mhurhangee/patent-ind-claim-en huggingface dataset:
A monitoring system for a wayside signaling device comprising: a light emitting diode (LED) circuit comprising a LED array , a LED driver unit for driving the LED array , and a mechanism for connecting and disconnecting the LED circuit ; an optical light sensing circuit comprising at least one light-controlled variable resistor operably coupled to a resistor driver unit comprising relay functionality ; and a vital processing system , wherein the LED circuit and the optical light sensing circuit are operably connected to the vital processing system , and wherein the LED circuit and the sensing circuit are arranged such that the at least one light-controlled variable resistor monitors an output of the LED array , and that the relay functionality triggers the mechanism to connect or disconnect the LED circuit based on the output of the LED array , characterized in that for performing cold filament checks, the LED circuit further comprises a passive inductor arranged in series with the LED array , the passive inductor being configured to block any high frequency output of check signals provided by the vital processing unit , and a passive bandpass filter arranged in parallel with an output of the vital processing system , the passive bandpass filter being configured to check the continuity of the check pulses to an input of the vital processing unit . a light emitting diode (LED) circuit comprising a LED array , a LED driver unit for driving the LED array , and a mechanism for connecting and disconnecting the LED circuit ; an optical light sensing circuit comprising at least one light-controlled variable resistor operably coupled to a resistor driver unit comprising relay functionality ; and a vital processing system , wherein the LED circuit and the optical light sensing circuit are operably connected to the vital processing system , and wherein the LED circuit and the sensing circuit are arranged such that the at least one light-controlled variable resistor monitors an output of the LED array , and that the relay functionality triggers the mechanism to connect or disconnect the LED circuit based on the output of the LED array , characterized in that for performing cold filament checks, the LED circuit further comprises a passive inductor arranged in series with the LED array , the passive inductor being configured to block any high frequency output of check signals provided by the vital processing unit , and a passive bandpass filter arranged in parallel with an output of the vital processing system , the passive bandpass filter being configured to check the continuity of the check pulses to an input of the vital processing unit .
An imaging lens, the imaging lens, consisting of in an ordered way from an object side, an aperture stop; a first lens having positive (+) refractive power; a second lens having negative (-) refractive power; a third lens having positive (+) refractive power; a fourth lens having positive (+) refractive power: and a fifth lens having negative (-) refractive power, wherein the third lens takes a meniscus shape convexly formed to an object side, the imaging lens meets a conditional expression of 1.5 < N1 & N4 & N5 <1.6, and 1.6 < N2 & N3 < 1.7, where N1 to N5 are refractive indexes of the first to fifth lenses , and meets a conditional expression of 20 < V2 & V3 < 30, where Abbe' numbers of the second and third lenses is V2 and V3, and the fifth lens takes a meniscus shape convexly formed to the object side at an axial part of the imaging lens, characterized in that the imaging lens meets a conditional expression of 0.7 < (R3+R4)/(R3-R4) <1.0, where R3 and R4 are respectively a radius of curvature of first surface and second surface of the second lens . a first lens having positive (+) refractive power; a second lens having negative (-) refractive power; a third lens having positive (+) refractive power; a fourth lens having positive (+) refractive power: and a fifth lens having negative (-) refractive power, wherein the third lens takes a meniscus shape convexly formed to an object side, the imaging lens meets a conditional expression of 1.5 < N1 & N4 & N5 <1.6, and 1.6 < N2 & N3 < 1.7, where N1 to N5 are refractive indexes of the first to fifth lenses , and meets a conditional expression of 20 < V2 & V3 < 30, where Abbe' numbers of the second and third lenses is V2 and V3, and the fifth lens takes a meniscus shape convexly formed to the object side at an axial part of the imaging lens, characterized in that the imaging lens meets a conditional expression of 0.7 < (R3+R4)/(R3-R4) <1.0, where R3 and R4 are respectively a radius of curvature of first surface and second surface of the second lens .
A device for treating a hollow anatomical structure (HAS), the device comprising: a catheter shaft ; a balloon attached at one end of the catheter shaft ; and an expandable resistive element on the balloon , wherein the balloon is expandable to place the expandable resistive element in apposition with a wall of the HAS, characterized in that the expandable resistive element comprises a serpentine component extending circumferentially around the balloon and the catheter shaft . a catheter shaft ; a balloon attached at one end of the catheter shaft ; and an expandable resistive element on the balloon , wherein the balloon is expandable to place the expandable resistive element in apposition with a wall of the HAS, characterized in that the expandable resistive element comprises a serpentine component extending circumferentially around the balloon and the catheter shaft .
System for a safety device of a motor vehicle , having a fixed handle having a switching element , a lock which can be brought at least into a locking state and an unlocking state, a verification unit which, when the handle is activated, carries out an identification verification with a portable identification transmitter , wherein upon positive identification, the lock is electrically operable by the switching element whereby the state of the lock is changeable, and in the case of a negative identification, the lock is electrically decoupled from the switching element in such a way that a change of state of the lock is omitted when the switching element is actuated, wherein a first sensor element is provided which can be activated by a user, whereby the lock can be brought from the unlocking state into the locking state, the first sensor element having its own electronics with which the first sensor element represents an independent module, wherein the first sensor element can be fastened to the motor vehicle at a distance from the handle , in particular wherein the module can be fastened to the motor vehicle , preferably clipped-in, as an insert.
A remote control and monitoring system for a spa comprising: a spa comprising: at least one sensor for monitoring water condition or status of a spa component; and a communications interface comprising a cellular transceiver which wirelessly transmits information obtained from the at least one sensor of the spa to a central server over a cellular network; the central server in wireless communication with the spa and a portable computer device , wherein the central server is configured to: receive information from the at least one sensor of the spa over the cellular network; process the received information to determine one or more water condition parameters for water contained in the spa ; and generate a user interface displaying the one or more water condition parameters so that the one or more water condition parameters can be viewed by a user. a spa comprising: at least one sensor for monitoring water condition or status of a spa component; and a communications interface comprising a cellular transceiver which wirelessly transmits information obtained from the at least one sensor of the spa to a central server over a cellular network; the central server in wireless communication with the spa and a portable computer device , wherein the central server is configured to: receive information from the at least one sensor of the spa over the cellular network; process the received information to determine one or more water condition parameters for water contained in the spa ; and generate a user interface displaying the one or more water condition parameters so that the one or more water condition parameters can be viewed by a user. receive information from the at least one sensor of the spa over the cellular network; process the received information to determine one or more water condition parameters for water contained in the spa ; and generate a user interface displaying the one or more water condition parameters so that the one or more water condition parameters can be viewed by a user.
Combination of herbicides comprising (i) ethofumesate of formula (I) or salts thereof and (ii) 2-[(2,4-dichlorophenyl)methyl]-4,4-dimethyl-isoxazolidin-3-one of formula (II) or salts thereof (i) ethofumesate of formula (I) or salts thereof and (ii) 2-[(2,4-dichlorophenyl)methyl]-4,4-dimethyl-isoxazolidin-3-one of formula (II) or salts thereof
A heating device, comprising two preceding arcuate hot plates , of a two-sided machine (9; 9a), having a stand , - wherein the stand has a first arcuate hot plate with a first heat-conducting plate element which has an arcuate shape in cross section and in which a heating means is provided; - wherein the stand has a wall on which a sleeve is provided; - wherein a second arcuate hot plate is arranged above the first arcuate hot plate and has a second heat-conducting plate element which has an arcuate shape in cross section and in which a heating means is provided; - wherein a middle or a leading end of the second arcuate hot plate is connected to the sleeve by means of a connecting stem, wherein a rotary pair is formed between the second arcuate hot plate and the sleeve ; and - wherein the stand has a cylinder unit , the piston rod of which is connected to a trailing end of the second arcuate hot plate by means of a connecting rod , characterized in that - the first arcuate hot plate is configured such that it transmits heat within the first arcuate hot plate to the glue of a second corrugated-cardboard ply via the first corrugated-cardboard ply , and - the second arcuate hot plate is configured such that it transmits heat within the second arcuate hot plate to the second corrugated-cardboard ply 11 and simultaneously to the glue on the underside of a third corrugated-cardboard ply . - wherein the stand has a first arcuate hot plate with a first heat-conducting plate element which has an arcuate shape in cross section and in which a heating means is provided; - wherein the stand has a wall on which a sleeve is provided; - wherein a second arcuate hot plate is arranged above the first arcuate hot plate and has a second heat-conducting plate element which has an arcuate shape in cross section and in which a heating means is provided; - wherein a middle or a leading end of the second arcuate hot plate is connected to the sleeve by means of a connecting stem, wherein a rotary pair is formed between the second arcuate hot plate and the sleeve ; and - wherein the stand has a cylinder unit , the piston rod of which is connected to a trailing end of the second arcuate hot plate by means of a connecting rod , - the first arcuate hot plate is configured such that it transmits heat within the first arcuate hot plate to the glue of a second corrugated-cardboard ply via the first corrugated-cardboard ply , and - the second arcuate hot plate is configured such that it transmits heat within the second arcuate hot plate to the second corrugated-cardboard ply 11 and simultaneously to the glue on the underside of a third corrugated-cardboard ply .
A method comprising: identifying (S610) a frame of a spherical video as a key frame; storing (S620) a compensation component based on position data of a camera in association with the key frame; and compensating (S630) for a movement of the camera in a subsequent frame of the spherical video based on the key frame and the compensation component associated with the key frame; and determining whether the spherical video was captured as partial spherical data, and in response to determining the spherical video was captured as partial spherical data, set pixels of rows of the movement compensated subsequent frame outside a display region of a user device to a default value, the default value indicating to a rendering device that said rows contain blank data that is not to be replaced with image data. identifying (S610) a frame of a spherical video as a key frame; storing (S620) a compensation component based on position data of a camera in association with the key frame; and compensating (S630) for a movement of the camera in a subsequent frame of the spherical video based on the key frame and the compensation component associated with the key frame; and determining whether the spherical video was captured as partial spherical data, and in response to determining the spherical video was captured as partial spherical data, set pixels of rows of the movement compensated subsequent frame outside a display region of a user device to a default value, the default value indicating to a rendering device that said rows contain blank data that is not to be replaced with image data.
A method for operating a base station in a wireless communication system, the method comprising: identifying a transmission delay time of hybrid automatic repeat request, HARQ, feedback information for an uplink, UL, data packet received from a terminal; determining , a transmission beam index for transmitting the HARQ feedback information, based on comparing the identified transmission delay time of the HARQ feedback information for the UL data packet and a preset maximum delay time; determining , based on the transmission beam index, HARQ feedback channel resources for transmitting the HARQ feedback information; and transmitting the HARQ feedback information, based on the determined HARQ feedback channel resources and the transmission beam index. identifying a transmission delay time of hybrid automatic repeat request, HARQ, feedback information for an uplink, UL, data packet received from a terminal; determining , a transmission beam index for transmitting the HARQ feedback information, based on comparing the identified transmission delay time of the HARQ feedback information for the UL data packet and a preset maximum delay time; determining , based on the transmission beam index, HARQ feedback channel resources for transmitting the HARQ feedback information; and transmitting the HARQ feedback information, based on the determined HARQ feedback channel resources and the transmission beam index.
A method of processing video data, the method comprising: determining a value of a block-level escape flag that indicates, for all samples of a block of video data, whether at least one respective sample of the block is coded as an escape sample having a color value that is not included in a palette of colors for coding the block of video data, wherein the block of video data comprises a coding unit (CU) of video data, and wherein determining the value of the block-level escape flag comprises determining the value of the block-level escape flag for the CU; characterized by : conditionally coding the block-level escape flag for the CU based on a size of the CU, wherein conditionally coding the block-level escape flag for the CU comprises only coding the block-level escape flag when the size of the CU exceeds a threshold size; and coding the block of video data based on the value of the block-level escape flag. conditionally coding the block-level escape flag for the CU based on a size of the CU, wherein conditionally coding the block-level escape flag for the CU comprises only coding the block-level escape flag when the size of the CU exceeds a threshold size; and coding the block of video data based on the value of the block-level escape flag.
A method for determining training status of a user from plurality of exercises using a device with a heart rate sensor , a processor , memory , an output device and software, the determined training status being selected from a fixed group of alternatives each depicting a unique physical condition of the user, wherein each exercise has been monitored using the heart rate sensor obtaining heart rate data, and chosen exercise characteristics of each executed exercise are determined using obtained heart rate data, and the determined characteristics of each executed exercise are stored in the memory , wherein the status indication as a result is calculated using the determined characteristics stored in the memory, the result is presented to the user in the output device , wherein the chosen exercise characteristics includes values of the following variables: - a date of the exercise , - a value depicting physical readiness level for exercise during the exercise - a value depicting a training load of the exercise, characterized in that said physical readiness level is calculated as a fitness level in terms of V02max-value, and there are three selection rules with three selection variables, namely fitness level (VO2max) trend, weekly training load (WTL) and WTL trend, and when the plurality of exercises has been executed, values of the selection variables are calculated using the stored exercise characteristics in the memory , and the training status is determined using sequential pre-determined selection rules , each rule being connected to one said unique variable of said selection variables, wherein each selection rule uses a calculated value of its selection variable to limit a number of remaining alternatives and after all selection rules have been sequentially used, only one alternative is selected. - a date of the exercise , - a value depicting physical readiness level for exercise during the exercise - a value depicting a training load of the exercise,
A flame simulating device, comprising a mist generating chamber , an air orifice and a nozzle , wherein the nozzle is disposed above the mist generating chamber and the nozzle is elongated, the air orifice is disposed below the nozzle , the mist generating chamber is confined in a mist generating chamber housing , the mist generating chamber is provided with a mist outlet , the mist outlet , the air orifice and the nozzle communicate with each other, a light source , wherein the light source is disposed along the longitudinal direction of the nozzle and on one side or both sides of the nozzle and a transparent cover is disposed above the light source , characterized in that an air flow blown from the air orifice converges by an increasingly smaller width A of an air nozzle in the air orifice and is then discharged, and while flowing to the nozzle , the converging air flow adsorbs and leads the mist out of the mist outlet under the Venturi effect to discharge from the nozzle wherein an air duct is disposed to be connected to the air orifice , and a fan is disposed on a side wall and/or a bottom wall of the air duct , the mist outlet is disposed along a longitudinal direction of the nozzle and the nozzle is defined by nozzle walls on both sides in the longitudinal direction, and the surface of the nozzle wall is a smooth Coanda curved surface, at least the nozzle wall on one side of the light source is made of a transparent material, and light emitted from the light source is capable of irradiating on and above an outlet of the nozzle .
An apparatus for delivering a mechanical stimulus to the vestibulocochlear nerve of a patient, the apparatus comprising: at least one vibratory element adapted capable of delivering stimulus to the entire vestibulocochlear nerve comprising auditory stimulus between 0.1 Hz and about 40Hz and vibratory stimulus between about 0.3 Hz and about 15 Hz; and a microprocessor , operatively coupled to the vibratory element for controlling the delivery of stimuli via the at least one vibratory element, wherein the auditory and vibratory stimuli can be administered independently or combined. at least one vibratory element adapted capable of delivering stimulus to the entire vestibulocochlear nerve comprising auditory stimulus between 0.1 Hz and about 40Hz and vibratory stimulus between about 0.3 Hz and about 15 Hz; and a microprocessor , operatively coupled to the vibratory element for controlling the delivery of stimuli via the at least one vibratory element, wherein the auditory and vibratory stimuli can be administered independently or combined.
A display device comprising: a pixel array comprising a plurality of pixels , each of the pixels comprising a three sub-pixels ; a black matrix located between the sub-pixels ; an optical sensing array over the black matrix, the optical sensing array comprising a row conductor , a column conductor that crosses the row conductor at a crossing region, and a sensing diode coupled to the row conductor and to the column conductor at the crossing region, wherein the sensing diode is configured to generate current in response to light incident on the sensing diode ; a partial spectrum pass filter on the sensing diode , wherein the partial spectrum pass filter is configured to block a range of wavelengths of light from reaching the sensing diode , and is configured to allow a remaining range of wavelengths of light to reach the sensing diode ; a light emission array adjacent the optical sensing array , wherein the light emission array is configured to generate the remaining range of wavelengths of light; characterized in that one sensing diode is located between all of the three sub-pixels of a pixel. a pixel array comprising a plurality of pixels , each of the pixels comprising a three sub-pixels ; a black matrix located between the sub-pixels ; an optical sensing array over the black matrix, the optical sensing array comprising a row conductor , a column conductor that crosses the row conductor at a crossing region, and a sensing diode coupled to the row conductor and to the column conductor at the crossing region, wherein the sensing diode is configured to generate current in response to light incident on the sensing diode ; a partial spectrum pass filter on the sensing diode , wherein the partial spectrum pass filter is configured to block a range of wavelengths of light from reaching the sensing diode , and is configured to allow a remaining range of wavelengths of light to reach the sensing diode ; a light emission array adjacent the optical sensing array , wherein the light emission array is configured to generate the remaining range of wavelengths of light; characterized in that one sensing diode is located between all of the three sub-pixels of a pixel.