mhurhangee/ep-ind-claims huggingface dataset:
A controller for a remotely piloted aircraft system (RPAS), wherein the controller is wearable by a pilot of the RPAS, the controller comprising: a global navigation satellite system (GNSS) receiver, configured to receive first position data from at least one satellite, the first position data indicating a position of the controller; a communication interface with the RPAS, configured to receive second position data from the RPAS, the second position data indicating a position of the RPAS; a compass configured to provide orientation data indicating an orientation of the controller towards a geographical reference direction; a processor configured to determine a relative direction of the RPAS towards the controller based on the first position data, the second position data and the orientation data, wherein the processor is configured to track the determined relative direction of the RPAS towards the controller based on movements of the pilot wearing the controller; and a graphical interface configured to provide a relative direction indicator providing a graphical indication of the relative direction of the RPAS towards the controller, characterized in that the communication interface is configured to transmit an alignment command to the RPAS, the alignment command comprising information on a specific direction for prompting the RPAS to align the RPAS with the specific direction, wherein the specific direction is based on an orientation of the controller, determined by the processor based on the orientation data provided by the compass. a global navigation satellite system (GNSS) receiver, configured to receive first position data from at least one satellite, the first position data indicating a position of the controller; a communication interface with the RPAS, configured to receive second position data from the RPAS, the second position data indicating a position of the RPAS; a compass configured to provide orientation data indicating an orientation of the controller towards a geographical reference direction; a processor configured to determine a relative direction of the RPAS towards the controller based on the first position data, the second position data and the orientation data, wherein the processor is configured to track the determined relative direction of the RPAS towards the controller based on movements of the pilot wearing the controller; and a graphical interface configured to provide a relative direction indicator providing a graphical indication of the relative direction of the RPAS towards the controller, characterized in that the communication interface is configured to transmit an alignment command to the RPAS, the alignment command comprising information on a specific direction for prompting the RPAS to align the RPAS with the specific direction, wherein the specific direction is based on an orientation of the controller, determined by the processor based on the orientation data provided by the compass.
An electric heating pot (100, 200, 200', 300, 400, 500) comprising a body unit (110, 210, 310, 410, 510) and a heating unit (150, 250, 350, 350, 450, 550) configured to provide heat to the body unit (110, 210, 310, 410, 510), wherein the body unit (110, 210, 310, 410, 510) comprises an accommodation space configured to accommodate liquid, the heating unit (150, 250, 350, 350, 450, 550) comprises a housing (151, 251, 351, 451, 551) formed such that electrolyzed water is disposed therein, and an electrode portion (152, 252, 352, 452, 552) that is disposed in the housing (151, 251, 351, 451, 551), formed such that at least one region thereof is in contact with the electrolyzed water in the housing (151, 251, 351, 451, 551), and includes a plurality of electrodes (152a, 252a, 352a, 452a, 552a, 152b, 252b, 352b, 452b, 552b), an insulating material layer is formed on an inner surface of the housing (151, 251, 351, 451, 551), which faces the electrode portion (152, 252, 352, 452, 552), to be in contact with the electrolyzed water and when the liquid is accommodated in the accommodation space of the body unit (110, 210, 310, 410, 510), the electrolyzed water is configured to overlap the accommodated liquid. the body unit (110, 210, 310, 410, 510) comprises an accommodation space configured to accommodate liquid, the heating unit (150, 250, 350, 350, 450, 550) comprises a housing (151, 251, 351, 451, 551) formed such that electrolyzed water is disposed therein, and an electrode portion (152, 252, 352, 452, 552) that is disposed in the housing (151, 251, 351, 451, 551), formed such that at least one region thereof is in contact with the electrolyzed water in the housing (151, 251, 351, 451, 551), and includes a plurality of electrodes (152a, 252a, 352a, 452a, 552a, 152b, 252b, 352b, 452b, 552b), an insulating material layer is formed on an inner surface of the housing (151, 251, 351, 451, 551), which faces the electrode portion (152, 252, 352, 452, 552), to be in contact with the electrolyzed water and when the liquid is accommodated in the accommodation space of the body unit (110, 210, 310, 410, 510), the electrolyzed water is configured to overlap the accommodated liquid.
Fastening device for fastening an additional component to a profile rail having a substantially C-shaped cross-section and a longitudinal slot, wherein the fastening device has a cover plate, a threaded plate having a threaded bore for anchoring the fastening device in the profile rail, a holding device with a receptacle for the threaded plate and with a radially projecting holding flange for support on the additional component, wherein the holding device is coupled in a torsionally rigid manner to the cover plate and the threaded plate, has a spring arranged between the cover plate and the holding device and a threaded rod which engages with an outer thread in the threaded bore and is supported on the cover plate, characterised in that on the cover plate are provided guiding projections which project in the direction of the threaded plate, which engage in a torsionally rigid and axially displaceable manner in corresponding guiding recesses in the holding device, and that the spring is supported directly on the cover plate.
A reflectometry method for identifying at least one fault affecting a cable at at least one point, characterized in that it comprises the following steps: - a step for estimating a parameter characteristic of the propagation of a signal propagating within said cable, amongst which are the attenuation α(f), the phase factor β(f), the reflection coefficient Γ in (f) seen at the input of the cable from which is subtracted an estimate of said reflection coefficient in the absence of faults or a function, linear or non-linear, of the any one of these parameters or of a combination of several of these parameters, said estimation being made as a function of the frequency of said signal based on a reflectogram of said signal, - a step for transformation of the estimate of said parameter from the frequency domain into the time domain, - a step (305, 306) for identification of the faults affecting said cable from the identification of the amplitude peaks of the estimate of said parameter transformed into the time domain. - a step for estimating a parameter characteristic of the propagation of a signal propagating within said cable, amongst which are the attenuation α(f), the phase factor β(f), the reflection coefficient Γ in (f) seen at the input of the cable from which is subtracted an estimate of said reflection coefficient in the absence of faults or a function, linear or non-linear, of the any one of these parameters or of a combination of several of these parameters, said estimation being made as a function of the frequency of said signal based on a reflectogram of said signal, - a step for transformation of the estimate of said parameter from the frequency domain into the time domain, - a step (305, 306) for identification of the faults affecting said cable from the identification of the amplitude peaks of the estimate of said parameter transformed into the time domain.
A device, comprising: a drive circuit configured to generate a drive signal, having a fundamental frequency; an electrothermal filter, ETF,, electrically coupled to the drive circuit, the ETF having a temperature-dependent time constant, wherein the ETF is configured to provide a signal having the fundamental frequency and a phase relative to the drive signal that is a function of the time constant; a second ETF, electrically coupled to the drive circuit, the second ETF having a second temperature-dependent time constant which is different than the time constant, wherein the second ETF is configured to provide a second signal having the fundamental frequency and a second phase relative to the drive signal that is a function of the second time constant; characterized by a phase detector, electrically coupled to the drive circuit, the ETF and the second ETF, configured to measure a phase-shift value that is a function of the phase and a second phase-shift value that is a function of the second phase, and configured to output a signal based on the phase-shift value and the second phase-shift value. a drive circuit configured to generate a drive signal, having a fundamental frequency; an electrothermal filter, ETF,, electrically coupled to the drive circuit, the ETF having a temperature-dependent time constant, wherein the ETF is configured to provide a signal having the fundamental frequency and a phase relative to the drive signal that is a function of the time constant; a second ETF, electrically coupled to the drive circuit, the second ETF having a second temperature-dependent time constant which is different than the time constant, wherein the second ETF is configured to provide a second signal having the fundamental frequency and a second phase relative to the drive signal that is a function of the second time constant; characterized by a phase detector, electrically coupled to the drive circuit, the ETF and the second ETF, configured to measure a phase-shift value that is a function of the phase and a second phase-shift value that is a function of the second phase, and configured to output a signal based on the phase-shift value and the second phase-shift value.
A chassis for a vehicle having a locally narrower portion within which is mounted at least one wheel, the wheel having a quiescent position, a thickness, an axis about which it rotates when in the quiescent position, and a substantially circular outer profile, the chassis further comprising a rigid member extending from the chassis toward the quiescent position of the wheel and ending at a point which is, when the wheel is in its quiescent position, spaced radially from the outer profile and located axially within the thickness of the wheel, characterised in that the rigidity of the rigid member provides a path for impact forces to be transmitted into the remainder of the chassis, and in that the structure of the chassis is defined by a plurality of tubular members (12, 14, 16) with planar members affixed thereto.
A measurement device, comprising: a sensing unit configured to sense a condition of an object to be measured; a plurality of output lines for outputting a sensing result of the sensing unit; and a control unit configured to apply voltages to the plurality of output lines based on the sensing result of the sensing unit, wherein the control unit performs self-failure diagnosis and outputs a result of the self-failure diagnosis with a combination of the voltages applied to the plurality of output lines. a sensing unit configured to sense a condition of an object to be measured; a plurality of output lines for outputting a sensing result of the sensing unit; and a control unit configured to apply voltages to the plurality of output lines based on the sensing result of the sensing unit, wherein the control unit performs self-failure diagnosis and outputs a result of the self-failure diagnosis with a combination of the voltages applied to the plurality of output lines.
A refrigerator comprising a body; a door provided on the body and having an open position wherein access into the body is allowed and a closed position wherein access into the body is prevented, and a locking mechanism which enables the door to be fixed to the body and locked in the closed position, wherein the locking mechanism comprises - a tongue which is disposed on the body and whereon a locking housing is provided, - a housing disposed on the door, - a movement member provided in the housing and suitable to be slidably moved by the user, and - a pin which is disposed in the housing and which is suitable to be moved by means of the movement member and which has a released position wherein the pin is almost completely in the housing and a locking position wherein the pin is pushed out of the housing by the movement mechanism so as to fit into the locking housing, characterized by the movement member which is arranged to be slid in a horizontal direction parallel to the door surface, and the pin being arranged to move vertically when the movement member is moved in the horizontal direction parallel to the door surface. - a tongue which is disposed on the body and whereon a locking housing is provided, - a housing disposed on the door, - a movement member provided in the housing and suitable to be slidably moved by the user, and - a pin which is disposed in the housing and which is suitable to be moved by means of the movement member and which has a released position wherein the pin is almost completely in the housing and a locking position wherein the pin is pushed out of the housing by the movement mechanism so as to fit into the locking housing, characterized by the movement member which is arranged to be slid in a horizontal direction parallel to the door surface, and the pin being arranged to move vertically when the movement member is moved in the horizontal direction parallel to the door surface.
Device for obstructing a floor opening (27, 27') in a slab (28, 28') of a building, comprising a substantially rectangular platform comprising four sides (2a-2d) and a substantially flat and continuous rectangular upper surface, extending in length in a longitudinal direction (I-I) and extending in width in a transverse direction (II-II), wherein: - the length of the platform in said longitudinal direction (I-I) is adjustable between a minimum length and a maximum length, - the width of the platform in said transverse direction (II-II) is adjustable between a minimum width and a maximum width, characterized in that a plurality of plates (4a, 4b, 5a-5d, 6a-6d), as one with the platform, are disposed overlapping one another so as to together form said substantially flat and continuous rectangular upper surface whatever the length and the width of the platform. - the length of the platform in said longitudinal direction (I-I) is adjustable between a minimum length and a maximum length, - the width of the platform in said transverse direction (II-II) is adjustable between a minimum width and a maximum width,
A method for operating circuit design computing equipment, comprising: with the circuit design computing equipment, receiving a circuit design description that includes a first portion (807, 810-840, 835, 880, 890) of the circuit design description operating in a first clock domain and a second portion (850; 950, 955) of the circuit design description operating in a second clock domain that is different than the first clock domain; and with the circuit design computing equipment, performing a register retiming operation; characterized in that the circuit design description further includes a synchronization region (899, 999) that couples said first portion (807, 810-840, 835, 880, 890) of the circuit design description to second portion (850; 950, 955) of the circuit design description; and the register retiming operation moves a register of a pipelined routing resource (300, 880, 890) in the first portion (807, 810-840, 835, 880, 890) of the circuit design description into the synchronization region (899, 999) by setting the pipelined routing resource (300, 880, 890) to operating in non-pipeline mode, and switching another pipelined routing resource (300; 860, 870; 960, 965, 970, 975) in the synchronization region (899, 999) from operating in non-pipeline mode to operating in pipeline register mode. with the circuit design computing equipment, receiving a circuit design description that includes a first portion (807, 810-840, 835, 880, 890) of the circuit design description operating in a first clock domain and a second portion (850; 950, 955) of the circuit design description operating in a second clock domain that is different than the first clock domain; and with the circuit design computing equipment, performing a register retiming operation; characterized in that the circuit design description further includes a synchronization region (899, 999) that couples said first portion (807, 810-840, 835, 880, 890) of the circuit design description to second portion (850; 950, 955) of the circuit design description; and the register retiming operation moves a register of a pipelined routing resource (300, 880, 890) in the first portion (807, 810-840, 835, 880, 890) of the circuit design description into the synchronization region (899, 999) by setting the pipelined routing resource (300, 880, 890) to operating in non-pipeline mode, and switching another pipelined routing resource (300; 860, 870; 960, 965, 970, 975) in the synchronization region (899, 999) from operating in non-pipeline mode to operating in pipeline register mode.
A plunger pump comprising: a pump body having a cylinder hole with a reduced diameter section and an expanded diameter section; a spherical lid member inserted by pressing in the expanded diameter section; a plunger disposed in a slidable manner in the reduced diameter section, and having one end defining, together with the lid member, a pump chamber, and the other end abutting on a drive member; a seal member held within the expanded diameter section and fit over the plunger; and a coiled spring disposed within the expanded diameter section, the coiled spring including: an effective winding section compressible and stretchable in the axial direction of the plunger; and a plunger-side seat winding section abutting on an end surface of the plunger, the plunger-side seat winding section having an outer diameter smaller than an outer diameter of the plunger; characterised in that the plunger pump further comprises a lid-side seat winding section abutting on a surface of the lid member, the lid-side seat winding section having an outer diameter larger than an outer diameter of the effective winding section and smaller than or equal to an inner diameter of the expanded diameter section. a pump body having a cylinder hole with a reduced diameter section and an expanded diameter section; a spherical lid member inserted by pressing in the expanded diameter section; a plunger disposed in a slidable manner in the reduced diameter section, and having one end defining, together with the lid member, a pump chamber, and the other end abutting on a drive member; a seal member held within the expanded diameter section and fit over the plunger; and a coiled spring disposed within the expanded diameter section, an effective winding section compressible and stretchable in the axial direction of the plunger; and a plunger-side seat winding section abutting on an end surface of the plunger, the plunger-side seat winding section having an outer diameter smaller than an outer diameter of the plunger; characterised in that the plunger pump further comprises a lid-side seat winding section abutting on a surface of the lid member, the lid-side seat winding section having an outer diameter larger than an outer diameter of the effective winding section and smaller than or equal to an inner diameter of the expanded diameter section.
A method for detecting collisions in an out-of-band communication channel, the method being implemented by a master device of an optical communications network comprising slave devices (141, 142, 143) connected to the master device via optical fiber, the optical communications network being adapted to enable in-band communications, the out-of-band communication channel being intended to enable transmissions of signalling information with respect to the in-band communications in the form of modulation symbols over successive symbol periods, collisions occur in the out-of-band communication channel when plural slave devices access the out-of-band communication channel by using respective carrier wavelengths that match each other, characterized in that the master device performs: - receiving a signal via the out-of-band communication channel; - oversampling the received signal starting from an instant of reception of said signal, so as to obtain samples thereof, by using a frequency that corresponds to a sampling frequency used for the in-band communications, or to a submultiple derived therefrom, such that the quantity of samples thus obtained per symbol period is enough high to consider that noise over the out-of-band communication channel is self-compensated over said quantity of samples; - checking (S402, S403; S503, S504; S603, S604) variations of magnitude of at least one parameter of the samples on a per symbol period basis, each said parameter being one parameter among amplitude, phase, and frequency and being chosen for checking said variations according to the modulation that was applied on said signal for transmission via the out-of-band communication channel; and - detecting (S404; S505; S605) a collision when the variations of each said parameter are greater than a predefined threshold equal to or greater than noise variance over the out-of-band communication channel regarding said parameter. - receiving a signal via the out-of-band communication channel; - oversampling the received signal starting from an instant of reception of said signal, so as to obtain samples thereof, by using a frequency that corresponds to a sampling frequency used for the in-band communications, or to a submultiple derived therefrom, such that the quantity of samples thus obtained per symbol period is enough high to consider that noise over the out-of-band communication channel is self-compensated over said quantity of samples; - checking (S402, S403; S503, S504; S603, S604) variations of magnitude of at least one parameter of the samples on a per symbol period basis, each said parameter being one parameter among amplitude, phase, and frequency and being chosen for checking said variations according to the modulation that was applied on said signal for transmission via the out-of-band communication channel; and - detecting (S404; S505; S605) a collision when the variations of each said parameter are greater than a predefined threshold equal to or greater than noise variance over the out-of-band communication channel regarding said parameter.