mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a housing including a window disposed in at least a partial area of the housing and forming at least a portion of an outer surface of the electronic device ; a touch screen display including an active area and a non-active area that face a first direction, the touch screen display being accommodated in the housing such that at least a portion of the touch screen display is visually exposed through the window ; at least one processor accommodated in the housing and electrically connected to the touch screen display ; a memory accommodated in the housing and electrically connected to the at least one processor; and a first optical layer including a first area between an edge region of the active area and the window and a second area between the non-active area and the window , an opaque layer disposed between the first optical layer and the non-active area , characterised in that the first area includes an optical pattern with a first bumpy structure for refracting light emitted from at least one pixel of the active area into a blind area of the window that corresponds to an opaque section of the opaque layer , and the opaque section of the opaque layer includes a second bumpy structure corresponding to the first optical pattern with the first bumpy structure . a housing including a window disposed in at least a partial area of the housing and forming at least a portion of an outer surface of the electronic device ; a touch screen display including an active area and a non-active area that face a first direction, the touch screen display being accommodated in the housing such that at least a portion of the touch screen display is visually exposed through the window ; at least one processor accommodated in the housing and electrically connected to the touch screen display ; a memory accommodated in the housing and electrically connected to the at least one processor; and a first optical layer including a first area between an edge region of the active area and the window and a second area between the non-active area and the window , an opaque layer disposed between the first optical layer and the non-active area , characterised in that the first area includes an optical pattern with a first bumpy structure for refracting light emitted from at least one pixel of the active area into a blind area of the window that corresponds to an opaque section of the opaque layer , and the opaque section of the opaque layer includes a second bumpy structure corresponding to the first optical pattern with the first bumpy structure .
An automated driving vehicle comprising a wheeled chassis and a cabin borne by the chassis , wherein the cabin can be separated from the chassis , characterized in that said vehicle comprises lifting means configured to lift the cabin from said chassis .
A jack stand including: a base ; a post including composite material formed via a pultrusion process and for extending from the base , the composite material including reinforcing fibres wound around the post to improve compressive strength, the reinforcing fibres being separately wound in both clock-wise and anticlockwise directions along the post to further improve compressive strength; and a top for topping the post and for engaging with a load. a base ; a post including composite material formed via a pultrusion process and for extending from the base , the composite material including reinforcing fibres wound around the post to improve compressive strength, the reinforcing fibres being separately wound in both clock-wise and anticlockwise directions along the post to further improve compressive strength; and a top for topping the post and for engaging with a load.
A method performed by a user equipment, UE, that is configured to perform carrier aggregation operations, the method comprising: identifying one carrier as an anchor carrier and at least one other carrier as a non-anchor carrier; attempting to decode a first downlink control information, DCI, message, associated with a system information, paging or random access Radio Network Temporary Identifier, RNTI, in a common search space of only the anchor carrier; attempting to decode a second DCI message, in a UE-specific search space of the anchor carrier; and attempting to decode a third DCI message, in a UE-specific search space of the at least one non-anchor carrier; the locations of the UE-specific search spaces of the anchor carrier and the at least one non-anchor carrier varying pseudo-randomly for different sub-frames. identifying one carrier as an anchor carrier and at least one other carrier as a non-anchor carrier; attempting to decode a first downlink control information, DCI, message, associated with a system information, paging or random access Radio Network Temporary Identifier, RNTI, in a common search space of only the anchor carrier; attempting to decode a second DCI message, in a UE-specific search space of the anchor carrier; and attempting to decode a third DCI message, in a UE-specific search space of the at least one non-anchor carrier; the locations of the UE-specific search spaces of the anchor carrier and the at least one non-anchor carrier varying pseudo-randomly for different sub-frames.
A method for detecting arc faults in a photovoltaic (PV) string connected to a load , wherein a voltage sensor and a current sensor are electrically connected to the PV string and operative to measure a voltage and current, respectively, supplied to the load, the method comprising: measuring, using the voltage sensor, a voltage output by the PV string over a prescribed time period to obtain a data set of voltage measurements; measuring, using the current sensor, a current output by the PV string over the prescribed time period to obtain a data set of current measurements; determining if the data set of voltage measurements and the data set of current measurements are simultaneously decreasing within the prescribed time period; analyzing the data set of current measurements and the data set of voltage measurements for the presence of pink noise within the prescribed time period; and concluding an arc fault has occurred when i) pink noise is present during the prescribed time period, and ii) at least a portion of the data set of voltage measurements and at least a portion of the data set of current measurements are simultaneously decreasing while pink noise is present. measuring, using the voltage sensor, a voltage output by the PV string over a prescribed time period to obtain a data set of voltage measurements; measuring, using the current sensor, a current output by the PV string over the prescribed time period to obtain a data set of current measurements; determining if the data set of voltage measurements and the data set of current measurements are simultaneously decreasing within the prescribed time period; analyzing the data set of current measurements and the data set of voltage measurements for the presence of pink noise within the prescribed time period; and concluding an arc fault has occurred when i) pink noise is present during the prescribed time period, and ii) at least a portion of the data set of voltage measurements and at least a portion of the data set of current measurements are simultaneously decreasing while pink noise is present. i) pink noise is present during the prescribed time period, and ii) at least a portion of the data set of voltage measurements and at least a portion of the data set of current measurements are simultaneously decreasing while pink noise is present.
A control module for controlling at least one function of a materials handling vehicle , comprising a base portion and a plurality of control elements (90A-90D) extending from the base portion and located adjacent to one another, at least one of the control elements (90A-90D) comprising: a body portion having a bottom surface ; and mounting structure , characterized in that the mounting structure comprises first and second mounting holes extending into the body portion from the bottom surface , the mounting holes being spaced apart from one another on the bottom surface for selectively receiving a mounting stem of the vehicle to mount the control element (90A-90D) in the vehicle , wherein the control element (90A-90D) is mountable in at least two positions including: a first position wherein the mounting stem is received in the first mounting hole ; and a second position wherein the mounting stem is received in the second mounting hole . a body portion having a bottom surface ; and mounting structure ,
A vehicle comprising: a magnet temperature estimating device; and a motor provided with a rotor having magnets and configured to output a rotational motive force, and a stator having a plurality of coils opposing the rotor with a gap therebetween, the device comprising: a sensor configured to detect an induced voltage induced in one of the plurality of coils by rotation of the rotor ; and a controller configured to control the motor by supplying power to the plurality of coils in response to an input of a detection signal from the sensor, and to determine whether demand torque of the motor is zero, characterized in that apertures adjacent to each magnet in a rotation direction of the rotor are formed in the rotor , and the controller is configured to estimate a temperature of one of the magnets based on the induced voltage detected when the one magnet opposes any one of the plurality of coils , according to the rotation of the rotor , if the demand torque of the motor is zero. a magnet temperature estimating device; and a motor provided with a rotor having magnets and configured to output a rotational motive force, and a stator having a plurality of coils opposing the rotor with a gap therebetween, the device comprising: a sensor configured to detect an induced voltage induced in one of the plurality of coils by rotation of the rotor ; and a controller configured to control the motor by supplying power to the plurality of coils in response to an input of a detection signal from the sensor, and to determine whether demand torque of the motor is zero, characterized in that apertures adjacent to each magnet in a rotation direction of the rotor are formed in the rotor , and the controller is configured to estimate a temperature of one of the magnets based on the induced voltage detected when the one magnet opposes any one of the plurality of coils , according to the rotation of the rotor , if the demand torque of the motor is zero. a sensor configured to detect an induced voltage induced in one of the plurality of coils by rotation of the rotor ; and a controller configured to control the motor by supplying power to the plurality of coils in response to an input of a detection signal from the sensor, and to determine whether demand torque of the motor is zero, characterized in that apertures adjacent to each magnet in a rotation direction of the rotor are formed in the rotor , and the controller is configured to estimate a temperature of one of the magnets based on the induced voltage detected when the one magnet opposes any one of the plurality of coils , according to the rotation of the rotor , if the demand torque of the motor is zero.
A settling device , comprising: a housing , comprising: an upper conical portion with at least one port ; a cylindrical portion ; and a lower conical portion with at least one port ; a stack of cones located within the housing , each cone of the stack of cones including a small opening at an apex of the cone and a large opening at a base of the cone, the small opening oriented towards one of the upper conical portion and the lower conical portion , the stack of cones having bodies that are concave inwardly toward and generally centered around a longitudinal axis of the settling device ; characterized by a diffuser including a ring positioned within the housing proximate to a lowermost cone of the stack of cones , wherein a body 540 of the lowermost cone is supported by the diffuser . a housing , comprising: an upper conical portion with at least one port ; a cylindrical portion ; and a lower conical portion with at least one port ; an upper conical portion with at least one port ; a cylindrical portion ; and a lower conical portion with at least one port ; a stack of cones located within the housing , each cone of the stack of cones including a small opening at an apex of the cone and a large opening at a base of the cone, the small opening oriented towards one of the upper conical portion and the lower conical portion , the stack of cones having bodies that are concave inwardly toward and generally centered around a longitudinal axis of the settling device ; characterized by a diffuser including a ring positioned within the housing proximate to a lowermost cone of the stack of cones , wherein a body 540 of the lowermost cone is supported by the diffuser .
Method for the continuous production of at least one steel profile hardened at least in a subsection (10.1, 10.2), in which a slit strip of steel is roll-formed into a profile strand and the profile strand is hardened in the subsection (10.1, 10.2), for which purpose the profile strand is heated in a first heating step to below Ac1, more particularly homogeneously, and the subsection (10.1, 10.2) of the profile strand is heated in a subsequent second heating step with the aid of a plurality of second gas burners to above Ac3 and then cooled at an accelerated rate, and the steel profile hardened in the subsection (10.1, 10.2) is separated from the profile strand , characterized in that in the second heating step, the second gas burners are arranged along the profile strand in rows (r1, r2, r3, r4) and transversely to the profile strand in columns (s1, s2, s3, s4) and are actuated in order to heat the subsection (10.1, 10.2) on the profile strand above Ac3.
A support channel assembly for supporting a bundle , the support channel assembly comprising: a support channel having a bottom , a long side , and a short side , wherein the long side and the short side each having a hook at a distal end; and at least one flange engaging the support channel, the at least one flange having a top , a bottom , a first side , and a second side , wherein the top defines a locking tie receiving area and the first side and the second side define a support channel engaging area, characterized in that the at least one flange has an opening in the first side dividing the first side into an upper side and a lower side , and the locking tie receiving area is a groove defined by the top, the upper side and the opening. a support channel having a bottom , a long side , and a short side , wherein the long side and the short side each having a hook at a distal end; and at least one flange engaging the support channel, the at least one flange having a top , a bottom , a first side , and a second side , wherein the top defines a locking tie receiving area and the first side and the second side define a support channel engaging area, characterized in that the at least one flange has an opening in the first side dividing the first side into an upper side and a lower side , and the locking tie receiving area is a groove defined by the top, the upper side and the opening.
A battery pack comprising a battery pack connector located in a pack case of the battery pack including a battery management system , the battery pack connector comprising: a communication connecting unit configured to be connectable to a communication wire (w2) for exchanging information with the battery management system ; and a power supply connecting unit configured to be connectable to a power supply wire (w1) for supplying driving power to the battery management system and having at least a portion including a noise blocking material. a communication connecting unit configured to be connectable to a communication wire (w2) for exchanging information with the battery management system ; and a power supply connecting unit configured to be connectable to a power supply wire (w1) for supplying driving power to the battery management system and having at least a portion including a noise blocking material.
An apparatus for analyzing flaws in a tubular member (T), comprising: a frame having first and second axially spaced side sections , each of said first and second side sections having first and second segments , said frame being adapted to be positioned around a tubular member (T); and a carousel rotatably mounted on said frame and adapted to be positioned around said tubular member (T), said carousel having third and fourth axially spaced side sections , each of said third and fourth side sections having fifth and sixth segments ; an x-ray source mounted on said carousel ; a flat panel x-ray detector (D) mounted on said carousel at a distance circumferentially spaced from said x-ray source , wherein said flat panel x-ray detector (D) is selectively movable radially inwardly and radially outwardly with respect to said third and fourth side sections of said carousel and/or wherein said flat panel x-ray detector (D) is selectively movable in a second direction parallel to said third and fourth side sections of said carousel ; and a drive assembly mounted on said frame and operatively connected to said carousel to rotate said carousel relative to said frame. a frame having first and second axially spaced side sections , each of said first and second side sections having first and second segments , said frame being adapted to be positioned around a tubular member (T); and a carousel rotatably mounted on said frame and adapted to be positioned around said tubular member (T), said carousel having third and fourth axially spaced side sections , each of said third and fourth side sections having fifth and sixth segments ; an x-ray source mounted on said carousel ; a flat panel x-ray detector (D) mounted on said carousel at a distance circumferentially spaced from said x-ray source , wherein said flat panel x-ray detector (D) is selectively movable radially inwardly and radially outwardly with respect to said third and fourth side sections of said carousel and/or wherein said flat panel x-ray detector (D) is selectively movable in a second direction parallel to said third and fourth side sections of said carousel ; and a drive assembly mounted on said frame and operatively connected to said carousel to rotate said carousel relative to said frame.
Submersible power plant for producing electrical power, the submersible power plant comprising an anchoring provided at a minimum depth Dmin and a vehicle comprising at least one wing , the vehicle being arranged to be secured to the anchoring by means of at least one tether rotatably attached to the anchoring by means of an anchoring coupling and attached to the vehicle by means of at least one vehicle coupling, the vehicle being arranged to move in a predetermined trajectory by means of a fluid stream passing the wing during operation of the submersible power plant , the vehicle being arranged to stay in a position essentially above the anchoring during non-operation of the submersible power plant , wherein the submersible power plant is completely submerged in a body of fluid both during operation and non-operation of the submersible power plant and wherein the tether has an unextended tether length (L) between 2 - 20 times a wingspan (W) of the wing , specifically between 3 - 12 times the wingspan (W) of the wing , more specifically between 5 - 10 times the wingspan (W) of the wing , characterized in that the tether is releasably attached to the anchoring coupling arranged to be releasable from the anchoring , wherein the anchoring coupling is movably attached to an anchor line running from the anchoring to a surface of the body of fluid , such that the anchoring coupling and tether can be brought to and from the surface , and in that the anchoring coupling is buoyant.
A method, comprising amplifying a radio frequency, RF, signal by a low noise amplifier, LNA, to generate an amplified RF signal; down-converting the amplified RF signal by a first mixer to generate a first low-frequency signal; amplifying and filtering the first low-frequency signal by a first trans-impedance filter to generate a first baseband signal, wherein the trans-impedance filter comprises a tunable inductor and capacitor, LC, network configured to be a portion of a LC ladder filter; and a trans-impedance amplifier, TIA, comprising an input coupled to the tunable LC network and configured to be open-loop; down-converting the amplified RF signal by a second mixer to generate a second low-frequency signal; and amplifying and filtering the second low-frequency signal by a second trans-impedance filter to generate a second baseband signal. amplifying a radio frequency, RF, signal by a low noise amplifier, LNA, to generate an amplified RF signal; down-converting the amplified RF signal by a first mixer to generate a first low-frequency signal; amplifying and filtering the first low-frequency signal by a first trans-impedance filter to generate a first baseband signal, wherein the trans-impedance filter comprises a tunable inductor and capacitor, LC, network configured to be a portion of a LC ladder filter; and a trans-impedance amplifier, TIA, comprising an input coupled to the tunable LC network and configured to be open-loop; a tunable inductor and capacitor, LC, network configured to be a portion of a LC ladder filter; and a trans-impedance amplifier, TIA, comprising an input coupled to the tunable LC network and configured to be open-loop; down-converting the amplified RF signal by a second mixer to generate a second low-frequency signal; and amplifying and filtering the second low-frequency signal by a second trans-impedance filter to generate a second baseband signal.
A sprayer, comprising: a sprayer casing , comprising a cavity for containing a liquid; a power module , connected to the sprayer casing and configured to energize the liquid in the cavity to make the liquid carry a first charge; and a spray nozzle , connected to the sprayer casing and configured to atomize the liquid with the first charge and spray it onto an external object with a second charge, wherein the first charge and the second charge are opposite; the spray nozzle comprises a transmission part and a spray component ; the spray component comprises a blade component and an outlet having an opening; the blade component comprises a fan blade and a connecting pipe ; and the fan blade is rotatable with respect to the transmission part ; characterized in that the fan blade is able to drive the outlet to rotate synchronously through the connecting pipe to form a vacuum inside the outlet ; and the outlet is flared towards an end of the outlet away from the blade component . a sprayer casing , comprising a cavity for containing a liquid; a power module , connected to the sprayer casing and configured to energize the liquid in the cavity to make the liquid carry a first charge; and a spray nozzle , connected to the sprayer casing and configured to atomize the liquid with the first charge and spray it onto an external object with a second charge, wherein the first charge and the second charge are opposite; the spray nozzle comprises a transmission part and a spray component ; the spray component comprises a blade component and an outlet having an opening; the blade component comprises a fan blade and a connecting pipe ; and the fan blade is rotatable with respect to the transmission part ; characterized in that the fan blade is able to drive the outlet to rotate synchronously through the connecting pipe to form a vacuum inside the outlet ; and the outlet is flared towards an end of the outlet away from the blade component .
A composition, comprising: (i) a lipid nanoparticle comprising a lipid membrane and an aqueous core; and (ii) a plurality of indocyanine green (ICG) molecules, wherein one or more of said ICG molecules is embedded in said lipid membrane, wherein at least about 95% of said ICG is embedded in said lipid membrane. (i) a lipid nanoparticle comprising a lipid membrane and an aqueous core; and (ii) a plurality of indocyanine green (ICG) molecules,