mhurhangee/patent-ind-claim-en huggingface dataset:
A method of detecting a foreign object in a charging area of a wireless power transmitter, the method comprising: detecting an object placed in the charging area in a selection phase (S1610); transmitting, by the wireless power transmitter, a power signal having a predetermined strength, measuring a current peak frequency F_current_peak which is a frequency - having a maximum quality factor value among the quality factor values measured at a plurality of frequencies within the available frequency band before entering a ping phase(S1620), or - having a largest coil voltage, or - having a largest voltage across a resonant capacitor; receiving, from a wireless power receiver, information about a reference peak frequency; determining a threshold reference frequency F_reference_threshold based on the reference peak frequency (S1630); wherein the threshold reference frequency F_reference_threshold is determined based on a sum of the reference peak frequency and a tolerance; and determining, whether the measured current peak frequency F_current_peak exceeds the determined threshold reference frequency F_reference_threshold (S1640); determining that the foreign object is detected when the measured peak frequency F_current_peak is greater than the threshold reference frequency F_reference_threshold (S1650); and determining that the foreign object is not detected when the measured peak frequency F_current_peak is equal or less than the threshold reference frequency F_reference_threshold (S1660). detecting an object placed in the charging area in a selection phase (S1610); transmitting, by the wireless power transmitter, a power signal having a predetermined strength, measuring a current peak frequency F_current_peak which is a frequency - having a maximum quality factor value among the quality factor values measured at a plurality of frequencies within the available frequency band before entering a ping phase(S1620), or - having a largest coil voltage, or - having a largest voltage across a resonant capacitor; - having a maximum quality factor value among the quality factor values measured at a plurality of frequencies within the available frequency band before entering a ping phase(S1620), or - having a largest coil voltage, or - having a largest voltage across a resonant capacitor; receiving, from a wireless power receiver, information about a reference peak frequency; determining a threshold reference frequency F_reference_threshold based on the reference peak frequency (S1630); wherein the threshold reference frequency F_reference_threshold is determined based on a sum of the reference peak frequency and a tolerance; and determining, whether the measured current peak frequency F_current_peak exceeds the determined threshold reference frequency F_reference_threshold (S1640); determining that the foreign object is detected when the measured peak frequency F_current_peak is greater than the threshold reference frequency F_reference_threshold (S1650); and determining that the foreign object is not detected when the measured peak frequency F_current_peak is equal or less than the threshold reference frequency F_reference_threshold (S1660).
A vessel carrier for use in connection to an automated laboratory system , the vessel carrier comprising an upper side , a bottom side to be placed in contact with an electrical drain of the automated laboratory system and a middle body portion between the upper side and the bottom side , the upper side comprising one or more openings for introducing a respective number of vessels into a respective number of vessel holding positions comprised in the middle body portion , the vessel holding positions comprising walls for holding a respective number of vessels in contact with the walls , the walls extending respectively in correspondence to the one or more openings on the upper side from the bottom side into the middle body portion , wherein the vessel carrier comprises a two-component structure comprising - a core component made of an electrically conductive material, the core component comprising the bottom side and the walls of the one or more vessel holding positions ; and - a cover component that covers at least part of the core component and is made of a material that is different or has different properties with respect to the material of the core component and is customizable for identification and/or handling, the cover component comprising the upper side ; characterized in that the electrically conductive material is an electrically conductive polymeric material comprising a mixture of polymer and carbon fiber, wherein the electrically conductive polymeric material comprises the mixture at a dosage of at least 70%. - a core component made of an electrically conductive material, the core component comprising the bottom side and the walls of the one or more vessel holding positions ; and - a cover component that covers at least part of the core component and is made of a material that is different or has different properties with respect to the material of the core component and is customizable for identification and/or handling, the cover component comprising the upper side ;
A shear band for a tire, the shear band comprising a first fabric layer for extending circumferentially around the tire, a second fabric layer for extending circumferentially around the tire, and a spacer layer interposed between the first fabric layer and the second fabric layer , and the spacer layer consisting of or containing only monofilament yarns, characterized in that the first fabric layer consists of or contains only multifilament yarns and the second fabric layer consists of or contains only multifilament yarns, and in that the first fabric layer forms a pattern having hexagonal vacant spaces and/or in that the second fabric layer forms a pattern having hexagonal vacant spaces.
An alumina-based thermally conductive oxide obtained by firing a starting material mixture comprising an aluminum starting material, wherein the aluminum starting material is at least one selected from the group consisting of boehmite, aluminum hydroxide, and alumina, the starting material mixture further comprises: a boric acid compound; and at least one oxide starting material selected from the group consisting of a tungsten compound, a bismuth compound, a vanadium compound, a titanium compound, a frit, a phosphorus compound, a zinc compound, and a cerium compound, and in the staring material mixture, a content of the boric acid compound is 0.1 to 5 parts by mass, and a content of the oxide starting material is 0.1 to 20 parts by mass each based on 100 parts by mass of the aluminum starting material. the aluminum starting material is at least one selected from the group consisting of boehmite, aluminum hydroxide, and alumina, the starting material mixture further comprises: a boric acid compound; and at least one oxide starting material selected from the group consisting of a tungsten compound, a bismuth compound, a vanadium compound, a titanium compound, a frit, a phosphorus compound, a zinc compound, and a cerium compound, and in the staring material mixture, a content of the boric acid compound is 0.1 to 5 parts by mass, and a content of the oxide starting material is 0.1 to 20 parts by mass each based on 100 parts by mass of the aluminum starting material.
An MyD88 inhibitor for use in vivo in protecting an RPE cell against Alu-RNA-induced degeneration, wherein the MyD88 inhibitor comprises a sequence selected from the sequences of SEQ ID NO: 1, 54, and 55 or wherein the MyD88 inhibitor is a double stranded RNA molecule that inhibits expression of MyD88, at least one strand of which comprises a sequence selected from the sequences of SEQ ID NOS: 3, 4, 5, 6, and 56. the MyD88 inhibitor comprises a sequence selected from the sequences of SEQ ID NO: 1, 54, and 55 or wherein the MyD88 inhibitor is a double stranded RNA molecule that inhibits expression of MyD88, at least one strand of which comprises a sequence selected from the sequences of SEQ ID NOS: 3, 4, 5, 6, and 56.
A sheet, comprising: a composition comprising 60 to 80 weight percent of polyphenylene, 0 to 10 weight percent of polystyrene, 10 to 20 weight percent of a hydrogenated block copolymer of an alkenyl aromatic compound and a conjugated diene, 3 to 10 weight percent of polysalicylate, and 3 to 20 weight percent of a phosphorous containing flame retardant additive, wherein the hydrogenated block copolymer has a weight average molecular weight of 100,000 to 150,000, determined by gel permeation chromatography and based on comparison to polystyrene standards. a composition comprising 60 to 80 weight percent of polyphenylene, 0 to 10 weight percent of polystyrene, 10 to 20 weight percent of a hydrogenated block copolymer of an alkenyl aromatic compound and a conjugated diene, 3 to 10 weight percent of polysalicylate, and 3 to 20 weight percent of a phosphorous containing flame retardant additive, wherein the hydrogenated block copolymer has a weight average molecular weight of 100,000 to 150,000, determined by gel permeation chromatography and based on comparison to polystyrene standards.
A clutch device comprising: - a first and a second input side ; - a first and a second output side ; - wherein the input sides and the output sides can be rotated about a common rotational axis ; - a first clutch between the first input side and the first output side ; - a second clutch between the first input side and the second output side ; and characterised in that it is further configured with - a third clutch between the first input side and the second input side ; and - a centrifugal pendulum . - a first and a second input side ; - a first and a second output side ; - wherein the input sides and the output sides can be rotated about a common rotational axis ; - a first clutch between the first input side and the first output side ; - a second clutch between the first input side and the second output side ; and characterised in that it is further configured with - a third clutch between the first input side and the second input side ; and - a centrifugal pendulum .
A hydro-flushing apparatus comprising a chassis , a suction tank mounted to this chassis , a suction pipe , means for pumping effluents by means of this pipe to the tank , a suction reel to store this suction pipe , this suction reel being rotatably mounted about a substantially vertical axis, characterised in that this suction reel is mounted between said chassis and said suction tank .
A method for reducing self-interference by a localized subnetwork of a wireless communications network, comprising a plurality of nodes in the localized subnetwork performing the following: a) receiving by a first node at least one calibrating message from one or more other nodes in the localized subnetwork; b) determining by the first node, from each received calibrating message, a transmit power, a noise floor level, and a link margin for each corresponding node, wherein determining the link margin includes determining a signal-to-noise ratio, and wherein the transmit power for the calibrating message is predefined and thereby known to the first node, and the noise floor level is included in the calibrating message; c) determining which node has the lowest link margin; d) calculating by the first node, a minimum safe transmit power for the subnetwork, based on the determined transmit power, the noise floor level and the signal-to-noise ratio of the node with the lowest link margin together with a predetermined error margin and a measured noise floor level at the first node; and e) adjusting by the first node of its transmit power to the minimum safe transmit power for the subnetwork. a) receiving by a first node at least one calibrating message from one or more other nodes in the localized subnetwork; b) determining by the first node, from each received calibrating message, a transmit power, a noise floor level, and a link margin for each corresponding node, wherein determining the link margin includes determining a signal-to-noise ratio, and wherein the transmit power for the calibrating message is predefined and thereby known to the first node, and the noise floor level is included in the calibrating message; c) determining which node has the lowest link margin; d) calculating by the first node, a minimum safe transmit power for the subnetwork, based on the determined transmit power, the noise floor level and the signal-to-noise ratio of the node with the lowest link margin together with a predetermined error margin and a measured noise floor level at the first node; and e) adjusting by the first node of its transmit power to the minimum safe transmit power for the subnetwork.
A charge-modified particle comprising the inorganic core and a shell surrounding the inorganic core, wherein the shell comprises a copolymer comprising monomeric units corresponding to free-radically polymerizable monomers, and wherein at least one of the monomeric units comprises a substituted benzotriazolylphenolate salt.
A sensor device for sensing particles, the sensor device being configured as a biosensor and comprising - a substrate that is a semiconductor substrate; and - a sensor active region arranged in and/or on the substrate and being sensitive to the presence of the particles to be detected, wherein the sensor active region comprises - a metallic carrier ; and - a self assembled monolayer positioned on the metallic carrier , and wherein the metallic carrier comprises comb-shaped interdigitated electrodes having a plurality of fingers extending from a base strip, characterized in that the sensor device comprises a heater and/or a temperature sensor, wherein the metallic carrier additionally comprises a meander-shaped line having a plurality of loops; and wherein the fingers of the interdigitated electrodes extend between the loops. - a substrate that is a semiconductor substrate; and - a sensor active region arranged in and/or on the substrate and being sensitive to the presence of the particles to be detected, - a metallic carrier ; and - a self assembled monolayer positioned on the metallic carrier , and
An optical fiber protection system , comprising: an optical fiber ; a light source configured to transmit a signal to the optical fiber ; and a protection circuit extending along a length direction (D) of the optical fiber ; a sensor electrically connected to the protection circuit , wherein the sensor is configured to sense an electrical resistance of the protection circuit ; and a controller electrically connected to the sensor and the light source . an optical fiber ; a light source configured to transmit a signal to the optical fiber ; and a protection circuit extending along a length direction (D) of the optical fiber ; a sensor electrically connected to the protection circuit , wherein the sensor is configured to sense an electrical resistance of the protection circuit ; and a controller electrically connected to the sensor and the light source .
An in-vitro method for testing expression in a cancer-tissue from a patient of one or more biomarkers of sensitivity or resistance to a secretory phospholipase A 2 (sPLA 2 ) hydrolysable, cisplatin-containing liposome comprising determining a level of PLA2G2A or a complement thereof in a tumor sample from the patient and: (a) determining a level of expression in said tissue sample of one or more biomarkers of sensitivity selected from Table 1 or a complement thereof, wherein sensitivity refers to responsiveness of a cell or tissue to treatment with the sPLA 2 hydrolysable, cisplatin-containing liposome; or (b) determining a level of expression in said tissue sample of one or more biomarkers of resistance selected from Table 2 or a complement thereof, wherein resistance refers to non-responsiveness of a cell or tissue to treatment with the sPLA 2 hydrolysable, cisplatin-containing liposome. (a) determining a level of expression in said tissue sample of one or more biomarkers of sensitivity selected from Table 1 or a complement thereof, wherein sensitivity refers to responsiveness of a cell or tissue to treatment with the sPLA 2 hydrolysable, cisplatin-containing liposome; or (b) determining a level of expression in said tissue sample of one or more biomarkers of resistance selected from Table 2 or a complement thereof, wherein resistance refers to non-responsiveness of a cell or tissue to treatment with the sPLA 2 hydrolysable, cisplatin-containing liposome.
A handheld device for repeated local puncture of human or animal skin, comprising: - a housing on which a handle is farmed. - a drive device which is disposed in the housing and with which a rotational movement about an axis of rotation is provided via a driveshaft , - a conversion mechanism which is coupled to the driveshaft and is disposed in the housing and configured to convert the rotational movement into a drive movement along a drive movement direction to produce a back-and-forth movement, and - a puncture device , which is disposed in the housing and which comprises a puncture needle which is disposed on a needle shaft and which can be repeatedly moved back and forth together with the puncture needle along a path of movement and which is connected to the conversion mechanism , wherein the conversion mechanism comprises a rod crank device, and a stroke executed by the puncture needle when moving back and forth is adjustable by altering a relative position between an axial direction of the axis of rotation and the direction of the drive movement, characterized in that the direction of the drive movement is not parallel to the axial direction of the axis of rotation. - a housing on which a handle is farmed. - a drive device which is disposed in the housing and with which a rotational movement about an axis of rotation is provided via a driveshaft , - a conversion mechanism which is coupled to the driveshaft and is disposed in the housing and configured to convert the rotational movement into a drive movement along a drive movement direction to produce a back-and-forth movement, and - a puncture device , which is disposed in the housing and which comprises a puncture needle which is disposed on a needle shaft and which can be repeatedly moved back and forth together with the puncture needle along a path of movement and which is connected to the conversion mechanism ,
Arrangement comprising a length-adjustable storage device for an overlength plate for marking protruding load of a load vehicle and an overlength plate , wherein the storage device has at least one first telescopic part and a second telescopic part movable relative to the first telescopic part , wherein the first telescopic part can be mounted on a vehicle frame of a load vehicle , characterized in that the overlength plate is pivotably mounted on the second telescopic part and can be releasably locked in at least one pivot position relative to the second telescopic part , wherein the overlength plate is mounted on a plate carrier that is pivotably mounted on the second telescopic part for mounting the overlength plate on the storage device .
Optical enhancement resonator for nonlinear processes formed as a passive resonator of multiple mirrors (1-4, 7, 8), by means of which an optical axis is specified, which has at least one obstacle on the optical axis in the form of a through-opening in one of the mirrors (1-4, 7, 8) or of an incoupling or outcoupling element, wherein the mirrors (1-4, 7, 8) are selected and arranged such that - the resonator is stable and - without the obstacle has first transverse eigenmodes which belong to a group of eigenmodes with the same resonant frequency, wherein at least three of these groups exist in the resonator with a different resonance frequency, and by means of the obstacle by combination of the first transverse eigenmodes of a resonance frequency new eigenmodes are produced which have an intensity minimum at the position of the obstacle, characterized in that the mirrors (1-4, 7, 8) form a ring resonator, the optical axis of which lies in a plane and which has two curved mirrors . - the resonator is stable and - without the obstacle has first transverse eigenmodes which belong to a group of eigenmodes with the same resonant frequency,
A control valve assembly for a heating and/or cooling system comprising a control valve with an inlet pipe and comprising an actuation drive unit installed on the control valve, wherein the control valve provides a fluid channel for a working medium extending from an inlet opening provided at the inlet pipe to an outlet opening, and wherein a first flow opening having an adjustable size as a first throttle point for the working medium and a second flow opening having an adjustable size as a second throttle point for the working medium are provided at the fluid channel, characterised in that the actuation drive unit is configured as a double-acting actuation drive unit and provides a common drive housing as well as a first actuator arranged in the common drive housing and a second actuator arranged in the common drive housing, wherein the first actuator is operatively connected to the control valve for adjusting the size of the first flow opening, and wherein the second actuator is operatively connected to the control valve for adjusting the size of the second flow opening.
An industrial process control system comprising: a controller configured to couple to a field device , wherein the controller is configured to receive alert information for the field device via a first protocol; and an alert server configured to couple to the controller , wherein the alert server is configured to receive the alert information from the controller via a second protocol, wherein the controller comprises a first process for providing an interface with the field device , wherein the controller is configured to detect, via the first protocol, removal of the field device , to remove alert information relating to the field device from an alarm data manager and to communicate, in the second protocol, the removal of the field device to the alert server , wherein the alert server is configured to communicate the removal of the field device to an alarm viewer , a redundant controller , or a combination thereof, the system further comprising a live list that lists all the field devices currently attached to the industrial process control system, wherein the controller is configured to query the live list to detect the removal of the field device , and wherein the controller is configured to collect alert information from the field device upon reattachment of the field device to the industrial process control system and the controller is configured to distribute the alert information to the alert server . a controller configured to couple to a field device , wherein the controller is configured to receive alert information for the field device via a first protocol; and an alert server configured to couple to the controller , wherein the alert server is configured to receive the alert information from the controller via a second protocol, wherein the controller comprises a first process for providing an interface with the field device , wherein the controller is configured to detect, via the first protocol, removal of the field device , to remove alert information relating to the field device from an alarm data manager and to communicate, in the second protocol, the removal of the field device to the alert server , wherein the alert server is configured to communicate the removal of the field device to an alarm viewer , a redundant controller , or a combination thereof, the system further comprising a live list that lists all the field devices currently attached to the industrial process control system, wherein the controller is configured to query the live list to detect the removal of the field device , and wherein the controller is configured to collect alert information from the field device upon reattachment of the field device to the industrial process control system and the controller is configured to distribute the alert information to the alert server .