mhurhangee/patent-ind-claim-en huggingface dataset:
A radiation treatment system comprising: an X-ray imaging device ; a treatment-delivering X-ray source configured to direct treatment X-rays to a target volume ; an imaging X-ray source configured to direct imaging X-rays through the target volume and toward the X-ray imager; and a processor configured to: direct a pulse of imaging X-rays through a target volume and onto the X-ray imaging device, so that a portion of the imaging X-rays is incident on a photodetector Z included in a pixel detector element of the X-ray imaging device and an image signal output by the photodetector accumulates in a signal integrator disposed within the pixel detector element; direct a pulse of treatment X-rays through the target volume; and while directing the pulse of treatment X-rays onto the target volume , prevent the image signal from accumulating in the signal integrator. an X-ray imaging device ; a treatment-delivering X-ray source configured to direct treatment X-rays to a target volume ; an imaging X-ray source configured to direct imaging X-rays through the target volume and toward the X-ray imager; and a processor configured to: direct a pulse of imaging X-rays through a target volume and onto the X-ray imaging device, so that a portion of the imaging X-rays is incident on a photodetector Z included in a pixel detector element of the X-ray imaging device and an image signal output by the photodetector accumulates in a signal integrator disposed within the pixel detector element; direct a pulse of treatment X-rays through the target volume; and while directing the pulse of treatment X-rays onto the target volume , prevent the image signal from accumulating in the signal integrator. direct a pulse of imaging X-rays through a target volume and onto the X-ray imaging device, so that a portion of the imaging X-rays is incident on a photodetector Z included in a pixel detector element of the X-ray imaging device and an image signal output by the photodetector accumulates in a signal integrator disposed within the pixel detector element; direct a pulse of treatment X-rays through the target volume; and while directing the pulse of treatment X-rays onto the target volume , prevent the image signal from accumulating in the signal integrator.
An apparatus comprising: a line driver having a plurality of source-series terminated, SST, driver segments including switching circuitry to selectively switch among at least three voltage-reference levels to drive an output node, common to each of the SST driver segments, in response to received digital signals by switching at a rate that is faster than a baud rate characterizing the received digital signals; and an interface circuit to drive a transmission link, in response to a drive signal at the output node, with an analog signal representing an oversampling of the received digital signals, characterized in that the number of SST driver segments that simultaneously drive a mid-level of the at least three voltage-reference levels is lower than the total number of the plurality of SST driver segments . a line driver having a plurality of source-series terminated, SST, driver segments including switching circuitry to selectively switch among at least three voltage-reference levels to drive an output node, common to each of the SST driver segments, in response to received digital signals by switching at a rate that is faster than a baud rate characterizing the received digital signals; and an interface circuit to drive a transmission link, in response to a drive signal at the output node, with an analog signal representing an oversampling of the received digital signals, characterized in that the number of SST driver segments that simultaneously drive a mid-level of the at least three voltage-reference levels is lower than the total number of the plurality of SST driver segments .
An on-vehicle camera for photographing an object outside a vehicle through a glass shield of the vehicle, the on-vehicle camera comprising: - a pair of imaging elements; and - an error information storage unit , wherein the error information storage unit stores error information related to an error caused by the glass shield (SG), the error included in a difference in image-forming positions of the object (T) between pixel positions of the pair of imaging elements (IE) for each of the pixel positions characterized in that the error information includes a plurality of correction amounts based on a distance between the imaging elements (IE) and the object (T). - a pair of imaging elements; and - an error information storage unit , wherein the error information storage unit stores error information related to an error caused by the glass shield (SG), the error included in a difference in image-forming positions of the object (T) between pixel positions of the pair of imaging elements (IE) for each of the pixel positions characterized in that the error information includes a plurality of correction amounts based on a distance between the imaging elements (IE) and the object (T).
A method, comprising: receiving, by a server-side application repository, from a remote computing device, an update request, the update request including a first signature that uniquely identifies a client-side application package that is stored at the remote computing device, the client-side application package consisting essentially of all components of a single software application; comparing, by the server-side application repository, the first signature to a second signature that identifies a first server-side application package that is identical to the client-side application package; and based upon a match of the first signature and the second signature, generating a differential update package using the first server-side application package and a second, updated server-side application package as inputs, wherein the differential update package, when applied to the client side application package, is operable to modify to the client-side application package such that it is functionally equivalent to the second server-side application package. receiving, by a server-side application repository, from a remote computing device, an update request, the update request including a first signature that uniquely identifies a client-side application package that is stored at the remote computing device, the client-side application package consisting essentially of all components of a single software application; comparing, by the server-side application repository, the first signature to a second signature that identifies a first server-side application package that is identical to the client-side application package; and based upon a match of the first signature and the second signature, generating a differential update package using the first server-side application package and a second, updated server-side application package as inputs, wherein the differential update package, when applied to the client side application package, is operable to modify to the client-side application package such that it is functionally equivalent to the second server-side application package.
Implantable quadripolar electrode for sequential neurostimulation of the phrenic nerve , being constituted of a matrix provided with two branches and each consisting of a hook designed to come in contact with the phrenic nerve without totally encircling it, and an extension , or strip, designed to cross the corresponding incision arranged in the pleura and fix the latter on the pericardium; wherein each hook has an opening allowing the phrenic nerve to pass; wherein the hooks are connected by a bridge designed to keep them at a fixed distance from each other in the longitudinal direction of said phrenic nerve and to allow, through its elasticity, the branches and to rotate relative to one another for positioning the hooks and around the phrenic nerve via their respective openings ; and wherein said hooks and are each provided with two contactors and arranged symmetrically around the axis of said phrenic nerve , in contact with it, and designed to be supplied with sequential neurostimulation electrical current by means of a bundle of four cables .
A device monitoring method for implementing in an image forming device monitoring system, comprising: receiving an authorization code, wherein the authorization code includes first information; the first information being configured to indicate a first value; and the first value being a maximum quantity of devices capable of being monitored by the device monitoring system which is activated by the authorization code; determining the first value according to the authorization code; and configuring a first parameter value according to the first value, wherein the first parameter value is configured to record the maximum quantity of devices capable of being monitored, characterized in that the monitored device is an image forming device; and the method further includes: after configuring the first parameter value according to the first value, receiving a first message, the first message being configured to request monitoring a first image forming device ; the first image forming device being an image forming device which is not monitored; and transmitting a second message if a quantity of monitored image forming devices reaches the first parameter value, wherein the second message is configured to indicate to reject monitoring the first image forming device . receiving an authorization code, wherein the authorization code includes first information; the first information being configured to indicate a first value; and the first value being a maximum quantity of devices capable of being monitored by the device monitoring system which is activated by the authorization code; determining the first value according to the authorization code; and configuring a first parameter value according to the first value, wherein the first parameter value is configured to record the maximum quantity of devices capable of being monitored, characterized in that the monitored device is an image forming device; and the method further includes: after configuring the first parameter value according to the first value, receiving a first message, the first message being configured to request monitoring a first image forming device ; the first image forming device being an image forming device which is not monitored; and transmitting a second message if a quantity of monitored image forming devices reaches the first parameter value, wherein the second message is configured to indicate to reject monitoring the first image forming device . after configuring the first parameter value according to the first value, receiving a first message, the first message being configured to request monitoring a first image forming device ; the first image forming device being an image forming device which is not monitored; and transmitting a second message if a quantity of monitored image forming devices reaches the first parameter value, wherein the second message is configured to indicate to reject monitoring the first image forming device .
A ceiling-type air conditioner comprising: a housing provided in a cylindrical shape and including an upper housing and a lower housing , the lower housing including a discharge port configured to discharge air; a suction panel having a circular shape, provided in a central portion of and separably coupled with the lower housing , the suction panel including a suction port , and wherein the discharge port is formed outside the suction port in a radial direction; and a heat exchanger having an annular shape and disposed inside the housing , characterized in that the suction panel includes a plurality of coupling members arranged in a circumferential direction of and formed to protrude upwardly from the top surface adjacent to the rim of the suction panel facing the housing , wherein the lower housing includes a plurality of coupling portions arranged to correspond to the plurality of coupling members and configured to support the plurality of coupling members , and wherein the plurality of coupling members is configured to couple with the plurality of coupling portions by being rotated with respect to a central axis of the housing in one of a clockwise direction or a counter-clockwise direction, and to decouple from the plurality of coupling portions by being rotated with respect to the central axis of the housing in the other one of the clockwise direction or the counter-clockwise direction. a housing provided in a cylindrical shape and including an upper housing and a lower housing , the lower housing including a discharge port configured to discharge air; a suction panel having a circular shape, provided in a central portion of and separably coupled with the lower housing , the suction panel including a suction port , and wherein the discharge port is formed outside the suction port in a radial direction; and a heat exchanger having an annular shape and disposed inside the housing , characterized in that the suction panel includes a plurality of coupling members arranged in a circumferential direction of and formed to protrude upwardly from the top surface adjacent to the rim of the suction panel facing the housing , wherein the lower housing includes a plurality of coupling portions arranged to correspond to the plurality of coupling members and configured to support the plurality of coupling members , and wherein the plurality of coupling members is configured to couple with the plurality of coupling portions by being rotated with respect to a central axis of the housing in one of a clockwise direction or a counter-clockwise direction, and to decouple from the plurality of coupling portions by being rotated with respect to the central axis of the housing in the other one of the clockwise direction or the counter-clockwise direction.
A process for the introduction of a fresh feed selected from fresh comonomer and fresh inert hydrocarbon to a polymerisation reactor wherein the polymerisation reactor has a volume of at least 50m 3 and wherein the polymerisation reactor is part of a polymerisation process comprising high and low pressure recovery systems, said high pressure recovery system being at a pressure of 0.5 MPa (5 bar) or above and said low pressure recovery system being at a pressure of less than 0.5 MPa (5 bar), which process comprises passing said fresh feed and a process stream comprising a first component selected from hydrogen, nitrogen and methane and a second component which is a monomer to a separator which is part of the low pressure recovery system and is at a pressure of 0.4MPa or less to produce a first stream comprising the majority of the first component and a second stream comprising the second component and the majority of the fresh feed, and passing the second stream to the polymerisation reactor.
A pharmaceutically acceptable composition for delivering a drug depot by injection to a selected region in a subject, wherein said composition comprises a therapeutic compound coupled to a polymer as a fusion protein, wherein said polymer undergoes an inverse temperature phase transition and has a transition temperature less than the body temperature of the subject such that a sustained release of said therapeutic compound is provided, and further wherein said polymer is an Elastin-like polypeptide (ELP) comprising [(VPGVG)5(VPGGG)3(VPGAG)2]9 (SEQ. ID. NO:20).
A method of calibrating a printer comprising: Printing an interferential pattern on a print medium ; capturing data representative of the interferential pattern as printed on the print medium using an optical sensor ; calibrating the printer based on the captured data, wherein the interferential pattern is based on a waveform that varies in amplitude along an axis perpendicular to a printing axis under calibration, and wherein the interferential pattern comprises repeated sets of multiple patterns based on the waveform, the repeated sets having a varying pattern spacing in the direction of the printing axis under calibration. Printing an interferential pattern on a print medium ; capturing data representative of the interferential pattern as printed on the print medium using an optical sensor ; calibrating the printer based on the captured data, wherein the interferential pattern is based on a waveform that varies in amplitude along an axis perpendicular to a printing axis under calibration, and wherein the interferential pattern comprises repeated sets of multiple patterns based on the waveform, the repeated sets having a varying pattern spacing in the direction of the printing axis under calibration.
A method of wireless communications, comprising: selecting , at a first device, a Random Access Channel, RACH preamble identifier, ID from a set of RACH preamble IDs based on a discovery procedure associated with a second device, wherein each RACH preamble ID from the set of RACH preamble IDs corresponds to at least one RACH preamble and is associated with the second device, wherein selecting the RACH preamble ID from the set of RACH preamble IDs includes determining the set of RACH preamble IDs based on at least one of a discovery message or a discovery preamble corresponding to the discovery procedure associated with the second device, wherein a RACH preamble associated with the selected RACH preamble ID includes a scheduling indication corresponding to a one or more communication preferences of the first device, wherein the one or more communication preferences includes a master-slave configuration between the first device and the second device; and transmitting , from the first device, the RACH preamble associated with the selected RACH preamble ID to the second device. selecting , at a first device, a Random Access Channel, RACH preamble identifier, ID from a set of RACH preamble IDs based on a discovery procedure associated with a second device, wherein each RACH preamble ID from the set of RACH preamble IDs corresponds to at least one RACH preamble and is associated with the second device, wherein selecting the RACH preamble ID from the set of RACH preamble IDs includes determining the set of RACH preamble IDs based on at least one of a discovery message or a discovery preamble corresponding to the discovery procedure associated with the second device, wherein a RACH preamble associated with the selected RACH preamble ID includes a scheduling indication corresponding to a one or more communication preferences of the first device, wherein the one or more communication preferences includes a master-slave configuration between the first device and the second device; and transmitting , from the first device, the RACH preamble associated with the selected RACH preamble ID to the second device.
An aqueous oral care fluoride treatment composition comprising: 0.1 wt-% to 3.0 wt-% of a crosslinked poly acid having carboxylic acid side groups; a pharmaceutically acceptable buffer; 1.0 wt-% to 2.5 wt-% of sodium fluoride; and 0.025 wt-% to 1.75 wt-% of a multivalent cation salt comprising: a multivalent cation selected from Ca, Zn, Al, and a combination thereof; and a counterion selected from chloride, nitrate, gluconate, lactate, acetate, sulfate, hydrates thereof and combinations thereof; and at least 60 wt-% water; wherein the weight percentages are based on the total weight of the aqueous composition. 0.1 wt-% to 3.0 wt-% of a crosslinked poly acid having carboxylic acid side groups; a pharmaceutically acceptable buffer; 1.0 wt-% to 2.5 wt-% of sodium fluoride; and 0.025 wt-% to 1.75 wt-% of a multivalent cation salt comprising: a multivalent cation selected from Ca, Zn, Al, and a combination thereof; and a counterion selected from chloride, nitrate, gluconate, lactate, acetate, sulfate, hydrates thereof and combinations thereof; and a multivalent cation selected from Ca, Zn, Al, and a combination thereof; and a counterion selected from chloride, nitrate, gluconate, lactate, acetate, sulfate, hydrates thereof and combinations thereof; and at least 60 wt-% water; wherein the weight percentages are based on the total weight of the aqueous composition.
A user apparatus for use in a mobile communication system including a first base station and a second base station that communicate with the user apparatus by inter-base station carrier aggregation, the first base station acting as a master base station and the second base station acting as a secondary base station, comprising: reception means configured to receive, from the first base station, a message specifying a predetermined notification trigger that triggers measurement reporting; measurement means configured to measure a time difference between subframe boundaries of a subframe in the first base station and a subframe in the second base station; and notification means configured, when detecting the predetermined notification trigger, to notify the first base station or the second base station of time difference information on the time difference measured by the measurement means. reception means configured to receive, from the first base station, a message specifying a predetermined notification trigger that triggers measurement reporting; measurement means configured to measure a time difference between subframe boundaries of a subframe in the first base station and a subframe in the second base station; and notification means configured, when detecting the predetermined notification trigger, to notify the first base station or the second base station of time difference information on the time difference measured by the measurement means.
A laser depth sensing device comprising: at least one source of laser light configured to generate a laser beam; at least one scanning mirror configured to reflect the laser beam; a depth mapping device configured to receive reflections of the laser beam from a surface and generate a 3-dimensional point cloud of the surface based at least in part on timing of the received reflections of the laser beam from the surface; and a drive circuit configured to provide an excitation signal to excite motion of the at least one scanning mirror to reflect the laser beam in a raster pattern of scan lines on the surface, the motion of the at least one scanning mirror having a horizontal scan rate, a horizontal scan amplitude, a horizontal scan waveform shape, a vertical scan rate, a vertical scan amplitude, and a vertical scan waveform shape, and wherein the drive circuit is configured to adjust the vertical scan waveform shape such that a rate of vertical motion of the at least one scanning mirror motion varies over each raster pattern to provide increased vertical resolution in a first portion of the 3-dimensional point cloud of the surface and provide decreased vertical resolution in a second portion of the 3-dimensional point cloud of the surface. at least one source of laser light configured to generate a laser beam; at least one scanning mirror configured to reflect the laser beam; a depth mapping device configured to receive reflections of the laser beam from a surface and generate a 3-dimensional point cloud of the surface based at least in part on timing of the received reflections of the laser beam from the surface; and a drive circuit configured to provide an excitation signal to excite motion of the at least one scanning mirror to reflect the laser beam in a raster pattern of scan lines on the surface, the motion of the at least one scanning mirror having a horizontal scan rate, a horizontal scan amplitude, a horizontal scan waveform shape, a vertical scan rate, a vertical scan amplitude, and a vertical scan waveform shape, and wherein the drive circuit is configured to adjust the vertical scan waveform shape such that a rate of vertical motion of the at least one scanning mirror motion varies over each raster pattern to provide increased vertical resolution in a first portion of the 3-dimensional point cloud of the surface and provide decreased vertical resolution in a second portion of the 3-dimensional point cloud of the surface.