mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling a direction indicator using a processor comprising controlling the direction indicator (i) to start blinking in response to an operation of a driver of a subject vehicle and (ii) to automatically turn off blinking after a blinking time; the method characterized by further comprising: determining (S103) whether an automated or autonomous lane change function is valid or invalid; wherein the automated or autonomous lane change function is a function of changing in an automated or autonomous manner from a lane in which the subject vehicle is traveling to another lane; the blinking time of the direction indicator is a first blinking time when it is determined that the automated or autonomous lane change function is invalid (S115); and the blinking time of the direction indicator is a second blinking time longer than the first blinking time when it is determined that the automated or autonomous lane change function is valid (S107, S112). determining (S103) whether an automated or autonomous lane change function is valid or invalid; wherein the automated or autonomous lane change function is a function of changing in an automated or autonomous manner from a lane in which the subject vehicle is traveling to another lane; the blinking time of the direction indicator is a first blinking time when it is determined that the automated or autonomous lane change function is invalid (S115); and the blinking time of the direction indicator is a second blinking time longer than the first blinking time when it is determined that the automated or autonomous lane change function is valid (S107, S112).
A refrigerated sales cabinet, comprising a cabinet body with a roof portion and a bottom portion ; an evaporator arranged at the bottom portion ; a condenser comprising a condenser fan arranged at the roof portion ; and a drip water collecting container arranged at or below the bottom portion , configured to collect water from the inside of the cabinet body ; characterized by a steam conduit leading from an inlet at the drip water collecting container to an outlet at the roof portion , particularly close to the condenser fan; a heater arranged within the drip water collecting container ; and an ambient air fan arranged at the drip water collecting container configured to blow ambient air through at least a portion of the drip water collecting container entraining steam from the drip water collecting container and to blow such steam through the steam conduit . a cabinet body with a roof portion and a bottom portion ; an evaporator arranged at the bottom portion ; a condenser comprising a condenser fan arranged at the roof portion ; and a drip water collecting container arranged at or below the bottom portion , configured to collect water from the inside of the cabinet body ; characterized by a steam conduit leading from an inlet at the drip water collecting container to an outlet at the roof portion , particularly close to the condenser fan; a heater arranged within the drip water collecting container ; and an ambient air fan arranged at the drip water collecting container configured to blow ambient air through at least a portion of the drip water collecting container entraining steam from the drip water collecting container and to blow such steam through the steam conduit .
A method for wireless communication, comprising: receiving a first downlink control message that includes a first grant for resources for a first plurality of transmission time intervals, TTIs, wherein at least two TTIs of the first plurality of TTIs are associated with different hybrid automatic repeat request, HARQ, processes; identifying in the first downlink control message a plurality of HARQ process identifiers associated with the first plurality of TTIs, wherein the identifying comprises identifying a bitmap indicative of the plurality of HARQ process identifiers associated with the first plurality of TTIs, wherein the bitmap comprises a first value at each bit location that corresponds to each HARQ process identifier of the plurality of HARQ process identifiers associated with the first plurality of TTIs, and the bitmap comprises a second value at each bit location that corresponds to HARQ process identifiers that are unassociated with the first plurality of TTIs; and communicating using the resources of at least one TTI of the first plurality of TTIs according to a HARQ process for the at least one TTI and based at least in part on a HARQ process identifier of the HARQ process of the at least one TTI. receiving a first downlink control message that includes a first grant for resources for a first plurality of transmission time intervals, TTIs, wherein at least two TTIs of the first plurality of TTIs are associated with different hybrid automatic repeat request, HARQ, processes; identifying in the first downlink control message a plurality of HARQ process identifiers associated with the first plurality of TTIs, wherein the identifying comprises identifying a bitmap indicative of the plurality of HARQ process identifiers associated with the first plurality of TTIs, wherein the bitmap comprises a first value at each bit location that corresponds to each HARQ process identifier of the plurality of HARQ process identifiers associated with the first plurality of TTIs, and the bitmap comprises a second value at each bit location that corresponds to HARQ process identifiers that are unassociated with the first plurality of TTIs; and communicating using the resources of at least one TTI of the first plurality of TTIs according to a HARQ process for the at least one TTI and based at least in part on a HARQ process identifier of the HARQ process of the at least one TTI.
AN INTERACTIVE SEAT comprising movable parts which are actuated by means of at least one electric actuator device (M), according to the resting preferences of a user, wherein the interactive seat comprises: • at least one pressure sensor hidden underneath a layer of outer upholstery for decoration or contact distributed along the surface in contact with the body of the user; • an electronic module connected to the electric actuator device (M) and to the pressure sensor ; wherein the electronic module actuates the movable parts by means of the electric actuator device (M) based on a voluntary pressure exerted by the user with any part of their body on said pressure sensor , and additionally based on the duration time of said voluntary pressure; characterised in that the movable parts are a footrest , a back and a seat , wherein the interactive seat additionally comprises respective sensors connected to the electronic module , which receives the electrical signals emitted by the three sensors , such that the electronic module interprets said electrical signals and, depending on programmable parameters, executes the action to be performed selected from moving the footrest , modifying the tilting of the back and raising/lowering the surface of the seat . • at least one pressure sensor hidden underneath a layer of outer upholstery for decoration or contact distributed along the surface in contact with the body of the user; • an electronic module connected to the electric actuator device (M) and to the pressure sensor ; wherein the electronic module actuates the movable parts by means of the electric actuator device (M) based on a voluntary pressure exerted by the user with any part of their body on said pressure sensor , and additionally based on the duration time of said voluntary pressure; characterised in that the movable parts are a footrest , a back and a seat , wherein the interactive seat additionally comprises respective sensors connected to the electronic module , which receives the electrical signals emitted by the three sensors , such that the electronic module interprets said electrical signals and, depending on programmable parameters, executes the action to be performed selected from moving the footrest , modifying the tilting of the back and raising/lowering the surface of the seat .
An electronic device comprising: a first substrate and a second substrate with respective main surfaces, and on each of which an electronic component is mounted, the first substrate and the second substrate positioned in a stacking direction with the respective main surfaces facing each other; a first metal plate including a flat portion that is interposed between the first substrate and the second substrate, and that directly or indirectly abuts the electronic component mounted on the first substrate and the electronic component mounted on the second substrate, and a first shield portion that covers a portion of a side surface of the first substrate; and a second metal plate including a second shield portion that covers an entire circumference of a side surface of the second substrate and another portion of the side surface of the first substrate that is not covered by the first metal plate, wherein the first metal plate and the second metal plate abut each other directly or indirectly. a first substrate and a second substrate with respective main surfaces, and on each of which an electronic component is mounted, the first substrate and the second substrate positioned in a stacking direction with the respective main surfaces facing each other; a first metal plate including a flat portion that is interposed between the first substrate and the second substrate, and that directly or indirectly abuts the electronic component mounted on the first substrate and the electronic component mounted on the second substrate, and a first shield portion that covers a portion of a side surface of the first substrate; and a second metal plate including a second shield portion that covers an entire circumference of a side surface of the second substrate and another portion of the side surface of the first substrate that is not covered by the first metal plate, wherein the first metal plate and the second metal plate abut each other directly or indirectly.
An eye safety assembly for a vehicle based multichannel Light Detection and Ranging (LiDAR) system comprising: at least one panel of dimmable glass positioned within a path of at least one laser beam generated from a laser generating system ; a transmitter configured to transmit the laser beam; a receiver configured to receive a reflected laser beam in response to the transmitted laser beam; and a controller configured to control a dimming of the at least one panel of dimmable glass based at least in part on information received from vehicle systems , characterized in that the controller is further configured to monitor power levels of reflected beams and based on the monitored power levels of the reflected beams, doing at least one of verifying desired operation of the at least one dimmable glass , calibrating the at least one dimmable glass to achieve a desired power output level and adjusting a power output of the laser generating system . at least one panel of dimmable glass positioned within a path of at least one laser beam generated from a laser generating system ; a transmitter configured to transmit the laser beam; a receiver configured to receive a reflected laser beam in response to the transmitted laser beam; and a controller configured to control a dimming of the at least one panel of dimmable glass based at least in part on information received from vehicle systems , characterized in that the controller is further configured to monitor power levels of reflected beams and based on the monitored power levels of the reflected beams, doing at least one of verifying desired operation of the at least one dimmable glass , calibrating the at least one dimmable glass to achieve a desired power output level and adjusting a power output of the laser generating system .
An aerosol generating device for generating a condensation aerosol from a liquid formulation comprising a pharmaceutically active agent, the device comprising: a. a reservoir comprising the liquid formulation comprising a pharmaceutically active agent; b. a pump , wherein the pump is located within the reservoir , and wherein the pump is in fluid communication with the liquid formulation comprising a pharmaceutically active agent; and c. a heater element , wherein the heater element is in fluid communication with the pump , and wherein the pump is configured to deliver the liquid formulation comprising a pharmaceutically active agent to the heater element , wherein the heater element is configured to vaporize the liquid formulation upon activation to generate the condensation aerosol, characterized in that the pump is configured to operate at a first rate and a second rate; and in that the heater element is in fluid communication with the pump , wherein the first rate of the pump delivers a first amount of the liquid formulation comprising a pharmaceutically active agent to the heater element , wherein upon activation the heater element vaporizes the first amount that condenses to form a first condensation aerosol comprising a first diameter, and wherein the second rate of the pump delivers a second amount of the liquid formulation comprising a pharmaceutically active agent to the heater element , wherein upon activation the heater element vaporizes the second amount that condenses to form a second condensation aerosol comprising a second diameter, wherein the first amount is different than the second amount. a. a reservoir comprising the liquid formulation comprising a pharmaceutically active agent; b. a pump , wherein the pump is located within the reservoir , and wherein the pump is in fluid communication with the liquid formulation comprising a pharmaceutically active agent; and c. a heater element , wherein the heater element is in fluid communication with the pump , and wherein the pump is configured to deliver the liquid formulation comprising a pharmaceutically active agent to the heater element , wherein the heater element is configured to vaporize the liquid formulation upon activation to generate the condensation aerosol,
A device for disinfecting an interior space comprising • a cart, which is configured to travel along a path through the interior space, and • a germicidal light source , characterized by • a drone , which has at least one electric drive for generating lift, wherein • the germicidal light source is fastened to the drone and • the drone is connected to the cart via an electrical line for supplying energy to the germicidal light source and the electric drive. • a cart, which is configured to travel along a path through the interior space, and • a germicidal light source , characterized by • a drone , which has at least one electric drive for generating lift, wherein • the germicidal light source is fastened to the drone and • the drone is connected to the cart via an electrical line for supplying energy to the germicidal light source and the electric drive.
Film material comprising micro-images and a regular two dimensional array of non-cylindrical lenses , the film material utilizing the regular two dimensional array of non-cylindrical lenses to enlarge the micro-images , and to form a synthetically magnified image through the united performance of a multiplicity of individual lens/micro-image image systems, wherein the film material is manufactured by forming the micro-images as voids in a radiation cured liquid polymer that is cast against a base film; wherein the lenses are formed from radiation cured polymer on the opposite face of the base film in correct alignment or skew with respect to the micro-images ; wherein the micro-image voids are filled with a solidified submicron particle pigmented coloring material, wherein the micro-image voids have been filled by gravure-like doctor blading against the film surface; and a sealing layer is applied on the micro-images, which is clear, dyed, pigmented, or incorporates covert security materials.
A method of communicating between imaging components of an X-ray imaging system, the method comprising: determining , by an initiator imaging component , whether a target imaging component is a primary manufacturer imaging component ; responsive to the target imaging component not being the primary manufacturer imaging component : generating a communication message including a communication packet according to a packet protocol; and sending the communication message to the target imaging component as a secondary manufacturer imaging component ; and responsive to the target imaging component being the primary manufacturer imaging component : generating a message including a header packet and one or more data packets according to a message protocol; and sending the message to the target imaging component as the primary manufacturer imaging component . determining , by an initiator imaging component , whether a target imaging component is a primary manufacturer imaging component ; responsive to the target imaging component not being the primary manufacturer imaging component : generating a communication message including a communication packet according to a packet protocol; and sending the communication message to the target imaging component as a secondary manufacturer imaging component ; and generating a communication message including a communication packet according to a packet protocol; and sending the communication message to the target imaging component as a secondary manufacturer imaging component ; and responsive to the target imaging component being the primary manufacturer imaging component : generating a message including a header packet and one or more data packets according to a message protocol; and sending the message to the target imaging component as the primary manufacturer imaging component . generating a message including a header packet and one or more data packets according to a message protocol; and sending the message to the target imaging component as the primary manufacturer imaging component .
A shoe insert for insertion into a shoe, comprising a first end having a dome-shaped part to be received in a toe portion of a shoe and an opposite second end having a curved shell-shaped part configured to act as a shoe horn, wherein the shoe insert further comprises a connecting part connecting the first end and the second end , wherein the first end , the second end and the connecting part arranged there between are integrally formed, wherein the dome-shaped part comprises a convex dome surface and wherein the curved shell-shaped part comprises a convex shoe horn surface , wherein the convex dome surface and the convex shoe horn surface are arranged in opposite facing directions.
A control device to be applied to an internal combustion engine including a fuel reformation cylinder capable of serving as a fuel reformation device and an output cylinder to which reformed fuel generated in the fuel reforming cylinder is supplied, the output cylinder being configured to yield an engine power by combusting the reformed fuel, characterized in that the control device comprises: a reforming operation control unit configured not to execute a fuel reforming operation in the fuel reformation cylinder , when a gas temperature in the fuel reformation cylinder at a time point when a periodically changing gas temperature in the fuel reformation cylinder reaches its highest temperature is estimated as to fall short of a reforming operation allowable lower limit gas temperature set based on a lower limit value of a reforming reaction enabling temperature, and wherein the reforming operation allowable lower limit gas temperature is set so as to be higher with an increase in an air fuel mixture equivalence ratio in the fuel reformation cylinder . a reforming operation control unit configured not to execute a fuel reforming operation in the fuel reformation cylinder , when a gas temperature in the fuel reformation cylinder at a time point when a periodically changing gas temperature in the fuel reformation cylinder reaches its highest temperature is estimated as to fall short of a reforming operation allowable lower limit gas temperature set based on a lower limit value of a reforming reaction enabling temperature, and wherein the reforming operation allowable lower limit gas temperature is set so as to be higher with an increase in an air fuel mixture equivalence ratio in the fuel reformation cylinder .
Modular plasma jet treatment system , for the treatment of biological materials or medical applications, comprising a plasma source with at least the following components: - A high-voltage module comprising a high-voltage electrode and a first connection means for connecting the high-voltage module with a plasma jet applicator , wherein - the plasma jet applicator is comprised by the modular plasma jet treatment system and configured to generate with the high-voltage electrode of the high-voltage module at least one plasma jet , wherein the plasma jet applicator has a cavity for a process gas , wherein a ceiling portion of the cavity is arranged on the high-voltage module or arranged on the plasma jet applicator , the cavity comprising a) a process gas inlet , b) at least one plasma jet outlet , wherein the plasma jet applicator comprises a second connection means, wherein the first and second connection means are configured such that the plasma jet applicator and the high-voltage module are repeatedly connectable and releasable, wherein the modular plasma jet treatment system furthermore comprises a dielectric , wherein, when the plasma jet applicator is connected to the high-voltage module , the cavity is adjacently arranged with the ceiling portion at the high-voltage module , and wherein the cavity is separated by the dielectric from the high-voltage electrode of the high-voltage module . - A high-voltage module comprising a high-voltage electrode and a first connection means for connecting the high-voltage module with a plasma jet applicator , wherein - the plasma jet applicator is comprised by the modular plasma jet treatment system and configured to generate with the high-voltage electrode of the high-voltage module at least one plasma jet , wherein the plasma jet applicator has a cavity for a process gas , wherein a ceiling portion of the cavity is arranged on the high-voltage module or arranged on the plasma jet applicator , the cavity comprising a) a process gas inlet , b) at least one plasma jet outlet , a) a process gas inlet , b) at least one plasma jet outlet ,