mhurhangee/ep-ind-claims huggingface dataset:
Aquarium gas cylinder for supplying an aquarium with CO2 gas generated in the aquarium gas cylinder, wherein the aquarium gas cylinder comprises: a receiving vessel for receiving a nutrient substrate and a reactant interacting with the nutrient substrate such that the nutrient substrate and the reactant react with each other to produce CO2 gas; a closure means for pressure-tightly sealing the receiving vessel; a gas outflow means for, in particular pausable, CO2 gas extraction from the aquarium gas cylinder for the aquarium, wherein the CO2 gas, when flowing into the gas outflow means, has a desired gassing pressure (p_B); a gas cylinder pressure regulator for adjusting a gas cylinder pressure (p_G), characterized in that the gas cylinder pressure regulator is configured to set the gas cylinder pressure (p_G) so that it essentially corresponds to the desired gassing pressure (p_B). a receiving vessel for receiving a nutrient substrate and a reactant interacting with the nutrient substrate such that the nutrient substrate and the reactant react with each other to produce CO2 gas; a closure means for pressure-tightly sealing the receiving vessel; a gas outflow means for, in particular pausable, CO2 gas extraction from the aquarium gas cylinder for the aquarium, wherein the CO2 gas, when flowing into the gas outflow means, has a desired gassing pressure (p_B); a gas cylinder pressure regulator for adjusting a gas cylinder pressure (p_G), characterized in that the gas cylinder pressure regulator is configured to set the gas cylinder pressure (p_G) so that it essentially corresponds to the desired gassing pressure (p_B).
A pipe joint arrangement, which is intended for enabling one or more angular deflections successive in a longitudinal direction (s) along an elongated pipeline in one or more planes and which comprises a joining piece, connectible with pipeline sections to be coupled with each other successively in the longitudinal direction (s) and consisting of frame elements (1a, 1b) locked to each other in a longitudinal direction and having provided therebetween an articulation with substantially arcuate swiveling faces for enabling movement of the frame elements (1a, 1b) by rotating (w) the same relative to each other with respect to one or more axes of rotation, wherein the joining piece has its linkage comprising a one-piece spherical, ball-shaped or at least partially cylindrical swivel member, which is connected by its opposite sides to each frame element (1a, 1b) by means of locking/pivoting axles located in one or two planes orthogonal to each other, and through which extends a flow passage, which is connected by its opposite ends to flow paths present in the frame elements (1a, 1b), characterized in that the swivel member and the locking/pivoting axles are designed as an integral fixed unit.
A method for photographing a subject using a recommended photographing composition by an electronic device including a camera and a display, wherein the subject includes a person, the method comprising: identifying the person in a preview image, obtained from the camera and displayed on the display; obtaining information of the person being identified in the preview image, the obtained information including at least a position within the preview image of the person being identified in the preview image; obtaining the recommended photographing composition based on the obtained information, by using a recommendation model trained by using a plurality of photographs taken by professionals, the plurality of photographs including a plurality of composition information for recommending a photographing composition, wherein the recommended photographing composition refers to an arrangement of the subject in the preview image; displaying an indicator guiding a user of the electronic device to move the electronic device such that the person is at a position in the preview image corresponding to the recommended photographing composition; and automatically photographing the subject, based on the person being at the position in the preview image corresponding to the recommended photographing composition obtained using the recommendation model. identifying the person in a preview image, obtained from the camera and displayed on the display; obtaining information of the person being identified in the preview image, the obtained information including at least a position within the preview image of the person being identified in the preview image; obtaining the recommended photographing composition based on the obtained information, by using a recommendation model trained by using a plurality of photographs taken by professionals, the plurality of photographs including a plurality of composition information for recommending a photographing composition, wherein the recommended photographing composition refers to an arrangement of the subject in the preview image; displaying an indicator guiding a user of the electronic device to move the electronic device such that the person is at a position in the preview image corresponding to the recommended photographing composition; and automatically photographing the subject, based on the person being at the position in the preview image corresponding to the recommended photographing composition obtained using the recommendation model.
A distributor (2, 2A, 2B, 3) for distributing fluid to a plurality of fluid outlets (12a_3), the fluid flowing from a fluid inlet (12a_1), the distributor (2, 2A, 2B, 3) comprising: a plurality of branching flow paths (12a_2, 12a_3) having an upstream branching flow path (12a_2), and downstream branching flow paths (12a_3) located closer to the plurality of fluid outlets (12a_3) than is the upstream branching flow path (12a_2); and an intermediate flow path (13a_2) provided between the upstream branching flow path (12a_2) and at least one of the downstream branching flow paths (12a_3), the intermediate flow path (13a_2) connecting the upstream branching flow path (12a_2) and the at least one of the downstream branching flow paths (12a_3), the distributor (2, 2A, 2B, 3) being formed in such a manner that the fluid flows in a direction from the fluid inlet (12a_1) to the plurality of branching flow paths (12a_3), the intermediate flow path (13a_2) having one end connected to the upstream branching flow path (12a_2) and an other end connected to the at least one of the downstream branching flow paths (12a_3) characterised in that the intermediate flow path (13a_2) causing the fluid flowing from the one end to change a flow direction of the fluid without the fluid further branching in the intermediate flow path and then flow out of the other end. a plurality of branching flow paths (12a_2, 12a_3) having an upstream branching flow path (12a_2), and downstream branching flow paths (12a_3) located closer to the plurality of fluid outlets (12a_3) than is the upstream branching flow path (12a_2); and an intermediate flow path (13a_2) provided between the upstream branching flow path (12a_2) and at least one of the downstream branching flow paths (12a_3), the intermediate flow path (13a_2) connecting the upstream branching flow path (12a_2) and the at least one of the downstream branching flow paths (12a_3), the distributor (2, 2A, 2B, 3) being formed in such a manner that the fluid flows in a direction from the fluid inlet (12a_1) to the plurality of branching flow paths (12a_3), the intermediate flow path (13a_2) having one end connected to the upstream branching flow path (12a_2) and an other end connected to the at least one of the downstream branching flow paths (12a_3) characterised in that the intermediate flow path (13a_2) causing the fluid flowing from the one end to change a flow direction of the fluid without the fluid further branching in the intermediate flow path and then flow out of the other end.
A method for compressing video data comprising: generating in a graphics pipeline, from video graphics data which have not been rendered and for providing modeling objects to be rendered, vertex data corresponding to said objects; said objects comprising movable objects; rendering said video graphics data to produce a current frame of pixel data and a reference frame of pixel data; based upon said vertex data, defining a search area within said reference frame for calculating a motion vector for a block of pixel data within said current frame; said block containing at least a portion of one of said movable objects, and said one movable object being located within macro blocks (405 - 411); compressing said current frame based upon said motion vector; comparing each macro block of said current frame to macro blocks within said search area of said reference frame to find out the best matching block in said reference frame; and identifying and using the position of said one movable object within said reference frame as a reference for restricting the search area for said macro blocks (405 - 411) to a region surrounding the position of said one movable object and using the vertex data for the primitives for said object from the graphics pipe line prior to rendering said current frame and said reference frame. generating in a graphics pipeline, from video graphics data which have not been rendered and for providing modeling objects to be rendered, vertex data corresponding to said objects; said objects comprising movable objects; rendering said video graphics data to produce a current frame of pixel data and a reference frame of pixel data; based upon said vertex data, defining a search area within said reference frame for calculating a motion vector for a block of pixel data within said current frame; said block containing at least a portion of one of said movable objects, and said one movable object being located within macro blocks (405 - 411); compressing said current frame based upon said motion vector; comparing each macro block of said current frame to macro blocks within said search area of said reference frame to find out the best matching block in said reference frame; and identifying and using the position of said one movable object within said reference frame as a reference for restricting the search area for said macro blocks (405 - 411) to a region surrounding the position of said one movable object and using the vertex data for the primitives for said object from the graphics pipe line prior to rendering said current frame and said reference frame.
A computer-implemented method for reducing redundant data uploads, the method comprising: providing a collection indicator for a specific data type on a given road, wherein the collection indicator provides an indication of an amount of data points to be transmitted for the specific data type on the given road, wherein the amount of data points to be transmitted is less than an amount of data points for the specific data type that are collected on the given road, and wherein the collection indicator is a ratio of (i) a target amount of data points required to maintain an accuracy of real time information for the data type on the given road during a given period of time to (ii) a cumulative amount of data points that are collected or anticipated to be collected by a plurality of vehicles for the data type on the given road during the given period of time; separating a plurality of data points for the specific data type collected during travel of a vehicle along the given road into a transmission group of data points and a non-transmission group of data points, wherein separating the plurality of data points comprises determining an amount of data points to be included in the transmission group by applying the collection indicator to the plurality of data points for the specific data type that are collected during travel of the vehicle along the given road; and causing the transmission of the transmission group of data points. providing a collection indicator for a specific data type on a given road, wherein the collection indicator provides an indication of an amount of data points to be transmitted for the specific data type on the given road, wherein the amount of data points to be transmitted is less than an amount of data points for the specific data type that are collected on the given road, and wherein the collection indicator is a ratio of (i) a target amount of data points required to maintain an accuracy of real time information for the data type on the given road during a given period of time to (ii) a cumulative amount of data points that are collected or anticipated to be collected by a plurality of vehicles for the data type on the given road during the given period of time; separating a plurality of data points for the specific data type collected during travel of a vehicle along the given road into a transmission group of data points and a non-transmission group of data points, wherein separating the plurality of data points comprises determining an amount of data points to be included in the transmission group by applying the collection indicator to the plurality of data points for the specific data type that are collected during travel of the vehicle along the given road; and causing the transmission of the transmission group of data points.
An elastic-locking winding carrier for a preformed coil assembly of a stator of an electric motor, wherein the elastic-locking carrier comprises a tooth receiving portion being a cavity, and further comprises a winding portion adapted to receive a winding, wherein said winding comprises a wound electrical conductor to produce a coil, the winding portion comprising an upper portion which is a surface configured to cover one side of a tooth and a lower portion which is a surface configured to face said tooth and opposing the upper portion, wherein said winding carrier further comprises a first and a second opening (38a, 38b) arranged on the winding portion, and a first and a second flexible member (40a, 40b) located inside respective first and second openings (38a, 38b), wherein a distal end (42a, 42b) of both the first and second flexible members (20a, 20b) extends below the lower portion of the winding portion into the tooth receiving portion and towards the tooth when the preformed coil assembly is mounted on said tooth, the distal end (42a, 42b) of one of the first and second flexible members (40a, 40b) extending further below the distal end of the other of the first and second flexible members (40a, 40b) such that either of said first and second flexible members (40a, 40b) is configured to cooperate with a tooth of the stator as a function of the magnitude of the gap between the tooth and the lower portion of the winding portion when the preformed coil assembly is mounted on said tooth in order to align said preformed coil assembly with respect to said tooth.
A method of purifying a recombinant polypeptide from Host Cell Proteins, the method comprising: (a) applying a solution comprising the recombinant polypeptide and HCP to a superantigen chromatography solid support, (b) washing the superantigen chromatography solid support with a wash buffer comprising about 100 mM to about 300 mM caprylate and greater than about 0.5 M arginine; and (c) eluting the recombinant polypeptide from the superantigen chromatography solid support; wherein the superantigen is selected from the group consisting of Protein A, Protein G, and Protein L; and wherein about means +/-20%, +/- 10%, +/- 5%, +/- 1% or +/- 0.1%.
An oligonucleotide which targets a Sex Hormone Binding Globulin (SHBG) natural antisense transcript for use as a therapeutic compound, wherein the oligonucleotide modulates the expression of Sex Hormone Binding Globulin (SHBG), and wherein: (a) the natural antisense transcript has the nucleic acid sequence as set forth in SEQ ID NO:3, or a variant thereof which retains the function of the natural antisense transcript of SEQ ID NO: 3; or (b) the oligonucleotide comprises at least one of SEQ ID NOs: 4, 6 to 9 or 11. (a) the natural antisense transcript has the nucleic acid sequence as set forth in SEQ ID NO:3, or a variant thereof which retains the function of the natural antisense transcript of SEQ ID NO: 3; or (b) the oligonucleotide comprises at least one of SEQ ID NOs: 4, 6 to 9 or 11.
A register having a narrow and long air outlet that is long in a horizontal direction and short in an up-down vertical direction, and with a front movable louver being disposed along said horizontal direction in an inner front portion of said air outlet, said air outlet being formed inclined so as to retract an upper portion to an upstream side and project a lower portion to a downstream side, wherein for said front movable louver, one central horizontal fin is axially supported so as to be turnable in said horizontal direction substantially at an up-down center inside said air outlet, while an upper auxiliary horizontal fin is axially supported so as to be storable and turnable in said horizontal direction in a storing recess provided on an upper wall surface inside said air outlet, and a lower auxiliary horizontal fin is axially supported so as to be storable and turnable in said horizontal direction in a storing recess provided on a lower wall surface inside said air outlet, said central horizontal fin is axially supported so as to be turnable by pivots provided so as to project substantially at centers of both sides, said upper auxiliary horizontal fin and lower auxiliary horizontal fin are axially supported so as to be turnable in a manner of sticking out downstream-side end portions to a passage side, wherein up and down mean up and down in a front view of the air outlet of the register, characterized in that when said central horizontal fin is turned to the downside, said lower auxiliary horizontal fin sticks out the downstream-side end portion toward the passage side and approximates the downstream-side end portion as if making said downstream-side end portion contact a lower surface of said central horizontal fin to block an air flow that passes through a section between said central horizontal fin and said lower auxiliary horizontal fin and proceeds straight ahead.
A method performed by an Over The Top, OTT, service providing node (200, 600) for retrieval of geographic location information of a communication device (208, 208m), the communication device (208, 208m) being communicatively connected to the OTT service providing node (200, 600) via a communication network, in which an Operator Location Service, OLS, node (202, 700) is arranged to retrieve the geographic location information of the communication device (208, 208m), the method comprising: • receiving (400, 3: 1) a request for an OTT service from the communication device (208, 208m), • determining an identifier of the communication device (208, 208m), • determining (404, 3:2, 3:3) an operator of the communication device (208, 208m), by utilising the determined identifier of the communication device (208, 208m), • determining (406, 3:4, 3:5) an identifier of the OLS node (202, 700) of the operator, • sending (408, 3:6) a location request to the OLS node (202, 700), by using the identifier of the OLS node (202, 700), for requesting geographic location information of the communication device (208, 208m), the location request comprising the identifier of the communication device (208, 208m), wherein the identifier of the communication device (208, 208m) is to be utilised by the OLS node (202, 700) to identify a host identifier Host-ID of the communication device (208, 208m), wherein the Host-ID is used for retrieving (3:9a, 3:10a, 3:9b, 3:10b) the requested geographic location information from a location server (210, 220), and the retrieved geographic location information is to be sent by the OLS node (202, 700) to the OTT service providing node (200, 600), and • receiving (410, 3:11) the sent geographic location information. • receiving (400, 3: 1) a request for an OTT service from the communication device (208, 208m), • determining an identifier of the communication device (208, 208m), • determining (404, 3:2, 3:3) an operator of the communication device (208, 208m), by utilising the determined identifier of the communication device (208, 208m), • determining (406, 3:4, 3:5) an identifier of the OLS node (202, 700) of the operator, • sending (408, 3:6) a location request to the OLS node (202, 700), by using the identifier of the OLS node (202, 700), for requesting geographic location information of the communication device (208, 208m), the location request comprising the identifier of the communication device (208, 208m), wherein the identifier of the communication device (208, 208m) is to be utilised by the OLS node (202, 700) to identify a host identifier Host-ID of the communication device (208, 208m), wherein the Host-ID is used for retrieving (3:9a, 3:10a, 3:9b, 3:10b) the requested geographic location information from a location server (210, 220), and the retrieved geographic location information is to be sent by the OLS node (202, 700) to the OTT service providing node (200, 600), and • receiving (410, 3:11) the sent geographic location information.
A navigation system (210, 1605, 1810) for a human-propelled cart (122, 205), the navigation system comprising: a magnetometer (315, 405, 1510) configured to determine a heading of the human-propelled cart; a vibration sensor (415, 1535) configured to measure vibration data of the human-propelled cart; a communication system configured to communicate with a wheel (215, 220) of the human-propelled cart, the wheel comprising a brake configured to inhibit rotation of the wheel in response to receipt of a locking signal; and a hardware processor programmed to: estimate a speed of the human-propelled cart based at least in part on the vibration data from the vibration sensor, wherein to estimate the speed, the hardware processor is programmed to analyze a spectrum of the vibration data, and wherein to analyze the spectrum of the vibration data, the hardware processor is programmed to identify a first peak in the spectrum of the vibration data, the first peak associated with vibration data for vibrations associated with forward or rearward movement of the human-propelled cart; and estimate a position of the human-propelled cart based at least in part on the estimated speed and the heading of the human-propelled cart. a magnetometer (315, 405, 1510) configured to determine a heading of the human-propelled cart; a vibration sensor (415, 1535) configured to measure vibration data of the human-propelled cart; a communication system configured to communicate with a wheel (215, 220) of the human-propelled cart, the wheel comprising a brake configured to inhibit rotation of the wheel in response to receipt of a locking signal; and a hardware processor programmed to: estimate a speed of the human-propelled cart based at least in part on the vibration data from the vibration sensor, wherein to estimate the speed, the hardware processor is programmed to analyze a spectrum of the vibration data, and wherein to analyze the spectrum of the vibration data, the hardware processor is programmed to identify a first peak in the spectrum of the vibration data, the first peak associated with vibration data for vibrations associated with forward or rearward movement of the human-propelled cart; and estimate a position of the human-propelled cart based at least in part on the estimated speed and the heading of the human-propelled cart. estimate a speed of the human-propelled cart based at least in part on the vibration data from the vibration sensor, wherein to estimate the speed, the hardware processor is programmed to analyze a spectrum of the vibration data, and wherein to analyze the spectrum of the vibration data, the hardware processor is programmed to identify a first peak in the spectrum of the vibration data, the first peak associated with vibration data for vibrations associated with forward or rearward movement of the human-propelled cart; and estimate a position of the human-propelled cart based at least in part on the estimated speed and the heading of the human-propelled cart.