mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications, comprising: partitioning, at a first wireless device in an integrated access and backhaul communications network, resources allocated to the first wireless device into a first set of time-frequency resources reserved for communications of control traffic, and a second set of time-frequency resources reserved for communications of data traffic; repurposing a subset of the second set of time-frequency resources for communications of the control traffic based at least in part on receiving an unscheduled control traffic transmission at the first wireless device; communicating with a second wireless device in the integrated access and backhaul communications network via a first channel associated with the control traffic using the first set of time-frequency resources and the repurposed subset of the second set of time-frequency resources; and communicating with a network node in the integrated access and backhaul communications network via a second channel associated with the data traffic using the second set of time-frequency resources. partitioning, at a first wireless device in an integrated access and backhaul communications network, resources allocated to the first wireless device into a first set of time-frequency resources reserved for communications of control traffic, and a second set of time-frequency resources reserved for communications of data traffic; repurposing a subset of the second set of time-frequency resources for communications of the control traffic based at least in part on receiving an unscheduled control traffic transmission at the first wireless device; communicating with a second wireless device in the integrated access and backhaul communications network via a first channel associated with the control traffic using the first set of time-frequency resources and the repurposed subset of the second set of time-frequency resources; and communicating with a network node in the integrated access and backhaul communications network via a second channel associated with the data traffic using the second set of time-frequency resources.
Air mass measuring apparatus for a vehicle, having the following features: a carrier element (220, 222); an air mass sensor for providing air mass data, wherein the air mass sensor is arranged on the carrier element (220, 222); at least one further sensor (226, 326) for providing further sensor data, wherein the at least one further sensor (226, 326) is arranged on the carrier element (220, 222); and an evaluation circuit having a first input interface for receiving the air mass data, at least one second input interface (464, 466) for receiving the further sensor data, and an output interface, wherein the evaluation circuit is arranged and formed on the carrier element (220, 222), characterized in that the evaluation circuit is designed to combine the air mass data and the further sensor data with one another according to a transmission protocol of the output interface and to provide them as bundled sensor data via the output interface. a carrier element (220, 222); an air mass sensor for providing air mass data, wherein the air mass sensor is arranged on the carrier element (220, 222); at least one further sensor (226, 326) for providing further sensor data, wherein the at least one further sensor (226, 326) is arranged on the carrier element (220, 222); and an evaluation circuit having a first input interface for receiving the air mass data, at least one second input interface (464, 466) for receiving the further sensor data, and an output interface, wherein the evaluation circuit is arranged and formed on the carrier element (220, 222), characterized in that the evaluation circuit is designed to combine the air mass data and the further sensor data with one another according to a transmission protocol of the output interface and to provide them as bundled sensor data via the output interface.
A rail system having a rail and mobile parts movable along the rail, in particular rail vehicles, wherein at the rail there is arranged a shaped part having a first cavity, which in particular opens to the surroundings at an opening, wherein regions of a mobile part, in particular each mobile part, at least partially project into the first cavity, wherein at least one transmitter and one receiver are arranged at the respective region, characterised in that the shaped part has a second cavity, wherein the first cavity and the second cavity extend parallel to one another, in particular are spaced apart from one another, wherein in the second cavity there are arranged a further transmitter and a further receiver of the mobile part. wherein at the rail there is arranged a shaped part having a first cavity, which in particular opens to the surroundings at an opening, wherein regions of a mobile part, in particular each mobile part, at least partially project into the first cavity, wherein at least one transmitter and one receiver are arranged at the respective region, characterised in that the shaped part has a second cavity, wherein the first cavity and the second cavity extend parallel to one another, in particular are spaced apart from one another, wherein in the second cavity there are arranged a further transmitter and a further receiver of the mobile part.
A method of operating an automated dialog system employing at least one hardware implemented processor and using a source language to conduct a real time human machine dialog process with a human user using a target language, said automated dialog system having language understanding capabilities and dialog management capabilities in a source language, said source language being a language of the automated dialog system, the method comprising: developing a statistical language model in the target language based on a statistical language model in the source language; receiving a user query in the target language; performing automatic speech recognition of the user query using said statistical language model in the target language; performing automatic machine translation of the speech-recognized user query into said source language; delivering an automated reply of the dialog process to the user in the target language, the reply being an automated human-machine dialog response to the user query; if the dialog process reaches an initial assistance state, providing a first human agent using the source language to interact in real time with the user in the target language by machine translation to continue the dialog process; and if the dialog process reaches a further assistance state, providing a second human agent using the target language to interact in real time with the user in the target language to continue the dialog process. developing a statistical language model in the target language based on a statistical language model in the source language; receiving a user query in the target language; performing automatic speech recognition of the user query using said statistical language model in the target language; performing automatic machine translation of the speech-recognized user query into said source language; delivering an automated reply of the dialog process to the user in the target language, the reply being an automated human-machine dialog response to the user query; if the dialog process reaches an initial assistance state, providing a first human agent using the source language to interact in real time with the user in the target language by machine translation to continue the dialog process; and if the dialog process reaches a further assistance state, providing a second human agent using the target language to interact in real time with the user in the target language to continue the dialog process.
A method for providing a frequency stabilized optical frequency comb, the method comprising: frequency stabilizing the optical frequency comb to a continuous wave laser that is frequency stabilized to an optical reference cavity; generating a low frequency electrical signal from the optical frequency comb; comparing the generated low frequency electrical signal to a reference low frequency electrical signal; determining an optical reference cavity drift based on the comparison; and then adjusting a frequency of the laser in response to the determined optical reference cavity drift. frequency stabilizing the optical frequency comb to a continuous wave laser that is frequency stabilized to an optical reference cavity; generating a low frequency electrical signal from the optical frequency comb; comparing the generated low frequency electrical signal to a reference low frequency electrical signal; determining an optical reference cavity drift based on the comparison; and then adjusting a frequency of the laser in response to the determined optical reference cavity drift.
A modified serpin for use in the treatment of a bradykinin-mediated disease, wherein the serpin has mutations in one or more of the P4, P3, P2, P1 and P1' residues of its reactive center loop, wherein the P1 residue is lysine or arginine, the P2 residue is not proline and wherein the P4 residue is serine, wherein the mutations increase the inhibition of plasma kallikrein as compared to the corresponding unmodified serpin, wherein the serpin more strongly inhibits PK than the serpin inhibits thrombin, wherein preferably, the serpin more strongly inhibits PK than the serpin inhibits activated protein C and wherein the serpin is α1-antitrypsin (α1AT) (SERPINA1).
A method ex-vivo for removing bacterial toxins selected from the list of lipopolysaccharide and lipoteichoic acid from a biological fluid, said method comprising contacting the biological fluid with the peptide KKIRVRLSA, which is covalently attached to a solid support through its C-terminus with the interposition of a linker, whereby a linker-peptide moiety is formed, wherein: - all amino acids of the peptide are either in the L- or the D-configuration - the peptide-linker moiety is a radical of the formula below wherein: R 1 -, R 2 -, R 3 -, R 4 -, R 5 -, R 6 -, R 7 - and R 8 -are KKIRVRLSA-; X 1, X 2, X 3, X 4, X 5, X 6 and X 7 are a lysine residue; w is nil, v is nil, p and q are nil, t is 1, m and n are nil or 1, provided that at least one of m and n is 1; Y is selected from the list of a beta-alanine residue, an N- y -CH2-CH2-C -residue wherein 1≤y ≤11 and a Cys residue. - all amino acids of the peptide are either in the L- or the D-configuration - the peptide-linker moiety is a radical of the formula below wherein: R 1 -, R 2 -, R 3 -, R 4 -, R 5 -, R 6 -, R 7 - and R 8 -are KKIRVRLSA-; X 1, X 2, X 3, X 4, X 5, X 6 and X 7 are a lysine residue; w is nil, v is nil, p and q are nil, t is 1, m and n are nil or 1, provided that at least one of m and n is 1; Y is selected from the list of a beta-alanine residue, an N- y -CH2-CH2-C -residue wherein 1≤y ≤11 and a Cys residue. R 1 -, R 2 -, R 3 -, R 4 -, R 5 -, R 6 -, R 7 - and R 8 -are KKIRVRLSA-; X 1, X 2, X 3, X 4, X 5, X 6 and X 7 are a lysine residue; w is nil, v is nil, p and q are nil, t is 1, m and n are nil or 1, provided that at least one of m and n is 1; Y is selected from the list of a beta-alanine residue, an N- y -CH2-CH2-C -residue wherein 1≤y ≤11 and a Cys residue.
A method of performing tile-based rendering, the method comprising: obtaining parameters related to a Bezier curve in an object; classifying tiles included in a frame based on the parameters; and performing the tile-based rendering based on the classifying of the tiles, wherein the step of classifying tiles comprises: classifying as a first position indicia tiles included in the frame having all endpoints corresponding to corners of the tile located outside a convex hull corresponding to the Bezier curve; determining tiles having some endpoints corresponding to corners of the tile located inside a convex hull corresponding to the Bezier curve; performing a Loop-Blinn test on the endpoints of each of the determined tiles; and classifying as at least one other position indicia the determined tiles based on the Loop-Blinn test obtaining parameters related to a Bezier curve in an object; classifying tiles included in a frame based on the parameters; and performing the tile-based rendering based on the classifying of the tiles, wherein the step of classifying tiles comprises: classifying as a first position indicia tiles included in the frame having all endpoints corresponding to corners of the tile located outside a convex hull corresponding to the Bezier curve; determining tiles having some endpoints corresponding to corners of the tile located inside a convex hull corresponding to the Bezier curve; performing a Loop-Blinn test on the endpoints of each of the determined tiles; and classifying as at least one other position indicia the determined tiles based on the Loop-Blinn test classifying as a first position indicia tiles included in the frame having all endpoints corresponding to corners of the tile located outside a convex hull corresponding to the Bezier curve; determining tiles having some endpoints corresponding to corners of the tile located inside a convex hull corresponding to the Bezier curve; performing a Loop-Blinn test on the endpoints of each of the determined tiles; and classifying as at least one other position indicia the determined tiles based on the Loop-Blinn test
An antibody comprising a variant human IgG1 Fc region which comprises amino acid substitution S324N replacing serine at amino acid position 324 of the parent antibody with asparagine and amino acid substitution S298A replacing serine at amino acid position 298 of the parent antibody with alanine, wherein the numbering of the amino acid positions is that of the EU index as in Kabat, and wherein the antibody exhibits enhanced complement dependent cytotoxicity and enhanced antibody dependent cell mediated cytotoxicity (ADCC) as compared to the parent antibody.
Scanning element for an inductive position measurement device, which comprises a multi-layered circuit board (1.1), which has - a first detector unit (1.11) arranged in a first layer and in a second layer, - a second detector unit (1.12) arranged in a third layer and in a fourth layer, and - a first shielding layer (1.13) arranged in a fifth layer between the first detector unit (1.11) and the second detector unit (1.12), wherein the circuit board (1.1) additionally has a geometric centre plane, which is arranged between the detector units (1.11, 1.12) and furthermore has vias (1.17, 1.18) that are arranged with a mutual offset in a direction parallel to the centre plane, wherein the fifth layer has a bar (1.131) and is structured such that the bar (1.131) is arranged adjacent to the first shielding layer (1.13) and electrically insulated with respect to the first shielding layer (1.13), which bar is in electrical contact with the vias (1.17, 1.18) and electrically connects the vias (1.17, 1.18) to one another. - a first detector unit (1.11) arranged in a first layer and in a second layer, - a second detector unit (1.12) arranged in a third layer and in a fourth layer, and - a first shielding layer (1.13) arranged in a fifth layer between the first detector unit (1.11) and the second detector unit (1.12), wherein the circuit board (1.1) additionally has a geometric centre plane, which is arranged between the detector units (1.11, 1.12) and furthermore has vias (1.17, 1.18) that are arranged with a mutual offset in a direction parallel to the centre plane, wherein the fifth layer has a bar (1.131) and is structured such that the bar (1.131) is arranged adjacent to the first shielding layer (1.13) and electrically insulated with respect to the first shielding layer (1.13), which bar is in electrical contact with the vias (1.17, 1.18) and electrically connects the vias (1.17, 1.18) to one another.
A work vehicle comprising: a fuel tank disposed in a rear portion of a hood in a longitudinal direction of a vehicle body; a fuel tank cover covering a rear portion of the fuel tank; a support member attached to the fuel tank cover; and a dashboard supported by the support member, wherein the fuel tank cover includes an attachment portion for attaching the support member, characterized in that the dashboard is also configured to be directly attachable to the attachment portion of the fuel tank cover. a fuel tank disposed in a rear portion of a hood in a longitudinal direction of a vehicle body; a fuel tank cover covering a rear portion of the fuel tank; a support member attached to the fuel tank cover; and a dashboard supported by the support member, wherein the fuel tank cover includes an attachment portion for attaching the support member, characterized in that the dashboard is also configured to be directly attachable to the attachment portion of the fuel tank cover.
A box profile for receiving printed circuit boards which are introduced as a subassembly, said box profile comprising a first and a second angle profile (10, 30) with two legs, the second angle profile being identical with respect to the leg lengths and angles, wherein a plurality of cooling ribs extending parallel to one another are arranged on at least one leg, and at least one first and one second cooling rib each have a first moulded element, wherein the two first moulded elements are configured such that it is possible to produce with them a positively acting locking of at least one attachment part in at least two translatory degrees of freedom on the cooling ribs (14, 15), and wherein the second angle profile in a position rotated by 180° with respect to the position of the first angle profile is mechanically connected by both ends of the legs to the ends of the legs of the first angle profile to form a closed box profile, and wherein the box profile furthermore comprises at least one third angle profile inserted into the box profile, wherein the length of the first leg of the third angle profile substantially corresponds to the length of the box profile and the width of the third angle profile corresponds to the height of the box profile and therefore the first leg of the third angle profile divides the space enclosed by the box profile into two individual spaces, wherein the second leg of the third angle profile configures at least one part of a front wall for the box profile.
Illumination device having a light source, a light exit aperture which is an aperture which is formed by a housing, as well as a reflector unit arranged between the light source and the light exit aperture which can be controlled with regard to its reflection position by means of a control signal, as well as an absorber element which is configured to absorb received light, wherein the reflector unit is configured to take, by means of an operating control signal, an operating position, in which light emitted by the light source can be diverted to the light exit aperture, wherein the reflector unit is configured, in the switched-off state of the illumination device, to take, by means of an absorber signal, an absorber position, in which the light emitted by the light source and/or light entering from outside through the light exit aperture into the illumination device can be deflected to the absorber element, in order to avoid the light source being visible from outside when the illumination device is switched off, wherein the reflector unit is configured to take automatically the absorber position when the light source is deactivated, characterised in that the absorber element has only one absorber region of the housing of the illumination device, which is blackened.
A method in a user equipment, UE, comprising: receiving an instruction; determining from the instruction whether to operate in a first operation mode or a second operation mode; wherein when operating with discontinuous reception, DRX, in the first operation mode, the UE refrains from transmitting a sounding reference signal, SRS, when not in DRX active time; and, wherein when operating with DRX in the second operation mode, the UE transmits a SRS irrespective of DRX active time. receiving an instruction; determining from the instruction whether to operate in a first operation mode or a second operation mode; wherein when operating with discontinuous reception, DRX, in the first operation mode, the UE refrains from transmitting a sounding reference signal, SRS, when not in DRX active time; and, wherein when operating with DRX in the second operation mode, the UE transmits a SRS irrespective of DRX active time.
A Cu-based sintered body having a composition comprising, by mass%, 7% to 35% of Ni, 1% to 10% of Sn, 0.9% to 3% of P, and 0.5% to 5% of C, with a remainder of Cu and inevitable impurities, wherein the Cu-based sintered body includes: alloy grains that contain Sn and C and further contain a Cu-Ni-based alloy as a main component; grain boundary phases that contain Ni and P as main components and are dispersedly distributed in grain boundaries of the alloy grains; and free graphite, the Cu-based sintered body has a structure in which pores are dispersedly formed in the grain boundaries of the alloy grains, the free graphite intervenes at the grain boundaries of the alloy grains in the pores, an amount of C in the metal matrix consisting of the alloy grains and the grain boundary phases is, by mass%, 0.02% to 0.20% and an amount of the free graphite is, by mass%, 0.3% to 4.98%. wherein the Cu-based sintered body includes: alloy grains that contain Sn and C and further contain a Cu-Ni-based alloy as a main component; grain boundary phases that contain Ni and P as main components and are dispersedly distributed in grain boundaries of the alloy grains; and free graphite, the Cu-based sintered body has a structure in which pores are dispersedly formed in the grain boundaries of the alloy grains, the free graphite intervenes at the grain boundaries of the alloy grains in the pores, an amount of C in the metal matrix consisting of the alloy grains and the grain boundary phases is, by mass%, 0.02% to 0.20% and an amount of the free graphite is, by mass%, 0.3% to 4.98%.
A method for preparing D-chiro-inositol from myo-inositol, the method comprising: (a) obtaining a transformed E. coli cell by transforming an E. coli cell with (i) a recombinant vector including a myo-inositol transporter coding DNA sequence operatively linked to a promoter; (ii) a recombinant vector including an inositol dehydrogenase coding DNA sequence and an inosose isomerase coding DNA sequence operatively linked to a promoter; and (b) culturing the transformed E. coli cell in a medium including myo-inositol, wherein the myo-inositol transporter is one or more transporters selected from a group consisting of proteins having an amino acid sequence disclosed in SEQ ID NOS. 3 and 4.