mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, by a user equipment, UE, a signal indicating parameters of at least one first multiple access block, MAB type of MAB types, the parameters indicating at least a first sub-carrier spacing and a first symbol duration, and the MAB types comprises a second MAB type comprising at least a second sub-carrier spacing and a second symbol duration; and communicating, by the UE with an access point, AP, a first transmission in a first frequency partition of a carrier using the first sub-carrier spacing and the first symbol duration; the first sub-carrier spacing and the first symbol duration are used for communicating the first transmission in the first frequency partition, the second sub-carrier spacing and the second symbol duration are used for communicating a second transmission in a second frequency partition of the carrier, and the first sub-carrier spacing being a 2 or a 4 multiple of the second sub-carrier spacing denoted as Δf, characterized in that : the second symbol duration is two or four times the first symbol duration, and the method further comprises: receiving, by the UE from the AP, MAB region assignment semi-statically configured via a first signaling, wherein the MAB region assignment indicates a MAB region configuration. receiving, by a user equipment, UE, a signal indicating parameters of at least one first multiple access block, MAB type of MAB types, the parameters indicating at least a first sub-carrier spacing and a first symbol duration, and the MAB types comprises a second MAB type comprising at least a second sub-carrier spacing and a second symbol duration; and communicating, by the UE with an access point, AP, a first transmission in a first frequency partition of a carrier using the first sub-carrier spacing and the first symbol duration; the first sub-carrier spacing and the first symbol duration are used for communicating the first transmission in the first frequency partition, the second sub-carrier spacing and the second symbol duration are used for communicating a second transmission in a second frequency partition of the carrier, and the first sub-carrier spacing being a 2 or a 4 multiple of the second sub-carrier spacing denoted as Δf, characterized in that : the second symbol duration is two or four times the first symbol duration, and the method further comprises: receiving, by the UE from the AP, MAB region assignment semi-statically configured via a first signaling, wherein the MAB region assignment indicates a MAB region configuration.
Method for locating a pothole , wherein the method comprises at least the following steps: reading in first vehicle trajectory information representing a first movement of a first vehicle at a position; reading in at least one piece of second vehicle trajectory information representing a second movement of the first vehicle or of a second vehicle at the position; wherein the method is characterized by the steps of: comparing the first vehicle trajectory information with at least one piece of reference trajectory information in order to determine first pothole information; comparing the second vehicle trajectory information with the at least one piece of reference trajectory information in order to determine second pothole information; providing locating information indicating a position of a located pothole if the first pothole information and the second pothole information indicate a pothole ; wherein the at least one piece of reference trajectory information represents an evasion trajectory or a pothole crossing trajectory. reading in first vehicle trajectory information representing a first movement of a first vehicle at a position; reading in at least one piece of second vehicle trajectory information representing a second movement of the first vehicle or of a second vehicle at the position; wherein the method is characterized by the steps of: comparing the first vehicle trajectory information with at least one piece of reference trajectory information in order to determine first pothole information; comparing the second vehicle trajectory information with the at least one piece of reference trajectory information in order to determine second pothole information; providing locating information indicating a position of a located pothole if the first pothole information and the second pothole information indicate a pothole ; wherein the at least one piece of reference trajectory information represents an evasion trajectory or a pothole crossing trajectory. comparing the first vehicle trajectory information with at least one piece of reference trajectory information in order to determine first pothole information; comparing the second vehicle trajectory information with the at least one piece of reference trajectory information in order to determine second pothole information; providing locating information indicating a position of a located pothole if the first pothole information and the second pothole information indicate a pothole ; wherein the at least one piece of reference trajectory information represents an evasion trajectory or a pothole crossing trajectory.
Process for preparing a masterbatch comprising 20-90 wt% of a polymer additive dispersed in 10-80 wt% of a thermoplastic polymer, said process comprising the steps of: - providing the additive in liquid form, - optionally heating the additive, - adding solid particles of the thermoplastic polymer to the liquid additive, - heating the resulting mixture to a temperature in or above the melting temperature of the polymer, - treating the mixture with shaping equipment to form solid particles, wherein the addition of solid particles of thermoplastic polymer to the liquid additive and the heating of the resulting mixture are performed in a stirred vessel. - providing the additive in liquid form, - optionally heating the additive, - adding solid particles of the thermoplastic polymer to the liquid additive, - heating the resulting mixture to a temperature in or above the melting temperature of the polymer, - treating the mixture with shaping equipment to form solid particles, wherein the addition of solid particles of thermoplastic polymer to the liquid additive and the heating of the resulting mixture are performed in a stirred vessel.
A fitting for a component , in particular a wooden component, which has a groove with a groove base , which is concave in the form of a circular arc in longitudinal direction of the groove , and groove flanks in the form of circular segments, which fitting has a section with a face side , which is convex in the form of a circular arc in longitudinal direction , and two parallel lateral sides for insertion into the groove , wherein each lateral side is provided with at least one laterally protruding cutting edge in the form of a circular arc concentric to the face side , by means of which the fitting can be slid into the groove from its one end in a circular arc-shaped movement, and wherein the fitting is further configured to be detachably or non-detachably connected with a second fitting via its side facing away from said section , characterized in that the face side is provided with at least one cutting rib extending in the form of a circular arc in longitudinal direction .
A tray-like vehicle cover member comprising: a flat bottom plate ; an edge wall rising from a peripheral edge of the bottom plate ; and a flange that is connected to an upper end portion of the edge wall and provided with a plurality of fastening portions to be fastened to a vehicle, wherein the bottom plate has an annular groove formed in an intermediate portion between the peripheral edge and the center, and a plurality of radial grooves formed to extend radially from the annular groove toward the fastening portions , characterized in that the radial grooves , the annular groove and the fastening portions of the flange are connected to form an integrated body structure. a flat bottom plate ; an edge wall rising from a peripheral edge of the bottom plate ; and a flange that is connected to an upper end portion of the edge wall and provided with a plurality of fastening portions to be fastened to a vehicle, wherein the bottom plate has an annular groove formed in an intermediate portion between the peripheral edge and the center, and a plurality of radial grooves formed to extend radially from the annular groove toward the fastening portions , characterized in that the radial grooves , the annular groove and the fastening portions of the flange are connected to form an integrated body structure.
Illumination apparatus having a semiconductor laser device that is configured to generate a plurality of laser beams (11 to 16), and having at least one light wavelength conversion element that is configured to convert at least a portion of the light of the laser beams (11 to 16) into light having a different wavelength, and having an optical unit that is configured to direct the laser beams (11 to 16) onto a surface of the at least one light wavelength conversion element , wherein the optical unit has at least one mirror element that is able to be pivoted about at least one axis and is configured to guide the laser beams (11 to 16) over at least one surface section of the surface of the at least one light wavelength conversion element , and wherein the optical unit comprises means (7, 41 to 46, 51 to 56) for adjusting a divergence or expansion of the laser beams (11 to 16) along a slow axis (SA) or/and a fast axis (FA) of the laser beams (11 to 16) on the surface section of the surface of the at least one light wavelength conversion element , characterized in that the means comprise at least one aspherical optical element (41 to 46) for focusing the laser beams (11 to 16) along the fast axis (FA) of the laser beams (11 to 16) and at least one plano-concave cylindrical lens (51 to 56) that is arranged in the light beam path of at least one laser beam (11 to 16) for the purpose of expanding the laser beams (11 to 16) along the slow axis (SA) of at least one laser beam (11 to 16) and thus counteracts a focusing of the laser beams (11 to 16) along the slow axis caused by the at least one aspherical optical element (41 to 46).
Brick made of wood for producing a brick assembly, in particular brickwork, comprising two parallel brick walls delimiting a cavity, which are connected to one another with at least one web and are held to each other at a predetermined normal distance, wherein the brick walls and the web are each formed by at least one wooden panel, wherein the parallel brick walls at the edge comprise a rabbet for the overlapping of the brick walls of adjacent bricks and for the overlapping of the brick walls of bricks lying on top of one another, characterized in that the at least one web comprises a first form-locking element on at least one edge area and a second form-locking element on at least one opposite edge area, which can be brought into a form-locking connection with the first form-locking element of a brick arranged thereover or thereunder.
A laparoscopic tissue manipulator device comprising: a handle assembly ; an elongate body extending distally from the handle assembly, the elongate body including a proximal portion defining a first longitudinal axis and a distal portion defining a second longitudinal axis; a tool assembly supported on the distal portion of the elongate body, the tool assembly including fingers , each of the fingers including a body having an elongate U-shaped configuration with a blunt distal end and an open interior , each of the fingers being secured to the distal portion of the elongate body, the fingers having a contracted position in which the fingers are aligned with each other and with the second longitudinal axis and an expanded position in which the fingers are splayed outwardly at different angular positions in relation to the second longitudinal axis; and a cover supported on the each of the plurality of fingers to cover the open interior of the body of the fingers, characterized in that : the fingers are secured to the distal end of the elongate body about a first pivot member , the fingers being pivotable about an axis defined by the first pivot member from the contracted position to the expanded position; and the handle assembly includes a first actuator that is operably connected to the tool assembly and is movable to move the fingers between the contracted position and the expanded position. a handle assembly ; an elongate body extending distally from the handle assembly, the elongate body including a proximal portion defining a first longitudinal axis and a distal portion defining a second longitudinal axis; a tool assembly supported on the distal portion of the elongate body, the tool assembly including fingers , each of the fingers including a body having an elongate U-shaped configuration with a blunt distal end and an open interior , each of the fingers being secured to the distal portion of the elongate body, the fingers having a contracted position in which the fingers are aligned with each other and with the second longitudinal axis and an expanded position in which the fingers are splayed outwardly at different angular positions in relation to the second longitudinal axis; and a cover supported on the each of the plurality of fingers to cover the open interior of the body of the fingers, characterized in that : the fingers are secured to the distal end of the elongate body about a first pivot member , the fingers being pivotable about an axis defined by the first pivot member from the contracted position to the expanded position; and the handle assembly includes a first actuator that is operably connected to the tool assembly and is movable to move the fingers between the contracted position and the expanded position. the fingers are secured to the distal end of the elongate body about a first pivot member , the fingers being pivotable about an axis defined by the first pivot member from the contracted position to the expanded position; and the handle assembly includes a first actuator that is operably connected to the tool assembly and is movable to move the fingers between the contracted position and the expanded position.
A surgical system , comprising: an ultrasonic transducer ; an ultrasonic waveguide coupled to and extending distally from the ultrasonic transducer; and an ultrasonic blade disposed at a distal end of the ultrasonic waveguide and configured to receive ultrasonic energy produced by the ultrasonic transducer and transmitted along the ultrasonic waveguide to vibrate the ultrasonic blade for treating tissue therewith, the ultrasonic blade configured to connect to a source of electrosurgical energy for conducting electrosurgical energy to tissue to treat tissue, characterized in that the ultrasonic blade defines a lumen extending at least partially therethrough to at least one opening , the lumen configured for fluid communication with a fluid source to enable the delivery of fluid from the fluid source through the lumen and out the at least one opening into a surgical site to facilitate electrosurgical tissue treatment. an ultrasonic transducer ; an ultrasonic waveguide coupled to and extending distally from the ultrasonic transducer; and an ultrasonic blade disposed at a distal end of the ultrasonic waveguide and configured to receive ultrasonic energy produced by the ultrasonic transducer and transmitted along the ultrasonic waveguide to vibrate the ultrasonic blade for treating tissue therewith, the ultrasonic blade configured to connect to a source of electrosurgical energy for conducting electrosurgical energy to tissue to treat tissue, characterized in that the ultrasonic blade defines a lumen extending at least partially therethrough to at least one opening , the lumen configured for fluid communication with a fluid source to enable the delivery of fluid from the fluid source through the lumen and out the at least one opening into a surgical site to facilitate electrosurgical tissue treatment.
A method of processing waveforms in a communication system, comprising: converting a single-carrier waveform to a multi-carrier format; characterized by performing multi-carrier modulation on the converted single-carrier waveform to generate a first output waveform to meet a spectral mask for the communication system by changing a number of guard subbands and a pulse shaping response; and transmitting the generated first output waveform. converting a single-carrier waveform to a multi-carrier format; characterized by performing multi-carrier modulation on the converted single-carrier waveform to generate a first output waveform to meet a spectral mask for the communication system by changing a number of guard subbands and a pulse shaping response; and transmitting the generated first output waveform.
Ultrathin glass-ceramic article having an article thickness (t) of equal to or less than 0.3mm and an outer surface followed towards the inside of the article by an outer layer (A) and a central part (B), wherein the glass-ceramic comprises a crystal phase and an amorphous phase wherein the outer layer comprises crystal phase and - the volume proportion of the crystal phase in the outer layer (A) measured at or near the outer surface is different from the volume proportion of the crystal phase in the central part (B) so that the article has a gradient crystalline structure with an increasing or decreasing volume proportion of the crystal phase from the outer surface towards the central part (B) of the article , or - the volume proportion of the crystal phase in the outer layer (A) measured at or near the outer surface is different from the volume proportion of the crystal phase in the central part (B), wherein the outer layer (A) has an essentially homogeneous volume proportion of the crystal phase and the central part (B) comprises crystals with an essentially homogeneous volume proportion of the crystal phaseor the central part (B) consists of glass. - the volume proportion of the crystal phase in the outer layer (A) measured at or near the outer surface is different from the volume proportion of the crystal phase in the central part (B) so that the article has a gradient crystalline structure with an increasing or decreasing volume proportion of the crystal phase from the outer surface towards the central part (B) of the article , or - the volume proportion of the crystal phase in the outer layer (A) measured at or near the outer surface is different from the volume proportion of the crystal phase in the central part (B), wherein the outer layer (A) has an essentially homogeneous volume proportion of the crystal phase and the central part (B) comprises crystals with an essentially homogeneous volume proportion of the crystal phaseor the central part (B) consists of glass.
Method for cutting a watch crystal along a contour in a plate of transparent material, characterized in that the following steps are performed in succession and in the following order: - first step : realizing, on a first side of said plate , a first cut line on at least the inside of said contour , to form a first chamfer , for each of said crystals to be made from said plate ; - second step : turning over said plate and marking the position of said first chamfers and/or of at least one machined marking made during said first step of forming said first chamfers ; - third step : realizing on a second side of said plate , opposite to said first side , a second cut line on at least the inside of said contour , to form a second chamfer , in alignment with each said first cut line and each said first chamfer , for each of said crystals to be made from said plate ; - fourth step : separating said crystals from a skeleton of said plate by machining through said plate at each said contour of each said crystal to form an edge of said crystal . - first step : realizing, on a first side of said plate , a first cut line on at least the inside of said contour , to form a first chamfer , for each of said crystals to be made from said plate ; - second step : turning over said plate and marking the position of said first chamfers and/or of at least one machined marking made during said first step of forming said first chamfers ; - third step : realizing on a second side of said plate , opposite to said first side , a second cut line on at least the inside of said contour , to form a second chamfer , in alignment with each said first cut line and each said first chamfer , for each of said crystals to be made from said plate ; - fourth step : separating said crystals from a skeleton of said plate by machining through said plate at each said contour of each said crystal to form an edge of said crystal .
A crane vehicle comprising: an operation unit ; a winch device configured to operate at a speed corresponding to an operation amount of the operation unit , to wind up and feed out a wire rope to which a hook is fixed; a weight detection unit configured to detect a weight of a lifting load ; and a control unit , characterized in that : the crane vehicle comprises a storage unit configured to store a time-weight target characteristic indicating a target in temporal change of a detected value at the weight detection unit for a maximum operation amount input from the operation unit ; and the control unit configured to perform feedback control of an operation speed of the winch device such that the detected value follows the time-weight target characteristic in a case where the maximum operation amount is input from the operation unit , the control unit being configured to set the operation speed of the winch device at the speed corresponding to the operation amount of the operation unit , in a case where fluctuation of the detected value has converged in a predetermined range. an operation unit ; a winch device configured to operate at a speed corresponding to an operation amount of the operation unit , to wind up and feed out a wire rope to which a hook is fixed; a weight detection unit configured to detect a weight of a lifting load ; and a control unit , characterized in that : the crane vehicle comprises a storage unit configured to store a time-weight target characteristic indicating a target in temporal change of a detected value at the weight detection unit for a maximum operation amount input from the operation unit ; and the control unit configured to perform feedback control of an operation speed of the winch device such that the detected value follows the time-weight target characteristic in a case where the maximum operation amount is input from the operation unit , the control unit being configured to set the operation speed of the winch device at the speed corresponding to the operation amount of the operation unit , in a case where fluctuation of the detected value has converged in a predetermined range. the crane vehicle comprises a storage unit configured to store a time-weight target characteristic indicating a target in temporal change of a detected value at the weight detection unit for a maximum operation amount input from the operation unit ; and the control unit configured to perform feedback control of an operation speed of the winch device such that the detected value follows the time-weight target characteristic in a case where the maximum operation amount is input from the operation unit , the control unit being configured to set the operation speed of the winch device at the speed corresponding to the operation amount of the operation unit , in a case where fluctuation of the detected value has converged in a predetermined range.