mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting fixture comprising: a plurality of light-emitting diode, LED, light sources (212, 222A/B, 232A/B/C) configured to generate a cumulative light emitted by the lighting fixture ; and a plurality of LED drivers (214, 224A/B, 234A/B/C) adapted to be coupled to a respective one of the LED light sources (212, 222A/B, 232A/B/C) and configured to control an intensity of the respective LED light source (212, 222A/B, 232A/B/C); wherein each of the plurality of LED drivers (214, 224A/B, 234A/B/C) is configured to have associated therewith an identical link address and to adjust the intensity of the respective LED light source (212, 222A/B, 232A/B/C) to a preset intensity in response to receiving at least one digital message comprising the identical link address and a preset command; wherein each of the plurality of LED drivers (214, 224A/B, 234A/B/C) is configured to have associated therewith a unique sub-address within the lighting fixture ; and wherein each of the plurality of LED drivers (214, 224A/B, 234A/B/C) is also configured to receive and respond to a digital message including the identical link address and the unique sub-address of the respective LED driver (214, 224A/B, 234A/B/C). a plurality of light-emitting diode, LED, light sources (212, 222A/B, 232A/B/C) configured to generate a cumulative light emitted by the lighting fixture ; and a plurality of LED drivers (214, 224A/B, 234A/B/C) adapted to be coupled to a respective one of the LED light sources (212, 222A/B, 232A/B/C) and configured to control an intensity of the respective LED light source (212, 222A/B, 232A/B/C); wherein each of the plurality of LED drivers (214, 224A/B, 234A/B/C) is configured to have associated therewith an identical link address and to adjust the intensity of the respective LED light source (212, 222A/B, 232A/B/C) to a preset intensity in response to receiving at least one digital message comprising the identical link address and a preset command; wherein each of the plurality of LED drivers (214, 224A/B, 234A/B/C) is configured to have associated therewith a unique sub-address within the lighting fixture ; and wherein each of the plurality of LED drivers (214, 224A/B, 234A/B/C) is also configured to receive and respond to a digital message including the identical link address and the unique sub-address of the respective LED driver (214, 224A/B, 234A/B/C).
A fitting for a thrust reverser link arm comprising: a base plate configured to be fastened to a proximal surface of an inner fixed structure ; a first wall extending orthogonally from the base plate ; a pin extending orthogonally from the first wall ; a second wall extending orthogonally from the base plate ; a removable member ; a first column located between the first wall and the second wall ; and a second column located between the first wall and the second wall ; characterised in that the removable member is attached to the second wall and the first column via a first fastener , the removable member located between the second wall and the first column , and wherein the removable member is attached to the second wall and the second column via a second fastener , the removable member located between the second wall and the second column . a base plate configured to be fastened to a proximal surface of an inner fixed structure ; a first wall extending orthogonally from the base plate ; a pin extending orthogonally from the first wall ; a second wall extending orthogonally from the base plate ; a removable member ; a first column located between the first wall and the second wall ; and a second column located between the first wall and the second wall ; characterised in that the removable member is attached to the second wall and the first column via a first fastener , the removable member located between the second wall and the first column , and wherein the removable member is attached to the second wall and the second column via a second fastener , the removable member located between the second wall and the second column .
A roof window for deep installation in a roof structure comprising a sash and a frame, said sash carrying a pane and being connected to the frame via hinges, and said frame being adapted for being connected to a load-bearing structure of a roof of a building, where each of the sash and the frame comprises two side members, a top member and a bottom member, where said frame members delimit a frame opening and said sash members delimit a sash opening, where each of the pane , the sash members and frame members has an interior side adapted for facing the interior of the building in the mounted state and an exterior side adapted for facing the exterior of the building in the mounted state, wherein an exterior side of the bottom frame member is inclined so that in the mounted and closed state of the roof window, said exterior side of the frame bottom member has a lower inclination than the exterior side of the pane, and wherein the window comprises a sash bottom covering and a frame bottom covering , which are both provided with a bend, so that a section extends towards the interior side characterized in that , in the mounted and closed state of the window, the exterior side of the frame bottom member is located in the interval between 0 mm and 30 mm above the exterior side of the pane measured in a direction perpendicularly to the exterior side of the pane.
A method performed by a network node for enabling a repeated transmission, the network node configured to communicate with a wireless device and to schedule a plurality of resources in a single scheduling message for the repeated transmission, the method comprising: determining (S134) a configuration for indicating a number of repetitions of the repeated transmission, the configuration corresponding to a Downlink Control Information, DCI, field wherein the configuration comprises a number of repetitions being provided by one or more values in the DCI field and at least one value of a number of repetitions being defined by a radio resource control, RRC, parameter; and enabling the configuration with a parameter in an RRC signaling message; and communicating (S135) a DCI message to the wireless device , characterised by the DCI message comprising a value in the DCI field indicating whether the number of repetitions is indicated within the DCI or defined by an RRC parameter. determining (S134) a configuration for indicating a number of repetitions of the repeated transmission, the configuration corresponding to a Downlink Control Information, DCI, field wherein the configuration comprises a number of repetitions being provided by one or more values in the DCI field and at least one value of a number of repetitions being defined by a radio resource control, RRC, parameter; and enabling the configuration with a parameter in an RRC signaling message; and communicating (S135) a DCI message to the wireless device , characterised by the DCI message comprising a value in the DCI field indicating whether the number of repetitions is indicated within the DCI or defined by an RRC parameter.
A device for containing a liquid or semi-liquid cosmetic or pharmaceutical product, the device comprising: - a closure comprising a product withdrawing conduit; - a rigid container having a first means for engaging with the closure, thereby closing the container; and - a cartridge enclosed within the rigid container, the cartridge having a second means for engaging with the closure, thereby forming a substantially airtight seal between the cartridge and the closure; wherein the cartridge comprises a biodegradable or recyclable rigid outer enclosing a collapsible liner , the collapsible liner defining a cavity for containing the product, wherein the product withdrawing conduit extends inside the cavity; and wherein the cartridge also comprises one or more further components for holding together the collapsible liner and the biodegradable or recyclable rigid outer, which is or are configured to restrict undesirable movement of the liner relative to the biodegradable or recyclable rigid outer when the rigid container is engaged with and/or disengaged from the closure, wherein the liner and biodegradable or recyclable rigid outer may still be deliberately decoupled from each other by a user for separate disposal, by means of removal or disengagement of the one or more further components; characterised in that the one or more further components comprise a ring, e.g. a screw-down ring , one or more clips, or a snap-off fastener, configured to engage with the biodegradable or recyclable rigid outer and to hold together the collapsible liner and the biodegradable or recyclable rigid outer. - a closure comprising a product withdrawing conduit; - a rigid container having a first means for engaging with the closure, thereby closing the container; and - a cartridge enclosed within the rigid container, the cartridge having a second means for engaging with the closure, thereby forming a substantially airtight seal between the cartridge and the closure;
A computer implemented method, said method comprising the following steps performed by one or more processors: selecting a game object, in an image, to be updated, the game object to be updated comprising illumination information, said image comprising a plurality of game objects; determining, for the selected game object, updated illumination information, the determining being dependent on respective illumination information for a subset of one or more, but not all, other game objects to be displayed in the image, wherein the subset comprises only directly adjacent game objects to the selected game object; and rendering on a display the selected game object with the determined updated illumination information. selecting a game object, in an image, to be updated, the game object to be updated comprising illumination information, said image comprising a plurality of game objects; determining, for the selected game object, updated illumination information, the determining being dependent on respective illumination information for a subset of one or more, but not all, other game objects to be displayed in the image, wherein the subset comprises only directly adjacent game objects to the selected game object; and rendering on a display the selected game object with the determined updated illumination information.
Exchangeable supply pack filled with a liquid product for connecting to a beverage dispensing machine , the supply pack including a dosing pump for dosing metered amounts of the liquid product, the dosing pump including an inlet adapted to be fluidly connected to a storage container and an output adapted to be connected to a beverage dispensing machine for receiving metered amounts of liquid product and to be brought into fluid connection with a beverage dispensing machine , characterized in that the dosing pump further includes a dosing chamber arranged for transferring a liquid from the inlet to the output , wherein the dosing chamber is at least partly filled with a liquid different from the liquid product.
A mobile-unit positioning device configured to observe, at a mobile unit , phases of pseudo noise codes carried on satellite signals from a plurality of satellites (10, 10 1 , 10 2 , 10 3 , 10 4 ) to measure a position of the mobile unit , the mobile-unit positioning device comprising: a pseudo-distance measuring part configured to measure a pseudo distance for every satellite (10, 10 1 , 10 2 , 10 3 , 10 4 ) between one of the plurality of satellites (10, 10 1 , 10 2 , 10 3 , 10 4 ) and the mobile unit during a stop of the mobile unit using an observed value of the pseudo noise code phase acquired during a stop of the mobile unit ; an error-index-value computing part configured to compute an error index value for every satellite (10, 10 1 , 10 2 , 10 3 , 10 4 ) indicating an error of the measured pseudo distance; a weighting-factor determining part configured to determine a weighting factor for every satellite (10, 10 1 , 10 2 , 10 3 , 10 4 ) based on the error index value for every satellite (10, 10 1 , 10 2 , 10 3 , 10 4 ) computed by the error-index-value computing part ; and a positioning computation part configured to perform a weighted positioning computation using the weighting factor for every satellite (10, 10 1 , 10 2 , 10 3 , 10 4 ) determined by the weighting-factor determining part, to determine a position of the mobile unit during movement using an observed value of the pseudo noise code phase acquired during movement of the mobile unit ; characterized in that said error index value is either a variance or a standard deviation of the errors of the pseudo distances measured by the pseudo-distance measuring part at a plurality of points in time during a stop of the mobile unit with respect to a position of the mobile unit immediately after the mobile unit stops. a pseudo-distance measuring part configured to measure a pseudo distance for every satellite (10, 10 1 , 10 2 , 10 3 , 10 4 ) between one of the plurality of satellites (10, 10 1 , 10 2 , 10 3 , 10 4 ) and the mobile unit during a stop of the mobile unit using an observed value of the pseudo noise code phase acquired during a stop of the mobile unit ; an error-index-value computing part configured to compute an error index value for every satellite (10, 10 1 , 10 2 , 10 3 , 10 4 ) indicating an error of the measured pseudo distance; a weighting-factor determining part configured to determine a weighting factor for every satellite (10, 10 1 , 10 2 , 10 3 , 10 4 ) based on the error index value for every satellite (10, 10 1 , 10 2 , 10 3 , 10 4 ) computed by the error-index-value computing part ; and a positioning computation part configured to perform a weighted positioning computation using the weighting factor for every satellite (10, 10 1 , 10 2 , 10 3 , 10 4 ) determined by the weighting-factor determining part, to determine a position of the mobile unit during movement using an observed value of the pseudo noise code phase acquired during movement of the mobile unit ;
A medical device , comprising: - a pre-filled syringe including a syringe body and a piston slidably mounted in the syringe body in an axial direction of displacement, the syringe body and the piston delimiting an inner chamber containing a fluid to be administered to a patient; and - a package in which the pre-filled syringe is disposed, the package including a first package portion and a second package portion movably mounted relative to each other between a storage configuration in which the first and second package portions prevent a removal of the pre-filled syringe out from the package , and an opening configuration in which the first and second package portions enable a removal of the pre-filled syringe out from the package , characterized in that the medical device is configured such that a displacement of the first and second package portions from the storage configuration to the opening configuration causes a displacement of the piston of the pre-filled syringe from a first piston position to a second piston position. - a pre-filled syringe including a syringe body and a piston slidably mounted in the syringe body in an axial direction of displacement, the syringe body and the piston delimiting an inner chamber containing a fluid to be administered to a patient; and - a package in which the pre-filled syringe is disposed, the package including a first package portion and a second package portion movably mounted relative to each other between a storage configuration in which the first and second package portions prevent a removal of the pre-filled syringe out from the package , and an opening configuration in which the first and second package portions enable a removal of the pre-filled syringe out from the package ,
A method , performed by a first client device (102-1) having one or more processors , memory storing one or more programs for execution by the one or more processors and one or more communication interfaces (104-1), including a near field communication transceiver , the method comprising: executing a plurality of actively running applications , each of the plurality of actively running applications having one or more checkpoints, each checkpoint identifying an execution breakpoint at which the respective application can be suspended and subsequently resumed on a second client device (102-2) as a second application; establishing a near field communication connection between the first client device (102-1) and the second client device (102-2) using the near field communication transceiver to detect a transfer triggering condition; upon detecting the triggering condition, waiting for a respective actively running application of the plurality of actively running applications to reach a checkpoint of the respective actively running application; upon detecting the respective actively running application entering the checkpoint, suspending the respective actively running application; storing an application state for each of the plurality of actively running applications, the stored application state for each respective application of the plurality of actively running applications corresponding to a checkpoint of the respective application; and transmitting the stored application state for each of the plurality of actively running applications to the second client device (102-2). executing a plurality of actively running applications , each of the plurality of actively running applications having one or more checkpoints, each checkpoint identifying an execution breakpoint at which the respective application can be suspended and subsequently resumed on a second client device (102-2) as a second application; establishing a near field communication connection between the first client device (102-1) and the second client device (102-2) using the near field communication transceiver to detect a transfer triggering condition; upon detecting the triggering condition, waiting for a respective actively running application of the plurality of actively running applications to reach a checkpoint of the respective actively running application; upon detecting the respective actively running application entering the checkpoint, suspending the respective actively running application; storing an application state for each of the plurality of actively running applications, the stored application state for each respective application of the plurality of actively running applications corresponding to a checkpoint of the respective application; and transmitting the stored application state for each of the plurality of actively running applications to the second client device (102-2).
An apparatus for treatment of transparent tissue of an eye by means of pulsed treatment laser radiation focused to target points in the tissue, pulsed treatment laser radiation having a pulse length of between 1 fs and 100 ps and for measuring the tissue , the apparatus comprising a laser radiation source, a deflection device , a focusing device and a detector device as well as a control device (PC) which controls the laser radiation source, the deflection device and the focusing device such that illumination laser radiation emitted by the laser radiation source is focused by the deflection device and the focusing device sequentially into several focus positions within the tissue , wherein the treatment laser radiation is configured to penetrate transparent regions of the eye , namely cornea, vitreous body and/or lens, and to generate optical breakthroughs in the focus in the transparent region and wherein the detector device emits tissue-specific signals induced by the focusing to the control device (PC), and wherein the control device (PC) assigns the signals to points of measurement the location in the tissue of which is defined by the respective focus position, and filters out points of measurement and thus determines positions of boundary layers and/or inclusions in the tissue, wherein the control device (PC) defines the target points for the focused treatment laser radiation on basis of the filtered-out points of measurement.
System comprising at least a first and a second mobile component, each of which can travel on a travel plane of a facility, the first mobile component having corner modules on its outer corner regions, the second mobile component likewise having corner modules on its outer corner regions, characterised in that each corner module each has such an electronic circuit, together with such transmitters and such receivers, that modulated light can be emitted by means of the transmitters, and modulated light can be detected and demodulated by means of the receivers, the receivers having different degrees of sensitivity to light from different spatial directions. the first mobile component having corner modules on its outer corner regions, the second mobile component likewise having corner modules on its outer corner regions, characterised in that each corner module each has such an electronic circuit, together with such transmitters and such receivers, that modulated light can be emitted by means of the transmitters, and modulated light can be detected and demodulated by means of the receivers, the receivers having different degrees of sensitivity to light from different spatial directions.
A system for intelligent power management in a vehicle , said system comprising: a fuel efficiency sensor measuring fuel efficiencies of said vehicle , said fuel efficiency sensor including a dynamometer sensing torques and revolutions per minute, RPMs, of an internal combustion engine, ICE ; a noise, vibration, and/or harshness, NVH, sensor measuring NVH levels of said vehicle ; and a measurement unit and map generator producing an efficiency map including: a plurality of fuel efficiency contours representing said fuel efficiencies of said vehicle , a fuel efficiency contour representing combinations of torques and RPMs of ICE at which the vehicle has the same or similar fuel efficiencies, a plurality of NVH level lines representing said NVH levels of said vehicle , and a plurality of power level curves representing power levels of said ICE . a fuel efficiency sensor measuring fuel efficiencies of said vehicle , said fuel efficiency sensor including a dynamometer sensing torques and revolutions per minute, RPMs, of an internal combustion engine, ICE ; a noise, vibration, and/or harshness, NVH, sensor measuring NVH levels of said vehicle ; and a measurement unit and map generator producing an efficiency map including: a plurality of fuel efficiency contours representing said fuel efficiencies of said vehicle , a fuel efficiency contour representing combinations of torques and RPMs of ICE at which the vehicle has the same or similar fuel efficiencies, a plurality of NVH level lines representing said NVH levels of said vehicle , and a plurality of power level curves representing power levels of said ICE . a plurality of fuel efficiency contours representing said fuel efficiencies of said vehicle , a fuel efficiency contour representing combinations of torques and RPMs of ICE at which the vehicle has the same or similar fuel efficiencies, a plurality of NVH level lines representing said NVH levels of said vehicle , and a plurality of power level curves representing power levels of said ICE .