mhurhangee/ep-ind-claims huggingface dataset:
A heating apparatus comprising a first flow passage in which uncombusted gas that contains a combustible fuel is injected from a nozzle hole (12, 112) that is smaller than the flame quenching distance at a flow speed to thereby enable flame maintenance is combusted, and thereby enables flow of combustion gas resulting from such combustion, a second flow passage enabling flow of uncombusted gas supplied through the nozzle hole, and a third flow passage enabling flow of the liquid to be heated; characterised in that the third flow passage is surrounded by the first flow passage and the second flow passage is formed about the first flow passage, or the first flow passage is formed about the second flow passage and the third flow passage is formed about the first flow passage; and in that the heating apparatus is arranged such that the liquid to be heated in the third flow passage is heated by directly contacting the flame injected from the nozzle hole with the partition face of the third flow passage which makes contact with the liquid to be heated.
A method for configuring, by a user equipment, UE, a first buffer status report, BSR, for a public safety transmission in a wireless communication system, the method comprising: configuring, by the UE, a first device-to-device, D2D, logical channel for the public safety transmission; configuring, by the UE, a second D2D logical channel not for the public safety transmission; configuring, by the UE, an uplink logical channel; triggering, by the UE, a first proximity-based services, ProSe, BSR for the first D2D logical channel that is for the public safety transmission; triggering, by the UE, a second ProSe BSR for the second D2D logical channel that is not for the public safety transmission; triggering, by the UE, a BSR for the uplink logical channel; considering that a priority of the first D2D logical channel is higher than a priority of the second D2D logical channel regardless of network configuration; and when a media access control, MAC, protocol data unit, PDU, can accommodate only one BSR MAC control element, CE, accommodating, by the UE, the triggered first ProSe BSR for the first D2D logical channel in the MAC PDU, wherein the second ProSe BSR and the BSR are not accommodated in the MAC PDU, wherein the triggered first ProSe BSR has precedence over the triggered BSR, and wherein the triggered BSR has precedence over the triggered second ProSe BSR in being accommodated in the MAC PDU, in case the first D2D logical channel is not for the public safety transmission. configuring, by the UE, a first device-to-device, D2D, logical channel for the public safety transmission; configuring, by the UE, a second D2D logical channel not for the public safety transmission; configuring, by the UE, an uplink logical channel; triggering, by the UE, a first proximity-based services, ProSe, BSR for the first D2D logical channel that is for the public safety transmission; triggering, by the UE, a second ProSe BSR for the second D2D logical channel that is not for the public safety transmission; triggering, by the UE, a BSR for the uplink logical channel; considering that a priority of the first D2D logical channel is higher than a priority of the second D2D logical channel regardless of network configuration; and when a media access control, MAC, protocol data unit, PDU, can accommodate only one BSR MAC control element, CE, accommodating, by the UE, the triggered first ProSe BSR for the first D2D logical channel in the MAC PDU, wherein the second ProSe BSR and the BSR are not accommodated in the MAC PDU, wherein the triggered first ProSe BSR has precedence over the triggered BSR, and wherein the triggered BSR has precedence over the triggered second ProSe BSR in being accommodated in the MAC PDU, in case the first D2D logical channel is not for the public safety transmission.
A control process for operating a fluid disinfecting system by means of UV radiation, wherein the UV radiation is generated by at least one UV lamp comprising a pair of heating cathodes having a minimum discharge voltage (U D) for maintaining the gas discharge, said at least one UV lamp is operated by an electronic ballast unit, which is equipped with a control algorithm, which allows to adjust the UV power of the at least one UV lamp by pulse-width-modulation, to reduce UV power said control process includes the following steps: • Decreasing the current to said at least one UV lamp to a level (I kmin); • Increasing the voltage amplitude of said at least one UV lamp above the discharge voltage (U D) until a desired UV power level is reached; • With increasing voltage amplitude decreasing a pulse width of said pulse-width-modulation, until a pulse width (PW min) for operating the at least one UV lamp in an ineffective mode is reached; • Wherein decreasing the current and increasing the voltage amplitude generate an ineffective current-voltage-ratio in said ineffective mode, in which excess current heats the pair of heating cathodes. • Decreasing the current to said at least one UV lamp to a level (I kmin); • Increasing the voltage amplitude of said at least one UV lamp above the discharge voltage (U D) until a desired UV power level is reached; • With increasing voltage amplitude decreasing a pulse width of said pulse-width-modulation, until a pulse width (PW min) for operating the at least one UV lamp in an ineffective mode is reached; • Wherein decreasing the current and increasing the voltage amplitude generate an ineffective current-voltage-ratio in said ineffective mode, in which excess current heats the pair of heating cathodes.
Pharmaceutical or veterinary kit for administering a tulathromycin that consists of more than 98% of Tulathromycin A and less than 2% of Tulathromycin B to a mammal, comprising a first and a second container, wherein the first container comprises a lyophilized composition of a tulathromycin that consists of more than 98% of Tulathromycin A and less than 2% of Tulathromycin B, in form of an addition salt with citric acid or a mixture of citric acid and hydrochloric acid, and the second container comprises a solvent comprising water and optionally a water-miscible solvent, an antioxidant and/or a preservative. the first container comprises a lyophilized composition of a tulathromycin that consists of more than 98% of Tulathromycin A and less than 2% of Tulathromycin B, in form of an addition salt with citric acid or a mixture of citric acid and hydrochloric acid, and the second container comprises a solvent comprising water and optionally a water-miscible solvent, an antioxidant and/or a preservative.
A structurally constrained peptide of an HD2 domain of BCL9 (BCL9- HD2), comprising at least one hydrocarbon staple, wherein the hydrocarbon staple is positioned so as to link a first BCL9-HD2 amino acid selected from the group consisting of Leu-351, Ser 352, Gln-353, Glu-354, Gln-355, Glu-357, His-358, Arg-359, Arg-361, Ser-362, Leu-363, Thr-365, Leu-366, Ile-369, Gln-370, Met-372, Nle-372, Leu-373, and Phe-374 with a second BCL9 HD2 amino acid selected from the group consisting of Leu-351, Ser-352, Gln-353, Glu 354, Gln-355, Leu-356, Glu-357, His-358, Arg-359, Glu-360, Arg-361, Ser-362, Leu-363, Gln-364, Thr-365, Leu-366, Arg-367, Asp-368, Ile-369, Gln-370, Arg-371, Met-372, Nle-372, Leu-373, and Phe-374, wherein the peptide comprises an interacting face comprised of amino acids that interact with β-catenin, wherein the interacting face comprises BCL9 residues Gln-355, His-358, Arg-359, Ser-362, Leu-363, Leu-366, Ile-369, Gln-370, Leu-373, and Phe-374.
An internal combustion engine in which an anodic oxide film is formed on part or all of an aluminum-based wall surface facing a combustion chamber, characterized in that: an aluminum-based material that forms the aluminum-based wall surface contains Si and Cu as an alloy component, a content of Si in the aluminum-based material is higher than or equal to 5 % and less than 20 % and a content of Cu in the aluminum-based material is higher than or equal to 0.4 % and less than 7 %, the anodic oxide film has a thickness of 30 μm to 170 μm; the anodic oxide film has first micropores having a micro-size diameter, nanopores having a nano-size diameter and second micropores having a micro-size diameter, the first micropores and second micropores have a sectional diameter or maximum size of a range of 1 to 100 μm and the nanopores have a sectional diameter or maximum size of a range of 10 to 100 nm, the first micropores and the nanopores extending from a surface of the anodic oxide film toward an inside of the anodic oxide film in a thickness direction of the anodic oxide film or substantially the thickness direction, the second micropores being provided inside the anodic oxide film; at least part of the first micropores and the nanopores are sealed with a seal that is converted from a sealant; at least part of the second micropores are not sealed; and the anodic oxide film sealed with the seal has a porosity of 20 to 70 %. an aluminum-based material that forms the aluminum-based wall surface contains Si and Cu as an alloy component, a content of Si in the aluminum-based material is higher than or equal to 5 % and less than 20 % and a content of Cu in the aluminum-based material is higher than or equal to 0.4 % and less than 7 %, the anodic oxide film has a thickness of 30 μm to 170 μm; the anodic oxide film has first micropores having a micro-size diameter, nanopores having a nano-size diameter and second micropores having a micro-size diameter, the first micropores and second micropores have a sectional diameter or maximum size of a range of 1 to 100 μm and the nanopores have a sectional diameter or maximum size of a range of 10 to 100 nm, the first micropores and the nanopores extending from a surface of the anodic oxide film toward an inside of the anodic oxide film in a thickness direction of the anodic oxide film or substantially the thickness direction, the second micropores being provided inside the anodic oxide film; at least part of the first micropores and the nanopores are sealed with a seal that is converted from a sealant; at least part of the second micropores are not sealed; and the anodic oxide film sealed with the seal has a porosity of 20 to 70 %.
A device comprising: an elongated member for nasal insertion into a patient's pharynx, the elongated member having a proximal portion, a distal portion, and a longitudinal axis, wherein the elongated member comprises a first region having a first stiffness and a second region proximal of the first region along the longitudinal axis, and wherein the second region has a second stiffness less than the first stiffness; and a conductive element carried by the distal portion of the elongated member and configured to be electrically coupled to an energy source for delivering electric current to nerves proximate the pharynx, wherein, when the elongated member is inserted through a nostril of the patient such that the distal portion is positioned at a treatment site within the pharynx, the conductive element is placed in apposition with the pharyngeal wall, the first region extends along at least a portion of the nasal cavity and at least a portion of the nasopharynx, and the second region is positioned at or proximal of the patient's nostril. an elongated member for nasal insertion into a patient's pharynx, the elongated member having a proximal portion, a distal portion, and a longitudinal axis, wherein the elongated member comprises a first region having a first stiffness and a second region proximal of the first region along the longitudinal axis, and wherein the second region has a second stiffness less than the first stiffness; and a conductive element carried by the distal portion of the elongated member and configured to be electrically coupled to an energy source for delivering electric current to nerves proximate the pharynx, wherein, when the elongated member is inserted through a nostril of the patient such that the distal portion is positioned at a treatment site within the pharynx, the conductive element is placed in apposition with the pharyngeal wall, the first region extends along at least a portion of the nasal cavity and at least a portion of the nasopharynx, and the second region is positioned at or proximal of the patient's nostril.
An expandable access port, comprising: a housing having a plurality of tines coupled thereto; a thrust washer disposed along the housing, the thrust washer having cutout regions, each cutout region configured to engage a proximal end region of one of each of the plurality of tines; and an actuation member coupled to the housing, the actuation member being designed to shift the plurality of tines between a first configuration and an expanded configuration. a housing having a plurality of tines coupled thereto; a thrust washer disposed along the housing, the thrust washer having cutout regions, each cutout region configured to engage a proximal end region of one of each of the plurality of tines; and an actuation member coupled to the housing, the actuation member being designed to shift the plurality of tines between a first configuration and an expanded configuration.
Device for measuring a specific gas component, - having a broadband light source, which emits intensity-modulated light, - and the light emitted from the light source passes through a measurement volume in which the gas to be measured is provided, - and the light can be deflected alternately in two optical paths (42 and 44) after passing through the measurement volume with a first light deflection unit which comprises at least one MEMS mirror, - and a first path is designed as a measuring path and comprises a first filter element which transmits a measuring wavelength range, - and the other second path is designed as a reference path and comprises a second filter element that transmits a reference wavelength range, - with an optical element that unites measurement and reference path (42 and 44) back onto a common optical path, - a light detector and - with an evaluation and control unit for driving the light source and the light deflection unit and for the evaluation of detected light intensities and thus measurement of the gas component. - having a broadband light source, which emits intensity-modulated light, - and the light emitted from the light source passes through a measurement volume in which the gas to be measured is provided, - and the light can be deflected alternately in two optical paths (42 and 44) after passing through the measurement volume with a first light deflection unit which comprises at least one MEMS mirror, - and a first path is designed as a measuring path and comprises a first filter element which transmits a measuring wavelength range, - and the other second path is designed as a reference path and comprises a second filter element that transmits a reference wavelength range, - with an optical element that unites measurement and reference path (42 and 44) back onto a common optical path, - a light detector and - with an evaluation and control unit for driving the light source and the light deflection unit and for the evaluation of detected light intensities and thus measurement of the gas component.
An information processing apparatus (100; 210) comprising: a control unit configured to transmit an inducement frame for causing another communication device to transmit a transmission suppression period reduction frame for reducing a transmission suppression period, characterized in that the control unit is further configured to transmit said transmission suppression period reduction frame a predetermined time after the transmission of the inducement frame. a control unit configured to transmit an inducement frame for causing another communication device to transmit a transmission suppression period reduction frame for reducing a transmission suppression period, characterized in that the control unit is further configured to transmit said transmission suppression period reduction frame a predetermined time after the transmission of the inducement frame.
A method, in a mobile device, of controlling floor determination by the mobile device, the method comprising: determining whether or not a current position of the mobile device is displaced from a vertical transition of a structure by less than a threshold distance; performing passive measurements of positioning information received from access points at a first frequency when it is determined that the current position of the mobile device is displaced from a vertical transition of a structure by less than a threshold distance, and, otherwise, performing said passive measurements at a second frequency, wherein the passive measurements are performed less frequently at the second frequency than at the first frequency; determining a present pressure at the mobile device; determining, based on the present pressure and an arbitrary reference pressure, whether or not the mobile device moved from a first floor to a second floor within a structure, the first floor and the second floor being different floors of the structure and vertically displaced from each other; determining the current position and the current floor of the mobile device using the passive measurements when it is determined that the mobile device moved from a first floor to a second floor within the structure, and, otherwise determining the current position of the mobile device using the passive measurements. determining whether or not a current position of the mobile device is displaced from a vertical transition of a structure by less than a threshold distance; performing passive measurements of positioning information received from access points at a first frequency when it is determined that the current position of the mobile device is displaced from a vertical transition of a structure by less than a threshold distance, and, otherwise, performing said passive measurements at a second frequency, wherein the passive measurements are performed less frequently at the second frequency than at the first frequency; determining a present pressure at the mobile device; determining, based on the present pressure and an arbitrary reference pressure, whether or not the mobile device moved from a first floor to a second floor within a structure, the first floor and the second floor being different floors of the structure and vertically displaced from each other; determining the current position and the current floor of the mobile device using the passive measurements when it is determined that the mobile device moved from a first floor to a second floor within the structure, and, otherwise determining the current position of the mobile device using the passive measurements.
Coating system with a substrate, comprising, deposited on the substrate, - at least one layer of type A, a layer of type A essentially consisting of (Al y Cr 1-y)X, wherein X depicts one of the group consisting of N, CN, BN, NO, CNO, CBN, BNO and CNBO, y describing the stoichiometric composition of the metallic phase fraction and there is valid 0 < y < 1; - at least one layer of type B, a layer of type B essentially consisting of (Al u Cr 1-u-v-w Si v Me w)X, wherein X depicts one of the group consisting of N, CN, BN, NO, CNO, CBN, BNO or CNBO, and wherein Me depicts one of the group consisting of W, Nb, Mo and Ta or a mixture of two or more of the constituents of that group, u, v and w describing the stoichiometric composition of the metallic phase fraction and there is valid 0 < u < 1 and 0 < w < 1 and 0 < v < 1; characterized in that a thickness ratio of said layer of type A to said layer of type B is higher than 1. - at least one layer of type A, a layer of type A essentially consisting of (Al y Cr 1-y)X, wherein X depicts one of the group consisting of N, CN, BN, NO, CNO, CBN, BNO and CNBO, y describing the stoichiometric composition of the metallic phase fraction and there is valid 0 < y < 1; - at least one layer of type B, a layer of type B essentially consisting of (Al u Cr 1-u-v-w Si v Me w)X, wherein X depicts one of the group consisting of N, CN, BN, NO, CNO, CBN, BNO or CNBO, and wherein Me depicts one of the group consisting of W, Nb, Mo and Ta or a mixture of two or more of the constituents of that group, u, v and w describing the stoichiometric composition of the metallic phase fraction and there is valid 0 < u < 1 and 0 < w < 1 and 0 < v < 1;
Method for operating a vehicle information system comprising at least a first display area and a second display area, in which method: an activation signal and a transition signal are received in succession; graphical data for an activation animation containing a first view and a second view is generated on the basis of the activation signal and the transition signal and displayed by the first display area and second display area; wherein after the activation signal has been received, an appearing of the first view is output; wherein the first view comprises a first graphical object; and after the transition signal has been received, a disappearing of the first view and an appearing of the second view are output; wherein the appearing of the second view comprises a movement effect, wherein said movement effect depicts a movement from the first display area to the second display area, characterized in that the transition signal is received when an approach action, an unlocking action, a door-opening, a user entering or sitting down or a vehicle being started is detected. an activation signal and a transition signal are received in succession; graphical data for an activation animation containing a first view and a second view is generated on the basis of the activation signal and the transition signal and displayed by the first display area and second display area; wherein after the activation signal has been received, an appearing of the first view is output; wherein the first view comprises a first graphical object; and after the transition signal has been received, a disappearing of the first view and an appearing of the second view are output; wherein the appearing of the second view comprises a movement effect, wherein said movement effect depicts a movement from the first display area to the second display area, characterized in that the transition signal is received when an approach action, an unlocking action, a door-opening, a user entering or sitting down or a vehicle being started is detected.
A phosphonate compound of the general formula: T-B wherein B is a phosphonate containing moiety having the formula: -X-N (ZPO 3 M 2) wherein X is selected from C 2 -C 50 linear or branched hydrocarbon chain, optionally substituted by a C 1 -C 12 linear, branched, cyclic, or aromatic group, (which chain and/or which group can be) optionally substituted by OH, COOH, F, OR' and SR' moieties, wherein R' is a C 1 -C 12 linear or branched hydrocarbon chain; and [A-O] x -A wherein A is a C 2 -C 9 linear or branched hydrocarbon chain and x is an integer from 1 to 200; Z is a C 1 -C 6 alkylene chain; M is selected from H and C 1 -C 20 linear or branched hydrocarbon chains; W is selected from H, ZPO 3 M 2 and [V-N] n K, wherein V is selected from: a C 2 -C 50 linear or branched hydrocarbon chain, optionally substituted by C 1 -C 12 linear, branched, cyclic or aromatic groups, (which chains and/or groups are) optionally substituted by OH, COOH, F, OR' or SR' moieties wherein R' is a C 1 -C 12 linear or branched hydrocarbon chain; and from [A-O] x -A wherein A is a C 2 -C 9 linear or branched chain and x is an integer from 1 to 200; and K is ZPO 3 M 2 or H and n is an integer from 0 to 200; and wherein T is a moiety selected from the group of: (IVi) [X n' (N-U) n'] n'' -; wherein M, Z, W and X are as defined above; U is selected from linear or branched C 1 -C 12 hydrocarbon chains, H and X-N (ZPO 3 M 2); n' and n'' are independently selected from integers of from 1 to 100.