mhurhangee/ep-ind-claims huggingface dataset:
An audio renderer for rendering a multi-channel audio signal having M channels to a portable device having S independent speakers, wherein S < M, comprising: a first matrix application module for applying a primary rendering matrix to the input audio signal to provide a first pre-rendered signal suitable for playback on the multiple independent speakers, a second matrix application module for applying a secondary rendering matrix to the input audio signal to provide a second pre-rendered signal suitable for playback on the multiple independent speakers, characterised by: a channel analysis module configured to calculate mixing gain according to a time-varying channel distribution, and a mixing module configured to produce a rendered output signal by mixing the first and second pre-rendered signals based on the mixing gain, wherein the channel analysis module determines the mixing gain based on an energy distribution among the input channels and/or a diffuseness distribution among the input channels. a first matrix application module for applying a primary rendering matrix to the input audio signal to provide a first pre-rendered signal suitable for playback on the multiple independent speakers, a second matrix application module for applying a secondary rendering matrix to the input audio signal to provide a second pre-rendered signal suitable for playback on the multiple independent speakers, characterised by: a channel analysis module configured to calculate mixing gain according to a time-varying channel distribution, and a mixing module configured to produce a rendered output signal by mixing the first and second pre-rendered signals based on the mixing gain, wherein the channel analysis module determines the mixing gain based on an energy distribution among the input channels and/or a diffuseness distribution among the input channels. a channel analysis module configured to calculate mixing gain according to a time-varying channel distribution, and a mixing module configured to produce a rendered output signal by mixing the first and second pre-rendered signals based on the mixing gain, wherein the channel analysis module determines the mixing gain based on an energy distribution among the input channels and/or a diffuseness distribution among the input channels.
Mechanical part designed for holding an oscillating mass of a watch movement for mechanical watch with automatic winding, comprising a ball bearing with three or four contact points, wherein said bearing comprises: a plurality of balls of ceramics; an inner ring of ceramics and two outer rings of ceramics, wherein said inner and outer rings define between them a rolling path for said balls so that each ball is in contact with said rings in three or four points, and an outer sleeve wherein said external rings are housed, wherein said outer rings (40, 41) can be put in rotation and held by said outer sleeve, wherein said external sleeve is arranged so as to allow an oscillating mass to be fastened via a nut or a bolt or by crimping, wherein said outer sleeve is provided with a peripheral toothing on its outer periphery designed to mesh with a geartrain of a watch movement. a plurality of balls of ceramics; an inner ring of ceramics and two outer rings of ceramics, wherein said inner and outer rings define between them a rolling path for said balls so that each ball is in contact with said rings in three or four points, and an outer sleeve wherein said external rings are housed, wherein said outer rings (40, 41) can be put in rotation and held by said outer sleeve, wherein said external sleeve is arranged so as to allow an oscillating mass to be fastened via a nut or a bolt or by crimping, wherein said outer sleeve is provided with a peripheral toothing on its outer periphery designed to mesh with a geartrain of a watch movement.
An apparatus comprising: a waveguide including: a feed portion; a mode combiner portion; a mode transition portion located between the feed portion and the mode combiner portion; a waveguide wall having a first end and a second end and having a shape associated with a dominant propagation mode; an interior region that has a constant cross-sectional area along the entire length of the waveguide; and a first dielectric material having a cross-sectional area that varies along a length of the mode transition portion of the waveguide, wherein a first interior region of the mode combiner portion has a lower permittivity than a second interior region of the mode transition portion; wherein the mode combiner has a length causing energy propagating in the dominant propagation mode and energy propagating in the second propagation mode to have a particular phase difference at the second end which particular phase difference results in cancellation of longitudinal edge current; and wherein the waveguide further comprises an index matcher comprising a second dielectric material, the index matcher disposed at the second end of the waveguide and the mode combiner portion located between the index matcher and the mode transition portion. a waveguide including: a feed portion; a mode combiner portion; a mode transition portion located between the feed portion and the mode combiner portion; a waveguide wall having a first end and a second end and having a shape associated with a dominant propagation mode; an interior region that has a constant cross-sectional area along the entire length of the waveguide; and a first dielectric material having a cross-sectional area that varies along a length of the mode transition portion of the waveguide, wherein a first interior region of the mode combiner portion has a lower permittivity than a second interior region of the mode transition portion; a feed portion; a mode combiner portion; a mode transition portion located between the feed portion and the mode combiner portion; a waveguide wall having a first end and a second end and having a shape associated with a dominant propagation mode; an interior region that has a constant cross-sectional area along the entire length of the waveguide; and a first dielectric material having a cross-sectional area that varies along a length of the mode transition portion of the waveguide, wherein a first interior region of the mode combiner portion has a lower permittivity than a second interior region of the mode transition portion; wherein the mode combiner has a length causing energy propagating in the dominant propagation mode and energy propagating in the second propagation mode to have a particular phase difference at the second end which particular phase difference results in cancellation of longitudinal edge current; and wherein the waveguide further comprises an index matcher comprising a second dielectric material, the index matcher disposed at the second end of the waveguide and the mode combiner portion located between the index matcher and the mode transition portion.
A user apparatus in a mobile communication system including a first base station (MeNB) and a second base station (SeNB) that perform communication with the user apparatus by inter-base station carrier aggregation, comprising: a transmission trigger detection unit configured to detect a transmission trigger for transmitting uplink transmission power information in the user apparatus to the first base station (MeNB) or to the second base station (SeNB); and an uplink transmission power information transmission unit configured to transmit the uplink transmission power information to the first base station (MeNB) or to the second base station (SeNB) based on a transmission trigger detected by the transmission trigger detection unit, wherein the transmission trigger detection unit is configured to detect, as the transmission trigger, that a first cell, PSCell, under the second base station (SeNB) is added in the user apparatus after a primary cell under the first base station (MeNB) is configured in the user apparatus. a transmission trigger detection unit configured to detect a transmission trigger for transmitting uplink transmission power information in the user apparatus to the first base station (MeNB) or to the second base station (SeNB); and an uplink transmission power information transmission unit configured to transmit the uplink transmission power information to the first base station (MeNB) or to the second base station (SeNB) based on a transmission trigger detected by the transmission trigger detection unit, wherein the transmission trigger detection unit is configured to detect, as the transmission trigger, that a first cell, PSCell, under the second base station (SeNB) is added in the user apparatus after a primary cell under the first base station (MeNB) is configured in the user apparatus.
A method of chemical analysis, comprising: providing a complex sample comprising at least a first polypeptide and a second polypeptide; fractionating the complex sample into at least a first sample portion and a second sample portion that each include portions of the two polypeptides though in different concentration ratios; wherein fractionating comprises partially separating the at least two polypeptides, wherein the at least two polypeptides exhibit a peak overlap, and oversampling the overlapping peak, digesting the first sample portion; performing LC/MS on the digested first sample portion to observe intensities of precursor ions associated with the first and second polypeptides in the first sample portion; digesting the second sample portion; performing LC/MS on the digested second sample portion to observe intensities of precursor ions associated with the first and second polypeptides in the second sample portion; and associating precursor ions with their corresponding one of the first and second polypeptides in response to ratios of the observed intensities of the precursor ions in the first and second sample portions. providing a complex sample comprising at least a first polypeptide and a second polypeptide; fractionating the complex sample into at least a first sample portion and a second sample portion that each include portions of the two polypeptides though in different concentration ratios; wherein fractionating comprises partially separating the at least two polypeptides, wherein the at least two polypeptides exhibit a peak overlap, and oversampling the overlapping peak, partially separating the at least two polypeptides, wherein the at least two polypeptides exhibit a peak overlap, and oversampling the overlapping peak, digesting the first sample portion; performing LC/MS on the digested first sample portion to observe intensities of precursor ions associated with the first and second polypeptides in the first sample portion; digesting the second sample portion; performing LC/MS on the digested second sample portion to observe intensities of precursor ions associated with the first and second polypeptides in the second sample portion; and associating precursor ions with their corresponding one of the first and second polypeptides in response to ratios of the observed intensities of the precursor ions in the first and second sample portions.
A method for actuating a clutch of a hybrid drive train by means of an actuating device, wherein the actuating device has an electrical actuator unit which acts, by means of a sliding element, in an adjusting manner on an actuation bearing, which in turn is or can be kinematically coupled to a control element of the clutch, wherein a pre-load point, at which the actuation bearing is pressed against the control element with a minimum sliding force, is determined such that, firstly, the sliding element is moved over a displacement path, in which the pre-load point is theoretically located, while creating an actual characteristic curve that describes the behaviour of a physical movement characteristic of the sliding element, then the actual characteristic curve is compared with a target characteristic curve stored for said displacement path, and the pre-load point is defined at the point along the actual characteristic curve that has no or the smallest deviation from a comparison point of the target characteristic curve.
A method for data transmission in a multiple antenna system, the method comprising: generating mapping symbols by mapping modulation symbols for a first codeword and modulation symbols for a second codeword to a plurality of layers; and transmitting the mapping symbols through a plurality of antennas, characterized in that when the number of the plurality of layers is 5, 6, 7 or 8, the modulation symbols for the first codeword and the modulation symbols for the second codeword are mapped to layers according to the following table: Number of the plurality of layers Number of codewords Codeword-to-layer mapping i = 0, 1,..., M layer symb -1, M layer symb: a number of modulation symbols for each layer of the plurality of layers 5 2 x (i)=d M layer symb =M symb /2=M symb /3 x (i)=d (2i+1) x (i)=d x (i)=d (3i+1) x (i)=d (3i+2) 6 2 x (i)=d M layer symb =M symb /3=M symb /3 x (i)=d (3i+1) x (i)=d (3i+2) x (i)=d x (i)=d (3i+1) x (i)=d (3i+2) 7 2 x (i)=d M layer symb =M symb /3=M symb /4 x (i)=d (3i+1) x (i)=d (3i+2) x (i)=d x (i)=d (4i+1) x (i)=d (4i+2) x (i)=d (4i+3) 8 2 x (i)=d M layer symb =M symb /4=M symb /4 x (i)=d (4i+1) x (i)=d (4i+2) x (i)=d (4i+3) x (i)=d x (i)=d (4i+1) x (i)=d (4i+2) x (i)=d (4i+3) wherein in the above table, d (i) is the modulation symbols for the first codeword, d (i) is the modulation symbols for the second codeword, x (n) (i) is mapping symbols mapped to layer n, M symb is a number of modulation symbols for the first codeword and M symb is a number of modulation symbols for the second codeword. generating mapping symbols by mapping modulation symbols for a first codeword and modulation symbols for a second codeword to a plurality of layers; and transmitting the mapping symbols through a plurality of antennas, characterized in that when the number of the plurality of layers is 5, 6, 7 or 8, the modulation symbols for the first codeword and the modulation symbols for the second codeword are mapped to layers according to the following table: Number of the plurality of layers Number of codewords Codeword-to-layer mapping i = 0, 1,..., M layer symb -1, M layer symb: a number of modulation symbols for each layer of the plurality of layers 5 2 x (i)=d M layer symb =M symb /2=M symb /3 x (i)=d (2i+1) x (i)=d x (i)=d (3i+1) x (i)=d (3i+2) 6 2 x (i)=d M layer symb =M symb /3=M symb /3 x (i)=d (3i+1) x (i)=d (3i+2) x (i)=d x (i)=d (3i+1) x (i)=d (3i+2) 7 2 x (i)=d M layer symb =M symb /3=M symb /4 x (i)=d (3i+1) x (i)=d (3i+2) x (i)=d x (i)=d (4i+1) x (i)=d (4i+2) x (i)=d (4i+3) 8 2 x (i)=d M layer symb =M symb /4=M symb /4 x (i)=d (4i+1) x (i)=d (4i+2) x (i)=d (4i+3) x (i)=d x (i)=d (4i+1) x (i)=d (4i+2) x (i)=d (4i+3) wherein in the above table, d (i) is the modulation symbols for the first codeword, d (i) is the modulation symbols for the second codeword, x (n) (i) is mapping symbols mapped to layer n, M symb is a number of modulation symbols for the first codeword and M symb is a number of modulation symbols for the second codeword.
An apparatus (20, 20') for conveying food products (19, 27), in particular a portioning conveying unit, comprising at least one conveying device which is configured to convey food products (19, 27) located on a product support surface along a product conveying direction, wherein the conveying device is adjustable with respect to a stationary base of the apparatus, wherein an adjustment device is provided for adjusting the conveying device, said adjustment device comprising at least one first articulated arm arrangement and one second articulated arm arrangement spaced apart therefrom, characterized in that the first and the second articulated arm arrangements (37A, 37B) each comprise at least one first articulated arm (40A, 40B) pivotally connected to the base and one second articulated arm (41A, 41B) pivotally connected to the conveying device, wherein mutually corresponding articulated arms (40A, 40B, 41A, 41B) of the first and the second articulated arm arrangements (37A, 37B) are pivotable in an opposing sense and/or in the same sense about respective parallel pivot axes; wherein a third articulated arm arrangement is provided which comprises at least one first articulated arm pivotally connected to the base and one second articulated arm pivotally connected to the conveying device, and wherein the first and/or the second articulated arms (40A, 41A) of the first articulated arm arrangement, the first articulated arm of the third articulated arm arrangement and the second articulated arm of the third articulated arm arrangement are pivotally connected to a common rigid coupling element.
A pharmaceutical composition for use in a method of treating a subject having or at risk of developing cancer, characterized in that said composition comprises: a) Eribulin or a pharmaceutically acceptable salt thereof and wherein the composition is for administration to the subject with lenvatinib or a pharmaceutically acceptable salt thereof; or b) Lenvatinib or a pharmaceutically acceptable salt thereof and wherein the composition is for administration to the subject with eribulin or a pharmaceutically acceptable salt thereof. a) Eribulin or a pharmaceutically acceptable salt thereof and wherein the composition is for administration to the subject with lenvatinib or a pharmaceutically acceptable salt thereof; or b) Lenvatinib or a pharmaceutically acceptable salt thereof and wherein the composition is for administration to the subject with eribulin or a pharmaceutically acceptable salt thereof.
A flat lighting module comprising: a frame including a base and an extension portion extending from the base; a light source unit placed on the base, wherein the light source unit includes a plurality of light emitting devices; and a diffusion plate placed on the light source unit, wherein a light emitting device that is the closest to the extension portion among the plurality of the light emitting devices of the light source unit is disposed separately from the extension portion at a predetermined interval, characterized in that the extension portion of the frame comprises at least one locking hole, wherein the diffusion plate comprises at least one locking projection, wherein the locking projection of the diffusion plate is coupled to the locking hole of the extension portion of the frame, wherein the flat lighting module further comprises: a socket disposed on the rear side of the base for the purpose of supplying electric power to the light source unit; and at least one guide disposed around the socket, wherein a distance from a first end to a second end of the guide is greater than a distance from a first end to a second end of the socket measured perpendicularly to the base. a frame including a base and an extension portion extending from the base; a light source unit placed on the base, wherein the light source unit includes a plurality of light emitting devices; and a diffusion plate placed on the light source unit, wherein a light emitting device that is the closest to the extension portion among the plurality of the light emitting devices of the light source unit is disposed separately from the extension portion at a predetermined interval, characterized in that the extension portion of the frame comprises at least one locking hole, wherein the diffusion plate comprises at least one locking projection, wherein the locking projection of the diffusion plate is coupled to the locking hole of the extension portion of the frame, wherein the flat lighting module further comprises: a socket disposed on the rear side of the base for the purpose of supplying electric power to the light source unit; and at least one guide disposed around the socket, wherein a distance from a first end to a second end of the guide is greater than a distance from a first end to a second end of the socket measured perpendicularly to the base. a socket disposed on the rear side of the base for the purpose of supplying electric power to the light source unit; and at least one guide disposed around the socket, wherein a distance from a first end to a second end of the guide is greater than a distance from a first end to a second end of the socket measured perpendicularly to the base.
An ink film construction comprising: (a) a first printing substrate selected from the group consisting of an uncoated fibrous printing substrate, a commodity coated fibrous printing substrate, and a plastic printing substrate; and (b) an ink dot set contained within a square geometric projection projecting on said first printing substrate, said ink dot set containing at least 10 distinct ink dots, fixedly adhered to a surface of said first printing substrate, all said ink dots within said square geometric projection being counted as individual members of said set, each of said ink dots containing at least one colorant dispersed in an organic polymeric resin, wherein a weight ratio of said polymeric resin to said colorant within said ink dots is at least 1.5:1 and wherein said polymeric resin has a glass transition temperature (Tg) below 47°C, each of said dots having an average thickness of 100 to 1,200nm, and a diameter of 5 to 300 micrometers; each ink dot of said ink dots having a generally convex shape in which a deviation from convexity, ( DC dot), is defined by: DC dot = 1 − AA / CSA, AA being a calculated projected area of said dot, said area disposed generally parallel to said first fibrous printing substrate; and CSA being a surface area of a convex shape that minimally bounds a contour of said projected area; wherein a mean deviation from convexity ( DC dot mean) of said ink dot set is at most 0.05. (a) a first printing substrate selected from the group consisting of an uncoated fibrous printing substrate, a commodity coated fibrous printing substrate, and a plastic printing substrate; and (b) an ink dot set contained within a square geometric projection projecting on said first printing substrate, said ink dot set containing at least 10 distinct ink dots, fixedly adhered to a surface of said first printing substrate, all said ink dots within said square geometric projection being counted as individual members of said set, each of said ink dots containing at least one colorant dispersed in an organic polymeric resin, wherein a weight ratio of said polymeric resin to said colorant within said ink dots is at least 1.5:1 and wherein said polymeric resin has a glass transition temperature (Tg) below 47°C, each of said dots having an average thickness of 100 to 1,200nm, and a diameter of 5 to 300 micrometers;