on a RAN secondary node, characterised by : before configuring (S404) the redundant PDU session and/or the redundant QoS flow on the RAN secondary node, further comprising: sending, by the RAN master node, second redundancy indication information for establishing or modifying the PDU session and/or the QoS flow to the RAN secondary node; wherein the first redundancy indication information is different from the second redundancy indication information. obtaining (S402), by a RAN master node, first redundancy indication information for establishing or modifying a PDU session and/or a quality of service, QoS, flow from a core network or a source RAN master node; and configuring (S404) the redundant PDU session and/or the redundant QoS flow on a corresponding radio access network, RAN, node, according to the first redundancy indication information; wherein configuring (S404) the redundant PDU session and/or the redundant QoS flow on the corresponding RAN node comprises: configuring the redundant PDU session and/or the redundant QoS flow on a RAN secondary node, characterised by : before configuring (S404) the redundant PDU session and/or the redundant QoS flow on the RAN secondary node, further comprising: sending, by the RAN master node, second redundancy indication information for establishing or modifying the PDU session and/or the QoS flow to the RAN secondary node; wherein the first redundancy indication information is different from the second redundancy indication information. sending, by the RAN master node, second redundancy indication information for establishing or modifying the PDU session and/or the QoS flow to the RAN secondary node; wherein the first redundancy indication information is different from the second redundancy indication information.
A computer-implemented method for authenticating beacon devices, the method comprising: receiving, by one or more computing devices, a static identifier and a message integrity code associated with a beacon device; generating, by the one or more computing devices, a plurality of expected time-modified identifiers by respectively performing an exclusive-or operation with respect to the static identifier and a plurality of expected time-counts; generating, by the one or more computing devices, a plurality of expected message integrity code precursors by respectively inputting into an obscuring function a rotation key associated with the static identifier and the plurality of expected time-modified identifiers; generating, by the one or more computing devices, a plurality of expected message integrity codes based at least in part on the plurality of expected message integrity code precursors; and determining, by the one or more computing devices, whether the received message integrity code matches any of the expected message integrity codes, wherein the received message integrity code is valid if it matches any of the expected message integrity codes. receiving, by one or more computing devices, a static identifier and a message integrity code associated with a beacon device; generating, by the one or more computing devices, a plurality of expected time-modified identifiers by respectively performing an exclusive-or operation with respect to the static identifier and a plurality of expected time-counts; generating, by the one or more computing devices, a plurality of expected message integrity code precursors by respectively inputting into an obscuring function a rotation key associated with the static identifier and the plurality of expected time-modified identifiers; generating, by the one or more computing devices, a plurality of expected message integrity codes based at least in part on the plurality of expected message integrity code precursors; and determining, by the one or more computing devices, whether the received message integrity code matches any of the expected message integrity codes, wherein the received message integrity code is valid if it matches any of the expected message integrity codes.
A method for identifying a subject suffering from a prostaglandin E-dependent tumor as being susceptible to a therapy with an inhibitor of prostaglandin E formation comprising the steps of: a) determining in a test sample of the subject the amount of microRNA-574-5p; b) comparing the determined amount to a reference; and c) identifying a subject suffering from a prostaglandin E-dependent tumor as being susceptible to a therapy with an inhibitor of prostaglandin E formation based on said comparison. a) determining in a test sample of the subject the amount of microRNA-574-5p; b) comparing the determined amount to a reference; and c) identifying a subject suffering from a prostaglandin E-dependent tumor as being susceptible to a therapy with an inhibitor of prostaglandin E formation based on said comparison.
A method of using a dispatch system comprising a dispatch controller and at least one call device at a plurality of locations, wherein the dispatch controller is operably coupled to the at least one call device , for dispatching a plurality of elevator cars , the method comprising the dispatch controller being configured to: receive a call from the call device for at least one elevator car of the plurality of elevator cars , wherein the call is from a first location of a plurality of locations; and determine an occupant capacity for each of the plurality of elevator cars by: determining a number of occupants within the plurality of elevator cars ; and determine a number of calls assigned to the plurality of elevator cars positioned between a current location of the plurality of elevator cars and the first location; and assign the call from the first location to the at least one elevator car of the plurality of elevator cars having a maximum available occupant capacity. receive a call from the call device for at least one elevator car of the plurality of elevator cars , wherein the call is from a first location of a plurality of locations; and determine an occupant capacity for each of the plurality of elevator cars by: determining a number of occupants within the plurality of elevator cars ; and determine a number of calls assigned to the plurality of elevator cars positioned between a current location of the plurality of elevator cars and the first location; and assign the call from the first location to the at least one elevator car of the plurality of elevator cars having a maximum available occupant capacity. determining a number of occupants within the plurality of elevator cars ; and determine a number of calls assigned to the plurality of elevator cars positioned between a current location of the plurality of elevator cars and the first location; and assign the call from the first location to the at least one elevator car of the plurality of elevator cars having a maximum available occupant capacity.
Hose , having an inner hose and a braid , wherein the inner hose consists of an uncrosslinked, thermoplastic material, wherein the braid has a coverage between 75% and 99%, wherein the inner hose is manufactured from PE-RT having a melt flow index (190°C/2.16 kg) of 0.5 to 2 g/10 min and having a density of 0.925 to 0.960 g/cm 3 , wherein an outer diameter D of the inner hose , given and measured in mm, and a wall thickness s of the inner hose , given and measured in mm, satisfy the following: A ≤ 10 000 * s / D 1.5 and 10 000 * s / D 1.5 ≤ B , wherein A >= 390 1/mm 0.5 , preferably A = 425 1/mm 0.5 , and B <= 585 1/mm 0.5 , preferably B = 565 1/mm 0.5 .
A motor vehicle comprising a driving aid system providing the driver of said vehicle with a first driving aid function and a driving aid function functionally complementary to the first driving aid function and which in combination with the first defining a second driving aid function, display management means coupled to said driving aid system for displaying first and second chart interfaces in report with said first and second driving aid functions, respectively, in a first reconfigurable display zone of a screen of said vehicle , said driving aid system comprising a single order means arranged to activate said first and second driving aid functions, wherein the single order is further arranged to order the successive display of said interfaces , according to a determined scheduling and imposed by the functional complementarity of the first and second driving aid functions.
A display apparatus comprising: a device substrate ; a first buffer insulating layer on the device substrate , a second buffer insulating layer on the first buffer insulating layer ; and a light-emitting device on the second buffer insulating layer , wherein the first buffer insulating layer includes a first lowest buffer layer disposed on the device substrate , a first intermediate buffer layer disposed on the first lowest buffer layer , and a first highest buffer layer disposed on the first intermediate buffer layer , wherein the refractive index of the first highest buffer layer is larger than the refractive index of the first lowest buffer layer and the refractive index of the first intermediate buffer layer is between the refractive index of the first lowest buffer layer and the refractive index of the first highest buffer layer ; wherein the second buffer insulating layer includes a second lowest buffer layer disposed on the first highest buffer layer , a second intermediate buffer layer disposed on the second lowest buffer layer , and a second highest buffer layer disposed on the second intermediate buffer layer , wherein the refractive index of the second highest buffer layer is smaller than the refractive index of the second lowest buffer layer and the refractive index of the second intermediate buffer layer is between the refractive index of the second lowest buffer layer and the refractive index of the second highest buffer layer ; and wherein the second lowest buffer layer is in direct contact with the first highest buffer layer . a device substrate ; a first buffer insulating layer on the device substrate , a second buffer insulating layer on the first buffer insulating layer ; and a light-emitting device on the second buffer insulating layer , wherein the first buffer insulating layer includes a first lowest buffer layer disposed on the device substrate , a first intermediate buffer layer disposed on the first lowest buffer layer , and a first highest buffer layer disposed on the first intermediate buffer layer , wherein the refractive index of the first highest buffer layer is larger than the refractive index of the first lowest buffer layer and the refractive index of the first intermediate buffer layer is between the refractive index of the first lowest buffer layer and the refractive index of the first highest buffer layer ; wherein the second buffer insulating layer includes a second lowest buffer layer disposed on the first highest buffer layer , a second intermediate buffer layer disposed on the second lowest buffer layer , and a second highest buffer layer disposed on the second intermediate buffer layer , wherein the refractive index of the second highest buffer layer is smaller than the refractive index of the second lowest buffer layer and the refractive index of the second intermediate buffer layer is between the refractive index of the second lowest buffer layer and the refractive index of the second highest buffer layer ; and wherein the second lowest buffer layer is in direct contact with the first highest buffer layer .