mhurhangee/ep-ind-claims huggingface dataset:
A battery module for an aerosol generating system, the battery module comprising: - a battery extending substantially in a longitudinal direction such that the battery has two opposite ends in said longitudinal direction, each end forming an end face (2,3), - a flexible printed circuit connected to the battery, the flexible printed circuit comprising a first portion which extends in the longitudinal direction over a side wall of the battery, the flexible printed circuit forming a main circuit board of the battery module, the first portion of the flexible printed circuit carrying a microprocessor or a microcontroller, Wherein the flexible printed circuit is bent such that a second portion of the flexible printed circuit extends over at least one of the end faces (2,3) of the battery, the second portion of the flexible printed circuit carrying a pressure sensor. - a battery extending substantially in a longitudinal direction such that the battery has two opposite ends in said longitudinal direction, each end forming an end face (2,3), - a flexible printed circuit connected to the battery, the flexible printed circuit comprising a first portion which extends in the longitudinal direction over a side wall of the battery, the flexible printed circuit forming a main circuit board of the battery module, the first portion of the flexible printed circuit carrying a microprocessor or a microcontroller,
Superconducting component comprising a first superconducting loop, the first superconducting loop comprising: • a first branch comprising a first Josephson junction, • a second branch, the second branch comprising a first direct-current superconducting quantum interference device, the first direct-current superconducting quantum interference device comprising a second Josephson junction and a third Josephson junction, a critical current ( I C1, I C2, I C3) being defined for each Josephson junction (32, 50, 56), the critical current ( I C1) of the first Josephson junction is greater than the absolute value of the difference between the critical current ( I C3) of the third Josephson junction and the critical current ( I C2) of the second Josephson junction and less than the sum of the critical current ( I C2) of the second Josephson junction and the critical current ( I C3) of the third Josephson junction, characterised in that the component comprises magnetic flux generating means (14, 16, 58, 60, 62, 64) in the form of conductive tracks (58, 62) positioned opposite the branches (20, 22), one track (58, 62) being coupled to the first superconducting quantum interference device, the magnetic flux generating means (14, 16, 58, 60, 62, 64) being arranged so as to efficiently inject a magnetic flux into the first direct-current superconducting quantum interference device. • a first branch comprising a first Josephson junction, • a second branch,
A trip block, comprising: a housing having an inlet, an outlet, and a plurality of interconnected passageways; a plurality of valve assemblies (30, 32, 34), wherein a portion of each valve assembly is housed within the housing, wherein each valve assembly of the plurality of valve assemblies includes a rotary valve member arrangement and an actuator for actuating the rotary valve member arrangement; wherein each one of the plurality of valve assemblies is arranged within the housing to govern a flow of fluid between the inlet and the outlet; and wherein the rotary valve member arrangement of each one of the plurality of valve assemblies includes a spool rotatably disposed within a sleeve [claim 2]. a housing having an inlet, an outlet, and a plurality of interconnected passageways; a plurality of valve assemblies (30, 32, 34), wherein a portion of each valve assembly is housed within the housing, wherein each valve assembly of the plurality of valve assemblies includes a rotary valve member arrangement and an actuator for actuating the rotary valve member arrangement; wherein each one of the plurality of valve assemblies is arranged within the housing to govern a flow of fluid between the inlet and the outlet; and wherein the rotary valve member arrangement of each one of the plurality of valve assemblies includes a spool rotatably disposed within a sleeve [claim 2].
An adaptive user interface system for a vehicle with an automatic vehicle system, the adaptive user interface system including: a display; and an electronic controller, electrically coupled to the display, and configured to generate a graphical user interface indicative of operation of the automatic vehicle system, output the graphical user interface on the display, said electronic controller being characterized by being further configured to monitor an indicia of a driver's comfort level, determine, based on the monitored indicia, when the driver is not comfortable with the operation of the automatic vehicle system, and modify the graphical user interface to provide an increased level of detail in response to determining that the driver is not comfortable with the operation of the automatic vehicle system. a display; and an electronic controller, electrically coupled to the display, and configured to generate a graphical user interface indicative of operation of the automatic vehicle system, output the graphical user interface on the display, said electronic controller being characterized by being further configured to monitor an indicia of a driver's comfort level, determine, based on the monitored indicia, when the driver is not comfortable with the operation of the automatic vehicle system, and modify the graphical user interface to provide an increased level of detail in response to determining that the driver is not comfortable with the operation of the automatic vehicle system. generate a graphical user interface indicative of operation of the automatic vehicle system, output the graphical user interface on the display, said electronic controller being characterized by being further configured to monitor an indicia of a driver's comfort level, determine, based on the monitored indicia, when the driver is not comfortable with the operation of the automatic vehicle system, and modify the graphical user interface to provide an increased level of detail in response to determining that the driver is not comfortable with the operation of the automatic vehicle system.
An IP address distribution system comprising a switch device (1; 11; 21; 33; 34; 35; 36) having a plurality of ports (P1, P2, P3, P4, P5) and constituting a network, a terminal device (3;13; 14; 15; 23; 26; 27; 28; 29) adapted to request an IP address and connected to the network, an IP address distribution device (2; 12; 22; 41; 42; 43; 44) adapted to distribute the IP address and connected to the network, wherein on receiving an IP address request signal from the terminal device, the IP address distribution device adapted to sequentially transmit, to the terminal device, IP address distribution signals including respective distribution IP addresses that are IP addresses selected one by one from among all unused IP addresses in the network, characterized in that for the IP address distribution signals received at the switch device, the switch device is subjected to a setting to determine passage or blockage of each IP address distribution signal for each of the ports of the switch device in accordance with contents of all or a part of the distribution IP address included in each IP address distribution signal.
A digital interference cancellation apparatus, wherein the apparatus is applied to a transceiver of a wireless full duplex system; and wherein the digital interference cancellation apparatus comprises: a first interference cancellation module (101, 102, 103, 104) and a second interference cancellation module (201, 202); the first interference cancellation module is configured to receive a digital transmission signal output by the transceiver as a digital baseband reference signal, reconstruct a first self-interference signal by up-sampling, filtering and then down-sampling the digital baseband reference signal, subtract the first self-interference signal from a digital receiving signal received from the transceiver to obtain a digital receiving signal after a first stage of interference cancellation, and send the digital receiving signal after the first stage of interference cancellation to the second interference cancellation module; and the second interference cancellation module is configured to receive the digital transmission signal output by the transceiver as the digital baseband reference signal, reconstruct a second self-interference signal by filtering the digital baseband reference signal, subtract the second self-interference signal from the digital receiving signal after the first stage of interference cancellation to obtain a digital receiving signal after a second stage of interference cancellation, and send the digital receiving signal after the second stage of interference cancellation to the transceiver; wherein the first self-interference signal is a near field self-interference signal, and the second self-interference signal is a far field self-interference signal.
A structure with increased damping, comprising: a first lateral-load-resisting structural element; a second lateral-load-resisting structural element located adjacent the first lateral-load-resisting structural element; at least one damping system located in between the first lateral-load-resisting structural element and the second lateral-load-resisting structural element, and replacing a coupling beam otherwise used to connect the first lateral-load-resisting structural element and the second lateral-load-resisting structural element, said damping system including: a first set of plates having a first end embedded in said first lateral-load-resisting structural element within said structure; wherein said first lateral-load-resisting structural element comprises a concrete shear wall; a second set of plates having a second end embedded in said second lateral-load-resisting structural element within said structure, and coupling means effective to couple said first set of plates to said second set of plates, the coupling means comprising an energy dissipating material. a first lateral-load-resisting structural element; a second lateral-load-resisting structural element located adjacent the first lateral-load-resisting structural element; at least one damping system located in between the first lateral-load-resisting structural element and the second lateral-load-resisting structural element, and replacing a coupling beam otherwise used to connect the first lateral-load-resisting structural element and the second lateral-load-resisting structural element, said damping system including: a first set of plates having a first end embedded in said first lateral-load-resisting structural element within said structure; wherein said first lateral-load-resisting structural element comprises a concrete shear wall; a second set of plates having a second end embedded in said second lateral-load-resisting structural element within said structure, and coupling means effective to couple said first set of plates to said second set of plates, the coupling means comprising an energy dissipating material. a first set of plates having a first end embedded in said first lateral-load-resisting structural element within said structure; wherein said first lateral-load-resisting structural element comprises a concrete shear wall; a second set of plates having a second end embedded in said second lateral-load-resisting structural element within said structure, and coupling means effective to couple said first set of plates to said second set of plates, the coupling means comprising an energy dissipating material.
A video decoding method relating to the derivation of an affine motion model, the method characterised in that, when a bottom-right reference sample (x n5, y n5) of an affine neighboring block of a current block is located outside the affine neighboring block, deriving an affine seed vector of the affine neighboring block based on a sample (x n5 -1, y n5) adjacent to a left side of the bottom-right reference sample (x n5, y n5) among samples included in the affine neighboring block; deriving an affine seed vector of the current block based on the affine seed vector of the affine neighboring block; deriving an affine vector for a subblock in the current block by using the affine seed vector of the current block, wherein the subblock is a region of a size smaller than that of the current block; and performing a motion compensation prediction for the subblock in the current block based on the affine vector for the subblock. characterised in that, when a bottom-right reference sample (x n5, y n5) of an affine neighboring block of a current block is located outside the affine neighboring block, deriving an affine seed vector of the affine neighboring block based on a sample (x n5 -1, y n5) adjacent to a left side of the bottom-right reference sample (x n5, y n5) among samples included in the affine neighboring block; deriving an affine seed vector of the current block based on the affine seed vector of the affine neighboring block; deriving an affine vector for a subblock in the current block by using the affine seed vector of the current block, wherein the subblock is a region of a size smaller than that of the current block; and performing a motion compensation prediction for the subblock in the current block based on the affine vector for the subblock.
A method performed by an electronic device, the method comprising: receiving, from a profile server, profile package information including a plurality of data which are segmented from an unprotected profile package and are encrypted based on a key, wherein the unprotected profile package consists of a plurality of profile elements and each of the plurality of profile elements is to be processed in an embedded universal integrated circuit card, eUICC, independently from other profile element; obtaining at least one data unit from the profile package information; and delivering the at least one data unit to the eUICC associated with the electronic device. receiving, from a profile server, profile package information including a plurality of data which are segmented from an unprotected profile package and are encrypted based on a key, wherein the unprotected profile package consists of a plurality of profile elements and each of the plurality of profile elements is to be processed in an embedded universal integrated circuit card, eUICC, independently from other profile element; obtaining at least one data unit from the profile package information; and delivering the at least one data unit to the eUICC associated with the electronic device.
A method for extrusion blow molding a toothbrush (56; 310) comprising: a) providing an extrusion blow mold having a longitudinal axis and a cavity, wherein two cavity sections (59A, 59B) of the extrusion blow mold are constructed such that their cavity surfaces (60A, 60B), when the cavity sections (59 A, 59B) are brought together, form the extrusion blow mold cavity, each cavity section (59A, 59B) having a handle portion, a neck portion, a head portion, which correspond to the respective handle, neck, and head portions of a molded toothbrush, and a surface (60A, 60B) that defines a cross-sectional area (EC CA); wherein the cavity has at least one of a maximum cross-sectional area (EC CAM), bordered by two smaller cross-sectional areas (EC CA1, EC CA2) along the longitudinal axis (L EM) of the blow mold or a minimum cross sectional area (EC CAMN) bordered by two greater cross-sectional areas (EC CA3, EC CA4) along the longitudinal axis of the blow mold; b) providing a subassembly positioned in the head portion of the cavity; c) extruding a parison comprising a thermoplastic material, the parison includes an interior cavity and an outer surface, wherein the outer surface defines a cross-sectional area of the parison (PC CA); d) expanding the parison using a fluid to contact the cavity surface and subassembly to produce a toothbrush handle having an inner cavity, wherein the subassembly comprises a front surface and a parison contacting surface, the subassembly comprises at least one cleaning element extending from the front surface, and the at least one cleaning element extends into a recess positioned in the head portion of the cavity. a) providing an extrusion blow mold having a longitudinal axis and a cavity, wherein two cavity sections (59A, 59B) of the extrusion blow mold are constructed such that their cavity surfaces (60A, 60B), when the cavity sections (59 A, 59B) are brought together, form the extrusion blow mold cavity, each cavity section (59A, 59B) having a handle portion, a neck portion, a head portion, which correspond to the respective handle, neck, and head portions of a molded toothbrush, and a surface (60A, 60B) that defines a cross-sectional area (EC CA); wherein the cavity has at least one of a maximum cross-sectional area (EC CAM), bordered by two smaller cross-sectional areas (EC CA1, EC CA2) along the longitudinal axis (L EM) of the blow mold or a minimum cross sectional area (EC CAMN) bordered by two greater cross-sectional areas (EC CA3, EC CA4) along the longitudinal axis of the blow mold; b) providing a subassembly positioned in the head portion of the cavity; c) extruding a parison comprising a thermoplastic material, the parison includes an interior cavity and an outer surface, wherein the outer surface defines a cross-sectional area of the parison (PC CA); d) expanding the parison using a fluid to contact the cavity surface and subassembly to produce a toothbrush handle having an inner cavity,
An intermediate transfer member comprised of a silicone containing polyamideimide surface layer further including a supporting substrate layer in contact with said silicone containing polyamideimide surface layer, wherein: said supporting substrate layer is comprised of a polyimide, said polyimide being at least one of a polyimide, a polyetherimide, a polyamideimide, or mixtures thereof; wherein said silicone containing polyamideimide is represented by wherein R is alkyl, aryl, or mixtures of alkyl and aryl, and m and n represent the weight percent of each segment. said supporting substrate layer is comprised of a polyimide, said polyimide being at least one of a polyimide, a polyetherimide, a polyamideimide, or mixtures thereof; wherein said silicone containing polyamideimide is represented by wherein R is alkyl, aryl, or mixtures of alkyl and aryl, and m and n represent the weight percent of each segment.
Lighting device with dynamic light effects for a passenger compartment of a motor vehicle, the lighting device comprising a lighting system configured to emit at least one light signal producing a dynamic effect of scrolling in the passenger compartment along the longitudinal axis of the vehicle and in the opposite direction to the direction of travel of the vehicle, characterized in that the device is configured to: identify the driving mode of the vehicle; determine the speed of travel of the vehicle; choose operating parameters of the lighting system in accordance with the speed of travel of the vehicle; activate the lighting system in accordance with said parameters, choosing the operating parameters comprising identifying one or more zones of the passenger compartment to be lit by the lighting system, the choice of the one or more zones of the passenger compartment to be lit depending on the driving mode of the vehicle.
Steering column for a motor vehicle, comprising a support unit, an adjusting unit adjustably mounted on the support unit, an adjusting device with an electric motor (9, 10), which is designed to adjust the adjusting unit relative to the support unit, characterized in that the electric motor (9, 10) has a motor shaft and a sensor device, wherein the sensor device comprises a first sensor element and a second sensor element, wherein the first sensor element and the second sensor element are each designed and arranged to detect a magnetic field which changes when the motor shaft rotates, wherein the first sensor element and the second sensor element are aligned differently in relation to the electric motor (9, 10).
A hemodialysis machine comprising: a removably mountable cartridge having at least one inlet (38, 50, 82, 106) and at least one outlet (42, 104, 122), the cartridge defining a fluid pathway between said at least one inlet and said at least one outlet; a sanitisation device having an inlet and an outlet; a conduit connected between an outlet of the cartridge and the inlet of the sanitisation device; and, a conduit connected between the outlet of the sanitisation device and an inlet of the cartridge, and characterized in that the cartridge is a dialysate-mixing and flow-balance cartridge further comprising a first mixing chamber; a second mixing chamber connected to the first mixing chamber; a first flow balance chamber connected to the first mixing chamber; a second flow balance chamber connected to the first flow balance chamber, wherein the sanitisation device is connected external to the cartridge between the first mixing chamber and the first flow balance chamber, wherein the mixing chambers and flow balance chambers are pump chambers. a removably mountable cartridge having at least one inlet (38, 50, 82, 106) and at least one outlet (42, 104, 122), the cartridge defining a fluid pathway between said at least one inlet and said at least one outlet; a sanitisation device having an inlet and an outlet; a conduit connected between an outlet of the cartridge and the inlet of the sanitisation device; and, a conduit connected between the outlet of the sanitisation device and an inlet of the cartridge, and characterized in that the cartridge is a dialysate-mixing and flow-balance cartridge further comprising a first mixing chamber; a second mixing chamber connected to the first mixing chamber; a first flow balance chamber connected to the first mixing chamber; a second flow balance chamber connected to the first flow balance chamber, wherein the sanitisation device is connected external to the cartridge between the first mixing chamber and the first flow balance chamber, wherein the mixing chambers and flow balance chambers are pump chambers.