mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: controlling a wireless energy transfer apparatus to synchronize energy transfer with at least one further wireless energy transfer apparatus to wirelessly transfer energy to at least one load in combination with the at least one further wireless energy transfer apparatus , wherein the wireless energy transfer apparatus and the at least one further wireless energy transfer apparatus are separate apparatuses, and wherein controlling a wireless energy transfer apparatus to synchronize energy transfer with at least one further wireless energy transfer apparatus comprises controlling at least one of a frequency and phase of an electrical current passing through at least one magnetic field generator to generate at least one magnetic field having substantially the same frequency and phase as a magnetic field generated by the at least one further wireless energy transfer apparatus ; and determining the amount and direction of current flow in a conductor of the wireless energy transfer apparatus , wherein the amount and direction of current flow in the conductor indicates an amount of wireless energy transfer from or to the wireless energy apparatus ; and characterised by controlling adjustment of at least one of a frequency and phase of wireless energy transfer at the wireless energy transfer apparatus in dependence upon the determination of at least one of the amount and direction of current flow in the conductor.
A filled polyamide composition [composition (C)] comprising: - at least one polyhydric alcohol-modified polyamide, comprising an amount of polyhydric alcohol (PHA, herein after) residues chemically bonded at least to a part of the polyamide [polyamide (A)] of at least 0.1 % wt (based on the total weight of polyamide (A)), obtained by condensation reaction in the presence of the polyhydric alcohol of a mixture of adipic acid and 1,6-diaminohexane; - at least one filler [filler (F)]; and - at least one polyamide, different from polyamide (A), more than 50 % moles of recurring units thereof being of formula -HN-(CH 2 ) 5 -CO- [polyamide (PA6)], in an amount of 5 to 50 % wt, based on the combined weight of polyamide (A) and polyamide (PA6); wherein polyhydric alcohol designates an organic compound containing three or more hydroxyl groups in the molecule. - at least one polyhydric alcohol-modified polyamide, comprising an amount of polyhydric alcohol (PHA, herein after) residues chemically bonded at least to a part of the polyamide [polyamide (A)] of at least 0.1 % wt (based on the total weight of polyamide (A)), obtained by condensation reaction in the presence of the polyhydric alcohol of a mixture of adipic acid and 1,6-diaminohexane; - at least one filler [filler (F)]; and - at least one polyamide, different from polyamide (A), more than 50 % moles of recurring units thereof being of formula -HN-(CH 2 ) 5 -CO- [polyamide (PA6)], in an amount of 5 to 50 % wt, based on the combined weight of polyamide (A) and polyamide (PA6);
A profile connector subassembly for frames for protection devices for use with a building opening, comprising - a profile connector , wherein the profile connector has at least one first connecting arm which can be inserted into a profile strip and a second connecting arm which can be inserted into a profile strip and at least one central region connecting the connecting arms, and - a cover cap , wherein the cover cap can be attached to the profile connector and in the attached state covers the central region of the profile connector at least on one side, wherein at least one recess (5.1, 5.2, 5.3) and at least one elongated projection (6.1, 6.2, 6.3) are configured on the profile connector and the cover cap , wherein in the attached state the elongated projection (6.1, 6.2, 6.3) engages in at least one recess (5.1, 5.2, 5.3), characterised in that a rotational joint having at least one axis of rotation is configured between the first connecting arm and the second connecting arm such that, by a relative pivoting movement about the at least one axis of rotation of the rotational joint , the first connecting arm and the second connecting arm can be transferred from an initial position into an assembly position in which the first connecting arm and the second connecting arm are arranged in one plane at right-angles to one another. - a profile connector , wherein the profile connector has at least one first connecting arm which can be inserted into a profile strip and a second connecting arm which can be inserted into a profile strip and at least one central region connecting the connecting arms, and - a cover cap , wherein the cover cap can be attached to the profile connector and in the attached state covers the central region of the profile connector at least on one side, wherein at least one recess (5.1, 5.2, 5.3) and at least one elongated projection (6.1, 6.2, 6.3) are configured on the profile connector and the cover cap , wherein in the attached state the elongated projection (6.1, 6.2, 6.3) engages in at least one recess (5.1, 5.2, 5.3), characterised in that a rotational joint having at least one axis of rotation is configured between the first connecting arm and the second connecting arm such that, by a relative pivoting movement about the at least one axis of rotation of the rotational joint , the first connecting arm and the second connecting arm can be transferred from an initial position into an assembly position in which the first connecting arm and the second connecting arm are arranged in one plane at right-angles to one another.
An aerosol generating device comprising: a housing defining a cavity for receiving an aerosol generating material ; a power source and a controller ; a plurality of heating circuits (40a-e) for heating the aerosol generating material , each heating circuit comprising a pair of electrical contacts (42a-e) movable between a first position in which the pair of electrical contacts does not extend into the aerosol generating material and a second position in which the pair of electrical contacts extends into the aerosol generating material ; wherein the controller is configured to control the power source to independently supply electrical energy to one or more pairs of the electrical contacts (42a-e) when the electrical contacts are in the second position. a housing defining a cavity for receiving an aerosol generating material ; a power source and a controller ; a plurality of heating circuits (40a-e) for heating the aerosol generating material , each heating circuit comprising a pair of electrical contacts (42a-e) movable between a first position in which the pair of electrical contacts does not extend into the aerosol generating material and a second position in which the pair of electrical contacts extends into the aerosol generating material ; wherein the controller is configured to control the power source to independently supply electrical energy to one or more pairs of the electrical contacts (42a-e) when the electrical contacts are in the second position.
A combine harvester comprising a grain tank having an auger trough in which a cross auger of an unloading system is disposed, the cross auger being operable to define an upturning side and a downturning side , wherein the grain tank comprises a floor section that covers the upturning side of the cross auger and leaves the downturning side exposed.
A spacecraft , comprising a payload subsystem including a plurality of transmit antenna feeds , a digital channelizer , and a power amplification arrangement including a plurality of power amplifiers , the plurality of power amplifiers including at least one power amplifier having a commandably variable saturated power, the power amplification arrangement having at least one input communicatively coupled with an output of the digital channelizer and at least one output communicatively coupled with at least one of the plurality of transmit antenna feeds ; and a processor configured to control the digital channelizer so as to allocate a commandable amount of bandwidth to each of a plurality of receive and/or transmit beams, and dynamically make an adjustment to the variable saturated power of the at least one power amplifier of the plurality of power amplifiers in the power amplification arrangement, wherein the adjustment is tailored to account for a change in operating power of the at least one power amplifier resulting from a change in bandwidth allocated by the digital channelizer to an individual beam associated with the at least one power amplifier . a payload subsystem including a plurality of transmit antenna feeds , a digital channelizer , and a power amplification arrangement including a plurality of power amplifiers , the plurality of power amplifiers including at least one power amplifier having a commandably variable saturated power, the power amplification arrangement having at least one input communicatively coupled with an output of the digital channelizer and at least one output communicatively coupled with at least one of the plurality of transmit antenna feeds ; and a processor configured to control the digital channelizer so as to allocate a commandable amount of bandwidth to each of a plurality of receive and/or transmit beams, and dynamically make an adjustment to the variable saturated power of the at least one power amplifier of the plurality of power amplifiers in the power amplification arrangement, wherein the adjustment is tailored to account for a change in operating power of the at least one power amplifier resulting from a change in bandwidth allocated by the digital channelizer to an individual beam associated with the at least one power amplifier .
A vehicle travel control device comprising: a target acceleration computation section for calculating a target acceleration in accordance with a calculated target vehicle speed and with a detected actual vehicle speed; and a driving force computation section for calculating a driving force command from the target acceleration and outputting the calculated driving force command ; wherein the driving force computation section includes adjustment means configured to adjust a target engine driving force calculated from the target acceleration in accordance with memorized vehicle characteristics and thus to calculate a first driving force command , the vehicle travel control device characterised in that the driving force computation section further includes: first conversion means for converting the first driving force command to a second driving force command in accordance with a predetermined first conversion ratio, second conversion means for converting the second driving force command to a third driving force command in accordance with a predetermined second conversion ratio, and output means for outputting at least one of the first, second, and third driving force commands in accordance with a connected driving force source . a target acceleration computation section for calculating a target acceleration in accordance with a calculated target vehicle speed and with a detected actual vehicle speed; and a driving force computation section for calculating a driving force command from the target acceleration and outputting the calculated driving force command ; wherein the driving force computation section includes adjustment means configured to adjust a target engine driving force calculated from the target acceleration in accordance with memorized vehicle characteristics and thus to calculate a first driving force command , the vehicle travel control device characterised in that the driving force computation section further includes: first conversion means for converting the first driving force command to a second driving force command in accordance with a predetermined first conversion ratio, second conversion means for converting the second driving force command to a third driving force command in accordance with a predetermined second conversion ratio, and output means for outputting at least one of the first, second, and third driving force commands in accordance with a connected driving force source . first conversion means for converting the first driving force command to a second driving force command in accordance with a predetermined first conversion ratio, second conversion means for converting the second driving force command to a third driving force command in accordance with a predetermined second conversion ratio, and output means for outputting at least one of the first, second, and third driving force commands in accordance with a connected driving force source .
A method performed by a user equipment, UE for receiving configuration data from a network node in a wireless communication network , the method comprising: receiving , while in connected mode, conditional SCG addition configuration that includes candidate SCG configurations as well as corresponding trigger conditions, said SCG configurations and trigger conditions are to be stored by the UE while the UE is in dormant state; receiving an RRC Release message that moves the UE to a dormant state, said RRC Release message including an early measurement configuration which the UE will use to perform measurements in dormant state, performing early measurements while in a dormant state according to the early measurement configuration, upon transition to a connected mode, comparing the results of the early measurements to one or more trigger conditions associated with the one or more SCG configurations by checking if the trigger conditions are fulfilled for the one or more SCG configurations, and if a trigger condition is fulfilled, applying the associated SCG configuration, else, keeping the candidate SCG configurations stored. receiving , while in connected mode, conditional SCG addition configuration that includes candidate SCG configurations as well as corresponding trigger conditions, said SCG configurations and trigger conditions are to be stored by the UE while the UE is in dormant state; receiving an RRC Release message that moves the UE to a dormant state, said RRC Release message including an early measurement configuration which the UE will use to perform measurements in dormant state, performing early measurements while in a dormant state according to the early measurement configuration, upon transition to a connected mode, comparing the results of the early measurements to one or more trigger conditions associated with the one or more SCG configurations by checking if the trigger conditions are fulfilled for the one or more SCG configurations, and if a trigger condition is fulfilled, applying the associated SCG configuration, else, keeping the candidate SCG configurations stored.
A method for operating an electromagnetic flowmeter capable of being mounted on to a surface of a flow pipe for measuring a flow of fluid flowing in the flow pipe, the method comprising: exciting at least one coil to have electromagnetic interaction with the fluid in the flow pipe resulting in leakage current in flow pipe due to electromagnetic interaction in the flow pipe ; providing a current to compensate for the resulting leakage current in the flow pipe by applying a potential difference to a pair of electrodes that are in contact with the flow pipe ; detecting a condition with a processing unit wherein the resulting current flowing in the flow pipe is within a threshold range; and determining a measure of flow in the flow pipe with the processing unit based on a value of the applied potential difference, characterised in that : the at least one coil comprises a pair of coils which are placed opposite to each other on the flow pipe , and the flowmeter comprises a housing with a bracket fastened onto the flow pipe , wherein the pair of electrodes are attached to the housing and wherein an inner surface of the bracket is attached with the pair of coils on the flow pipe . exciting at least one coil to have electromagnetic interaction with the fluid in the flow pipe resulting in leakage current in flow pipe due to electromagnetic interaction in the flow pipe ; providing a current to compensate for the resulting leakage current in the flow pipe by applying a potential difference to a pair of electrodes that are in contact with the flow pipe ; detecting a condition with a processing unit wherein the resulting current flowing in the flow pipe is within a threshold range; and determining a measure of flow in the flow pipe with the processing unit based on a value of the applied potential difference, characterised in that : the at least one coil comprises a pair of coils which are placed opposite to each other on the flow pipe , and the flowmeter comprises a housing with a bracket fastened onto the flow pipe , wherein the pair of electrodes are attached to the housing and wherein an inner surface of the bracket is attached with the pair of coils on the flow pipe . the at least one coil comprises a pair of coils which are placed opposite to each other on the flow pipe , and the flowmeter comprises a housing with a bracket fastened onto the flow pipe , wherein the pair of electrodes are attached to the housing and wherein an inner surface of the bracket is attached with the pair of coils on the flow pipe .
A melt-processable thermoplastic polyurethane comprising the reaction product of: an aromatic diisocyanate selected from the group consisting of 4,4'-diphenylmethane diisocyanate, 2,2'-dimethyl- 4,4'-biphenyldiisocyanate, 3,3'-dimethyl-4,4'-biphenyl diisocyanate, and combinations thereof; at least one polyglycol selected from the group consisting of polyethylene oxide glycol (PEG), polypropylene oxide glycol (PPG), polytetramethylene ether glycol (PTMEG), and combinations thereof; and at least one chain extender selected from the group consisting of 2,2-dimethyl-1,3-propanediol, 2-methyl-1,3-propanediol, and combinations thereof; and optionally, an amine-terminated polyether. an aromatic diisocyanate selected from the group consisting of 4,4'-diphenylmethane diisocyanate, 2,2'-dimethyl- 4,4'-biphenyldiisocyanate, 3,3'-dimethyl-4,4'-biphenyl diisocyanate, and combinations thereof; at least one polyglycol selected from the group consisting of polyethylene oxide glycol (PEG), polypropylene oxide glycol (PPG), polytetramethylene ether glycol (PTMEG), and combinations thereof; and at least one chain extender selected from the group consisting of 2,2-dimethyl-1,3-propanediol, 2-methyl-1,3-propanediol, and combinations thereof; and optionally, an amine-terminated polyether.
A carton for storing a product, comprising: a plurality of panels comprising a plurality of major panels and at least one display panel that at least partially define a product storage space ; at least one cutout in at least one of the major panels ; and a presentation area on a surface of the display panel , wherein: the carton is configured such that the presentation area is visible through the at least one cutout after the carton is formed; and the display panel is positioned between the product storage space and the cutout , characterized in that the display panel is an arcuate display panel within an interior of the carton . a plurality of panels comprising a plurality of major panels and at least one display panel that at least partially define a product storage space ; at least one cutout in at least one of the major panels ; and a presentation area on a surface of the display panel , wherein: the carton is configured such that the presentation area is visible through the at least one cutout after the carton is formed; and the display panel is positioned between the product storage space and the cutout , characterized in that the display panel is an arcuate display panel within an interior of the carton . the carton is configured such that the presentation area is visible through the at least one cutout after the carton is formed; and the display panel is positioned between the product storage space and the cutout , characterized in that the display panel is an arcuate display panel within an interior of the carton .
A method of manufacturing a component for a gas turbine, the method comprising: forming one or more grooves in an outer surface of a substrate of said component, wherein each groove extends at least partially along the surface of the substrate and has a base , a top and at least one discharge end ; forming a run-out region directly adjacent to the respective discharge point for each groove such that each run out region extends away from the discharge end of the respective groove; and disposing a coating over at least a portion of the surface of the substrate , wherein the one or more grooves and the coating define one or more channels for cooling the component , wherein the base of each groove is wider than the top , such that each groove comprises a re-entrant shaped groove , wherein no run-out region is re-entrant shaped, wherein each run-out region is wider than the top of the respective groove , and wherein the coating does not bridge the one or more run-out regions , such that each run-out region forms a film hole for the respective groove . forming one or more grooves in an outer surface of a substrate of said component, wherein each groove extends at least partially along the surface of the substrate and has a base , a top and at least one discharge end ; forming a run-out region directly adjacent to the respective discharge point for each groove such that each run out region extends away from the discharge end of the respective groove; and disposing a coating over at least a portion of the surface of the substrate , wherein the one or more grooves and the coating define one or more channels for cooling the component , wherein the base of each groove is wider than the top , such that each groove comprises a re-entrant shaped groove , wherein no run-out region is re-entrant shaped, wherein each run-out region is wider than the top of the respective groove , and wherein the coating does not bridge the one or more run-out regions , such that each run-out region forms a film hole for the respective groove .