mhurhangee/ep-ind-claims huggingface dataset:
A cooling device comprising a cryostat and a cold head of a cooling system, in particular the cold head of a pulse tube refrigerator, the cryostat comprising a vacuum tank in which at least one cryogen tank for a cryogenic liquid is arranged, the cold head being mounted on the cryostat, and a cooling arm of the cold head projecting into an access opening of the cryostat to the cryogen tank, a flexible sealing element, which directly or indirectly connects a wall of the vacuum tank to a room temperature part of the cold head, sealing off the inside of the cryogen tank from the environment, and a connecting line for a working gas of the cooling system, in particular a pressure line for a pulsating working gas, being connected to the cold head, characterized in that the cooling device comprises a pivot bearing, by means of which the cold head is mounted on the cryostat so as to be rotatable about a rotation axis, wherein a rotational movement about the rotation axis is the only degree of freedom of the cold head on the cryostat, and in that the connecting line is connected to the cold head in such a way that forces caused by the cooling system act on the cold head via the connecting line at a force application point in a force application direction, the force application direction being inclined by no more than 40° with respect to the normal of a lever plane which contains the rotation axis and the force application point.
A method of extending transmission coverage for a base station, the method comprising: transmitting a system information over a physical channel located at a first physical location in a group of radio frames; determining based on a cell identification, ID, of the base station a second physical location for a repetition of the system information over the physical channel located at the second physical location in a group of consecutive radio frames; and transmitting the repetition of the system information at the second physical location in the group of consecutive radio frames; wherein determining based on the cell ID of the base station the second physical location for the repetition of the system information comprises: allocating the second physical location for the repetition of the system information in a subdivision of a radio frame of the group of consecutive radio frames, wherein each radio frame has multiple subdivisions numbered from zero counting up, and the second physical location is located at subdivision number K + (cell ID mod X), wherein X is a non-zero integer and K is an integer and stands for a subdivision offset. transmitting a system information over a physical channel located at a first physical location in a group of radio frames; determining based on a cell identification, ID, of the base station a second physical location for a repetition of the system information over the physical channel located at the second physical location in a group of consecutive radio frames; and transmitting the repetition of the system information at the second physical location in the group of consecutive radio frames; wherein determining based on the cell ID of the base station the second physical location for the repetition of the system information comprises: allocating the second physical location for the repetition of the system information in a subdivision of a radio frame of the group of consecutive radio frames, wherein each radio frame has multiple subdivisions numbered from zero counting up, and the second physical location is located at subdivision number K + (cell ID mod X), wherein X is a non-zero integer and K is an integer and stands for a subdivision offset. allocating the second physical location for the repetition of the system information in a subdivision of a radio frame of the group of consecutive radio frames, wherein each radio frame has multiple subdivisions numbered from zero counting up, and the second physical location is located at subdivision number K + (cell ID mod X), wherein X is a non-zero integer and K is an integer and stands for a subdivision offset.
A method for producing a bloom-retarding component for chocolate and chocolate-like products, the method comprising the step of: Deodorizing a triglyceride composition, said triglyceride composition comprising at least 40% by weight of mono unsaturated symmetric triglycerides selected from the group consisting of POP, StOSt and POSt, where P equals palmityl, St equals stearyl and O equals oleyl, wherein said triglyceride composition comprises cocoa butter, the deodorizing taking place for between 80 and 480 minutes at a temperature of at least 235 °C. Deodorizing a triglyceride composition, said triglyceride composition comprising at least 40% by weight of mono unsaturated symmetric triglycerides selected from the group consisting of POP, StOSt and POSt, where P equals palmityl, St equals stearyl and O equals oleyl, wherein said triglyceride composition comprises cocoa butter, the deodorizing taking place for between 80 and 480 minutes at a temperature of at least 235 °C.
An encoder for encoding an audio signal, wherein the encoder is configured to encode the audio signal in a transform domain or filter-bank domain, wherein the encoder is configured to determine spectral coefficients (106_t0_f1:106_t0_f6; 106_t-1_f1:106_t-1_f6) of the audio signal for a current time frame (108_t0) and at least one previous time frame (108_t-1), wherein the encoder is configured to selectively apply predictive encoding to a plurality of individual spectral coefficients (106_t0_f2) or groups of spectral coefficients (106_t0_f4,106_t0_f5), wherein the encoder is configured to determine a spacing value, wherein the encoder is configured to select the plurality of individual spectral coefficients (106_t0_f2) or groups of spectral coefficients (106_t0_f4,106_t0_f5) to which predictive encoding is applied based on the spacing value; characterised in that the encoder is configured to select individual spectral coefficients or groups (116_1:116_6) of spectral coefficients spectrally arranged according to a harmonic grid defined by the spacing value for predictive encoding
A system comprising: a first magnetoresistive sense element configured to produce a first output signal in response to an external magnetic field directed along a sensing axis parallel to a plane of the first magnetoresistive sense element, the first magnetoresistive sense element having a first layer magnetization; a second magnetoresistive sense element having a second layer magnetization that is rotated in the plane relative to the first layer magnetization, the second magnetoresistive sense element being configured to produce a second output signal in response to the external magnetic field, wherein the second output signal differs from the first output signal in dependency to a magnetic interference field directed along a non-sensing axis of the firstmagnetoresistive sense element; and a processing circuit coupled with the first and second magnetoresistive sense elements (60, 62), characterized in that the processing circuit is configured to receive the first and second output signals (94, 96), identify from a relationship between the first and second output signals (94, 96) an influence of the magnetic interference field on the first output signal, and apply a correction factor to the first output signal to produce a resultant output signal in which the influence of the magnetic interference field is substantially removed. a first magnetoresistive sense element configured to produce a first output signal in response to an external magnetic field directed along a sensing axis parallel to a plane of the first magnetoresistive sense element, the first magnetoresistive sense element having a first layer magnetization; a second magnetoresistive sense element having a second layer magnetization that is rotated in the plane relative to the first layer magnetization, the second magnetoresistive sense element being configured to produce a second output signal in response to the external magnetic field, wherein the second output signal differs from the first output signal in dependency to a magnetic interference field directed along a non-sensing axis of the firstmagnetoresistive sense element; and a processing circuit coupled with the first and second magnetoresistive sense elements (60, 62), characterized in that the processing circuit is configured to receive the first and second output signals (94, 96), identify from a relationship between the first and second output signals (94, 96) an influence of the magnetic interference field on the first output signal, and apply a correction factor to the first output signal to produce a resultant output signal in which the influence of the magnetic interference field is substantially removed.
An imaging system for capturing images of biological samples having a surface, the system comprising: - a sample support for supporting a biological sample in use; - a plurality of illumination sources, the plurality of illumination sources being arranged around the sample support and each adapted to illuminate the biological sample, in use, from a different direction; - a head unit including an image capture device for capturing illumination which has impinged on the biological sample to thereby form an image of the sample; wherein the plurality of illumination sources includes an annular source directed towards the surface to produce annular illumination, and an annular source directed upwards away from the surface to produce inverse annular illumination wherein said annular source illumination and said inverse annular source illumination directions are not perpendicular to the surface of the sample and wherein said inverse annular illumination is reflected from the head unit and wherein the plurality of illumination sources further includes: a backlighting source having an illumination direction being perpendicular to the biological sample; a near horizontal source located in the sample support; and a vertical source located in the head unit and having an illumination direction being perpendicular to the biological sample. - a sample support for supporting a biological sample in use; - a plurality of illumination sources, the plurality of illumination sources being arranged around the sample support and each adapted to illuminate the biological sample, in use, from a different direction; - a head unit including an image capture device for capturing illumination which has impinged on the biological sample to thereby form an image of the sample; wherein the plurality of illumination sources includes an annular source directed towards the surface to produce annular illumination, and an annular source directed upwards away from the surface to produce inverse annular illumination wherein said annular source illumination and said inverse annular source illumination directions are not perpendicular to the surface of the sample and wherein said inverse annular illumination is reflected from the head unit and wherein the plurality of illumination sources further includes: a backlighting source having an illumination direction being perpendicular to the biological sample; a near horizontal source located in the sample support; and a vertical source located in the head unit and having an illumination direction being perpendicular to the biological sample.
A method for configuring a search space of a physical downlink control channel, PDCCH, performed by a network device, comprising: transmitting PDCCH configuration information to a user equipment, UE, wherein the PDCCH configuration information is for indicating at least one search space of a PDCCH of the UE, and the search space is a group common search space; wherein types of downlink control information, DCI, transmitted by the network device using the different types of search spaces are different; characterized in that: a starting position of the group common search space of the UE is irrelevant to an identity of the UE. transmitting PDCCH configuration information to a user equipment, UE, wherein the PDCCH configuration information is for indicating at least one search space of a PDCCH of the UE, and the search space is a group common search space; wherein types of downlink control information, DCI, transmitted by the network device using the different types of search spaces are different; characterized in that: a starting position of the group common search space of the UE is irrelevant to an identity of the UE.
A compressor rotor airfoil for a gas turbine engine, the airfoil comprising: opposed pressure and suction sides (32, 34) joined together at chordally opposite leading and trailing edges (36, 38), the pressure and suction sides extending in a span direction from a root to a tip; and a leading edge dihedral angle (β) defined at a point on the leading edge between a tangent to the airfoil and a vertical, the leading edge dihedral angle having a span-wise distribution; characterized in that: the dihedral angle decreases from the root to a first inflection point along the span, increases from the first inflection point to a second inflection point along the span, and decreases from the second inflection point to the tip, wherein the first inflection point is disposed at about 80% of the span, and the second inflection point is disposed at about 95% of the span. opposed pressure and suction sides (32, 34) joined together at chordally opposite leading and trailing edges (36, 38), the pressure and suction sides extending in a span direction from a root to a tip; and a leading edge dihedral angle (β) defined at a point on the leading edge between a tangent to the airfoil and a vertical, the leading edge dihedral angle having a span-wise distribution; characterized in that: the dihedral angle decreases from the root to a first inflection point along the span, increases from the first inflection point to a second inflection point along the span, and decreases from the second inflection point to the tip, wherein the first inflection point is disposed at about 80% of the span, and the second inflection point is disposed at about 95% of the span.
A system comprising a trailer attachable to an autonomous driven vehicle and a single autonomous driven vehicle, the system comprising a control system configured for autonomous driving of the vehicle, comprising a first environment sensor attached at a specific location of the vehicle configured to observe a specific portion of environments of the vehicle, and at least one second environment sensor attached at any specific location of the vehicle being configured to observe at least a portion of the specific portion of environments of the vehicle simultaneously to an observation of the first environment sensor, characterized by further comprising a side radar device attached at a lateral side of the trailer of the system such that it looks laterally of the system for observing a further specific portion of the environments of the system and another device for observing the further specific portion of the environments of the system. a first environment sensor attached at a specific location of the vehicle configured to observe a specific portion of environments of the vehicle, and at least one second environment sensor attached at any specific location of the vehicle being configured to observe at least a portion of the specific portion of environments of the vehicle simultaneously to an observation of the first environment sensor, characterized by further comprising a side radar device attached at a lateral side of the trailer of the system such that it looks laterally of the system for observing a further specific portion of the environments of the system and another device for observing the further specific portion of the environments of the system.
A separator for secondary batteries comprising: a flame retardant inorganic material, the separator being characterised by the following: the flame retardant inorganic material exists in a stable form and a metastable form, wherein the separator for secondary batteries always comprises the flame retardant inorganic material in the metastable form, wherein the flame retardant inorganic material is aluminum hydroxide (Al 3), wherein the flame retardant inorganic material in the stable form is gibbsite, and the flame retardant inorganic material in the metastable form is at least one of bayerite, doyleite and nordstrandite, and wherein the flame retardant inorganic material in the metastable form is at least 2 wt% of an entire content of flame retardant inorganic material. the flame retardant inorganic material exists in a stable form and a metastable form, wherein the separator for secondary batteries always comprises the flame retardant inorganic material in the metastable form, wherein the flame retardant inorganic material is aluminum hydroxide (Al 3), wherein the flame retardant inorganic material in the stable form is gibbsite, and the flame retardant inorganic material in the metastable form is at least one of bayerite, doyleite and nordstrandite, and wherein the flame retardant inorganic material in the metastable form is at least 2 wt% of an entire content of flame retardant inorganic material.
Fireproof polymer matrix composite structure for an outer skin of a tail cone of an aircraft, comprising: a CFRP lay-up having a first side and a second side, a first GFRP layer located, on the first side of the CFRP lay-up or on the second side of the CFRP lay-up, said first GFRP layer being configured to prevent the propagation of fire through the CFRP lay-up in any of its sides (4, 5), and a second GFRP layer located, on the first side or on the second side of the CFRP lay-up, said sides (4, 5) not being occupied by the first GFRP layer, wherein the CFRP lay-up is a tape of carbon fibre material that comprises at least eight plies of carbon fibre tape, and the first GFRP layer has a width of at least 0,066 mm. a CFRP lay-up having a first side and a second side, a first GFRP layer located, on the first side of the CFRP lay-up or on the second side of the CFRP lay-up, said first GFRP layer being configured to prevent the propagation of fire through the CFRP lay-up in any of its sides (4, 5), and a second GFRP layer located, on the first side or on the second side of the CFRP lay-up, said sides (4, 5) not being occupied by the first GFRP layer, wherein the CFRP lay-up is a tape of carbon fibre material that comprises at least eight plies of carbon fibre tape, and the first GFRP layer has a width of at least 0,066 mm.
Tray-type rack for a baking oven having a baking chamber, which rack is able to be moved by means of wheels, wherein the wheels of the tray-type rack are produced from a high temperature-resistant plastic material, and wherein the tray-type rack has, as viewed in the insertion direction, a front frame and, situated therebehind so as to be spaced apart, a rear frame, which frames are connected on their opposite frame sides (9, 10), oriented transversely with respect to the insertion direction, in each case by means of multiple connecting struts (11a to 11g) which are situated one above the other on different levels as viewed in the vertical axis direction (z), are of rod-like form and form a tray-type frame side part, characterized in that, on each of the opposite frame sides (9, 10), in each case at least one wheel is arranged on a lower strut, as viewed in the vertical axis direction (z), of the rod-like connecting struts.
A method for recovering a tungsten oxide, the method comprising the steps of: the step of preparing a tungsten compound solution in which tungsten-containing polyatomic ions are dissolved by eluting the metal component of a cemented carbide containing tungsten into an alkaline solution the adsorption step of adsorbing the tungsten-containing polyatomic ions to a microorganism by introducing the microorganism to the tungsten compound solution and adjusting the pH of the tungsten compound solution to an acidic level; and the washing and collecting step of collecting the microorganism to which the tungsten-containing polyatomic ions are adsorbed and washing the microorganism. the step of preparing a tungsten compound solution in which tungsten-containing polyatomic ions are dissolved by eluting the metal component of a cemented carbide containing tungsten into an alkaline solution the adsorption step of adsorbing the tungsten-containing polyatomic ions to a microorganism by introducing the microorganism to the tungsten compound solution and adjusting the pH of the tungsten compound solution to an acidic level; and the washing and collecting step of collecting the microorganism to which the tungsten-containing polyatomic ions are adsorbed and washing the microorganism.
Method for checking a detector line of a danger warning system in a non-operational state for excessively high resistance, which detector line is supplied with a constant line voltage and has n detectors (n ≥ 1), said method comprising: limiting a voltage at an end of the detector line by means of a terminal module to a value that is greater than a minimum operating voltage of a detector, setting a closed-circuit current of the detector line by means of the terminal module to a value that is greater than the sum of closed-circuit currents of the n detectors (n ≥ 1) and smaller than an alarm current of an individual detector at the minimum operating voltage thereof, wherein, in order to identify excessively high resistance, the following steps are carried out: measuring the closed-circuit current of the detector line terminated by the terminal module, comparing the measured closed-circuit current with a target value and generating an error message if the target value is not met. limiting a voltage at an end of the detector line by means of a terminal module to a value that is greater than a minimum operating voltage of a detector, setting a closed-circuit current of the detector line by means of the terminal module to a value that is greater than the sum of closed-circuit currents of the n detectors (n ≥ 1) and smaller than an alarm current of an individual detector at the minimum operating voltage thereof, wherein, in order to identify excessively high resistance, the following steps are carried out: measuring the closed-circuit current of the detector line terminated by the terminal module, comparing the measured closed-circuit current with a target value and generating an error message if the target value is not met. measuring the closed-circuit current of the detector line terminated by the terminal module, comparing the measured closed-circuit current with a target value and generating an error message if the target value is not met.