mhurhangee/patent-ind-claim-en huggingface dataset:
A phased array antenna system , comprising: at least a first array of antenna elements (210-216), where the at least the first array comprises a substantially linear array arranged in a vertical plane for beamforming in an elevation plane; and at least a first radio frequency beamforming network configured to split the power of a radio frequency signal for transmission into a first plurality of component signals, the first plurality of component signals comprising drive signals for the at least the first array of antenna elements, the at least the first radio frequency beamforming network further configured to combine a radio frequency signal for reception by the phased array antenna system from a second plurality of component signals from the at least the first array of antenna elements, where amplitude weights of a radio frequency power distribution (220-226) of the at least the first radio frequency beamforming network are arranged to provide an allocation of at least 73% of a total radio frequency power (220-222) to less than 50% of the antenna elements (210-212) of the at least the first array towards an upper end of the at least the first array for the first plurality of component signals transmitted via the antenna elements of the at least the first array and for the second plurality of component signals received via the antenna elements of the at least the first array, where the at least the first array is for deployment on a building rooftop, and wherein the amplitude weights are to minimize diffractive propagation losses introduced by an edge of the building rooftop. at least a first array of antenna elements (210-216), where the at least the first array comprises a substantially linear array arranged in a vertical plane for beamforming in an elevation plane; and at least a first radio frequency beamforming network configured to split the power of a radio frequency signal for transmission into a first plurality of component signals, the first plurality of component signals comprising drive signals for the at least the first array of antenna elements, the at least the first radio frequency beamforming network further configured to combine a radio frequency signal for reception by the phased array antenna system from a second plurality of component signals from the at least the first array of antenna elements, where amplitude weights of a radio frequency power distribution (220-226) of the at least the first radio frequency beamforming network are arranged to provide an allocation of at least 73% of a total radio frequency power (220-222) to less than 50% of the antenna elements (210-212) of the at least the first array towards an upper end of the at least the first array for the first plurality of component signals transmitted via the antenna elements of the at least the first array and for the second plurality of component signals received via the antenna elements of the at least the first array, where the at least the first array is for deployment on a building rooftop, and wherein the amplitude weights are to minimize diffractive propagation losses introduced by an edge of the building rooftop.
An additive-manufacturing system comprising: an additive-manufacturing head ; a surface-processing device coupled to the additive-manufacturing head ; a support member ; a laser energy source ; and a laser-delivery device , comprising a first end , optically coupled to the laser energy source , and a second end , coupled to the support member ; and wherein the surface-processing device comprises a laser-emitting device configured to emit a first and a second laser beam arranged to smooth at least one of one or more layers (L), produced by the additive-manufacturing system, along both of the interior surface and the exterior surface of the one or more layers (L) by melting a portion of the at least one of the one or more layers (L). an additive-manufacturing head ; a surface-processing device coupled to the additive-manufacturing head ; a support member ; a laser energy source ; and a laser-delivery device , comprising a first end , optically coupled to the laser energy source , and a second end , coupled to the support member ; and wherein the surface-processing device comprises a laser-emitting device configured to emit a first and a second laser beam arranged to smooth at least one of one or more layers (L), produced by the additive-manufacturing system, along both of the interior surface and the exterior surface of the one or more layers (L) by melting a portion of the at least one of the one or more layers (L).
A rubber composition comprising a diene rubber including at least one type of styrene-butadiene copolymer and a reinforcing filler, wherein a styrene-butadiene copolymer component including the at least one type of styrene-butadiene copolymer has the characteristics of to : a content of bonded styrene is from 5 to 50 wt.%, determined by 1 H-NMR; when a decomposed component S1 including one styrene-derived unit and a decomposed component S1V1 including one styrene-derived unit and one 1,2-bonded butadiene-derived unit are measured by gel permeation chromatography as decomposed components obtained by ozone decomposition, a total content of styrene of the decomposed component S1 and the decomposed component S1V1 is less than 80 wt.% of the amount of bonded styrene, and a total content of styrene of the decomposed component S1V1 is less than 10 wt.% of the amount of bonded styrene; when the decomposed components obtained by ozone decomposition are measured by a liquid chromatography-mass spectrometer, an integrated intensity of a decomposed component S1V2 including one styrene-derived unit and two 1,2-bonded butadiene-derived units is not less than 15% of an integrated intensity of all the decomposed components including styrene-derived units; and a vinyl content of a butadiene portion is not less than 20% and less than 50%, determined by 1 H-NMR. a content of bonded styrene is from 5 to 50 wt.%, determined by 1 H-NMR; when a decomposed component S1 including one styrene-derived unit and a decomposed component S1V1 including one styrene-derived unit and one 1,2-bonded butadiene-derived unit are measured by gel permeation chromatography as decomposed components obtained by ozone decomposition, a total content of styrene of the decomposed component S1 and the decomposed component S1V1 is less than 80 wt.% of the amount of bonded styrene, and a total content of styrene of the decomposed component S1V1 is less than 10 wt.% of the amount of bonded styrene; when the decomposed components obtained by ozone decomposition are measured by a liquid chromatography-mass spectrometer, an integrated intensity of a decomposed component S1V2 including one styrene-derived unit and two 1,2-bonded butadiene-derived units is not less than 15% of an integrated intensity of all the decomposed components including styrene-derived units; and a vinyl content of a butadiene portion is not less than 20% and less than 50%, determined by 1 H-NMR.
A system comprising: a determination unit adapted to determine a first event; a camera adapted to switch from a first mode to a second mode based on the first event, the first event corresponding to the disconnection of the camera with a router , the camera further comprising: a detection unit adapted to detect a second event; a recording unit adapted to capture the second event based on the detection by the detection unit ; and a communication unit adapted to transmit a copy of the captured second event to one or more devices in the second mode; and the one or more devices adapted to receive the copy of the captured second event from the camera ; wherein the camera is connected to the router through a cellular network or a WiFi network in the first mode and is configured to use the router to transmit a copy of the captured second event to a server through the cellular or WiFi network; and wherein the camera is disconnected from the router in the second mode and is configured to establish a cellular connection using a cellular network or a WiFi connection using a WiFi network with the one or more devices in the second mode. a determination unit adapted to determine a first event; a camera adapted to switch from a first mode to a second mode based on the first event, the first event corresponding to the disconnection of the camera with a router , the camera further comprising: a detection unit adapted to detect a second event; a recording unit adapted to capture the second event based on the detection by the detection unit ; and a communication unit adapted to transmit a copy of the captured second event to one or more devices in the second mode; and a detection unit adapted to detect a second event; a recording unit adapted to capture the second event based on the detection by the detection unit ; and a communication unit adapted to transmit a copy of the captured second event to one or more devices in the second mode; and the one or more devices adapted to receive the copy of the captured second event from the camera ; wherein the camera is connected to the router through a cellular network or a WiFi network in the first mode and is configured to use the router to transmit a copy of the captured second event to a server through the cellular or WiFi network; and wherein the camera is disconnected from the router in the second mode and is configured to establish a cellular connection using a cellular network or a WiFi connection using a WiFi network with the one or more devices in the second mode.
A method performed by a device, the method comprising: monitoring for data transmission scheduling assignments during an active time of a discontinuous reception cycle, and detecting a transmission during the active time; and determining a first timer value, starting a first timer, in response to the detecting, wherein the first timer is set for the first timer value that specifies an amount of time between detecting the transmission and starting a second timer that extends the active time by a second timer value; wherein the first timer value is determined based on one or both of: a selected first transmission time interval length from multiple transmission time interval lengths for which the device can be enabled; or a selected shorter first processing time over a second processing time associated with a transmission time interval length used by the device; characterised in that at least one timer value adjustment factor is received from the network to use in determining the first timer value, where the at least one received timer value adjustment factor comprises a transport block size. monitoring for data transmission scheduling assignments during an active time of a discontinuous reception cycle, and detecting a transmission during the active time; and determining a first timer value, starting a first timer, in response to the detecting, wherein the first timer is set for the first timer value that specifies an amount of time between detecting the transmission and starting a second timer that extends the active time by a second timer value; wherein the first timer value is determined based on one or both of: a selected first transmission time interval length from multiple transmission time interval lengths for which the device can be enabled; or a selected shorter first processing time over a second processing time associated with a transmission time interval length used by the device; characterised in that at least one timer value adjustment factor is received from the network to use in determining the first timer value, where the at least one received timer value adjustment factor comprises a transport block size. a selected first transmission time interval length from multiple transmission time interval lengths for which the device can be enabled; or a selected shorter first processing time over a second processing time associated with a transmission time interval length used by the device; characterised in that at least one timer value adjustment factor is received from the network to use in determining the first timer value, where the at least one received timer value adjustment factor comprises a transport block size.
A method of managing a re-usable ultrasonic medical device , the method comprising: receiving, by an ultrasonic medical device control module , an electrical connection from an ultrasonic medical device reassembled by a user; prompting , by the ultrasonic medical device control module , the user to operate a jaw control component configured to close a jaw of an end effector of the re-assembled ultrasonic medical device ; receiving, by the ultrasonic medical device control module , closure data from a closure sensor disposed within the ultrasonic medical device indicating that the jaw of the end effector is in a closed configuration; receiving , by the ultrasonic medical device control module , functional data from the ultrasonic medical device referencing a functional state of at least one component of the re-assembled ultrasonic medical device ; comparing , by the ultrasonic medical device control module , a value of the functional data with one or more predetermined acceptance reference values; and providing , by the ultrasonic medical device control module , to the user an acceptability indication based on the comparison of the value of the functional data and the one or more predetermined acceptance reference values. receiving, by an ultrasonic medical device control module , an electrical connection from an ultrasonic medical device reassembled by a user; prompting , by the ultrasonic medical device control module , the user to operate a jaw control component configured to close a jaw of an end effector of the re-assembled ultrasonic medical device ; receiving, by the ultrasonic medical device control module , closure data from a closure sensor disposed within the ultrasonic medical device indicating that the jaw of the end effector is in a closed configuration; receiving , by the ultrasonic medical device control module , functional data from the ultrasonic medical device referencing a functional state of at least one component of the re-assembled ultrasonic medical device ; comparing , by the ultrasonic medical device control module , a value of the functional data with one or more predetermined acceptance reference values; and providing , by the ultrasonic medical device control module , to the user an acceptability indication based on the comparison of the value of the functional data and the one or more predetermined acceptance reference values.
A cartridge for a material (M, M') to be dispensed comprising a rigid head part having a dispensing outlet and a flexible film forming a cartridge wall , with the film bounding a cartridge chamber for the material (M, M') to be dispensed, extending at least partially in a longitudinal direction (A) of the cartridge and having a front end that is connected to the head part , characterized in that the head part has an outer circumferential surface , the outer circumferential surface comprising formations , in that an inner surface of the front end of the film is sealingly and non-releasably connected to the outer circumferential surface of the head part and to the formations present at the outer circumferential surface of the head part .
A device for hydrating particulate bone material and a cannula , the device comprising a tubular member having an interior surface and an exterior surface , the interior surface configured to receive the particulate bone material and a hydration fluid , the exterior surface having a plurality of pores configured to allow the hydration fluid to flow into the interior surface of the tubular member and hydrate the particulate bone material , the plurality of pores being smaller in size than the particulate bone material , wherein the tubular member comprises a proximal end defining a proximal end opening configured to receive the particulate bone material and a distal end defining a distal end opening configured to dispense the particulate bone material, wherein the interior surface and the exterior surface each extend from the proximal end to the distal end ; wherein the tubular member is configured to slidably engage the cannula and the proximal end opening of the tubular member is configured to slidably receive a plunger , and wherein the proximal end opening of the tubular member comprises a rigid funnel configured to engage the cannula , or a proximal end of the cannula comprises a collar configured to engage the tubular member . wherein the tubular member comprises a proximal end defining a proximal end opening configured to receive the particulate bone material and a distal end defining a distal end opening configured to dispense the particulate bone material, wherein the interior surface and the exterior surface each extend from the proximal end to the distal end ; wherein the tubular member is configured to slidably engage the cannula and the proximal end opening of the tubular member is configured to slidably receive a plunger , and wherein the proximal end opening of the tubular member comprises a rigid funnel configured to engage the cannula , or a proximal end of the cannula comprises a collar configured to engage the tubular member .
A push device (P) for laser welding, comprising: a main body configured to be coupled to one side of a welding apparatus and a pusher unit , characterized in that said main body comprises a hinge part disposed at one side thereof and a coupling part spaced apart from the hinge part ; said push device further comprising: a support arm having one end rotatably coupled to the hinge part and the other end extending in a direction opposed to the hinge part and rotatable within a preset angle range; wherein the pusher unit is detachably coupled to the other end of the support arm configured to push an adsorption jig configured to adsorb an object to be welded at a welding position, wherein the support arm is rotatable from a lift down position at which it is coupled to the coupling part and movable to a lift up position at which it is rotated in a direction away from the coupling part .
An implantable device for placement at the opening of a physiological cavity, wherein the physiological cavity is formed at the end of a neighboring lumen where two side branch lumens diverge, and wherein the implantable device is adjustable from a small diameter delivery condition to a deployed condition in which it assumes a larger diameter configuration, wherein the implantable device, in the deployed condition, forms an inverted U-shaped framework structure with at least two anchoring legs extending directly from the U-shaped framework structure, wherein the framework structure has at least one lateral corner configured to be positioned in proximity to the opening of the physiological cavity, and the at least two anchoring legs extend from the inverted U-shaped framework structure opposite one another and along parallel, opposed planes in the deployed condition, and configured to contact tissue surface areas opposite one another on the neighboring lumen.
A method comprising: obtaining a first cell image of a cell by a first observation method, wherein the first observation method is a phase difference observation method and the first cell image is a phase difference image of the cell; obtaining a second cell image of the cell by a second observation method that is different from the first observation method, wherein the second observation method is a dark field observation method and the second cell image is a dark field image of the cell; determining a first cell region in the first cell image based on the first cell image; determining a second cell region in the second cell image based on the second cell image; and generating a composite image by overlaying the first cell region and the second cell region, characterised in that determining the first cell region comprises: in the phase difference image, determining, as the first cell region, an region having a degree of brightness higher than a first threshold value, and an region having a degree of brightness lower than a second threshold value that is less than the first threshold value. obtaining a first cell image of a cell by a first observation method, wherein the first observation method is a phase difference observation method and the first cell image is a phase difference image of the cell; obtaining a second cell image of the cell by a second observation method that is different from the first observation method, wherein the second observation method is a dark field observation method and the second cell image is a dark field image of the cell; determining a first cell region in the first cell image based on the first cell image; determining a second cell region in the second cell image based on the second cell image; and generating a composite image by overlaying the first cell region and the second cell region, characterised in that determining the first cell region comprises: in the phase difference image, determining, as the first cell region, an region having a degree of brightness higher than a first threshold value, and an region having a degree of brightness lower than a second threshold value that is less than the first threshold value.
Electronic control module for controlling a light source comprising at least one board for supporting electronic components that is configured to be received by a first of its edges in a nominal position in a compartment of a holder that is rigidly connected to a wall of a housing of a lighting device , characterized in that the electronic control module has, in the vicinity of this first edge, a connection portion comprising at least one rib extending perpendicularly, or substantially perpendicularly, to the plane defined by the board.
A four-way switch including a knob configured to be tilted in four directions to perform a switching operation in the four directions, the four-way switch comprising: a housing to which the knob is attached in a tiltable manner; a stopper formed on a surface of the housing so as to protrude by a predetermined height, the stopper being configured to limit a downward motion of the knob by contacting a portion of a lower surface of the knob while the knob is tilted; a guide protrusion formed on the lower surface of the knob so as to protrude by a predetermined length; and a guide groove portion formed on the surface of the housing so as to protrude by a predetermined height so as to face the guide protrusion , the guide groove portion including a recess portion having a structure that engages with the guide protrusion ; characterized in that the stopper includes a total of four stoppers , each of the four stoppers being disposed in a direction away by a predetermined angle from one of the four directions in which the knob performs the switching operation, in a plan view; and each of the stoppers is disposed at a position forming an angle of 45 degrees from one of the four directions of the knob , centered on a tilt central axis of the knob , in a plan view. a housing to which the knob is attached in a tiltable manner; a stopper formed on a surface of the housing so as to protrude by a predetermined height, the stopper being configured to limit a downward motion of the knob by contacting a portion of a lower surface of the knob while the knob is tilted; a guide protrusion formed on the lower surface of the knob so as to protrude by a predetermined length; and a guide groove portion formed on the surface of the housing so as to protrude by a predetermined height so as to face the guide protrusion , the guide groove portion including a recess portion having a structure that engages with the guide protrusion ; characterized in that the stopper includes a total of four stoppers , each of the four stoppers being disposed in a direction away by a predetermined angle from one of the four directions in which the knob performs the switching operation, in a plan view; and each of the stoppers is disposed at a position forming an angle of 45 degrees from one of the four directions of the knob , centered on a tilt central axis of the knob , in a plan view.