mhurhangee/patent-ind-claim-en huggingface dataset:
An air compression device for use in driving a device such as a vehicle brake device or a door opening/closing device, comprising: a scroll compressor driven by an electric motor ; a discharge flow channel connected to a discharge portion of the compressor and to a check valve ; a downstream flow channel connected to the check valve and to an air tank , a release flow channel disposed to be connectable to the discharge flow channel ; and an operation control unit configured to perform a release operation of releasing a part or all of compressed air remaining in the discharge flow channel through the release flow channel when the operation control unit controls to stop the compressor . a scroll compressor driven by an electric motor ; a discharge flow channel connected to a discharge portion of the compressor and to a check valve ; a downstream flow channel connected to the check valve and to an air tank , a release flow channel disposed to be connectable to the discharge flow channel ; and an operation control unit configured to perform a release operation of releasing a part or all of compressed air remaining in the discharge flow channel through the release flow channel when the operation control unit controls to stop the compressor .
A method for improving unlocking speed, wherein the method is applicable to a mobile terminal in a screen-off state and comprises: receiving (S301, S401) from a user an operation of pressing a fingerprint module; and performing a first thread for matching a fingerprint password with a preset password when the fingerprint module is touched, the first thread comprising: acquiring (S402) a fingerprint image, matching (S403) the fingerprint image acquired with a preset fingerprint image, and unlocking (S404) after the fingerprint image acquired is matched; performing a second thread for lighting up a display screen when an intensity value of pressing reaches a preset intensity value, the second thread comprising: generating (S405) a screen-on interruption; and unlocking the display screen of the mobile terminal and lighting up (S406) the display screen of the mobile terminal by invoking light sensation data and color temperature data used the last time the display screen of the mobile terminal was lit up, after the fingerprint image acquired is matched and the screen-on interruption is generated; wherein a moment that the user touches the fingerprint module of the mobile terminal with a finger is considered as a start time of unlocking, and a moment that the display screen is lit up is considered as an end time of the unlocking. receiving (S301, S401) from a user an operation of pressing a fingerprint module; and performing a first thread for matching a fingerprint password with a preset password when the fingerprint module is touched, the first thread comprising: acquiring (S402) a fingerprint image, matching (S403) the fingerprint image acquired with a preset fingerprint image, and unlocking (S404) after the fingerprint image acquired is matched; acquiring (S402) a fingerprint image, matching (S403) the fingerprint image acquired with a preset fingerprint image, and unlocking (S404) after the fingerprint image acquired is matched; performing a second thread for lighting up a display screen when an intensity value of pressing reaches a preset intensity value, the second thread comprising: generating (S405) a screen-on interruption; and unlocking the display screen of the mobile terminal and lighting up (S406) the display screen of the mobile terminal by invoking light sensation data and color temperature data used the last time the display screen of the mobile terminal was lit up, after the fingerprint image acquired is matched and the screen-on interruption is generated; wherein a moment that the user touches the fingerprint module of the mobile terminal with a finger is considered as a start time of unlocking, and a moment that the display screen is lit up is considered as an end time of the unlocking.
A polycarbonate composition comprising a high-heat copolycarbonate derived from a high-heat bisphenol monomer and optionally a low heat bisphenol A monomer, wherein the high-heat bisphenol monomer is a monomer where the corresponding homopolycarbonate of the monomer has a glass transition temperature of 155 °C or higher as determined per ASTM D3418 with a 20 °C per minute heating rate; a poly(carbonate-siloxane) having 30-70 wt% siloxane content, based on the total weight of the poly(carbonate-siloxane); a homopolycarbonate; a flame retardant, wherein the flame retardant is not a phosphorous-containing flame retardant; and optionally, an additive composition, wherein a molded sample having a thickness of 3.2 millimeters has a notched Izod Impact of at least 300 joules per meter at -30 °C according to ASTM D256. a poly(carbonate-siloxane) having 30-70 wt% siloxane content, based on the total weight of the poly(carbonate-siloxane); a homopolycarbonate; a flame retardant, wherein the flame retardant is not a phosphorous-containing flame retardant; and optionally, an additive composition, wherein a molded sample having a thickness of 3.2 millimeters has a notched Izod Impact of at least 300 joules per meter at -30 °C according to ASTM D256.
A method for a preventive functional check of at least one electromagnetic spring-loaded brake , which comprises at least - one coil , and - an armature disc; - a coil support with compression springs distributed thereon; - a control module; and - a monitoring module having at least: - a semiconductor element; - an ammeter; - a voltmeter; characterized by the following steps: (i) controlling the spring-loaded brake using a voltage (U) by means of the control module; (ii) measuring the status variables current (I) and voltage (U) at the electromagnetic spring-loaded brake by means of the monitoring module; (iii) determining a parameter (T; F) during the control of the electromagnetic spring-loaded brake by the monitoring module; (iv) summing the parameter (T; F) over a range (a), which extends from the starting point of the control up to a point (W) at which the armature disc begins to move; (v) detecting a current value (I) at the point (W) at which the movement of the armature disc begins; (vi) summing the parameter (T; F) over a range (b), which extends from the point of the control , when the current (I) reaches the value from step (v) again, up to the point at which a constant current (I) is achieved; (vii) calculating a ratio (X) of the sum of the parameter over the region (a) to the sum of the parameter over the ranges (a) and (b); (viii) outputting a status signal when the value of the ratio (X) reaches or exceeds a predetermined value (Y). - one coil , and - an armature disc; - a coil support with compression springs distributed thereon; - a control module; and - a monitoring module having at least: - a semiconductor element; - an ammeter; - a voltmeter; (i) controlling the spring-loaded brake using a voltage (U) by means of the control module; (ii) measuring the status variables current (I) and voltage (U) at the electromagnetic spring-loaded brake by means of the monitoring module; (iii) determining a parameter (T; F) during the control of the electromagnetic spring-loaded brake by the monitoring module; (iv) summing the parameter (T; F) over a range (a), which extends from the starting point of the control up to a point (W) at which the armature disc begins to move; (v) detecting a current value (I) at the point (W) at which the movement of the armature disc begins; (vi) summing the parameter (T; F) over a range (b), which extends from the point of the control , when the current (I) reaches the value from step (v) again, up to the point at which a constant current (I) is achieved; (vii) calculating a ratio (X) of the sum of the parameter over the region (a) to the sum of the parameter over the ranges (a) and (b); (viii) outputting a status signal when the value of the ratio (X) reaches or exceeds a predetermined value (Y).
A cover for a colonoscope shaft , the cover comprising an elongate tubular member and being arranged for application over the colonoscope shaft with the cover extending along at least a part of the length of a distal end of the shaft, the tubular member comprising an inner surface at least a part of which grips the shaft and holds the cover in place and an outer surface comprising a plurality of spaced projecting elements having a tip and a base that are movable between; a) a resting position to a position wherein the tip of the projecting elements are substantially parallel to a longitudinal axis of the colonoscope and; b) to a position that is at an angle approximately perpendicular to the longitudinal axis of the colonoscope shaft so that the said projecting elements are fanned out to contact with and provide support for and to dilate a lumen wall of a body passage into which the colonoscope has been inserted; wherein the projecting elements are arranged as at least one ring running circumferentially around the cover , characterized in that the projecting elements are in the form of hairs or bristles having a diameter of between 0.5 to 3.0 mm and a length of between 4 to 20 mm from base to tip, and wherein each ring of the cover comprises between 5 to 10 projecting elements . a) a resting position to a position wherein the tip of the projecting elements are substantially parallel to a longitudinal axis of the colonoscope and; b) to a position that is at an angle approximately perpendicular to the longitudinal axis of the colonoscope shaft so that the said projecting elements are fanned out to contact with and provide support for and to dilate a lumen wall of a body passage into which the colonoscope has been inserted; wherein the projecting elements are arranged as at least one ring running circumferentially around the cover , characterized in that the projecting elements are in the form of hairs or bristles having a diameter of between 0.5 to 3.0 mm and a length of between 4 to 20 mm from base to tip, and wherein each ring of the cover comprises between 5 to 10 projecting elements .
A liquid circulation device, comprising: a supply unit (I) that forms a flow path supplying a liquid from a reservoir unit ; a collection unit (O) that forms a flow path collecting the liquid to the reservoir unit ; and N number of the connection units (B) provided respectively corresponding to N number (N means a natural number of three or more) of ejection units ejecting the liquid forming a flow path connecting the supply unit (I) and the collection unit (O) via the ejection units , wherein with regard to each of N number of the connection units, a connection order of the connection units (B) with respect to the supply unit, which is counted from upstream in a flow direction of the liquid in the supply unit (I) coincides with a connection order of the connection units (B) with respect to the collection unit (O), which is counted from upstream in the flow direction of the liquid in the collection unit (O), characterized in that the supply unit (I) and the collection unit (O) mutually have an identical, and constant flow path cross-sectional area, and N number of the connection units (B) all have the identical flow path cross-sectional area, and wherein intervals between the connection points each with the connection units (B) in the supply unit are all identical to intervals between the connection points each with the connection units (B) in the collection unit . a supply unit (I) that forms a flow path supplying a liquid from a reservoir unit ; a collection unit (O) that forms a flow path collecting the liquid to the reservoir unit ; and N number of the connection units (B) provided respectively corresponding to N number (N means a natural number of three or more) of ejection units ejecting the liquid forming a flow path connecting the supply unit (I) and the collection unit (O) via the ejection units , wherein with regard to each of N number of the connection units, a connection order of the connection units (B) with respect to the supply unit, which is counted from upstream in a flow direction of the liquid in the supply unit (I) coincides with a connection order of the connection units (B) with respect to the collection unit (O), which is counted from upstream in the flow direction of the liquid in the collection unit (O), characterized in that the supply unit (I) and the collection unit (O) mutually have an identical, and constant flow path cross-sectional area, and N number of the connection units (B) all have the identical flow path cross-sectional area, and wherein intervals between the connection points each with the connection units (B) in the supply unit are all identical to intervals between the connection points each with the connection units (B) in the collection unit .
A method of producing coated substrates in which method a) at least one region of a surface of a porous substrate is provided with at least one surface sealing layer; b) at least one aqueous suspension is applied to the at least one surface sealing layer, with the at least one aqueous suspension comprising at least one refractory metal carbide and water; and c) the substrate is subjected to a sintering process after step b), wherein the porous substrate comprises or consists of a material that is selected from the group consisting of graphite, C/SiC fiber composite materials, SiC/SiC fiber composite materials, carbidic ceramics, nitridic ceramics, oxidic ceramics, and mixtures thereof, and wherein the at least one surface sealing layer is selected from the group consisting of pyrolytic carbon layers, silicon layers, zirconium boride layers, tantalum nitride layers, silicon carbide layers, silicon nitride layers, and combinations thereof. a) at least one region of a surface of a porous substrate is provided with at least one surface sealing layer; b) at least one aqueous suspension is applied to the at least one surface sealing layer, with the at least one aqueous suspension comprising at least one refractory metal carbide and water; and c) the substrate is subjected to a sintering process after step b), wherein the porous substrate comprises or consists of a material that is selected from the group consisting of graphite, C/SiC fiber composite materials, SiC/SiC fiber composite materials, carbidic ceramics, nitridic ceramics, oxidic ceramics, and mixtures thereof, and wherein the at least one surface sealing layer is selected from the group consisting of pyrolytic carbon layers, silicon layers, zirconium boride layers, tantalum nitride layers, silicon carbide layers, silicon nitride layers, and combinations thereof.
An on-board network system comprising: for each of a plurality of zones (Z) defined in a vehicle , a power distributor connected to an on-board battery ; a plurality of electronic devices (D) supplied with power from the power distributor via a common power supply line (PC); and a zone control unit configured to control the plurality of electronic devices (D) ; wherein the electronic devices (D) that are turned on and off at a common timing in each of the zones (Z) are collectively connected to the body ground via a single individual relay (RL), and the individual relay (RL) individually turns on and off connection between the electronic devices (D) which are turned on and off at the common timing and the body ground based on a control signal from the zone control unit .
An integrated circuit structure, comprising: a first silicon fin having a longest dimension along a first direction ; a second silicon fin having a longest dimension along the first direction ; an insulator material between the first silicon fin and the second silicon fin ; a gate line over the first silicon fin and over the second silicon fin along a second direction, the second direction orthogonal to the first direction , the gate line having a first side and a second side , wherein the gate line has a discontinuity over the insulator material , the discontinuity filled by a dielectric plug ; a first trench contact over the first silicon fin and over the second silicon fin along the second direction at the first side of the gate line , the first trench contact continuous over the insulator material at a location laterally adjacent to the dielectric plug ; and a first dielectric spacer laterally between the first trench contact and the first side of the gate line , the first dielectric spacer continuous along the first side of the gate line and the dielectric plug , and the first dielectric spacer having a width laterally adjacent to the dielectric plug thinner than a width laterally adjacent to the first side of the gate line , wherein the gate line comprises a high-k gate dielectric layer , a gate electrode on the high-k gate dielectric layer and between sidewalls of the high-k gate dielectric layer , and a dielectric cap layer on top of the gate electrode and the sidewalls of the high-k gate dielectric layer . a first silicon fin having a longest dimension along a first direction ; a second silicon fin having a longest dimension along the first direction ; an insulator material between the first silicon fin and the second silicon fin ; a gate line over the first silicon fin and over the second silicon fin along a second direction, the second direction orthogonal to the first direction , the gate line having a first side and a second side , wherein the gate line has a discontinuity over the insulator material , the discontinuity filled by a dielectric plug ; a first trench contact over the first silicon fin and over the second silicon fin along the second direction at the first side of the gate line , the first trench contact continuous over the insulator material at a location laterally adjacent to the dielectric plug ; and a first dielectric spacer laterally between the first trench contact and the first side of the gate line , the first dielectric spacer continuous along the first side of the gate line and the dielectric plug , and the first dielectric spacer having a width laterally adjacent to the dielectric plug thinner than a width laterally adjacent to the first side of the gate line , wherein the gate line comprises a high-k gate dielectric layer , a gate electrode on the high-k gate dielectric layer and between sidewalls of the high-k gate dielectric layer , and a dielectric cap layer on top of the gate electrode and the sidewalls of the high-k gate dielectric layer .
An apparatus for adjusting flow speed of a fluid, comprising: i) an apparatus for measuring fluid speed including: - a channel having a passage formed therein for holding a fluid flowing therethrough; - a first light source and a second light source located in any one region of an upper part and a lower part of the channel; - a sensor installed in an opposite region of the region where the first light source and the second light source are located with respect to the channel , the sensor configured to receive light emitted from the first light source and the second light source; and - a speed calculation unit configured to calculate a speed of the fluid by using a time point at which an intensity of light received at the sensor changes, ii) an adjustment unit connected to the channel and configured to adjust a flow speed of the fluid based on the calculated speed of the fluid, characterized in that the sensor is sized to receive light from both the first and the second light sources, and wherein the first and second light sources are adapted to emit light not parallel with each other, such that the size of the sensor is smaller than would be required in case of parallel beams. i) an apparatus for measuring fluid speed including: - a channel having a passage formed therein for holding a fluid flowing therethrough; - a first light source and a second light source located in any one region of an upper part and a lower part of the channel; - a sensor installed in an opposite region of the region where the first light source and the second light source are located with respect to the channel , the sensor configured to receive light emitted from the first light source and the second light source; and - a speed calculation unit configured to calculate a speed of the fluid by using a time point at which an intensity of light received at the sensor changes, - a channel having a passage formed therein for holding a fluid flowing therethrough; - a first light source and a second light source located in any one region of an upper part and a lower part of the channel; - a sensor installed in an opposite region of the region where the first light source and the second light source are located with respect to the channel , the sensor configured to receive light emitted from the first light source and the second light source; and - a speed calculation unit configured to calculate a speed of the fluid by using a time point at which an intensity of light received at the sensor changes, ii) an adjustment unit connected to the channel and configured to adjust a flow speed of the fluid based on the calculated speed of the fluid,
Heating and air-conditioning system comprising a first heating circuit , having at least one pump , for heating and comprising a cooling circuit having at least one pump , and comprising a refrigerant circuit , which at least comprises a compressor , an expansion member , a high-pressure-side first heat exchanger and a low-pressure-side second heat exchanger which is or can be activated at least for air-conditioning operation, wherein the first heat exchanger is also connected to the first heating circuit and the second heat exchanger is also connected to the cooling circuit , and, in the first heat exchanger , refrigerant of the refrigerant circuit is or can be thermally coupled to heating liquid of the first heating circuit by a heat exchange connection directly and/or via an optionally first latent heat storage medium and, in the second heat exchanger , refrigerant of the refrigerant circuit and cooling liquid of the cooling circuit is or can be thermally coupled by a heat exchange connection directly and/or via an optionally second latent heat storage medium , wherein the heating and air-conditioning system is designed for a vehicle and the heating and air-conditioning system comprises a second heating circuit , having at least one pump , for heating, and the refrigerant circuit comprises a high-pressure-side third heat exchanger arranged downstream of the first heat exchanger in the intended refrigerant flow direction, and the third heat exchanger is also connected to the second heating circuit , wherein, in the third heat exchanger , refrigerant of the refrigerant circuit is or can be thermally coupled to heating liquid of the second heating circuit by a heat exchange connection directly and/or via an optionally third latent heat storage medium , characterised in that the refrigerant circuit comprises an external heat exchanger that can be operated as an evaporator in heat pump operation and is arranged downstream of the third heat exchanger in the refrigerant flow direction. and the heating and air-conditioning system comprises a second heating circuit , having at least one pump , for heating, and the refrigerant circuit comprises a high-pressure-side third heat exchanger arranged downstream of the first heat exchanger in the intended refrigerant flow direction, and the third heat exchanger is also connected to the second heating circuit , wherein, in the third heat exchanger , refrigerant of the refrigerant circuit is or can be thermally coupled to heating liquid of the second heating circuit by a heat exchange connection directly and/or via an optionally third latent heat storage medium , characterised in that the refrigerant circuit comprises an external heat exchanger that can be operated as an evaporator in heat pump operation and is arranged downstream of the third heat exchanger in the refrigerant flow direction.