mhurhangee/ep-ind-claims huggingface dataset:
A resource configuration method, characterized in that the method comprises: if a first terminal device is in a RRC connected state, receiving resource configuration information sent by a network device, wherein the resource configuration information is used to indicate a dedicated transmission resource; and if the first terminal device is in a RRC inactive state, performing sidelink data transmission with a second terminal device using the dedicated transmission resource which is configured by the network device when the first terminal device is in the RRC connected state. if a first terminal device is in a RRC connected state, receiving resource configuration information sent by a network device, wherein the resource configuration information is used to indicate a dedicated transmission resource; and if the first terminal device is in a RRC inactive state, performing sidelink data transmission with a second terminal device using the dedicated transmission resource which is configured by the network device when the first terminal device is in the RRC connected state.
A method for an electronic device with a touch-sensitive display, the touch-sensitive display comprising a touch-sensitive display area and a touch-sensitive non-display area, wherein a boundary is disposed between the display area and the non-display area, and a touch-sensitive buffer area extends around the boundary between the display area and the non-display area, the method comprising: displaying information associated with a first application in the display area; detecting a touch on the touch-sensitive display and determining touch attributes including a start location of the touch; determining whether or not the touch is of a first gesture type the first gesture type being a meta-navigation gesture, based on the touch attributes, wherein the touch is determined to be of the first gesture type when the start location is outside the buffer area and in the non-display area and the touch travels through the buffer area and across the boundary into the display area; and when the touch is determined to be of the first gesture type, forwarding information related to the touch to a second application (504 - 514), otherwise forwarding the information related to the touch to the first application. displaying information associated with a first application in the display area; detecting a touch on the touch-sensitive display and determining touch attributes including a start location of the touch; determining whether or not the touch is of a first gesture type the first gesture type being a meta-navigation gesture, based on the touch attributes, wherein the touch is determined to be of the first gesture type when the start location is outside the buffer area and in the non-display area and the touch travels through the buffer area and across the boundary into the display area; and when the touch is determined to be of the first gesture type, forwarding information related to the touch to a second application (504 - 514), otherwise forwarding the information related to the touch to the first application.
A machining tool in which multiple tooth forming portions for plastically forming spline teeth on an axial end face of a vehicle hub unit, the axial end face facing inward in a vehicle lateral direction, are formed in a circular pattern about a central axis of the machining tool, characterized in that a rounded-portion forming portion that has an arc-shape is formed at a root portion of each of the tooth forming portions, and is used to form a rounded portion between a tooth flank and a top land of each spline tooth; and a radius (Ro, Ri) of the rounded-portion forming portion gradually changes in a radial direction about the central axis.
A multilayer film comprising: a) a fluoropolymer layer having a first surface, and a second surface opposed to the first surface; b) an adhesive layer in contact with the first surface of the fluoropolymer layer, said adhesive layer comprising a poly(ester-urethane) copolymer; and c) a thermoplastic polymer layer comprising an ethylene vinyl acetate copolymer, and having a first surface, and a second surface opposed to the first surface, the thermoplastic polymer layer being attached to the fluoropolymer layer such that the adhesive layer is positioned in contact with the first surface of the fluoropolymer layer and the first surface of the thermoplastic polymer layer, the multilayer film having a bond strength between the fluoropolymer layer and the thermoplastic polymer layer of 300 g/inch (118 g/cm) to 900 g/inch (354 g/cm). a) a fluoropolymer layer having a first surface, and a second surface opposed to the first surface; b) an adhesive layer in contact with the first surface of the fluoropolymer layer, said adhesive layer comprising a poly(ester-urethane) copolymer; and c) a thermoplastic polymer layer comprising an ethylene vinyl acetate copolymer, and having a first surface, and a second surface opposed to the first surface, the thermoplastic polymer layer being attached to the fluoropolymer layer such that the adhesive layer is positioned in contact with the first surface of the fluoropolymer layer and the first surface of the thermoplastic polymer layer, the multilayer film having a bond strength between the fluoropolymer layer and the thermoplastic polymer layer of 300 g/inch (118 g/cm) to 900 g/inch (354 g/cm).
An electrolyte, comprising: a dinitrile compound, a trinitrile compound, and propyl propionate; wherein, the trinitrile compound is at least one selected from the group consisting of 1,3,5-pentanetricarbonitrile, 1,2,3-propanetrinitrile, 1,3,6-hexanetricarbonitrile, 1,2,6-hexanetricarbonitrile, 1,2,3-tris(2-cyanoethoxy)propane, 1,2,4-tris(2-cyanoethoxy)butane, 1,1,1-tris(cyanoethoxymethylene)ethane, 1,1,1-tris(cyanoethoxymethylene)propane, 3-methyl-1,3,5-tris(cyanoethoxy)pentane, 1,2,7-tris(cyanoethoxy)heptane, 1,2,6-tris(cyanoethoxy)hexane, and 1,2,5-tris(cyanoethoxy)pentane; wherein, 3 wt % ≤ X + Y ≤ 6 wt %, 0.2 ≤ X / Y ≤ 5, and, 0.01 ≤ Y / Z ≤ 0.3; based on the total weight of the electrolyte, X is a weight percentage of the dinitrile compound, Y is a weight percentage of the trinitrile compound, and Z is a weight percentage of the propyl propionate; wherein the electrolyte further comprises at least one selected from the group consisting of: a cyclic carbonate ester having a carbon-carbon double bond, a fluorinated chain carbonate ester, a fluorinated cyclic carbonate ester, and a compound having a sulfur-oxygen double bond. the trinitrile compound is at least one selected from the group consisting of 1,3,5-pentanetricarbonitrile, 1,2,3-propanetrinitrile, 1,3,6-hexanetricarbonitrile, 1,2,6-hexanetricarbonitrile, 1,2,3-tris(2-cyanoethoxy)propane, 1,2,4-tris(2-cyanoethoxy)butane, 1,1,1-tris(cyanoethoxymethylene)ethane, 1,1,1-tris(cyanoethoxymethylene)propane, 3-methyl-1,3,5-tris(cyanoethoxy)pentane, 1,2,7-tris(cyanoethoxy)heptane, 1,2,6-tris(cyanoethoxy)hexane, and 1,2,5-tris(cyanoethoxy)pentane; wherein, 3 wt % ≤ X + Y ≤ 6 wt %, 0.2 ≤ X / Y ≤ 5, and, 0.01 ≤ Y / Z ≤ 0.3; based on the total weight of the electrolyte, X is a weight percentage of the dinitrile compound, Y is a weight percentage of the trinitrile compound, and Z is a weight percentage of the propyl propionate; wherein the electrolyte further comprises at least one selected from the group consisting of: a cyclic carbonate ester having a carbon-carbon double bond, a fluorinated chain carbonate ester, a fluorinated cyclic carbonate ester, and a compound having a sulfur-oxygen double bond.
A device for expanded implantation within a heart chamber that is in fluid communication with an annulus comprising an annular plane and with a native valve having leaflets, the device comprising: a base section comprising a lower surface that is at least partially disposed on the annular plane, the lower surface comprising a raised portion spaced above the lower surface of the base section and the annular plane; an atrial dome section in pressured and frictional engagement with the chamber roof when the device is expanded and implanted; an intermediate section operatively attached to the base section and operatively attached to the atrial dome section, the intermediate section positioned below the atrial dome section within the heart chamber when the device is expanded and implanted; and a central cylinder valve support comprising a lower surface, the central cylinder valve support operatively attached to the raised portion of the base section and comprising at least one prosthetic valve leaflet operatively attached therein, the lower surface of the central cylinder valve support spaced above the lower surface of the base section and the annular plane. a base section comprising a lower surface that is at least partially disposed on the annular plane, the lower surface comprising a raised portion spaced above the lower surface of the base section and the annular plane; an atrial dome section in pressured and frictional engagement with the chamber roof when the device is expanded and implanted; an intermediate section operatively attached to the base section and operatively attached to the atrial dome section, the intermediate section positioned below the atrial dome section within the heart chamber when the device is expanded and implanted; and a central cylinder valve support comprising a lower surface, the central cylinder valve support operatively attached to the raised portion of the base section and comprising at least one prosthetic valve leaflet operatively attached therein, the lower surface of the central cylinder valve support spaced above the lower surface of the base section and the annular plane.
A plug-in hybrid electric vehicle comprising an internal combustion engine, a coolant outlet of the internal combustion engine being connected to a coolant inlet of a fuel operated heater and wherein a coolant outlet of the fuel operated heater is connected to a coolant inlet of an HVAC heater, a coolant outlet of the HVAC heater further being connected to a coolant inlet of the internal combustion engine, the vehicle further comprising a temperature sensor arranged at the coolant outlet of the internal combustion engine and a temperature sensor arranged at the coolant outlet of the fuel operated heater, characterised in that it further comprises a three way valve arranged between the coolant outlet of the HVAC heater and the coolant inlet of the internal combustion engine such that there is a connection between the coolant outlet of the HVAC heater and the coolant inlet of the fuel operated heater, the connection thus bypassing the internal combustion engine.
A method comprising: receiving a physical layer signaling from a base station by a user equipment, UE, in a mobile communication network, wherein the UE exchanges data with the base station according to a predefined radio frame format, wherein each radio frame comprises a plurality of slots, and wherein each slot is a basic scheduling unit comprising a predefined number of OFDM symbols; determining one or more slot types associated with corresponding one or more slots based on the physical layer signaling; and performing data reception and/or transmission with the base station in the one or more slots based on the determined one or more slot types, wherein the one or more slots include at least a scheduled slot associated with a scheduled slot type, wherein the scheduled slot type belongs to one of four predefined slot types comprising an all-downlink, DL-all, type, an all-uplink, UL-all, type, a DL-major type, and a UL-major type, and wherein a DL-all type slot comprises all DL OFDM symbols, a UL-all type slot comprises all UL OFDM symbols, a DL-major type slot comprises both of DL OFDM symbols and UL OFDM symbols and comprises more DL OFDM symbols than UL OFDM symbols, a UL-major type slot comprises both of DL OFDM symbols and UL OFDM symbols and comprises more UL OFDM symbols than DL OFDM symbols, wherein the DL-major type slot starts with DL OFDM symbols from the beginning of the slot. receiving a physical layer signaling from a base station by a user equipment, UE, in a mobile communication network, wherein the UE exchanges data with the base station according to a predefined radio frame format, wherein each radio frame comprises a plurality of slots, and wherein each slot is a basic scheduling unit comprising a predefined number of OFDM symbols; determining one or more slot types associated with corresponding one or more slots based on the physical layer signaling; and performing data reception and/or transmission with the base station in the one or more slots based on the determined one or more slot types, wherein the one or more slots include at least a scheduled slot associated with a scheduled slot type, wherein the scheduled slot type belongs to one of four predefined slot types comprising an all-downlink, DL-all, type, an all-uplink, UL-all, type, a DL-major type, and a UL-major type, and wherein a DL-all type slot comprises all DL OFDM symbols, a UL-all type slot comprises all UL OFDM symbols, a DL-major type slot comprises both of DL OFDM symbols and UL OFDM symbols and comprises more DL OFDM symbols than UL OFDM symbols, a UL-major type slot comprises both of DL OFDM symbols and UL OFDM symbols and comprises more UL OFDM symbols than DL OFDM symbols, wherein the DL-major type slot starts with DL OFDM symbols from the beginning of the slot.
A method of operation of a terminal device, comprising: obtaining location information relating to a location of the terminal device, wherein the location information comprises first location information and second location information, wherein the first location information relates to a location of the terminal device within a region and the first location information identifies a cell within the region, and wherein the second location information identifies the region in which the terminal device is located; forming content for a proximity service discovery message, wherein the content for the proximity service discovery message includes the first location information; calculating a message integrity code based on the content for the proximity service discovery message and the second location information; and transmitting the proximity service discovery message, comprising the content for the proximity service discovery message and the computed message integrity code. obtaining location information relating to a location of the terminal device, wherein the location information comprises first location information and second location information, wherein the first location information relates to a location of the terminal device within a region and the first location information identifies a cell within the region, and wherein the second location information identifies the region in which the terminal device is located; forming content for a proximity service discovery message, wherein the content for the proximity service discovery message includes the first location information; calculating a message integrity code based on the content for the proximity service discovery message and the second location information; and transmitting the proximity service discovery message, comprising the content for the proximity service discovery message and the computed message integrity code.
A method for controlling a waste heat recovery system associated with a powertrain of a vehicle, the powertrain comprising a combustion engine and a gearbox connected to the combustion engine, the waste heat recovery system comprising a working fluid circuit; an evaporator; an expander; a condenser; a reservoir for a working fluid and a pump arranged to pump the working fluid through the circuit, wherein the evaporator is arranged for heat exchange between the working fluid and at least one heat source, wherein the waste heat recovery system further comprises a cooling circuit arranged in connection to the condenser, and wherein the expander is mechanically connected to the powertrain, the method comprising the steps of: - predicting a downhill slope which will require braking of the vehicle; - reducing the temperature of the evaporator to a predetermined temperature; and - turning off the pump and thus the waste heat recovery system, characterized in that the step of reducing the temperature of the evaporator comprises to control the at least one heat source to bypass the evaporator. - predicting a downhill slope which will require braking of the vehicle; - reducing the temperature of the evaporator to a predetermined temperature; and - turning off the pump and thus the waste heat recovery system, characterized in that the step of reducing the temperature of the evaporator comprises to control the at least one heat source to bypass the evaporator.
A device for determining at least one piece of information on a position of at least one transmitter, comprising an antenna device, a control device, a signal processing device and a data processing device, wherein the antenna device comprises several different directional characteristics, wherein the directional characteristics each relate to at least a set of spatially different receive sensitivities of the antenna device, wherein the antenna device is configured to receive at least one respective signal from the transmitter with different directional characteristics, wherein the antenna device comprises a feed network, the feed network causing different directional characteristics of the antenna device, wherein the feed network is configured to output signals received from the antenna device in a manner partitioned in correspondence with the directional characteristics, wherein the antenna device is configured such that the directional characteristics each comprise a global maximum which is located each in a certain sector, determined by a pair of an azimuth angle and a co-elevation angle, in an irradiation region associated to the antenna device, wherein the antenna device is configured such that the directional characteristics each comprise a side maximum which is located each in a sector differing from that sector where the global maximum is located, and which comprises a predeterminable level distance to a level of the global maximum, wherein the signal processing device is configured to process the signals received from the antenna device and establish a respective amplitude value of a field strength of the signal received, wherein the data processing device is configured to establish the information on the position of the transmitter based on the directional characteristics and the amplitude values established from the respective associated signals received, and wherein the data processing device is configured to establish a statement on a direction of the transmitter relative to the antenna device as information on the position of the transmitter from the amplitude values established in a vector form and data on the directional characteristics, characterized in that the control device is configured to switch the different directional characteristics, which are caused by the feed network, for receiving signals emanating from the transmitter, the feed network being configured to set a desired directional characteristic of the directional characteristics at a multibeam antenna of the antenna device, and the respectively desired directional characteristic being switched, for the signal processing device, by establishing a connection between a signal input of the feed network of the respectively desired directional characteristic and the signal processing device.
A camera on which a lens apparatus can be mounted, comprising: a control means configured to perform a focusing control corresponding to the mounted lens apparatus; a display means (250, 251) configured to perform a display process corresponding to an output of the control means; and a storage means configured to store a calculated focus correction amount for correcting a calculation result in the focusing control by the control means, in association with the mounted lens apparatus; wherein the control means is configured to identify the mounted lens apparatus, to determine whether the calculated focus correction amount corresponding to the identified lens apparatus is stored in the storage means, and to output a signal corresponding to a result of the determination to the display means (250, 251), and the display means (250, 251) is configured to, in response to the signal output by the control means, indicate a correction identification mark indicating that the calculated focus correction amount has been calculated, and to indicate the calculated focus correction amount. a control means configured to perform a focusing control corresponding to the mounted lens apparatus; a display means (250, 251) configured to perform a display process corresponding to an output of the control means; and a storage means configured to store a calculated focus correction amount for correcting a calculation result in the focusing control by the control means, in association with the mounted lens apparatus; wherein the control means is configured to identify the mounted lens apparatus, to determine whether the calculated focus correction amount corresponding to the identified lens apparatus is stored in the storage means, and to output a signal corresponding to a result of the determination to the display means (250, 251), and the display means (250, 251) is configured to, in response to the signal output by the control means, indicate a correction identification mark indicating that the calculated focus correction amount has been calculated, and to indicate the calculated focus correction amount.
An inkjet printing method including the steps of: a) jetting on a substrate one or more aqueous UV curable inkjet inks including at least one photoinitiator and capsules composed of a crosslinked polymeric shell surrounding a core, with the core containing UV curable compounds; and b) applying UV radiation to the one or more aqueous UV curable inkjet inks jetted on the substrate, characterized in that the one or more aqueous UV curable inkjet inks are exposed to infrared radiation between steps a) and b). a) jetting on a substrate one or more aqueous UV curable inkjet inks including at least one photoinitiator and capsules composed of a crosslinked polymeric shell surrounding a core, with the core containing UV curable compounds; and b) applying UV radiation to the one or more aqueous UV curable inkjet inks jetted on the substrate,
A method to be carried out in a wireless device of a wireless communication system, for supporting verification of a device category of the wireless device, comprising the steps of: receiving from a network node a verification message including a random bit sequence; calculating a verification signature from the random bit sequence by using a verification function assigned to the device category; and transmitting the calculated verification signature to the network node in an uplink message of a random access procedure or in the first uplink message following a random access procedure so as to allow verification of the device category using the verification signature at a network node; wherein the device category is associated with a security level or priority level shared by a group of wireless devices. receiving from a network node a verification message including a random bit sequence; calculating a verification signature from the random bit sequence by using a verification function assigned to the device category; and transmitting the calculated verification signature to the network node in an uplink message of a random access procedure or in the first uplink message following a random access procedure so as to allow verification of the device category using the verification signature at a network node; wherein the device category is associated with a security level or priority level shared by a group of wireless devices.