mhurhangee/ep-ind-claims huggingface dataset:
Robust, adaptive and easy wearable cuff with an integrated signal recorder for measurements of biosignals on the skin of a living body, in particular for long-term ECG recording at an upper arm of a human body, wherein the cuff is based on a carrier material and the signal recorder is comprising an optional ground electrode, one or more signal electrodes, a main circuit comprising a base, conductors which connect the electrodes (21, 22) to each other and/or to the base of the main circuit, wherein at least one electrode (21, 22) is connected to the carrier material via a reversibly compressible material, wherein - the electrodes (21, 22), the base of the main circuit and the conductors are based on one and the same flexible printed circuit board (FPCB) and thus they exhibit no interfaces in between, wherein the reversibly compressible material a) is comprising a spring, an elastomer or is based on one or more layers of the FPCB in helical form, and/or b) can be compressed reversibly by at least 25%, when a force of 1 N is applied, measured at 23 °C and 50% relative humidity, measured according to DIN EN ISO 3386-1, and characterized in that the carrier material is an elastic carrier material having an elongation of at least 10%, in particular of at least 50%, at a tensile force of 1 N, when measured at 23 °C and 50% relative humidity, measured according to ISO 13934-1:2013, and in that the conductors exhibit a zig-zag, U-shape, Ω-shape and/or a meandering form. - the electrodes (21, 22), the base of the main circuit and the conductors are based on one and the same flexible printed circuit board (FPCB) and thus they exhibit no interfaces in between, a) is comprising a spring, an elastomer or is based on one or more layers of the FPCB in helical form, and/or b) can be compressed reversibly by at least 25%, when a force of 1 N is applied, measured at 23 °C and 50% relative humidity, measured according to DIN EN ISO 3386-1, and characterized in that
A light-transmissive antenna comprising: a transparent base (1, L1) made of a transparent insulating material; an antenna pattern (2, L2) formed on the transparent base (1, L1), the antenna pattern (2, L2) being made of a transparent electrically conductive film that is a film-like member having a predetermined transmittance and a predetermined electrical conductivity; a plurality of highly electrically conductive patterns arranged on the antenna pattern (2, L2), each of the highly electrically conductive patterns being made of an electrically conductive member having a higher electrical conductivity than the transparent electrically conductive film and formed in a linear shape; characterized in that a second transparent base (5, L4) is disposed on an upper side of the antenna pattern (2, L2) and having a predetermined thickness, wherein the second transparent base (5, L4) is made of a transparent insulating material, and each of the plurality of highly electrically conductive patterns has a predetermined width set equal to or smaller than a value assumed as a resolution of human eyes, wherein the assumed value of the resolution of human eyes is set to 50 μm, and the second transparent base (5, L4) includes a slit (52, 52a, 52b) having a straight line shape, the slit (52, 52a, 52b) being formed perpendicularly to a flow direction of a resonance current in the antenna pattern (2, L2) on a lateral side of an antenna contact part that comes into contact with the antenna pattern (2, L2). a transparent base (1, L1) made of a transparent insulating material; an antenna pattern (2, L2) formed on the transparent base (1, L1), the antenna pattern (2, L2) being made of a transparent electrically conductive film that is a film-like member having a predetermined transmittance and a predetermined electrical conductivity; a plurality of highly electrically conductive patterns arranged on the antenna pattern (2, L2), each of the highly electrically conductive patterns being made of an electrically conductive member having a higher electrical conductivity than the transparent electrically conductive film and formed in a linear shape; characterized in that a second transparent base (5, L4) is disposed on an upper side of the antenna pattern (2, L2) and having a predetermined thickness, wherein the second transparent base (5, L4) is made of a transparent insulating material, and each of the plurality of highly electrically conductive patterns has a predetermined width set equal to or smaller than a value assumed as a resolution of human eyes, wherein the assumed value of the resolution of human eyes is set to 50 μm, and the second transparent base (5, L4) includes a slit (52, 52a, 52b) having a straight line shape, the slit (52, 52a, 52b) being formed perpendicularly to a flow direction of a resonance current in the antenna pattern (2, L2) on a lateral side of an antenna contact part that comes into contact with the antenna pattern (2, L2).
A cone crusher comprising: an outer crushing shell and an inner crushing shell forming between them a crushing gap, the outer crushing shell being supported on an upper frame member in vertically adjustable engagement with a lower frame member, said vertically adjustable engagement being configured for adjusting the vertical position of the outer crushing shell relative to the lower frame member so as to permit adjustment of the width of the crushing gap, and a sensor arrangement provided with a sensor element mounted to one of the lower frame member and the upper frame member for measuring the vertical position of the outer crushing shell, characterized in further comprising a target means (76, 80; 70) arranged to be detectable by said sensor element, wherein one (76, 80; 70) of the target means (76, 80; 70) and the sensor element being arranged to follow vertical movement of the upper frame member and to move in relation to the other one of the target means (76, 80; 70) and the sensor element, said sensor element comprising a vertical sensing array which extends in a vertical direction along at least a portion of a range within which the target means (76, 80; 70) may be moved upon adjusting the vertical position of the upper frame member, and the target means (76, 80; 70) being detectable at different vertical positions along the vertical sensing array. an outer crushing shell and an inner crushing shell forming between them a crushing gap, the outer crushing shell being supported on an upper frame member in vertically adjustable engagement with a lower frame member, said vertically adjustable engagement being configured for adjusting the vertical position of the outer crushing shell relative to the lower frame member so as to permit adjustment of the width of the crushing gap, and a sensor arrangement provided with a sensor element mounted to one of the lower frame member and the upper frame member for measuring the vertical position of the outer crushing shell, characterized in further comprising a target means (76, 80; 70) arranged to be detectable by said sensor element, wherein one (76, 80; 70) of the target means (76, 80; 70) and the sensor element being arranged to follow vertical movement of the upper frame member and to move in relation to the other one of the target means (76, 80; 70) and the sensor element, said sensor element comprising a vertical sensing array which extends in a vertical direction along at least a portion of a range within which the target means (76, 80; 70) may be moved upon adjusting the vertical position of the upper frame member, and the target means (76, 80; 70) being detectable at different vertical positions along the vertical sensing array.
A first communicating apparatus that has initiative of communication through a bus (16-1, 16-2) of a communication system, the first communicating apparatus comprising: a transmitting and receiving part that executes transmission and reception of signals with at least one or more other communicating apparatuses (14, 15) of the communication system; and an error avoiding part that, in a state where the communication system configured such that the communication system executes communication through a bus (16-1, 16-2) already operates, executes a process of avoiding occurrence of any error occurring when a second communicating apparatus is additionally connected to the communication system, and wherein in a case where the second communicating apparatus is likely to be additionally connected to the communication system, the error avoiding part restricts a lower limit of a communication speed employed when communication is executed with a low-speed communicating apparatus that is a communicating apparatus executing communication at a speed lower than a communication speed employed in the communication of the second communicating apparatus. a transmitting and receiving part that executes transmission and reception of signals with at least one or more other communicating apparatuses (14, 15) of the communication system; and an error avoiding part that, in a state where the communication system configured such that the communication system executes communication through a bus (16-1, 16-2) already operates, executes a process of avoiding occurrence of any error occurring when a second communicating apparatus is additionally connected to the communication system, and wherein in a case where the second communicating apparatus is likely to be additionally connected to the communication system, the error avoiding part restricts a lower limit of a communication speed employed when communication is executed with a low-speed communicating apparatus that is a communicating apparatus executing communication at a speed lower than a communication speed employed in the communication of the second communicating apparatus.
Thermal energy recovery system of a lubrication device of a mechanical system of a vehicle, said thermal energy recovery system comprising a lubrication device provided with at least one reservoir containing a lubricating liquid and at least one lubrication circuit (6, 7) in which said lubricating liquid circulates for lubricating said mechanical system of said vehicle, said thermal energy recovery system comprising a thermal energy recovery circuit in which a heat transfer fluid circulates, said thermal energy recovery circuit being provided with: - a first flow generator of said heat transfer fluid; - at least one first heat exchanger connected to one of said lubrication circuits (6, 7) and allowing a heat exchange between said heat transfer fluid and said lubricating liquid circulating in said lubrication device; and - pipes in which said heat transfer fluid circulates, at least one lubrication circuit (6, 7) having a cooling device for cooling said lubricating liquid, and said lubricating device comprising a temperature sensor measuring the temperature of said lubricating liquid and at least one bypass system of a cooling device, each bypass system being provided with a bypass device and a bypass line, said bypass system being configured so that said lubricating liquid does not circulate in said cooling device, but flows in said bypass line when the temperature of said lubricating liquid is below an operating temperature, characterised in that said lubricating device comprises a pressure sensor for said lubricating liquid circulating in said main lubrication circuit and said thermal energy recovery circuit comprises a regulating device for the flow rate of said heat transfer fluid, said regulating device being configured to maximise the flow rate of said heat transfer fluid circulating in said thermal energy recovery circuit so that the heat exchange is maximised between said heat transfer fluid and said lubricating liquid in each first heat exchanger so as to limit heating of said lubricating liquid when the pressure of said lubricating liquid circulating in said main lubrication circuit is lower than an operating pressure. - a first flow generator of said heat transfer fluid; - at least one first heat exchanger connected to one of said lubrication circuits (6, 7) and allowing a heat exchange between said heat transfer fluid and said lubricating liquid circulating in said lubrication device; and - pipes in which said heat transfer fluid circulates,
A method of amplifying a target gene outside a chromosome of a mammalian cell, the method comprising the step of: transferring, concurrently to a mammalian cell, (i) a vector including (a) a mammalian replication initiation region functioning in a mammalian cell and (b) a nuclear matrix attachment region functioning in a mammalian cell, (ii) a target gene, and (iii) a polynucleotide including a telomere repetitive sequence, wherein the polynucleotide including a telomere repetitive sequence has a size within a range of not less than 500 bp to not more than 10,000 bp. transferring, concurrently to a mammalian cell, (i) a vector including (a) a mammalian replication initiation region functioning in a mammalian cell and (b) a nuclear matrix attachment region functioning in a mammalian cell, (ii) a target gene, and (iii) a polynucleotide including a telomere repetitive sequence, wherein the polynucleotide including a telomere repetitive sequence has a size within a range of not less than 500 bp to not more than 10,000 bp.
A method for stabilizing a bioactive herbaceous extract in a composition comprising silicon nanoparticles having an average diameter of between 10 and 1000 nm, the method comprising bringing the bioactive herbaceous extract into contact with the silicon nanoparticles, in the presence of trehalose.
A position sensing system for measuring a position of a moving object, comprising: - a first magnetic sensor and a second magnetic sensor, which are configured to measure an intensity of a magnetic field produced by the moving object, wherein the first magnetic sensor is located at a known distance from the second magnetic sensor; - a nonlinear model of the magnetic field produced by the moving object as a function of position around the moving object; and - a controller configured ∘ to automatically calibrate parameters of the nonlinear model by an estimation algorithm using redundant magnetic field measurements from the first and second magnetic sensor, and ∘ to estimate a position of the moving object based on the nonlinear model and based on the measured intensity of the magnetic field produced by the moving object. - a first magnetic sensor and a second magnetic sensor, which are configured to measure an intensity of a magnetic field produced by the moving object, wherein the first magnetic sensor is located at a known distance from the second magnetic sensor; - a nonlinear model of the magnetic field produced by the moving object as a function of position around the moving object; and - a controller configured ∘ to automatically calibrate parameters of the nonlinear model by an estimation algorithm using redundant magnetic field measurements from the first and second magnetic sensor, and ∘ to estimate a position of the moving object based on the nonlinear model and based on the measured intensity of the magnetic field produced by the moving object. ∘ to automatically calibrate parameters of the nonlinear model by an estimation algorithm using redundant magnetic field measurements from the first and second magnetic sensor, and ∘ to estimate a position of the moving object based on the nonlinear model and based on the measured intensity of the magnetic field produced by the moving object.
Footwear structure for luminous footwear, comprising an upper and a connection unit combined with said upper, wherein said connection unit comprises a main body and connecting cables that extend from said main body in order to connect said connection unit to a control unit and/or a battery of an electronic light system, wherein said main body is provided with a connection port and junction points for the contact of said connecting cables at their ends that are proximal to said connection port, wherein said main body comprises a first section at which said connection port is arranged, and a second section at which said junction points are arranged, wherein said connection port has an accessing direction and said connecting cables have an extending direction at said junction points, wherein said accessing direction and said extending direction are neither aligned nor parallel to each other, said accessing direction and said extending direction forming with each other an angle different from 180°, preferably forming an angle of about 90°, wherein said accessing direction, said extending direction and said junction points are lying on a same plane or on planes parallel to each other, wherein said plane is parallel, or said planes are parallel, to said main body, characterized in that said footwear structure comprises a tongue made in one piece with, or constrained to, said upper, wherein said main body of said connection unit is combined with said tongue, wherein said connection unit comprises a control button operating on the electronic light system, and wherein with respect to a middle axis (X-X) longitudinally extended on said tongue, said control button is arranged on one side towards the foot inside of said footwear structure.
Dispenser for discharging a pharmaceutical liquid by the nasal route, having - a liquid reservoir and - a nasal olive for insertion into a nostril of a user, wherein the liquid reservoir is connected by a feed channel to an outlet opening in the nasal olive so that, by actuating the dispenser, a discharge operation can be effected, characterized in that at least one part (30, 20, 18) of the dispenser is made of an aromatized plastics material, wherein the aromatization is carried out with an aroma from the group comprising aniseed aroma, camphor aroma, sage aroma, mint aroma, in particular peppermint aroma, chamomile aroma, menthol aroma, citronella aroma, eucalyptus aroma, pine-needle aroma, lavender aroma, carnation aroma, rose aroma, honey aroma and fruit aroma, in particular berry aroma, preferably citrus aroma, or mixtures thereof. - a liquid reservoir and - a nasal olive for insertion into a nostril of a user,
A system (100, 200) for treating a tissue site, comprising: a dressing assembly (112, 202) comprising: a foam dressing bolster (114, 204) having a first side (120, 206) and a second, inward-facing side (122, 208), a comfort layer (124, 210) coupled to the second, inward-facing side of the dressing bolster, wherein the comfort layer has a first side and a second, inward-facing side and at least a portion of the second side of the comfort layer is configured to be directly against the tissue site, and a sealing ring (117, 248) coupled to the second, inward-facing side of the comfort layer (124, 210); a sealing member (116, 224) for covering the dressing bolster (114, 204) and for creating a sealed space; and a reduced-pressure source for fluidly coupling to the sealed space. a foam dressing bolster (114, 204) having a first side (120, 206) and a second, inward-facing side (122, 208), a comfort layer (124, 210) coupled to the second, inward-facing side of the dressing bolster, wherein the comfort layer has a first side and a second, inward-facing side and at least a portion of the second side of the comfort layer is configured to be directly against the tissue site, and a sealing ring (117, 248) coupled to the second, inward-facing side of the comfort layer (124, 210); a sealing member (116, 224) for covering the dressing bolster (114, 204) and for creating a sealed space; and a reduced-pressure source for fluidly coupling to the sealed space.
A retractable liquefied natural gas cargo transfer system comprising: a marine vessel; and an LNG cargo transfer bow manifold moveably attached to a main deck of the marine vessel, wherein the LNG cargo transfer bow manifold is slideable between: a forward position proximate a bow of the marine vessel; and an aft position aft of the bow; the LNG cargo transfer bow manifold elevationally coupled to the main deck by a retractable support member (235, 280), wherein the retractable support member (235, 280) is moveable between: an extended position such that the LNG cargo transfer bow manifold is raised above the main deck: and a retracted position such that the LNG cargo transfer bow manifold rests on one of the main deck, below the main deck or a combination thereof; wherein the forward position, together with the extended position, arranges the LNG cargo transfer bow manifold into a cargo transfer position, and wherein the aft position, together with the retracted position, arranges the LNG cargo transfer bow manifold into a stowed position. a marine vessel; and an LNG cargo transfer bow manifold moveably attached to a main deck of the marine vessel, wherein the LNG cargo transfer bow manifold is slideable between: a forward position proximate a bow of the marine vessel; and an aft position aft of the bow; a forward position proximate a bow of the marine vessel; and an aft position aft of the bow; the LNG cargo transfer bow manifold elevationally coupled to the main deck by a retractable support member (235, 280), wherein the retractable support member (235, 280) is moveable between: an extended position such that the LNG cargo transfer bow manifold is raised above the main deck: and a retracted position such that the LNG cargo transfer bow manifold rests on one of the main deck, below the main deck or a combination thereof; an extended position such that the LNG cargo transfer bow manifold is raised above the main deck: and a retracted position such that the LNG cargo transfer bow manifold rests on one of the main deck, below the main deck or a combination thereof; wherein the forward position, together with the extended position, arranges the LNG cargo transfer bow manifold into a cargo transfer position, and wherein the aft position, together with the retracted position, arranges the LNG cargo transfer bow manifold into a stowed position.