mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting device , comprising: an end cap ; a glass bulb having a distal top and a proximal base relative to the end cap; a tubular flare having an open distal end and a proximal end relative to the end cap, provided inside the glass bulb and joined with the glass bulb; a cylindrical heat spreader having a first section arranged inside the tubular flare and a second section extending outside the tubular flare and the glass bulb; a solid-state lighting unit mounted on top of the first section of the cylindrical heat spreader; an optical means provided over the solid state lighting unit ; said open distal end being arranged for positioning the optical means outside the tubular flare; a driver provided at least partly inside the cylindrical heat spreader and electrically connected to the solid-state lighting unit; wherein the end cap is attached to the second section of the cylindrical heat spreader, and wherein the proximal end of the tubular flare is joined with the proximal base of the glass bulb, characterized by an assembly comprising the cylindrical heat spreader, the solid-state lighting unit, the optical means and the driver, wherein the assembly is inserted into the tubular flare. an end cap ; a glass bulb having a distal top and a proximal base relative to the end cap; a tubular flare having an open distal end and a proximal end relative to the end cap, provided inside the glass bulb and joined with the glass bulb; a cylindrical heat spreader having a first section arranged inside the tubular flare and a second section extending outside the tubular flare and the glass bulb; a solid-state lighting unit mounted on top of the first section of the cylindrical heat spreader; an optical means provided over the solid state lighting unit ; said open distal end being arranged for positioning the optical means outside the tubular flare; a driver provided at least partly inside the cylindrical heat spreader and electrically connected to the solid-state lighting unit; wherein the end cap is attached to the second section of the cylindrical heat spreader, and wherein the proximal end of the tubular flare is joined with the proximal base of the glass bulb, characterized by an assembly comprising the cylindrical heat spreader, the solid-state lighting unit, the optical means and the driver, wherein the assembly is inserted into the tubular flare.
Set of coupling parts for detachably connecting elements of a warp yarn positioning system on a weaving loom comprising a first coupling part comprising first connection means and a second coupling part comprising second connection means which are not connectable with said first connection means , and further comprising an adaptor comprising - third connection means designed to connect with the first connection means so as to connect the adapter to said first coupling part , said first and third connection means forming a first pair of cooperatable connection means, and - fourth connection means designed to connect with the second connection means , so as to connect the adapter to said second coupling part , said second and fourth connection means forming a second pair of cooperatable connection means, at least one of said pairs of cooperatable connection means , being designed to realize a detachable connection. characterized in that in at least one pair of cooperatable connection means , , one connection means comprises an inserting portion , comprising an elastically deformable coupling portion , and the other connection means comprises a receiving portion , designed to receive said elastically deformable coupling portion , and to retain it in a substantially non-deformed state. - third connection means designed to connect with the first connection means so as to connect the adapter to said first coupling part , said first and third connection means forming a first pair of cooperatable connection means, and - fourth connection means designed to connect with the second connection means , so as to connect the adapter to said second coupling part , said second and fourth connection means forming a second pair of cooperatable connection means,
Method for the simultaneous aging and gas nitriding of an endless, flexible ring made from maraging steel for use in or as a drive belt for a continuous variable transmission, characterized in that the maraging steel of the flexible ring consists of 17 to 19 mass-% nickel, 4 to 8 mass-% molybdenum, 4 to 14 mass-% cobalt, 0.5 to 2.5 mass-% chromium, 0.4 mass-% titanium or less and up to 2 mass-% aluminum with balance iron and with inevitable contaminations and in that the simultaneous aging and gas nitriding is carried out at a temperature in the range between 515 and 525 degrees Celsius for 55 to 75 minutes and in a gas atmosphere comprising 1 to 5 volume-% ammonia.
An organic light emitting device comprising: a first electrode; a second electrode; and a plurality of organic material layers provided between the first electrode and the second electrode, comprising a first light emission layer, a second light emission layer, and a third light emission layer, wherein one of the light emission layers comprises a first light emission material and a second light emission material, wherein the first light emission material is a blue light emission material, and the second light emission material is a bluish green light emission material, wherein the one of the light emission layers comprises a fluorescent light emission host and a fluorescent light emission dopant, and the fluorescent light emission dopant comprises the first light emission material and the second light emission material, wherein the one of the light emission layers is the second light emission layer, wherein a maximum light emission peak wavelength λmax of the second light emission material has a gap of 40 to 80 nm compared to a maximum light emission peak wavelength λmax of the first light emission material, wherein the maximum light emission peak wavelength λmax of the second light emission material is 505 nm or more and 530 nm or less, wherein the first light emission layer and the third light emission layer are phosphorescent light emission layers, and the second light emission layer is a fluorescent light emission layer, and wherein the first light emission layer, the second light emission layer, and the third light emission layer are sequentially stacked on the first electrode. a first electrode; a second electrode; and a plurality of organic material layers provided between the first electrode and the second electrode, comprising a first light emission layer, a second light emission layer, and a third light emission layer, wherein one of the light emission layers comprises a first light emission material and a second light emission material, wherein the first light emission material is a blue light emission material, and the second light emission material is a bluish green light emission material, wherein the one of the light emission layers comprises a fluorescent light emission host and a fluorescent light emission dopant, and the fluorescent light emission dopant comprises the first light emission material and the second light emission material, wherein the one of the light emission layers is the second light emission layer, wherein a maximum light emission peak wavelength λmax of the second light emission material has a gap of 40 to 80 nm compared to a maximum light emission peak wavelength λmax of the first light emission material, wherein the maximum light emission peak wavelength λmax of the second light emission material is 505 nm or more and 530 nm or less, wherein the first light emission layer and the third light emission layer are phosphorescent light emission layers, and the second light emission layer is a fluorescent light emission layer, and wherein the first light emission layer, the second light emission layer, and the third light emission layer are sequentially stacked on the first electrode.
A catheter-deliverable helical anchor for docking a prosthetic heart valve in a native mitral valve having native mitral valve leaflets and a native mitral valve annulus, the helical anchor comprising: a plurality of coils having a straightened configuration while being delivered to the native mitral valve and a preformed, coiled configuration after being delivered to the native mitral valve, the helical anchor adapted to support the prosthetic heart valve upon being fully delivered and implanted with an atrial coil portion above and a ventricular coil portion below the mitral valve annulus, and a plurality of anchoring arms coupled with the helical anchor and configured to engage the native mitral valve leaflets, wherein the ventricular coil portion includes a distal end portion , the distal end portion formed to extend radially outward relative to a next adjacent coil such that the distal end portion is spaced from the next adjacent coil. a plurality of coils having a straightened configuration while being delivered to the native mitral valve and a preformed, coiled configuration after being delivered to the native mitral valve, the helical anchor adapted to support the prosthetic heart valve upon being fully delivered and implanted with an atrial coil portion above and a ventricular coil portion below the mitral valve annulus, and a plurality of anchoring arms coupled with the helical anchor and configured to engage the native mitral valve leaflets, wherein the ventricular coil portion includes a distal end portion , the distal end portion formed to extend radially outward relative to a next adjacent coil such that the distal end portion is spaced from the next adjacent coil.
Apparatus for monitoring activation in a heart, the apparatus comprising a probe , a plurality of electrodes supported on the probe and extending over a detection area of the probe, the detection area being arranged to contact a detection region of the heart, wherein each of the electrodes is arranged to detect electrical potential at a respective position in the heart during movement of a series of activation wavefronts across the detection region, processing means arranged to analyse the detected electrical potentials to identify a plurality of wavefronts, and display means , wherein the processing means is further arranged, for each of the wavefronts, to define a series of update intervals over a transition period during which the wavefront crosses the detection region, and for each of the update intervals to determine a propagation direction, wherein the processing means is arranged to control the display means to generate and display an image indicative of the directions.
A housing for a ventilator or fan, in particular an axial ventilator, comprising an annular housing wall , which surrounds a flow channel comprising an inflow opening and an outflow opening , wherein the flow channel has a circular cross-section in a plane, which perpendicular to a center longitudinal axis (X-X), as well as a motor mount for an electric motor of the ventilator within the flow channel , wherein the flow channel has a first cylinder section connected to the inflow opening as well as a second frustoconical section , which is connected thereto with its small frustoconical surface and which expands towards the outflow opening , wherein the mount consists of a several struts , which are fastened with one end to the second frustoconical section and which run from an inner circumferential surface of the frustoconical section in the direction of the longitudinal axis (X-X), and which have mounting sections for the electric motor on their other internal ends, characterized in that fastening means of the housing wall are present in the area of the inflow opening for the connection to a connection part, as well as fastening means in the edge area of its outflow opening for a protective grating and fastening means for fastening an external diffusor to the housing wall in the area of the outflow opening .
Method for reconfiguring components which are arranged in a lighting system and in which software is stored, wherein, during the reconfiguration of a component , at least a portion of the software stored in the component is updated and/or additional software is stored in the component , wherein the reconfiguration takes place during the ongoing operation of the component , wherein at least a portion of the software involves fault diagnosis functions which diagnose and evaluate faults in the component or in devices connected to the component , characterized in that when a fault occurs in the component or devices connected to the component , the fault diagnosis functions are updated and/or additional fault diagnosis functions are stored in the component.
A method for managing a start time of media content in a receiver device, comprising: receiving , by a processor of the receiver device, media content labeled with a transmission time from a sending device; receiving, by the processor, a request for a byte range of the media content; determining, by the processor, a service construction delay for the requested byte range based on the transmission time from the sending device and a transport layer presentation time, the transport layer presentation time being an indication of the transmission time plus a service related delay specific to the byte range; determining, by the processor, a protocol stack delay of the byte range by: determining, by the processor, a local time of the receiver device; and comparing, by the processor, the transmission time with the local time of the receiver device; determining , by the processor, a time offset of the byte range based on the service construction delay and the protocol stack delay; and delivering , by the processor, the byte range to a streaming media client using the time offset . receiving , by a processor of the receiver device, media content labeled with a transmission time from a sending device; receiving, by the processor, a request for a byte range of the media content; determining, by the processor, a service construction delay for the requested byte range based on the transmission time from the sending device and a transport layer presentation time, the transport layer presentation time being an indication of the transmission time plus a service related delay specific to the byte range; determining, by the processor, a protocol stack delay of the byte range by: determining, by the processor, a local time of the receiver device; and comparing, by the processor, the transmission time with the local time of the receiver device; determining, by the processor, a local time of the receiver device; and comparing, by the processor, the transmission time with the local time of the receiver device; determining , by the processor, a time offset of the byte range based on the service construction delay and the protocol stack delay; and delivering , by the processor, the byte range to a streaming media client using the time offset .
A vehicular wheel comprising: an annular rim portion ; a hub portion disposed inside of the rim portion ; and a spoke portion that connects the rim portion and the hub portion , wherein the vehicular wheel includes: a wheel main body ; characterised in that a coating layer formed on a surface of the wheel main body by spraying, a surface of the coating layer having protrusions which are fine particles in shape and formed by spraying paint in the form of fine particles; the rim portion includes: a first decorated portion (50a-90a) that is formed by directly applying ink onto a surface of the coating layer , by printing and includes a pattern having a non-uniform length in a direction orthogonal to a circumferential direction of the rim portion ; and a second decorated portion (50b-90b) that is formed by directly applying ink onto the surface of the coating layer by printing, is arranged with the first decorated portion (50a-90a) in the circumferential direction of the rim portion , and includes the same pattern as the first decorated portion (50a-90a). an annular rim portion ; a hub portion disposed inside of the rim portion ; and a spoke portion that connects the rim portion and the hub portion , wherein the vehicular wheel includes: a wheel main body ; characterised in that a coating layer formed on a surface of the wheel main body by spraying, a surface of the coating layer having protrusions which are fine particles in shape and formed by spraying paint in the form of fine particles; a wheel main body ; characterised in that a coating layer formed on a surface of the wheel main body by spraying, a surface of the coating layer having protrusions which are fine particles in shape and formed by spraying paint in the form of fine particles; the rim portion includes: a first decorated portion (50a-90a) that is formed by directly applying ink onto a surface of the coating layer , by printing and includes a pattern having a non-uniform length in a direction orthogonal to a circumferential direction of the rim portion ; and a second decorated portion (50b-90b) that is formed by directly applying ink onto the surface of the coating layer by printing, is arranged with the first decorated portion (50a-90a) in the circumferential direction of the rim portion , and includes the same pattern as the first decorated portion (50a-90a). a first decorated portion (50a-90a) that is formed by directly applying ink onto a surface of the coating layer , by printing and includes a pattern having a non-uniform length in a direction orthogonal to a circumferential direction of the rim portion ; and a second decorated portion (50b-90b) that is formed by directly applying ink onto the surface of the coating layer by printing, is arranged with the first decorated portion (50a-90a) in the circumferential direction of the rim portion , and includes the same pattern as the first decorated portion (50a-90a).
A method for managing a traffic situation associated with a road user and a turning combination vehicle , the combination vehicle comprising a first vehicle unit and a second vehicle unit , the method comprising: - obtaining sensor data from a set of sensors , wherein the sensor data is indicative of traffic information from respective sides of the first and second vehicle units , wherein the traffic information is indicative of respective turning motions of the first and second vehicle units , and a position of the road user , - based on the respective turning motions of the first and second vehicle units , determining respective trajectories of the first and second vehicle units , - based on the determined trajectories, establishing a region of interest extending along the determined trajectories, wherein the region of interest is an area defined by a predefined distance from the determined trajectories, - determining whether the position of the road user is within the established region of interest , and - when the position of the road user is determined to be within the established region of interest , triggering a preventive action. - obtaining sensor data from a set of sensors , wherein the sensor data is indicative of traffic information from respective sides of the first and second vehicle units , wherein the traffic information is indicative of respective turning motions of the first and second vehicle units , and a position of the road user , - based on the respective turning motions of the first and second vehicle units , determining respective trajectories of the first and second vehicle units , - based on the determined trajectories, establishing a region of interest extending along the determined trajectories, wherein the region of interest is an area defined by a predefined distance from the determined trajectories, - determining whether the position of the road user is within the established region of interest , and - when the position of the road user is determined to be within the established region of interest , triggering a preventive action.
A peptide consisting of the amino acid sequence according to SEQ ID No. 14; or a pharmaceutically acceptable salt thereof.
A system for measuring respiratory function of a user, the system comprising: an optical sensing unit configured to: identify a torso of the user; detect movement of the torso with respect to the optical sensing unit; and output one or more signals indicative of the movement of the torso; an electronic device configured to provide a first request for the user to breathe at a first rate during a first time period and a second request for the user to breathe at a second rate during a second time period; and a processing unit programmed to: receive first signals generated by the optical sensing unit during the first time period based on the movement of the torso and determine a first respiration parameter using the first signals; receive second signals generated by the optical sensing unit during the second time period based on the movement of the torso and determine a second respiration parameter using the second signals; and determine a level of respiratory function based on the first respiration parameter and the second respiration parameter. an optical sensing unit configured to: identify a torso of the user; detect movement of the torso with respect to the optical sensing unit; and output one or more signals indicative of the movement of the torso; identify a torso of the user; detect movement of the torso with respect to the optical sensing unit; and output one or more signals indicative of the movement of the torso; an electronic device configured to provide a first request for the user to breathe at a first rate during a first time period and a second request for the user to breathe at a second rate during a second time period; and a processing unit programmed to: receive first signals generated by the optical sensing unit during the first time period based on the movement of the torso and determine a first respiration parameter using the first signals; receive second signals generated by the optical sensing unit during the second time period based on the movement of the torso and determine a second respiration parameter using the second signals; and determine a level of respiratory function based on the first respiration parameter and the second respiration parameter. receive first signals generated by the optical sensing unit during the first time period based on the movement of the torso and determine a first respiration parameter using the first signals; receive second signals generated by the optical sensing unit during the second time period based on the movement of the torso and determine a second respiration parameter using the second signals; and determine a level of respiratory function based on the first respiration parameter and the second respiration parameter.
An electrical contact alloy comprising: a mixture of copper particles and chromium particles; the copper particles to chromium particles relative to each other have a weight ratio of about 55:45; particles of a carbide present in an amount of up to 73 wt. % relative to the alloy; and sintering activation elements present in an amount of less than 0.5 wt. % to increase the density, wherein the sintering activation elements comprise cobalt, nickel, iron, nickel-iron, iron aluminide, or combinations thereof. a mixture of copper particles and chromium particles; the copper particles to chromium particles relative to each other have a weight ratio of about 55:45; particles of a carbide present in an amount of up to 73 wt. % relative to the alloy; and sintering activation elements present in an amount of less than 0.5 wt. % to increase the density, wherein the sintering activation elements comprise cobalt, nickel, iron, nickel-iron, iron aluminide, or combinations thereof.