mhurhangee/ep-ind-claims huggingface dataset:
A method for validating the quality of preparation of a dry compressed gas cylinder comprising: a) internally passivating the compressed gas cylinder, b) filling the passivated compressed gas cylinder with gaseous carbon dioxide to a normal working pressure, wherein the gaseous carbon dioxide has a known δ 18 O isotope ratio, c) maintaining the pressurized gas cylinder at a first temperature for a first predetermined period of time, d) gradually emptying the pressurized gas cylinder, while simultaneously measuring the δ 18 O isotopic ratio, wherein if the measured isotopic ratio of δ 18 O shows a variation compared to said known δ 18 O isotope ratio, and said variation reveals a standard deviation less than 0.5‰ it is considered that the cylinder is properly prepared. a) internally passivating the compressed gas cylinder, b) filling the passivated compressed gas cylinder with gaseous carbon dioxide to a normal working pressure, wherein the gaseous carbon dioxide has a known δ 18 O isotope ratio, c) maintaining the pressurized gas cylinder at a first temperature for a first predetermined period of time, d) gradually emptying the pressurized gas cylinder, while simultaneously measuring the δ 18 O isotopic ratio,
A holographic heat management material adapted for use with body gear, comprising: a base material having a transfer property that is adapted to allow, impede, and/or restrict passage of a natural element through the base material; an array of heat-directing elements coupled to a first side of the base material, the heat-directing elements being positioned to direct heat in a desired direction, and wherein the placement and spacing of the heat-directing elements helps enable the base material to perform the element transfer property, characterized by that the heat-directing elements are holographic heat directing elements. a base material having a transfer property that is adapted to allow, impede, and/or restrict passage of a natural element through the base material; an array of heat-directing elements coupled to a first side of the base material, the heat-directing elements being positioned to direct heat in a desired direction, and wherein the placement and spacing of the heat-directing elements helps enable the base material to perform the element transfer property, characterized by that the heat-directing elements are holographic heat directing elements.
Method of MR imaging of a body placed in the examination volume of a MR device, the method comprising the steps of: a) applying a dual-echo or multi-echo imaging sequence generating at least two gradient echo signals at two different echo times by subjecting the portion of the body to said imaging sequence of RF pulses and switched magnetic field gradients, wherein the 0 th moment of the readout magnetic field gradient essentially vanishes at the time of the first gradient echo, the 1 st moment of the readout gradient being non-zero at the time of the first gradient echo, while both the 0 th and 1 st moments of the readout magnetic field gradient essentially vanish at the time of the second gradient echo; b) acquiring the gradient echo signals; c) repeating steps a) and b) for a plurality of phase encoding steps; d) reconstructing a first MR image from the gradient echo signals of the first gradient echo and a second MR image from the gradient echo signals of the second gradient echo; and e) identifying ghosting artefacts in the first and/or second MR image by comparing the first and second MR images. a) applying a dual-echo or multi-echo imaging sequence generating at least two gradient echo signals at two different echo times by subjecting the portion of the body to said imaging sequence of RF pulses and switched magnetic field gradients, wherein the 0 th moment of the readout magnetic field gradient essentially vanishes at the time of the first gradient echo, the 1 st moment of the readout gradient being non-zero at the time of the first gradient echo, while both the 0 th and 1 st moments of the readout magnetic field gradient essentially vanish at the time of the second gradient echo; b) acquiring the gradient echo signals; c) repeating steps a) and b) for a plurality of phase encoding steps; d) reconstructing a first MR image from the gradient echo signals of the first gradient echo and a second MR image from the gradient echo signals of the second gradient echo; and e) identifying ghosting artefacts in the first and/or second MR image by comparing the first and second MR images.
Method for mounting an LED reading or seat lamp which comprises a LED module and a reflective and/or refractive optical unit for a vehicle such as, for example, an aircraft or a bus, with the following steps: - providing a LED module which comprises at least one LED, - providing an optical unit comprising a reflector and/or a lens for illumination in a measurement plane by electromagnetic radiation of the LED module and the optical unit, - arranging the optical unit and the LED module for the purpose of later attachment to one another, - controlling the LED module for transmitting electromagnetic radiation for the purpose of illumination in the measurement plane, - detection by a detector of at least a portion of the electromagnetic radiation of the LED module incident on the measurement plane, - moving the LED module relative to the optical unit and/or the optical unit relative to the LED module along the optical axis until the detector detects electromagnetic radiation of the LED module having a predeterminable intensity, and - attaching the optical unit and the LED module relative to one another in their current relative positions. - providing a LED module which comprises at least one LED, - providing an optical unit comprising a reflector and/or a lens for illumination in a measurement plane by electromagnetic radiation of the LED module and the optical unit, - arranging the optical unit and the LED module for the purpose of later attachment to one another, - controlling the LED module for transmitting electromagnetic radiation for the purpose of illumination in the measurement plane, - detection by a detector of at least a portion of the electromagnetic radiation of the LED module incident on the measurement plane, - moving the LED module relative to the optical unit and/or the optical unit relative to the LED module along the optical axis until the detector detects electromagnetic radiation of the LED module having a predeterminable intensity, and - attaching the optical unit and the LED module relative to one another in their current relative positions.
A method controlling altitude of a vehicle moving along a segmented track comprising two or more supports, the method comprising: receiving, at a controller, data generated by one or more sensors; determining, at the controller, an altitude of the vehicle relative to the segmented track; receiving, at the controller, data relating to a length of the segmented track 106 between two or more supports and a weight of the vehicle; and determining, at the controller, a speed of the vehicle relative to the length of the segmentedtrack; calculating, at the controller, a deflection of the segmented track between the two or more supports based on the length of the segmented track, the weight of the vehicle, and the speed of the vehicle, wherein the vehicle is a magnetic levitation vehicle and the vehicle includes a levitation generator having one or more altitude sensors operable coupled therewith, the levitation generator operable to be received within at least a portion of the segmented track and generate lift as it passes within the segmented track; wherein the controller adjusts the altitude of the vehicle relative to the segmented track by an offset equivalent to the deflection of the segmented track to maintain a predetermined altitude of the vehicle relative to a travel plane. receiving, at a controller, data generated by one or more sensors; determining, at the controller, an altitude of the vehicle relative to the segmented track; receiving, at the controller, data relating to a length of the segmented track 106 between two or more supports and a weight of the vehicle; and determining, at the controller, a speed of the vehicle relative to the length of the segmentedtrack; calculating, at the controller, a deflection of the segmented track between the two or more supports based on the length of the segmented track, the weight of the vehicle, and the speed of the vehicle, wherein the vehicle is a magnetic levitation vehicle and the vehicle includes a levitation generator having one or more altitude sensors operable coupled therewith, the levitation generator operable to be received within at least a portion of the segmented track and generate lift as it passes within the segmented track; wherein the controller adjusts the altitude of the vehicle relative to the segmented track by an offset equivalent to the deflection of the segmented track to maintain a predetermined altitude of the vehicle relative to a travel plane.
A method of controlling a gas turbine engine, comprising: detecting a first temperature using a first temperature sensor that is mounted to a gas turbine engine of an aircraft; comparing the first temperature to a second temperature that is detected by a second temperature sensor that is mounted to a portion of the aircraft other than the gas turbine engine; and initiating engine anti-icing activity in response to a difference between the first temperature and the second temperature, wherein the first temperature sensor is mounted in the engine inlet near the fan of the engine and exposed to the impingement of High Altitude ice crystals and the second temperature sensor is substantially shielded from the impingement of High Altitude ice crystals such that the first temperature is distorted by High Altitude ice crystals clogging the first sensor more than the second sensor, causing the clogged sensor to report higher temperature readings than the second temperature sensor. detecting a first temperature using a first temperature sensor that is mounted to a gas turbine engine of an aircraft; comparing the first temperature to a second temperature that is detected by a second temperature sensor that is mounted to a portion of the aircraft other than the gas turbine engine; and initiating engine anti-icing activity in response to a difference between the first temperature and the second temperature, wherein the first temperature sensor is mounted in the engine inlet near the fan of the engine and exposed to the impingement of High Altitude ice crystals and the second temperature sensor is substantially shielded from the impingement of High Altitude ice crystals such that the first temperature is distorted by High Altitude ice crystals clogging the first sensor more than the second sensor, causing the clogged sensor to report higher temperature readings than the second temperature sensor.
A network processing element for use in a cluster comprising a plurality of network processing elements, wherein said network processing element is configured to: enable provisioning of a plurality of different services, wherein said network processing element is configured to store state data associated with one or more network functions required for carrying out each of said plurality of different services and wherein upon receiving by said network processing element a request for provisioning of a service at any port from among the ports associated with said network processing element and irrespective of whether said service can be provided via said receiving port, said network processing element is further configured to: establish which resources are required for provisioning the required service, and based on state data associated with instantaneous availability of processing resources of the network processing element, to determine if said network processing element may be used for the provisioning of the requested service.
A composition for use in preventing infestation and infection of a Salmonidae by a parasite of the family Caligidae, wherein the composition comprises IgY extracted from a specific pathogen free hen without vaccination with any antigen and the composition is administrated to the Salmonidae.
An industrial robot for food industry wherein the robot has a plurality of joints, a transmission system for moving the joints, characterized in that the robot comprises a leakage detection device (1a; 1b; 1c; 1d) for detecting a liquid leaking into the robot, wherein - at least one indicator strip (11; 21, 23) arranged inside the robot and configured to change color in contact with a liquid, - a sensor module configured to detect changes in color of the at least one indicator strip, and - a detector unit (13a; 13b; 30) configured to determine presence of liquid inside the robot based on the detected color changes of the at least one indicator strip, wherein said at least one indicator strip is a pH strip adapted to change color in dependence of the pH value of a liquid in contact therewith and the detector unit (13a; 13b; 30) is configured to distinguish between lubricant and corrosive water based on the detected color changes of the at least one indicator strip. - at least one indicator strip (11; 21, 23) arranged inside the robot and configured to change color in contact with a liquid, - a sensor module configured to detect changes in color of the at least one indicator strip, and - a detector unit (13a; 13b; 30) configured to determine presence of liquid inside the robot based on the detected color changes of the at least one indicator strip,
A light emitting diode, LED, filament for providing LED filament light, comprising: - a first linear array of LEDs arranged on a first surface of a carrier including only first LEDs configured to emit first white light. - a second linear array of LEDs arranged on a second surface of the carrier, opposite to said first surface, including only second LEDs configured to emit color controllable light, characterized in that: - the LED filament light comprises the first white light and the color controllable light - the first LEDs comprise UV LEDs emitting UV light and/or blue LEDs emitting blue light, the UV LEDs and/or blue LEDs being covered by a first encapsulant comprising a luminescent material configured to at least partly convert the UV light and/or the blue light into converted light, wherein the white light comprises (i) the converted light and optionally (ii) the non-converted UV light and/or the non-converted blue light, and - the second linear array of LEDs comprises a plurality of M groups, each group comprising a red LED, a green LED and a blue LED. - a first linear array of LEDs arranged on a first surface of a carrier including only first LEDs configured to emit first white light. - a second linear array of LEDs arranged on a second surface of the carrier, opposite to said first surface, including only second LEDs configured to emit color controllable light, - the LED filament light comprises the first white light and the color controllable light - the first LEDs comprise UV LEDs emitting UV light and/or blue LEDs emitting blue light, the UV LEDs and/or blue LEDs being covered by a first encapsulant comprising a luminescent material configured to at least partly convert the UV light and/or the blue light into converted light, wherein the white light comprises (i) the converted light and optionally (ii) the non-converted UV light and/or the non-converted blue light, and - the second linear array of LEDs comprises a plurality of M groups, each group comprising a red LED, a green LED and a blue LED.
A plasma filter for separating aggregates and targeted blood cell species from plasma, comprising: a filter housing including an inlet and an outlet and an internal flow path between the inlet and the outlet; filter media disposed in the flow path between the inlet and the outlet for filtering plasma passing therethrough; the filter media comprising (a) a filter (38, 40) configured to substantially remove targeted blood cell types from the plasma and (b) a prefilter upstream of the filter (38, 40); characterized in that the pre-filter including at least one reinforcement layer, and the pre-filter is laminated to the reinforcement layer. a filter housing including an inlet and an outlet and an internal flow path between the inlet and the outlet; filter media disposed in the flow path between the inlet and the outlet for filtering plasma passing therethrough; the filter media comprising (a) a filter (38, 40) configured to substantially remove targeted blood cell types from the plasma and (b) a prefilter upstream of the filter (38, 40); characterized in that the pre-filter including at least one reinforcement layer, and the pre-filter is laminated to the reinforcement layer.
Method for operating a terminal for a communication network, wherein the terminal takes a future route of the terminal as a basis for sending a reservation request for registering in a radio cell of the communication network along the route to a radio cell management server via the communication network, so as then to be able, depending on a response from the radio cell management server, to register in the requested radio cell, characterized in that the reservation request comprises a time when the terminal wishes to register in the radio cell.
An apparatus for performing a surgical procedure, comprising: a hand-held surgical device having a generator and an internal power supply (150, B), wherein the hand-held surgical device is configured to withstand at least one type of high-temperature sterilization; a supplemental DC power supply configured to be in external communication with the internal power supply (150, B), wherein the supplemental DC power supply is an AC/DC converter; and a cord configured to connect the supplemental DC power supply to the internal power supply (150, B) to increase the power supplied to the generator wherein the supplemental DC power supply is configured to recharge the internal power supply (150, B), and wherein the supplemental DC power supply is configured to selectively augment power supplied to the generator via the internal power supply. a hand-held surgical device having a generator and an internal power supply (150, B), wherein the hand-held surgical device is configured to withstand at least one type of high-temperature sterilization; a supplemental DC power supply configured to be in external communication with the internal power supply (150, B), wherein the supplemental DC power supply is an AC/DC converter; and a cord configured to connect the supplemental DC power supply to the internal power supply (150, B) to increase the power supplied to the generator wherein the supplemental DC power supply is configured to recharge the internal power supply (150, B), and wherein the supplemental DC power supply is configured to selectively augment power supplied to the generator via the internal power supply.
Side walls for a range hood housing of a range hood, wherein in the assembled state the side walls form a hollow profile, wherein at least one side wall (20, 10) has at least one elongated cut-out, at least one second side wall has a latching element (12, 22), the cut-out has at least three clamping regions across its length for the force-fit fastening of the latching element (12, 22) of the second side wall (10, 20), and the clamping regions are formed by the front surfaces of the projections directed toward the longitudinal axis of the cut-out, characterised in that the latching element is a latching hook and that the projections are offset relative to one another in the longitudinal direction of the cut-out.
A gas turbine engine comprising: a fan drive gear system including a first fan shaft coupled to a second fan shaft, a first shaft support bearing assembly disposed about the first fan shaft, a second shaft support bearing assembly disposed about the second fan shaft and a planetary gear system coupled to the second fan shaft; and a lubrication system including a transfer bearing configured to receive lubricant from a lubricant input, the transfer bearing engaged to the second fan shaft between the first shaft support bearing assembly and the second shaft support bearing assembly, a second bearing configured to rotate with the second fan shaft and receive lubricant from the transfer bearing and communicate lubricant to at least one lubricant passage, the transfer bearing engaging the second bearing, and a conduit fluidly connecting the at least one lubricant passage to the planetary gear system. a fan drive gear system including a first fan shaft coupled to a second fan shaft, a first shaft support bearing assembly disposed about the first fan shaft, a second shaft support bearing assembly disposed about the second fan shaft and a planetary gear system coupled to the second fan shaft; and a lubrication system including a transfer bearing configured to receive lubricant from a lubricant input, the transfer bearing engaged to the second fan shaft between the first shaft support bearing assembly and the second shaft support bearing assembly, a second bearing configured to rotate with the second fan shaft and receive lubricant from the transfer bearing and communicate lubricant to at least one lubricant passage, the transfer bearing engaging the second bearing, and a conduit fluidly connecting the at least one lubricant passage to the planetary gear system.
A method of determining a top-dead-center position of a piston within a compressor cylinder by performing actions including: extracting a revolution data set representing piston angles over a single revolution of the piston within the compressor cylinder from an asynchronous waveform indicating pressure inside the compressor cylinder; evaluating a property corresponding to the pressure at each piston angle of the revolution data set, wherein the evaluated property comprises a volumetric efficiency of the single revolution of the piston within the compressor cylinder, wherein measure of the volumetric efficiency includes suction volumetric efficiency and discharge volumetric efficiency which are determined using discharge pressure and suction pressure without using the volume corresponding to each pressure; determining whether each piston angle of the revolution data set is an invalid piston angle that does not correspond to the TDC position of the piston within the compressor cylinder based at least in part on a comparison of the evaluated property from the respective piston angle to a respective threshold; removing data representing invalid piston angles from the revolution data set to form a refined data set; and identifying a determined piston angle representing a data value of the refined data set as the TDC position of the piston within the compressor cylinder. extracting a revolution data set representing piston angles over a single revolution of the piston within the compressor cylinder from an asynchronous waveform indicating pressure inside the compressor cylinder; evaluating a property corresponding to the pressure at each piston angle of the revolution data set, wherein the evaluated property comprises a volumetric efficiency of the single revolution of the piston within the compressor cylinder, wherein measure of the volumetric efficiency includes suction volumetric efficiency and discharge volumetric efficiency which are determined using discharge pressure and suction pressure without using the volume corresponding to each pressure; determining whether each piston angle of the revolution data set is an invalid piston angle that does not correspond to the TDC position of the piston within the compressor cylinder based at least in part on a comparison of the evaluated property from the respective piston angle to a respective threshold; removing data representing invalid piston angles from the revolution data set to form a refined data set; and identifying a determined piston angle representing a data value of the refined data set as the TDC position of the piston within the compressor cylinder.