mhurhangee/patent-ind-claim-en huggingface dataset:
A connector assembly (590; 790) for an implantable device, the connector assembly comprising: a feedthrough interface (586; 786) comprising a ceramic feedthrough and a ferrule attached to, and forming a perimeter around, the ceramic feedthrough ; a lower contact housing coupled to the feedthrough interface (586; 786), wherein the lower contact housing and ceramic feedthrough define a plurality of wire holes extending therethrough; an upper contact housing attached to the lower contact housing , the upper and lower contact housings collectively defining a plurality of contact receptacles and defining at least one lead receiving lumen extending through multiple ones of the contact receptacles and configured to receive a portion of lead or lead extension inserted into the respective lead receiving lumen, each of the contact receptacles defining an opening for at least one of the wire holes; a plurality of connector contacts , each connector contact disposed in one of the contact receptacles and defining a lead receiving opening that is aligned with one of the at least one lead receiving lumen; and a plurality of wires , each of the wires coupled to one of the connector contacts and extending through one of the wire holes so that the respective wire extends out of the ceramic feedthrough . a feedthrough interface (586; 786) comprising a ceramic feedthrough and a ferrule attached to, and forming a perimeter around, the ceramic feedthrough ; a lower contact housing coupled to the feedthrough interface (586; 786), wherein the lower contact housing and ceramic feedthrough define a plurality of wire holes extending therethrough; an upper contact housing attached to the lower contact housing , the upper and lower contact housings collectively defining a plurality of contact receptacles and defining at least one lead receiving lumen extending through multiple ones of the contact receptacles and configured to receive a portion of lead or lead extension inserted into the respective lead receiving lumen, each of the contact receptacles defining an opening for at least one of the wire holes; a plurality of connector contacts , each connector contact disposed in one of the contact receptacles and defining a lead receiving opening that is aligned with one of the at least one lead receiving lumen; and a plurality of wires , each of the wires coupled to one of the connector contacts and extending through one of the wire holes so that the respective wire extends out of the ceramic feedthrough .
A method, comprising: accessing, by a terminal, service to the terminal simultaneously supplied by a primary base station through a primary cell and a secondary base station through a first primary secondary cell; sending by the terminal, a measurement report message to indicate measurement result of radio signal quality of the cells of the secondary base station; receiving , by the terminal, a message from the secondary base station, the message indicating change from the first primary secondary cell to a second primary secondary cell for the terminal; and accessing, by the terminal, the service to the terminal simultaneously supplied by the primary base station through the primary cell and the secondary base station through the second primary secondary cell. accessing, by a terminal, service to the terminal simultaneously supplied by a primary base station through a primary cell and a secondary base station through a first primary secondary cell; sending by the terminal, a measurement report message to indicate measurement result of radio signal quality of the cells of the secondary base station; receiving , by the terminal, a message from the secondary base station, the message indicating change from the first primary secondary cell to a second primary secondary cell for the terminal; and accessing, by the terminal, the service to the terminal simultaneously supplied by the primary base station through the primary cell and the secondary base station through the second primary secondary cell.
An automated electrical stability meter for measuring electrical stability of a sample of fluid, the meter comprising: a housing having an inlet and an outlet ; at least one actuated valve disposed proximate the inlet and configured to open and close to provide a sample of fluid into the housing; an electronic control module configured to send a signal to the at least one valve; and a probe assembly operatively coupled to the electronic control module , the probe assembly comprising: an electrode probe having two electrodes and a probe gap therebetween; and characterized by a cleaning mechanism configured to periodically clean the probe gap, and an agitator coupled to the cleaning mechanism and configured to agitate the sample of fluid in the housing. a housing having an inlet and an outlet ; at least one actuated valve disposed proximate the inlet and configured to open and close to provide a sample of fluid into the housing; an electronic control module configured to send a signal to the at least one valve; and a probe assembly operatively coupled to the electronic control module , the probe assembly comprising: an electrode probe having two electrodes and a probe gap therebetween; and characterized by a cleaning mechanism configured to periodically clean the probe gap, and an agitator coupled to the cleaning mechanism and configured to agitate the sample of fluid in the housing. an electrode probe having two electrodes and a probe gap therebetween; and characterized by a cleaning mechanism configured to periodically clean the probe gap, and an agitator coupled to the cleaning mechanism and configured to agitate the sample of fluid in the housing.
A workpiece processing system comprising: a robot arm to which a tool for processing a food product as a workpiece is attached; an imaging device for capturing an image of the workpiece , the robot arm being configured to process the workpiece by the tool based on results of image analysis of the captured image of the workpiece ; and a tool checking device for checking the tool attached to the robot arm , the tool checking device comprising: a tool movement control unit configured to control the robot arm so as to move the tool attached to the robot arm to a defined position (P2); an imaging control unit configured to control the imaging device so as to capture an image of the tool moved to the defined position (P2); and a determination unit configured to determine whether the tool satisfies a tool condition regarding a tool type or tool state that needs to be satisfied, on the basis of a captured image of the tool moved to the defined position (P2) imaged by the imaging device . a robot arm to which a tool for processing a food product as a workpiece is attached; an imaging device for capturing an image of the workpiece , the robot arm being configured to process the workpiece by the tool based on results of image analysis of the captured image of the workpiece ; and a tool checking device for checking the tool attached to the robot arm , the tool checking device comprising: a tool movement control unit configured to control the robot arm so as to move the tool attached to the robot arm to a defined position (P2); an imaging control unit configured to control the imaging device so as to capture an image of the tool moved to the defined position (P2); and a determination unit configured to determine whether the tool satisfies a tool condition regarding a tool type or tool state that needs to be satisfied, on the basis of a tool movement control unit configured to control the robot arm so as to move the tool attached to the robot arm to a defined position (P2); an imaging control unit configured to control the imaging device so as to capture an image of the tool moved to the defined position (P2); and a determination unit configured to determine whether the tool satisfies a tool condition regarding a tool type or tool state that needs to be satisfied, on the basis of a captured image of the tool moved to the defined position (P2) imaged by the imaging device .
A method for receiving a downlink signal by a User Equipment, UE, in a wireless communication system, the method comprising: receiving a single downlink control information, DCI; and based on the single DCI, receiving multiple downlink transmissions, each carrying a same transport block, TB, characterized in that: the single DCI includes information representing i) a first quasi co-location, QCL, relationship between one or more reference signals and a first demodulation-reference signal, DM-RS, port of a first downlink transmission and ii) a second QCL relationship between one or more reference signals and a second DM-RS port of a second downlink transmission, and the first QCL relationship and the second QCL relationship are cyclically applied to the multiple downlink transmissions. receiving a single downlink control information, DCI; and based on the single DCI, receiving multiple downlink transmissions, each carrying a same transport block, TB, characterized in that: the single DCI includes information representing i) a first quasi co-location, QCL, relationship between one or more reference signals and a first demodulation-reference signal, DM-RS, port of a first downlink transmission and ii) a second QCL relationship between one or more reference signals and a second DM-RS port of a second downlink transmission, and the first QCL relationship and the second QCL relationship are cyclically applied to the multiple downlink transmissions. the single DCI includes information representing i) a first quasi co-location, QCL, relationship between one or more reference signals and a first demodulation-reference signal, DM-RS, port of a first downlink transmission and ii) a second QCL relationship between one or more reference signals and a second DM-RS port of a second downlink transmission, and the first QCL relationship and the second QCL relationship are cyclically applied to the multiple downlink transmissions.
A catheter balloon comprising: an inflatable medical balloon having a balloon working length and an expanded and unexpanded diameter; and a balloon cover having a length and an expanded and unexpanded diameter; wherein the balloon cover includes first and second portions , wherein the first and second portions each comprise a working length integrally connected to a tapered end having an aperture located at an apex of the tapered end; and wherein the tapered ends of the first and second portions are located at opposite ends of the balloon cover and the first and second working lengths of the first and second cover portions overlap for at least 50% of the balloon working length . an inflatable medical balloon having a balloon working length and an expanded and unexpanded diameter; and a balloon cover having a length and an expanded and unexpanded diameter; wherein the balloon cover includes first and second portions , wherein the first and second portions each comprise a working length integrally connected to a tapered end having an aperture located at an apex of the tapered end; and wherein the tapered ends of the first and second portions are located at opposite ends of the balloon cover and the first and second working lengths of the first and second cover portions overlap for at least 50% of the balloon working length .
A method for the production of orthosis or prosthesis components for receiving or for fastening to a body part, said method having the steps of: a. applying a base layer to a support which is shaped corresponding to the shape of the body part, b. arranging a plurality of fastening elements , having a base and a form-fit element protruding from the base , on the base layer in defined positions relative to each other, wherein the base of the fastening elements bears on the base layer or faces toward the base layer , c. placing at least one layer of a fiber composite material on the base layer and embedding the base , wherein the form-fit element remains accessible from the side facing away from the base layer , and d. curing the at least one fiber composite material layer , characterized in that after the curing the fastening elements are embedded non-releasably or in a manner secure against rotation in the at least one layer of fiber composite material. a. applying a base layer to a support which is shaped corresponding to the shape of the body part, b. arranging a plurality of fastening elements , having a base and a form-fit element protruding from the base , on the base layer in defined positions relative to each other, wherein the base of the fastening elements bears on the base layer or faces toward the base layer , c. placing at least one layer of a fiber composite material on the base layer and embedding the base , wherein the form-fit element remains accessible from the side facing away from the base layer , and d. curing the at least one fiber composite material layer , characterized in that after the curing the fastening elements are embedded non-releasably or in a manner secure against rotation in the at least one layer of fiber composite material.
A wax, having a ratio of (A) a total amount of C23-C32 normal alkanes to (B) a total amount of C33-C40 normal alkanes (A/B) of 1.7 to 6, a total amount of C23-C32 normal alkanes (A) of 40 to 70% by mass based on 100% by mass of the wax, and a total amount of C33-C40 normal alkanes (B) of 25% by mass or less based on 100% by mass of the wax.
A method for casting a castable material in a substrate wherein the substrate remains solid at the castable material casting temperature and can be penetrated up to a certain depth by a laser beam, said method comprising at least the following steps: • exposing the substrate to focused laser irradiation at a preselected series of locations that trace a subset of the substrate volume that is connected to the surface of the substrate; • removing the substrate material from the exposed preselected series of locations to create within the substrate at least one cavity that is connected to the surface of the substrate; • immersing the cavity-containing substrate in an appropriate atmosphere such as a selected gas or vacuum to prevent substantial gas being trapped and avoid bubbles remaining in said at least one cavity and, within this atmosphere, • contacting the substrate surface with a molten castable material at locations where the cavity or cavities emerges from the substrate surface; • then applying pressure to the castable material to cause it to infiltrate the substrate cavities of the immersed substrate; • solidifying the castable material within the cavities. • exposing the substrate to focused laser irradiation at a preselected series of locations that trace a subset of the substrate volume that is connected to the surface of the substrate; • removing the substrate material from the exposed preselected series of locations to create within the substrate at least one cavity that is connected to the surface of the substrate; • immersing the cavity-containing substrate in an appropriate atmosphere such as a selected gas or vacuum to prevent substantial gas being trapped and avoid bubbles remaining in said at least one cavity and, within this atmosphere, • contacting the substrate surface with a molten castable material at locations where the cavity or cavities emerges from the substrate surface; • then applying pressure to the castable material to cause it to infiltrate the substrate cavities of the immersed substrate; • solidifying the castable material within the cavities.
Air-insulated switchgear for medium or high voltages having at least one switch compartment , a busbar compartment and a connection compartment , wherein the switchgear has at least one active or passive ventilation apparatus , the ventilation apparatus having one or more first ventilation shafts that lead from the switch compartment or past the switch compartment into the busbar compartment , wherein (A) the at least one first ventilation shaft has at least one first valve unit that in a first operating position does not impede an airstream from the switch compartment or past the switch compartment to the busbar compartment in the first ventilation shaft , the first valve unit sealing the at least one first ventilation shaft in a busbar fault arc position in the event of a fault arc in the busbar compartment , and wherein (B) the first valve unit has at least one first valve that is arranged in a first recess in a wall of the first ventilation shaft , so that in the busbar fault arc position the at least one first valve seals the at least one first ventilation shaft as a result of a pressure wave in the event of a fault arc in the busbar compartment . (A) the at least one first ventilation shaft has at least one first valve unit that in a first operating position does not impede an airstream from the switch compartment or past the switch compartment to the busbar compartment in the first ventilation shaft , the first valve unit sealing the at least one first ventilation shaft in a busbar fault arc position in the event of a fault arc in the busbar compartment , and wherein (B) the first valve unit has at least one first valve that is arranged in a first recess in a wall of the first ventilation shaft , so that in the busbar fault arc position the at least one first valve seals the at least one first ventilation shaft as a result of a pressure wave in the event of a fault arc in the busbar compartment .
An oral care treatment device comprising: an intraoral mouthpiece having a dental arch midline plane (A-A) and comprising: a lamp support structure comprising: a lamp support surface having a concave curvature; at least one upper overhang structure defining an upper slot having an open bottom between the upper overhang structure and the lamp support surface ; at least one lower overhang structure defining a lower slot having an open top between the upper overhang structure and the lamp support surface ; and a lamp comprising a flexible sheet body and configured to generate and emit electromagnetic radiation; and the lamp is mounted to the lamp support structure so that a top edge of the flexible sheet body nests within the upper slot and a bottom edge of the flexible sheet body nests within the lower slot , the flexible sheet body being maintained in a flexed state along the lamp support surface due, at least in part, to contact with the upper and lower overhang structures ; wherein the flexible sheet body comprises a rear surface comprising first and second electrical contacts ; wherein the lamp extends along a lamp longitudinal axis (C-C) that extends from a first lamp side edge of the flexible sheet body to a second lamp side edge of the flexible sheet body ; and wherein a transverse plane contains the lamp longitudinal axis (C-C) and the transverse plane intersects both of the first and second electrical contacts of the lamp . a lamp support structure comprising: a lamp support surface having a concave curvature; at least one upper overhang structure defining an upper slot having an open bottom between the upper overhang structure and the lamp support surface ; at least one lower overhang structure defining a lower slot having an open top between the upper overhang structure and the lamp support surface ; and a lamp support surface having a concave curvature; at least one upper overhang structure defining an upper slot having an open bottom between the upper overhang structure and the lamp support surface ; at least one lower overhang structure defining a lower slot having an open top between the upper overhang structure and the lamp support surface ; and a lamp comprising a flexible sheet body and configured to generate and emit electromagnetic radiation; and the lamp is mounted to the lamp support structure so that a top edge of the flexible sheet body nests within the upper slot and a bottom edge of the flexible sheet body nests within the lower slot , the flexible sheet body being maintained in a flexed state along the lamp support surface due, at least in part, to contact with the upper and lower overhang structures ; wherein the flexible sheet body comprises a rear surface comprising first and second electrical contacts ; wherein the lamp extends along a lamp longitudinal axis (C-C) that extends from a first lamp side edge of the flexible sheet body to a second lamp side edge of the flexible sheet body ; and wherein a transverse plane contains the lamp longitudinal axis (C-C) and the transverse plane intersects both of the first and second electrical contacts of the lamp .
An apparatus for opportunistic measurements of user's context, said measurements including ECG measurements, said apparatus being a computing device comprising: at least one work surface that includes one or more electrodes (110, 112, 114, 116; 210, 212, 214, 216) disposed on the work surface to directly contact with user's hands, palms, or wrists, when the user's hands, palms, or wrists are disposed on the work surface to interact with the apparatus, to obtain one or more parameters of user's physiological context; and circuitry coupled with the electrodes to detect direct contact between the user's hands, palms, or wrists and the electrodes and on detection, collect the one or more parameters of the user's physiological context while the direct contact is maintained, wherein the one or more electrodes form an electrically conductive pattern on the work surface, characterized in that the electrically conductive pattern is electrically coupled with a sensing surface of a capacitive ECG measurement electrode disposed inside the work surface or on a back side of the work surface, wherein the size of the electrically conductive pattern is greater than the size of the sensing surface, to expand the sensing surface of the capacitive electrode. at least one work surface that includes one or more electrodes (110, 112, 114, 116; 210, 212, 214, 216) disposed on the work surface to directly contact with user's hands, palms, or wrists, when the user's hands, palms, or wrists are disposed on the work surface to interact with the apparatus, to obtain one or more parameters of user's physiological context; and circuitry coupled with the electrodes to detect direct contact between the user's hands, palms, or wrists and the electrodes and on detection, collect the one or more parameters of the user's physiological context while the direct contact is maintained, wherein the one or more electrodes form an electrically conductive pattern on the work surface, characterized in that the electrically conductive pattern is electrically coupled with a sensing surface of a capacitive ECG measurement electrode disposed inside the work surface or on a back side of the work surface, wherein the size of the electrically conductive pattern is greater than the size of the sensing surface, to expand the sensing surface of the capacitive electrode.