mhurhangee/ep-ind-claims huggingface dataset:
A camera device comprising: a housing; a lens assembly (1222a, 1222b) including at least one lens; a driving unit moving the lens assembly (1222a, 1222b); a main substrate on which an image sensor is provided; and a first substrate and a second substrate electrically connected to the driving unit and spaced apart from each other on opposite side surfaces of the housing, wherein the main substrate includes a first connection member connected to the first substrate and a second connection member connected to the second substrate, characterized in that the first substrate includes a first main area and a first connection area in contact with an end of the first main area, the second substrate includes a second main area and a second connection area in contact with an end of the second main area, a first connection terminal part of the first connection area is electrically connected to a first substrate terminal part of the main substrate through the first connection member, and a second connection terminal part of the second connection area is electrically connected to a second substrate terminal part of the main substrate through the second connection member. a housing; a lens assembly (1222a, 1222b) including at least one lens; a driving unit moving the lens assembly (1222a, 1222b); a main substrate on which an image sensor is provided; and a first substrate and a second substrate electrically connected to the driving unit and spaced apart from each other on opposite side surfaces of the housing, wherein the main substrate includes a first connection member connected to the first substrate and a second connection member connected to the second substrate, characterized in that the first substrate includes a first main area and a first connection area in contact with an end of the first main area, the second substrate includes a second main area and a second connection area in contact with an end of the second main area, a first connection terminal part of the first connection area is electrically connected to a first substrate terminal part of the main substrate through the first connection member, and a second connection terminal part of the second connection area is electrically connected to a second substrate terminal part of the main substrate through the second connection member.
A fibrous structure having the form of a band extending in a longitudinal direction over a given length (L 100) between a proximal part and a distal part and in a lateral direction over a given width (l 100) between a first side edge and a second side edge, the fibrous structure having a three-dimensional or multilayer weave between a plurality of layers of warp yarns or strands extending longitudinally and a plurality of layers of weft yarns or strands extending laterally, characterized in that a first rigid portion of the fibrous structure present between the proximal part and an intermediate part of the fibrous structure comprises carbon fiber weft yarns or strands (Tc) and in that a second elastically deformable portion of the fibrous structure present between the intermediate part and the distal part comprises glass fiber weft yarns or strands (Tv).
A magnetic separator comprising: at least one pair of guide rolls (2, 3); and a conveyor belt that extends between the pair of guide rolls (2, 3), and conveys a powdery and/or granular material (a) containing ferromagnetic particles, wherein one guide roll of the pair of guide rolls (2, 3) is a hollow roll, and includes, in a hollow part thereof, a magnet roll including a plurality of magnets that are arranged along an inner peripheral surface of the guide roll in lines at intervals so that different magnetic poles alternate in a circumferential direction, the magnetic separator further comprises a shield wall that covers a circular arc region of an outer peripheral surface of the guide roll except a circular arc region around which the conveyor belt is wound, to block magnetic lines of force from the plurality of magnets, and wherein a back surface of the shield wall is at a distance of 30 mm or more from the outer peripheral surface of the guide roll. at least one pair of guide rolls (2, 3); and a conveyor belt that extends between the pair of guide rolls (2, 3), and conveys a powdery and/or granular material (a) containing ferromagnetic particles, wherein one guide roll of the pair of guide rolls (2, 3) is a hollow roll, and includes, in a hollow part thereof, a magnet roll including a plurality of magnets that are arranged along an inner peripheral surface of the guide roll in lines at intervals so that different magnetic poles alternate in a circumferential direction, the magnetic separator further comprises a shield wall that covers a circular arc region of an outer peripheral surface of the guide roll except a circular arc region around which the conveyor belt is wound, to block magnetic lines of force from the plurality of magnets, and wherein a back surface of the shield wall is at a distance of 30 mm or more from the outer peripheral surface of the guide roll.
A measuring system configured to evaluate an electronic device, said device being adapted to transmit sound based on vibration of a vibrator to a user by pressing the vibrator held in a housing to a human ear, the measuring system comprising: an ear simulator that mimics a human ear; a vibration detection unit (55, 56) disposed on a periphery of an artificial ear canal (53, 133) formed in the ear simulator; a sound pressure measuring unit configured to measure sound pressure of sound propagated through the artificial ear canal; a phase adjusting unit that is configured to relatively adjust the phase of output of the vibration detection unit and the phase of output of the sound pressure measuring unit; and an output synthesizing unit that is adapted to synthesize the output from the vibration detection unit and the output from the sound pressure measuring unit, the phases of the outputs being relatively adjusted by the phase adjusting unit. an ear simulator that mimics a human ear; a vibration detection unit (55, 56) disposed on a periphery of an artificial ear canal (53, 133) formed in the ear simulator; a sound pressure measuring unit configured to measure sound pressure of sound propagated through the artificial ear canal; a phase adjusting unit that is configured to relatively adjust the phase of output of the vibration detection unit and the phase of output of the sound pressure measuring unit; and an output synthesizing unit that is adapted to synthesize the output from the vibration detection unit and the output from the sound pressure measuring unit, the phases of the outputs being relatively adjusted by the phase adjusting unit.
A plug (10, 50) for use in a piercing machine for piercing-rolling a billet, the plug (10, 50) comprising: a plug body (12, 12A);and a build-up layer formed on a surface of the plug body (12, 12A); characterized by further comprising a sprayed film covering at least an area ranging from a rear end of the build-up layer to a position of a maximum outer diameter of the plug body (12, 12A). a plug body (12, 12A);and a build-up layer formed on a surface of the plug body (12, 12A); characterized by further comprising a sprayed film covering at least an area ranging from a rear end of the build-up layer to a position of a maximum outer diameter of the plug body (12, 12A).
A sensor package comprising: an inertial sensor, wherein the inertial sensor comprises a sensing structure (204; 306; 408; 512; 612) formed in a material layer (202; 300; 400) and one or more further material layers arranged to seal the sensing structure to form a hermetically sealed inertial sensor unit (210; 520; 620); a support structure (214; 302; 402; 516; 616); one or more springs (212; 304; 404; 514; 614) flexibly fixing the hermetically sealed inertial sensor unit to the support structure; wherein the one or more springs are formed in the same material layer as the sensing structure of the inertial sensor unit; one or more external package wall(s) (216, 220; 524; 624) encapsulating the inertial sensor unit, the support structure, and the one or more springs, wherein the support structure is fixed to at least one of the package wall(s); and characterised in that the sensor package further comprises: a squeeze film damping structure arranged between the hermetically sealed inertial sensor unit and the support structure, wherein the squeeze film damping structure is formed in the same material layer (202; 300; 400) as the sensing structure (204; 306; 408; 512; 612) of the inertial sensor unit (210; 520; 620) and the spring(s) (212; 304; 404; 514; 614). an inertial sensor, wherein the inertial sensor comprises a sensing structure (204; 306; 408; 512; 612) formed in a material layer (202; 300; 400) and one or more further material layers arranged to seal the sensing structure to form a hermetically sealed inertial sensor unit (210; 520; 620); a support structure (214; 302; 402; 516; 616); one or more springs (212; 304; 404; 514; 614) flexibly fixing the hermetically sealed inertial sensor unit to the support structure; wherein the one or more springs are formed in the same material layer as the sensing structure of the inertial sensor unit; one or more external package wall(s) (216, 220; 524; 624) encapsulating the inertial sensor unit, the support structure, and the one or more springs, wherein the support structure is fixed to at least one of the package wall(s); and characterised in that the sensor package further comprises: a squeeze film damping structure arranged between the hermetically sealed inertial sensor unit and the support structure, wherein the squeeze film damping structure is formed in the same material layer (202; 300; 400) as the sensing structure (204; 306; 408; 512; 612) of the inertial sensor unit (210; 520; 620) and the spring(s) (212; 304; 404; 514; 614).
A method for dynamically setting the radiation pattern of an antenna of a base station connected to User Equipments in a cellular telecommunications network, comprising: - obtaining data of the positions of User Equipments located under coverage of the base station during a predetermined period of time; - statistically treating said data of the positions of User Equipments to obtain statistical parameter of said data, said statistical parameter being the proportion of User Equipments samples outside a pre-established target cell range; - changing the radiation pattern of the antenna by, changing the down-tilt angle of the antenna depending on the result of comparing said statistical parameter with a pre-established value. - obtaining data of the positions of User Equipments located under coverage of the base station during a predetermined period of time; - statistically treating said data of the positions of User Equipments to obtain statistical parameter of said data, said statistical parameter being the proportion of User Equipments samples outside a pre-established target cell range; - changing the radiation pattern of the antenna by, changing the down-tilt angle of the antenna depending on the result of comparing said statistical parameter with a pre-established value.
A pitch change actuation system for varying a propeller blade pitch, the pitch change actuation system comprising: an actuator body defining an interior volume; a chamber separator located within the interior volume of the actuator body and dividing the interior volume into a first chamber and a second chamber, the two chambers being fluidly separated by the chamber separator; and a transfer tube; wherein the first and second chambers are configured to receive hydraulic fluid; wherein the actuator body is configured to translate relative to the chamber separator in response to a difference in hydraulic pressure between the first chamber and second chamber; and wherein the translation of the actuator body is configured to effect a change in propeller blade pitch; characterised in that the transfer tube is coupled to the actuator body and translates with the actuator body. an actuator body defining an interior volume; a chamber separator located within the interior volume of the actuator body and dividing the interior volume into a first chamber and a second chamber, the two chambers being fluidly separated by the chamber separator; and a transfer tube; wherein the first and second chambers are configured to receive hydraulic fluid; wherein the actuator body is configured to translate relative to the chamber separator in response to a difference in hydraulic pressure between the first chamber and second chamber; and wherein the translation of the actuator body is configured to effect a change in propeller blade pitch; characterised in that the transfer tube is coupled to the actuator body and translates with the actuator body.
A. method for deposition of a layer on a razor blade edge of a razor blade, the blade edge having two sides converging toward a tip, said layer comprising at least two components, in an enclosure comprising at least a first and a second sputter targets, said sputter targets comprising mainly one respective of said components to be deposited on said edge and being adapted, in operation, to release said component in the enclosure, said method comprising a step (a) wherein, under operation of both targets, the razor blade is moved relatively to said first and second targets to pass alternately in the vicinity of each target, with its tip directed toward the target.
A photosensitive resin composition for a microlens, the photosensitive resin composition comprising: a component; a component; and a component, wherein the component is a copolymer having a maleimide structural unit of Formula and further includes at least one N-substituted maleimide structural unit of Formula and at least one structural unit of Formula: where, in Formula, X is a C 1-5 alkyl group, a C 5 or C 6 cycloalkyl group, a phenyl group, or a benzyl group, with the proviso that some or all of hydrogen atoms of the alkyl group, the cycloalkyl group, the phenyl group, and the benzyl group are optionally substituted by a halogen atom, a carboxy group, a hydroxy group, an amino group, or a nitro group, and where, in Formula, Y is a C 1-8 alkoxy group, the component is a cross-linking agent, and the component is a photosensitizing agent. a component; a component; and a component, wherein the component is a copolymer having a maleimide structural unit of Formula and further includes at least one N-substituted maleimide structural unit of Formula and at least one structural unit of Formula: where, in Formula, X is a C 1-5 alkyl group, a C 5 or C 6 cycloalkyl group, a phenyl group, or a benzyl group, with the proviso that some or all of hydrogen atoms of the alkyl group, the cycloalkyl group, the phenyl group, and the benzyl group are optionally substituted by a halogen atom, a carboxy group, a hydroxy group, an amino group, or a nitro group, and the component is a cross-linking agent, and the component is a photosensitizing agent.
A signal transmission method, comprising: determining, by a terminal device, information indicating a channel state information-reference signal, CSI-RS, resource, wherein the information corresponds to a target uplink signal and the CSI-RS resource indicated by the information is used by the terminal device to obtain a transmitting beam of the target uplink signal; determining, by the terminal device, a power control parameter of the target uplink signal according to the information indicating the CSI-RS resource; wherein the power control parameter comprises information about a downlink signal used to measure a path loss value used to calculate the transmit power; determining, by the terminal device, a transmit power of the target uplink signal according to the power control parameter; and sending, by the terminal device, the target uplink signal to a network device according to the transmit power. determining, by a terminal device, information indicating a channel state information-reference signal, CSI-RS, resource, wherein the information corresponds to a target uplink signal and the CSI-RS resource indicated by the information is used by the terminal device to obtain a transmitting beam of the target uplink signal; determining, by the terminal device, a power control parameter of the target uplink signal according to the information indicating the CSI-RS resource; wherein the power control parameter comprises information about a downlink signal used to measure a path loss value used to calculate the transmit power; determining, by the terminal device, a transmit power of the target uplink signal according to the power control parameter; and sending, by the terminal device, the target uplink signal to a network device according to the transmit power.
An injection device comprising: a housing arranged to contain a medicament cartridge; a needle holder holding an injection needle; a generally tubular needle sleeve fixed with respect to the needle holder and axially movable with respect to the housing; and a gear assembly comprising a rotary gear fixed to the needle holder, a first gear rack disposed on the needle sleeve and a second gear rack disposed on the housing, wherein the gear assembly is arranged so that: movement of the needle sleeve in a proximal axial direction causes movement of the needle holder in the proximal axial direction; and a single continuous action by a user causes both the needle holder to move proximally towards and to pierce a cartridge septum of the medicament cartridge as well as causing a distal end of the injection needle to emerge from the needle sleeve for penetrating a patient's skin. a housing arranged to contain a medicament cartridge; a needle holder holding an injection needle; a generally tubular needle sleeve fixed with respect to the needle holder and axially movable with respect to the housing; and a gear assembly comprising a rotary gear fixed to the needle holder, a first gear rack disposed on the needle sleeve and a second gear rack disposed on the housing, wherein the gear assembly is arranged so that: movement of the needle sleeve in a proximal axial direction causes movement of the needle holder in the proximal axial direction; and a single continuous action by a user causes both the needle holder to move proximally towards and to pierce a cartridge septum of the medicament cartridge as well as causing a distal end of the injection needle to emerge from the needle sleeve for penetrating a patient's skin. movement of the needle sleeve in a proximal axial direction causes movement of the needle holder in the proximal axial direction; and a single continuous action by a user causes both the needle holder to move proximally towards and to pierce a cartridge septum of the medicament cartridge as well as causing a distal end of the injection needle to emerge from the needle sleeve for penetrating a patient's skin.
An apparatus, comprising: a processor, configured to: receive positions, within a heart of a patient lying on their back, of electrodes that apply Radio Frequency energy to ablate tissue in the heart; calculate, based on the received positions, a partial subset of smallest vertical distances among respective vertical distances of the electrodes above an esophagus of the patient, wherein the partial subset of smallest vertical distances among respective vertical distances of the electrodes above an esophagus of the patient have vertical distances below a given threshold; and generate a graphical user interface that visualizes the electrodes and the respective vertical distances above the esophagus; and adjust RF ablation parameters of the electrodes responsively to the partial subset of smallest vertical distances; and an output device, configured to present the graphical user interface to a user. a processor, configured to: receive positions, within a heart of a patient lying on their back, of electrodes that apply Radio Frequency energy to ablate tissue in the heart; calculate, based on the received positions, a partial subset of smallest vertical distances among respective vertical distances of the electrodes above an esophagus of the patient, wherein the partial subset of smallest vertical distances among respective vertical distances of the electrodes above an esophagus of the patient have vertical distances below a given threshold; and generate a graphical user interface that visualizes the electrodes and the respective vertical distances above the esophagus; and adjust RF ablation parameters of the electrodes responsively to the partial subset of smallest vertical distances; and receive positions, within a heart of a patient lying on their back, of electrodes that apply Radio Frequency energy to ablate tissue in the heart; calculate, based on the received positions, a partial subset of smallest vertical distances among respective vertical distances of the electrodes above an esophagus of the patient, wherein the partial subset of smallest vertical distances among respective vertical distances of the electrodes above an esophagus of the patient have vertical distances below a given threshold; and generate a graphical user interface that visualizes the electrodes and the respective vertical distances above the esophagus; and adjust RF ablation parameters of the electrodes responsively to the partial subset of smallest vertical distances; and an output device, configured to present the graphical user interface to a user.
Pneumatic vehicle tyre having a tread with at least one middle profile rib which is delimited at each side by in each case one circumferential channel (2, 3) and which is provided over its circumference with a multiplicity of sipes, said sipes, in plan view, extending parallel or substantially parallel to one another and - based on a straight line connecting the ends of their sipe central plane (m E) - at an angle (α) of 0° to 50° to the axial direction and opening out into one of the circumferential channels and having a width (b E) of 0.4 mm to 1.2 mm and a maximum depth (T E) of 75% to 100% of the profile depth (T P) and having in each case one base elevation at the circumferential channel, wherein, in the case of sipes extending substantially parallel to one another, a sipe having an angle (α) of a first size follows a sipe having an angle (α) of a second size, which differs from the first size by up to 15°, in an alternating manner, wherein the sipes are adjoined radially outside the base elevation by in each case one cutout which opens out into the circumferential channel, characterized in that the cutout is of U-shaped form in a cross section of the sipe and continuously widens in the direction of the circumferential channel, wherein the sipes, one-sidedly, end in the middle profile rib and in particular open out into the same circumferential channel.