mhurhangee/patent-ind-claim-en huggingface dataset:
An intraocular shunt inserter for treating glaucoma, comprising: a housing ; a needle assembly at least partially disposed within the housing and comprising a needle and a needle driver coupled to a proximal end portion of the needle ; a plunger assembly at least partially disposed within the housing and comprising a plunger and a plunger driver coupled to a proximal end portion of the plunger , the plunger being at least partially disposed within a lumen of the needle , the plunger being configured to advance a shunt through the lumen of the needle ; characterized by an actuation mechanism being rotatable to change at least one of a length of the needle driver or a length of the plunger driver for permitting a clinician to adapt the inserter for a given surgical procedure. a housing ; a needle assembly at least partially disposed within the housing and comprising a needle and a needle driver coupled to a proximal end portion of the needle ; a plunger assembly at least partially disposed within the housing and comprising a plunger and a plunger driver coupled to a proximal end portion of the plunger , the plunger being at least partially disposed within a lumen of the needle , the plunger being configured to advance a shunt through the lumen of the needle ; characterized by an actuation mechanism being rotatable to change at least one of a length of the needle driver or a length of the plunger driver for permitting a clinician to adapt the inserter for a given surgical procedure.
A snow scooter , which includes - a frame comprising a first end and a second end , the frame forming a support for a user , - a steering column joined to the first end of the frame in an articulated manner for steering the snow scooter , - a steering runner joined to the lower end of the steering column for supporting the snow scooter on the surface of a substrate , - a track drive unit connected to the second end of the frame for supporting the snow scooter on the snow and for transmitting thrust to the surface of the substrate , wherein the track drive unit is composed of a track frame , a track formed as a loop, an idler roll and a drive sprocket , - an electric motor for driving the track drive unit , wherein the drive sprocket receives its driving force from the electric motor , and - a battery for storing electricity for the electric motor , wherein the frame includes a battery space formed in the frame for the battery , which battery space is formed in connection with the first end of the frame in front of the track drive unit in the direction of travel of the snow scooter so as to direct the weight of the battery onto the steering runner in order to improve steerability, characterized in that - the snow scooter has only one said steering runner , - the support is a standing platform , - the electric motor is arranged inside the loop of the track , and - the snow scooter is adapted to be used from a standing position. - a frame comprising a first end and a second end , the frame forming a support for a user , - a steering column joined to the first end of the frame in an articulated manner for steering the snow scooter , - a steering runner joined to the lower end of the steering column for supporting the snow scooter on the surface of a substrate , - a track drive unit connected to the second end of the frame for supporting the snow scooter on the snow and for transmitting thrust to the surface of the substrate , wherein the track drive unit is composed of a track frame , a track formed as a loop, an idler roll and a drive sprocket , - an electric motor for driving the track drive unit , wherein the drive sprocket receives its driving force from the electric motor , and - a battery for storing electricity for the electric motor , wherein the frame includes a battery space formed in the frame for the battery , which battery space is formed in connection with the first end of the frame in front of the track drive unit in the direction of travel of the snow scooter so as to direct the weight of the battery onto the steering runner in order to improve steerability, characterized in that - the snow scooter has only one said steering runner , - the support is a standing platform , - the electric motor is arranged inside the loop of the track , and - the snow scooter is adapted to be used from a standing position.
A hollow spherical glass particle, comprising: aluminum oxide Al 2 O 3 , silicon dioxide SiO 2 and at least one metal oxide, wherein the metal oxide is selected from the group consisting of alkali metal oxides and alkaline earth metal oxides; wherein the ratio of aluminum atoms to alkali metal atoms is about 1:1 and the ratio of aluminum atoms to alkaline earth metal atoms is about 2:1; with the proviso that the hollow spherical glass particle is free of boron, and wherein the hollow spherical glass particle has a particle diameter of between about 100 and 600 microns. aluminum oxide Al 2 O 3 , silicon dioxide SiO 2 and at least one metal oxide, wherein the metal oxide is selected from the group consisting of alkali metal oxides and alkaline earth metal oxides; wherein the ratio of aluminum atoms to alkali metal atoms is about 1:1 and the ratio of aluminum atoms to alkaline earth metal atoms is about 2:1; with the proviso that the hollow spherical glass particle is free of boron, and wherein the hollow spherical glass particle has a particle diameter of between about 100 and 600 microns.
A peptide conjugate comprising an alpha-amino protecting moiety, a peptide consisting of the amino acid sequence selected from the group consisting of Asp-Pro-Arg and SEQ ID NOs: 1-17, and a protease-disabling moiety, wherein the peptide is bound to the alpha-amino protecting moiety and to the protease-disabling moiety, wherein the protease disabling moiety is selected from the group consisting of chloromethylketone, sulfonylfluorides (-SO 2 F), chloromethylketones (-COCH 2 Cl), aldehydes (-CHO), aryl ketones (-CO-Aryl), trifluoromethylketones (-COCF 3 ) and ketocarboxylic acids (-COCOOH), and wherein the alpha-amino protecting moiety is tosyl or derivatives thereof. wherein the peptide is bound to the alpha-amino protecting moiety and to the protease-disabling moiety, wherein the protease disabling moiety is selected from the group consisting of chloromethylketone, sulfonylfluorides (-SO 2 F), chloromethylketones (-COCH 2 Cl), aldehydes (-CHO), aryl ketones (-CO-Aryl), trifluoromethylketones (-COCF 3 ) and ketocarboxylic acids (-COCOOH), and wherein the alpha-amino protecting moiety is tosyl or derivatives thereof.
A targeting guide assembly for correcting bone deformities in the foot, comprising: a guide arm , comprising: a body extending between a first end and a second end of the guide arm ; a wider portion at the first end , wherein the wider portion extends from the body in a perpendicular direction; and an angled portion extending in a downward direction from the body to the second end , the second end comprising a housing element positioned at an end of the angled portion opposite the body , the housing element comprising: a top opening ; a bottom opening ; an inner cavity formed by the top opening engaging the bottom opening ; and a channel extending into the inner cavity from an exterior surface of the housing element ; a target member coupled to the guide arm ; and a guide pin configured to be movably engaged to the housing element of the guide arm . a guide arm , comprising: a body extending between a first end and a second end of the guide arm ; a wider portion at the first end , wherein the wider portion extends from the body in a perpendicular direction; and an angled portion extending in a downward direction from the body to the second end , the second end comprising a housing element positioned at an end of the angled portion opposite the body , the housing element comprising: a top opening ; a bottom opening ; an inner cavity formed by the top opening engaging the bottom opening ; and a channel extending into the inner cavity from an exterior surface of the housing element ; a body extending between a first end and a second end of the guide arm ; a wider portion at the first end , wherein the wider portion extends from the body in a perpendicular direction; and an angled portion extending in a downward direction from the body to the second end , the second end comprising a housing element positioned at an end of the angled portion opposite the body , the housing element comprising: a top opening ; a bottom opening ; an inner cavity formed by the top opening engaging the bottom opening ; and a top opening ; a bottom opening ; an inner cavity formed by the top opening engaging the bottom opening ; and a channel extending into the inner cavity from an exterior surface of the housing element ; a target member coupled to the guide arm ; and a guide pin configured to be movably engaged to the housing element of the guide arm .
A fixed type constant velocity universal joint which has grease enclosed therein and is provided with an outer joint member having an inner surface in which a plurality of track grooves are formed, an inner joint member having an outer circumferential surface in which a plurality of track grooves are formed, a plurality of balls for transmitting torque provided between the track grooves of the outer joint member and the track grooves of the inner joint member , and a cage for retaining the balls , wherein the grease contains 80% by mass or more of paraffinic mineral oil or a mixture of paraffinic mineral oil and synthetic hydrocarbon oil with respect to the total mass of a lubricant component contained as base oil, the paraffinic mineral oil accounts for 70% by mass or more of the total mass of the lubricant component contained as the base oil, and the grease contains 3 to 8% by mass of a thickener with respect to the total mass of the components of the grease characterized in that the grease contains 5 to 20% by mass of ester oil with respect to the total mass of the lubricant component contained as the base oil.
A thermal-insulating inner-boot for mountain boots comprising: an upper with a thermal-insulating structure, which is shaped so as to cover the user's foot and the lower part of the leg; and a plate-like insole with a thermal-insulating structure, which is arranged to close the lower mouth of the upper so as to cover the sole of the user's foot; the thermal-insulating inner-boot being characterised in that the upper is shaped substantially like an overturned funnel and includes: a single-piece knitted fabric structure that has, inside itself, at least one cavity-wall ; and at least one sheet/piece of soft and flexible thermal-insulating material which is stably trapped within said cavity-wall to form a thermal-insulating padding of the upper.
A method, comprising: verifying, during a boot process, an integrity of an application kernel on a device, wherein verifying the integrity comprises verifying an integrity of a boot read only memory of the device; and based on a verified boot read only memory, verifying a loader integrity of the device, wherein the loader integrity verification indicates a signed software image for the application kernel is present, and wherein for the case that the loader integrity is not verified, the method further comprising: determining if there is a policy in place to prevent access to the application kernel, and based on determining there is no policy in place, restricting a security functionality of the device, and booting the device with the restricted functionality, or else for the case there is a policy in place, performing a reset operation of the device. verifying, during a boot process, an integrity of an application kernel on a device, wherein verifying the integrity comprises verifying an integrity of a boot read only memory of the device; and based on a verified boot read only memory, verifying a loader integrity of the device, wherein the loader integrity verification indicates a signed software image for the application kernel is present, and wherein for the case that the loader integrity is not verified, the method further comprising: determining if there is a policy in place to prevent access to the application kernel, and based on determining there is no policy in place, restricting a security functionality of the device, and booting the device with the restricted functionality, or else for the case there is a policy in place, performing a reset operation of the device.
A fingerprint identification system , wherein the fingerprint identification system comprises: a charge pump circuit , configured to generate a supply voltage (V supply ), wherein the charge pump circuit receives a first clock signal (clk_1); a pixel circuit , forming a touch capacitance (Cf), comprising a first switch (S 41 ) and a second switch (S 42 ) coupled to the touch capacitance (Cf), wherein the first switch (S 41 ) receives the supply voltage (V supply ) and the second switch (S 42 ) is coupled to an integrating circuit , and both the first switch (S 41 ) and the second switch (S 42 ) are controlled by a second clock signal (clk_2); and a clock generating circuit , configured to generate the first clock signal (clk_1) and the second clock signal (clk_2), wherein the clock generating circuit comprises: a clock generating unit configured to generate the first clock signal (clk_1); and a frequency divider, coupled to the clock generating unit, configured to generate the second clock signal according to the first clock signal (clk_1); wherein the first clock signal (clk_1) is synchronized with the second clock signal (clk_2), the first clock signal (clk_1) and the second clock signal (clk_2) have rising edges at the same time, and a duty cycle of the first clock signal (clk_1) and the second clock signal (clk_2) is 50%. a charge pump circuit , configured to generate a supply voltage (V supply ), wherein the charge pump circuit receives a first clock signal (clk_1); a pixel circuit , forming a touch capacitance (Cf), comprising a first switch (S 41 ) and a second switch (S 42 ) coupled to the touch capacitance (Cf), wherein the first switch (S 41 ) receives the supply voltage (V supply ) and the second switch (S 42 ) is coupled to an integrating circuit , and both the first switch (S 41 ) and the second switch (S 42 ) are controlled by a second clock signal (clk_2); and a clock generating circuit , configured to generate the first clock signal (clk_1) and the second clock signal (clk_2), wherein the clock generating circuit comprises: a clock generating unit configured to generate the first clock signal (clk_1); and a frequency divider, coupled to the clock generating unit, configured to generate the second clock signal according to the first clock signal (clk_1); a clock generating unit configured to generate the first clock signal (clk_1); and a frequency divider, coupled to the clock generating unit, configured to generate the second clock signal according to the first clock signal (clk_1); wherein the first clock signal (clk_1) is synchronized with the second clock signal (clk_2), the first clock signal (clk_1) and the second clock signal (clk_2) have rising edges at the same time, and a duty cycle of the first clock signal (clk_1) and the second clock signal (clk_2) is 50%.
A method for subframe configuration in licensed-assisted access using long-term evolution, LAA-LTE, with carrier aggregation, CA, comprising: receiving, by a user equipment, UE , from a secondary cell, SCell, control information in a subframe indicating at least one of a non-ending subframe in a data burst, an ending subframe in the data burst, and a duration of the ending subframe in the data burst, wherein the duration is one of a predefined number of orthogonal frequency-division multiplexing, OFDM, symbol durations; and receiving, by the UE, data in the subframe according to the control information, further comprising: receiving, by the UE, a first indicator associated with the SCell; in response to receiving the first indicator, starting to monitor, by the UE, a channel for a reference signal, RS and/or physical downlink control channel, PDCCH, and/or enhanced physical downlink control channel, EPDCCH, of the SCell; receiving, by the UE, a second indicator associated with the SCell; and in response to receiving the second indicator, ceasing to monitor, by the UE, the channel for the RS and / or PDCCH and/or EPDCCH of the SCell according to the second indicator, receiving, by a user equipment, UE , from a secondary cell, SCell, control information in a subframe indicating at least one of a non-ending subframe in a data burst, an ending subframe in the data burst, and a duration of the ending subframe in the data burst, wherein the duration is one of a predefined number of orthogonal frequency-division multiplexing, OFDM, symbol durations; and receiving, by the UE, data in the subframe according to the control information, further comprising: receiving, by the UE, a first indicator associated with the SCell; in response to receiving the first indicator, starting to monitor, by the UE, a channel for a reference signal, RS and/or physical downlink control channel, PDCCH, and/or enhanced physical downlink control channel, EPDCCH, of the SCell; receiving, by the UE, a second indicator associated with the SCell; and in response to receiving the second indicator, ceasing to monitor, by the UE, the channel for the RS and / or PDCCH and/or EPDCCH of the SCell according to the second indicator, receiving, by the UE, a first indicator associated with the SCell; in response to receiving the first indicator, starting to monitor, by the UE, a channel for a reference signal, RS and/or physical downlink control channel, PDCCH, and/or enhanced physical downlink control channel, EPDCCH, of the SCell; receiving, by the UE, a second indicator associated with the SCell; and in response to receiving the second indicator, ceasing to monitor, by the UE, the channel for the RS and / or PDCCH and/or EPDCCH of the SCell according to the second indicator,
A method of mounting an airfoil component body to a blade root , comprising: providing an airfoil component body having a connection portion , the connection portion comprising an elongate member with at least one depression formed on an outer surface thereof, wherein the airfoil component body is formed from a fibre-reinforced polymer material; inserting the connection portion into a bore formed in a metal blade root ; and deforming the blade root such that a portion of the inner surface of the bore engages with at least one of the depressions in the connection portion to mechanically couple the blade root to the airfoil component body . providing an airfoil component body having a connection portion , the connection portion comprising an elongate member with at least one depression formed on an outer surface thereof, wherein the airfoil component body is formed from a fibre-reinforced polymer material; inserting the connection portion into a bore formed in a metal blade root ; and deforming the blade root such that a portion of the inner surface of the bore engages with at least one of the depressions in the connection portion to mechanically couple the blade root to the airfoil component body .
A hearing aid comprising: an electroacoustic transducer (1, 1', 1*); a signal processing circuitry (2, 2 AD , 2 DA ), configured to receive from said electroacoustic transducer an electrical input signal or to provide said electroacoustic transducer (1', 1*) with an electrical output signal; a power supply means configured to provide power to said electroacoustic transducer (1, 1', 1*) and to said signal processing circuitry (2, 2 AD , 2 DA ); characterized in that said hearing aid further comprises an electroosmotic pump (6, 6 o , 6 i ) configured to transport liquid and/or vapor outside of said hearing aid, or away from a component thereof (1, 1', 1*, 8), wherein said electroosmotic pump comprises a porous intermediate layer and, on each side thereof, electrode elements which are connected to said power supply means so that transport of said liquid and/or vapor is induced by an electric field applied between said electrode elements across said electroosmotic pump . an electroacoustic transducer (1, 1', 1*); a signal processing circuitry (2, 2 AD , 2 DA ), configured to receive from said electroacoustic transducer an electrical input signal or to provide said electroacoustic transducer (1', 1*) with an electrical output signal; a power supply means configured to provide power to said electroacoustic transducer (1, 1', 1*) and to said signal processing circuitry (2, 2 AD , 2 DA );
A communications system comprising infrastructure equipment arranged to provide a wireless interface to a communications device, the communications device comprising a controller and a transceiver configured to transmit and/or receive signals representing the data to and/or from the infrastructure equipment over the wireless interface, and the transceiver under control of the controller is configured to transmit a request for services message to the infrastructure equipment, and to receive a response message to the request for services message transmitted from the infrastructure equipment, wherein the request for services message includes a delay period and the infrastructure equipment, in response to receiving the request for services message, processes the request to form the response message and stores the response message for transmission to the communications device, the response message being stored until the expiry of the delay period, and the controller is configured in response to transmission of the request for services to configure the transceiver to enter a reduced power state in which the amount of power consumed by the transceiver is reduced and to exit the reduced power state to receive the response message.