mhurhangee/patent-ind-claim-en huggingface dataset:
Circuitry for a terminal device for use with a wireless telecommunications system, the circuitry comprising controller circuitry configured: to conduct a first measurement of a parameter associated with a radio signal transmitted by infrastructure equipment of the wireless telecommunications network and received by a receiver of the terminal device; to determine whether the measured parameter meets a predetermined criteria; and when the measured parameter is determined to meet the predetermined criteria, to conduct a second measurement of a parameter associated with a radio signal transmitted by infrastructure equipment of the wireless telecommunications network and received by the receiver of the terminal device; wherein the first measurement is a measurement of a first parameter associated with a first radio reference signal and the second measurement is a measurement of a second parameter associated with a second radio reference signal; and wherein conducting the second measurement is triggered by the terminal device determining the measured parameter from the first measurement meets the predefined criteria; characterised in that the first radio reference signal is a cell specific reference signal identifying a cell of the wireless telecommunications system and the second radio reference signal is a beam specific reference signal identifying a beam formed within a cell of the wireless telecommunications system. to conduct a first measurement of a parameter associated with a radio signal transmitted by infrastructure equipment of the wireless telecommunications network and received by a receiver of the terminal device; to determine whether the measured parameter meets a predetermined criteria; and when the measured parameter is determined to meet the predetermined criteria, to conduct a second measurement of a parameter associated with a radio signal transmitted by infrastructure equipment of the wireless telecommunications network and received by the receiver of the terminal device; wherein the first measurement is a measurement of a first parameter associated with a first radio reference signal and the second measurement is a measurement of a second parameter associated with a second radio reference signal; and wherein conducting the second measurement is triggered by the terminal device determining the measured parameter from the first measurement meets the predefined criteria; characterised in that the first radio reference signal is a cell specific reference signal identifying a cell of the wireless telecommunications system and the second radio reference signal is a beam specific reference signal identifying a beam formed within a cell of the wireless telecommunications system.
Sensor module for a mobile part, wherein, within a housing of the sensor module, a first circuit board is plug-connected to a second circuit board, wherein the first circuit board has a first sensor and the second circuit board has a second sensor, wherein the sensor signals of the first sensor and of the second sensor are fed to a computer unit, which is connected to a first databus connection of the sensor module, in particular data interface of the sensor module, characterized in that the first circuit board is oriented perpendicular to the second circuit board, wherein the second circuit board is plug-connected to a third circuit board, which is arranged perpendicular to the second circuit board and is oriented parallel to the first circuit board, wherein a conductor track of the third circuit board is configured as an antenna of a reader for reading an RFID tag arranged on the ground, wherein the first sensor is configured as an acceleration sensor, wherein or in that the first sensor comprises two acceleration sensors mounted on the first circuit board, said sensors being spaced apart from each other perpendicular to the direction of travel of the mobile part and being arranged in a manner rotated through 90° in relation to each other, wherein the second sensor is a lane guidance sensor, wherein the second sensor comprises spaced-apart pairs of windings. wherein, within a housing of the sensor module, a first circuit board is plug-connected to a second circuit board, wherein the first circuit board has a first sensor and the second circuit board has a second sensor, wherein the sensor signals of the first sensor and of the second sensor are fed to a computer unit, which is connected to a first databus connection of the sensor module, in particular data interface of the sensor module, characterized in that the first circuit board is oriented perpendicular to the second circuit board, wherein the second circuit board is plug-connected to a third circuit board, which is arranged perpendicular to the second circuit board and is oriented parallel to the first circuit board, wherein a conductor track of the third circuit board is configured as an antenna of a reader for reading an RFID tag arranged on the ground, wherein the first sensor is configured as an acceleration sensor, wherein or in that the first sensor comprises two acceleration sensors mounted on the first circuit board, said sensors being spaced apart from each other perpendicular to the direction of travel of the mobile part and being arranged in a manner rotated through 90° in relation to each other, wherein the second sensor is a lane guidance sensor, wherein the second sensor comprises spaced-apart pairs of windings.
A non-transitory computer-readable storage medium including instructions that, when executed by a processor , cause the processor to perform the steps of: receiving high-definition range (HDR) media content; downsampling first color space values associated with a given pixel of the HDR media content to generate downsampled color space values associated with the given pixel; upsampling the downsampled color space values to generate second color space values associated with the given pixel; modifying at least one component value included in the downsampled color space values based on a difference between a first component value included in the first color space values and a corresponding second component value included in the second color space values, and an approximation of a nonlinear transfer function; and generating color corrected HDR media content based on the modified at least one component value. receiving high-definition range (HDR) media content; downsampling first color space values associated with a given pixel of the HDR media content to generate downsampled color space values associated with the given pixel; upsampling the downsampled color space values to generate second color space values associated with the given pixel; modifying at least one component value included in the downsampled color space values based on a difference between a first component value included in the first color space values and a corresponding second component value included in the second color space values, and an approximation of a nonlinear transfer function; and generating color corrected HDR media content based on the modified at least one component value.
A mouthpiece portion for an electronic cigarette , the mouthpiece portion comprising: a liquid store having a housing and being configured to store a liquid to be vaporized; a main vapor channel extending through the liquid store , between a vaporization chamber and a vapor outlet opening ; a mouthpiece comprising a vapor inlet and a vapor outlet ; wherein the mouthpiece portion is configured to provide a relative rotatable movement between the mouthpiece and the housing of the liquid store , between a first position and a second position; characterized in that the mouthpiece portion is configured to be open and only dispense vapor through the mouthpiece vapor outlet when the mouthpiece portion is in the first position, in which the vapor outlet opening of the main vapor channel is aligned with the vapor inlet of the mouthpiece . a liquid store having a housing and being configured to store a liquid to be vaporized; a main vapor channel extending through the liquid store , between a vaporization chamber and a vapor outlet opening ; a mouthpiece comprising a vapor inlet and a vapor outlet ; wherein the mouthpiece portion is configured to provide a relative rotatable movement between the mouthpiece and the housing of the liquid store , between a first position and a second position; characterized in that the mouthpiece portion is configured to be open and only dispense vapor through the mouthpiece vapor outlet when the mouthpiece portion is in the first position, in which the vapor outlet opening of the main vapor channel is aligned with the vapor inlet of the mouthpiece .
Process for producing, on the wafer-scale, a plurality of optoelectronic chips (P1, P2), comprising the following steps: i) providing a receiver substrate comprising a plurality of so-called elementary zones (z1, z2) that are each intended to contain one optoelectronic chip (P1, P2), each elementary zone (z1, z2) comprising at least one so-called coupling waveguide (3 1 , 3 2 ) that is integrated into the receiver substrate and that is intended to be optically coupled to a first optoelectronic component (2 1 , 2 2 ); ii) transferring a plurality of pads to the elementary zones (z1, z2) so that the pads partially cover the coupling waveguides (3 1 , 3 2 ); iii) producing said first optoelectronic components (2 1 , 2 2 ) from said pads , so that each first optoelectronic component (2 1 , 2 2 ) is facing at least one coupling waveguide (3 1 , 3 2 ) of the corresponding elementary zone (z1, z2); characterized in that , following the transferring step, each pad extends over a set (E) of at least two adjacent elementary zones (z1, z2), so as to partially cover at least one coupling waveguide (3 1 , 3 2 ) of each of said adjacent elementary zones (z1, z2). i) providing a receiver substrate comprising a plurality of so-called elementary zones (z1, z2) that are each intended to contain one optoelectronic chip (P1, P2), each elementary zone (z1, z2) comprising at least one so-called coupling waveguide (3 1 , 3 2 ) that is integrated into the receiver substrate and that is intended to be optically coupled to a first optoelectronic component (2 1 , 2 2 ); ii) transferring a plurality of pads to the elementary zones (z1, z2) so that the pads partially cover the coupling waveguides (3 1 , 3 2 ); iii) producing said first optoelectronic components (2 1 , 2 2 ) from said pads , so that each first optoelectronic component (2 1 , 2 2 ) is facing at least one coupling waveguide (3 1 , 3 2 ) of the corresponding elementary zone (z1, z2); characterized in that , following the transferring step, each pad extends over a set (E) of at least two adjacent elementary zones (z1, z2), so as to partially cover at least one coupling waveguide (3 1 , 3 2 ) of each of said adjacent elementary zones (z1, z2).
A method of object tracking in a scene overtime, the method comprising: obtaining tracking data from a tracking device , the tracking data comprising at least one point of interest in the scene, computed by the tracking device , the tracking data corresponding to gaze data obtained by an eye tracker and the point of interest being a point of gaze ; obtaining target data from a scene information provider , the scene comprising a plurality of targets , the target data corresponding to targets in the scene and each target being represented by one or more points in the scene; applying a probabilistic graphical model to the tracking data and the target data to predict, for each point of interest being tracked, an associated target of interest; and using the associated target of interest to refine the at least one point of interest; and outputting the refined point of interest, said method further comprising utilizing the refined point of interest to enhance tracking accuracy and, optionally, wherein the utilizing comprises one or more of: using the refined point of interest as input to a system receiving tracked signal data; and sending the refined point of interest to the tracking device, to assist in determining a true tracked signal. obtaining tracking data from a tracking device , the tracking data comprising at least one point of interest in the scene, computed by the tracking device , the tracking data corresponding to gaze data obtained by an eye tracker and the point of interest being a point of gaze ; obtaining target data from a scene information provider , the scene comprising a plurality of targets , the target data corresponding to targets in the scene and each target being represented by one or more points in the scene; applying a probabilistic graphical model to the tracking data and the target data to predict, for each point of interest being tracked, an associated target of interest; and using the associated target of interest to refine the at least one point of interest; and outputting the refined point of interest, using the refined point of interest as input to a system receiving tracked signal data; and sending the refined point of interest to the tracking device, to assist in determining a true tracked signal.
A rotating machining device for machining a work piece comprising: 1) a support housing adapted to be mounted on a work piece; 2) a headstock rotatably mounted on the support housing ; 3) at least one tool module mounted to the headstock and including a tool feed system having a tool holder and a feed mechanism operatively connected to the tool holder ; and 4) a tripper pin assembly mounted on the support housing and arranged to collide with the feed mechanism for advancement of the tool holder relative to the work piece; wherein the tripper pin assembly collides with the feed mechanism at a collision point radially positioned inside of an outer diameter of the headstock , characterized by the radial position of the collision point being adjustable relative to the at least one tool module such that the collision point is repositionable independent of the at least one tool module . 1) a support housing adapted to be mounted on a work piece; 2) a headstock rotatably mounted on the support housing ; 3) at least one tool module mounted to the headstock and including a tool feed system having a tool holder and a feed mechanism operatively connected to the tool holder ; and 4) a tripper pin assembly mounted on the support housing and arranged to collide with the feed mechanism for advancement of the tool holder relative to the work piece; wherein the tripper pin assembly collides with the feed mechanism at a collision point radially positioned inside of an outer diameter of the headstock , characterized by the radial position of the collision point being adjustable relative to the at least one tool module such that the collision point is repositionable independent of the at least one tool module .
A wearable lower back assistance device worn by a user, comprising: an upper-body interface with a front and a rear side; a lower-body interface with a front side and a rear side; one or more elastic members , each of the elastic members mechanically coupling the upper-body interface to the lower-body interface and extending from the rear side of the upper-body interface to the rear side of the lower-body interface and along a back of the user so as to provide an assistive force parallel to the back of the user; wherein each of the elastic members comprises a first elastic portion and a second elastic portion connected in series, where the first elastic portion is connected to the upper-body interface and where the second elastic portion is connected to the lower-body interface , each of the first elastic portion and the second elastic portion having a different stiffness; characterized in further comprising a clutch mechanism associated with each one of the elastic members , the clutch mechanism configured for selectively adjusting the assistive force provided by the one or more of the elastic members by selectively engaging and disengaging with the one of the elastic member at a point between the first elastic portion and the second elastic portion . an upper-body interface with a front and a rear side; a lower-body interface with a front side and a rear side; one or more elastic members , each of the elastic members mechanically coupling the upper-body interface to the lower-body interface and extending from the rear side of the upper-body interface to the rear side of the lower-body interface and along a back of the user so as to provide an assistive force parallel to the back of the user; wherein each of the elastic members comprises a first elastic portion and a second elastic portion connected in series, where the first elastic portion is connected to the upper-body interface and where the second elastic portion is connected to the lower-body interface , each of the first elastic portion and the second elastic portion having a different stiffness; characterized in further comprising a clutch mechanism associated with each one of the elastic members , the clutch mechanism configured for selectively adjusting the assistive force provided by the one or more of the elastic members by selectively engaging and disengaging with the one of the elastic member at a point between the first elastic portion and the second elastic portion .
A method for quantifying a therapeutic anti-TNF antibody in a sample of a human individual comprising the steps of : a) adding to a test sample which may contain therapeutic anti-TNF antibodies a known amount of two or more labeled forms of said anti-TNF antibodies selected in a group comprising Infliximab, Etanercept, Adalimumab, Certolizumab and Golimumab, whereby a pre-proteolysis sample is provided, b) subjecting the pre-proteolysis sample to an enzyme proteolysis, so as to provide a proteolysis sample comprising (i) proteolysis labeled peptides derived from the labeled anti-TNF antibodies and (ii) proteolysis peptides derived from the anti-TNF antibody contained in the test sample, c) determining by mass spectrometric analysis the ratio between (i) one or more selected proteolysis labeled peptides and (ii) one or more corresponding proteolysis peptides derived from the said anti-TNF antibody, d) calculating from the ratio determined at step c) the amount of the said anti-TNF antibody in the test sample. a) adding to a test sample which may contain therapeutic anti-TNF antibodies a known amount of two or more labeled forms of said anti-TNF antibodies selected in a group comprising Infliximab, Etanercept, Adalimumab, Certolizumab and Golimumab, whereby a pre-proteolysis sample is provided, b) subjecting the pre-proteolysis sample to an enzyme proteolysis, so as to provide a proteolysis sample comprising (i) proteolysis labeled peptides derived from the labeled anti-TNF antibodies and (ii) proteolysis peptides derived from the anti-TNF antibody contained in the test sample, c) determining by mass spectrometric analysis the ratio between (i) one or more selected proteolysis labeled peptides and (ii) one or more corresponding proteolysis peptides derived from the said anti-TNF antibody, d) calculating from the ratio determined at step c) the amount of the said anti-TNF antibody in the test sample.
A process for producing a laminated foam sheet having a polyethylene-based resin foam layer and a polyethylene-based resin antistatic layer laminated on at least one side of the foam layer, comprising the steps of: providing a first melt containing a polyethylene-based resin (PE-1) and a physical blowing agent, providing a second melt containing a polyethylene-based resin (PE-2), an ionomer resin as a polymeric antistatic agent and a volatile plasticizer, and coextruding the first and second melts to form the laminated foam sheet in which the polyethylene-based resin foam layer and the polyethylene-based resin antistatic layer are formed from the first and second melts, respectively, wherein the volatile plasticizer is composed of a blend of a component (A) which is at least one alcohol having a boiling point of 120°C or less and a component (B) which is at least one selected from the group consisting of saturated hydrocarbons having 3 to 5 carbon atoms and dialkyl ethers in which each alkyl has 1 to 3 carbon atoms, wherein a molar ratio of the component (A) to the component (B) is 5:95 to 95:5, wherein the volatile plasticizer is present in the second melt in an amount of 0.1 to 10 mols per kg of the total weight of the polyethylene-based resin (PE-2) and the ionomer resin; and wherein the component (A) is present in the second melt in an amount of 1 to 25 mols per kg of the ionomer resin providing a first melt containing a polyethylene-based resin (PE-1) and a physical blowing agent, providing a second melt containing a polyethylene-based resin (PE-2), an ionomer resin as a polymeric antistatic agent and a volatile plasticizer, and coextruding the first and second melts to form the laminated foam sheet in which the polyethylene-based resin foam layer and the polyethylene-based resin antistatic layer are formed from the first and second melts, respectively, wherein the volatile plasticizer is composed of a blend of a component (A) which is at least one alcohol having a boiling point of 120°C or less and a component (B) which is at least one selected from the group consisting of saturated hydrocarbons having 3 to 5 carbon atoms and dialkyl ethers in which each alkyl has 1 to 3 carbon atoms, wherein a molar ratio of the component (A) to the component (B) is 5:95 to 95:5, wherein the volatile plasticizer is present in the second melt in an amount of 0.1 to 10 mols per kg of the total weight of the polyethylene-based resin (PE-2) and the ionomer resin; and wherein the component (A) is present in the second melt in an amount of 1 to 25 mols per kg of the ionomer resin