mhurhangee/patent-ind-claim-en huggingface dataset:
A head-up display device comprising: a first mirror ; a second mirror ; and a case configured to house the first mirror and the second mirror , wherein the first mirror is disposed at a position receiving external light from the second mirror , wherein the case is provided integrally with a frame-like bezel part configured to cover an outer peripheral portion of the first mirror as viewed from the second mirror side, wherein the first mirror is supported by a mirror holder configured to cover a backside of a reflective surface, and the mirror holder is connected to the case , whereby the first mirror is attached to the case , characterized in that the head-up display device is being formed with a cross optical path between the second mirror and the first mirror , and the mirror holder comprises a resin material having a heat resistance temperature lower than that of the bezel part . a first mirror ; a second mirror ; and a case configured to house the first mirror and the second mirror , wherein the first mirror is disposed at a position receiving external light from the second mirror , wherein the case is provided integrally with a frame-like bezel part configured to cover an outer peripheral portion of the first mirror as viewed from the second mirror side, wherein the first mirror is supported by a mirror holder configured to cover a backside of a reflective surface, and the mirror holder is connected to the case , whereby the first mirror is attached to the case , characterized in that the head-up display device is being formed with a cross optical path between the second mirror and the first mirror , and the mirror holder comprises a resin material having a heat resistance temperature lower than that of the bezel part .
A brake housing assembly including a brake housing having a recess defining a recess axis , the recess having a base and a recess wall , the base defining a base contour, the brake housing assembly further including a bearing support having a projection defining a bearing support axis , the projection having an end and a projection wall , the end defining an end contour corresponding to the base contour such that with the end in engagement with the base the end contour and base contour co-operate to align the bearing support axis with the recess axis characterised in that the recess wall is spaced from the projection wall . the brake housing assembly further including a bearing support having a projection defining a bearing support axis , the projection having an end and a projection wall , the end defining an end contour corresponding to the base contour such that with the end in engagement with the base the end contour and base contour co-operate to align the bearing support axis with the recess axis characterised in that the recess wall is spaced from the projection wall .
A method of removing an electrical contact from an ultrasound probe to reuse the ultrasound probe, comprising: providing an ultrasound probe that has an ultrasound transducer in a distal region, wherein the ultrasound probe includes at least one exposed region of a plurality of conductive traces , the exposed region defining a probe contact; and disconnecting the probe contact from the ultrasound probe. characterized in that disconnecting the probe contact from the ultrasound probe comprises cutting the probe contact from the ultrasound probe. providing an ultrasound probe that has an ultrasound transducer in a distal region, wherein the ultrasound probe includes at least one exposed region of a plurality of conductive traces , the exposed region defining a probe contact; and disconnecting the probe contact from the ultrasound probe. characterized in that disconnecting the probe contact from the ultrasound probe comprises cutting the probe contact from the ultrasound probe.
A composite material container for containing a pressurised fluid, the container comprising a tubular member , two tips (11, 13; 111) respectively inserted into the ends of the tubular member, and a circumferential layer formed of resin-impregnated and wound fibres, the circumferential layer surrounding the tubular member and the tips, a section at least of each of the tips (11, 13; 111) having a shape which becomes thinner towards the outside, and the wall of the tubular member has a narrowing at each of its ends, such that, at each end, the wall comes to be placed against the surface of the section which becomes thinner; the tubular member comprising a plastic tube and a longitudinal layer , the plastic tube being coated with the longitudinal layer and this layer being formed essentially of fibres arranged in parallel in a resin matrix, the parallel fibres being oriented in the direction of the longitudinal axis of the plastic tube ; the wound fibres of the circumferential layer being wound circumferentially, in parallel with each other, around the tubular member and the tips .
A storage device , comprising: a nonvolatile semiconductor memory device including a first area, a second area, and a third area; and a controller configured to receive a first write command including a first logical block address from a host device , to transmit a ready to transfer to the host device in response to the first write command to receive first data corresponding to the first logical block address from the host device , and to store the first data in the nonvolatile semiconductor memory device, wherein, when the first write command includes area information identifying one of the first and second area, the controller assigns one of a first physical address corresponding to the first area and a second physical address corresponding to the second area based on the area information, and stores the first data in an area corresponding to the assigned one of the first and second physical addresses, wherein, when the first write command does not include the area information, the controller assigns a third physical address corresponding to the third area, and stores the first data in an area corresponding to the assigned third physical address, and wherein each of the first area and the second area includes memory cells each configured to store "n" bits (n being a positive integer), and the third area includes memory cells each configured to store "m" bits (m being a positive integer greater than n), wherein the controller is further configured to: flush data stored in the second area to the third area only in response to a flush request from the host device ; and flush data stored in the first area to the third area according to an internal flush policy of the storage device . a nonvolatile semiconductor memory device including a first area, a second area, and a third area; and a controller configured to receive a first write command including a first logical block address from a host device , to transmit a ready to transfer to the host device in response to the first write command to receive first data corresponding to the first logical block address from the host device , and to store the first data in the nonvolatile semiconductor memory device, wherein, when the first write command includes area information identifying one of the first and second area, the controller assigns one of a first physical address corresponding to the first area and a second physical address corresponding to the second area based on the area information, and stores the first data in an area corresponding to the assigned one of the first and second physical addresses, wherein, when the first write command does not include the area information, the controller assigns a third physical address corresponding to the third area, and stores the first data in an area corresponding to the assigned third physical address, and flush data stored in the second area to the third area only in response to a flush request from the host device ; and flush data stored in the first area to the third area according to an internal flush policy of the storage device .
A composite balance wheel for a watch oscillating system comprising: - a balance wheel formed of a first material having a first coefficient of thermal expansion and comprising: - a central portion (1.2), - at least two wings each comprising a radial portion (1.3) extending radially from the central portion (1.2) and a free distal portion (1.5), - a balance wheel blade formed of a second material having a second coefficient of thermal expansion different from the first coefficient of thermal expansion, characterized in that the composite balance wheel further comprises: - fastening means , such as screws, and in that the balance wheel blade is fixed to each of the free distal portions (1.5) by the fixing means , so as to cause the free distal portions (1.5) to pivot during a temperature variation. - a balance wheel formed of a first material having a first coefficient of thermal expansion and - a central portion (1.2), - at least two wings each comprising a radial portion (1.3) extending radially from the central portion (1.2) and a free distal portion (1.5), - a balance wheel blade formed of a second material having a second coefficient of thermal expansion different from the first coefficient of thermal expansion, - fastening means , such as screws,
A compound according to Formula I: or a pharmaceutically acceptable salt thereof, wherein A is a divalent linking moiety comprising 1 to 10 carbon atoms in a chain, a ring, or a combination thereof, wherein at least one carbon atom is optionally replaced with O, -NR 9 -, or -C(O)-; B is CR 3 R 4 ; X is selected from the group consisting of: n is from 1 to 8; Y is independently CH or N; R 1 is hydrogen or a (C 1 -C 6 ) alkyl group; R 2 , R 5 , and R 8 are independently hydrogen or a carboxylic acid protecting group; R 3 and R 4 are independently hydrogen, a (C 1 -C 10 ) alkyl group, an ethylene glycolyl group, or a propylene glycolyl group; R 6 is hydrogen or a (C 1 -C 6 ) acyl group; and R 7 is the α-position substituent of an amino acid, and R 9 is independently selected from the group consisting of H, alkyl, cycloalkyl, heterocycloalkyl, aryl, alkylaryl, arylalkyl and heteroaryl. A is a divalent linking moiety comprising 1 to 10 carbon atoms in a chain, a ring, or a combination thereof, wherein at least one carbon atom is optionally replaced with O, -NR 9 -, or -C(O)-; B is CR 3 R 4 ; X is selected from the group consisting of: n is from 1 to 8; Y is independently CH or N; R 1 is hydrogen or a (C 1 -C 6 ) alkyl group; R 2 , R 5 , and R 8 are independently hydrogen or a carboxylic acid protecting group; R 3 and R 4 are independently hydrogen, a (C 1 -C 10 ) alkyl group, an ethylene glycolyl group, or a propylene glycolyl group; R 6 is hydrogen or a (C 1 -C 6 ) acyl group; and R 7 is the α-position substituent of an amino acid, and R 9 is independently selected from the group consisting of H, alkyl, cycloalkyl, heterocycloalkyl, aryl, alkylaryl, arylalkyl and heteroaryl.
A bearing comprising: a generally cylindrical sidewall comprising an electrically conductive substrate , and an electrically non-conductive or low-conductive sliding layer coupled to the substrate , wherein the generally cylindrical sidewall comprises a plurality of protrusions protruding radially inward or radially outward from a bore defining a central axis , wherein at least one protrusion has a spring rate of not greater than 30 kN/mm, wherein the thickness of the sliding layer at a circumferential base of the protrusion is at least 2 times greater than the thickness of the sliding layer at the apex of the protrusion , and wherein at least one protrusion is adapted to contact an opposing component such that upon contact between the bearing and the opposing component, a void area is created that is free of the sliding layer so as to provide electrical conductivity between the bearing and the opposing component. a generally cylindrical sidewall comprising an electrically conductive substrate , and an electrically non-conductive or low-conductive sliding layer coupled to the substrate , wherein the generally cylindrical sidewall comprises a plurality of protrusions protruding radially inward or radially outward from a bore defining a central axis , wherein at least one protrusion has a spring rate of not greater than 30 kN/mm, wherein the thickness of the sliding layer at a circumferential base of the protrusion is at least 2 times greater than the thickness of the sliding layer at the apex of the protrusion , and wherein at least one protrusion is adapted to contact an opposing component such that upon contact between the bearing and the opposing component, a void area is created that is free of the sliding layer so as to provide electrical conductivity between the bearing and the opposing component.
An electronic device for an image forming apparatus, the electronic device being capable of acting in a common action mode and a power saving mode, comprising: a plurality of units configured to act in the common action mode (A, B, C, D, E, F); a first AC/DC circuit configured to supply a first direct voltage (V1) to the plurality of units (A, B, C, D, E, F) ; a second AC/DC circuit configured to supply a second direct voltage (V2) to a specific one (B, D) of the units which acts in the power saving mode; a switching circuit configured to make a switching so that the first direct voltage is supplied to the plurality of units in the common action mode and the second direct voltage is supplied to specific unit in the power saving mode; a mechanical system (G) for conveying a sheet configured to receive, independently of said switching circuit , the first direct voltage (V1) whenever the first AC/DC circuit acts, and a control unit configured to distinguish between the common action mode and the power saving mode and control the switching circuit, wherein the mechanical system (G) is configured to receive the first direct voltage (V1) whenever the first AC/DC circuit delivers the first direct voltage. a plurality of units configured to act in the common action mode (A, B, C, D, E, F); a first AC/DC circuit configured to supply a first direct voltage (V1) to the plurality of units (A, B, C, D, E, F) ; a second AC/DC circuit configured to supply a second direct voltage (V2) to a specific one (B, D) of the units which acts in the power saving mode; a switching circuit configured to make a switching so that the first direct voltage is supplied to the plurality of units in the common action mode and the second direct voltage is supplied to specific unit in the power saving mode; a mechanical system (G) for conveying a sheet configured to receive, independently of said switching circuit , the first direct voltage (V1) whenever the first AC/DC circuit acts, and a control unit configured to distinguish between the common action mode and the power saving mode and control the switching circuit, wherein the mechanical system (G) is configured to receive the first direct voltage (V1) whenever the first AC/DC circuit delivers the first direct voltage.
A surgical tool, comprising: a surgical tool head comprising a first jaw and a second jaw ; and a flexible shaft connected with the surgical tool head and comprising: a flexible core connected with the first jaw ; and a flexible sleeve connected with the second jaw , the flexible sleeve comprising an inner cavity, and the flexible core being slidably disposed in the inner cavity and operable to slide relatively to the flexible sleeve to drive relative opening and closing of the first jaw and the second jaw ; wherein the flexible core comprises: an elastic metal wire ; a first covering tube wrapping the elastic metal wire ; wherein the flexible sleeve comprises: a metal tube forming the inner cavity; a second covering tube wrapping the metal tube and fixed relatively to the metal tube ; wherein the first jaw comprises an electrode connected with the elastic metal wire , and the second jaw comprises an electrode connected with the metal tube , characterised in that the first covering tube is fixed relatively to the elastic metal wire . a surgical tool head comprising a first jaw and a second jaw ; and a flexible shaft connected with the surgical tool head and comprising: a flexible core connected with the first jaw ; and a flexible sleeve connected with the second jaw , the flexible sleeve comprising an inner cavity, and the flexible core being slidably disposed in the inner cavity and operable to slide relatively to the flexible sleeve to drive relative opening and closing of the first jaw and the second jaw ; a flexible core connected with the first jaw ; and a flexible sleeve connected with the second jaw , the flexible sleeve comprising an inner cavity, and the flexible core being slidably disposed in the inner cavity and operable to slide relatively to the flexible sleeve to drive relative opening and closing of the first jaw and the second jaw ; wherein the flexible core comprises: an elastic metal wire ; a first covering tube wrapping the elastic metal wire ; wherein the flexible sleeve comprises: a metal tube forming the inner cavity; a second covering tube wrapping the metal tube and fixed relatively to the metal tube ; wherein the first jaw comprises an electrode connected with the elastic metal wire , and the second jaw comprises an electrode connected with the metal tube ,
A gas turbine engine comprising: an engine core comprising a turbine , a compressor , and a core shaft connecting the turbine to the compressor; a fan located upstream of the engine core, wherein: the fan comprises a plurality of fan blades, each fan blade comprising an aerofoil portion having a leading edge extending from a root to a tip, the radial distance between the leading edge at the root and the leading edge at the tip defining a blade span, characterized in that a maximum thickness of the cross-sections through the aerofoil portion from a suction surface of the aerofoil portion to a pressure surface of the aerofoil portion perpendicular to the camber line decreases along the blade span from the root to the tip wherein there is a discontinuity in the rate of decrease of maximum thickness between a radius at 30% and 70% of the blade span from the aerofoil root and wherein the rate of decrease of the maximum thickness before the discontinuity is less than the rate of decrease of the maximum thickness after the discontinuity; and the diameter of the fan is at least 250 cm. an engine core comprising a turbine , a compressor , and a core shaft connecting the turbine to the compressor; a fan located upstream of the engine core, wherein: the fan comprises a plurality of fan blades, each fan blade comprising an aerofoil portion having a leading edge extending from a root to a tip, the radial distance between the leading edge at the root and the leading edge at the tip defining a blade span, characterized in that a maximum thickness of the cross-sections through the aerofoil portion from a suction surface of the aerofoil portion to a pressure surface of the aerofoil portion perpendicular to the camber line decreases along the blade span from the root to the tip wherein there is a discontinuity in the rate of decrease of maximum thickness between a radius at 30% and 70% of the blade span from the aerofoil root and wherein the rate of decrease of the maximum thickness before the discontinuity is less than the rate of decrease of the maximum thickness after the discontinuity; and the diameter of the fan is at least 250 cm. the fan comprises a plurality of fan blades, each fan blade comprising an aerofoil portion having a leading edge extending from a root to a tip, the radial distance between the leading edge at the root and the leading edge at the tip defining a blade span, characterized in that a maximum thickness of the cross-sections through the aerofoil portion from a suction surface of the aerofoil portion to a pressure surface of the aerofoil portion perpendicular to the camber line decreases along the blade span from the root to the tip wherein there is a discontinuity in the rate of decrease of maximum thickness between a radius at 30% and 70% of the blade span from the aerofoil root and wherein the rate of decrease of the maximum thickness before the discontinuity is less than the rate of decrease of the maximum thickness after the discontinuity; and the diameter of the fan is at least 250 cm.
A fill level measuring device , comprising: at least two functional units , which are a communication circuit or communication circuitry of the fill level measuring device , a sensor circuit or sensor electronics of the fill level measuring device , and/or a measuring circuit or measuring electronics of the fill level measuring device ; wherein the at least two functional units are connected in series with respect to an external power supply of the fill level measuring device ; a first energy store , designed as an energy buffer for compensating for fluctuating energy consumption of the second functional unit; a first decoupling circuit , which is arranged between a first functional unit and a second functional unit of the at least two functional units and is designed for demand-oriented distribution of the available energy from the external energy supply between the first functional unit and the second functional unit, so that initially the first functional unit is supplied with energy for its operation and, if the available amount of energy is correspondingly small, the second functional unit and/or the first energy store are temporarily not supplied with energy or are supplied with energy only to a small extent. at least two functional units , which are a communication circuit or communication circuitry of the fill level measuring device , a sensor circuit or sensor electronics of the fill level measuring device , and/or a measuring circuit or measuring electronics of the fill level measuring device ; wherein the at least two functional units are connected in series with respect to an external power supply of the fill level measuring device ; a first energy store , designed as an energy buffer for compensating for fluctuating energy consumption of the second functional unit; a first decoupling circuit , which is arranged between a first functional unit and a second functional unit of the at least two functional units and is designed for demand-oriented distribution of the available energy from the external energy supply between the first functional unit and the second functional unit, so that initially the first functional unit is supplied with energy for its operation and, if the available amount of energy is correspondingly small, the second functional unit and/or the first energy store are temporarily not supplied with energy or are supplied with energy only to a small extent.