mhurhangee/ep-ind-claims huggingface dataset:
Luminaire, having: a support device for fixing to a ceiling of a building space; and at least one lighting device (3; 4) which extends in a longitudinal direction (L3; L4) and is mounted on the support device, and which has a support part (30; 40) extending in the longitudinal direction (L3; L4), a plurality of lamp units arranged on a side wall (31; 41) of the support part (30; 40), and a reflector device (50; 60) fixed to the support part (30; 40); wherein the reflector device (50; 60) has at least two reflector portions (51; 61) which are mutually remote in the longitudinal direction (L3; L4), each being provided by means of reflector surfaces (51a; 61a) that are concave curved in at least two directions of curvature; wherein the at least two reflector portions (51; 61) are oriented facing the side wall (31; 41) of the support part (30; 40); and wherein a lamp unit is assigned to one of the at least two reflector portions (51; 61) respectively; and wherein the reflector surfaces (51a; 61a) forming the at least two reflector portions (51; 61), and a first surface (31a; 41a) of the side wall (31; 41) of the support part (30; 40) on which the lamp units are arranged, jointly each enclose a respective light exit opening of the luminaire. a support device for fixing to a ceiling of a building space; and at least one lighting device (3; 4) which extends in a longitudinal direction (L3; L4) and is mounted on the support device, and which has a support part (30; 40) extending in the longitudinal direction (L3; L4), a plurality of lamp units arranged on a side wall (31; 41) of the support part (30; 40), and a reflector device (50; 60) fixed to the support part (30; 40); wherein the reflector device (50; 60) has at least two reflector portions (51; 61) which are mutually remote in the longitudinal direction (L3; L4), each being provided by means of reflector surfaces (51a; 61a) that are concave curved in at least two directions of curvature; wherein the at least two reflector portions (51; 61) are oriented facing the side wall (31; 41) of the support part (30; 40); and wherein a lamp unit is assigned to one of the at least two reflector portions (51; 61) respectively; and wherein the reflector surfaces (51a; 61a) forming the at least two reflector portions (51; 61), and a first surface (31a; 41a) of the side wall (31; 41) of the support part (30; 40) on which the lamp units are arranged, jointly each enclose a respective light exit opening of the luminaire.
A computer implemented method, comprising: obtaining acquired data for a region of interest; determining a rock type of the region of interest; obtaining a selection of a plurality of modules based on the rock type; generating, using the acquired data and an interpolator from the plurality of modules, a wellbore image of the region of interest, wherein the interpolator generates interpolated data between data points among the acquired data in the wellbore image; determining, using a quantifier from the plurality of modules, a core characterization of the region of interest, wherein the core characterization describes an integration of a plurality of wellbore data types including at least textural analysis parameters, grain size sorting, heterogeneity analysis, or lithology analysis; and generating, using the core characterization and the wellbore image, a digital core construction of the region of interest, wherein the digital core construction describes a plurality of subterranean formation properties of the region of interest; characterized by using the output of a virtual core generator to aid in the selection of locations to sample sidewall core; selecting locations to sample sidewall core; and validating and calibrating the core characterization using the sampled sidewall core, taken at discrete locations in the wellbore wall. obtaining acquired data for a region of interest; determining a rock type of the region of interest; obtaining a selection of a plurality of modules based on the rock type; generating, using the acquired data and an interpolator from the plurality of modules, a wellbore image of the region of interest, wherein the interpolator generates interpolated data between data points among the acquired data in the wellbore image; determining, using a quantifier from the plurality of modules, a core characterization of the region of interest, wherein the core characterization describes an integration of a plurality of wellbore data types including at least textural analysis parameters, grain size sorting, heterogeneity analysis, or lithology analysis; and generating, using the core characterization and the wellbore image, a digital core construction of the region of interest, wherein the digital core construction describes a plurality of subterranean formation properties of the region of interest; using the output of a virtual core generator to aid in the selection of locations to sample sidewall core; selecting locations to sample sidewall core; and validating and calibrating the core characterization using the sampled sidewall core, taken at discrete locations in the wellbore wall.
Plate assembly for mounting between the rails of a track system for providing a drivable or/and passable surface in the area of the track system, comprising at least one rail connecting plate (36, 38) to be mounted adjacent to a rail (12, 14), wherein the at least one rail connecting plate (36, 38) comprises a deformation area to be positioned directly adjacent to the rail (12, 14), which during passage over the rail (12, 14) with a rail vehicle can be deformed by a wheel rim of a rail vehicle wheel and which after the passage essentially returns to its initial form, wherein the deformation area comprises an upper area providing part of the surface and beneath the upper area a lower area for support at a basis, wherein the lower area comprises a plurality of support projections supporting the upper area and to be supported at the basis, further comprising at least one central plate to be mounted between two rails (12, 14), wherein the at least one central plate comprises a first engagement structure in at least one lateral area (26, 28) to be positioned near the rail and wherein the at least one rail connecting plate (36, 38) comprises a second engagement structure in a lateral area to be positioned remote from the rail, which engagement structure can be brought into form fit engagement with the first engagement structure for attachment of the rail connecting plate (36, 38) at the central plate.
A foil deployment mechanism, comprising: - a first drum rotatable about a first longitudinal axis, and a second drum rotatable about a second longitudinal axis, and - a cable which can be moved by rotating the first drum in a first rotation direction and by rotating the second drum in a second rotation direction opposed to the first rotation direction, the cable comprising a first section which extends from a lower part of the second drum to an upper part of the first drum, a second section which is wound around a part of the first drum facing away from the second drum, a third section which extends from a lower part of the first drum to an upper part of the second drum, and a fourth section which is wound around a part of the second drum facing away from the first drum, wherein the first section and the third section intersect each other between the first drum and the second drum when being viewed along the first longitudinal axis, characterized in that the foil deployment mechanism further comprises a longitudinal rigid element having a first end and a second end, wherein the first end is connected to the cable, and wherein the second end is connected to a foil, wherein, by moving the cable, the longitudinal rigid element can be moved between a first state in which the first end of the longitudinal rigid element is connected to the first section of the cable, and in which the second end of the longitudinal rigid element protrudes from the first drum in a direction pointing away from the second drum, and a second state in which the second end of the longitudinal rigid element protrudes in a direction pointing away from the second drum, wherein a distance between the second end and the first drum is smaller in the first state than in the second state. - a first drum rotatable about a first longitudinal axis, and a second drum rotatable about a second longitudinal axis, and - a cable which can be moved by rotating the first drum in a first rotation direction and by rotating the second drum in a second rotation direction opposed to the first rotation direction, the cable comprising a first section which extends from a lower part of the second drum to an upper part of the first drum, a second section which is wound around a part of the first drum facing away from the second drum, a third section which extends from a lower part of the first drum to an upper part of the second drum, and a fourth section which is wound around a part of the second drum facing away from the first drum, wherein the first section and the third section intersect each other between the first drum and the second drum when being viewed along the first longitudinal axis,
An isolated monoclonal anti-tau antibody comprising a light chain comprising an amino acid sequence of SEQ ID NO: 18, and a heavy chain comprising an amino acid sequence of SEQ ID NO: 13.
A method at a gateway (110, 510; 810) within a sensor system (210; 212; 214) for communicating with at least one sensor module (160; 512, 812), the method comprising: storing a timing profile for communications with the at least one sensor module; powering down a processor of the gateway; waking (720; 1020) a radio core of the gateway at a threshold time prior to a transmission time for a sensor beacon signal from the at least one sensor module; sampling (822; 1022) a channel for the sensor beacon signal at the radio core while the processor of the gateway is powered down; if the sensor beacon signal is detected: waking the processor on the gateway; exchanging (750; 1040) communication with the at least one sensor module; providing a report to a network server; and powering down (752; 1042) the processor and radio core upon completion of the exchanging communication. storing a timing profile for communications with the at least one sensor module; powering down a processor of the gateway; waking (720; 1020) a radio core of the gateway at a threshold time prior to a transmission time for a sensor beacon signal from the at least one sensor module; sampling (822; 1022) a channel for the sensor beacon signal at the radio core while the processor of the gateway is powered down; if the sensor beacon signal is detected: waking the processor on the gateway; exchanging (750; 1040) communication with the at least one sensor module; providing a report to a network server; and powering down (752; 1042) the processor and radio core upon completion of the exchanging communication. waking the processor on the gateway; exchanging (750; 1040) communication with the at least one sensor module; providing a report to a network server; and powering down (752; 1042) the processor and radio core upon completion of the exchanging communication.
A compound according to general formula wherein A represents C 6 -cycloalkyl; R 1 represents C 1 -alkyl, wherein said C 1 -alkyl is optionally substituted with one or more substituents selected from the group consisting of deuterium; R 2 represents C 1 -alkyl, wherein said C 1 -alkyl is substituted with a substituent selected from R 5, and wherein said C 1 -alkyl is optionally substituted with one or more deuterium; R 3 represents C 2 -alkyl, wherein said C 2 -alkyl is substituted with a substituent selected from R 6 and wherein said C 2 -alkyl is optionally substituted with one or more deuterium; R 4 represents hydrogen or deuterium; R 5 represents cyano; R 6 represents hydroxyl; or pharmaceutically acceptable salts, hydrates or solvates thereof. A represents C 6 -cycloalkyl; R 1 represents C 1 -alkyl, wherein said C 1 -alkyl is optionally substituted with one or more substituents selected from the group consisting of deuterium; R 2 represents C 1 -alkyl, wherein said C 1 -alkyl is substituted with a substituent selected from R 5, and wherein said C 1 -alkyl is optionally substituted with one or more deuterium; R 3 represents C 2 -alkyl, wherein said C 2 -alkyl is substituted with a substituent selected from R 6 and wherein said C 2 -alkyl is optionally substituted with one or more deuterium; R 4 represents hydrogen or deuterium; R 5 represents cyano; R 6 represents hydroxyl; or pharmaceutically acceptable salts, hydrates or solvates thereof.
A method for regulating a communication parameter, performed at first equipment, comprising: establishing, by the first equipment, a communication with second equipment according to a preset configuration of a Cyclic Prefix, CP, length communication parameter, wherein the second equipment is terminal equipment; the method further comprises: regulating (S 120), by the first equipment, a configuration of a CP length according to a network state and/or service state in a communication process; and sending, by the first equipment, communication parameter regulation indication information to the second equipment through a physical layer control channel, the communication parameter regulation indication information indicating a result of regulation performed by the first equipment on the configuration of the CP length, wherein the result of regulation is represented in form of a relative value, and the relative value is a difference value between regulated CP length and unregulated, before regulation, CP length. establishing, by the first equipment, a communication with second equipment according to a preset configuration of a Cyclic Prefix, CP, length communication parameter, wherein the second equipment is terminal equipment; the method further comprises: regulating (S 120), by the first equipment, a configuration of a CP length according to a network state and/or service state in a communication process; and sending, by the first equipment, communication parameter regulation indication information to the second equipment through a physical layer control channel, the communication parameter regulation indication information indicating a result of regulation performed by the first equipment on the configuration of the CP length, wherein the result of regulation is represented in form of a relative value, and the relative value is a difference value between regulated CP length and unregulated, before regulation, CP length. regulating (S 120), by the first equipment, a configuration of a CP length according to a network state and/or service state in a communication process; and sending, by the first equipment, communication parameter regulation indication information to the second equipment through a physical layer control channel, the communication parameter regulation indication information indicating a result of regulation performed by the first equipment on the configuration of the CP length, wherein the result of regulation is represented in form of a relative value, and the relative value is a difference value between regulated CP length and unregulated, before regulation, CP length.
A flexible tank wherein liquid can be stored and which can transport liquid from one location to another location by means of a vehicle and having a lower compartment and an upper compartment positioned one above the other, characterized in that the lower compartment and the upper compartment are formed by a tank body that is formed by at least one flexible wall joined in a manner forming a flexible pipe-like form wherein the tank body comprises a folding region having a first folding line and a second folding line configured such that a passage throttle is defined in between the first folding line and the second folding line, and wherein the folding region (4 brought the tank body a C-like form wherein an upper arm defines the upper compartment and a lower arm defines the lower compartment, the lower compartment and the upper compartment being connected to each other through the folding region, the upper compartment comprises at least one joining region defined at the part thereof which seats onto the lower compartment for connecting the upper compartment and the lower compartment to each other, and at least one passage opening is provided at the joining region for forming a liquid passage between the lower compartment and the upper compartment.
Construction robot, in particular for performing construction work on a building construction site and/or a civil engineering construction site, having a manipulator and having a storage system, - wherein the storage system has at least one storage point, wherein the storage point has a protective cover, for example for protection against entering and/or escaping particles, liquids and/or gases, and a storage place, wherein the protective cover is pivotably arranged at the storage point, characterized in that a control projection is formed on an end effector of the manipulator and is configured to move along a control contour of the at least one storage point of the storage system. - wherein the storage system has at least one storage point, wherein the storage point has a protective cover, for example for protection against entering and/or escaping particles, liquids and/or gases, and a storage place, wherein the protective cover is pivotably arranged at the storage point,
A polycarbonate resin composition comprising 0.1 to 10 parts by mass of a polycarbonate copolymer having carbonate bonding between bisphenol A and a polyalkylene glycol and 0.005 to 0.5 parts by mass of a phosphorus-containing stabilizer relative to 100 parts by mass of a polycarbonate resin.
A resin-made multilayer molding including three or more resin layers, wherein at least one resin layer of the multilayer molding is configured from a mixed resin containing, at a ratio / = 99/1 to 10/90 by weight, a polyamide resin obtained by polymerizing a diamine component containing 70 mol% or more of m-xylylenediamine and a dicarboxylic acid component containing 70 mol% or more of adipic acid, and a polyester resin containing a dicarboxylic acid unit and a diol unit, 1 to 80 mol% of the diol unit having a cyclic acetal skeleton; and at least one resin layer in contact with a layer configured from the mixed resin and the resin layers forming both the surfaces of the multilayer molding are configured from a resin containing 70 wt% or more of a thermoplastic polyester resin obtained by polymerizing a dicarboxylic acid component containing 80 mol% or more of terephthalic acid and a diol component containing 80 mol% or more of ethylene glycol.
A user device, UE, for a wireless communication system, wherein the UE (302 1 to 302 n) is configured to be connected to one or more further UEs in the wireless communication system for a sidelink communication with the one or more further UEs, the sidelink communication including one or more sidelink control messages to be transmitted on sidelink resources, the UE (302 1 to 302 n) is configured to identify the sidelink control message for the UE (302 1 to 302 n), the UE (302 1 to 302 n) is configured to decode the sidelink control message for the UE (302 1 to 302 n) to derive control information embedded the sidelink control message, and the information embedded in the sidelink control message indicates a configuration of a further message, the further message including further control information and/or data, characterized in that the information embedded in the sidelink control message indicates a periodicity of transmissions of the sidelink control message and/or the further message, and a predefined value for the periodicity signals either a single shot transmission of the sidelink control message and/or the further message without any periodicity or a release of a previous periodicity. the UE (302 1 to 302 n) is configured to be connected to one or more further UEs in the wireless communication system for a sidelink communication with the one or more further UEs, the sidelink communication including one or more sidelink control messages to be transmitted on sidelink resources, the UE (302 1 to 302 n) is configured to identify the sidelink control message for the UE (302 1 to 302 n), the UE (302 1 to 302 n) is configured to decode the sidelink control message for the UE (302 1 to 302 n) to derive control information embedded the sidelink control message, and the information embedded in the sidelink control message indicates a configuration of a further message, the further message including further control information and/or data, characterized in that the information embedded in the sidelink control message indicates a periodicity of transmissions of the sidelink control message and/or the further message, and a predefined value for the periodicity signals either a single shot transmission of the sidelink control message and/or the further message without any periodicity or a release of a previous periodicity.
A hydrogenated styrene/conjugated diolefin copolymer, wherein the copolymer comprises a styrene-based structural unit represented by Formula 1, a hydrogenated conjugated diene-based structural unit represented by Formula 2, and a hydrogenated conjugated diene-based structural unit represented by Formula 3, wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 and R 9 are respectively H, C 1 -C 3 alkyl, and R 10 is H or C 1 -C 4 alkyl; the content of the styrene-based structural unit is 15-50 wt%, preferably 18-45 wt%, based on the total amount of the copolymer; the content of the hydrogenated conjugated diene-based structural unit represented by Formula 3 is 8-32 wt%, based on the total amount of the hydrogenated conjugated diene-based structural unit represented by Formula 2 and the hydrogenated conjugated diene-based structural unit represented by Formula 3, the randomness degree of the styrene-based structural unit in the hydrogenated conjugated diene-based structural unit is 30-80%, and the hydrogenation degree of the conjugated diolefin in the copolymer is 85-100%.