mhurhangee/patent-ind-claim-en huggingface dataset:
An energy efficient energy generation and consumption system , comprising an energy supply installation ; an energy consuming device for electrical heating, preferably with an energy storage capability; whereby the system further comprises a power supply control device adapted to determine whether it is efficient to supply the generated energy either to the grid or for direct use otherwise by said energy consuming device; and an electrical heating arrangement comprising: means for providing electrical power; a to be electrically powered device for electrical heating; a first electronic control device adapted to determine the achieved temperature and capable to act on at least a part of said means for providing electrical power in accordance therewith; a second electronic control device adapted to determine energy efficient powering conditions and of acting on at least part of said means for providing electrical power in accordance therewith; whereby in this electrical heating arrangement at least part of said means for providing electrical power being connected to said first electronic control device , which provides at least one first controlled power line ; said at least one first controlled power line being connected to said second electronic control device , which provides at least one second controlled power line ; and said at least one second controlled power line being connected to said energy consuming device , wherein said second electronic control device being part of said power supply control device , and said means for providing electrical power being connected to said energy supply installation or to the grid via said power supply control device .
An engine nacelle having a flow control system mounted thereon, the system comprising: a plurality of flow control devices each having a body , a curved, blunt nose and a trailing edge ; and a plurality of actuators , each actuator coupled to the body of at least one associated flow control device and configured to rotate the body about a leading edge of an inlet of the nacelle from a retracted position in which the nose of the associated flow control device lies aft of the leading edge of the inlet of the nacelle to an extended position in which the nose lies forward of said leading edge. a plurality of flow control devices each having a body , a curved, blunt nose and a trailing edge ; and a plurality of actuators , each actuator coupled to the body of at least one associated flow control device and configured to rotate the body about a leading edge of an inlet of the nacelle from a retracted position in which the nose of the associated flow control device lies aft of the leading edge of the inlet of the nacelle to an extended position in which the nose lies forward of said leading edge.
A valve for a liner bag comprising: a valve seat having first and second ends with an opening extending therethrough; a flange extending outwardly from the second end of the valve seat ; a butterfly valve within the opening of the valve seat and moveable between an open and closed position; an operating lever for moving the butterfly valve between the open and closed position; a protective cage coupled to the flange for protecting the opening of the valve seat , and comprising a plurality of sides extending outwardly from the flange, with each side including at least one opening extending therethrough, and a grid supported by the plurality of sides , with the grid including a plurality of openings; and a cap screw-threadingly engaged with the valve seat at an end thereof opposite to the end having the flange . a valve seat having first and second ends with an opening extending therethrough; a flange extending outwardly from the second end of the valve seat ; a butterfly valve within the opening of the valve seat and moveable between an open and closed position; an operating lever for moving the butterfly valve between the open and closed position; a protective cage coupled to the flange for protecting the opening of the valve seat , and comprising a plurality of sides extending outwardly from the flange, with each side including at least one opening extending therethrough, and a grid supported by the plurality of sides , with the grid including a plurality of openings; and a plurality of sides extending outwardly from the flange, with each side including at least one opening extending therethrough, and a grid supported by the plurality of sides , with the grid including a plurality of openings; and a cap screw-threadingly engaged with the valve seat at an end thereof opposite to the end having the flange .
A cure in place liquid comprising: 30-70 weight percent of a bodying component comprising an acrylic copolymer having a Mw of 15,000-100,000, wherein the molecular weight Mw is determined by gel permeation chromatography relative to polystyrene standards; 7-70 wt% of at least one structural diluent, wherein the structural diluent is selected from the group consisting of trimethylolpropane triacrylate of the following formula , tripropyleneglycol diacrylate of the following formula , ethoxylated bisphenol A diacrylate of the following formula in which n+m=3, ethoxylated trimetylolpropane triacrylate of the following formula , bisphenol A diglycidyl ether diacrylate of the following formula , 1,2-cyclic ethers, 1,3-cyclic ethers and 1,4-cyclic ethers; 7-70 wt% of at least one radical addition diluent, wherein the radical addition diluent is selected from the group consisting of alkoxylated THF acrylate of the following formula , hydroxyethyl acrylate of the following formula , phenoxyethylacrylate of the following formula , tetrahydrofurfuryl acrylate of the following formula , and urethane acrylates of less than 2,000 daltons, 2-10 wt% of at least one curative selected from the group consisting of thermal catalysts, base catalysts, photoinitiators, radical photoinitiators and UV radical photoinitiators; 0-1% wt% of antioxidant; and 0-10 wt% stabilizer/process aid which is an azodioxide. 30-70 weight percent of a bodying component comprising an acrylic copolymer having a Mw of 15,000-100,000, wherein the molecular weight Mw is determined by gel permeation chromatography relative to polystyrene standards; 7-70 wt% of at least one structural diluent, wherein the structural diluent is selected from the group consisting of trimethylolpropane triacrylate of the following formula , tripropyleneglycol diacrylate of the following formula , ethoxylated bisphenol A diacrylate of the following formula in which n+m=3, ethoxylated trimetylolpropane triacrylate of the following formula , bisphenol A diglycidyl ether diacrylate of the following formula , 1,2-cyclic ethers, 1,3-cyclic ethers and 1,4-cyclic ethers; 7-70 wt% of at least one radical addition diluent, wherein the radical addition diluent is selected from the group consisting of alkoxylated THF acrylate of the following formula , hydroxyethyl acrylate of the following formula , phenoxyethylacrylate of the following formula , tetrahydrofurfuryl acrylate of the following formula , and urethane acrylates of less than 2,000 daltons, 2-10 wt% of at least one curative selected from the group consisting of thermal catalysts, base catalysts, photoinitiators, radical photoinitiators and UV radical photoinitiators; 0-1% wt% of antioxidant; and 0-10 wt% stabilizer/process aid which is an azodioxide.
A component evaluation method, comprising: a measurement step, in a component mounting machine , for measuring electrical characteristics of multiple selected components, including a component positioned in the middle among many components held side by side in a longitudinal direction on a component tape , the component positioned in the middle being a component, among the many components held on a new component tape, excluding the component at the leading end of the component tape and a component at the tail of the component tape, wherein a number of the multiple selected components is less than a number of the many components held on the component tape , by using an electrical characteristic measurement device that is provided in the component mounting machine , when a mounting work is performed such that a component, being supplied by the component tape with holding the many components side by side in the longitudinal direction, is picked up and carried so as to be mounted on a circuit board; and a processing step for performing statistical processing on measured values of the electrical characteristics of the multiple selected components measured in the measurement step. a measurement step, in a component mounting machine , for measuring electrical characteristics of multiple selected components, including a component positioned in the middle among many components held side by side in a longitudinal direction on a component tape , the component positioned in the middle being a component, among the many components held on a new component tape, excluding the component at the leading end of the component tape and a component at the tail of the component tape, wherein a number of the multiple selected components is less than a number of the many components held on the component tape , by using an electrical characteristic measurement device that is provided in the component mounting machine , when a mounting work is performed such that a component, being supplied by the component tape with holding the many components side by side in the longitudinal direction, is picked up and carried so as to be mounted on a circuit board; and a processing step for performing statistical processing on measured values of the electrical characteristics of the multiple selected components measured in the measurement step.
Temperature-control device for individual battery cells , assembled together to form a module , having a main body , which has passage openings lying opposite each other in pairs in relation to a respective joining axis in order to surround the battery cells circumferentially, and forms a flow channel, extending transversely with respect to the joining axes, for a temperature-control fluid, wherein the main body includes at least one temperature-control fluid connection extending in the direction of the joining axes, characterised in that the main body comprises a flow divider lying opposite the temperature-control fluid connection in the direction of the joining axes, said flow divider forming flow-impact surfaces for dividing the temperature-control fluid flow into individual partial flows and for causing a substantially tangential flow against the adjoining battery cells .
A femoral head implant , comprising: a monolithic composite body having: a first region comprising a first metal alloy and including a bore (no) disposed therein, the bore (no) being tapered from an exterior surface of the first region inward,; a second region comprising a second metal alloy; and a transition region disposed between the first region and the second region , wherein the transition region comprises a sintered mixture of the first metal alloy and the second metal alloy characterised in that a bottom surface of the bore has a counter bore disposed therein, the geometry of the counter bore determined by the stress state of the implant and the transition region is disposed at a region of minimum stress, the stress determined by mapping stress using finite element analysis within the monolithic composite body under physiological loading conditions of the implant. a first region comprising a first metal alloy and including a bore (no) disposed therein, the bore (no) being tapered from an exterior surface of the first region inward,; a second region comprising a second metal alloy; and a transition region disposed between the first region and the second region , wherein the transition region comprises a sintered mixture of the first metal alloy and the second metal alloy characterised in that a bottom surface of the bore has a counter bore disposed therein, the geometry of the counter bore determined by the stress state of the implant and the transition region is disposed at a region of minimum stress, the stress determined by mapping stress using finite element analysis within the monolithic composite body under physiological loading conditions of the implant.
A vehicle lamp comprising: a first light source (L) that emits light for low-beam light distribution (LP); a lens arranged in a front side of the first light source (L); a shade that is arranged between the first light source (L) and the lens and forms a cut-offline (CL) of a low-beam light distribution pattern (LP); a reflector that reflects light from the first light source (L) towards the lens ; and a second light source (H) that is arranged between the first light source (L) and the lens and emits light for high-beam additional light distribution (HAP), characterized in that a rear focal point (P) of the lens is located more to a front side than a second focal point (BP) of the reflector which is on a front side of the first light source (L), and a lens optical axis (O) of the lens is inclined forward and obliquely downward with respect to a lamp optical axis (Z) of the lamp on which the rear focal point (P) and the second focal point (BP) are located. a first light source (L) that emits light for low-beam light distribution (LP); a lens arranged in a front side of the first light source (L); a shade that is arranged between the first light source (L) and the lens and forms a cut-offline (CL) of a low-beam light distribution pattern (LP); a reflector that reflects light from the first light source (L) towards the lens ; and a second light source (H) that is arranged between the first light source (L) and the lens and emits light for high-beam additional light distribution (HAP), characterized in that a rear focal point (P) of the lens is located more to a front side than a second focal point (BP) of the reflector which is on a front side of the first light source (L), and a lens optical axis (O) of the lens is inclined forward and obliquely downward with respect to a lamp optical axis (Z) of the lamp on which the rear focal point (P) and the second focal point (BP) are located.
A method for performing wireless communication by a first device, the method comprising: transmitting, on a physical sidelink control channel, PSCCH, to a second device, first sidelink control information, SCI; and transmitting, on a physical sidelink shared channel, PSSCH, to the second device, second SCI, wherein the method further comprises generating modulation symbols for a transmission of the second SCI, wherein a number of the modulation symbols is determined by adding a gamma value to a minimum value among a first value and a second value, wherein the first value is obtained based on multiplying a sum of a number of bits of the second SCI and a number of cyclic redundancy check, CRC, bits for the second SCI by a beta offset value included in the first SCI, wherein the second value is obtained based on an alpha value configured per a resource pool, a number of symbols for transmission of the PSSCH, and a number of resource elements, REs, for the transmission of the second SCI in each symbol, wherein the gamma value is a number of vacant REs in a resource block, RB, to which a last modulation symbol of the second SCI belongs, and wherein the vacant REs excludes one or more REs to which channel state information reference signal, CSI-RS, is mapped. transmitting, on a physical sidelink control channel, PSCCH, to a second device, first sidelink control information, SCI; and transmitting, on a physical sidelink shared channel, PSSCH, to the second device, second SCI, wherein the method further comprises generating modulation symbols for a transmission of the second SCI, wherein a number of the modulation symbols is determined by adding a gamma value to a minimum value among a first value and a second value, wherein the first value is obtained based on multiplying a sum of a number of bits of the second SCI and a number of cyclic redundancy check, CRC, bits for the second SCI by a beta offset value included in the first SCI, wherein the second value is obtained based on an alpha value configured per a resource pool, a number of symbols for transmission of the PSSCH, and a number of resource elements, REs, for the transmission of the second SCI in each symbol, wherein the gamma value is a number of vacant REs in a resource block, RB, to which a last modulation symbol of the second SCI belongs, and wherein the vacant REs excludes one or more REs to which channel state information reference signal, CSI-RS, is mapped.
An apparatus, comprising: a female-connector body comprising at least one mating surface having a first longitudinal end , and a second longitudinal end that is narrower than the first longitudinal end, wherein the mating surface is an inner surface of the female-connector body ; and one or more flexible printed circuit boards coupled to the inner surface of the female-connector body , the printed circuit boards having electrically conductive female-connector terminals such that, in use the female-connector terminals contact a respective male-connector terminal of a complementary male-connector body when the complementary male-connector body is inside the female-connector body, the flexible printed circuit boards having terminations that are linked to the female-connector terminals , characterized in that the mating surface of the female - connector body is conically-shaped, and in that the terminations respectively comprise a first subconnector in galvanic contact with the flexible printed circuit boards and configured to mate with a second subconnector (g6). a female-connector body comprising at least one mating surface having a first longitudinal end , and a second longitudinal end that is narrower than the first longitudinal end, wherein the mating surface is an inner surface of the female-connector body ; and one or more flexible printed circuit boards coupled to the inner surface of the female-connector body , the printed circuit boards having electrically conductive female-connector terminals such that, in use the female-connector terminals contact a respective male-connector terminal of a complementary male-connector body when the complementary male-connector body is inside the female-connector body, the flexible printed circuit boards having terminations that are linked to the female-connector terminals , characterized in that the mating surface of the female - connector body is conically-shaped, and in that the terminations respectively comprise a first subconnector in galvanic contact with the flexible printed circuit boards and configured to mate with a second subconnector (g6).
A light stack comprising: an elongate body having a length, the length extending from a proximal end to a distal end of the elongate body ; a plurality of light emitting diode (LED) arrays adjustably coupled with the elongate body and arranged along the length thereof, wherein each of the plurality of LED arrays is operable to pivot thereby forming an angle relative to the length of the elongate body ; a control module coupled with the plurality of LED arrays, the control module configured to individually transition each of the plurality of LED arrays between a light emitting condition and a non-light emitting condition; and a plurality of proximity sensors coupled with the control module and arranged along the length of the elongate body , each of the plurality of proximity sensors is configured to register an object within a predetermined distance, wherein the control module is operable to transition each of the plurality of LED arrays based on a respective proximity sensor of the plurality of proximity sensors registering an object. an elongate body having a length, the length extending from a proximal end to a distal end of the elongate body ; a plurality of light emitting diode (LED) arrays adjustably coupled with the elongate body and arranged along the length thereof, wherein each of the plurality of LED arrays is operable to pivot thereby forming an angle relative to the length of the elongate body ; a control module coupled with the plurality of LED arrays, the control module configured to individually transition each of the plurality of LED arrays between a light emitting condition and a non-light emitting condition; and a plurality of proximity sensors coupled with the control module and arranged along the length of the elongate body , each of the plurality of proximity sensors is configured to register an object within a predetermined distance, wherein the control module is operable to transition each of the plurality of LED arrays based on a respective proximity sensor of the plurality of proximity sensors registering an object.
An aerosol-generating device for heating an aerosol-forming substrate that is capable to form an inhalable aerosol when heated, the device comprising: - a cavity for removably receiving at least a portion of an aerosol-generating article , comprising the aerosol-forming substrate to be heated; - an electrical heating arrangement comprising an electronic circuitry and a heating element operatively coupled to the electronic circuitry for heating the aerosol-forming substrate when the aerosol-generating article is received in the cavity ; characterized in that the device comprises a controller comprising a temperature sensor configured to output a signal indicative of the temperature or a temperature increase of at least one portion of the electronic circuitry during operation of the heating arrangement , wherein the controller is configured to detect the presence, absence, or displacement of the article in the cavity in response to the signal indicating that the temperature or the temperature increase has breached a predefined temperature threshold or a predefined temperature increase threshold, respectively. - a cavity for removably receiving at least a portion of an aerosol-generating article , comprising the aerosol-forming substrate to be heated; - an electrical heating arrangement comprising an electronic circuitry and a heating element operatively coupled to the electronic circuitry for heating the aerosol-forming substrate when the aerosol-generating article is received in the cavity ;
A process for decreasing the concentration of NO x nitrogen oxides in residual gas which is obtained during shutdown and/or start-up of a plant for preparing nitric acid, where the process comprises the following steps: (a) regulation of the temperature of the residual gas during shutdown and/or start-up of the plant for preparing nitric acid by means of a temperature regulating apparatus; and (b) treatment of the residual gas which has been temperature-regulated in step (a) in a residual gas purification plant , where the temperature regulating apparatus is a heat exchanger or a heat store , characterized in that the residual gas is at least partly conveyed in a circuit and in this circuit flows through the temperature regulating apparatus and the residual gas purification plant . (a) regulation of the temperature of the residual gas during shutdown and/or start-up of the plant for preparing nitric acid by means of a temperature regulating apparatus; and (b) treatment of the residual gas which has been temperature-regulated in step (a) in a residual gas purification plant , where the temperature regulating apparatus is a heat exchanger or a heat store , characterized in that the residual gas is at least partly conveyed in a circuit and in this circuit flows through the temperature regulating apparatus and the residual gas purification plant .