mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting and/or signaling device for motor vehicles, having at least one light source configured in order to emit a primary light flux, a reflector configured in order to form a reflected light flux from the primary light flux, and an optical element comprising an entry diopter and an exit diopter , the optical element being configured in order to allow the emission of an exit light beam by the exit diopter when the entry diopter receives the reflected light beam, the optical element comprising a first and a second zone, the first zone and the second zone being configured in order to produce different spreading of the exit beam, the first zone being configured in order to make the rays of the exit light beam converge further away from the optical element than the second zone, characterized in that the reflector has two lateral parts which meet on a junction line , and two light sources which are arranged symmetrically relative to the junction line . the optical element comprising a first and a second zone, the first zone and the second zone being configured in order to produce different spreading of the exit beam, the first zone being configured in order to make the rays of the exit light beam converge further away from the optical element than the second zone, characterized in that the reflector has two lateral parts which meet on a junction line , and two light sources which are arranged symmetrically relative to the junction line .
A terminal device, comprising: a metal frame ; a first metal sheet , wherein a feed point is disposed on the first metal sheet , the first metal sheet is connected to the metal frame , there is a first gap between the metal frame and a part of the first metal sheet that is not connected to the metal frame ; and the terminal device further comprises a grounding plate , wherein the grounding plate is connected to the metal frame through a connection piece; the terminal device further comprises a metal arm , disposed between the feed point and an end of the first metal sheet away from the feed point , and separately connected to the metal frame and the first metal sheet ; characterized in that , the terminal device further comprises a second metal sheet , connected to an end of the first metal sheet away from the feed point . a metal frame ; a first metal sheet , wherein a feed point is disposed on the first metal sheet , the first metal sheet is connected to the metal frame , there is a first gap between the metal frame and a part of the first metal sheet that is not connected to the metal frame ; and the terminal device further comprises a grounding plate , wherein the grounding plate is connected to the metal frame through a connection piece; the terminal device further comprises a metal arm , disposed between the feed point and an end of the first metal sheet away from the feed point , and separately connected to the metal frame and the first metal sheet ; characterized in that , the terminal device further comprises a second metal sheet , connected to an end of the first metal sheet away from the feed point .
Printing apparatus for printing on at least one article , comprising at least two printing heads, respectively first and second (17"), disposed aligned with respect to each other in a direction (F), and a feed device suitable to feed the article to be printed along the direction of alignment of the two printing heads (17, 17', 17"), so as to position said article sequentially in cooperation with said two printing heads (17, 17', 17"), wherein said first printing head comprises a plurality of delivery nozzles configured to deliver a background color to form a print base, in order to carry out a first basic printing during a first printing cycle; said second printing head (17") comprises a plurality of nozzles configured to deliver a respective primary color for the formation of the color during a second printing cycle; at least a drying device is positioned between said first printing head and said second printing head (17"); and characterized in that the feed device is a belt configured to selectively determine the movement of at least a support element disposed on it, the support element containing at least one article to be printed, said feed device comprising one or more guide elements , configured to correctly position the support element on the belt .
Method for winding and contacting a stator comprising a plurality of stator teeth that are each formed by at least one part of a stator core and at least one part of an insulation , wherein the method comprises the following steps: - providing a winding wire having a wire start and a wire end , - winding the winding wire around a plurality of stator teeth in order to form a plurality of coils , wherein between two coils the winding wire is positioned at least in some portions around a wire guidance element in order to form a wire loop , - contacting the wire start and/or the wire end of the winding wire on a contact support that is separate from the insulation and - detaching the wire guidance element from the insulation , in particular along a separation point, and fastening the wire guidance element to the wire loop on the contact support . - providing a winding wire having a wire start and a wire end , - winding the winding wire around a plurality of stator teeth in order to form a plurality of coils , wherein between two coils the winding wire is positioned at least in some portions around a wire guidance element in order to form a wire loop , - contacting the wire start and/or the wire end of the winding wire on a contact support that is separate from the insulation and - detaching the wire guidance element from the insulation , in particular along a separation point, and fastening the wire guidance element to the wire loop on the contact support .
A drain strainer (100, 100', 100", 100a, 100b, 100c, 100d) comprising a base having a base body that defines a chamber , a straining unit disposed in said chamber , and a cover unit including a cover body connected to said straining unit , said chamber having a water inlet and a water outlet opposite to each other along a top-bottom direction (L), wherein said straining unit includes a bottom straining member proximate to said water outlet and having a plurality of bottom straining holes extending therethrough, and a main straining member disposed on one side of said bottom straining member that is distal to said water outlet , said main straining member including a main straining surrounding wall formed with a plurality of spaced-apart main straining holes that extend therethrough, said bottom straining holes and said main straining holes communicating with each other and with said chamber ; wherein said bottom straining member is circular, and has a top surface and a bottom surface opposite to said top surface , characterized by the strainer additionally comprising a groove extending inwardly from a central portion of said top surface and defined by a groove bottom wall and a groove surrounding wall , said top surface and said groove bottom wall having a height difference (d), said bottom straining holes being formed in said groove bottom wall , said main straining surrounding wall being positioned in said groove adjacent to said groove surrounding wall . said straining unit includes a bottom straining member proximate to said water outlet and having a plurality of bottom straining holes extending therethrough, and a main straining member disposed on one side of said bottom straining member that is distal to said water outlet , said main straining member including a main straining surrounding wall formed with a plurality of spaced-apart main straining holes that extend therethrough, said bottom straining holes and said main straining holes communicating with each other and with said chamber ; wherein said bottom straining member is circular, and has a top surface and a bottom surface opposite to said top surface , characterized by the strainer additionally comprising a groove extending inwardly from a central portion of said top surface and defined by a groove bottom wall and a groove surrounding wall , said top surface and said groove bottom wall having a height difference (d), said bottom straining holes being formed in said groove bottom wall , said main straining surrounding wall being positioned in said groove adjacent to said groove surrounding wall .
An illuminator comprising: a hologram label comprising a reflective face ; and light-emitting diodes located near the hologram label , wherein the light-emitting diodes are configured to emit incident light onto the reflective face of the hologram label that reflects the incident light and hence provides reflected light ; characterized in that the hologram label is in a tubular configuration and is configured for chromatic dispersion of the incident light ; wherein the incident light is colorless, and the reflected light is in at least one color. a hologram label comprising a reflective face ; and light-emitting diodes located near the hologram label , wherein the light-emitting diodes are configured to emit incident light onto the reflective face of the hologram label that reflects the incident light and hence provides reflected light ; characterized in that the hologram label is in a tubular configuration and is configured for chromatic dispersion of the incident light ; wherein the incident light is colorless, and the reflected light is in at least one color.
Method (100 to 206) in which hyperpolarizable tracer molecules (20, 88 to 98) are hydrogenated for magnetic resonance imaging, wherein the tracer molecules (20, 88 to 98) are brought into contact with hydrogen in a reaction mixture and a hydrogenation reaction is initiated in the reaction mixture , characterized in that in a first method step the hydrogen is dissolved in a liquid , resulting in the preparation of a hydrogen solution having a saturation factor of at least 50%, and that in a subsequent second method step the hydrogenation reaction (186 to 190, 206) is initiated.
A method for printing three-dimensionally a part , comprising a succession of steps during each of which a solid or honeycomb layer of the part to be obtained is produced, each of these steps comprising passing a thermoplastic filament through a heating element to liquefy it, then passing the liquefied thermoplastic filament through at least one nozzle having an outlet cross-section, then depositing the liquefied thermoplastic filament coming out of said at least one nozzle and simultaneously moving said at least one nozzle along a determined path , the entirety of which corresponds to the layer of the part to be obtained, wherein, during at least one step of producing a layer by filling, use is made of a said at least one nozzle , an outlet segment of which has an outlet cross-section that can vary between a first, maximum cross-section and a second, minimum cross-section, and in that the cross-section of at least one portion of said outlet segment of said at least one nozzle is made to vary along at least one portion of the determined path , characterized in that it comprises an initial step of producing a layer, prior to said at least one step of producing a layer by filling, during which said at least one nozzle having its second minimum cross-section is used to deposit an outline of said layer, so as to construct an outer wall delimiting the layer. wherein, during at least one step of producing a layer by filling, use is made of a said at least one nozzle , an outlet segment of which has an outlet cross-section that can vary between a first, maximum cross-section and a second, minimum cross-section, and in that the cross-section of at least one portion of said outlet segment of said at least one nozzle is made to vary along at least one portion of the determined path , characterized in that it comprises an initial step of producing a layer, prior to said at least one step of producing a layer by filling, during which said at least one nozzle having its second minimum cross-section is used to deposit an outline of said layer, so as to construct an outer wall delimiting the layer.
A wireless communication terminal, the terminal comprising: a processor ; and a communication unit , wherein the processor is configured to: receive a wireless packet through the communication unit , obtain non-contiguous channel allocation information of the received packet, and decode the received packet based on the obtained non-contiguous channel allocation information, characterized in that : the non-contiguous channel allocation information is indicated via a combination of a bandwidth subfield of a High Efficiency Signal A, HE-SIG-A, field of the received packet and a resource unit allocation subfield of a High Efficiency Signal B, HE-SIG-B, field of the received packet, and the bandwidth subfield indicates total bandwidth information through which the packet is transmitted and channel information to be punctured within the total bandwidth, and the resource unit allocation subfield indicates additional puncturing information within the total bandwidth. a processor ; and a communication unit , wherein the processor is configured to: receive a wireless packet through the communication unit , obtain non-contiguous channel allocation information of the received packet, and decode the received packet based on the obtained non-contiguous channel allocation information, receive a wireless packet through the communication unit , obtain non-contiguous channel allocation information of the received packet, and decode the received packet based on the obtained non-contiguous channel allocation information, characterized in that : the non-contiguous channel allocation information is indicated via a combination of a bandwidth subfield of a High Efficiency Signal A, HE-SIG-A, field of the received packet and a resource unit allocation subfield of a High Efficiency Signal B, HE-SIG-B, field of the received packet, and the bandwidth subfield indicates total bandwidth information through which the packet is transmitted and channel information to be punctured within the total bandwidth, and the resource unit allocation subfield indicates additional puncturing information within the total bandwidth.
A sensor system comprising: a sensor network comprising at least one optical fiber that includes one or more optical sensors , the optical sensors being configured to sense vibration of an electrical device and to produce a time varying light output in response to the vibration; at least one detector configured to generate an electrical time domain signal in response to the time varying light output of at least one optical sensor of the sensor network; and characterized in that the sensor system further comprises: an analyzer configured to: transform the time domain signal to a frequency domain signal; acquire at least one snapshot frequency component signal comprising one or more time varying signals of frequency components of the frequency domain signal over a data acquisition time period; and detect a condition of the electrical device based on the snapshot frequency component signal. a sensor network comprising at least one optical fiber that includes one or more optical sensors , the optical sensors being configured to sense vibration of an electrical device and to produce a time varying light output in response to the vibration; at least one detector configured to generate an electrical time domain signal in response to the time varying light output of at least one optical sensor of the sensor network; and characterized in that the sensor system further comprises: an analyzer configured to: transform the time domain signal to a frequency domain signal; acquire at least one snapshot frequency component signal comprising one or more time varying signals of frequency components of the frequency domain signal over a data acquisition time period; and detect a condition of the electrical device based on the snapshot frequency component signal. transform the time domain signal to a frequency domain signal; acquire at least one snapshot frequency component signal comprising one or more time varying signals of frequency components of the frequency domain signal over a data acquisition time period; and detect a condition of the electrical device based on the snapshot frequency component signal.
A method of protecting a polymer from UV degradation, the method comprising: impinging ultraviolet ("UV") radiation from an artificial UV source onto an interior object , the interior object comprising: i) a polymer substrate ; and ii) a continuous inorganic film on the polymer substrate , the continuous inorganic film protecting the polymer substrate from the ultraviolet radiation; wherein the continuous inorganic film is an insulator, wherein the insulator is chosen from diamond-like carbon, indium oxide, chromium nitride, aluminosilicate glass, borosilicate glass, and borosilicate-lime glass. impinging ultraviolet ("UV") radiation from an artificial UV source onto an interior object , the interior object comprising: i) a polymer substrate ; and ii) a continuous inorganic film on the polymer substrate , the continuous inorganic film protecting the polymer substrate from the ultraviolet radiation; wherein the continuous inorganic film is an insulator, wherein the insulator is chosen from diamond-like carbon, indium oxide, chromium nitride, aluminosilicate glass, borosilicate glass, and borosilicate-lime glass.
A method of rotating a surveillance camera having an acceleration sensor and being controllable by a processor to maintain a tilt-angle to conform to a command tilt-angle, the method comprising the steps of: a) moving the surveillance camera tilt to a predetermined command tilt-angle in response to a signal from the processor ; b) time-periodically calculating in the processor estimated tilt-angles by using acceleration values in at least one axis of the acceleration sensor , wherein step b) comprises: b1) reading acceleration values from the acceleration sensor , in each time period; b2) performing noise filtering on the acceleration values from the acceleration sensor ; b3) calculating tilt-angles corresponding to the acceleration values; and b4) calculating an average angle of the calculated tilt-angles as the estimated tilt-angle; c) calculating a difference between an estimated tilt-angle of a current time period and an estimated tilt-angle of a previous time period; and d) when the difference between the estimated tilt-angles exceeds a set limit value, moving the surveillance camera to another position to correct the tilt angle according to the difference calculated in step c). a) moving the surveillance camera tilt to a predetermined command tilt-angle in response to a signal from the processor ; b) time-periodically calculating in the processor estimated tilt-angles by using acceleration values in at least one axis of the acceleration sensor , wherein step b) comprises: b1) reading acceleration values from the acceleration sensor , in each time period; b2) performing noise filtering on the acceleration values from the acceleration sensor ; b3) calculating tilt-angles corresponding to the acceleration values; and b4) calculating an average angle of the calculated tilt-angles as the estimated tilt-angle; c) calculating a difference between an estimated tilt-angle of a current time period and an estimated tilt-angle of a previous time period; and d) when the difference between the estimated tilt-angles exceeds a set limit value, moving the surveillance camera to another position to correct the tilt angle according to the difference calculated in step c).
Method for locating a first motor vehicle on a digital map, in which a landmark which is provided for the locating process is concealed with respect to detection by the first motor vehicle , wherein the first motor vehicle detects a second stationary motor vehicle located on the map, and uses it for the locating process on the map, wherein the second motor vehicle transfers information about its position relative to the landmark to the first motor vehicle .
A flammable gas diluter for diluting a flow of flammable gas to a concentration below the flammability limit of said flammable gas, said diluter comprising: a dilution vessel comprising an outer envelope defining a longitudinal flow passage from an inlet to an outlet ; at least one air inlet assembly for directing a flow of air into said inlet of said dilution vessel ; a flammable gas inlet arrangement located towards an inlet end of said dilution vessel ; characterised by two gas flow generators configured to pump a flow of air into said air inlet assembly , said two gas flow generators being located upstream of said flammable gas inlet arrangement ; wherein said two gas flow generators are configured to operate as operational and backup gas flow generators, and by two dampers , one damper associated with each of said gas flow generators , each of said dampers being mounted between said corresponding gas flow generator and said dilution vessel , said dampers being configured to obscure a passage between said corresponding gas flow generator and said dilution vessel when closed and to open said passage between said gas flow generator and said dilution vessel when open; and control circuitry configured to control the opening and closing of said dampers , said control circuitry being configured to open said damper during an operational mode of said corresponding gas flow generator and to close said damper when said corresponding gas flow generator is stopped in standby mode. a dilution vessel comprising an outer envelope defining a longitudinal flow passage from an inlet to an outlet ; at least one air inlet assembly for directing a flow of air into said inlet of said dilution vessel ; a flammable gas inlet arrangement located towards an inlet end of said dilution vessel ; two gas flow generators configured to pump a flow of air into said air inlet assembly , said two gas flow generators being located upstream of said flammable gas inlet arrangement ; wherein said two gas flow generators are configured to operate as operational and backup gas flow generators, and by two dampers , one damper associated with each of said gas flow generators , each of said dampers being mounted between said corresponding gas flow generator and said dilution vessel , said dampers being configured to obscure a passage between said corresponding gas flow generator and said dilution vessel when closed and to open said passage between said gas flow generator and said dilution vessel when open; and control circuitry configured to control the opening and closing of said dampers , said control circuitry being configured to open said damper during an operational mode of said corresponding gas flow generator and to close said damper when said corresponding gas flow generator is stopped in standby mode.