mhurhangee/ep-ind-claims huggingface dataset:
A coating composition comprising a fluorooxyalkylene-containing both-terminal hydrolysable polymer as shown by the following formula, wherein Rf represents a divalent perfluorooxyalkylene-containing group; X represents a -(CH 2) n SiX' group or a hydrogen atom, "n" represents an integer of 2 to 10; and X' represents a hydrolysable group, though one or less of X in each terminal represents a hydrogen atom.
Marker element (14; 14'), in particular a medical or surgical marker element (14; 14'), for a referencing unit of a navigation system, which marker element (14; 14') is configured to be reflective to electromagnetic radiation, wherein the marker element comprises a layer (86; 86') comprising a multitude of retroreflective elements (48; 48') and a support (92; 92') for the layer (86; 86') of retroreflective elements (48; 48'), characterized in that the support (92; 92') is formed out of a support material permeable to electromagnetic radiation, in that an outer surface of the marker element is formed by the support and in that the material out of which the retroreflective elements (48; 48') are made has a refractive index with a value in a range of about 1.5 to about 2.5 or a refractive index with a value in a range of about 2.5 to about 3.4.
A fingerprint sensor comprising: a touchpad including a plurality of driving electrodes (Tx) and a plurality of sensing electrodes (Rx), the plurality of driving electrodes (Tx) being disposed in a first direction and the plurality of sensing electrodes (Rx) being disposed in a second direction so that the plurality of driving electrodes and the plurality of sensing electrodes intersect with each other; a driver configured to apply sequentially a driving signal to the plurality of driving electrodes; a signal measurement unit configured to measure electrical signals generated from the plurality of sensing electrodes in response to the driving signal; and a processor configured to calculate mutual capacitance, based on the electrical signals measured by the signal measurement unit, at each of a plurality of nodes at which each of the plurality of driving electrodes intersects with each of the plurality of sensing electrodes, and characterised in that the plurality of driving electrodes are divided into a plurality of driving groups (Gdn), each of the plurality of driving groups comprising at least two driving electrodes, in that the driver is configured to apply a driving signal (S1, S2) to both or all of the driving electrodes (Tx) of each of the plurality of driving groups in sequence, and in that an n th driving group (Gdn) among the plurality of driving groups comprises the n th to the (n+k) th driving electrodes, wherein n is an arbitrary natural number and k is another arbitrary natural number. a touchpad including a plurality of driving electrodes (Tx) and a plurality of sensing electrodes (Rx), the plurality of driving electrodes (Tx) being disposed in a first direction and the plurality of sensing electrodes (Rx) being disposed in a second direction so that the plurality of driving electrodes and the plurality of sensing electrodes intersect with each other; a driver configured to apply sequentially a driving signal to the plurality of driving electrodes; a signal measurement unit configured to measure electrical signals generated from the plurality of sensing electrodes in response to the driving signal; and a processor configured to calculate mutual capacitance, based on the electrical signals measured by the signal measurement unit, at each of a plurality of nodes at which each of the plurality of driving electrodes intersects with each of the plurality of sensing electrodes, and characterised in that the plurality of driving electrodes are divided into a plurality of driving groups (Gdn), each of the plurality of driving groups comprising at least two driving electrodes, in that the driver is configured to apply a driving signal (S1, S2) to both or all of the driving electrodes (Tx) of each of the plurality of driving groups in sequence, and in that an n th driving group (Gdn) among the plurality of driving groups comprises the n th to the (n+k) th driving electrodes, wherein n is an arbitrary natural number and k is another arbitrary natural number.
Hose storage adapted to receive a spiral hose, the hose storage comprising a base body, specifically a tubular base body, and confining a cavity (3.1) for receiving the spiral hose, said tubular base body comprising an aperture (3.2) at the top side for removing the spiral hose out of the cavity (3.1), wherein the cross-section of the tubular base body increases towards the aperture (3.2) and wherein the base body at least partially comprises a top portion (3.3) at which a wall portion of the base body bulges outwardly thereby providing a rounded top portion (3.3), and wherein the tubular base body comprises an opening for feeding a free end of the spiral hose through a wall portion of the tubular base body, characterized in that said opening is provided at the lower side of the base body and comprises a longitudinal, vertically oriented shape thereby allowing the free end of the spiral hose to move in the vertical direction.
An airplane off ground advisory system, comprising: a main landing gear; at least one position sensor attached for detection of an extended condition and a compressed condition of the main landing gear during landing; a control system to receive an input from the at least one position sensor, said control system being configured to record a toggling of the input from an extended to a compressed to an extended condition and to provide an output; at least one indicator coupled to the control system and configured to be activated by the output; characterized in that the system further comprises at least one control relay configured to receive the input from the at least one position sensor, said control relay being configured to be energized by an extended condition of the main landing gear; and a takeoff inhibit feature comprising a throttle position switch, said throttle position switch being configured to detect a predetermined advanced position of the throttle, provide an open circuit responsive to the predetermined advanced position, and interrupt output from the at least one control relay. a main landing gear; at least one position sensor attached for detection of an extended condition and a compressed condition of the main landing gear during landing; a control system to receive an input from the at least one position sensor, said control system being configured to record a toggling of the input from an extended to a compressed to an extended condition and to provide an output; at least one indicator coupled to the control system and configured to be activated by the output; characterized in that the system further comprises at least one control relay configured to receive the input from the at least one position sensor, said control relay being configured to be energized by an extended condition of the main landing gear; and a takeoff inhibit feature comprising a throttle position switch, said throttle position switch being configured to detect a predetermined advanced position of the throttle, provide an open circuit responsive to the predetermined advanced position, and interrupt output from the at least one control relay.
Apparatus for measuring a magnetic field, with a core, which comprises remagnetizable core material, and an exciter coil for remagnetizing the core material, wherein the remagnetizable core material is formed as a layer or as multiple layers (12, 14, 16, 18, 20) disposed at a distance from one another and the core - has a maximum total extent G where 2.5 mm ≥ G ≥ 0.2 mm, - has a ratio of length to width that is greater than or equal to a value of twenty, and - has a thickness D where 2 μm ≥ D ≥ 0.2 μm, characterized in that the thickness of each individual one of the layers (12, 14, 16, 18, 20) of remagnetizable core material of a core with multiple layers (12, 14, 16, 18, 20) has a layer thickness D S where 60 nm ≥ D S ≥ 20 nm. - has a maximum total extent G where 2.5 mm ≥ G ≥ 0.2 mm, - has a ratio of length to width that is greater than or equal to a value of twenty, and - has a thickness D where 2 μm ≥ D ≥ 0.2 μm,
An electrode catalyst layer bonded to a polymer electrolyte membrane, the electrode catalyst layer comprising: a catalyst; carbon particles; a polymer electrolyte; and fibrous material, wherein the electrode catalyst layer has a density falling within a range of 500 mg/cm 3 to 900 mg/cm 3, wherein the electrode catalyst layer has a thickness falling within a range of 5 μm to 30 μm, wherein the mass of the polymer electrolyte falls within a range of 10 mass% to 200 mass% with respect to a total mass of the carbon particles and the fibrous material, and wherein the ratio (fibrous material/carbon particle) of a fiber diameter of the fibrous material and a particle diameter of the carbon particles falls within a range of 0.01 to 10. a catalyst; carbon particles; a polymer electrolyte; and fibrous material, wherein the electrode catalyst layer has a density falling within a range of 500 mg/cm 3 to 900 mg/cm 3, wherein the electrode catalyst layer has a thickness falling within a range of 5 μm to 30 μm, wherein the mass of the polymer electrolyte falls within a range of 10 mass% to 200 mass% with respect to a total mass of the carbon particles and the fibrous material, and wherein the ratio (fibrous material/carbon particle) of a fiber diameter of the fibrous material and a particle diameter of the carbon particles falls within a range of 0.01 to 10.
A bristle machining device for grinding the ends of bristles, comprising a bristle magazine, in which bristles are arranged upright side by side, a plurality of intermediate magazines, in which recesses are provided into which bristle tufts are inserted from the bristle magazine and thereby individualized, wherein the bristle tufts project axially by their ends in relation to the respectively associated intermediate magazines, a receiving unit to which a plurality of intermediate magazines are simultaneously attached and can be moved, a grinding device and at least one drive for the intermediate magazines and/or the receiving unit, wherein the bristle tufts seated in the intermediate magazines can be moved by the drive relative to the grinding device and, during this movement, the bristle ends are ground at least on one side of the intermediate magazines, wherein a filling station for the intermediate magazines is provided outside the receiving unit, in which bristle tufts are inserted into the intermediate magazines, and a transport means is provided for transferring the filled intermediate magazines into the receiving unit.
A press forming method for forming a press forming part, the press forming part including: a flat top portion having a convex and concave outer edge part in which a convex outer edge part protruding outward in an in-plane direction and a concave outer edge part recessed inward in the in-plane direction are continuous to each other via a connecting outer edge part; and a flange portion continuously formed on the convex and concave outer edge part of the top portion, characterized by a first forming step of forming a preformed part, the preformed part including a flange portion formed in the convex outer edge part, the flange portion being a portion of occurrence of shrink flange forming, and including a torsional shape portion having a torsional shape toward the concave outer edge part that is flat so as to be formed in the connecting outer edge part continuous from the flange portion; and a second forming step of forming the preformed part formed in the first forming step into a target shape by forming the torsional shape portion into the flange portion by returning torsion of the torsional shape portion and forming the flange portion being a portion of occurrence of stretch flange forming in the concave outer edge part. portion having a convex and concave outer edge part in which a convex outer edge part protruding outward in an in-plane direction and a concave outer edge part recessed inward in the in-plane direction are continuous to each other via a connecting outer edge part; and a flange portion continuously formed on the convex and concave outer edge part of the top portion, characterized by a first forming step of forming a preformed part, the preformed part including a flange portion formed in the convex outer edge part, the flange portion being a portion of occurrence of shrink flange forming, and including a torsional shape portion having a torsional shape toward the concave outer edge part that is flat so as to be formed in the connecting outer edge part continuous from the flange portion; and a second forming step of forming the preformed part formed in the first forming step into a target shape by forming the torsional shape portion into the flange portion by returning torsion of the torsional shape portion and forming the flange portion being a portion of occurrence of stretch flange forming in the concave outer edge part.
Non-ballasted track with a track panel supported on a base course having concrete sleepers and rails, and anchor blocks (7, 10) for anchoring the concrete sleepers on the base course, wherein the concrete sleepers comprise a central region with reduced width disposed between rail supports, in which an anchor block (7, 10) fastened on the base course is disposed on either side of the concrete sleeper, characterized in that the anchor block (7, 10) is configured as trapezoid and fixed on a flat surface of the base course by means of an asphalt adhesive or by means of a concrete adhesive.
A compound of Formula 4 or the pharmaceutically acceptable salts thereof, wherein R 1 is hydroxyl; R 2, R 3, R 4, R 5 is selected from hydrogen, C1-C4 alkyl, hydroxyl.
A sensor (100, 200, 300, 400, 500, 600, 700, 800, 900,1004) for always-on, low power operation, comprising: a microelectromechanical systems, MEMS, acoustic sensor configured to generate an audio signal and associated with a back cavity; and a sensor package comprising a lid and a package substrate, wherein the sensor package has a port adapted to receive acoustic waves, and wherein the sensor package houses the MEMS acoustic sensor and defines the back cavity associated with the MEMS acoustic sensor, characterized in that the sensor further comprises a digital signal processor, DSP, (106, 212) located in the back cavity and configured to generate a control signal (104, 204) distinct from the audio signal, for a system processor external to the sensor, in response to receiving the audio signal from the MEMS acoustic sensor, wherein the control signal is based at least in part on the audio signal, and wherein the control signal is directed to the system processor external to the sensor. a microelectromechanical systems, MEMS, acoustic sensor configured to generate an audio signal and associated with a back cavity; and a sensor package comprising a lid and a package substrate, wherein the sensor package has a port adapted to receive acoustic waves, and wherein the sensor package houses the MEMS acoustic sensor and defines the back cavity associated with the MEMS acoustic sensor, characterized in that the sensor further comprises a digital signal processor, DSP, (106, 212) located in the back cavity and configured to generate a control signal (104, 204) distinct from the audio signal, for a system processor external to the sensor, in response to receiving the audio signal from the MEMS acoustic sensor, wherein the control signal is based at least in part on the audio signal, and wherein the control signal is directed to the system processor external to the sensor.
An antibiofilm comprising a complex of: a polyvinylpyrrolidone backbone; iodine anchored to the PVP backbone; a first antibiotic selected from the group of rifamyacins anchored to the PVP backbone; and a second antibiotic selected from the group consisting of aminoglycosides anchored to the PVP backbone. a polyvinylpyrrolidone backbone; iodine anchored to the PVP backbone; a first antibiotic selected from the group of rifamyacins anchored to the PVP backbone; and a second antibiotic selected from the group consisting of aminoglycosides anchored to the PVP backbone.
A combustor for a gas turbine engine of an aircraft, comprising: an outer wall defining, at least, a portion of a combustion chamber; a dilution chute extending from an interior surface of the outer wall which is oriented towards the combustion chamber; and characterized by a support structure extending between the dilution chute and the interior surface of the outer wall wherein the support structure is adapted to support deposition of a material used to form the dilution chute; and a spall plate extending from the interior surface of the outer wall, the spall plate being located between the support structure and an outlet of the combustion chamber. an outer wall defining, at least, a portion of a combustion chamber; a dilution chute extending from an interior surface of the outer wall which is oriented towards the combustion chamber; and characterized by a support structure extending between the dilution chute and the interior surface of the outer wall wherein the support structure is adapted to support deposition of a material used to form the dilution chute; and a spall plate extending from the interior surface of the outer wall, the spall plate being located between the support structure and an outlet of the combustion chamber.
An apparatus requiring heat transfer comprising: a device; and a mechanism for transferring heat to or from the device, the mechanism comprising a heat transfer fluid represented by the following structure: H(C 2 F 4) x CH 2 OCF 2 CFH-Y-R f wherein Y is a single bond or a single oxygen atom, and x = 1-3, wherein when Y is a single bond, then R f is selected from CF 3, C 2 F 5, and n-C 3 F 7, wherein when Y is a single oxygen atom, then R f is a linear, branched, or cyclic perfluoroaliphatic group of 1 to 7 carbon atoms which may, independently, contain one or more catenated heteroatoms such as nitrogen or oxygen, and wherein the total number of carbon atoms in the structure is greater than or equal to 9. a device; and a mechanism for transferring heat to or from the device, the mechanism comprising a heat transfer fluid represented by the following structure: H(C 2 F 4) x CH 2 OCF 2 CFH-Y-R f wherein Y is a single bond or a single oxygen atom, and x = 1-3, wherein when Y is a single bond, then R f is selected from CF 3, C 2 F 5, and n-C 3 F 7, wherein when Y is a single oxygen atom, then R f is a linear, branched, or cyclic perfluoroaliphatic group of 1 to 7 carbon atoms which may, independently, contain one or more catenated heteroatoms such as nitrogen or oxygen, and wherein the total number of carbon atoms in the structure is greater than or equal to 9. Y is a single bond or a single oxygen atom, and x = 1-3, wherein when Y is a single bond, then R f is selected from CF 3, C 2 F 5, and n-C 3 F 7, wherein when Y is a single oxygen atom, then R f is a linear, branched, or cyclic perfluoroaliphatic group of 1 to 7 carbon atoms which may, independently, contain one or more catenated heteroatoms such as nitrogen or oxygen, and wherein the total number of carbon atoms in the structure is greater than or equal to 9.
A vehicle control system, comprising: a controller circuit configured to: receive, from a steering sensor, a steering torque of a steering wheel of a host vehicle; receive, from one or more perception sensors, an environment proximate the host vehicle; determine, based on the steering torque, when an operator of the host vehicle requests a take-over from fully automated control of the host vehicle; classify, based on the steering torque, the take-over request; and determine, based on the classification of the take-over request and the one or more perception sensors, a level of automated driver assistance during a transition from the fully automated control of the host vehicle to manual driving; characterized in that classifying the take-over request and determining the level of automated driver assistance comprises either: classifying a first take-over when no obstacle is detected by the one or more perception sensors and disabling the automated driver assistance; or classifying a second take-over when at least one obstacle is detected by the one or more perception sensors and enabling the automated driver assistance to avoid a collision with the at least one obstacle. receive, from a steering sensor, a steering torque of a steering wheel of a host vehicle; receive, from one or more perception sensors, an environment proximate the host vehicle; determine, based on the steering torque, when an operator of the host vehicle requests a take-over from fully automated control of the host vehicle; classify, based on the steering torque, the take-over request; and determine, based on the classification of the take-over request and the one or more perception sensors, a level of automated driver assistance during a transition from the fully automated control of the host vehicle to manual driving; characterized in that classifying the take-over request and determining the level of automated driver assistance comprises either: classifying a first take-over when no obstacle is detected by the one or more perception sensors and disabling the automated driver assistance; or classifying a second take-over when at least one obstacle is detected by the one or more perception sensors and enabling the automated driver assistance to avoid a collision with the at least one obstacle. classifying a first take-over when no obstacle is detected by the one or more perception sensors and disabling the automated driver assistance; or classifying a second take-over when at least one obstacle is detected by the one or more perception sensors and enabling the automated driver assistance to avoid a collision with the at least one obstacle.
Use of one or more polymerizable monomers or oligomers having an alkoxylated chain and at least 2 polymerizable groups per molecule, wherein the degree of alkoxylation per polymerizable group is 3 or greater, in a low migration radiation curable ink or coating composition for increasing the degree of monomer conversion during curing of the composition, wherein the composition comprises; a. between 5 and 30% w/w of the one or more polymerizable monomers or oligomers; b. between 0.1-7% w/w of one or more photoinitators; c. less than 10% w/w of one or more monofunctional monomers; wherein the composition comprises one or more type-I photoinitiators and less than 2.0% w/w of any phosphine oxide based photoinitiator. a. between 5 and 30% w/w of the one or more polymerizable monomers or oligomers; b. between 0.1-7% w/w of one or more photoinitators; c. less than 10% w/w of one or more monofunctional monomers; wherein the composition comprises one or more type-I photoinitiators and less than 2.0% w/w of any phosphine oxide based photoinitiator.
A deuterated chenodeoxycholic acid derivative represented by formula or a crystal form, a pharmaceutically acceptable salt, a hydrate or a solvate thereof: wherein: R 1, R 3, R 4, R 5 and R 6 are each independently hydrogen or deuterium and R 2 is deuterium. R 1, R 3, R 4, R 5 and R 6 are each independently hydrogen or deuterium and R 2 is deuterium.