mhurhangee/ep-ind-claims huggingface dataset:
A controller for controlling behavior of a straddle-type vehicle, the controller comprising: an acquisition section that acquires trigger information during travel of the straddle-type vehicle; and an execution section that initiates a control mode according to the trigger information, in the control mode, behavior control operation to make the straddle-type vehicle automatically decelerate or automatically accelerate being performed, wherein the acquisition section further acquires lateral acceleration information of the traveling straddle-type vehicle, in the control mode, the execution section changes the behavior control operation according to the lateral acceleration information, which is acquired by the acquisition section, and in the control mode, at an initiation of the automatic deceleration or the automatic acceleration, or during the execution of the automatic deceleration or the automatic acceleration, the execution section changes a second-order differential value of a vehicle body speed according to the lateral acceleration information. an acquisition section that acquires trigger information during travel of the straddle-type vehicle; and an execution section that initiates a control mode according to the trigger information, in the control mode, behavior control operation to make the straddle-type vehicle automatically decelerate or automatically accelerate being performed, wherein the acquisition section further acquires lateral acceleration information of the traveling straddle-type vehicle, in the control mode, the execution section changes the behavior control operation according to the lateral acceleration information, which is acquired by the acquisition section, and in the control mode, at an initiation of the automatic deceleration or the automatic acceleration, or during the execution of the automatic deceleration or the automatic acceleration, the execution section changes a second-order differential value of a vehicle body speed according to the lateral acceleration information.
A process for the preparation of difluoroacetic acid comprising the step of: - reacting tetrafluoroethylene with an aqueous solution of an inorganic base to obtain a difluoroacetic acid salt, wherein the inorganic base is selected from the group consisting of alkaline and alkaline earth metal carbonates, alkaline and alkaline earth metal bicarbonates, alkaline and alkaline earth metal hydroxides, alkaline and alkaline earth metal oxides, alkaline and alkaline earth metal phosphates, alkaline and alkaline earth metal hydrogen phosphates and - hydrolyzing said difluoroacetic acid salt to obtain difluoroacetic acid - reacting tetrafluoroethylene with an aqueous solution of an inorganic base to obtain a difluoroacetic acid salt, wherein the inorganic base is selected from the group consisting of alkaline and alkaline earth metal carbonates, alkaline and alkaline earth metal bicarbonates, alkaline and alkaline earth metal hydroxides, alkaline and alkaline earth metal oxides, alkaline and alkaline earth metal phosphates, alkaline and alkaline earth metal hydrogen phosphates and - hydrolyzing said difluoroacetic acid salt to obtain difluoroacetic acid
A system for adjusting resource configuration, comprising: a radio network controller configured to send configuration information of an uplink common enhanced dedicated transport channel E-DCH resource pool to a base station, wherein the configuration information of an uplink common E-DCH resource pool comprises information of a first resource pool to which a first transmission time interval corresponds and information of a second resource pool to which a second transmission time interval corresponds; and the base station configured to send indication information according to usage of the resource pool to the radio network controller; and wherein the radio network controller is further configured to adjust configuration of the first resource pool according to the indication information. a radio network controller configured to send configuration information of an uplink common enhanced dedicated transport channel E-DCH resource pool to a base station, wherein the configuration information of an uplink common E-DCH resource pool comprises information of a first resource pool to which a first transmission time interval corresponds and information of a second resource pool to which a second transmission time interval corresponds; and the base station configured to send indication information according to usage of the resource pool to the radio network controller; and wherein the radio network controller is further configured to adjust configuration of the first resource pool according to the indication information.
A lighting apparatus comprising: a light source; a reflector having a first reflection surface with a shape of a surface of revolution, and a downward light emission outlet through which direct light from the light source and reflection light from the first reflection surface being emitted; and a cone having a substantially truncated conical second reflection surface, an upper opening opposing the light emission outlet, and a lower opening having a diameter greater than a diameter of the upper opening, wherein the cone is disposed outside an optical path of controlled reflection light from the first reflection surface, in a cross section cut along a plane including an optical axis of the light source, a line connecting an inner periphery edge (c) of the upper opening and an inner periphery edge (b) of the lower opening, which are respectively located on one side with respect to the optical axis, is defined as a first reference line, and a line connecting an inner periphery edge (c) of the upper opening and an inner periphery edge (b) of the lower opening, which are respectively located on the other side with respect to the optical axis, is defined as a second reference line, wherein the light source has a planar light-emitting surface, characterised in that the light-emitting surface is disposed in a region interposed between the first reference line and the second reference line, after the first reference line and the second reference line extend from a cone side to a reflector side and then intersect with each other. a light source; a reflector having a first reflection surface with a shape of a surface of revolution, and a downward light emission outlet through which direct light from the light source and reflection light from the first reflection surface being emitted; and a cone having a substantially truncated conical second reflection surface, an upper opening opposing the light emission outlet, and a lower opening having a diameter greater than a diameter of the upper opening, wherein the cone is disposed outside an optical path of controlled reflection light from the first reflection surface, in a cross section cut along a plane including an optical axis of the light source, a line connecting an inner periphery edge (c) of the upper opening and an inner periphery edge (b) of the lower opening, which are respectively located on one side with respect to the optical axis, is defined as a first reference line, and a line connecting an inner periphery edge (c) of the upper opening and an inner periphery edge (b) of the lower opening, which are respectively located on the other side with respect to the optical axis, is defined as a second reference line, wherein the light source has a planar light-emitting surface, characterised in that the light-emitting surface is disposed in a region interposed between the first reference line and the second reference line, after the first reference line and the second reference line extend from a cone side to a reflector side and then intersect with each other.
A method for simultaneously verifying amplitude and temperature parameters of an electrical-acoustic conversion device, characterized by comprising steps of: inputting a sweep signal to the electrical-acoustic conversion device; the sweep signal is a sine sweep signal with a frequency range of 100Hz-20kHz; testing amplitude of the electrical-acoustic conversion device while adjusting a gain of a whole frequency band of the sweep signal until the maximum value of the tested amplitude is a maximum amplitude parameter Xmax, and testing temperature of a voice coil at this moment; and if the tested temperature of the voice coil at this moment is the highest temperature parameter Tmax of the voice coil, maintaining the gain of the sweep signal for a predetermined period of time and then testing performance of the electrical-acoustic conversion device; if the tested temperature of the voice coil at this moment is higher or lower than Tmax, gradually reducing or increasing the gain of the sweep signal in a frequency band above a gain improvement frequency point until the tested temperature of the voice coil is Tmax, and then maintaining the gain of the sweep signal for a predetermined period of time and then testing the performance of the electrical-acoustic conversion device, wherein the gain improvement frequency point is greater than a resonance frequency F0 of the electrical-acoustic conversion device. inputting a sweep signal to the electrical-acoustic conversion device; the sweep signal is a sine sweep signal with a frequency range of 100Hz-20kHz; testing amplitude of the electrical-acoustic conversion device while adjusting a gain of a whole frequency band of the sweep signal until the maximum value of the tested amplitude is a maximum amplitude parameter Xmax, and testing temperature of a voice coil at this moment; and if the tested temperature of the voice coil at this moment is the highest temperature parameter Tmax of the voice coil, maintaining the gain of the sweep signal for a predetermined period of time and then testing performance of the electrical-acoustic conversion device; if the tested temperature of the voice coil at this moment is higher or lower than Tmax, gradually reducing or increasing the gain of the sweep signal in a frequency band above a gain improvement frequency point until the tested temperature of the voice coil is Tmax, and then maintaining the gain of the sweep signal for a predetermined period of time and then testing the performance of the electrical-acoustic conversion device, wherein the gain improvement frequency point is greater than a resonance frequency F0 of the electrical-acoustic conversion device.
An antenna element used for a multi-band dual-polarized antenna comprising: four radiating elements, a balun element configured to feed power to the radiating elements, and a fastening plate configured to fasten the balun element, wherein the balun element comprises two dielectric plates, and the two dielectric plates are embedded into each other in a crossing manner, wherein two signal transmission units, one feeding unit, and two filtering units are printed on each dielectric plate, and the filtering units are configured for decoupling; the two signal transmission units are disposed on a first surface of each dielectric plate, the top end of each signal transmission unit is electrically connected to the bottom end of a radiating element respectively, the feeding unit is disposed on a second surface of each dielectric plate opposite to the first surface, and a bottom end of the feeding unit and bottom ends of the signal transmission units are electrically connected to the fastening plate separately; wherein each filtering unit comprises one filtering module; or each filtering unit comprises two or more filtering modules, and the filtering modules comprised in each filtering unit are connected in parallel; or the filtering modules comprised in each filtering unit are connected in series; wherein each filtering module comprises a first metal piece and a second metal piece; the first metal piece is printed on the second surface of the dielectric plate, and the first metal piece at least partially overlaps the signal transmission unit in space; and the second metal piece is disposed at a bottom end of the first metal piece, the second metal piece and the first metal piece are welded to each other, and the second metal piece does not overlap the signal transmission unit in space; wherein each radiating element, each first metal piece, and each second metal piece are successively disposed from top to bottom respectively; and each filtering module is electrically connected to the bottom end of one signal transmission unit, or each filtering module is electrically connected to the fastening plate.
A lithography system for projecting an image or an image pattern on to a target such as a wafer, wherein energy that is accumulated in the target by the projection of the image or image pattern is removed from said target in such a manner that expansion by local and/or overall heating of said target is limited to a relevant pre-defined value, and wherein such heat removal is realized by the use of a phase transition from solid to liquid in a heat absorbing material that is brought into thermal contact with said target by means of a surface enlarging body, wherein said body is a circular body and comprises a framed structure containing said heat absorbing material, which framed structure is brought into contact with said target, and wherein said body is further provided with a frame closing layer arranged on a side of said body opposite from a target facing side.
Free piston apparatus, comprising a piston receptacle in which at least one piston device (38, 40) having a piston is arranged so as to be reciprocable along an axis, wherein the piston receptacle comprises or forms a combustion chamber delimited by a wall arrangement in which at least one inlet opening (34, 80, 86, 88, 90) for the supply of fresh gas and, spaced apart therefrom in axial direction, at least one outlet opening for the removal of exhaust gas are formed, characterized in that the free piston apparatus comprises an inflow device for fresh gas, which has the at least one inlet opening (34, 80, 86, 88, 90) and is configured in such a way that fresh gas flowing into the combustion chamber is directed to an incident flow region in the combustion chamber arranged offset axially to the at least one inlet opening (34, 80, 86, 88, 90) in the direction of the at least one outlet opening, which incident flow region is arranged off-center relative to the axis, wherein the inflow device is configured such that a tumble-shaped movement of the inflowing fresh gas in the combustion chamber is achievable and inflowing fresh gas rolls about a tumble axis which is aligned transverse to the axis, and wherein a plurality of inlet openings (34, 80, 86, 88, 90) spaced apart from each other in circumferential direction of the axis is provided, which are arranged and configured on the wall arrangement so as to be mirror-symmetrical to each other with respect to a central longitudinal plane of the piston receptacle containing the axis.
Refining arrangement for refining fibrous material suspended in water between two refining surfaces forming a refining gap and rotating relative to each other, which are formed by refining bars and grooves running between them, wherein the refining bars extend at least with a directional component radially with respect to the axis of rotation, and the fibrous material suspension flows through the refining gap from a radially inner circular inlet to a radially outer circular outlet, characterized in that a plurality of return flow channels connecting the outlet to the inlet are arranged under at least one refining surface.
Method for generating an object processing platform between an object computer and a processing computer, - wherein an ad hoc screen assembly is performed by the object computer with the processing computer in order to couple their input and/or output means, with a display belonging to the processing computer and a display belonging to the object computer forming a combined display, as a result of which the positioning of objects over the area of the two displays is possible as though a single, enlarged display were present, characterised in that: - the display belonging to the processing computer has an interaction area via which a local file processing function can be activated, - the object processing platform is generated and thus the local file processing function is activated by moving an object from the display belonging to the object computer to the interaction area of the display belonging to the processing computer, - as a result of which the display belonging to the processing computer switches to the local display mode for the processing computer and then no longer shows part of the combined display. - wherein an ad hoc screen assembly is performed by the object computer with the processing computer in order to couple their input and/or output means, - the display belonging to the processing computer has an interaction area via which a local file processing function can be activated, - the object processing platform is generated and thus the local file processing function is activated by moving an object from the display belonging to the object computer to the interaction area of the display belonging to the processing computer, - as a result of which the display belonging to the processing computer switches to the local display mode for the processing computer and then no longer shows part of the combined display.
A laser module structure for a laser module, comprising: a housing configured for receiving at least one laser deflection system, wherein the housing comprises at least one laser-transparent window allowing laser light to pass therethrough from and/or into the housing; and a magnetic trap structure comprising: a frame structure arranged or arrangeable on an outer side of the housing around a window area overlapping the at least one laser-transparent window such that the laser-transparent window is exposed through the frame structure, and one or more magnets (34a, 34b) for generating a magnetic field; characterized in that the frame structure comprises a soft magnetic material and extends between the one or more magnets (34a, 34b) and the interior of the housing, and wherein the one or more magnets (34a, 34b) are configured such that the magnetic field is inhomogeneous at least in the window area. a housing configured for receiving at least one laser deflection system, wherein the housing comprises at least one laser-transparent window allowing laser light to pass therethrough from and/or into the housing; and a magnetic trap structure comprising: a frame structure arranged or arrangeable on an outer side of the housing around a window area overlapping the at least one laser-transparent window such that the laser-transparent window is exposed through the frame structure, and one or more magnets (34a, 34b) for generating a magnetic field; characterized in that the frame structure comprises a soft magnetic material and extends between the one or more magnets (34a, 34b) and the interior of the housing, and wherein the one or more magnets (34a, 34b) are configured such that the magnetic field is inhomogeneous at least in the window area. a frame structure arranged or arrangeable on an outer side of the housing around a window area overlapping the at least one laser-transparent window such that the laser-transparent window is exposed through the frame structure, and one or more magnets (34a, 34b) for generating a magnetic field; characterized in that the frame structure comprises a soft magnetic material and extends between the one or more magnets (34a, 34b) and the interior of the housing, and wherein the one or more magnets (34a, 34b) are configured such that the magnetic field is inhomogeneous at least in the window area.
A method of operating a wireless device in a cellular communications network, to provide Channel State Information, CSI, feedback from multiple CSI reporting configurations, the method comprising: receiving a first CSI reporting configuration; receiving a second CSI reporting configuration; reporting updated CSI in a CSI report for only one of the first CSI reporting configuration and the second CSI reporting configuration; characterized by further comprising: determining a first time instant corresponding to the first CSI reporting configuration; determining a second time instant corresponding to the second CSI reporting configuration; and calculating the CSI report using the second CSI reporting configuration if the first time instant is not between the second time instant and a third time instant, where the third time instant is later than the second time instant. receiving a first CSI reporting configuration; receiving a second CSI reporting configuration; reporting updated CSI in a CSI report for only one of the first CSI reporting configuration and the second CSI reporting configuration; characterized by further comprising: determining a first time instant corresponding to the first CSI reporting configuration; determining a second time instant corresponding to the second CSI reporting configuration; and calculating the CSI report using the second CSI reporting configuration if the first time instant is not between the second time instant and a third time instant, where the third time instant is later than the second time instant. determining a first time instant corresponding to the first CSI reporting configuration; determining a second time instant corresponding to the second CSI reporting configuration; and calculating the CSI report using the second CSI reporting configuration if the first time instant is not between the second time instant and a third time instant, where the third time instant is later than the second time instant.
A checkweigher belt comprising: an endless belt body (32, 94, 132, 152) advancing in a direction of belt travel along a carryway and bearing the belt tension, wherein the endless belt body has an outer surface extending along the width of the belt body (32, 94, 132, 152) from a first side edge to an opposite second side edge; a plurality of product-supporting slats (66, 112, 134, 156) spaced apart along the length of the belt body (32, 94, 132, 152) in the direction of belt travel, wherein each of the slats (66, 112, 134, 156) is elongated along the width of the belt body; characterized in that each of the slats (66, 112, 134, 156) is movable from a first position sitting on the outer surface of the belt body (32, 94, 132, 152) to a second position raised above the outer surface of the belt body in a direction perpendicular to the outer surface of the belt body. an endless belt body (32, 94, 132, 152) advancing in a direction of belt travel along a carryway and bearing the belt tension, wherein the endless belt body has an outer surface extending along the width of the belt body (32, 94, 132, 152) from a first side edge to an opposite second side edge; a plurality of product-supporting slats (66, 112, 134, 156) spaced apart along the length of the belt body (32, 94, 132, 152) in the direction of belt travel, wherein each of the slats (66, 112, 134, 156) is elongated along the width of the belt body; characterized in that each of the slats (66, 112, 134, 156) is movable from a first position sitting on the outer surface of the belt body (32, 94, 132, 152) to a second position raised above the outer surface of the belt body in a direction perpendicular to the outer surface of the belt body.