mhurhangee/ep-ind-claims huggingface dataset:
A method of producing an oil, the method comprising: making a biomass according to a method of increasing the concentration of EPA in a biomass of a microorganism having fatty acids and a concentration of EPA, comprising: (a) fermenting the microorganism in a fermentor vessel to produce a biomass; and (b) providing a pressure on the biomass of greater than or equal to 3447.4 Pa (0.5 psi) above atmospheric pressure for a time sufficient to increase the concentration of EPA in the biomass; and obtaining the oil from the biomass, wherein said microorganism is a thraustochytrid, optionally wherein the oil is extracted from the biomass. making a biomass according to a method of increasing the concentration of EPA in a biomass of a microorganism having fatty acids and a concentration of EPA, comprising: (a) fermenting the microorganism in a fermentor vessel to produce a biomass; and (b) providing a pressure on the biomass of greater than or equal to 3447.4 Pa (0.5 psi) above atmospheric pressure for a time sufficient to increase the concentration of EPA in the biomass; (a) fermenting the microorganism in a fermentor vessel to produce a biomass; and (b) providing a pressure on the biomass of greater than or equal to 3447.4 Pa (0.5 psi) above atmospheric pressure for a time sufficient to increase the concentration of EPA in the biomass; and obtaining the oil from the biomass, wherein said microorganism is a thraustochytrid, optionally wherein the oil is extracted from the biomass.
Method for controlling applications (15, 16, 17, 18) distributed between a vehicle and a cloud, comprising the following features: - monitoring of communication channels (21, 22) between the vehicle and the cloud is performed and relates to one of the following operating parameters (25, 26, 27) of the communication channels (21, 22): • a latency, • a reliability, • an availability or • a transmission capacity, and - based on the monitoring, control and adaptation of a portion (15, 17) of the applications (15, 16, 17, 18) operated in the vehicle or of a portion (16, 18) of the applications (15, 16, 17, 18) operated in the cloud is carried out, - functions of the applications (15, 16, 17, 18) are executed either by the portion (15, 17) of the applications (15, 16, 17, 18) operated in the vehicle or the portion (16, 18) of the applications (15, 16, 17, 18) operated in the cloud, - the control takes place by shifting the functions between the vehicle and the cloud based on the operating parameters (25, 26, 27), - the applications (15, 16, 17, 18) comprise remotely operated driving of the vehicle, and - the shifted functions comprise manoeuvring of the vehicle. - monitoring of communication channels (21, 22) between the vehicle and the cloud is performed and relates to one of the following operating parameters (25, 26, 27) of the communication channels (21, 22): • a latency, • a reliability, • an availability or • a transmission capacity, and • a latency, • a reliability, • an availability or • a transmission capacity, and - based on the monitoring, control and adaptation of a portion (15, 17) of the applications (15, 16, 17, 18) operated in the vehicle or of a portion (16, 18) of the applications (15, 16, 17, 18) operated in the cloud is carried out, - functions of the applications (15, 16, 17, 18) are executed either by the portion (15, 17) of the applications (15, 16, 17, 18) operated in the vehicle or the portion (16, 18) of the applications (15, 16, 17, 18) operated in the cloud, - the control takes place by shifting the functions between the vehicle and the cloud based on the operating parameters (25, 26, 27), - the applications (15, 16, 17, 18) comprise remotely operated driving of the vehicle, and - the shifted functions comprise manoeuvring of the vehicle.
A liquid pharmaceutical formulation comprising: - [trans-3-hexenoyl]hGRF amide (SEQ ID NO: 7) or a pharmaceutically acceptable salt thereof, wherein the GRF molecule comprises a hydrophobic moiety attached to the N-terminus thereof in an amount of 1 mg/ml to 8 mg/ml, and - a modified β-cydodextrin at a concentration of 5% to 10% (w/v), wherein said formulation is isotonic and has a pH of 5.5 to 6.5 and wherein said modified β-cydodextrin is not conjugated to said [trans-3-hexenoyl]hGRF amide or pharmaceutically acceptable salt thereof. - [trans-3-hexenoyl]hGRF amide (SEQ ID NO: 7) or a pharmaceutically acceptable salt thereof, wherein the GRF molecule comprises a hydrophobic moiety attached to the N-terminus thereof in an amount of 1 mg/ml to 8 mg/ml, and - a modified β-cydodextrin at a concentration of 5% to 10% (w/v),
A cooling device comprising a body; a thawing compartment that is disposed in the body, wherein the frozen foods are placed; a heater that heats the thawing compartment and a sensor that provides the measurement of the humidity of the ambient air of the thawing compartment, characterized by a control unit that is disposed on the body, that calculates the humidity level change rate (dH/dt) in the thawing compartment with the data received from the sensor, that enables the thawing process to be started if the calculated humidity level change rage (dH/dt) is above the humidity level decrease rate limit value determined by the manufacturer or that enables the thawing process to be ended if the calculated humidity level change rate (dH/dt) is between the humidity level increase rate lower limit value (Vbot) determined by the manufacturer and the humidity level increase rate upper limit value (Vtop) determined by the manufacturer.
A refrigerant leak detecting method for an air-cooling heat pump system, wherein the method comprises: (i), obtaining a leak indication parameter set (S110, S210), wherein the leak indication parameter set at least includes, in a cooling mode of the air-cooling heat pump system, a supercooling degree; (ii), comparing each leak indication parameter in the leak indication parameter set with a corresponding preset indication parameter interval (S120, S220); (iii), when each leak indication parameter falls within a corresponding preset indication parameter interval, obtaining and recording a corresponding evaluated refrigerant leak amount (S130, S230); (iv), when a cumulative value of the evaluated refrigerant leak amount falls within a preset refrigerant leak interval, determining that a refrigerant leak occurs in the air-cooling heat pump system; when the cumulative value of the evaluated refrigerant leak amount does not fall within the preset refrigerant leak interval, returning to the step (i) (S140, S240); characterised in that the leak indication parameter set at least includes, in a heating mode of the air-cooling heat pump system, a refrigerant level in a liquid reservoir. (i), obtaining a leak indication parameter set (S110, S210), wherein the leak indication parameter set at least includes, in a cooling mode of the air-cooling heat pump system, a supercooling degree; (ii), comparing each leak indication parameter in the leak indication parameter set with a corresponding preset indication parameter interval (S120, S220); (iii), when each leak indication parameter falls within a corresponding preset indication parameter interval, obtaining and recording a corresponding evaluated refrigerant leak amount (S130, S230); (iv), when a cumulative value of the evaluated refrigerant leak amount falls within a preset refrigerant leak interval, determining that a refrigerant leak occurs in the air-cooling heat pump system; when the cumulative value of the evaluated refrigerant leak amount does not fall within the preset refrigerant leak interval, returning to the step (i) (S140, S240);
Attraction for amusement rides, such as a fairground attraction or an amusement park attraction, comprising a tower, a hub mounted on the tower for movement in longitudinal direction and in peripheral direction of the tower, means for moving the hub, a frame which is attached fixedly to the hub and extends in radial direction from the hub, a number of seats connected to the frame and distributed in peripheral direction such that, when in use, the seats begin to fly through the air when the hub rotates, wherein the attraction further comprises a number of stiff arms for connecting the seats to the frame, which connecting arms are each connected at an outer end to the seats and at an opposite outer end are connected by means of a hinge to the frame for free pivoting in radial direction, wherein the frame comprises a number of further arms (11A, 11B) which are connected to the hub and distributed in peripheral direction and which extend in radial direction from the hub for connection to the connecting arms by the hinge, characterized in that, the hinge is a double hinge with a first pivot axis (A') lying at an angle α to the tangent along the peripheral direction of the frame, wherein 10 ≤ α ≤ 30 degrees, and a second pivot axis lying at an angle β to the tangent along the peripheral direction of the frame, wherein 70 ≤ β ≤ 110, when not in use, preferably substantially 90 degrees, said tangent running perpendicular to each further arm (11A, 11B), wherein an angle γ between the first pivot axis (A') and the second pivot axis lies in the range between 60 and 80 degrees.
A system comprising: a processor; a network adapter coupled to the processor and having a hardware address used to establish a network data path configured to exchange packets over a computer network; and a memory coupled to the processor and the network adapter, wherein the memory is configured to store a hypervisor, a guest operating system 'OS', and an intermediary manager adapted for execution by the processor in an arrangement wherein the intermediary manager is disposed between the hypervisor and the guest OS, wherein the guest operating system and the intermediary manager are independent operating entities each with unique network flows, wherein the hypervisor is configured to share the hardware address of the network adapter between the intermediary manager and the guest OS to each exchange packets over the network data path as independent operating entities each with unique network flows using the same hardware address, and wherein the intermediary manager is configured to process the packets received over the network data path to differentiate the packets as being destined to one of the intermediary manager and the guest OS, and direct the packets accordingly to an intermediary manager network protocol stack of the intermediary manager or to a guest OS network protocol stack 230 of the guest OS 210, to thereby transparently deploy the intermediary manager into the network data path. a processor; a network adapter coupled to the processor and having a hardware address used to establish a network data path configured to exchange packets over a computer network; and a memory coupled to the processor and the network adapter, wherein the memory is configured to store a hypervisor, a guest operating system 'OS', and an intermediary manager adapted for execution by the processor in an arrangement wherein the intermediary manager is disposed between the hypervisor and the guest OS, wherein the guest operating system and the intermediary manager are independent operating entities each with unique network flows, wherein the hypervisor is configured to share the hardware address of the network adapter between the intermediary manager and the guest OS to each exchange packets over the network data path as independent operating entities each with unique network flows using the same hardware address, and wherein the intermediary manager is configured to process the packets received over the network data path to differentiate the packets as being destined to one of the intermediary manager and the guest OS, and direct the packets accordingly to an intermediary manager network protocol stack of the intermediary manager or to a guest OS network protocol stack 230 of the guest OS 210, to thereby transparently deploy the intermediary manager into the network data path.
An apparatus for controlling drive of a vehicle, the apparatus comprising: at least one input device configured to receive an input from a driver of the vehicle; and a control circuit electrically connected with the at least one input device, wherein the control circuit is configured to: perform a lane keeping control on a driving lane of the vehicle for a first time duration, when receiving a first input for changing a lane from the driver through the at least one input device, when receiving a second input for changing the lane from the driver through the at least one input device after receiving the first input, perform a line access control such that the vehicle moves toward a line positioned in a direction of a target lane for the changing of the lane, after completing the lane keeping control for the first time duration, and perform a lane entrance control toward the target lane when the line access control is completed within a second time duration. at least one input device configured to receive an input from a driver of the vehicle; and a control circuit electrically connected with the at least one input device, wherein the control circuit is configured to: perform a lane keeping control on a driving lane of the vehicle for a first time duration, when receiving a first input for changing a lane from the driver through the at least one input device, when receiving a second input for changing the lane from the driver through the at least one input device after receiving the first input, perform a line access control such that the vehicle moves toward a line positioned in a direction of a target lane for the changing of the lane, after completing the lane keeping control for the first time duration, and perform a lane entrance control toward the target lane when the line access control is completed within a second time duration. perform a lane keeping control on a driving lane of the vehicle for a first time duration, when receiving a first input for changing a lane from the driver through the at least one input device, when receiving a second input for changing the lane from the driver through the at least one input device after receiving the first input, perform a line access control such that the vehicle moves toward a line positioned in a direction of a target lane for the changing of the lane, after completing the lane keeping control for the first time duration, and perform a lane entrance control toward the target lane when the line access control is completed within a second time duration.
A data transmission method, comprising: determining (501, 502, 503), by a first terminal apparatus, a priority of uplink data carried on a physical uplink shared channel PUSCH, a priority of first sidelink data carried on a physical sidelink shared channel PSSCH, and a priority of sidelink feedback control information SFCI carried on a physical sidelink feedback channel PSFCH, wherein the PUSCH, the PSSCH, and the PSFCH occupy a same slot; and sending, by the first terminal apparatus, the uplink data through the PUSCH, or the first sidelink data through the PSSCH and/or the SFCI through the PSFCH based on the priority of the uplink data, the priority of the first sidelink data, and the priority of the SFCI. determining (501, 502, 503), by a first terminal apparatus, a priority of uplink data carried on a physical uplink shared channel PUSCH, a priority of first sidelink data carried on a physical sidelink shared channel PSSCH, and a priority of sidelink feedback control information SFCI carried on a physical sidelink feedback channel PSFCH, wherein the PUSCH, the PSSCH, and the PSFCH occupy a same slot; and sending, by the first terminal apparatus, the uplink data through the PUSCH, or the first sidelink data through the PSSCH and/or the SFCI through the PSFCH based on the priority of the uplink data, the priority of the first sidelink data, and the priority of the SFCI.
An apparatus for classifying a seed as inbred or hybrid, comprising: - a support for holding the seed, - a terahertz signal source for generating a terahertz signal, - a detector for detecting at least part of the terahertz signal having interacted with the seed, wherein the detector is arranged for detecting an amplitude and a phase of the terahertz signal having interacted with the seed, the detector comprising a detector output and being arranged for generating a detector output signal at the detector output based on the detected at least part of the terahertz signal, the detector output signal being representative of a detected amplitude and phase of the terahertz signal, - a data processing device for forming image data from the detector output signal, and - a decision support system for providing from the image data a classification of the seed as inbred or hybrid. - a support for holding the seed, - a terahertz signal source for generating a terahertz signal, - a detector for detecting at least part of the terahertz signal having interacted with the seed, wherein the detector is arranged for detecting an amplitude and a phase of the terahertz signal having interacted with the seed, the detector comprising a detector output and being arranged for generating a detector output signal at the detector output based on the detected at least part of the terahertz signal, the detector output signal being representative of a detected amplitude and phase of the terahertz signal, - a data processing device for forming image data from the detector output signal, and - a decision support system for providing from the image data a classification of the seed as inbred or hybrid.
A method of producing a resin molded article provided with a stitch pattern formed on a design surface thereof, comprising the steps of: molding a first member provided with a plurality of thread stitch portions aligned on a front side thereof and protruding on a design surface side of the resin molded article by injecting a first resin raw material into a first cavity, molding a second member to cover peripheral portions of the plurality of thread stitch portions on the front side of the first member by injecting a second resin raw material different from the first resin raw material in color into a second cavity where the first member is held, and thereby exposing protruding ends of the plurality of thread stitch portions from the second member to form the stitch pattern on the design surface of the resin molded article, characterized in that the first member and the second member are integrally molded by two-color molding with a common die portion forming a back side of the resin molded article, when molding the first member, convex shaped engaging portions and concave shaped engaging portions are formed on a back side of the first member so as to correspond to the plurality of thread stitch portions, and the second member is formed in a state where the convex and concave shaped engaging portions (42, 43) are engaged with the common die portion. molding a first member provided with a plurality of thread stitch portions aligned on a front side thereof and protruding on a design surface side of the resin molded article by injecting a first resin raw material into a first cavity, molding a second member to cover peripheral portions of the plurality of thread stitch portions on the front side of the first member by injecting a second resin raw material different from the first resin raw material in color into a second cavity where the first member is held, and thereby exposing protruding ends of the plurality of thread stitch portions from the second member to form the stitch pattern on the design surface of the resin molded article,
Method for determining the gas content in the medium flowing through a Coriolis mass flowmeter, wherein the Coriolis mass flowmeter has at least one measuring tube, at least one oscillation generator, at least two oscillation sensors and at least one control and evaluation unit, wherein the method is carried out during operation of the Coriolis mass flowmeter, wherein in a ρ 100 -step the density value ρ 100 of the gasless medium is determined and wherein in a ρ mess step the density value ρ mess of the medium flowing through the measuring tube is measured, characterized in that in a GVQ step the density value ρ 100 of the gasless medium and the density value ρ mess of the medium flowing through the measuring tube are used to calculate a measure GVQ for the gas fraction of the medium flowing through the measuring tube, and that the measure GVQ is output for the gas fraction of the medium flowing through the measuring tube. that in a GVQ step the density value ρ 100 of the gasless medium and the density value ρ mess of the medium flowing through the measuring tube are used to calculate a measure GVQ for the gas fraction of the medium flowing through the measuring tube, and that the measure GVQ is output for the gas fraction of the medium flowing through the measuring tube.
A genetically edited livestock animal comprising at least one edited chromosomal sequence encoding a NANOS2 protein, wherein the at least one edited chromosomal sequence is inactivated, and wherein the livestock animal is bovine or porcine.
A robot system for which the position of a camera attached to an arm of a multi-joint robot is changeable to multiple predetermined positions, the robot system comprising: a camera; a multi-joint robot including an arm, wherein the arm has multiple predetermined positions, to which the camera can be attached, and the camera is attached to the arm at one of the multiple predetermined positions; a memory device configured to memorize in advance offset information between the arm and the camera for each of the multiple predetermined positions, wherein the offset information includes a distance and a direction of the camera relative to a reference point of the multi-joint robot; the robot system being characterized by comprising: a control device configured to control the multi-joint robot, wherein, when an imaging processing for capturing an image of a target object by the camera is executed by the control device, the control device is configured to: receive a target imaging position and the attachment position of the camera, read out, from the memory device, offset information corresponding to the attachment position of the camera, set a target arm position by offsetting the target imaging position based on the read-out offset information, and move the arm to the target arm position such that the target object is imaged by the camera. a camera; a multi-joint robot including an arm, wherein the arm has multiple predetermined positions, to which the camera can be attached, and the camera is attached to the arm at one of the multiple predetermined positions; a memory device configured to memorize in advance offset information between the arm and the camera for each of the multiple predetermined positions, wherein the offset information includes a distance and a direction of the camera relative to a reference point of the multi-joint robot; the robot system being characterized by comprising: a control device configured to control the multi-joint robot, wherein, when an imaging processing for capturing an image of a target object by the camera is executed by the control device, the control device is configured to: receive a target imaging position and the attachment position of the camera, read out, from the memory device, offset information corresponding to the attachment position of the camera, set a target arm position by offsetting the target imaging position based on the read-out offset information, and move the arm to the target arm position such that the target object is imaged by the camera. receive a target imaging position and the attachment position of the camera, read out, from the memory device, offset information corresponding to the attachment position of the camera, set a target arm position by offsetting the target imaging position based on the read-out offset information, and move the arm to the target arm position such that the target object is imaged by the camera.