mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication at a user equipment, UE, comprising: receiving , based at least in part on an occurrence of a triggering event associated with the UE, a trigger signal that identifies resources to be used for transmission of an aperiodic tracking reference signal, TRS, wherein the aperiodic TRS comprises a channel state information reference signal, CSI-RS, for tracking; receiving the aperiodic TRS based at least in part on the trigger signal and the identified resources; and performing at least one of a tracking function, or a synchronization function, or an alignment function, or a combination thereof, in response to the occurrence of the triggering event and based at least in part on the aperiodic TRS; wherein the triggering event comprises a beam change event, and the trigger signal comprises an indication of resources for a beam being activated in the beam change event. receiving , based at least in part on an occurrence of a triggering event associated with the UE, a trigger signal that identifies resources to be used for transmission of an aperiodic tracking reference signal, TRS, wherein the aperiodic TRS comprises a channel state information reference signal, CSI-RS, for tracking; receiving the aperiodic TRS based at least in part on the trigger signal and the identified resources; and performing at least one of a tracking function, or a synchronization function, or an alignment function, or a combination thereof, in response to the occurrence of the triggering event and based at least in part on the aperiodic TRS; wherein the triggering event comprises a beam change event, and the trigger signal comprises an indication of resources for a beam being activated in the beam change event.
A light fixture comprising: • a light source assembly comprising at least two light sources , which are configured to generate visible light radiation of different colours; • an optical device configured to process at least a portion of the light radiation emitted by the light source assembly so as to form a light beam extending substantially along an optical axis (O);at least one gobos device located downstream of the optical device and configured to selectively intercept the light beam; the gobos device comprising: at least one gobos-holder disc movable between several positions and rotating around a first respective axis of rotation (B); at least one gobo movable between several positions and rotating around a second respective axis of rotation (C1...Cn); a first motor configured to move the at least one gobos-holder disc ; and a second motor configured to move the at least one gobo ; the second motor being a step motor; the light fixture comprising a control device configured to control the activation of each light source and the intensity of the light radiation emitted by each light source on the basis of the angular position of the second motor moving the at least one gobo that the light beam, in use, passes through. • a light source assembly comprising at least two light sources , which are configured to generate visible light radiation of different colours; • an optical device configured to process at least a portion of the light radiation emitted by the light source assembly so as to form a light beam extending substantially along an optical axis (O);at least one gobos device located downstream of the optical device and configured to selectively intercept the light beam; the gobos device comprising: at least one gobos-holder disc movable between several positions and rotating around a first respective axis of rotation (B); at least one gobo movable between several positions and rotating around a second respective axis of rotation (C1...Cn); a first motor configured to move the at least one gobos-holder disc ; and a second motor configured to move the at least one gobo ; the second motor being a step motor; at least one gobos-holder disc movable between several positions and rotating around a first respective axis of rotation (B); at least one gobo movable between several positions and rotating around a second respective axis of rotation (C1...Cn); a first motor configured to move the at least one gobos-holder disc ; and a second motor configured to move the at least one gobo ; the second motor being a step motor;
An optical camera lens, comprising a first camera lens component including a first lens barrel and at least one first lens mounted in the first lens barrel ; a second camera lens component including a second lens barrel and at least one second lens mounted in the second lens barrel , and the at least one first lens and the at least one second lens together constituting an imageable optical system, characterized in that the at least one first lens and the at least one second lens have at least one asymmetric free-form surface lens , respectively; wherein said free-form surface lenses have a directivity on a plane perpendicular to their thickness direction; and a connecting medium adapted to fix the first camera lens component and the second camera lens component together, wherein a relative position between the first camera lens component and the second camera lens component is adjusted in such a way that the facial form directions of the free-form surface lenses complement with each other. a first camera lens component including a first lens barrel and at least one first lens mounted in the first lens barrel ; a second camera lens component including a second lens barrel and at least one second lens mounted in the second lens barrel , and the at least one first lens and the at least one second lens together constituting an imageable optical system, characterized in that the at least one first lens and the at least one second lens have at least one asymmetric free-form surface lens , respectively; wherein said free-form surface lenses have a directivity on a plane perpendicular to their thickness direction; and a connecting medium adapted to fix the first camera lens component and the second camera lens component together, wherein a relative position between the first camera lens component and the second camera lens component is adjusted in such a way that the facial form directions of the free-form surface lenses complement with each other.
Resin line formed from a corrugated pipe with individual through-openings arranged around the circumference in the wall , which has a non-rotationally symmetrical cross-sectional shape transversely to the longitudinal center axis , at least in sections of the fully closed wall of the corrugated pipe , in which cross-sectional shape the wall is divided into a first part having a flattened base extending over the length of the corrugated pipe in a direction transverse to the longitudinal center axis , and a second part having an arcuate shape extending over the length of the corrugated pipe transversely to the longitudinal center axis into the height (H), and the width (B) of the cross-sectional shape, with the flattened base as the first part of the wall , is greater than the height (H) of the second part of the wall formed by the arcuate shape , characterized in that in the form of the flattened base uneven formations are present which form at least one flow channel pointing away from the through-opening on the outer side of the corrugated pipe.
A method for generating a binaural signal in response to a set of channels of a multi-channel audio input signal, the method comprising: applying a binaural room impulse response, BRIR (12,...,15) DRIR, to each channel of the set, thereby generating filtered signals; and combining the filtered signals to generate the binaural signal, wherein applying the BRIR to each channel of the set comprises using a late reverberation generator to apply, in response to a reverberation time asserted to the late reverberation generator , a common late reverberation portion to a downmix of the channels of the set, wherein the common late reverberation portion emulates collective macro attributes of late reverberation portions of at least some of the channel BRIRs, and wherein the downmix is a two-channel downmix and left-side channels of the multi-channel audio input signal are panned to a left channel of the downmix, and wherein right-side channels of the multi-channel audio input signal are panned to a right channel of the downmix. applying a binaural room impulse response, BRIR (12,...,15) DRIR, to each channel of the set, thereby generating filtered signals; and combining the filtered signals to generate the binaural signal, wherein applying the BRIR to each channel of the set comprises using a late reverberation generator to apply, in response to a reverberation time asserted to the late reverberation generator , a common late reverberation portion to a downmix of the channels of the set, wherein the common late reverberation portion emulates collective macro attributes of late reverberation portions of at least some of the channel BRIRs, and wherein the downmix is a two-channel downmix and left-side channels of the multi-channel audio input signal are panned to a left channel of the downmix, and wherein right-side channels of the multi-channel audio input signal are panned to a right channel of the downmix.
A polypeptide construct comprising an interferon (IFN) linked to an antibody or antigen binding portion thereof which binds to a cell surface-associated antigen, wherein the IFN is an attenuated interferon α (IFNα) comprising, relative to wildtype, a mutation as depicted in an amino acid sequence selected from the group consisting of R144A (SEQ ID NO:30), R144S (SEQ ID NO:40), R144T (SEQ ID NO:41), R144Y (SEQ ID NO:43), R144I (SEQ ID NO:35), R144L (SEQ ID NO:37), A145D (SEQ ID NO:44), A145H (SEQ ID NO:47), A145Y (SEQ ID NO:58), A145K (SEQ ID NO:49), R33A+YNS (SEQ ID NO:65), R33A (SEQ ID NO:16) and R144A+YNS (SEQ ID NO:68).
A sawhorse comprising: a body portion including an elongated portion , a first housing and a second housing , wherein the elongated portion is disposed between the first housing and the second housing ; a first pair of legs pivotally attached to the first housing at one end and comprising, at a distal end, a first bearing surface that defines an opening, and wherein said first pair of legs is movable between an open position wherein the first pair of legs is configured to support the body portion and a folded position, wherein the first bearing surface is disposed in the second housing ; a second pair of legs pivotally attached to the second housing at one end and comprising, at a distal end, a second bearing surface that defines an opening, and wherein said second pair of legs is movable between an open position wherein the second pair of legs is configured to support the body portion , and a folded position, wherein the second bearing surface is disposed in the first housing ; and characterized in that at least one latch pin , disposed in either the first housing or the second housing and biased by a biasing means that is configured to bias the latch pin into engagement with the opening defined by either the first bearing surface or the second bearing surface when the respective first pair of legs or second pair of legs are in their folded position. a body portion including an elongated portion , a first housing and a second housing , wherein the elongated portion is disposed between the first housing and the second housing ; a first pair of legs pivotally attached to the first housing at one end and comprising, at a distal end, a first bearing surface that defines an opening, and wherein said first pair of legs is movable between an open position wherein the first pair of legs is configured to support the body portion and a folded position, wherein the first bearing surface is disposed in the second housing ; a second pair of legs pivotally attached to the second housing at one end and comprising, at a distal end, a second bearing surface that defines an opening, and wherein said second pair of legs is movable between an open position wherein the second pair of legs is configured to support the body portion , and a folded position, wherein the second bearing surface is disposed in the first housing ; and characterized in that at least one latch pin , disposed in either the first housing or the second housing and biased by a biasing means that is configured to bias the latch pin into engagement with the opening defined by either the first bearing surface or the second bearing surface when the respective first pair of legs or second pair of legs are in their folded position.
Catalytic burner arrangement comprising at least a catalytic burner unit with a housing having a reaction chamber in which a catalyst is arranged, wherein the catalyst is adapted to react a fuel, particularly a hydrogen containing fluid, with an oxidant, particularly air, for producing heat, said housing having a fluid inlet for supplying a fluid stream into the housing and a fluid outlet for exiting a fluid stream from the housing , and said catalytic burner arrangement further comprises a mixing unit forming a mixing chamber in which fuel and oxidant are mixed, wherein said mixing unit comprises a fuel inlet , an oxidant inlet and a fuel-oxidant- mixture outlet, wherein the fluid inlet of the catalytic burner unit merges with the fuel-oxidant- outlet of the mixing unit for transferring the fuel-oxidant-mixture from the mixing chamber to the reaction chamber of the catalytic burner unit , and wherein said fuel inlet of the mixing chamber is arranged upstream of said oxidant inlet of the mixing unit , wherein the fuel inlet and the oxidant inlet are arranged angled to a direction of a main fluid stream streaming through the fuel-oxidant-mixture outlet to the reaction chamber of the catalytic burner unit .
A method comprising: (a) isotopically labeling analytes in a sample using an isotopic ratio outlier analysis protocol; (b) separating the isotopically labeled analytes using chromatography; (c) generating a low energy fragmentation mass spectrum of parent ions of the isotopically labeled analytes and generating a high energy fragmentation mass spectrum of daughter ions of the parent ions, each mass spectrum generated using a mass spectrometer operating in data independent mode; (d) identifying at least one characteristic set of peaks in the low energy fragmentation mass spectrum corresponding to the parent ions of the isotopically labeled analytes; (e) identifying at least one characteristic set of peaks in the high energy fragmentation mass spectrum that are substantially similar to the characteristic set of peaks in the low energy fragmentation mass spectrum using retention time correlation and correspond to the daughter ions of the parent ions; and (f) determining a chemical structure of the ions of the isotopically labeled analytes from the combination of at least one characteristic set of peaks in the high fragmentation mass corresponding to the daughter ions of the parent ions and the at least one characteristic set of peaks in the low energy fragmentation mass corresponding to the parent ions of the isotopically labeled analytes, wherein the characteristic set of peaks in both the low and high energy fragmentation mass spectra is a set of isotopic peaks made up of two halves each having the mirror image of the other. (a) isotopically labeling analytes in a sample using an isotopic ratio outlier analysis protocol; (b) separating the isotopically labeled analytes using chromatography; (c) generating a low energy fragmentation mass spectrum of parent ions of the isotopically labeled analytes and generating a high energy fragmentation mass spectrum of daughter ions of the parent ions, each mass spectrum generated using a mass spectrometer operating in data independent mode; (d) identifying at least one characteristic set of peaks in the low energy fragmentation mass spectrum corresponding to the parent ions of the isotopically labeled analytes; (e) identifying at least one characteristic set of peaks in the high energy fragmentation mass spectrum that are substantially similar to the characteristic set of peaks in the low energy fragmentation mass spectrum using retention time correlation and correspond to the daughter ions of the parent ions; and (f) determining a chemical structure of the ions of the isotopically labeled analytes from the combination of at least one characteristic set of peaks in the high fragmentation mass corresponding to the daughter ions of the parent ions and the at least one characteristic set of peaks in the low energy fragmentation mass corresponding to the parent ions of the isotopically labeled analytes,
An image light guide for forming a virtual image (V1, V2), comprising: a waveguide ; an in-coupling diffractive optic (IDO) being disposed to direct image-bearing light beams (WI) into the waveguide ; an out-coupling diffractive optic (ODO) being disposed to direct the image-bearing light beams (WO) from the waveguide toward a viewer eyebox (74, E); characterised in that the out-coupling diffractive optic (ODO) includes a multi-dimensional array of zones (Z1 to Z12) each comprising a set of diffractive features, wherein the diffractive features within each set having a common pitch and/or a common orientation; and successive zones (Z) along a first dimension of the array having respective sets of diffractive features with a different common pitch that progressively varies between the successive zones (Z) in a stepwise manner for forming a virtual image (V1, V2) that is viewable from the eyebox (74, E) at a near focus distance (Q); wherein the sets of diffractive features in the successive zones (Z) along the first dimension are oriented in the same direction, and successive zones (Z) along a second of the dimensions of the array have respective sets of diffractive features that are oriented in different directions in a manner that progressively varies in a stepwise manner between the successive zones (Z) along the second dimension; and wherein the pitch of the diffractive features does not differ between the successive zones (Z) along the second dimension of the array. a waveguide ; an in-coupling diffractive optic (IDO) being disposed to direct image-bearing light beams (WI) into the waveguide ; an out-coupling diffractive optic (ODO) being disposed to direct the image-bearing light beams (WO) from the waveguide toward a viewer eyebox (74, E); the out-coupling diffractive optic (ODO) includes a multi-dimensional array of zones (Z1 to Z12) each comprising a set of diffractive features, wherein the diffractive features within each set having a common pitch and/or a common orientation; and successive zones (Z) along a first dimension of the array having respective sets of diffractive features with a different common pitch that progressively varies between the successive zones (Z) in a stepwise manner for forming a virtual image (V1, V2) that is viewable from the eyebox (74, E) at a near focus distance (Q); wherein the sets of diffractive features in the successive zones (Z) along the first dimension are oriented in the same direction, and successive zones (Z) along a second of the dimensions of the array have respective sets of diffractive features that are oriented in different directions in a manner that progressively varies in a stepwise manner between the successive zones (Z) along the second dimension; and wherein the pitch of the diffractive features does not differ between the successive zones (Z) along the second dimension of the array.
A computer-implemented method for generating an audio scene for an extended reality (XR) environment, the method comprising: determining that a first virtual sound source associated with the XR environment affects a sound in the audio scene; generating a sound component associated with the first virtual sound source based on a contribution of the first virtual sound source to the audio scene; mapping the sound component to a first loudspeaker included in a plurality of loudspeakers by computing a cost function to determine the contribution of the first virtual sound source to one or more loudspeakers included in the plurality of loudspeakers within the audio scene, wherein the cost function for the first loudspeaker is equal to the product of a frequency bias function that prioritizes spatialization of sound sources with a higher frequency and an absolute distance between an angle of the first virtual sound source and the first loudspeaker with respect to a user; and outputting at least a first portion of the sound component for playback on the first loudspeaker. determining that a first virtual sound source associated with the XR environment affects a sound in the audio scene; generating a sound component associated with the first virtual sound source based on a contribution of the first virtual sound source to the audio scene; mapping the sound component to a first loudspeaker included in a plurality of loudspeakers by computing a cost function to determine the contribution of the first virtual sound source to one or more loudspeakers included in the plurality of loudspeakers within the audio scene, wherein the cost function for the first loudspeaker is equal to the product of a frequency bias function that prioritizes spatialization of sound sources with a higher frequency and an absolute distance between an angle of the first virtual sound source and the first loudspeaker with respect to a user; and a frequency bias function that prioritizes spatialization of sound sources with a higher frequency and an absolute distance between an angle of the first virtual sound source and the first loudspeaker with respect to a user; and outputting at least a first portion of the sound component for playback on the first loudspeaker.
A device comprising: a relay element including a first surface and a second surface, the relay element being formed of one or more of a first structure and one or more of a second structure , the first structure having a first index of refraction and the second structure having a second index of refraction, the relay element configured to relay light therethrough; wherein, along a transverse orientation the first structure and the second structure are arranged in an interleaving configuration with spatial variability; and wherein, along a longitudinal orientation the first structure and the second structure have substantially similar configuration such that a variability between the first index of refraction and the second index of refraction results in the light relayed by the relay element being spatially localized in the transverse orientation; and wherein a transverse plane of the relay element further comprises a third structure that does not extend in a stranded structure in a longitudinal direction so as to control the transmission of stray light in a more randomized manner than a stranded structure. a relay element including a first surface and a second surface, the relay element being formed of one or more of a first structure and one or more of a second structure , the first structure having a first index of refraction and the second structure having a second index of refraction, the relay element configured to relay light therethrough; wherein, along a transverse orientation the first structure and the second structure are arranged in an interleaving configuration with spatial variability; and wherein, along a longitudinal orientation the first structure and the second structure have substantially similar configuration such that a variability between the first index of refraction and the second index of refraction results in the light relayed by the relay element being spatially localized in the transverse orientation; and wherein a transverse plane of the relay element further comprises a third structure that does not extend in a stranded structure in a longitudinal direction so as to control the transmission of stray light in a more randomized manner than a stranded structure.