mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: identifying a portion of a second part of channel state information, CSI part 2, to be transmitted based on a priority of each of a plurality of CSIs in the CSI part 2; mapping a first part of the CSI, CSI part 1, and the identified portion of the CSI part 2 to bits of uplink control information, UCI; and transmitting, to a base station (101-103), the mapped UCI on a physical uplink shared channel, PUSCH, wherein the CSI part 1 includes a rank indicator, RI, and a channel quality indicator, CQI, and wherein the CSI part 2 includes a precoding matrix index, PMI, wherein the portion of the CSI part 2 is determined, in case that a number of UCI symbols associated with the CSI part 2 exceeds a number of available UCI symbols associated with the CSI part 2, wherein the plurality of CSIs comprise wideband CSI and a plurality of subband CSIs, and wherein the wideband CSI has a higher priority than the plurality of subband CSIs. identifying a portion of a second part of channel state information, CSI part 2, to be transmitted based on a priority of each of a plurality of CSIs in the CSI part 2; mapping a first part of the CSI, CSI part 1, and the identified portion of the CSI part 2 to bits of uplink control information, UCI; and transmitting, to a base station (101-103), the mapped UCI on a physical uplink shared channel, PUSCH, wherein the CSI part 1 includes a rank indicator, RI, and a channel quality indicator, CQI, and wherein the CSI part 2 includes a precoding matrix index, PMI, wherein the portion of the CSI part 2 is determined, in case that a number of UCI symbols associated with the CSI part 2 exceeds a number of available UCI symbols associated with the CSI part 2, wherein the plurality of CSIs comprise wideband CSI and a plurality of subband CSIs, and wherein the wideband CSI has a higher priority than the plurality of subband CSIs.
An electroluminescent device comprising a color film substrate , wherein, the color film substrate comprises: a substrate , and a color filter layer, a boss layer , a first electrode , an organic electroluminescence layer and a second electrode disposed on the substrate , wherein the color filter layer comprises a black matrix and color blocks separated by the black matrix ; and the boss layer located above the color blocks protrudes towards the side away from the substrate to form a boss ; said first electrode , said organic electroluminescence layer and said second electrode are disposed on said boss layer orderly, and the second electrode is located above the boss ; wherein, the electroluminescent device further comprises an array substrate , wherein, said array substrate comprises: a second substrate , and thin film transistors , a protection layer and a connection electrode disposed on the second substrate orderly; a protection layer VIA is arranged in the protection layer , and the setting position of the connection electrode corresponds to the second electrode of the color film substrate , and the connection electrode connects the drain of the thin film transistors through the protection layer VIA; wherein the connection electrode is in direct contact with the second electrode of the color film substrate ; characterized in that the said boss layer is uninterruptedly disposed between the color filter layer and the first electrode . a substrate , and a color filter layer, a boss layer , a first electrode , an organic electroluminescence layer and a second electrode disposed on the substrate , wherein the color filter layer comprises a black matrix and color blocks separated by the black matrix ; and the boss layer located above the color blocks protrudes towards the side away from the substrate to form a boss ; said first electrode , said organic electroluminescence layer and said second electrode are disposed on said boss layer orderly, and the second electrode is located above the boss ; wherein, the electroluminescent device further comprises an array substrate , wherein, said array substrate comprises: a second substrate , and thin film transistors , a protection layer and a connection electrode disposed on the second substrate orderly; a second substrate , and thin film transistors , a protection layer and a connection electrode disposed on the second substrate orderly; a protection layer VIA is arranged in the protection layer , and the setting position of the connection electrode corresponds to the second electrode of the color film substrate , and the connection electrode connects the drain of the thin film transistors through the protection layer VIA; wherein the connection electrode is in direct contact with the second electrode of the color film substrate ; characterized in that the said boss layer is uninterruptedly disposed between the color filter layer and the first electrode .
A liquid composition comprising: a) 5 to 25% anionic surfactant; b) 0 to 5% non-ionic surfactant c) optional amphoteric surfactant, wherein anionic surfactant is 50% or more of surfactants; d) 0.5 to 3% caprylic acid; wherein pH is 4.5 to 5.5, preferably 4.5 to 5.1, wherein there is additionally present an organic acid having pKa of 4.5 to 5.0, a logP greater than 1.8 and water solubility greater than 0.5 g/100 ml. a) 5 to 25% anionic surfactant; b) 0 to 5% non-ionic surfactant c) optional amphoteric surfactant, wherein anionic surfactant is 50% or more of surfactants; d) 0.5 to 3% caprylic acid; wherein pH is 4.5 to 5.5, preferably 4.5 to 5.1,
A camera device comprising an image sensor having a plurality of pixel elements for recording image data of an object stream of objects moving in a direction of movement relative to the camera device , the image sensor being configured as a high-frequency binary image sensor that generates individual images of low bit depth with a high repetition frequency, and a control and evaluation unit configured to read out and further process the image data from the image sensor and to trigger a plurality of repeated exposures of individual images of the image sensor and to combine the individual images into a common image while compensating for the movement of the object stream between the exposures, characterized in that the control and evaluation unit is configured to determine the movement of the object stream from the speed of movement of a recorded object of the moving object stream as well as geometric and optical parameters, in order to track an object structure via the individual images independently of the image contents of the individual images, wherein the speed of the objects is predetermined for the control and evaluation unit or the control and evaluation unit determines the speed of the objects by observing a reference object at a known distance and in that the control and evaluation unit is configured to adapt the compensation of the movement to compensate for lens errors and a projective distortion with different compensation depending on the distance from the image center to the respective position within the individual images. characterized in that the control and evaluation unit is configured to determine the movement of the object stream from the speed of movement of a recorded object of the moving object stream as well as geometric and optical parameters, in order to track an object structure via the individual images independently of the image contents of the individual images, wherein the speed of the objects is predetermined for the control and evaluation unit or the control and evaluation unit determines the speed of the objects by observing a reference object at a known distance and in that the control and evaluation unit is configured to adapt the compensation of the movement to compensate for lens errors and a projective distortion with different compensation depending on the distance from the image center to the respective position within the individual images.
Tool for creating back tapers (H, H1, H2) at an internal or external toothing (A) of a gear (ZR), wherein the tool rotating during use about a tool axis of rotation (W) comprises a tool shaft extending along the tool axis of rotation (W), a fastening section for fastening the tool to a tool drive of a machine tool, the fastening section formed at an end of the tool shaft , and at least one cutting blade , which is arranged at a fastening position (B1, B2) provided at the circumference of the tool shaft , characterised in that the diameter (D, D1, D2) of the tool shaft measured in a plane oriented normal to the tool axis of rotation (W) increases starting from the diameter (D1), which the tool shaft has at the fastening position (B1, B2) of the cutting blade , in a direction (L) directed towards the fastening section .
A method of forming a layered electrical machine component for an electrical machine , the method comprising: electroforming a first metallic layer having a first predetermined geometry , thereby forming a first discrete metal laminate; electroforming a second metallic layer separate from the first metallic layer and also having the first predetermined geometry , thereby forming a second discrete metal laminate, wherein the first discrete metal laminate and the second discrete metal laminate at least partially define a first set of discrete metal laminates having the first predetermined geometry , wherein the electroforming comprises electrodeposition onto a polymeric or composite base sheet , and one or both of the first set of discrete metal laminates is formed in a batch , the batch being a collection of metal laminates having the first predetermined geometry and formed on the polymeric or composite base sheet ; and arranging an insulating layer between the first discrete metal laminate and the second discrete metal laminate in a stack to define a layered electrical machine component having the first predetermined geometry . electroforming a first metallic layer having a first predetermined geometry , thereby forming a first discrete metal laminate; electroforming a second metallic layer separate from the first metallic layer and also having the first predetermined geometry , thereby forming a second discrete metal laminate, wherein the first discrete metal laminate and the second discrete metal laminate at least partially define a first set of discrete metal laminates having the first predetermined geometry , wherein the electroforming comprises electrodeposition onto a polymeric or composite base sheet , and one or both of the first set of discrete metal laminates is formed in a batch , the batch being a collection of metal laminates having the first predetermined geometry and formed on the polymeric or composite base sheet ; and arranging an insulating layer between the first discrete metal laminate and the second discrete metal laminate in a stack to define a layered electrical machine component having the first predetermined geometry .
A viewing apparatus comprising an eyepiece , a polarized lens , one or more prisms and an objective lens ; characterised in that said polarized lens is fixed between the eyepiece and one of the one or more prisms and in the light path from the one of the one or more prisms ; wherein said polarized lens is orientated to filter light and reduce glare from reflected non-polarized light waves and is positioned in a mounting frame which is located between the one or more prisms and the eyepiece , the predetermined shape, thickness, position and orientation of the polarized lens being aimed to provide an optically correct image with polarized light that has passed through the polarized lens , wherein the polarized lens has one or more guiding members to guide the positioning of the polarized lens to the correct oriented position that can be aligned with corresponding locating members on the mounting frame , and wherein the polarized lens has a predetermined diameter and a lens curvature to provide the optically correct image.
A charging method, wherein the method comprises: determining , by a control plane function entity CP, that a data flow transmitted by a user equipment UE on a first data session needs to be migrated to a second data session, wherein the first data session is a data session between the UE and a first user plane function entity UP, the second data session is a data session between the UE and a second UP, the first UP and the second UP are selected by the CP, and the first data session and the second data session correspond to a same protocol data unit PDU session; wherein the method is characterized by : obtaining , by the CP, usage information, for a first quota, of the data flow before the migration, wherein the usage information is counted by the first UP; and determining , by the CP, a quota used for the data flow after the migration is necessary to be delivered to the second UP, and delivering the quota to the second UP; wherein determining the quota used for the data flow after the migration is necessary to be delivered to the second UP, and delivering the quota to the second UP comprises: determining , by the CP, based on the usage information of the data flow that is counted by the first UP and the first quota, a remaining available quota, and delivering , by the CP, the remaining available quota to the second UP. obtaining , by the CP, usage information, for a first quota, of the data flow before the migration, wherein the usage information is counted by the first UP; and determining , by the CP, a quota used for the data flow after the migration is necessary to be delivered to the second UP, and delivering the quota to the second UP; wherein determining the quota used for the data flow after the migration is necessary to be delivered to the second UP, and delivering the quota to the second UP comprises: determining , by the CP, based on the usage information of the data flow that is counted by the first UP and the first quota, a remaining available quota, and delivering , by the CP, the remaining available quota to the second UP.
An interferon alpha subtype comprising the amino acid sequence set forth by SEQ ID NO:1.
Method for determining whether a sample from an individual contains T cells that recognize a tumor-specific T cell epitope or a T cell epitope from an autoantigen or from a pathogen, comprising: - inducing, enhancing and/or maintaining expression of Bcl-6 in at least one B cell; - inducing, enhancing and/or maintaining expression of an anti-apoptotic nucleic acid in said at least one B cell; - allowing expansion of said at least one B cell into a B cell culture; - incubating B cells of said B cell culture with at least one compound comprising said T cell epitope; - incubating the resulting B cells with T cells from said sample; and - determining whether said sample contains T cells that recognize said T cell epitope. - inducing, enhancing and/or maintaining expression of Bcl-6 in at least one B cell; - inducing, enhancing and/or maintaining expression of an anti-apoptotic nucleic acid in said at least one B cell; - allowing expansion of said at least one B cell into a B cell culture; - incubating B cells of said B cell culture with at least one compound comprising said T cell epitope; - incubating the resulting B cells with T cells from said sample; and - determining whether said sample contains T cells that recognize said T cell epitope.
A method of forming a drop cable having a length L and an elongate cross-sectional shape, comprising: extruding a protective cover material having an extrusion temperature TE defined by 140°C ≤ TE ≤160°C, through a die with a single aperture that defines the cable's elongate cross-sectional shape to cover first and second strength members on either side of at least one optical fiber and form an oval cavity having major and central axes (A 1 , A C ) and that surrounds the at least one optical fiber , wherein the first and second strength members reside substantially along the major axis (A 1 ) of the cavity ; tensioning the first and second strength members during said extruding; and terminating said tensioning after said extruding to reduce the length of the drop cable and cause the at least one optical fiber to adopt a serpentine configuration substantially in a plane defined by the major and central axes (A 1 , A C ). extruding a protective cover material having an extrusion temperature TE defined by 140°C ≤ TE ≤160°C, through a die with a single aperture that defines the cable's elongate cross-sectional shape to cover first and second strength members on either side of at least one optical fiber and form an oval cavity having major and central axes (A 1 , A C ) and that surrounds the at least one optical fiber , wherein the first and second strength members reside substantially along the major axis (A 1 ) of the cavity ; tensioning the first and second strength members during said extruding; and terminating said tensioning after said extruding to reduce the length of the drop cable and cause the at least one optical fiber to adopt a serpentine configuration substantially in a plane defined by the major and central axes (A 1 , A C ).
An integrated circuit, comprising: a first processing stage comprising processing logic for performing a processing operation on at least one input signal to generate at least one output signal , wherein said input signal corresponds to an output signal of a previous processing stage ; a first sampling element adapted to sample a first value of said output signal synchronously with a clock signal ; a second sampling element adapted to sample a second value of said output signal synchronously with a first delayed clock signal ; a first delayed clock signal generator , adapted to selectively enable said first delayed clock signal , in response to a control signal generated in said previous processing stage ; comparison circuitry for comparing said first and said second values of said output signal and generating an error signal if said first and second values are different; and a further circuit arranged to propagate said second value to the following processing stage if said first and second values are different and to propagate said first value if said first and second values are equal. a first processing stage comprising processing logic for performing a processing operation on at least one input signal to generate at least one output signal , wherein said input signal corresponds to an output signal of a previous processing stage ; a first sampling element adapted to sample a first value of said output signal synchronously with a clock signal ; a second sampling element adapted to sample a second value of said output signal synchronously with a first delayed clock signal ; a first delayed clock signal generator , adapted to selectively enable said first delayed clock signal , in response to a control signal generated in said previous processing stage ; comparison circuitry for comparing said first and said second values of said output signal and generating an error signal if said first and second values are different; and a further circuit arranged to propagate said second value to the following processing stage if said first and second values are different and to propagate said first value if said first and second values are equal.
A staple removing device configured to remove a staple (S) of a paper bundle (P) bound by the staple (S) comprising: a loading portion on which the paper bundle is loaded; a pressing member configured to press the paper bundle loaded on the loading portion to the loading portion ; and an insertion member which advances in a state of being inserted between the paper bundle pressed by the pressing member to the loading portion and the staple (S); wherein the pressing member comprises: a main body formed with an opening portion for storing a leg portion of the staple (S) which has penetrated the paper bundle; and a staple support portion provided in an edge portion on a downstream side in an advancing direction of the insertion member in the opening portion and configured to position the staple at a removing position by allowing the leg portion of the staple to abut against the staple support portion and support the staple in a direction of interfering a forward movement of the insertion member . a loading portion on which the paper bundle is loaded; a pressing member configured to press the paper bundle loaded on the loading portion to the loading portion ; and an insertion member which advances in a state of being inserted between the paper bundle pressed by the pressing member to the loading portion and the staple (S); wherein the pressing member comprises: a main body formed with an opening portion for storing a leg portion of the staple (S) which has penetrated the paper bundle; and a staple support portion provided in an edge portion on a downstream side in an advancing direction of the insertion member in the opening portion and configured to position the staple at a removing position by allowing the leg portion of the staple to abut against the staple support portion and support the staple in a direction of interfering a forward movement of the insertion member .
A method in a user equipment , the method comprising: receiving downlink control information on a control channel, the downlink control information scheduling an unlicensed uplink transmission for the user equipment , the downlink control information including a field indicating whether the user equipment should apply a scaling factor when determining a transport block size, based on the user equipment being configured to transmit using at least one selected from partial uplink subframe Mode 2 and partial uplink subframe Mode 3; and transmitting a transport block in the unlicensed uplink transmission based on the received downlink control information. receiving downlink control information on a control channel, the downlink control information scheduling an unlicensed uplink transmission for the user equipment , the downlink control information including a field indicating whether the user equipment should apply a scaling factor when determining a transport block size, based on the user equipment being configured to transmit using at least one selected from partial uplink subframe Mode 2 and partial uplink subframe Mode 3; and transmitting a transport block in the unlicensed uplink transmission based on the received downlink control information.
A method of charging coolant in a cooling system for a vehicle, the method comprising: determining when a diagnostic apparatus configured for charging the coolant has been connected to a vehicle (S200); starting an engine of the vehicle in a predetermined operation state (S300); in a response that the diagnostic apparatus configured for charging the coolant is determined to be connected to the vehicle, starting a coolant charging mode for charging the coolant by the diagnostic apparatus after starting the engine (S400); and determining, by the diagnostic apparatus, when a coolant charging mode release condition has been satisfied after starting the coolant charging mode (S500), wherein in a response that the coolant charging mode is determined to have entered, a drive of an Exhaust Gas Recirculation (EGR) device is turned off (S14; S25). determining when a diagnostic apparatus configured for charging the coolant has been connected to a vehicle (S200); starting an engine of the vehicle in a predetermined operation state (S300); in a response that the diagnostic apparatus configured for charging the coolant is determined to be connected to the vehicle, starting a coolant charging mode for charging the coolant by the diagnostic apparatus after starting the engine (S400); and determining, by the diagnostic apparatus, when a coolant charging mode release condition has been satisfied after starting the coolant charging mode (S500), wherein in a response that the coolant charging mode is determined to have entered, a drive of an Exhaust Gas Recirculation (EGR) device is turned off (S14; S25).