mhurhangee/patent-ind-claim-en huggingface dataset:
An optical laminate, comprising: an optical functional layer ; and a reddening-resistant layer formed on at least one side of the optical functional layer , characterized in that the optical functional layer is a polarizing layer, the reddening-resistant layer comprises a surface having a surface area ratio of 0.02 or more as measured by an atomic force microscope with an x-scan size of 1μm, y-scan size of 1μm, scan rate in the range of 0.7 to 1Hz, and set point in the range of 10 to 15 nm, and an absolute value of a change in an amount of color coordinate a* of CIE L*a*b* according to Equation 1 below is within 2: Δ a * = a * a − a * i wherein Δa* is the change in the amount of the color coordinate a*, a* a is a color coordinate a* after maintaining the optical laminate at 105°C for 250 hours in a state where top and bottom surfaces of the optical laminate come in contact with glass substrates, and a* i is a color coordinate a* before maintaining the optical laminate at 105°C for 250 hours, wherein the color coordinates are measured using a spectrophotometer by rotating an absorption axis of the optical laminate with respect to an absorption axis of a polarizer built into the spectrophotometer and determining the color coordinates at a point where a transmittance of the optical laminate is minimum. an optical functional layer ; and a reddening-resistant layer formed on at least one side of the optical functional layer , characterized in that the optical functional layer is a polarizing layer, the reddening-resistant layer comprises a surface having a surface area ratio of 0.02 or more as measured by an atomic force microscope with an x-scan size of 1μm, y-scan size of 1μm, scan rate in the range of 0.7 to 1Hz, and set point in the range of 10 to 15 nm, and an absolute value of a change in an amount of color coordinate a* of CIE L*a*b* according to Equation 1 below is within 2: Δ a * = a * a − a * i wherein Δa* is the change in the amount of the color coordinate a*, a* a is a color coordinate a* after maintaining the optical laminate at 105°C for 250 hours in a state where top and bottom surfaces of the optical laminate come in contact with glass substrates, and a* i is a color coordinate a* before maintaining the optical laminate at 105°C for 250 hours, wherein the color coordinates are measured using a spectrophotometer by rotating an absorption axis of the optical laminate with respect to an absorption axis of a polarizer built into the spectrophotometer and determining the color coordinates at a point where a transmittance of the optical laminate is minimum.
Heating device for an aircraft interior, having the following features: a mechanically load-bearing supporting structure ; a mechanically load-bearing and heat-conducting covering structure ; and a heater for converting electrical energy into thermal energy, wherein the heater is arranged between the supporting structure and the covering structure and has a heating layer of a resistance material with a positive temperature coefficient, characterized in that the heating layer has perforations at least in certain regions and, as a result of the perforations , fillable cavities are provided between the supporting structure and the covering structure . a mechanically load-bearing supporting structure ; a mechanically load-bearing and heat-conducting covering structure ; and a heater for converting electrical energy into thermal energy, wherein the heater is arranged between the supporting structure and the covering structure and has a heating layer of a resistance material with a positive temperature coefficient, characterized in that the heating layer has perforations at least in certain regions and, as a result of the perforations , fillable cavities are provided between the supporting structure and the covering structure .
A pharmaceutical combination comprising the MDM2 inhibitor -5-(5-Chloro-1-methyl-2-oxo-1,2-dihydropyridin-3-yl)-6-(4-chlorophenyl)-2-(2,4-dimethoxypyrimidin-5-yl)-1-(propan-2-yl)-5,6-dihydropyrrolo[3,4-d]imidazol-4 -one (HDM201), or a pharmaceutically acceptable salt thereof, and the Bcl2 inhibitor ABT-199, or a pharmaceutically acceptable salt thereof.
A method of detecting an organophosphorus compound (OPC) and/or an illicit drug with an ion detector, the method comprising the steps of: forming a proton-bound adduct ion between at least one OPC and at least one secondary or tertiary amine in a reaction region defined between an ionization source and the ion detector; and detecting the proton-bound adduct ion with the ion detector to confirm presence of the OPC and/or the illicit drug, optionally wherein the ion detector is a mass spectrometer or an ion mobility spectrometer. forming a proton-bound adduct ion between at least one OPC and at least one secondary or tertiary amine in a reaction region defined between an ionization source and the ion detector; and detecting the proton-bound adduct ion with the ion detector to confirm presence of the OPC and/or the illicit drug, optionally wherein the ion detector is a mass spectrometer or an ion mobility spectrometer.
A secure element comprising: a first entity configured to securely store a number of cryptographic keys ; a second entity configured to acquire a trusted sensor value indicative of a measurand; and a third entity configured to create, based on the acquired trusted sensor value , and using at least one of the number of cryptographic keys , a cryptographic record adapted to certify a level of plausibility of a lesser-trusted sensor value acquired by a requestor external to the secure element and indicative of the measurand, and to provide the cryptographic record to the requestor , characterized in that the third entity is configured to: - determine, based on the trusted sensor value , a plurality of plausibility determination parameters enabling a determination of the level of plausibility of the lesser-trusted sensor value ; and - include the determined plurality of plausibility determination parameters into the cryptographic record , wherein the cryptographic record is a digital certificate that is created by the third entity using a second cryptographic key of the number of cryptographic keys and certifies a first cryptographic key of the number of cryptographic keys , whereby said first cryptographic key is used to create a digital signature of the lesser-trusted sensor value . a first entity configured to securely store a number of cryptographic keys ; a second entity configured to acquire a trusted sensor value indicative of a measurand; and a third entity configured to create, based on the acquired trusted sensor value , and using at least one of the number of cryptographic keys , a cryptographic record adapted to certify a level of plausibility of a lesser-trusted sensor value acquired by a requestor external to the secure element and indicative of the measurand, and to provide the cryptographic record to the requestor , characterized in that the third entity is configured to: - determine, based on the trusted sensor value , a plurality of plausibility determination parameters enabling a determination of the level of plausibility of the lesser-trusted sensor value ; and - include the determined plurality of plausibility determination parameters into the cryptographic record , - determine, based on the trusted sensor value , a plurality of plausibility determination parameters enabling a determination of the level of plausibility of the lesser-trusted sensor value ; and - include the determined plurality of plausibility determination parameters into the cryptographic record ,
A weight exercise machine comprising: a frame carrying: - an actuator having a movable part coupled to an interface interacting with an exerciser to receive a force from the actuator, wherein the interface is movable along a first stroke path assigned to stretching a target muscle or a group of muscles of the exerciser, and a second stroke path assigned to contracting the target muscle or the group of muscles of the exerciser; and - a control unit for controlling the actuator such that, when moving along the first stroke path, the interface opposes the force applied by the exerciser, characterized in that , when moving along the second stroke path, the interface aids the exerciser by creating a force sufficient for allowing the interface to move, at least partially, along the second stroke path without applying a muscle force of the exerciser to the interface, wherein the interface is provided with a strain gage transducer to transmit a signal to the control unit, and wherein, when moving along the second stroke path, the interface aids the exerciser by that the control unit uses a weight of a body part of the exerciser and/or a gravity force affecting the body part. a frame carrying: - an actuator having a movable part coupled to an interface interacting with an exerciser to receive a force from the actuator, wherein the interface is movable along a first stroke path assigned to stretching a target muscle or a group of muscles of the exerciser, and a second stroke path assigned to contracting the target muscle or the group of muscles of the exerciser; and - a control unit for controlling the actuator such that, - an actuator having a movable part coupled to an interface interacting with an exerciser to receive a force from the actuator, wherein the interface is movable along a first stroke path assigned to stretching a target muscle or a group of muscles of the exerciser, and a second stroke path assigned to contracting the target muscle or the group of muscles of the exerciser; and - a control unit for controlling the actuator such that, when moving along the first stroke path, the interface opposes the force applied by the exerciser, characterized in that , when moving along the second stroke path, the interface aids the exerciser by creating a force sufficient for allowing the interface to move, at least partially, along the second stroke path without applying a muscle force of the exerciser to the interface, wherein the interface is provided with a strain gage transducer to transmit a signal to the control unit, and wherein, when moving along the second stroke path, the interface aids the exerciser by that the control unit uses a weight of a body part of the exerciser and/or a gravity force affecting the body part.
An electrical generator comprising: a rotor defining a longitudinal axis ; a rotating shaft fixed to the rotor; a rotor ball bearing including an inner race affixed to the rotating shaft and an outer race ; a bearing support enclosing the rotor ball bearing such that a clearance exists between the outer race of the rotor ball bearing and a support bore; and wherein the generator is an integrated drive generator; characterized by an anti-rotation device located within the clearance in order to decrease possible eccentricity of a rotating load, the anti-rotation device comprising: a tapered sleeve defining a longitudinal axis wherein the sleeve includes: an inner surface defining an inner diameter; an outer surface defining an outer diameter varying along the longitudinal axis; and a slot extended from the inner surface to the outer surface configured to provide flexibility to compress the sleeve to reduce the outer diameter during installation; wherein the slot includes a first face spaced apart from a second face across a gap; wherein the slot extends for an entire axial length of the sleeve and through at least the front face of the sleeve; and an angle between the outer diameter and the inner diameter of the sleeve is between 5 degrees and 10 degrees inclusive. a rotor defining a longitudinal axis ; a rotating shaft fixed to the rotor; a rotor ball bearing including an inner race affixed to the rotating shaft and an outer race ; a bearing support enclosing the rotor ball bearing such that a clearance exists between the outer race of the rotor ball bearing and a support bore; and wherein the generator is an integrated drive generator; characterized by an anti-rotation device located within the clearance in order to decrease possible eccentricity of a rotating load, the anti-rotation device comprising: a tapered sleeve defining a longitudinal axis wherein the sleeve includes: an inner surface defining an inner diameter; an outer surface defining an outer diameter varying along the longitudinal axis; and a slot extended from the inner surface to the outer surface configured to provide flexibility to compress the sleeve to reduce the outer diameter during installation; wherein the slot includes a first face spaced apart from a second face across a gap; wherein the slot extends for an entire axial length of the sleeve and through at least the front face of the sleeve; and an angle between the outer diameter and the inner diameter of the sleeve is between 5 degrees and 10 degrees inclusive. an inner surface defining an inner diameter; an outer surface defining an outer diameter varying along the longitudinal axis; and a slot extended from the inner surface to the outer surface configured to provide flexibility to compress the sleeve to reduce the outer diameter during installation; wherein the slot includes a first face spaced apart from a second face across a gap; wherein the slot extends for an entire axial length of the sleeve and through at least the front face of the sleeve; and an angle between the outer diameter and the inner diameter of the sleeve is between 5 degrees and 10 degrees inclusive.
Method for forming a surface layer on a substrate, comprising the steps: depositing a surface layer comprising a porous wall structure defining and separating regularly spaced, sized and shaped macro-pores that are interconnected in the general direction normal to the surface of the substrate and have a diameter greater than 5 μm and less than 1000 μm wherein the diameter of the pores gradually increases with distance from the substrate, wherein the porous wall structure is comprised of dendritically ordered nanoparticles, and modifying the porous wall structure to a continuous branched structure, and wherein the surface layer is deposited by a controlled electrodeposition process or a controlled gas phase deposition process generating gas bubbles that defines the macro-pores, thereby depositing the material on the substrate in order to form a surface layer with both regularly spaced and shaped micron-sized pores and a wall structure of dendritically ordered nanoparticles, wherein the continuous branched structure is a structure formed by modifying the dendritically ordered nanoparticle structure into continuous branches and characterized by the step of modifying the porous wall structure involving controlled deposition of 1 nm to 10 μm solid layer on the surface of the porous wall structure, said controlled deposition of the solid layer being performed by electrodeposition or gas phase deposition without generating gas bubbles. depositing a surface layer comprising a porous wall structure defining and separating regularly spaced, sized and shaped macro-pores that are interconnected in the general direction normal to the surface of the substrate and have a diameter greater than 5 μm and less than 1000 μm wherein the diameter of the pores gradually increases with distance from the substrate, wherein the porous wall structure is comprised of dendritically ordered nanoparticles, and modifying the porous wall structure to a continuous branched structure, and wherein the surface layer is deposited by a controlled electrodeposition process or a controlled gas phase deposition process generating gas bubbles that defines the macro-pores, thereby depositing the material on the substrate in order to form a surface layer with both regularly spaced and shaped micron-sized pores and a wall structure of dendritically ordered nanoparticles, wherein the continuous branched structure is a structure formed by modifying the dendritically ordered nanoparticle structure into continuous branches and characterized by the step of modifying the porous wall structure involving controlled deposition of 1 nm to 10 μm solid layer on the surface of the porous wall structure, said controlled deposition of the solid layer being performed by electrodeposition or gas phase deposition without generating gas bubbles.
A method for identifying a sub-type of cancer responding by inhibition of tumor cell survival to dimethylfasudil treatment in a subject in need thereof, comprising the steps of: (a) receiving a cancer sample from the subject; (b) testing for an abnormality of MYC gene in the sample from the subject; wherein the abnormality of the MYC gene causes higher expression of MYC; and (c) identifying in the subject a sub-type of cancer sensitive to dimethylfasudil treatment according to the detection of the MYC abnormality in the sample provided by the subject. (a) receiving a cancer sample from the subject; (b) testing for an abnormality of MYC gene in the sample from the subject; wherein the abnormality of the MYC gene causes higher expression of MYC; and (c) identifying in the subject a sub-type of cancer sensitive to dimethylfasudil treatment according to the detection of the MYC abnormality in the sample provided by the subject.
An aircraft pod, comprising: a pod shell defining a window ; a radar system disposed within the shell and in optical communication with the window in the shell, and configured to send and/or receive radar signals away from the pod shell in a radar field of regard; and characterised by a ram air inlet structure disposed on an outer surface of the shell facing the window such that the ram air inlet structure extends toward and into the radar field of regard or an edge thereof, wherein the ram air inlet structure is made of or coated with a radar absorbing material. a pod shell defining a window ; a radar system disposed within the shell and in optical communication with the window in the shell, and configured to send and/or receive radar signals away from the pod shell in a radar field of regard; and characterised by a ram air inlet structure disposed on an outer surface of the shell facing the window such that the ram air inlet structure extends toward and into the radar field of regard or an edge thereof, wherein the ram air inlet structure is made of or coated with a radar absorbing material.
A Doppler fetal heartbeat monitor, comprising: a housing ; a mainboard ; a loudspeaker installed in the housing and electrically connected to the mainboard; and an ultrasonic transducer installed in the housing, electrically connected to the mainboard, and comprising at least one transduction wafer configured to generate an impulse wave, wherein the ultrasonic transducer is internally provided at a head end of the housing, and the loudspeaker and the mainboard are internally provided at a tail end of the housing, characterized in that the housing comprises an upper housing and a lower housing, the upper housing and the lower housing are provided with a partition plate separately, and the respective partition plates of the upper housing and the lower housing are disposed opposite to each other, so as to define a first chamber, wherein the Doppler fetal heartbeat monitor further comprises a fixing sleeve fitted over the loudspeaker and fixed to the lower housing, the lower housing being provided with a sound hole corresponding to the loudspeaker; and the fixing sleeve is a soft silicone rubber sleeve. a housing ; a mainboard ; a loudspeaker installed in the housing and electrically connected to the mainboard; and an ultrasonic transducer installed in the housing, electrically connected to the mainboard, and comprising at least one transduction wafer configured to generate an impulse wave, wherein the ultrasonic transducer is internally provided at a head end of the housing, and the loudspeaker and the mainboard are internally provided at a tail end of the housing, characterized in that the housing comprises an upper housing and a lower housing, the upper housing and the lower housing are provided with a partition plate separately, and the respective partition plates of the upper housing and the lower housing are disposed opposite to each other, so as to define a first chamber, wherein the Doppler fetal heartbeat monitor further comprises a fixing sleeve fitted over the loudspeaker and fixed to the lower housing, the lower housing being provided with a sound hole corresponding to the loudspeaker; and the fixing sleeve is a soft silicone rubber sleeve.
A corn head having a frame that extends laterally; a trough that extends laterally, fixed to the frame ; a rear wall that extends laterally; an auger extending laterally and having at least one flight, said auger being mounted for rotation on the frame and having a laterally extending rotational axis, the corn head comprising corn picking units, characterized in that the header comprises a first stripper that extends laterally and generally parallel to the rotational axis of the auger and a second stripper that extends laterally, that the first stripper is fixed to the rear wall , that the second stripper is fixed to the rear wall below the first stripper , that the second stripper has an adjustable width measured in a fore-and-aft direction, and that the first stripper and the second stripper are mounted at a downwardly and forwardly descending angle (α).
A component incorporating a 3-D identification code , comprising: a component body having an interior bounded by an exterior surface; and an identification code formed as a part of the interior, the identification code including a plurality of cells arranged in a three-dimensional space within the interior, wherein each of the cells is configured to encode more than two possible values; a plurality of additional cells , each additional cell configured as a datum positioned at a far corner, i.e. a distal corner, of the identification code , wherein the datums identify a size, position, and orientation of the identification code ; wherein wherein each of the plurality of cells encodes more than two possible values by way of a position of the each of the plurality of cells along at least one axis of the three-dimensional space; wherein the cells are identifiable by one or more position-independent properties. a component body having an interior bounded by an exterior surface; and an identification code formed as a part of the interior, the identification code including a plurality of cells arranged in a three-dimensional space within the interior, wherein each of the cells is configured to encode more than two possible values; a plurality of additional cells , each additional cell configured as a datum positioned at a far corner, i.e. a distal corner, of the identification code , wherein the datums identify a size, position, and orientation of the identification code ; wherein wherein each of the plurality of cells encodes more than two possible values by way of a position of the each of the plurality of cells along at least one axis of the three-dimensional space; wherein the cells are identifiable by one or more position-independent properties.