mhurhangee/patent-ind-claim-en huggingface dataset:
An implantable medical device comprising: one or more electrodes ; a controller coupled to the one or more electrodes , the controller configured to receive a first non-pacing communication pulse at a first communication pulse time and a second non-pacing communication pulse at a second communication pulse time via the one or more electrodes ; and the controller further configured to identify one of three or more symbols based at least in part on the time difference between the first communication pulse time and the second communication pulse time; wherein the controller is configured to : a "0" symbol if the difference between the first communication pulse time and the second communication pulse time corresponds to a first time difference; and a "1" symbol, if the difference between the first communication pulse time and the second communication pulse time corresponds to a second time difference; wherein the first time difference corresponds to a first range of time and the second time difference corresponds to a second range of time, wherein the first range of time does not overlap with the second range of time; one or more electrodes ; a controller coupled to the one or more electrodes , the controller configured to receive a first non-pacing communication pulse at a first communication pulse time and a second non-pacing communication pulse at a second communication pulse time via the one or more electrodes ; and the controller further configured to identify one of three or more symbols based at least in part on the time difference between the first communication pulse time and the second communication pulse time; wherein the controller is configured to : a "0" symbol if the difference between the first communication pulse time and the second communication pulse time corresponds to a first time difference; and a "1" symbol, if the difference between the first communication pulse time and the second communication pulse time corresponds to a second time difference; wherein the first time difference corresponds to a first range of time and the second time difference corresponds to a second range of time, wherein the first range of time does not overlap with the second range of time; a "0" symbol if the difference between the first communication pulse time and the second communication pulse time corresponds to a first time difference; and a "1" symbol, if the difference between the first communication pulse time and the second communication pulse time corresponds to a second time difference; wherein the first time difference corresponds to a first range of time and the second time difference corresponds to a second range of time, wherein the first range of time does not overlap with the second range of time;
A method for an operation of a control device in a contents sharing network , the method comprising: determining whether the control device is connected to the network ; in response to the control device being connected to the network , searching for at least one device connected to the network ; determining at least one service available among a plurality of services provided through the network ; in response to the search and the determination, when a plurality of devices are discovered through the search and a plurality of services are determined, displaying an indicator indicating an existence and a number of the plurality of devices discovered through the search and an existence and a number of the plurality of determined services; detecting a selection of the indicator; displaying a list of the discovered devices and a list of the determined services; detecting a selection of one of the displayed devices; detecting a selection of one of the displayed services; and communicating with the selected device through the network , wherein the communicating with the selected device comprises: providing the selected service to the selected device through the network . determining whether the control device is connected to the network ; in response to the control device being connected to the network , searching for at least one device connected to the network ; determining at least one service available among a plurality of services provided through the network ; in response to the search and the determination, when a plurality of devices are discovered through the search and a plurality of services are determined, displaying an indicator indicating an existence and a number of the plurality of devices discovered through the search and an existence and a number of the plurality of determined services; detecting a selection of the indicator; displaying a list of the discovered devices and a list of the determined services; detecting a selection of one of the displayed devices; detecting a selection of one of the displayed services; and communicating with the selected device through the network , wherein the communicating with the selected device comprises: providing the selected service to the selected device through the network .
A method for wireless communication, comprising: generating a packet comprising a multiple-user multiple-input multiple-output, MU-MIMO, portion, an orthogonal frequency division multiple access, OFDMA, portion and a signal, SIG, field, wherein the SIG field indicates a frequency bandwidth location for the MU-MIMO portion within the packet transmission frequency bandwidth; and transmitting the packet over a packet transmission frequency bandwidth. generating a packet comprising a multiple-user multiple-input multiple-output, MU-MIMO, portion, an orthogonal frequency division multiple access, OFDMA, portion and a signal, SIG, field, wherein the SIG field indicates a frequency bandwidth location for the MU-MIMO portion within the packet transmission frequency bandwidth; and transmitting the packet over a packet transmission frequency bandwidth.
An optical assembly , comprising: an eyeward side and a backside , wherein the optical assembly is configured to receive visible scene light at the backside of the optical assembly and to direct the visible scene light on an optical path toward the eyeward side ; a first dimming layer and a second dimming layer disposed on the optical path between the eyeward side and the backside , wherein the first dimming layer and the second dimming layer include a photochromic material that is configured to darken in response to exposure to a range of light wavelengths; and an activation layer disposed on the optical path, adjacent to the first dimming layer and the second dimming layer ; characterized in that the activation layer is disposed between the first dimming layer and the second dimming layer , and the activation layer includes an in-field dimmer that is configured to selectively emit an activation light within the range of light wavelengths in multiple directions towards the first dimming layer and the second dimming layer to activate a darkening of a first region of the first dimming layer and a second region of the second dimming layer to dim the visible scene light within the first region and the second region . an eyeward side and a backside , wherein the optical assembly is configured to receive visible scene light at the backside of the optical assembly and to direct the visible scene light on an optical path toward the eyeward side ; a first dimming layer and a second dimming layer disposed on the optical path between the eyeward side and the backside , wherein the first dimming layer and the second dimming layer include a photochromic material that is configured to darken in response to exposure to a range of light wavelengths; and an activation layer disposed on the optical path, adjacent to the first dimming layer and the second dimming layer ; characterized in that the activation layer is disposed between the first dimming layer and the second dimming layer , and the activation layer includes an in-field dimmer that is configured to selectively emit an activation light within the range of light wavelengths in multiple directions towards the first dimming layer and the second dimming layer to activate a darkening of a first region of the first dimming layer and a second region of the second dimming layer to dim the visible scene light within the first region and the second region .
An autoinjector comprising: - a syringe carrier and - a case adapted to receive the syringe carrier , wherein the syringe carrier is releasably holdable in the case , and wherein the syringe carrier comprises: - a housing (16.0) adapted to receive a syringe having a needle encapsulated by a removable protective needle sheath , and - two or more flexible arms (16.1) protruding inwards in a relaxed state and adapted to couple with a distal shoulder of the syringe in a mounted position, wherein the flexible arms (16.1) are adapted to deflect radially outwards in a pre-assembled position of the syringe in the syringe carrier , wherein in the mounted position the flexible arms (16.1) are allowed to return into the relaxed state due, in part, to an axial force (F2) operating on the syringe carrier , characterised in that the case comprises at least one inwardly directed edge (2.1.3), and wherein the at least one inwardly directed edge (2.1.3) of the case is adapted to further inwardly deflect the flexible arms (16.1) in the mounted position when the axial force (F2) operates onto the syringe carrier , forcing the syringe and the protective needle sheath apart. - a syringe carrier and - a case adapted to receive the syringe carrier , wherein the syringe carrier is releasably holdable in the case , and wherein the syringe carrier comprises: wherein the syringe carrier is releasably holdable in the case , and wherein the syringe carrier comprises: - a housing (16.0) adapted to receive a syringe having a needle encapsulated by a removable protective needle sheath , and - two or more flexible arms (16.1) protruding inwards in a relaxed state and adapted to couple with a distal shoulder of the syringe in a mounted position, wherein the flexible arms (16.1) are adapted to deflect radially outwards in a pre-assembled position of the syringe in the syringe carrier , wherein in the mounted position the flexible arms (16.1) are allowed to return into the relaxed state due, in part, to an axial force (F2) operating on the syringe carrier , characterised in that the case comprises at least one inwardly directed edge (2.1.3), and wherein the at least one inwardly directed edge (2.1.3) of the case is adapted to further inwardly deflect the flexible arms (16.1) in the mounted position when the axial force (F2) operates onto the syringe carrier , forcing the syringe and the protective needle sheath apart. characterised in that the case comprises at least one inwardly directed edge (2.1.3), and wherein the at least one inwardly directed edge (2.1.3) of the case is adapted to further inwardly deflect the flexible arms (16.1) in the mounted position when the axial force (F2) operates onto the syringe carrier , forcing the syringe and the protective needle sheath apart.
A balloon expandable close-cell structured stent comprising: a plurality of closed cells, wherein each closed cell is defined by four curved struts coupled together to define a boundary of the closed cell, wherein each of the curved struts include a curvature, which is determined by a distance "d" deviated from a straight line which extends between ends of each curved strut, wherein "d" is in the range of 0.01 mm to 0.99 mm wherein the four curved struts of each closed cell consist of two convex curved struts and two concave curved struts, wherein each end of each convex curved struts is coupled to a corresponding end of each concave curved strut to define the boundary of the closed cell, wherein the curved struts forming each closed cell are arranged such that the two convex curved struts are oppositely disposed, and the two concave curved struts are oppositely disposed, wherein concave and convex curvature of the curved strut is maintained during deformation and the curvature guides deformation of the curved struts during crimping thereby minimizing overall longitudinal expansion of the stent during crimping, and wherein at least some of the four curved struts intersect one another at an angle from 90 to 170 degrees in the longitudinal direction. a plurality of closed cells, wherein each closed cell is defined by four curved struts coupled together to define a boundary of the closed cell, wherein each of the curved struts include a curvature, which is determined by a distance "d" deviated from a straight line which extends between ends of each curved strut, wherein "d" is in the range of 0.01 mm to 0.99 mm wherein the four curved struts of each closed cell consist of two convex curved struts and two concave curved struts, wherein each end of each convex curved struts is coupled to a corresponding end of each concave curved strut to define the boundary of the closed cell, wherein the curved struts forming each closed cell are arranged such that the two convex curved struts are oppositely disposed, and the two concave curved struts are oppositely disposed, wherein concave and convex curvature of the curved strut is maintained during deformation and the curvature guides deformation of the curved struts during crimping thereby minimizing overall longitudinal expansion of the stent during crimping, and wherein at least some of the four curved struts intersect one another at an angle from 90 to 170 degrees in the longitudinal direction.
The voltage generator of claim 8, further comprising a resistor (R2) having a first end and a second end, wherein the first end is coupled to the output of the charge pump and the second end is coupled to the smoothing capacitor (C1); and a shorting element coupled in parallel with the resistor (R2), and the shorting element is configured to cause the resistor (R2) to be at least partially bypassed when turned on; wherein: the shorting element is turned on during the switching period of the RF switch and/or the shorting element is turned on upon powering up the RF switch ; the enable signal (EN) causes the shorting element to be turned on.
A liquid discharging apparatus comprising: a liquid discharging head including a nozzle configured to discharge a liquid containing resin, a liquid flow path that individually communicates with the nozzle, and an actuator configured to generate pressure oscillation in the liquid in the liquid flow path, the liquid discharging head being configured to discharge the liquid from the nozzle by driving of the actuator; a first inspection mechanism configured to inspect a discharge abnormality of the nozzle; a second inspection mechanism configured to inspect oscillation of the liquid in the liquid flow path generated by the driving of the actuator; and characterized by a control circuit configured to determine whether an attachment position of the resin is in the liquid flow path or in the nozzle, wherein the control circuit is configured to determine whether the attachment position of the resin is in the liquid flow path or in the nozzle based on an inspection result of the discharge abnormality by the first inspection mechanism and an inspection result of oscillation of the liquid in the liquid flow path by the second inspection mechanism. a liquid discharging head including a nozzle configured to discharge a liquid containing resin, a liquid flow path that individually communicates with the nozzle, and an actuator configured to generate pressure oscillation in the liquid in the liquid flow path, the liquid discharging head being configured to discharge the liquid from the nozzle by driving of the actuator; a first inspection mechanism configured to inspect a discharge abnormality of the nozzle; a second inspection mechanism configured to inspect oscillation of the liquid in the liquid flow path generated by the driving of the actuator; and characterized by a control circuit configured to determine whether an attachment position of the resin is in the liquid flow path or in the nozzle, wherein the control circuit is configured to determine whether the attachment position of the resin is in the liquid flow path or in the nozzle based on an inspection result of the discharge abnormality by the first inspection mechanism and an inspection result of oscillation of the liquid in the liquid flow path by the second inspection mechanism.
A method for manufacturing a nitride semiconductor substrate, the method comprising: a step of placing a semiconductor substrate which includes a sapphire substrate and a precursor of an aluminum nitride, AlN, buffer layer, wherein the AlN buffer layer includes AlN grains and is formed by annealing the precursor, formed on a principal surface of the sapphire substrate, in an annealing furnace such that the precursor and a cover member face each other with at most a 0.5-mm spacing therebetween so that a gas tight state is formed whereby a gas between the cover member and a principal surface of the AIN buffer layer is in a stagnant state whereby the gas does not substantially flow, so as to inhibit components from leaving and going out of the AlN buffer layer due to heating the semiconductor substrate, and a step of annealing the semiconductor substrate in the annealing furnace in an inert gas atmosphere for at least 20 minutes at a temperature of the semiconductor substrate in a range from 1600°C to 1750°C, wherein a full width at half maximum of an X-ray rocking curve of a (10-12) plane of the AlN buffer layer after the annealing treatment is less than or equal to 1000 arcsec. a step of placing a semiconductor substrate which includes a sapphire substrate and a precursor of an aluminum nitride, AlN, buffer layer, wherein the AlN buffer layer includes AlN grains and is formed by annealing the precursor, formed on a principal surface of the sapphire substrate, in an annealing furnace such that the precursor and a cover member face each other with at most a 0.5-mm spacing therebetween so that a gas tight state is formed whereby a gas between the cover member and a principal surface of the AIN buffer layer is in a stagnant state whereby the gas does not substantially flow, so as to inhibit components from leaving and going out of the AlN buffer layer due to heating the semiconductor substrate, and a step of annealing the semiconductor substrate in the annealing furnace in an inert gas atmosphere for at least 20 minutes at a temperature of the semiconductor substrate in a range from 1600°C to 1750°C, wherein a full width at half maximum of an X-ray rocking curve of a (10-12) plane of the AlN buffer layer after the annealing treatment is less than or equal to 1000 arcsec.
An evacuation station configured to evacuate debris from a cleaning bin of a mobile floor cleaning robot, the evacuation station comprising: a housing defining a platform with a suction opening defined in the platform; an evacuation vacuum in fluid communication with the suction opening and operable to draw air into the evacuation station housing through the suction opening; a debris canister detachably coupled to the housing for receiving debris carried by air drawn into the evacuation station housing by the evacuation vacuum through the suction opening , characterized in that the evacuation station is configured to track a number of evacuations from the cleaning bin . a housing defining a platform with a suction opening defined in the platform; an evacuation vacuum in fluid communication with the suction opening and operable to draw air into the evacuation station housing through the suction opening; a debris canister detachably coupled to the housing for receiving debris carried by air drawn into the evacuation station housing by the evacuation vacuum through the suction opening , characterized in that the evacuation station is configured to track a number of evacuations from the cleaning bin .
A pharmaceutical formulation for use in treating or providing prophylaxis against nontuberculous mycobacterial pulmonary infection in a patient, the pharmaceutical formulation comprising: a liposomal complexed aminoglycoside, wherein the pharmaceutical formulation is an aqueous dispersion of liposomes and is aerosolized at a rate from 0.60 gram per minute to 0.80 gram per minute, wherein the aerosolized pharmaceutical formulation is administered to the lungs of the patient using a vibrating mesh nebulizer; wherein the vibrating mesh nebulizer comprises a membrane comprising a plurality of through holes, each having a nozzle portion having a length of less than 25 μm, wherein the aerosolized pharmaceutical formulation comprises a mixture of free aminoglycoside and liposomal complexed aminoglycoside and the percent liposomal complexed aminoglycoside in the aerosolized pharmaceutical formulation post nebulization is from 60% to 70%, wherein the lipid component of the liposome consists of dipalmitoylphosphatidylcholine (DPPC) and cholesterol, and the fine particle fraction (FPF) of the aerosolized pharmaceutical formulation is greater than or equal to 64%, as measured by the Andersen Cascade Impactor (ACI), or greater or equal to 51%, as measured by the Next Generation Impactor (NGI). a liposomal complexed aminoglycoside, wherein the pharmaceutical formulation is an aqueous dispersion of liposomes and is aerosolized at a rate from 0.60 gram per minute to 0.80 gram per minute, wherein the aerosolized pharmaceutical formulation is administered to the lungs of the patient using a vibrating mesh nebulizer; wherein the vibrating mesh nebulizer comprises a membrane comprising a plurality of through holes, each having a nozzle portion having a length of less than 25 μm, wherein the aerosolized pharmaceutical formulation comprises a mixture of free aminoglycoside and liposomal complexed aminoglycoside and the percent liposomal complexed aminoglycoside in the aerosolized pharmaceutical formulation post nebulization is from 60% to 70%, wherein the lipid component of the liposome consists of dipalmitoylphosphatidylcholine (DPPC) and cholesterol, and the fine particle fraction (FPF) of the aerosolized pharmaceutical formulation is greater than or equal to 64%, as measured by the Andersen Cascade Impactor (ACI), or greater or equal to 51%, as measured by the Next Generation Impactor (NGI).
A chamberless smoke detector , comprising: a first optical smoke detector having a first smoke detector light source arranged for emitting a first beam of light and a first scattered light sensor positioned to detect light from the first beam which is scattered by smoke present within a detection zone ; a second optical smoke detector having a second smoke detector light source arranged for emitting a second beam of light and a second scattered light sensor positioned to detect light from the second beam which is scattered by smoke present within the detection zone ; and an object proximity detector to detect an object in the detection zone , wherein the first smoke detector light source and the first scattered light sensor are inclined, with respect to a line normal to the smoke detector, by a greater angle than the second smoke detector light source and the second scattered light sensor . a first optical smoke detector having a first smoke detector light source arranged for emitting a first beam of light and a first scattered light sensor positioned to detect light from the first beam which is scattered by smoke present within a detection zone ; a second optical smoke detector having a second smoke detector light source arranged for emitting a second beam of light and a second scattered light sensor positioned to detect light from the second beam which is scattered by smoke present within the detection zone ; and an object proximity detector to detect an object in the detection zone , wherein the first smoke detector light source and the first scattered light sensor are inclined, with respect to a line normal to the smoke detector, by a greater angle than the second smoke detector light source and the second scattered light sensor .