mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: receiving , from a base station through first system information, a first frequency band indicator indicating a frequency band supported by the base station and second frequency band indicators indicating multiple frequency bands supported by the base station; identifying whether the first frequency band indicator and the second frequency band indicators include at least one frequency band supported by the terminal; selecting , in case that the second frequency band indicators include two or more frequency bands supported by the terminal, a frequency band indicated first among the two or more frequency bands; and attempting access to the base station based on the frequency band indicated first. receiving , from a base station through first system information, a first frequency band indicator indicating a frequency band supported by the base station and second frequency band indicators indicating multiple frequency bands supported by the base station; identifying whether the first frequency band indicator and the second frequency band indicators include at least one frequency band supported by the terminal; selecting , in case that the second frequency band indicators include two or more frequency bands supported by the terminal, a frequency band indicated first among the two or more frequency bands; and attempting access to the base station based on the frequency band indicated first.
A spacer for an insulating glazing unit which extends in a longitudinal direction (X) and comprises first and second fixing parts spaced apart from each other in a lateral direction (Y) and each intended to be attached to a sheet of glass of the insulating glazing unit by adhesive-bonding fixing means , and at least one transverse part connecting said first and second fixing parts and defining with them an inner space , the spacer comprising in the inner space a humidity-absorbing structure formed from at least one absorbent unit (41, 41a, 41b, 41c, 41d; 141; 241) fixed to one of the first and second fixing parts , the other of the first and second fixing parts not being in contact with the absorbent unit (41, 41a, 41b, 41c, 41d; 141; 241), said spacer being characterized in that said absorbing structure is an element or a set of elements which is self-supporting.
A method for improving user interaction with a virtual environment , the method comprising: presenting a virtual environment to a user; measuring a first position of the user's gaze relative to the virtual environment without presenting a marker or cursor to the user to indicate a position of the user's gaze location; receiving a system engagement input; upon receipt of the system engagement input, presenting a guidance cursor at the first position , the guidance cursor having a diameter related to a gaze cloud of the user's gaze locations measured over a period of time; receiving a target engagement input and decoupling the guidance cursor from the user's gaze; after receiving the target engagement input, receiving a movement input ; and translating the guidance cursor based on the movement input . presenting a virtual environment to a user; measuring a first position of the user's gaze relative to the virtual environment without presenting a marker or cursor to the user to indicate a position of the user's gaze location; receiving a system engagement input; upon receipt of the system engagement input, presenting a guidance cursor at the first position , the guidance cursor having a diameter related to a gaze cloud of the user's gaze locations measured over a period of time; receiving a target engagement input and decoupling the guidance cursor from the user's gaze; after receiving the target engagement input, receiving a movement input ; and translating the guidance cursor based on the movement input .
Extraction reactor, in particular for liquid extraction from granular material, comprising at least one vertically extending flow pipe (A) which has a plurality of horizontally configured heat exchanger elements (B) which fill the cross-section of the flow pipe completely or partially and which can be flowed through by the granular material and the extraction liquid , the plurality of heat exchanger elements subdividing the flow pipe (A) into individual vertical compartments , at least one top-side inlet for the granular material, at least one base-side outlet for the granular material, at least one base-side supply for extraction liquid and also at least one top-side outlet for extraction liquid , characterized in that a) a plurality of heat exchanger elements (B) are arranged to form groups of heat exchanger elements (B), wherein for each group the heat exchanger elements (B) connected successively in series are being flowed through, beginning with the vertically uppermost heat exchanger element (B) of each group, by a medium for the heat exchange or b) the plurality of heat exchanger elements (B), connected successively in series, is flowed through, beginning from the vertically uppermost heat exchanger element (B), by a medium for the heat exchange which is preferably the extraction liquid , the medium for the heat exchange, preferably the extraction liquid , being introduced into the extraction reactor via the base-side supply after passing through the last heat exchanger element (B). a) a plurality of heat exchanger elements (B) are arranged to form groups of heat exchanger elements (B), wherein for each group the heat exchanger elements (B) connected successively in series are being flowed through, beginning with the vertically uppermost heat exchanger element (B) of each group, by a medium for the heat exchange or b) the plurality of heat exchanger elements (B), connected successively in series, is flowed through, beginning from the vertically uppermost heat exchanger element (B), by a medium for the heat exchange which is preferably the extraction liquid , the medium for the heat exchange, preferably the extraction liquid , being introduced into the extraction reactor via the base-side supply after passing through the last heat exchanger element (B).
A trackside controller of at least one piece of trackside equipment of a railway network, comprising: - a processor , - a memory unit associated with the processor , and - and at least one communication port configured to be directly connected to the piece of trackside equipment , wherein said memory unit comprises a zone dedicated to storing a logic object representative of said at least one piece of trackside equipment , the logic object being executable by the processor and comprising: a plurality of logic rules defining the operation of said at least one piece of trackside equipment and characterized in that said logic object comprises at least two logic blocks (B1, B2, B3, B4, B5, B6, B7) representative of two separate parts of said at least one piece of trackside equipment and/or of two separate pieces of trackside equipment . - a processor , - a memory unit associated with the processor , and - and at least one communication port configured to be directly connected to the piece of trackside equipment ,
A grass mower, comprising: a vehicle body ; a raising/lowering mechanism ; a mower deck installed to the vehicle body so as to be capable of changing ground height through the raising/lowering mechanism , having a ceiling wall , and configured to create an internal space between the mower deck and the ground; a plurality of rotating shafts passing through the ceiling wall and extending upward, disposed in a side-by-side state; cutting blades respectively linked to the rotating shafts in the internal space; an electric motor mounted at a location to the lateral outside relative to a rotation path of the cutting blades within the mower deck , and having an output shaft extending upward; a power transmission mechanism positioned above the ceiling wall , and configured to transmit power from the output shaft to the rotating shafts ; a power supply unit configured to supply electrical power to the electric motor , wherein a motor mounting face configured to be mounted to the mower deck is provided at a lower end portion of the electric motor , the motor mounting face having a lower ground height than the ceiling wall , characterized in that a side wall extending downward from an outer circumferential edge of the ceiling wall , and a mounting base extending to the outside from the side wall , are provided in the mower deck , and the electric motor is mounted to the mounting base . a vehicle body ; a raising/lowering mechanism ; a mower deck installed to the vehicle body so as to be capable of changing ground height through the raising/lowering mechanism , having a ceiling wall , and configured to create an internal space between the mower deck and the ground; a plurality of rotating shafts passing through the ceiling wall and extending upward, disposed in a side-by-side state; cutting blades respectively linked to the rotating shafts in the internal space; an electric motor mounted at a location to the lateral outside relative to a rotation path of the cutting blades within the mower deck , and having an output shaft extending upward; a power transmission mechanism positioned above the ceiling wall , and configured to transmit power from the output shaft to the rotating shafts ; a power supply unit configured to supply electrical power to the electric motor , wherein a motor mounting face configured to be mounted to the mower deck is provided at a lower end portion of the electric motor , the motor mounting face having a lower ground height than the ceiling wall , characterized in that a side wall extending downward from an outer circumferential edge of the ceiling wall , and a mounting base extending to the outside from the side wall , are provided in the mower deck , and the electric motor is mounted to the mounting base .
A hyperspectral imaging system comprising: an optic ; first stacked waveguide plates (120 i ), the first stacked waveguide plates (120 i ) comprising a first plurality of waveguide plates (120 i ), stacked on top of one another, the stacked waveguide plates (120 i ) having an entrance end and an exit end opposite the entrance end ; a first slit located on the entrance end of the first stacked waveguide plates (120 i ), wherein the slit is configured to receive at least a portion of light (127 i ) which is output from the optic and the stacked waveguide plates (120 i ) are configured to output multiple dispersed lights (176 i ) at the exit end of the first stacked waveguide plates (120 i ); a spectral filter array configured to receive the dispersed lights (176 i ) from the first stacked waveguide plates (120 i ) and output multiple arrays of different wavelength filtered lights (178 i ); a detector array configured to receive the multiple arrays of different wavelength filtered lights (178 i ) from the spectral filter array and output multiple arrays of electrical signals (180 i ); and a controller coupled to the detector array , wherein the controller is configured to receive the multiple arrays of electrical signals (180 i ) from the detector array and combine the multiple arrays of electrical signals (180 i ) to generate a hyperspectral image , wherein the first stacked waveguide plates (120 i ) are positioned between the optic and the spectral filter array , and wherein the spectral filter array is positioned between the first stacked waveguide plates (120 i ) and the detector array . an optic ; first stacked waveguide plates (120 i ), the first stacked waveguide plates (120 i ) comprising a first plurality of waveguide plates (120 i ), stacked on top of one another, the stacked waveguide plates (120 i ) having an entrance end and an exit end opposite the entrance end ; a first slit located on the entrance end of the first stacked waveguide plates (120 i ), wherein the slit is configured to receive at least a portion of light (127 i ) which is output from the optic and the stacked waveguide plates (120 i ) are configured to output multiple dispersed lights (176 i ) at the exit end of the first stacked waveguide plates (120 i ); a spectral filter array configured to receive the dispersed lights (176 i ) from the first stacked waveguide plates (120 i ) and output multiple arrays of different wavelength filtered lights (178 i ); a detector array configured to receive the multiple arrays of different wavelength filtered lights (178 i ) from the spectral filter array and output multiple arrays of electrical signals (180 i ); and a controller coupled to the detector array , wherein the controller is configured to receive the multiple arrays of electrical signals (180 i ) from the detector array and combine the multiple arrays of electrical signals (180 i ) to generate a hyperspectral image , wherein the first stacked waveguide plates (120 i ) are positioned between the optic and the spectral filter array , and wherein the spectral filter array is positioned between the first stacked waveguide plates (120 i ) and the detector array .
A light emitting diode, LED , comprising: a base LED structure comprising: a first layer of semiconductor material comprising an associated first contact and a first surface through which light is emitted, wherein said first surface is at least partially roughened; a second layer of semiconductor material comprising an associated second contact , wherein a first surface of said associated second contact is in direct contact with said second layer of semiconductor material; an active region between said first layer and said second layer; at least one current confinement structure integral with and formed within at least one of said first or second layer of semiconductor material of said base LED structure, said current confinement structure adapted to direct current flowing toward said active region away from an area of said active region that is coincident with an area of said current confinement structure, wherein said current confinement structure is generally axially aligned with said first contact; and a submount adjacent a second surface of said second contact , such that said second contact is between said second layer of semiconductor material and said submount . a first layer of semiconductor material comprising an associated first contact and a first surface through which light is emitted, wherein said first surface is at least partially roughened; a second layer of semiconductor material comprising an associated second contact , wherein a first surface of said associated second contact is in direct contact with said second layer of semiconductor material; an active region between said first layer and said second layer; at least one current confinement structure integral with and formed within at least one of said first or second layer of semiconductor material of said base LED structure, said current confinement structure adapted to direct current flowing toward said active region away from an area of said active region that is coincident with an area of said current confinement structure, wherein said current confinement structure is generally axially aligned with said first contact; and a submount adjacent a second surface of said second contact , such that said second contact is between said second layer of semiconductor material and said submount .
Hydrocyclone assembly for the centrifugal separation of solids from a slurry, comprising: - at least one first hydrocyclone (2.1) which has a first separating chamber (3.1), a first inflow (4.1) which leads tangentially into the first separating chamber (3.1) and is intended for feeding the slurry into the first separating chamber (3.1), a first underflow (5.1) for discharging a separated-out heavy fraction and a first overflow pipe (6.1) for discharging a depleted slurry fraction, - at least one second hydrocyclone (2.2) which has a second separating chamber (3.2), a second inflow (4.2) which leads tangentially into the second separating chamber (3.2) and is intended for feeding the slurry into the second separating chamber (3.2), a second underflow (5.2) for discharging a separated-out heavy fraction and a second overflow pipe (6.2) for discharging a depleted slurry fraction, and - a common outlet for the depleted slurry fractions of both the at least one first hydrocyclone (2.1) and the at least one second hydrocyclone (2.2), characterized in that the common outlet is inside a common inlet housing of the hydrocyclone assembly , and the first overflow pipe (6.1) and the second overflow pipe (6.2) are assigned a respective deflection device (8.1, 8.2), which is inside the inlet housing and is designed to deflect the axially exiting depleted slurry fraction in a direction with a radial directional component, with the result that the depleted slurry fractions are introduced into the common outlet in each case with these radial directional components. - at least one first hydrocyclone (2.1) which has a first separating chamber (3.1), a first inflow (4.1) which leads tangentially into the first separating chamber (3.1) and is intended for feeding the slurry into the first separating chamber (3.1), a first underflow (5.1) for discharging a separated-out heavy fraction and a first overflow pipe (6.1) for discharging a depleted slurry fraction, - at least one second hydrocyclone (2.2) which has a second separating chamber (3.2), a second inflow (4.2) which leads tangentially into the second separating chamber (3.2) and is intended for feeding the slurry into the second separating chamber (3.2), a second underflow (5.2) for discharging a separated-out heavy fraction and a second overflow pipe (6.2) for discharging a depleted slurry fraction, and - a common outlet for the depleted slurry fractions of both the at least one first hydrocyclone (2.1) and the at least one second hydrocyclone (2.2), characterized in that
A method for avoiding accidents with following traffic during an automated parking procedure into a transverse parking space for a motor vehicle equipped with a parking assistance system having at least automatic transverse guidance, wherein the automated parking procedure comprises a parking movement into the transverse parking space in a reverse or forward direction, characterised in that, when required, the automated parking procedure then comprises at least one corrective movement in a forward or reverse direction, the method comprising the following steps: - by means of the parking assistance system, determining that there is a need for a corrective movement in a forward or reverse direction within the scope of the automated parking procedure; and - in response thereto and by means of the parking assistance system, preventing the vehicle from entering the transverse parking space to such a depth during the parking movement within the scope of the automated parking procedure that the driver would subsequently, at the beginning of the corrective movement in a forward or reverse direction, no longer have a clear view of the following traffic on account of a visual obstruction by a vehicle bounding the transverse parking space. - by means of the parking assistance system, determining that there is a need for a corrective movement in a forward or reverse direction within the scope of the automated parking procedure; and - in response thereto and by means of the parking assistance system, preventing the vehicle from entering the transverse parking space to such a depth during the parking movement within the scope of the automated parking procedure that the driver would subsequently, at the beginning of the corrective movement in a forward or reverse direction, no longer have a clear view of the following traffic on account of a visual obstruction by a vehicle bounding the transverse parking space.
Watercraft having at least one weapon barrel and at least one device for transporting and storing a weapon , wherein the device is configured for transporting a weapon from the device into a weapon barrel , wherein the device has a loading block , wherein the loading block is connectable to the weapon and the loading block is configured for moving the weapon during the transportation of the weapon , wherein the device has a thrust chain , wherein the thrust chain has links which mutually engage in a form-fitting manner, wherein the thrust chain is connected to the loading block , and wherein the loading block by means of the thrust chain is displaceable from the device into the weapon barrel , characterized in that the thrust chain stiffens when moved in a straight direction and in that the weapon barrel has a slotted tube , wherein the slotted tube is configured for carrying the thrust chain , the loading block , and the weapon .
A method comprising: receiving, by a playback device, an audio data stream; determining, via at least one orientation sensor of the playback device, a change in an orientation of the playback device from a first orientation to a second orientation, wherein the determining comprises (i) detecting a first rotation with respect to a first axis of the playback device, (ii) detecting a second rotation with respect to a second axis of the playback device, and (iii) comparing the first and second rotations to at least one value of hysteresis; routing, by the playback device, a first set of frequencies in the audio data stream to at least one of a plurality of speaker drivers when the playback device is in the first orientation; routing, by the playback device, a second set of frequencies in the audio data stream to the at least one of the plurality of speaker drivers when the playback device is in the second orientation, wherein the first set of frequencies is different than the second set of frequencies; reproducing a stereophonic sound based on the audio data stream via the plurality of speaker drivers when the playback device is in the first orientation; and reproducing a monaural sound based on the audio data stream via the plurality of speaker drivers when the playback device is determined to be in the second orientation. receiving, by a playback device, an audio data stream; determining, via at least one orientation sensor of the playback device, a change in an orientation of the playback device from a first orientation to a second orientation, wherein the determining comprises (i) detecting a first rotation with respect to a first axis of the playback device, (ii) detecting a second rotation with respect to a second axis of the playback device, and (iii) comparing the first and second rotations to at least one value of hysteresis; routing, by the playback device, a first set of frequencies in the audio data stream to at least one of a plurality of speaker drivers when the playback device is in the first orientation; routing, by the playback device, a second set of frequencies in the audio data stream to the at least one of the plurality of speaker drivers when the playback device is in the second orientation, wherein the first set of frequencies is different than the second set of frequencies; reproducing a stereophonic sound based on the audio data stream via the plurality of speaker drivers when the playback device is in the first orientation; and reproducing a monaural sound based on the audio data stream via the plurality of speaker drivers when the playback device is determined to be in the second orientation.