mhurhangee/ep-ind-claims huggingface dataset:
A fluid-filled prosthetic implant, comprising: a hollow implant shell having a generally oval vertical cross-section with a first face opposed to a second face and separated by a perimeter region; a first silicone elastomer gel distributed generally evenly to form a ring within the perimeter region of the hollow implant shell; a second silicone elastomer gel within the hollow implant shell and within the first silicone elastomer gel ring, the second silicone elastomer gel having a different gel cohesiveness than the first silicone elastomer gel. a hollow implant shell having a generally oval vertical cross-section with a first face opposed to a second face and separated by a perimeter region; a first silicone elastomer gel distributed generally evenly to form a ring within the perimeter region of the hollow implant shell; a second silicone elastomer gel within the hollow implant shell and within the first silicone elastomer gel ring, the second silicone elastomer gel having a different gel cohesiveness than the first silicone elastomer gel.
Process for manufacturing a laminated glazing unit comprising a core at least one of the faces of which is joined to a glazing substrate by a lamination interlayer made of PVB, characterized in that it comprises: - a step of joining an assembly consisting of said glazing substrate and said lamination interlayer to a core consisting of a 3D textile coating; and - a step formed from a plurality of phases comprising a heating phase, a temperature maintenance phase and a phase of cooling said assembly and, simultaneously, a phase of applying a vacuum, a vacuum maintenance phase and a phase of returning said assembly to ambient pressure following a specific temperature/pressure profile such that the phase of applying a vacuum is carried out during at least part of the temperature maintenance phase, - in that the heating phase is implemented with an upward temperature slope of about 2.6°C/min, - in that the temperature maintenance phase is carried out between 70°C and 100°C and preferably at about 80°C, and - in that the phase of applying a vacuum starts at the same time as the heating phase. - a step of joining an assembly consisting of said glazing substrate and said lamination interlayer to a core consisting of a 3D textile coating; and - a step formed from a plurality of phases comprising a heating phase, a temperature maintenance phase and a phase of cooling said assembly and, simultaneously, a phase of applying a vacuum, a vacuum maintenance phase and a phase of returning said assembly to ambient pressure following a specific temperature/pressure profile such that the phase of applying a vacuum is carried out during at least part of the temperature maintenance phase, - in that the heating phase is implemented with an upward temperature slope of about 2.6°C/min, - in that the temperature maintenance phase is carried out between 70°C and 100°C and preferably at about 80°C, and - in that the phase of applying a vacuum starts at the same time as the heating phase.
A method for selecting best radio signal in air traffic control, comprising the following steps: - Determining a respective latency of at least two receiving channels, wherein each receiving channel is provided between a corresponding receiver and a measurement and analysis module, - Setting a time threshold of the measurement and analysis module by using the respective latency of the at least two receiving channels, wherein the time threshold of the measurement and analysis module determines the time span used for receiving individual radio signals received by respective receivers such that all radio signals received by all receiving channels are taken into consideration when determining the best quality of the radio signals received since the time threshold is adapted based on the respective latency of the receiving channels determined previously, - Measuring a respective arrival time of at least two radio signals received via the at least two receiving channels by means of the measurement and analysis module, - Determining the delay time between the at least two radio signals based on their arrival times, - Aligning the at least two radio signals with each other by taking the delay time determined into account, thereby obtaining at least two aligned signals, - Determining the quality of the at least two aligned signals, and - Switching to the receiving channel that processes the respective radio signal with the best quality determined. - Determining a respective latency of at least two receiving channels, wherein each receiving channel is provided between a corresponding receiver and a measurement and analysis module, - Setting a time threshold of the measurement and analysis module by using the respective latency of the at least two receiving channels, wherein the time threshold of the measurement and analysis module determines the time span used for receiving individual radio signals received by respective receivers such that all radio signals received by all receiving channels are taken into consideration when determining the best quality of the radio signals received since the time threshold is adapted based on the respective latency of the receiving channels determined previously, - Measuring a respective arrival time of at least two radio signals received via the at least two receiving channels by means of the measurement and analysis module, - Determining the delay time between the at least two radio signals based on their arrival times, - Aligning the at least two radio signals with each other by taking the delay time determined into account, thereby obtaining at least two aligned signals, - Determining the quality of the at least two aligned signals, and - Switching to the receiving channel that processes the respective radio signal with the best quality determined.
A device for detecting a mounting angle of a vehicle-mounted device, comprising: - a gyroscopic sensor and a GPS-receiver mounted in the mounting angle detecting device, - a sensitivity detector for determining a ratio of angular velocity detected by the gyroscopic sensor mounted in the vehicle-mounted device to a reference angular velocity obtained from a GPS receiver mounted in the vehicle-mounted device as a sensitivity of the gyroscopic sensor; characterized by comprising: - a comparator for comparing the sensitivity of the gyroscopic sensor determined by the sensitivity detector to a permissible range concerning the sensitivity and then determining the mounting angle of the vehicle-mounted device is abnormal when the sensitivity is over the permissible range; and - notifying means for notifying that the mounting angle is abnormal when the comparator determines the abnormality. - a gyroscopic sensor and a GPS-receiver mounted in the mounting angle detecting device, - a sensitivity detector for determining a ratio of angular velocity detected by the gyroscopic sensor mounted in the vehicle-mounted device to a reference angular velocity obtained from a GPS receiver mounted in the vehicle-mounted device as a sensitivity of the gyroscopic sensor; - a comparator for comparing the sensitivity of the gyroscopic sensor determined by the sensitivity detector to a permissible range concerning the sensitivity and then determining the mounting angle of the vehicle-mounted device is abnormal when the sensitivity is over the permissible range; and - notifying means for notifying that the mounting angle is abnormal when the comparator determines the abnormality.
Valve for the metering of pressurized fluid, having a valve housing which has an inflow opening for the supply of fluid and has a metering opening for the ejection of fluid, having a valve seat which is formed on the valve housing and which surrounds the metering opening and which has a seat surface pointing in the ejection direction, having a valve needle which bears a closing head and which is pressure-balanced by way of an elastic hollow body, which elastic hollow body is connected to the valve needle at an end of the valve needle remote from the closing head and is exposed to the fluid pressure, having a valve closing spring which engages on the valve needle and which forces the closing head into contact with the valve seat, and having an electromagnet which exerts on the valve needle a pressure force which lifts the closing head from the valve seat in an outward direction, and, for this purpose, said electromagnet has a magnet armature connected to the valve needle, said electromagnet has an inner pole which together with the magnet armature encloses a working air gap, said electromagnet has a magnet coil, and said electromagnet has a magnet pot surrounding the magnet coil, characterized in that the valve housing has a valve tube, the valve housing has a hollow, metering-side valve body which is connected in fluid-tight fashion to the valve tube at one tube end thereof, in which valve body the valve seat and metering opening are formed and the valve needle is slidingly guided, and the valve housing has a hollow, inflow-side valve body which is connected in fluid-tight fashion to the valve tube at the other end thereof, in which valve body the inflow opening is formed and the hollow body is received, and in that the magnet pot with magnet coil is fixed to the outside of the valve tube, in that the inner pole is formed by a hollow cylindrical magnet core which is fixed to the inside of the valve tube and which surrounds a needle section of the valve needle, and in that the valve closing spring is a compression spring, which compression spring is arranged in a ring-shaped chamber provided between the magnet core and that needle section of the valve needle which is surrounded by said magnet core, and which compression spring is supported on the metering-side valve body and on the magnet armature.
A secondary battery for installation in an electronic appliance, thereby feeding electric power to the electronic appliance, comprising a battery cell in which a positive electrode, a negative electrode and an electrolyte are accommodated in a pack, and a positive electrode terminal and a negative electrode terminal from the positive electrode and the negative electrode, respectively are lead out from a same side face of the pack; a metallic battery can, formed by extrusion molding a metallic plate into a cylinder, in which an opening (5,7) is formed in the both end sides in an insertion direction of the battery cell and which accommodates the battery cell therein such that said same face from which the positive electrode terminal and the negative electrode terminal are lead out is faced towards the side of one of the openings; and a pair of lids (4,8) made of a synthetic resin, each plugging the opening of the battery can, at least one of the lids plugging one of the openings towards which said same side face from which the positive electrode terminal and the negative electrode terminal are lead out being provided with a positive electrode terminal part and a negative electrode terminal part to be connected to the electrodes of the electronic appliance upon being connected to the positive electrode terminal and the negative electrode terminal and being faced outwardly, wherein an engagement part (49,55) for engaging an engagement member as formed in a battery accommodating part provided in the electronic appliance is formed in at least one of the pair of lids.
A polyethylene powder having an average particle size of 70 μm or more and less than 150 μm wherein the average particle size is measured by the method described in paragraph of the description, wherein a compressive strength at a time of 10% displacement of particles having a particle size of 60 μm is 1.2 times or more and less than 2.5 times based on a compressive strength at a time of 10% displacement of particles having a particle size of 100 μm, wherein the particles having a particle size of 60 μm have an average value of the long side and the short side of 60 μm±5μm, wherein the particles having a particle size of 100 μm have an average value of the long side and the short side of 100 μm±5μm, wherein the compressive strength is determined from the average of three measurements obtained using a micro compression tester, and wherein the compressive strength is calculated in accordance with the following expression: C x = 2.48 × P / π × d × d C(x): compressive strength at the time of 10% displacement (MPa) P: test force at the time of 10% displacement of the particle size d: particle size of polyethylene powder for use in the compression test (mm). C(x): compressive strength at the time of 10% displacement (MPa) P: test force at the time of 10% displacement of the particle size d: particle size of polyethylene powder for use in the compression test (mm).
An oral care composition comprising: 45% to 52% by weight total formula water; at least 20% by weight of a water solution of 70% raw sorbitol by weight of the composition; and at least one thickening system comprising a combination of carboxymethyl cellulose and xanthan; wherein the composition is free of glycerin and free of water-soluble stannous ions, and wherein the composition has a Micro Robustness Index of at least 0.75. 45% to 52% by weight total formula water; at least 20% by weight of a water solution of 70% raw sorbitol by weight of the composition; and at least one thickening system comprising a combination of carboxymethyl cellulose and xanthan; wherein the composition is free of glycerin and free of water-soluble stannous ions, and wherein the composition has a Micro Robustness Index of at least 0.75.
A mobile ad hoc network further referred as "MANET" comprising: a plurality of mobile nodes each comprising a wireless communications device and a controller connected thereto; said controller being configured to operate in accordance with a multi-layer protocol hierarchy to, at an application layer, being operable to establish a quality-of-service QoS threshold based upon a type of given data to be transmitted to at least one destination node; at a QoS support layer below the application layer, being operable to determine whether to require data reception acknowledgements based upon the QoS threshold; at a QoS coding layer below the QoS support layer, being operable to encode data from the application layer for transmission to at least one destination mobile node; at a QoS route selection layer below the QoS coding layer, being operable to select at least one route to the at least one destination mobile node based upon the QoS threshold; at a QoS traffic layer below the QoS route selection layer, being operable to control data traffic flow based upon the QoS threshold; and at least one lower protocol layer below the QoS traffic layer, being operable to cooperate with said wireless communications device to transmit data to the at least one destination mobile node via the at least one selected route. a plurality of mobile nodes each comprising a wireless communications device and a controller connected thereto; said controller being configured to operate in accordance with a multi-layer protocol hierarchy to, at an application layer, being operable to establish a quality-of-service QoS threshold based upon a type of given data to be transmitted to at least one destination node; at a QoS support layer below the application layer, being operable to determine whether to require data reception acknowledgements based upon the QoS threshold; at a QoS coding layer below the QoS support layer, being operable to encode data from the application layer for transmission to at least one destination mobile node; at a QoS route selection layer below the QoS coding layer, being operable to select at least one route to the at least one destination mobile node based upon the QoS threshold; at a QoS traffic layer below the QoS route selection layer, being operable to control data traffic flow based upon the QoS threshold; and at least one lower protocol layer below the QoS traffic layer, being operable to cooperate with said wireless communications device to transmit data to the at least one destination mobile node via the at least one selected route.
A polymerizable system comprising: a polymerizable composition which comprises a methylene malonate, a methylene beta-ketoester or a methylene beta-diketone whether a monofunctional, difunctional, or multifunctional form thereof; and a polymerization activator carried in inactive engagement in the polymerizable composition which comprises a basic material selected from a strong base (pH over 9), a moderately strong base (pH from 8-9), or a weak base (pH from over 7 to 8), or a combination thereof; wherein the polymerization activator is made available to polymerize the polymerizable composition upon a phase change. a polymerizable composition which comprises a methylene malonate, a methylene beta-ketoester or a methylene beta-diketone whether a monofunctional, difunctional, or multifunctional form thereof; and a polymerization activator carried in inactive engagement in the polymerizable composition which comprises a basic material selected from a strong base (pH over 9), a moderately strong base (pH from 8-9), or a weak base (pH from over 7 to 8), or a combination thereof;
A manufacturing method for a substrate on which nerve cells are arranged, the method comprising: a step of forming one or a plurality of liquid pools by arranging a plurality of liquid droplets containing nerve cells on a substrate using an inkjet method, to form one or a plurality of liquid pools, wherein the substrate has a region on which a cell adhesive material is arranged and a region on which a cell non-adhesive material is arranged, and wherein each liquid droplet is arranged to be in contact with the cell adhesive material; and a step of incubating the liquid pool until the nerve cells in the liquid pool sediment and temporarily adhere onto the substrate to form a cell aggregate, wherein the diameter per one liquid pool is 500 μm or less, and the density of nerve cells per one liquid pool is 10 5 cells/cm 2 or more. a step of forming one or a plurality of liquid pools by arranging a plurality of liquid droplets containing nerve cells on a substrate using an inkjet method, to form one or a plurality of liquid pools, wherein the substrate has a region on which a cell adhesive material is arranged and a region on which a cell non-adhesive material is arranged, and wherein each liquid droplet is arranged to be in contact with the cell adhesive material; and a step of incubating the liquid pool until the nerve cells in the liquid pool sediment and temporarily adhere onto the substrate to form a cell aggregate, wherein the diameter per one liquid pool is 500 μm or less, and the density of nerve cells per one liquid pool is 10 5 cells/cm 2 or more.
An acoustic coupling component for positioning between an ultrasound transducer arrangement and material to be treated or imaged, the acoustic coupling component comprising: an electroactive material actuator comprising a layered electroactive material resonance structure of at least one electroactive material layer with adjustable thickness, and a further material layer of different acoustic impedance, wherein the electroactive material actuator is adapted to receive an ultrasound signal having a frequency from the ultrasound transducer arrangement, and to transmit the ultrasound signal to the material to be treated or imaged; and a controller for electrically controlling the electroactive material actuator to implement resonant frequency tuning by change of layer thickness through actuation of the at least one electroactive material layer with adjustable thickness, to implement a shift of the resonance frequency upon transmission of the ultrasound signal to the material to be treated or imaged. an electroactive material actuator comprising a layered electroactive material resonance structure of at least one electroactive material layer with adjustable thickness, and a further material layer of different acoustic impedance, wherein the electroactive material actuator is adapted to receive an ultrasound signal having a frequency from the ultrasound transducer arrangement, and to transmit the ultrasound signal to the material to be treated or imaged; and a controller for electrically controlling the electroactive material actuator to implement resonant frequency tuning by change of layer thickness through actuation of the at least one electroactive material layer with adjustable thickness, to implement a shift of the resonance frequency upon transmission of the ultrasound signal to the material to be treated or imaged.
Electrolysis apparatus, especially for chlor-alkali electrolysis, comprising an oxygen-depolarized electrode as oxygen-depolarized cathode having at least one carrier in the form of a two-dimensional textile structure, a layer including a silver-based catalyst, an electrical contact site, and a gas diffusion layer, characterized in that the catalyst additionally contains gallium as catalytically active component.
Use of a clay comprising: - less than 25% of kaolinite; and - at least 20% of muscovite and/or illite; - the muscovite and/or illite / kaolinite weight ratio being greater than 1; for preparing a pozzolanic material. - less than 25% of kaolinite; and - at least 20% of muscovite and/or illite; - the muscovite and/or illite / kaolinite weight ratio being greater than 1; for preparing a pozzolanic material.
A vertical take-off and landing aircraft comprising: a first wing; a second wing offset 90 degrees from the first wing, wherein the second wing has a smaller wingspan than the first wing; a first propulsion system coupled to the first wing, the first propulsion system coupled to the first wing configured to produce vertical lift while the aircraft is in a hover regime and longitudinal thrust when the aircraft is in a forward flight regime; a second propulsion system coupled to the second wing, the second propulsion system coupled to the second wing configured to produce vertical lift while the aircraft is in the hover regime and longitudinal thrust when the aircraft is in the forward flight regime, the second propulsion system coupled to the second wing configured to provide thrust control; and a control management system configured to direct the thrust control to adjust the orientation of the aircraft; and characterised in that the aircraft is configured to transition while in a forward flight regime from a first wing loading orientation with the first wing producing lift, to a second wing loading orientation with the second wing producing lift, by rolling 90 degrees about a centerline axis of the aircraft, and the first propulsion system coupled to the first wing is configured to provide thrust vectoring. a first wing; a second wing offset 90 degrees from the first wing, wherein the second wing has a smaller wingspan than the first wing; a first propulsion system coupled to the first wing, the first propulsion system coupled to the first wing configured to produce vertical lift while the aircraft is in a hover regime and longitudinal thrust when the aircraft is in a forward flight regime; a second propulsion system coupled to the second wing, the second propulsion system coupled to the second wing configured to produce vertical lift while the aircraft is in the hover regime and longitudinal thrust when the aircraft is in the forward flight regime, the second propulsion system coupled to the second wing configured to provide thrust control; and a control management system configured to direct the thrust control to adjust the orientation of the aircraft; and characterised in that the aircraft is configured to transition while in a forward flight regime from a first wing loading orientation with the first wing producing lift, to a second wing loading orientation with the second wing producing lift, by rolling 90 degrees about a centerline axis of the aircraft, and the first propulsion system coupled to the first wing is configured to provide thrust vectoring.