mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, comprising: a determination means for determining, based on one or more received signals, whether to monitor carriers belonging to a first performance group that has a first measurement delay that is greater than a second measurement delay of a second performance group, and whether to apply a scaling factor for monitoring the carriers belonging to the first performance group when the user equipment supports a first carrier monitoring capability that is increased relative to a second carrier monitoring capability; and a monitoring means for: monitoring carriers belonging to the second performance group when it is determined to not monitor the carriers belonging to the first performance group, and monitoring carriers according to the second carrier monitoring capability when it is determined that the scaling factor is not to be applied to the first performance group. a determination means for determining, based on one or more received signals, whether to monitor carriers belonging to a first performance group that has a first measurement delay that is greater than a second measurement delay of a second performance group, and whether to apply a scaling factor for monitoring the carriers belonging to the first performance group when the user equipment supports a first carrier monitoring capability that is increased relative to a second carrier monitoring capability; and a monitoring means for: monitoring carriers belonging to the second performance group when it is determined to not monitor the carriers belonging to the first performance group, and monitoring carriers according to the second carrier monitoring capability when it is determined that the scaling factor is not to be applied to the first performance group. monitoring carriers belonging to the second performance group when it is determined to not monitor the carriers belonging to the first performance group, and monitoring carriers according to the second carrier monitoring capability when it is determined that the scaling factor is not to be applied to the first performance group.
A method performed by a management entity, the method comprising: composing, in response to a connection using a provisional subscription from a device comprising an embedded universal integrated circuit card, eUICC, a deletion command message for deleting certificates, the deletion command message comprises information on certificates to be deleted and is cryptographically authorized by the management entity, and transmitting the deletion command message to the device, wherein a plurality of regional certificates is pre-installed on the eUICC. composing, in response to a connection using a provisional subscription from a device comprising an embedded universal integrated circuit card, eUICC, a deletion command message for deleting certificates, the deletion command message comprises information on certificates to be deleted and is cryptographically authorized by the management entity, and transmitting the deletion command message to the device, wherein a plurality of regional certificates is pre-installed on the eUICC.
A media holder for use with a media processor, the media holder comprising: a spool comprising: a winding drum defining an axis and a first diameter, a flange defining a second diameter that is larger than the first diameter; an antenna located on the flange, wherein the antenna comprises at least one arcuate conductor concentric with the axis of the winding drum; and a memory located on the flange and disposed in communication with the antenna, the memory configured to store an identification number and an authentication number; wherein the authentication number is at least partially an encrypted transformation of the identification number. a spool comprising: a winding drum defining an axis and a first diameter, a flange defining a second diameter that is larger than the first diameter; a winding drum defining an axis and a first diameter, a flange defining a second diameter that is larger than the first diameter; an antenna located on the flange, wherein the antenna comprises at least one arcuate conductor concentric with the axis of the winding drum; and a memory located on the flange and disposed in communication with the antenna, the memory configured to store an identification number and an authentication number; wherein the authentication number is at least partially an encrypted transformation of the identification number.
A binder for multilayer structures, comprising: - from 60% to 95%, by weight of the composition, of a polyethylene matrix chosen from low-density radical polyethylenes (LDPE), - from 5% to 40%, by weight of the composition, of a mixture of two polyethylenes, the first polyethylene consisting of a metallocene polyethylene, cografted with an unsaturated carboxylic acid, the grafting monomer, the unsaturated carboxylic acid grafts representing more than 0.5% by weight of the mixture, characterized in that the second polyethylene consists of a low-density radical polyethylene (LDPE) and in that the MFI or meltflow index (standard ASTM D 1238, at 190°C, under 2.16 kg) is between 4 and 15 g/10 min. - from 60% to 95%, by weight of the composition, of a polyethylene matrix chosen from low-density radical polyethylenes (LDPE), - from 5% to 40%, by weight of the composition, of a mixture of two polyethylenes, the first polyethylene consisting of a metallocene polyethylene, cografted with an unsaturated carboxylic acid, the grafting monomer, the unsaturated carboxylic acid grafts representing more than 0.5% by weight of the mixture, characterized in that the second polyethylene consists of a low-density radical polyethylene (LDPE) and in that the MFI or meltflow index (standard ASTM D 1238, at 190°C, under 2.16 kg) is between 4 and 15 g/10 min.
A method for testing a temperature sensor which comprises a temperature-dependent resistor, the method comprising a step of: - applying to the resistor R2 a voltage pulse with a predetermined voltage amplitude U T and a predetermined duration T, characterised in that the method further comprises steps of: - determining a curve which represents the change in the temperature of R2 during the voltage pulse, - comparing the curve determined, or parameters for the curve determined, with a set of curves, or parameters for a set of curves, which represent different types of temperature-dependent resistors, and - generating on the basis of the comparison an information signal which indicates the type of resistor for R2. - applying to the resistor R2 a voltage pulse with a predetermined voltage amplitude U T and a predetermined duration T, - determining a curve which represents the change in the temperature of R2 during the voltage pulse, - comparing the curve determined, or parameters for the curve determined, with a set of curves, or parameters for a set of curves, which represent different types of temperature-dependent resistors, and - generating on the basis of the comparison an information signal which indicates the type of resistor for R2.
A method for manufacturing a copper profile, in particular a copper wire, from a matrix element, wherein the matrix element comprises at least one filament, with the following step of - passing the matrix element through an opening of a copper crucible filled with liquid copper in such a manner that liquid copper is applied onto the matrix element and the applied copper is solidified on the matrix element, free from the liquid copper in the filled copper crucible, so that the copper profile is directly formed. - passing the matrix element through an opening of a copper crucible filled with liquid copper in such a manner that liquid copper is applied onto the matrix element and the applied copper is solidified on the matrix element, free from the liquid copper in the filled copper crucible, so that the copper profile is directly formed.
An object-sensing display device comprising: a waveguide and a substrate holding a liquid crystal layer, wherein radiation propagates through the waveguide via total internal reflection; a radiation emitting element positioned along a radiation input surface of the waveguide; and a radiation receiving element positioned to receive radiation exiting the waveguide, wherein the radiation receiving element detects the amount of radiation that is totally internally reflected through the waveguide characterized in that the object-sensing display device further comprises a subsidiary layer disposed on the waveguide, the subsidiary layer having an index of refraction that is lower than that of the waveguide, wherein the radiation receiving element is located in a light blocking area such that the radiation receiving element is disposed under the waveguide and along with an opposite edge of the waveguide, wherein the subsidiary layer is formed under the waveguide and extends from the radiation input surface up to the radiation receiving element leaving a gap or contacting the radiation receiving element. a waveguide and a substrate holding a liquid crystal layer, wherein radiation propagates through the waveguide via total internal reflection; a radiation emitting element positioned along a radiation input surface of the waveguide; and a radiation receiving element positioned to receive radiation exiting the waveguide, wherein the radiation receiving element detects the amount of radiation that is totally internally reflected through the waveguide characterized in that the object-sensing display device further comprises a subsidiary layer disposed on the waveguide, the subsidiary layer having an index of refraction that is lower than that of the waveguide,
An endoscope reprocessor comprising: a treatment tank; a top cover having a transmitting unit made of a transmitting material that allows visible light to transmit through the transmitting material, the transmitting unit being disposed such that the visible light is allowed to transmit from a reprocessor outer surface to an inside of a treatment tank; an observation terminal including a receiving unit that receives the visible light and a display unit; and at least one terminal holding unit disposed on an outer surface of the top cover, and configured to hold the observation terminal at a position that allows the observation terminal to observe the inside of the treatment tank through the transmitting unit, wherein the observation terminal is held by the terminal holding unit such that the display unit faces the top cover and a user can observe the display unit of the observation terminal through the top cover. a treatment tank; a top cover having a transmitting unit made of a transmitting material that allows visible light to transmit through the transmitting material, the transmitting unit being disposed such that the visible light is allowed to transmit from a reprocessor outer surface to an inside of a treatment tank; an observation terminal including a receiving unit that receives the visible light and a display unit; and at least one terminal holding unit disposed on an outer surface of the top cover, and configured to hold the observation terminal at a position that allows the observation terminal to observe the inside of the treatment tank through the transmitting unit, wherein the observation terminal is held by the terminal holding unit such that the display unit faces the top cover and a user can observe the display unit of the observation terminal through the top cover.
Method for machining a blade for a turbomachine comprising a shroud which is positioned on a tip side of the blade having an outer surface with at least one circumferential fin arranged thereon, wherein the shroud has recesses with reinforcement ribs arranged therebetween, characterized in that at least one section (23, 24) of the outer surface of the ribs beside the at least one fin is processed in at least two manufacturing steps: - machining the outer surface along a first machining path, which runs circumferentially around a machining axis which corresponds to the rotation axis of the turbomachine or which is a linear machining path, and - machining the outer surface along a second machining path which is different to the first machining path, wherein by way of this machining step, which in the process flow can also be applied before the aforementioned step, the thickness of the ribs of the shroud is adapted differently in diverse areas of the outer shroud of the blade. - machining the outer surface along a first machining path, which runs circumferentially around a machining axis which corresponds to the rotation axis of the turbomachine or which is a linear machining path, and - machining the outer surface along a second machining path which is different to the first machining path, wherein by way of this machining step, which in the process flow can also be applied before the aforementioned step, the thickness of the ribs of the shroud is adapted differently in diverse areas of the outer shroud of the blade.
A base station to facilitate communications between mobile terminals in a first cell of a plurality of cells in a communication network comprising: circuitry (20, 22) configured to partition a time-frequency transmission resource comprising a plurality of subcarriers over a plurality of OFDM symbol intervals into a first zone and a second zone; and a transmitter configured to mitigate inter-cell interference between the plurality of cells by: in the first zone, transmitting OFDM symbols on at least one set of subcarriers which is used by all of the plurality of cells; and in the second zone, transmitting OFDM symbols on at least one set of subcarriers which is used by less than all of the plurality of cells. circuitry (20, 22) configured to partition a time-frequency transmission resource comprising a plurality of subcarriers over a plurality of OFDM symbol intervals into a first zone and a second zone; and a transmitter configured to mitigate inter-cell interference between the plurality of cells by: in the first zone, transmitting OFDM symbols on at least one set of subcarriers which is used by all of the plurality of cells; and in the second zone, transmitting OFDM symbols on at least one set of subcarriers which is used by less than all of the plurality of cells. in the first zone, transmitting OFDM symbols on at least one set of subcarriers which is used by all of the plurality of cells; and in the second zone, transmitting OFDM symbols on at least one set of subcarriers which is used by less than all of the plurality of cells.
A conductive laminate for a touch panel comprising: a substrate which is light-transmitting and includes one surface; an underlayer which is light-transmitting and is disposed on the one surface of the substrate; a first copper oxynitride layer which is disposed on a surface of the underlayer opposite to a surface that is in contact with the substrate; a copper layer which is disposed on a surface of the first copper oxynitride layer opposite to a surface that is in contact with the underlayer; and a second copper oxynitride layer which is disposed on a surface of the copper layer opposite to a surface that is in contact with the first copper oxynitride layer. a substrate which is light-transmitting and includes one surface; an underlayer which is light-transmitting and is disposed on the one surface of the substrate; a first copper oxynitride layer which is disposed on a surface of the underlayer opposite to a surface that is in contact with the substrate; a copper layer which is disposed on a surface of the first copper oxynitride layer opposite to a surface that is in contact with the underlayer; and a second copper oxynitride layer which is disposed on a surface of the copper layer opposite to a surface that is in contact with the first copper oxynitride layer.
A method for regulating the speed of an engine in response to extra load, the engine being adapted to run a power take-off which can add an extra load to the engine while conveying propulsive force to at least one pair of tractive wheels by means of a transmission, comprising the step of - continuously determining a prevailing speed (n) of said engine, characterised by the steps of - determining, upon activation of extra load from the power take-off, a maximum permissible engine speed set-point value (n_init) and a corresponding power mobilisation reference (TH_ref), for the regulation of said speed (n), - regulating said speed (n) towards said maximum permissible set-point value (n_init; n_refMax) when a higher power mobilisation is demanded from a driver than said power mobilisation reference (TH_ref), and - regulating said speed (n) according to a specific relationship between engine speed set-point value (n_ref) and power mobilisation when the power mobilisation demanded from the driver is less than said power mobilisation reference (TH_ref), the method further comprising the step of determining said relationship as a function of the engine's idling speed (n_idleRef). - continuously determining a prevailing speed (n) of said engine, characterised by the steps of - determining, upon activation of extra load from the power take-off, a maximum permissible engine speed set-point value (n_init) and a corresponding power mobilisation reference (TH_ref), for the regulation of said speed (n), - regulating said speed (n) towards said maximum permissible set-point value (n_init; n_refMax) when a higher power mobilisation is demanded from a driver than said power mobilisation reference (TH_ref), and - regulating said speed (n) according to a specific relationship between engine speed set-point value (n_ref) and power mobilisation when the power mobilisation demanded from the driver is less than said power mobilisation reference (TH_ref), the method further comprising the step of determining said relationship as a function of the engine's idling speed (n_idleRef).
A motor control apparatus that drive-controls a motor by an inverter based on a current command value calculated with a steering torque from a torque sensor, and a motor release-switch comprising field-effect transistors (FETs) is connected between said inverter and said motor, said motor control apparatus comprising: a control section to detect an assist state on sensor kinds including said torque sensor and an assist state of said inverter, to ON/OFF-switch a control of said inverter based on a detection result and to detect a presence of an abnormality; a motor rotational number rpm detecting section to detect a rotational number rpm of said motor; wherein said control of said inverter is ON-switched when said control section does not detect an abnormality, and said control of said inverter is OFF-switched when said control section detects said abnormality, characterised by a data table to store data about an energy of a motor back-EMF and a regenerative current corresponding to a rotational number rpm of said motor; an energy calculating section to calculate an energy of said motor back-EMF and said regenerative current based on said rotational number rpm of said motor by using said data table; and a judging section to compare said energy with an area of safety operation of said FETs and to OFF-switch all of said FETs when said energy become within said area of safety operation. a control section to detect an assist state on sensor kinds including said torque sensor and an assist state of said inverter, to ON/OFF-switch a control of said inverter based on a detection result and to detect a presence of an abnormality; a motor rotational number rpm detecting section to detect a rotational number rpm of said motor; wherein said control of said inverter is ON-switched when said control section does not detect an abnormality, and said control of said inverter is OFF-switched when said control section detects said abnormality, characterised by a data table to store data about an energy of a motor back-EMF and a regenerative current corresponding to a rotational number rpm of said motor; an energy calculating section to calculate an energy of said motor back-EMF and said regenerative current based on said rotational number rpm of said motor by using said data table; and a judging section to compare said energy with an area of safety operation of said FETs and to OFF-switch all of said FETs when said energy become within said area of safety operation.
A battery cell, comprising: - a prismatic container being generally rectangular in shape and having an opening; - a lid configured to couple to the prismatic container to seal the opening; - a positive terminal assembly disposed on the lid; - a negative terminal assembly disposed on the lid, wherein the negative terminal assembly comprises a top gasket disposed on a top surface of the lid and a bottom gasket disposed on a bottom surface of the lid, wherein the top and bottom gaskets (72, 74) are configured to swage a negative terminal of the negative terminal assembly to the lid and electrically insulate the negative terminal from the lid, and the top gasket and the bottom gasket are separate pieces; and - an electrode assembly having a negative coil and a positive coil, the positive coil of the electrode assembly being in conductive contact with the prismatic container such that the prismatic container and lid are positively polarized. - a prismatic container being generally rectangular in shape and having an opening; - a lid configured to couple to the prismatic container to seal the opening; - a positive terminal assembly disposed on the lid; - a negative terminal assembly disposed on the lid, wherein the negative terminal assembly comprises a top gasket disposed on a top surface of the lid and a bottom gasket disposed on a bottom surface of the lid, wherein the top and bottom gaskets (72, 74) are configured to swage a negative terminal of the negative terminal assembly to the lid and electrically insulate the negative terminal from the lid, and the top gasket and the bottom gasket are separate pieces; and - an electrode assembly having a negative coil and a positive coil, the positive coil of the electrode assembly being in conductive contact with the prismatic container such that the prismatic container and lid are positively polarized.
A humanized antibody that binds hepatitis C virus E2 protein or an antigen binding fragment thereof, wherein the humanized antibody or antigen binding fragment thereof comprises a variable heavy chain domain selected from the group consisting of SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14, SEQ ID NO:15, SEQ ID NO:16, SEQ ID NO:17, and SEQ ID NO:18, and a variable light chain domain selected from the group consisting of SEQ ID NO:6, SEQ ID NO:7, SEQ ID NO:19, and SEQ ID NO:20.
A stack-folding typed electrode assembly, comprising: an electrode assembly having a structure in which a plurality of unit cells overlaps and a continuous folding separator is interposed between each overlapping part, wherein the continuous folding separator comprises a continuous porous polymer substrate having pores; and an organic-inorganic porous coating layer formed of a mixture of inorganic particles and a binder polymer, wherein the organic-inorganic porous coating layer is formed only at areas where unit cells overlap, while only the porous substrate is present at an area where unit cells do not overlap. an electrode assembly having a structure in which a plurality of unit cells overlaps and a continuous folding separator is interposed between each overlapping part, wherein the continuous folding separator comprises a continuous porous polymer substrate having pores; and an organic-inorganic porous coating layer formed of a mixture of inorganic particles and a binder polymer, wherein the organic-inorganic porous coating layer is formed only at areas where unit cells overlap, while only the porous substrate is present at an area where unit cells do not overlap.