mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting system comprising: an array of lighting elements , each of said lighting elements having a configurable light output intensity; a controller operatively coupled to said array and configured to individually control the light output intensities of said lighting elements in order to generate a configurable light effect in a configurable location on the array, the configurable light effect having a configurable luminance distribution exhibiting a defined edge steepness, wherein: the controller is responsive to a control instruction, instructing the controller to migrate at a speed a current light effect in a first location to a second location spatially separated from the first location along a path between the first location and the second location; the lighting system being characterised in that : the controller is further adapted to reduce the edge steepness of the luminance distribution of the current light effect for the duration of its migration along said path only in the event that the speed at which said current light effect is to be migrated is below a threshold speed level. an array of lighting elements , each of said lighting elements having a configurable light output intensity; a controller operatively coupled to said array and configured to individually control the light output intensities of said lighting elements in order to generate a configurable light effect in a configurable location on the array, the configurable light effect having a configurable luminance distribution exhibiting a defined edge steepness, wherein: the controller is responsive to a control instruction, instructing the controller to migrate at a speed a current light effect in a first location to a second location spatially separated from the first location along a path between the first location and the second location; the lighting system being characterised in that : the controller is further adapted to reduce the edge steepness of the luminance distribution of the current light effect for the duration of its migration along said path only in the event that the speed at which said current light effect is to be migrated is below a threshold speed level.
A method for position-independent transmission and receipt of data with a large-capacity passenger aircraft , characterized by the steps of: installing at least one antenna in the commercial aircraft in close proximity of a window on the inside of the aircraft, said antenna being designed for communication with a flying communication hub , transmitting and/or receiving the data between at least the antenna and a flying communication hub during flight, and transmitting the data within the aircraft between the antenna and a routing means connected with the antenna , characterized in that the antenna is mounted in close proximity of the window such that a direct visual connection exists between the antenna and the communication hub through the window, so that the radio waves transmitted between the antenna and the communication hub are transmitted through the window. installing at least one antenna in the commercial aircraft in close proximity of a window on the inside of the aircraft, said antenna being designed for communication with a flying communication hub , transmitting and/or receiving the data between at least the antenna and a flying communication hub during flight, and transmitting the data within the aircraft between the antenna and a routing means connected with the antenna , characterized in that the antenna is mounted in close proximity of the window such that a direct visual connection exists between the antenna and the communication hub through the window, so that the radio waves transmitted between the antenna and the communication hub are transmitted through the window.
A light transmitter arrangement for transmitting transmission light into a monitored zone, said light transmitter arrangement comprising a light exit opening and a first light transmitter, which is configured to generate transmission light of a first wavelength, and a second light transmitter which is arranged spaced apart from the first light transmitter and which is configured to generate transmission light of a second wavelength which is different from the first wavelength, wherein a transmission light path extends between the light transmitters and the light exit opening and has a deflection element (112 - 512) having a front and a rear reflection surface which extend inclined with respect to one another, wherein the front reflection surface has a filter layer which reflects or transmits transmission light in dependence on its wavelength, and wherein the light transmitters and the deflection element (112 - 512) are designed and arranged such that transmission light generated by the first light transmitter is reflected at the front reflection surface and transmission light generated by the second light transmitter is reflected at the rear reflection surface such that the transmission light reflected at the reflection surfaces propagates along a common transmission light axis. wherein a transmission light path extends between the light transmitters and the light exit opening and has a deflection element (112 - 512) having a front and a rear reflection surface which extend inclined with respect to one another, wherein the front reflection surface has a filter layer which reflects or transmits transmission light in dependence on its wavelength, and wherein the light transmitters and the deflection element (112 - 512) are designed and arranged such that transmission light generated by the first light transmitter is reflected at the front reflection surface and transmission light generated by the second light transmitter is reflected at the rear reflection surface such that the transmission light reflected at the reflection surfaces propagates along a common transmission light axis.
A detector for use on a vehicle , the detector comprising: a radiation emitter having a near field region between the radiation emitter and a near field boundary that is defined at least in part by a wavelength of radiation emitted by the radiation emitter ; and a radiation steering device including a plurality of reflectors situated to reflect the radiation emitted by the radiation emitter , the plurality of reflectors being in the near field region, an actuator configured to adjust an orientation of the plurality of reflectors ; and a controller configured to determine an orientation of the plurality of reflectors relative to the radiation emitter to steer the emitted radiation reflected from the reflectors in a determined direction, the controller being configured to control the actuator to achieve the determined orientation, characterized by the plurality of reflectors having at least one characteristic that limits any phase shift of the emitted radiation reflected from the reflectors , the at least one characteristic comprising an index of refraction of a reflecting material of the reflectors and a thickness of the reflecting material, the index of refraction is less than 1, and the thickness is greater than a skin depth corresponding to a distance that the emitted radiation penetrates the reflecting material. a radiation emitter having a near field region between the radiation emitter and a near field boundary that is defined at least in part by a wavelength of radiation emitted by the radiation emitter ; and a radiation steering device including a plurality of reflectors situated to reflect the radiation emitted by the radiation emitter , the plurality of reflectors being in the near field region, an actuator configured to adjust an orientation of the plurality of reflectors ; and a controller configured to determine an orientation of the plurality of reflectors relative to the radiation emitter to steer the emitted radiation reflected from the reflectors in a determined direction, the controller being configured to control the actuator to achieve the determined orientation, a plurality of reflectors situated to reflect the radiation emitted by the radiation emitter , the plurality of reflectors being in the near field region, an actuator configured to adjust an orientation of the plurality of reflectors ; and a controller configured to determine an orientation of the plurality of reflectors relative to the radiation emitter to steer the emitted radiation reflected from the reflectors in a determined direction, the controller being configured to control the actuator to achieve the determined orientation, the plurality of reflectors having at least one characteristic that limits any phase shift of the emitted radiation reflected from the reflectors , the at least one characteristic comprising an index of refraction of a reflecting material of the reflectors and a thickness of the reflecting material, the index of refraction is less than 1, and the thickness is greater than a skin depth corresponding to a distance that the emitted radiation penetrates the reflecting material.
A drain assembly comprising: - an elongated channel member adapted for fixture in a floor, the channel member having a bottom and two side walls extending from the bottom, defining an interior of the channel member; - wherein the side walls of the channel member are provided with ridges and grooves extending in the longitudinal direction of the channel member, and - a cover adapted to cover the interior of the channel member; - a plurality of mounting elements adapted to be attached to the channel member for mounting the cover onto the top of the mounting elements in a position wherein the interior of the channel member is covered; - wherein each of the mounting elements comprises a body provided with four side surfaces , wherein two opposite side surfaces are provided with ridges and grooves mating with the ridges and grooves of the side walls of the channel member , whereby the mounting elements are attachable at predefined distances from the bottom of the channel member , and - wherein the distance between the opposite side surfaces provided with ridges and grooves corresponds to the distance between the side walls of the channel member , and wherein the distance between the other side surfaces of the body is less than the distance between the side walls of the channel member . - an elongated channel member adapted for fixture in a floor, the channel member having a bottom and two side walls extending from the bottom, defining an interior of the channel member; - wherein the side walls of the channel member are provided with ridges and grooves extending in the longitudinal direction of the channel member, and - a cover adapted to cover the interior of the channel member; - a plurality of mounting elements adapted to be attached to the channel member for mounting the cover onto the top of the mounting elements in a position wherein the interior of the channel member is covered; - wherein each of the mounting elements comprises a body provided with four side surfaces , wherein two opposite side surfaces are provided with ridges and grooves mating with the ridges and grooves of the side walls of the channel member , whereby the mounting elements are attachable at predefined distances from the bottom of the channel member , and - wherein the distance between the opposite side surfaces provided with ridges and grooves corresponds to the distance between the side walls of the channel member , and wherein the distance between the other side surfaces of the body is less than the distance between the side walls of the channel member .
A sensor assembly (60; 160; 260; 360) configured to couple to a differential case (15; 115; 215) of a locking differential , the sensor assembly configured to determine a position of an armature (46; 146; 346) in relation to a stator (38; 138), the armature moving relative to the stator between engaged and disengaged positions corresponding to the locking differential being in a locked and unlocked state, the sensor assembly comprising: a sensor housing (74; 174; 374); a switch element (70; 170; 370) disposed in the sensor housing (74; 174; 374); and a sense element (72; 172) that moves with the armature (46; 146; 346); wherein the sensor assembly (60; 160; 260; 360) is configured to change state based on a position of the sense element (72: 172). characterized in that the sensor housing (74; 174; 374) is coupled relative to the differential case (15; 115) of the locking differential; the sensor assembly comprises an arm (84; 184) that extends from one of the armature (46; 146; 346) and the stator (38; 138); and the arm (84; 184; 384) is configured for fixturing the sensor housing (74; 174; 374) to the arm during assembly such that the arm is a reference to align and locate the sensor housing when the sensor housing is inserted into the differential case (15; 115; 215). a sensor housing (74; 174; 374); a switch element (70; 170; 370) disposed in the sensor housing (74; 174; 374); and a sense element (72; 172) that moves with the armature (46; 146; 346); wherein the sensor assembly (60; 160; 260; 360) is configured to change state based on a position of the sense element (72: 172). characterized in that the sensor housing (74; 174; 374) is coupled relative to the differential case (15; 115) of the locking differential; the sensor assembly comprises an arm (84; 184) that extends from one of the armature (46; 146; 346) and the stator (38; 138); and the arm (84; 184; 384) is configured for fixturing the sensor housing (74; 174; 374) to the arm during assembly such that the arm is a reference to align and locate the sensor housing when the sensor housing is inserted into the differential case (15; 115; 215).
A method for displaying a graphical user interface in a viewing-angle-dependent manner on a dual-view display, with which, in a first viewing angle a first representation of image and/or operating contents is displayed, and in a second viewing angle a second representation of image and/or operating contents is displayed, wherein two spatially nested sub-images are generated for the two viewing angles and a first part of the image and/or operating elements are the same for the two viewing angles and a second part of the image and/or operating elements are different, characterized in that for the first part, all the image points of the dual-view display are used for displaying the image and/or operating elements per viewing angle, and for the second part only every second image point of the dual-view display is used per viewing angle.
An electronically self-balancing wheelchair which is equipped with at least two motor-driven wheels , a main controller for said motor-driven wheels that ensures the wheelchair's balance, drive and steering, in a balance mode and/or a motor speed mode, and a support system, said support system comprising at least a first support means which is displaceable to at least a number of positions between a completely retracted position and a completely extended position, said support means being provided with a ground contact element and a drive for moving said support means , said main controller including a support control means and the main controller being configured to transfer at least a part of the steering and control signals thereof for balancing, driving and steering the wheelchair also to the support control means , control elements for directly inputting control commands to the support control means being optionally positioned on the support system or on the wheelchair, and the support control means being configured to at least partially extend and retract at least one support means depending on the steering signals, control signals and any control commands, characterised in that said support means comprises a ground contact element embodied as a wheel and a steering link that form a parallelogram suspension of a support pole at whose ground-side end the axis of the ground contact element embodied as a wheel is located, a drive element being provided for pivoting said parallelogram suspension .
A method performed by a wireless device for transmitting Hybrid Automatic Repeat Request, HARQ, feedback to a base station via a Physical Uplink Control Channel, PUCCH, the method comprising: determining that the wireless device has been assigned a first PUCCH resource for transmitting HARQ feedback, wherein the first PUCCH resource is assigned from a plurality of PUCCH resources that are grouped into sets; changing , based on a size of a payload that the wireless device is preparing to send, from the first PUCCH resource to a second PUCCH resource, wherein the second PUCCH resource belongs to the same set as the first PUCCH resource, and wherein the second PUCCH resource has a larger or smaller payload capacity than the first PUCCH resource; and transmitting the HARQ feedback to the base station via the second PUCCH resource. determining that the wireless device has been assigned a first PUCCH resource for transmitting HARQ feedback, wherein the first PUCCH resource is assigned from a plurality of PUCCH resources that are grouped into sets; changing , based on a size of a payload that the wireless device is preparing to send, from the first PUCCH resource to a second PUCCH resource, wherein the second PUCCH resource belongs to the same set as the first PUCCH resource, and wherein the second PUCCH resource has a larger or smaller payload capacity than the first PUCCH resource; and transmitting the HARQ feedback to the base station via the second PUCCH resource.
An input unit capable of inputting sensor signals from a plurality of sensors , comprising: an analog-to-digital conversion unit that is disposed with respect to each of the plurality of sensors , acquires the sensor signal from each of the sensors and converts the sensor signal into a digital signal; and characterized in that a timing control unit that is configured to control the timing at which a plurality of the analog-to-digital conversion units acquire the sensor signals for each of the analog-to-digital conversion units according to a sampling period of each of the plurality of sensors , wherein the timing control unit variably controls the sampling period of each of the plurality of sensors for each of the sensors. an analog-to-digital conversion unit that is disposed with respect to each of the plurality of sensors , acquires the sensor signal from each of the sensors and converts the sensor signal into a digital signal; and characterized in that a timing control unit that is configured to control the timing at which a plurality of the analog-to-digital conversion units acquire the sensor signals for each of the analog-to-digital conversion units according to a sampling period of each of the plurality of sensors , wherein the timing control unit variably controls the sampling period of each of the plurality of sensors for each of the sensors.
An evaluation apparatus comprising: an acceptance unit configured to accept an input of communication data of a traffic session between Internet of Things (IoT) devices; and an evaluation unit configured to estimate a probability density of the input of communication data by combining a first probability density estimated by applying a first variational auto encoder model in which normal initial learning data has been learned and a second probability density estimated by applying a second variational auto encoder model in which normal excess detection data has been learned, wherein normal excess detection data is normal communication data that has been previously detected as abnormal in a course of evaluation processing, and to evaluate whether the input of communication data is normal or abnormal based on the estimated probability density of the input of communication data. an acceptance unit configured to accept an input of communication data of a traffic session between Internet of Things (IoT) devices; and an evaluation unit configured to estimate a probability density of the input of communication data by combining a first probability density estimated by applying a first variational auto encoder model in which normal initial learning data has been learned and a second probability density estimated by applying a second variational auto encoder model in which normal excess detection data has been learned, wherein normal excess detection data is normal communication data that has been previously detected as abnormal in a course of evaluation processing, and to evaluate whether the input of communication data is normal or abnormal based on the estimated probability density of the input of communication data.
Sports boot having a shell and an innerboot , said shell having a collar and extending upwards so as to at least partially enclose the lower leg of a user and having at least one device for clamping the user's lower leg, said clamping device comprising: - a first strap portion fastened to the shell with the aid of a first anchoring means , said first anchoring means being positioned on one of the sides, medial or lateral, of the boot, - a second strap portion , - means for pairing the first strap portion with the second strap portion , - means for adjusting the length of the first strap portion or of the second strap portion , characterized in that : - the clamping device comprises a second anchoring means , provided to optionally connect the second strap portion to the shell , said second anchoring means being positioned on the other of the sides, lateral or medial, and in that said second anchoring means can be placed in one of two different states: - a "connected" state in which the second anchoring means connects the second strap portion to the shell , - and a "disconnected" state in which the second anchoring means does not connect the second strap portion to the shell . - a first strap portion fastened to the shell with the aid of a first anchoring means , said first anchoring means being positioned on one of the sides, medial or lateral, of the boot, - a second strap portion , - means for pairing the first strap portion with the second strap portion , - means for adjusting the length of the first strap - the clamping device comprises a second anchoring means , provided to optionally connect the second strap portion to the shell , said second anchoring means being positioned on the other of the sides, lateral or medial, - a "connected" state in which the second anchoring means connects the second strap portion to the shell , - and a "disconnected" state in which the second anchoring means does not connect the second strap portion to the shell .