mhurhangee/ep-ind-claims huggingface dataset:
A band pass filter (100, 200, 250, 300, 400, 500) comprising: a circuit board (102; a first discrete capacitor disposed on the circuit board; a second discrete capacitor disposed on the circuit board; a conductive board trace extending from a first terminal of the first discrete capacitor to a first terminal of the second discrete capacitor; and a reference potential terminal coupled to the conductive board trace at a reference potential node disposed between the first discrete capacitor and the second discrete capacitor, wherein a first part of the conductive board trace forms a first inductor of the band pass filter and a second part of the conductive board trace forms a second inductor of the band pass filter, characterized in that the first part of the conductive board trace is disposed between the first terminal of the first discrete capacitor and the reference potential node, wherein the second part of the conductive board trace is disposed between the first terminal of the second discrete capacitor and the reference potential node, wherein an inductance of the first inductor differs from an inductance of the second inductor by at least 5% of the inductance of the first inductor. a circuit board (102; a first discrete capacitor disposed on the circuit board; a second discrete capacitor disposed on the circuit board; a conductive board trace extending from a first terminal of the first discrete capacitor to a first terminal of the second discrete capacitor; and a reference potential terminal coupled to the conductive board trace at a reference potential node disposed between the first discrete capacitor and the second discrete capacitor, wherein a first part of the conductive board trace forms a first inductor of the band pass filter and a second part of the conductive board trace forms a second inductor of the band pass filter, characterized in that the first part of the conductive board trace is disposed between the first terminal of the first discrete capacitor and the reference potential node, wherein the second part of the conductive board trace is disposed between the first terminal of the second discrete capacitor and the reference potential node, wherein an inductance of the first inductor differs from an inductance of the second inductor by at least 5% of the inductance of the first inductor.
A mobile station which communicates with a base station using a radio channel, the mobile station comprising: a reception unit configured to receive a packet from the base station; a transmission unit configured to transmit, to the base station, a result of receiving the packet sent from the base station, as a reception result notification signal; a switching unit configured to switch, in a predetermined control cycle (Tb), from a packet reception period, during which packet reception can be executed, to a packet reception halt period, during which packet reception is halted; the mobile station characterized by comprising: a packet reception determination unit configured to determine a packet reception fault according to a Hybrid Automatic Request (HARQ) process; and a reception period determination unit configured to be capable of extending the packet reception period into the packet reception halt period in the predetermined control cycle (Tb) after the packet reception period if the packet reception fault is determined by the packet reception determination unit and the packet reception period is extendable, wherein the packet reception period is capable to be extended to the next packet reception period. a reception unit configured to receive a packet from the base station; a transmission unit configured to transmit, to the base station, a result of receiving the packet sent from the base station, as a reception result notification signal; a switching unit configured to switch, in a predetermined control cycle (Tb), from a packet reception period, during which packet reception can be executed, to a packet reception halt period, during which packet reception is halted; the mobile station characterized by comprising: a packet reception determination unit configured to determine a packet reception fault according to a Hybrid Automatic Request (HARQ) process; and a reception period determination unit configured to be capable of extending the packet reception period into the packet reception halt period in the predetermined control cycle (Tb) after the packet reception period if the packet reception fault is determined by the packet reception determination unit and the packet reception period is extendable, a packet reception determination unit configured to determine a packet reception fault according to a Hybrid Automatic Request (HARQ) process; and a reception period determination unit configured to be capable of extending the packet reception period into the packet reception halt period in the predetermined control cycle (Tb) after the packet reception period if the packet reception fault is determined by the packet reception determination unit and the packet reception period is extendable, wherein the packet reception period is capable to be extended to the next packet reception period.
A test fixture (3402, 3502, 3500'), comprising: a receptacle (3408, 3506) configured to engage a base of a cartridge; first and second electrical contacts (3410, 3412) coupled to the receptacle (3408, 3506) and configured to engage first and second heating terminals (234a, 234b) of an atomizer of the cartridge; a controller configured to communicate with the cartridge through the electrical contacts (3410, 3412) when the base of the cartridge is engaged with the receptacle (3408, 3506) to test the cartridge; characterized by an aperture configured to provide for a flow of air through the base of the cartridge. a receptacle (3408, 3506) configured to engage a base of a cartridge; first and second electrical contacts (3410, 3412) coupled to the receptacle (3408, 3506) and configured to engage first and second heating terminals (234a, 234b) of an atomizer of the cartridge; a controller configured to communicate with the cartridge through the electrical contacts (3410, 3412) when the base of the cartridge is engaged with the receptacle (3408, 3506) to test the cartridge; characterized by an aperture configured to provide for a flow of air through the base of the cartridge.
An apparatus for monitoring particles in a channel or a space comprising aerosol, the apparatus comprising: - an ejector; - gas supply (6, 16, 18, 19) arranged to feed an essentially particle free ionized gas flow to the ejector; - a sample-inlet arrangement arranged to provide a sample aerosol flow from the channel or the space into the ejector by means of suction provided by the gas supply (6, 16, 18, 19) and the ejector for charging at least a fraction of the particles of the sample aerosol flow, - an ion trap for removing ions not attached to the particles from an ejector flow discharging from the ejector, characterized in that - the ion trap in the form of a trap wire, extends at least partly into the ejector. - an ejector; - gas supply (6, 16, 18, 19) arranged to feed an essentially particle free ionized gas flow to the ejector; - a sample-inlet arrangement arranged to provide a sample aerosol flow from the channel or the space into the ejector by means of suction provided by the gas supply (6, 16, 18, 19) and the ejector for charging at least a fraction of the particles of the sample aerosol flow, - an ion trap for removing ions not attached to the particles from an ejector flow discharging from the ejector, characterized in that - the ion trap in the form of a trap wire, extends at least partly into the ejector.
A communication method in a wireless communication system, said method being performed by a User Equipment, UE, and comprising: receiving, from a Base Station, BS, Measurement Gap, MG, configuration information related to a measurement gap, wherein the measurement gap comprises a time period during which the UE does not perform an uplink transmission and a downlink reception; determining a subframe number to identify a starting point of the measurement gap based on the measurement gap configuration information; starting the measurement gap at the ending boundary of a subframe immediately before a subframe of the determined subframe number; performing a predetermined measurement operation during the MG; and performing a predetermined operation in a subframe immediately after the measurement gap based on a duplexing mode of the UE and a type of the subframe immediately before the measurement gap. receiving, from a Base Station, BS, Measurement Gap, MG, configuration information related to a measurement gap, wherein the measurement gap comprises a time period during which the UE does not perform an uplink transmission and a downlink reception; determining a subframe number to identify a starting point of the measurement gap based on the measurement gap configuration information; starting the measurement gap at the ending boundary of a subframe immediately before a subframe of the determined subframe number; performing a predetermined measurement operation during the MG; and performing a predetermined operation in a subframe immediately after the measurement gap based on a duplexing mode of the UE and a type of the subframe immediately before the measurement gap.
A pharmaceutical composition comprising the compound 2,2'-di(pyridin-4-yl)-1H,1'H-5,5'-bibenzo[d]imidazole, or a pharmaceutically acceptable N-oxide, salt, hydrate or solvate thereof, and a pharmaceutically acceptable excipient.
A method of obtaining fetal cells, comprising placing an absorbent medium in an interlabial space of a pregnant female with an intact amniotic sac, collecting vaginal fluid comprising cells in the absorbent medium while the absorbent medium is in the interlabial space; removing the absorbent medium; extracting the vaginal fluid from the absorbent medium; and isolating fetal cells from the vaginal fluid extracted from the absorbent medium, thereby obtaining the fetal cells. placing an absorbent medium in an interlabial space of a pregnant female with an intact amniotic sac, collecting vaginal fluid comprising cells in the absorbent medium while the absorbent medium is in the interlabial space; removing the absorbent medium; extracting the vaginal fluid from the absorbent medium; and isolating fetal cells from the vaginal fluid extracted from the absorbent medium, thereby obtaining the fetal cells.
An electrolyte solution comprising: a fluorine-based polymer electrolyte which contains a -SO 3 X group where X is hydrogen, an alkali metal, an alkaline-earth metal or NR 1 R 2 R 3 R 4 where R 1, R 2, R 3 and R 4 are each independently an alkyl group having 1 to 3 carbon atoms or hydrogen; and a water-containing solvent, wherein in a dynamic light scattering particle-size measurement as determined in the experimental section of the specification, at least one particle-size peak top is present in a range of 0.10 μm or more and less than 5.0 μm and at least one particle-size peak top is present in a range of 5.0 μm or more and 50.0 μm or less, a scattering intensity ratio (A/B) of the particle-size peak top to the particle-size peak top is 1.0 × 10 -2 or more and 1.0 × 10 or less, and a fluorine ion concentration as determined in the experimental section of the specification is 500 ppm or less based on a solid-content mass of the fluorine-based polymer electrolyte.
A method for evaluating the condition of a remote surface of a material, comprising the steps of: providing a wide band coherent radar antenna that is selected based upon an impedance match with the material to be evaluated, wherein said antenna has an antenna length that is configured to delay receipt of a signal of interest reflected from said remote surface of said material by a time period sufficient to distinguish between said reflected signal of interest and reflected spurious signals from a near surface of said material; placing said antenna adjacent said near surface of said material; irradiating said material with coherent microwave radiation tuned over a frequency range; detecting reflected microwave radiation from said remote surface of said material; and determining the thickness of the material based upon a determined distance traveled by said signal of interest. providing a wide band coherent radar antenna that is selected based upon an impedance match with the material to be evaluated, wherein said antenna has an antenna length that is configured to delay receipt of a signal of interest reflected from said remote surface of said material by a time period sufficient to distinguish between said reflected signal of interest and reflected spurious signals from a near surface of said material; placing said antenna adjacent said near surface of said material; irradiating said material with coherent microwave radiation tuned over a frequency range; detecting reflected microwave radiation from said remote surface of said material; and determining the thickness of the material based upon a determined distance traveled by said signal of interest.
An in vitro method of recellularizing a blood vessel comprising introducing endothelial cells and smooth muscle cells and/or progenitor cells for endothelial and smooth muscle cells to the lumen of a decellularized blood vessel and culturing said population of cells on the decellularized blood vessel, thereby recellularizing the blood vessel, wherein said endothelial cells and smooth muscle cells and/or progenitor cells for endothelial and smooth muscle cells are introduced as whole blood.
Paver for producing a road covering, with a driveable chassis, at least one paving screed that is attached to the rear of the chassis, as seen in the paving direction, such that it can be moved up and down, a spreader screw arranged upstream of the paving screed, an operating stand arranged above the chassis and at least one internal combustion engine, at least one hopper for hot road construction material, which hopper is arranged on the chassis upstream of the operating stand, and a conveyor extending under the operating stand from the hopper to the spreader screw, and with a levelling system for levelling the paving screed for producing the road covering, which levelling system can be controlled by a central process computer of the paver, wherein the levelling system has associated operating units (33, 34) for operating the levelling system and sensors (31, 32) for determining production parameters, in particular a paving height and a road inclination, and sensors for a screed top profile of the paving screed, wherein an operating element which is integrated in an armrest of a driver's seat of the operating stand and is intended to control and monitor the operation of the paver is provided, wherein the operating element is connected to the central process computer, with the result that the process computer captures and stores all machine, operating and production parameters by virtue of all signals and data from the sensors (31, 32) and from the operating units (33, 34) also converging, and wherein at least one of the operating units (33, 34) has an input means and an interface for wireless data transmission such that, by virtue of the wireless operating unit, an operator can move freely around the paver with the input means, and wherein at least one of the operating units (33, 34) has a presentation means, in particular, and wherein additional operating means can be connected to the operating units (33, 34).
Device for applying cream to a foot, wherein the device has a foot bowl for receiving a foot, wherein the device has a rod-shaped holding element for moving the foot bowl, characterized in that the holding element can be detachably connected to the foot bowl, wherein the holding element is formed to lift up the foot bowl and fix it during use of the device, wherein the foot bowl is formed to be open so that an upwardly facing surface of the foot bowl is not covered in the vertical direction by any other component of the device when the foot bowl is placed on a floor. wherein the device has a foot bowl for receiving a foot, wherein the device has a rod-shaped holding element for moving the foot bowl, characterized in that the holding element can be detachably connected to the foot bowl, wherein the holding element is formed to lift up the foot bowl and fix it during use of the device, wherein the foot bowl is formed to be open so that an upwardly facing surface of the foot bowl is not covered in the vertical direction by any other component of the device when the foot bowl is placed on a floor.
A method for repairing a cracked superalloy component, comprising: providing a superalloy component with a substrate region having a crack therein; heating the substrate region to a desired isothermal hold temperature above 800°C and below the substrate region's incipient melting point; melting powdered superalloy filler using an electric induction heater, wherein the heater includes a crucible tube of a material suitable for melting the powdered superalloy filler, wherein the heater includes induction heating coil elements for melting the powdered superalloy filler within the crucible tube; isothermally filling the crack with molten superalloy filler poured from the heater, wherein the poured superalloy filler fuses with the material of the substrate region at the isothermal hold temperature without any significant localized melting of the material of the substrate region; and solidifying the cast superalloy filler to form a patch. providing a superalloy component with a substrate region having a crack therein; heating the substrate region to a desired isothermal hold temperature above 800°C and below the substrate region's incipient melting point; melting powdered superalloy filler using an electric induction heater, wherein the heater includes a crucible tube of a material suitable for melting the powdered superalloy filler, wherein the heater includes induction heating coil elements for melting the powdered superalloy filler within the crucible tube; isothermally filling the crack with molten superalloy filler poured from the heater, wherein the poured superalloy filler fuses with the material of the substrate region at the isothermal hold temperature without any significant localized melting of the material of the substrate region; and solidifying the cast superalloy filler to form a patch.
A method for controlling production shut down of an underwater fluid production well, comprising the steps of: a) monitoring an output signal from a sensor (9 or 10 or 11) located at a well head of the underwater fluid production well; b) processing the signal to determine if a shut-down is required; and c) effecting shut down by sending a shut-down signal to a device to cause actuation of a valve (2 or 3 or 4) located at the well head, said actuation causing the well to shut down production; wherein in step b), the processing is performed by a processor located at the well head, characterised in that the method further comprises the step of receiving, at the well head, a control signal from a surface location and logically combining this with the processor output, such that a shut down signal may be received at the valve (2 or 3 or 4) from either the processor or from the surface location. a) monitoring an output signal from a sensor (9 or 10 or 11) located at a well head of the underwater fluid production well; b) processing the signal to determine if a shut-down is required; and c) effecting shut down by sending a shut-down signal to a device to cause actuation of a valve (2 or 3 or 4) located at the well head, said actuation causing the well to shut down production;
A projection system comprising: a headlamp, a position detecting section that detects the position of a target object located in front of a host vehicle; and a control section for controlling the headlamp, characterized by further comprising a motion detecting section that detects the motion of the background, as seen from the perspective of the host vehicle, at the position of the target object, wherein the control section, on the basis of the position of the target object detected by the position detecting section, controls the headlamp so as to project onto the position of the target object a changing projection pattern in which a design moves in a direction corresponding to the direction of motion, as seen from the perspective of the driver of the host vehicle, of a background at the position of the target object or a direction corresponding to the opposite direction of the direction of motion of the background. a headlamp, a position detecting section that detects the position of a target object located in front of a host vehicle; and a control section for controlling the headlamp, characterized by further comprising a motion detecting section that detects the motion of the background, as seen from the perspective of the host vehicle, at the position of the target object, wherein the control section, on the basis of the position of the target object detected by the position detecting section, controls the headlamp so as to project onto the position of the target object a changing projection pattern in which a design moves in a direction corresponding to the direction of motion, as seen from the perspective of the driver of the host vehicle, of a background at the position of the target object or a direction corresponding to the opposite direction of the direction of motion of the background.
A pigment-based inkjet ink, comprising: water; from 5 wt% to 50 wt% organic solvent system; from 2 wt% to 9 wt% pigment solids; from 0.1 wt% to 3 wt% polyurethane binder; from 0.4 wt% to 1.5 wt% oleyl or stearyl type polyoxyethylene glycol ether surfactant; and from 0.05 wt% to 2 wt% acetylenic diol non-ionic surfactant. water; from 5 wt% to 50 wt% organic solvent system; from 2 wt% to 9 wt% pigment solids; from 0.1 wt% to 3 wt% polyurethane binder; from 0.4 wt% to 1.5 wt% oleyl or stearyl type polyoxyethylene glycol ether surfactant; and from 0.05 wt% to 2 wt% acetylenic diol non-ionic surfactant.
Use of composite silicon oxide-based material for the modified release of biologically active agents, wherein the composite silicon oxide-based material is a substantially amorphous silicon oxide material which comprises macropores and mesopores and which is coated with a polymer to provide hydrophobic surface properties, wherein the macropores have a mean diameter > 0.1 μm and the mesopores have a mean diameter from 2 to 100 nm.