mhurhangee/patent-ind-claim-en huggingface dataset:
A lamp , comprising: a wiring substrate ; a bus electrode formed on the wiring substrate along one direction; a plurality of electrode lines each formed on the wiring substrate , extending from the bus electrode , and having one end; a plurality of semiconductor light-emitting devices disposed to be parallel to one another along a direction in which the electrode lines are formed and spaced apart from adjacent electrode lines by a predetermined distance; a plurality of transparent electrodes electrically connecting the electrode lines and the semiconductor light-emitting devices ; and a current injection part formed along the one direction to be disposed parallel to the bus electrode ; characterised by a plurality of connection electrodes disposed between the bus electrode and the current injection part to be spaced apart along the one direction and electrically connecting the bus electrode and the current injection part , wherein a part of the connection electrodes has a different resistance value. a wiring substrate ; a bus electrode formed on the wiring substrate along one direction; a plurality of electrode lines each formed on the wiring substrate , extending from the bus electrode , and having one end; a plurality of semiconductor light-emitting devices disposed to be parallel to one another along a direction in which the electrode lines are formed and spaced apart from adjacent electrode lines by a predetermined distance; a plurality of transparent electrodes electrically connecting the electrode lines and the semiconductor light-emitting devices ; and a current injection part formed along the one direction to be disposed parallel to the bus electrode ; characterised by a plurality of connection electrodes disposed between the bus electrode and the current injection part to be spaced apart along the one direction and electrically connecting the bus electrode and the current injection part , wherein a part of the connection electrodes has a different resistance value.
An information projection and control system that projects information onto a projection area of a vehicle door of a vehicle inside of the vehicle , comprising: at least one control unit that generates information (10; 16, 21) for projection onto the projection area , at least one projection device that projects the generated information (10; 16, 21) onto the projection area , and at least one movement sensor that detects movements in a sensing area associated with the projection area , wherein the at least one control unit is adapted to control generation of the generated information (10; 16, 21) on the basis of the detected movements , and wherein the at least one control unit is adapted to adjust color, contrast and/or brightness of the at least one projection device dependent on visibility and luminosity currently prevailing in respective surroundings of the vehicle door . at least one control unit that generates information (10; 16, 21) for projection onto the projection area , at least one projection device that projects the generated information (10; 16, 21) onto the projection area , and at least one movement sensor that detects movements in a sensing area associated with the projection area , wherein the at least one control unit is adapted to control generation of the generated information (10; 16, 21) on the basis of the detected movements , and wherein the at least one control unit is adapted to adjust color, contrast and/or brightness of the at least one projection device dependent on visibility and luminosity currently prevailing in respective surroundings of the vehicle door .
A retroreflective article, comprising: a retroreflective substrate comprising a body portion having a substantially planar front surface and a structured rear surface comprising a plurality of cube corner elements; and an infrared-reflecting multilayer optical film positioned adjacent to the front surface of the retroreflective substrate such that the infrared-reflecting multilayer optical film forms a pattern that creates regions of high contrast between infrared light reflected from the infrared-reflecting multilayer optical film and the otherwise retroreflective light path, such that the pattern can be read by an infrared sensor when the retroreflective substrate is illuminated by an infrared light source; wherein the infrared-reflecting multilayer optical film is transparent to visible light, such that the infrared-reflecting multilayer optical film is not significantly visible in the visible light spectrum; wherein the multilayer optical film exhibits a relatively high reflectance for light within a first spectral range and a relatively low reflectance for light within a second spectral range, wherein the first spectral range is between about 700 nm to about 1100 nm and the second spectral range is between about 400 nm to about 700 nm. a retroreflective substrate comprising a body portion having a substantially planar front surface and a structured rear surface comprising a plurality of cube corner elements; and an infrared-reflecting multilayer optical film positioned adjacent to the front surface of the retroreflective substrate such that the infrared-reflecting multilayer optical film forms a pattern that creates regions of high contrast between infrared light reflected from the infrared-reflecting multilayer optical film and the otherwise retroreflective light path, such that the pattern can be read by an infrared sensor when the retroreflective substrate is illuminated by an infrared light source; wherein the infrared-reflecting multilayer optical film is transparent to visible light, such that the infrared-reflecting multilayer optical film is not significantly visible in the visible light spectrum; wherein the multilayer optical film exhibits a relatively high reflectance for light within a first spectral range and a relatively low reflectance for light within a second spectral range, wherein the first spectral range is between about 700 nm to about 1100 nm and the second spectral range is between about 400 nm to about 700 nm.
A method for determining a flow speed of a fluid in a fluid conduit with a travel time flow meter comprising: - providing the fluid conduit with a fluid that has a predetermined velocity with respect to the fluid conduit, - providing the fluid conduit with a first ultrasonic transducer, a second ultrasonic transducer and a third ultrasonic transducer, wherein respective connection lines between the first ultrasonic transducer, the second ultrasonic transducer and the third ultrasonic transducer extend outside of a symmetry axis of the fluid conduit, the first ultrasonic transducer and the third ultrasonic transducer being offset with respect to the second ultrasonic transducer in a longitudinal direction of the fluid conduit, - applying a first measuring signal to the first ultrasonic transducer, and - measuring a first response signal of the first measuring signal at the second ultrasonic transducer, - applying a second measuring signal to the first ultrasonic transducer, - measuring a second response signal of the second measuring signal at the third ultrasonic transducer, characterised in that the first measuring signal and the second measuring signal respectively comprise a reversed signal portion with respect to time of a response signal of an impulse signal that is sent between the same pair of transducers as the corresponding measuring signal, or of a signal derived therefrom, - deriving time of flight from at least one of the first response signal and the second response signal, - deriving a flow speed of the fluid from the time of flight. - providing the fluid conduit with a fluid that has a predetermined velocity with respect to the fluid conduit, - providing the fluid conduit with a first ultrasonic transducer, a second ultrasonic transducer and a third ultrasonic transducer, wherein respective connection lines between the first ultrasonic transducer, the second ultrasonic transducer and the third ultrasonic transducer extend outside of a symmetry axis of the fluid conduit, the first ultrasonic transducer and the third ultrasonic transducer being offset with respect to the second ultrasonic transducer in a longitudinal direction of the fluid conduit, - applying a first measuring signal to the first ultrasonic transducer, and - measuring a first response signal of the first measuring signal at the second ultrasonic transducer, - applying a second measuring signal to the first ultrasonic transducer, - measuring a second response signal of the second measuring signal at the third ultrasonic transducer, - deriving time of flight from at least one of the first response signal and the second response signal, - deriving a flow speed of the fluid from the time of flight.
A radial ventilator comprising a ventilator wheel , a motor which drives the ventilator wheel, and a ventilator housing , wherein the radial ventilator has a suction side (S), which is on the intake side as viewed in the flow direction, and a pressure side (D), which lies axially opposite the suction side, wherein the ventilator housing is made of a suction-side front part and a pressure-side rear part , between which, as viewed in the axial direction, the ventilator wheel is arranged, and wherein the front part and the rear part are connected by at least one axial brace , characterized in that the axial brace has a continuous hollow channel which is open towards the suction side (S) and the pressure side (D) and in which at least one differential pressure sensor is arranged, said differential pressure sensor directly detecting a pressure difference of the respective static air pressure on the suction side (S) and the pressure side (D) of the radial ventilator during operation of the radial ventilator .
A gas turbine engine comprising: a fan bypass duct defined between a fan nacelle and core cowl of an engine core ; the engine core including a cooled cooling air system configured to receive cooling air from a primary flowpath bleed within the engine core and configured to provide cooled cooling air to at least one component within the engine core; and the cooled cooling air system including an air-air heat exchanger and a spent air exhaust outlet at a radially outward surface of the core cowl; and characterized by the cooled cooling air system further comprising: a ramp feature protruding radially into said fan bypass duct upstream of said spent air exhaust outlet, and wherein the ramp feature is moveable along an axis defined by the engine core. a fan bypass duct defined between a fan nacelle and core cowl of an engine core ; the engine core including a cooled cooling air system configured to receive cooling air from a primary flowpath bleed within the engine core and configured to provide cooled cooling air to at least one component within the engine core; and the cooled cooling air system including an air-air heat exchanger and a spent air exhaust outlet at a radially outward surface of the core cowl; and characterized by the cooled cooling air system further comprising: a ramp feature protruding radially into said fan bypass duct upstream of said spent air exhaust outlet, and wherein the ramp feature is moveable along an axis defined by the engine core.
A method of provisioning a push notification service, the method comprising: receiving, at a gateway from a push notification provider , an authentication certificate, wherein data identifying an application is included within the authentication certificate; authenticating, using the authentication certificate, the push notification provider ; and provisioning, automatically from the data identifying the application, a push notification service for the application used by the push notification provider . receiving, at a gateway from a push notification provider , an authentication certificate, wherein data identifying an application is included within the authentication certificate; authenticating, using the authentication certificate, the push notification provider ; and provisioning, automatically from the data identifying the application, a push notification service for the application used by the push notification provider .
Motor vehicle door latch , comprising an electromechanical opening drive for a locking mechanism , further comprising at least one safety unit , and a control unit , wherein, on the basis of for example signals from a first sensor to a handle , the opening drive is acted upon in the "safety off" position of the safety unit by means of the control unit for electrical opening, and, wherein, in the "safety on" position of the safety unit , signals from the first sensor are ignored by the control unit , wherein the opening drive acts in at least two different movement directions, and acts on the locking mechanism in the first movement direction as well as in the "safety off" position of the safety unit , while the opening drive , in the second movement direction, establishes an additional mechanical connection between the handle and the locking mechanism on the basis of a further second sensor , characterized in that the safety unit has a mechanical and/or motorized lock which locks the opening drive in the "safety on" position as well as when the opening drive is acted upon in the second movement direction.
An optical line terminal comprising: a communication unit configured to communicate with a plurality of optical network units; and a control unit configured to dynamically change at least one of a time width of a specific period that is a time width in the discovery window of authentication processing of the plurality of optical network units and a cycle of the specific period that is a cycle in the discovery window of authentication processing of the plurality of optical network units, the specific period being a period in which an authentication request signal is received from a new optical network unit via the communication unit, characterized in that the control unit is adapted to change at least one of a time width of the specific period and a cycle of the specific period based on authentication statuses of the plurality of optical network units, wherein the control unit is adapted to change the time width so that a probability of the optical network unit that is expected to be authenticated in one specific period becomes equal to or greater than a preset threshold with respect to an unauthenticated number that is the number of unauthenticated optical network units. a communication unit configured to communicate with a plurality of optical network units; and a control unit configured to dynamically change at least one of a time width of a specific period that is a time width in the discovery window of authentication processing of the plurality of optical network units and a cycle of the specific period that is a cycle in the discovery window of authentication processing of the plurality of optical network units, the specific period being a period in which an authentication request signal is received from a new optical network unit via the communication unit, the control unit is adapted to change at least one of a time width of the specific period and a cycle of the specific period based on authentication statuses of the plurality of optical network units, wherein the control unit is adapted to change the time width so that a probability of the optical network unit that is expected to be authenticated in one specific period becomes equal to or greater than a preset threshold with respect to an unauthenticated number that is the number of unauthenticated optical network units.
A cartridge for a vapour provision device , the cartridge including a mouthpiece having a length direction corresponding to the direction of insertion of the vapour provision device into the mouth of a user, a width direction corresponding to the direction along a lip-line of the user, and a depth direction corresponding to the opening direction of lips of the user, the mouthpiece comprising first and second opposing faces and an exit hole located between the first and second opposing faces, wherein the opposing faces are approximately planar and inclined towards one another with respect to the length direction, characterised in that the first and second opposing faces of the mouthpiece form outer walls of a reservoir for a liquid within the cartridge.
A cooling system for a ball mill used for production of a lead oxide, the system comprising: - an internal nozzle configured to introduce water into an interior of a ball mill drum ; - a water conduit on an exterior of the rotating ball mill drum and configured for external water delivery so as to deliver water on the drum exterior ; - a water source in communication with the internal nozzle and the water conduit configured for external water delivery; and - a control system in communication with the internal nozzle , the water conduit , and/or the water source , to activate the water source , the internal nozzle , and/or the water conduit and deliver water to cool the ball mill drum or materials therein, the control system also in communication with one or more sensors configured to monitor a condition of the rotating ball mill drum or materials contained therein and deliver a signal to the control system in response to the condition. - an internal nozzle configured to introduce water into an interior of a ball mill drum ; - a water conduit on an exterior of the rotating ball mill drum and configured for external water delivery so as to deliver water on the drum exterior ; - a water source in communication with the internal nozzle and the water conduit configured for external water delivery; and - a control system in communication with the internal nozzle , the water conduit , and/or the water source , to activate the water source , the internal nozzle , and/or the water conduit and deliver water to cool the ball mill drum or materials therein, the control system also in communication with one or more sensors configured to monitor a condition of the rotating ball mill drum or materials contained therein and deliver a signal to the control system in response to the condition.
A dental impression coping comprising: a coping body having an exterior surface configured for receiving a dental impression material, wherein the body includes a scanable element comprising (i) a head with a bulbous head geometry having at least a first flat side and a first round side and (ii) a body having at least one ledge , the flat side of the head extending from a coronal end of the impression coping to the ledge of the body; and an implant interface for coupling the dental impression coping to a dental implant, the interface including a projection extending apically relative to the body. a coping body having an exterior surface configured for receiving a dental impression material, wherein the body includes a scanable element comprising (i) a head with a bulbous head geometry having at least a first flat side and a first round side and (ii) a body having at least one ledge , the flat side of the head extending from a coronal end of the impression coping to the ledge of the body; and an implant interface for coupling the dental impression coping to a dental implant, the interface including a projection extending apically relative to the body.
Hydroalcoholic extract of the aerial parts of Schinus molle, characterised in that it is obtained from Schinus molle leaves not rid of the small stems carrying the leaves, dried and crushed, by solid-liquid extraction, with stirring, of 5% to 10% by weight of solid matter relative to the total weight used in a hydroalcoholic solvent, the alcohol being selected from ethanol or propanediol, in a proportion of between 60% and 80% by weight of alcohol relative to the total weight of the solvent, at a temperature of between 20°C and 70°C for a period of between 1 hour and 2 hours, and by separation of the liquid and solid phases, so as to remove the solid phase and recover a liquid Schinus molle extract, said extract comprising mainly quercitrin and miquelianin among the extracted polyphenols, in a concentration of at least 0.04% of quercitrin by weight of the total weight of the extract and at least 0.02% of miquelianin by weight of the total weight of the extract, the other extracted polyphenols taken independently of each other being present at a concentration of less than 0.01% (100 ppm) by weight of the total weight of the extract.
A method for recovering energy comprising the steps of: a) Providing a hot fluid stream; b) Thermally contacting the hot fluid stream with a first heat transfer fluid in a first heat exchanger, thereby transferring heat from the hot fluid stream to the first heat transfer fluid and obtaining a heated first heat transfer fluid having a temperature T 1 and a pressure p 1 ; c) Subjecting the heated first heat transfer fluid to 2 to 5, preferably 2 to 4, most preferably 2 or 3 compressing steps to obtain a compressed first heat transfer fluid having a pressure p 2 ; d) Thermally contacting the compressed first heat transfer fluid with an aqueous condensate in a second heat exchanger, thereby transferring heat from the compressed first heat transfer fluid to the aqueous condensate and vaporizing the aqueous condensate to obtain a steam stream; e) Using the steam stream for energy recovery thereby obtaining a stream comprising an aqueous condensate; wherein - the ratio of pressure p 2 to pressure pi, p 2 /p 1 , is 5 to 50; and - the steam stream used for energy recovery has temperature T s is in the range of from 120 to 200°C, preferably from 130 to 170°C, more preferably from 135 to 150°C and pressure p s is in the range of from 2.0 to 15.5 barg, preferably from 2.7 to 7.9 barg, more preferably from 3.1 to 4.8 barg. a) Providing a hot fluid stream; b) Thermally contacting the hot fluid stream with a first heat transfer fluid in a first heat exchanger, thereby transferring heat from the hot fluid stream to the first heat transfer fluid and obtaining a heated first heat transfer fluid having a temperature T 1 and a pressure p 1 ; c) Subjecting the heated first heat transfer fluid to 2 to 5, preferably 2 to 4, most preferably 2 or 3 compressing steps to obtain a compressed first heat transfer fluid having a pressure p 2 ; d) Thermally contacting the compressed first heat transfer fluid with an aqueous condensate in a second heat exchanger, thereby transferring heat from the compressed first heat transfer fluid to the aqueous condensate and vaporizing the aqueous condensate to obtain a steam stream; e) Using the steam stream for energy recovery thereby obtaining a stream comprising an aqueous condensate; - the ratio of pressure p 2 to pressure pi, p 2 /p 1 , is 5 to 50; and - the steam stream used for energy recovery has temperature T s is in the range of from 120 to 200°C, preferably from 130 to 170°C, more preferably from 135 to 150°C and pressure p s is in the range of from 2.0 to 15.5 barg, preferably from 2.7 to 7.9 barg, more preferably from 3.1 to 4.8 barg.