mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling power supplied to an aerosol-generating element of an aerosol-generating device , the aerosol-generating device comprising an aerosol-generating element , a control unit and a battery for delivering power to the aerosol-generating element and to the control unit, the control unit configured to adjust a duty cycle (DC) of a current supplied from the battery to the aerosol-generating element, wherein the method comprises the steps of: measuring using a measuring unit , at least one first characteristic (T bat ) of the battery , wherein the at least one first characteristic (T bat ) comprises a temperature of the battery (T bat ); and adjusting, using the control unit , a value of the duty cycle (DC) based on a predetermined rule which outputs a value of duty cycle (DC) based on the measured at least one battery characteristic (T bat ). measuring using a measuring unit , at least one first characteristic (T bat ) of the battery , wherein the at least one first characteristic (T bat ) comprises a temperature of the battery (T bat ); and adjusting, using the control unit , a value of the duty cycle (DC) based on a predetermined rule which outputs a value of duty cycle (DC) based on the measured at least one battery characteristic (T bat ).
A circuit to correct geometric distortion, comprising a memory configured to store image data representing a captured image for which pixel density varies across different image regions; a processor configured to process the image data using tiles to correct geometric distortion and to output corrected tiles , the corrected tiles having numbers of sub-tiles selected from a group of numbers based upon pixel densities associated with different regions of the captured image, wherein larger sub-tiles are used for less dense image regions of the captured image and smaller sub-tiles are used for more dense image regions of the captured image, wherein: source data blocks of the image data associated with the sub-tiles are processed to correct geometric distortion and generate corrected sub-tiles ; corrected sub-tiles are combined to form a corrected tile; and corrected tiles are combined to form a corrected image ; and a memory configured to store the corrected image . a memory configured to store image data representing a captured image for which pixel density varies across different image regions; a processor configured to process the image data using tiles to correct geometric distortion and to output corrected tiles , the corrected tiles having numbers of sub-tiles selected from a group of numbers based upon pixel densities associated with different regions of the captured image, wherein larger sub-tiles are used for less dense image regions of the captured image and smaller sub-tiles are used for more dense image regions of the captured image, wherein: source data blocks of the image data associated with the sub-tiles are processed to correct geometric distortion and generate corrected sub-tiles ; corrected sub-tiles are combined to form a corrected tile; and corrected tiles are combined to form a corrected image ; and source data blocks of the image data associated with the sub-tiles are processed to correct geometric distortion and generate corrected sub-tiles ; corrected sub-tiles are combined to form a corrected tile; and corrected tiles are combined to form a corrected image ; and a memory configured to store the corrected image .
Tubular drive mechanism for a panel of a vehicle, preferably a luggage compartment lid, a tailgate or door, comprising two tubes which are nested telescopically inside one another, the free ends of which can be hinged to the panel of the vehicle and to the vehicle itself, respectively, it being possible to move the tubes apart and together, so as to open and to close the panel, by means of a spindle which is driven by an electric motor and has a spindle nut arranged on said spindle, the electric motor , spindle , spindle nut and an electronic circuit board which has sensor elements being arranged inside the tubular drive mechanism , the electronic circuit board having the shape of a disc and being arranged perpendicular to the axis of symmetry of the tubes , and a power electronic device for controlling the electric motor also being arranged on the same electronic circuit board , characterised in that the electronic circuit board comprises Hall elements, circuit breakers and electronic circuits which are required for controlling these circuit breakers, in which circuits computer programs for controlling the circuit breakers are stored.
A method of preparing a cathode for a secondary battery, comprising the steps of: 1) dispersing a binder material and a conductive agent in an aqueous solvent to form a first suspension; 2) cooling the first suspension to a temperature from about -5 °C to about 15 °C; 3) adding a cathode active material into the first suspension to form a second suspension; 4) homogenizing the second suspension by a homogenizer at a temperature from about -5 °C to about 15 °C to obtain a homogenized slurry; 5) applying the homogenized slurry on a current collector to form a coated film on the current collector; and 6) drying the coated film on the current collector at a temperature from about 35 °C to about 65 °C to form the cathode, wherein the aqueous solvent is water and wherein the pH of the homogenized slurry is from about 7 to about 11.6 and wherein the total processing time for steps 5) and 6) is less than 5 minutes; and wherein the cathode active material comprises a nickel-containing lithium transition metal oxide selected from the group consisting of LiNi 0.33 Mn 0.33 Co 0.33 O 2 , LiNi 0.5 Mn 0.3 Co 0.2 O 2 , LiNi 0.6 Mn 0.2 Co 0.2 O 2 , LiNi 0.7 Mn 0.15 Co 0.15 O 2 , LiNi 0.8 Mn 0.1 Co 0.1 O 2 , LiNi 0.92 Mn 0.04 Co 0.04 O 2 , LiNi 0.8 Co 0.15 Al 0.05 O 2 and combinations thereof. 1) dispersing a binder material and a conductive agent in an aqueous solvent to form a first suspension; 2) cooling the first suspension to a temperature from about -5 °C to about 15 °C; 3) adding a cathode active material into the first suspension to form a second suspension; 4) homogenizing the second suspension by a homogenizer at a temperature from about -5 °C to about 15 °C to obtain a homogenized slurry; 5) applying the homogenized slurry on a current collector to form a coated film on the current collector; and 6) drying the coated film on the current collector at a temperature from about 35 °C to about 65 °C to form the cathode,
A fluid management system , comprising: a fluid pump capable of generating a pulsatile flow of fluid; a fluid pathway for transporting the pulsatile flow of fluid from a fluid source through the fluid pump to a medical device; a dampening element in fluid communication with the fluid pathway, the dampening element comprising one or more barrels , each barrel including a movable seal member disposed within the barrel and a biasing member disposed within the barrel and engaged with the movable seal member, the dampening element being responsive to pressure fluctuations of the pulsatile fluid flow to actively dampen the pressure fluctuations and smoothen the pulsatile fluid flow; and a fluid flow sensor disposed along the fluid pathway between the dampening element and the medical device to measure a flow rate of the smoothened pulsatile fluid flow, characterized in that the fluid flow sensor is a flow sensor for measuring a flow rate of the smoothened pulsatile fluid flow in both flow directions of the fluid pathway. a fluid pump capable of generating a pulsatile flow of fluid; a fluid pathway for transporting the pulsatile flow of fluid from a fluid source through the fluid pump to a medical device; a dampening element in fluid communication with the fluid pathway, the dampening element comprising one or more barrels , each barrel including a movable seal member disposed within the barrel and a biasing member disposed within the barrel and engaged with the movable seal member, the dampening element being responsive to pressure fluctuations of the pulsatile fluid flow to actively dampen the pressure fluctuations and smoothen the pulsatile fluid flow; and a fluid flow sensor disposed along the fluid pathway between the dampening element and the medical device to measure a flow rate of the smoothened pulsatile fluid flow, characterized in that the fluid flow sensor is a flow sensor for measuring a flow rate of the smoothened pulsatile fluid flow in both flow directions of the fluid pathway.
A multi-layer piezoelectric element comprising: a stacked body comprising piezoelectric layers and internal electrode layers laminated together; an external electrode plate connected to a side surface of the stacked body and electrically connected to the internal electrode layers ; and an electrically conductive bonding material disposed between the side surface of the stacked body and one main surface of the external electrode plate ; wherein a resin layer free of electrical conductive particles is disposed on at least one end of a space between the side surface of the stacked body and the one main surface of the external electrode plate in a width direction in a cross-sectional view perpendicular to the side surface of the stacked body , characterised in that the resin layer is disposed to protrude from between the side surface of the stacked body and the one main surface of the external electrode plate , and a gap is located between the electrically conductive bonding material and the resin layer . a stacked body comprising piezoelectric layers and internal electrode layers laminated together; an external electrode plate connected to a side surface of the stacked body and electrically connected to the internal electrode layers ; and an electrically conductive bonding material disposed between the side surface of the stacked body and one main surface of the external electrode plate ; wherein a resin layer free of electrical conductive particles is disposed on at least one end of a space between the side surface of the stacked body and the one main surface of the external electrode plate in a width direction in a cross-sectional view perpendicular to the side surface of the stacked body , characterised in that the resin layer is disposed to protrude from between the side surface of the stacked body and the one main surface of the external electrode plate , and a gap is located between the electrically conductive bonding material and the resin layer .
Combustion chamber tile of a gas turbine with a main body , which is provided on at least one edge region in one piece with an edge strip which is configured substantially at a right angle with respect to the surface of the main body , the main body having a different thickness (d1) from the edge strip , a supporting body which is connected in one piece to the main body and the edge strip and is provided with a substantially triangular cross section being arranged between the edge strip and the main body , characterized in that the supporting body is provided with a plurality of slot-like recesses , the recess having a rectilinear wall course on both sides adjacently with respect to the surface of the main body , which wall course merges into a rounded wall course for the configuration of an ogival structure.
A radio frequency integrated circuit, RFIC, comprising: a bulk semiconductor die comprising a first active/passive device on a first-side of the bulk semiconductor die, a first deep trench isolation region extending from the first-side to a second-side opposite the first-side of the bulk semiconductor die; a contact layer on the second-side of the bulk semiconductor die; and a second-side dielectric layer on the contact layer, in which the first deep trench isolation region extends through the contact layer and into the second-side dielectric layer; in which the contact layer comprises a silicide layer on an entire length of the second-side of the bulk semiconductor die. a bulk semiconductor die comprising a first active/passive device on a first-side of the bulk semiconductor die, a first deep trench isolation region extending from the first-side to a second-side opposite the first-side of the bulk semiconductor die; a contact layer on the second-side of the bulk semiconductor die; and a second-side dielectric layer on the contact layer, in which the first deep trench isolation region extends through the contact layer and into the second-side dielectric layer; in which the contact layer comprises a silicide layer on an entire length of the second-side of the bulk semiconductor die.
A network-capable infrastructure device , including a first communication unit configured to communicate with at least one other infrastructure device , and a second communication unit configured to communicate with a commissioning device , and wherein the network-capable infrastructure device is configured to receive a key information by the second communication unit , and to communicate with the at least one other infrastructure device via the first communication unit using the received key information, wherein the first communication unit is configured to communicate by a wireless communication interface, which is configured to operate based on at least one communication standard suitable for a home automation network such as Bluetooth, Bluetooth LE, Bluetooth Smart, ZigBee, xAP, DSI, DALI; characterized in that the second communication unit is configured to communicate by acoustic communication.
An anti-icing system for an annular inlet of a gas turbine engine comprising: a D-duct comprising an inlet lip and a bulkhead enclosing a mass of air within an annular space therebetween, the inlet lip having an inner lipskin and an outer lipskin ; a high pressure source of hot gas; a conduit coupled at a first end to the high pressure source of hot gas, wherein an opposite end of the conduit penetrates the bulkhead at a penetration point ; and an injector head (304; 900) within the D-duct coupled at the opposite end of the conduit and proximate the penetration point , the injector head (304; 900) in fluid communication with the high pressure source of hot gas; characterised in that the injector head (304; 900) comprises: a body having a first surface , a second surface (614; 914), a face , and an inlet ; a sweeping jet nozzle having an exit port (724; 920) through the face , wherein the sweeping jet nozzle comprises a fluid oscillator defining a sweeping plane of the sweeping jet nozzle ; and a distribution manifold within the body in fluid communication with the inlet and the sweeping jet nozzle , wherein a centerline of the sweeping jet nozzle is tangential to the inner lipskin . a D-duct comprising an inlet lip and a bulkhead enclosing a mass of air within an annular space therebetween, the inlet lip having an inner lipskin and an outer lipskin ; a high pressure source of hot gas; a conduit coupled at a first end to the high pressure source of hot gas, wherein an opposite end of the conduit penetrates the bulkhead at a penetration point ; and an injector head (304; 900) within the D-duct coupled at the opposite end of the conduit and proximate the penetration point , the injector head (304; 900) in fluid communication with the high pressure source of hot gas; characterised in that the injector head (304; 900) comprises: a body having a first surface , a second surface (614; 914), a face , and an inlet ; a sweeping jet nozzle having an exit port (724; 920) through the face , wherein the sweeping jet nozzle comprises a fluid oscillator defining a sweeping plane of the sweeping jet nozzle ; and a distribution manifold within the body in fluid communication with the inlet and the sweeping jet nozzle , wherein a centerline of the sweeping jet nozzle is tangential to the inner lipskin . a body having a first surface , a second surface (614; 914), a face , and an inlet ; a sweeping jet nozzle having an exit port (724; 920) through the face , wherein the sweeping jet nozzle comprises a fluid oscillator defining a sweeping plane of the sweeping jet nozzle ; and a distribution manifold within the body in fluid communication with the inlet and the sweeping jet nozzle , wherein a centerline of the sweeping jet nozzle is tangential to the inner lipskin .
A taper roller bearing comprising: an inner ring comprising an inner ring raceway surface ; an outer ring which is disposed on an outer circumferential side of the inner ring and coaxially with the inner ring and which comprises an outer ring raceway surface opposing the inner ring raceway surface ; a plurality of taper rollers rotatably arranged between the inner ring raceway surface and the outer ring raceway surface ; and a cage which comprises a small diameter annular portion , a large diameter annular portion opposing the small diameter annular portion at a predetermined distance therefrom, and a plurality of pillar portions which connect the annular portions such that spaces each surrounded by adjacent ones of the pillar portions and the annular portions are formed as pockets receiving the taper rollers , respectively, wherein a first sliding surface is provided in at least one of the annular portions to slide-contact end surfaces of the taper rollers so as to axially position the cage by the end surfaces of the taper rollers , characterized in that second sliding surfaces are provided in the pillar portions to slide-contact the outer ring raceway surface so as to radially position the cage by the outer ring raceway surface , and when the pocket of the cage is observed radially from outside, a predetermined clearance (c1) is provided circumferentially in the pocket with respect to a rolling surface of the taper roller received in the pocket and a predetermined clearance (c2) is provided axially with respect to the opposite end surfaces of the taper roller . an inner ring comprising an inner ring raceway surface ; an outer ring which is disposed on an outer circumferential side of the inner ring and coaxially with the inner ring and which comprises an outer ring raceway surface opposing the inner ring raceway surface ; a plurality of taper rollers rotatably arranged between the inner ring raceway surface and the outer ring raceway surface ; and a cage which comprises a small diameter annular portion , a large diameter annular portion opposing the small diameter annular portion at a predetermined distance therefrom, and a plurality of pillar portions which connect the annular portions such that spaces each surrounded by adjacent ones of the pillar portions and the annular portions are formed as pockets receiving the taper rollers , respectively, wherein a first sliding surface is provided in at least one of the annular portions to slide-contact end surfaces of the taper rollers so as to axially position the cage by the end surfaces of the taper rollers , characterized in that second sliding surfaces are provided in the pillar portions to slide-contact the outer ring raceway surface so as to radially position the cage by the outer ring raceway surface , and when the pocket of the cage is observed radially from outside, a predetermined clearance (c1) is provided circumferentially in the pocket with respect to a rolling surface of the taper roller received in the pocket and a predetermined clearance (c2) is provided axially with respect to the opposite end surfaces of the taper roller .
A compound of the following formula: wherein X is an anion selected from the group consisting of chloride, bromide, iodide, and hydroxide.
Open fireplace in the form of a permanently open fire for installation in an installation location, having a flue gas exhaust hood for conveying away flue gas of the open fireplace , which flue gas exhaust hood is located above a fire chamber which has at least one open, first side through which fresh air can flow from the installation location into the fire chamber , characterised in that the flue gas exhaust hood is provided with a barrier surface by means of which the fire chamber is delimited at the top and by means of which a first gap having a width of between 3 cm and 10 cm is freed close to and along the open, first side of the fire chamber for conveying the flue gas from the fire chamber into the flue gas exhaust hood , such that an increased negative pressure is obtained for the flue gas close to and along that open, first side into the flue gas exhaust hood , and fresh air from the installation location is also to be drawn into the gap by that increased negative pressure close to the open, first side of the fire chamber .
A method of reporting a logged Minimization Driving Test, MDT, measurement result in wireless communication system, the method comprising: receiving, by a user equipment, UE, that is in a radio resource control, RRC, connected mode, a measurement configuration from a network, wherein the measurement configuration includes a list of cell identifiers, IDs, wherein each cell ID identifies a cell for which one or more UEs are requested to perform a MDT measurement logging; after receiving the measurement configuration, changing, by the UE, its state to the RRC idle mode and camping on a suitable cell; receiving, by the UE, system information from the network, wherein the system information includes a cell identifier; performing, by the UE that is in the RRC idle mode, the MDT measurement logging when the cell indicated by the cell identifier of the system information is included in a cell identified by the list of cell IDs; and reporting, by the UE when the UE changes its state to the RRC connected mode, the logged MDT measurement result to the network. receiving, by a user equipment, UE, that is in a radio resource control, RRC, connected mode, a measurement configuration from a network, wherein the measurement configuration includes a list of cell identifiers, IDs, wherein each cell ID identifies a cell for which one or more UEs are requested to perform a MDT measurement logging; after receiving the measurement configuration, changing, by the UE, its state to the RRC idle mode and camping on a suitable cell; receiving, by the UE, system information from the network, wherein the system information includes a cell identifier; performing, by the UE that is in the RRC idle mode, the MDT measurement logging when the cell indicated by the cell identifier of the system information is included in a cell identified by the list of cell IDs; and reporting, by the UE when the UE changes its state to the RRC connected mode, the logged MDT measurement result to the network.