mhurhangee/patent-ind-claim-en huggingface dataset:
A guide wire comprising a core portion formed of an elongated object having flexibility, wherein the core portion includes a main body portion formed on a proximal side, a flat plate portion formed on a distal side, and a transition portion which connects the main body portion and the flat plate portion , and wherein at least one groove portion extending in a direction different from a length direction is formed on a slope of the transition portion in the length direction, characterized in that the transition portion is gradually changed from a circular shape in transverse cross section to a rectangular shape in transverse cross section from the proximal side toward the distal side. wherein the core portion includes a main body portion formed on a proximal side, a flat plate portion formed on a distal side, and a transition portion which connects the main body portion and the flat plate portion , and wherein at least one groove portion extending in a direction different from a length direction is formed on a slope of the transition portion in the length direction, characterized in that the transition portion is gradually changed from a circular shape in transverse cross section to a rectangular shape in transverse cross section from the proximal side toward the distal side.
Method for recovering kinetic energy of a combustion engine (VM) by reduction of the rotational speed of the combustion engine (VM) during a predefined time (t) in a vehicle and conversion of the kinetic energy of the rotation of the combustion engine (eng_spd), directly at the combustion engine or a rotating shaft of the drive unit, into electrical energy by means of at least one electric machine (EM, 13), wherein the combustion engine (VM) is decoupled from the drivetrain of the vehicle, characterized in that one of the electric machines (EM) can, in a dual-clutch transmission with a first and a second partial transmission (TG 1 , TG 2 ), be coupled to a second partial transmission (TG 2 ), wherein the rotational speed of the combustion engine (tgt_eng_spd) is, during the predefined time (t), higher than or equal to the rotational speed of the first partial transmission (ins1_spd).
An information processing device comprising: a displacement information acquisition unit configured to acquire displacement information corresponding to 3-dimensional displacement of a predetermined portion of a predetermined object that a user mounts in accordance with a body motion of the user on a basis of positional information of the predetermined portion, the predetermined object being an object on which the user is able to sit; and an output control unit configured to perform control such that an output unit (951-953, 933-937, 103, 104) performs a predetermined output on a basis of the acquired displacement information, wherein the predetermined object has a seatback , the body motion of the user includes an inclination motion of an upper half of the body of the user, and the displacement information acquisition unit acquires the displacement information corresponding to a change in a position of the seatback in at least one of front and rear directions, right and left directions, or upward and downward directions. a displacement information acquisition unit configured to acquire displacement information corresponding to 3-dimensional displacement of a predetermined portion of a predetermined object that a user mounts in accordance with a body motion of the user on a basis of positional information of the predetermined portion, the predetermined object being an object on which the user is able to sit; and an output control unit configured to perform control such that an output unit (951-953, 933-937, 103, 104) performs a predetermined output on a basis of the acquired displacement information, wherein the predetermined object has a seatback , the body motion of the user includes an inclination motion of an upper half of the body of the user, and the displacement information acquisition unit acquires the displacement information corresponding to a change in a position of the seatback in at least one of front and rear directions, right and left directions, or upward and downward directions.
A train position detection apparatus that detects a position of a train by receiving positioning radio waves from satellites through a reception antenna , characterized by the train position detection apparatus comprising: a railway design standard storage unit configured to store therein in advance a railway design standard of a railway track on which the train travels, and includes a minimum curve radius, a relaxation curve, a slack, a cant, and a slope; the railway design standard being different depending on a travel speed of the train ; and a position detection unit configured to detect a position of the train by self-contained navigation based on an input signal from a self-contained navigation sensor (13; 14; 15), wherein the position detection unit refers to a railway design standard corresponding to a detected travel speed of the train , and wherein, when a movement locus of the train obtained by position information based on the positioning radio waves does not satisfy the referred railway design standard, the position detection unit corrects the result of the train position detection based on the positioning radio waves with a result of the position detection by self-contained navigation. a railway design standard storage unit configured to store therein in advance a railway design standard of a railway track on which the train travels, and includes a minimum curve radius, a relaxation curve, a slack, a cant, and a slope; the railway design standard being different depending on a travel speed of the train ; and a position detection unit configured to detect a position of the train by self-contained navigation based on an input signal from a self-contained navigation sensor (13; 14; 15), wherein the position detection unit refers to a railway design standard corresponding to a detected travel speed of the train , and wherein, when a movement locus of the train obtained by position information based on the positioning radio waves does not satisfy the referred railway design standard, the position detection unit corrects the result of the train position detection based on the positioning radio waves with a result of the position detection by self-contained navigation.
A mobile robot comprising: a main circuit board ; a multiplexing auxiliary circuit board configured to send a data package representing a received sensor signal to the main circuit board; an array of proximity sensors distributed along a front periphery of the mobile robot , each proximity sensor including at least one infrared emitter and at least one infrared detector , characterized in that the mobile robot comprises a communication line connecting the multiplexing auxiliary circuit board to the main circuit board ; and a bumper housing including two or more mating concave receptacles , the receptacles mating along a closed rim and sealed along that rim to enclose the array of proximity sensors and the multiplexing auxiliary circuit board , the bumper housing including the communication line exiting through a single sealed aperture . a main circuit board ; a multiplexing auxiliary circuit board configured to send a data package representing a received sensor signal to the main circuit board; an array of proximity sensors distributed along a front periphery of the mobile robot , each proximity sensor including at least one infrared emitter and at least one infrared detector , characterized in that the mobile robot comprises a communication line connecting the multiplexing auxiliary circuit board to the main circuit board ; and a bumper housing including two or more mating concave receptacles , the receptacles mating along a closed rim and sealed along that rim to enclose the array of proximity sensors and the multiplexing auxiliary circuit board , the bumper housing including the communication line exiting through a single sealed aperture .
A telescopic cleaning device , intended to spray at least a first fluid and at least a second fluid toward an exterior surface of a sensor/emitter of a motor vehicle , the telescopic cleaning device comprising a distribution endpiece in which at least a first distribution orifice for the first fluid and at least a second distribution orifice for the second fluid are arranged, the telescopic cleaning device being configured to deploy along an axis of deployment (D), between a retracted first position and a deployed second position, the first distribution orifice and the second distribution orifice being offset from one another along the axis of deployment (D) of the cleaning device , the telescopic cleaning device being characterized in that it is configured such that in the retracted first position only the first distribution orifice is free, and in the deployed second position the first distribution orifice and the second distribution orifice are free.
A microelectromechanical system MEMS, system, comprising: a gyroscope including a first proof mass, wherein the gyroscope is configured to output a quadrature signal and an angular velocity signal based on a movement of the first proof mass; an accelerometer including a second proof mass, wherein the accelerometer is configured to output a linear acceleration signal based on a movement of the second proof mass in response to a linear acceleration; and processing circuitry coupled to the gyroscope and the accelerometer to receive the quadrature signal and the linear acceleration signal, wherein the processing circuitry is configured to modify the linear acceleration signal based on the quadrature signal. a gyroscope including a first proof mass, wherein the gyroscope is configured to output a quadrature signal and an angular velocity signal based on a movement of the first proof mass; an accelerometer including a second proof mass, wherein the accelerometer is configured to output a linear acceleration signal based on a movement of the second proof mass in response to a linear acceleration; and processing circuitry coupled to the gyroscope and the accelerometer to receive the quadrature signal and the linear acceleration signal, wherein the processing circuitry is configured to modify the linear acceleration signal based on the quadrature signal.
Target object , in particular for geodetic, construction and industrial surveying, the target object having an arrangement of four triple prisms (4 to 7), each of the triple prisms (4 to 7) having a light entry surface and three reflective surfaces, wherein • the four triple prisms (4 to 7) are arranged around an arrangement axis in such a way that their contour can be embedded in a pyramidal body , which has a pyramid base and four lateral surfaces lying in different planes, wherein a common point of intersection of the planes forms a pyramid tip opposite the pyramid base, and • for each of the four triple prisms (4 to 7) one of its reflective surfaces is aligned parallel to the pyramid base and each of its other two reflective surfaces is aligned parallel to a reflective surface of a respective adjacent triple prism, characterized in that, the target object comprises a shading element , which is arranged axially on side of the pyramid base, wherein, in a direction perpendicular to the arrangement axis , an opaque part of the shading element extends beyond a maximum extension of the four reflective surfaces (4 to 7) aligned parallel to the pyramid base, wherein • the target object comprises an opaque blocking component arranged in an area around the pyramid tip, wherein the blocking component blocks light from passing the light entry surfaces of the triple prisms (4 to 7), thereby reducing an effectively available size of the light entry surface of each of the triple prisms , or • each of the triple prisms (4 to 7) is configured to have a further prism surface which is different from the light entry surface and the three reflective surfaces, wherein the further prism surfaces are arranged opposite the pyramid base, in particular wherein the further prism surfaces are parallel to the pyramid base. • the four triple prisms (4 to 7) are arranged around an arrangement axis in such a way that their contour can be embedded in a pyramidal body , which has a pyramid base and four lateral surfaces lying in different planes, wherein a common point of intersection of the planes forms a pyramid tip opposite the pyramid base, and • for each of the four triple prisms (4 to 7) one of its reflective surfaces is aligned parallel to the pyramid base and each of its other two reflective surfaces is aligned parallel to a reflective surface of a respective adjacent triple prism, • the target object comprises an opaque blocking component arranged in an area around the pyramid tip, wherein the blocking component blocks light from passing the light entry surfaces of the triple prisms (4 to 7), thereby reducing an effectively available size of the light entry surface of each of the triple prisms , or • each of the triple prisms (4 to 7) is configured to have a further prism surface which is different from the light entry surface and the three reflective surfaces, wherein the further prism surfaces are arranged opposite the pyramid base, in particular wherein the further prism surfaces are parallel to the pyramid base.
An electron beam emission device comprising: a filament unit configured to discharge electrons, wherein the filament unit is a long unit; a housing having a window from which electrons discharged from the filament unit pass; and a unit accommodation part fixed in the housing , having a long tubular shape surrounding a portion of the filament unit and holding the filament unit , the unit accommodation part having an electron discharge opening formed in a portion of an outer peripheral surface facing the window, wherein a plurality of positioning parts are provided between an outer surface of the filament unit and an inner surface of the unit accommodation part , the positioning parts being slidably in contact with the outer surface of the filament unit or the inner surface of the unit accommodation part and performing positioning of the filament unit with respect to the unit accommodation part , and wherein the filament unit is capable of being inserted into the unit accommodation part from an end of the unit accommodation part . a filament unit configured to discharge electrons, wherein the filament unit is a long unit; a housing having a window from which electrons discharged from the filament unit pass; and a unit accommodation part fixed in the housing , having a long tubular shape surrounding a portion of the filament unit and holding the filament unit , the unit accommodation part having an electron discharge opening formed in a portion of an outer peripheral surface facing the window, wherein a plurality of positioning parts are provided between an outer surface of the filament unit and an inner surface of the unit accommodation part , the positioning parts being slidably in contact with the outer surface of the filament unit or the inner surface of the unit accommodation part and performing positioning of the filament unit with respect to the unit accommodation part , and wherein the filament unit is capable of being inserted into the unit accommodation part from an end of the unit accommodation part .
A method performed by a user equipment, UE , for identifying an allocation of a sharable air interface resource between at least two wireless links that are implemented by at least two different Radio Access Technologies, RATs, the method comprising: receiving, from a base station , a radio access technology-identifier-presence indicator, RAT-identifier-presence indicator , that indicates a presence of a RAT identifier by indicating one or more downlink air interface resources used to transmit the RAT identifier, the RAT identifier indicating the allocation of the sharable air interface resource between the at least two different RATs; receiving the RAT identifier according to the one or more downlink air interface resources indicated by the RAT-identifier-presence indicator; identifying, from the RAT identifier, the allocation of the sharable air interface resource between the at least two different RATs; and communicating over the at least two wireless links by processing the sharable air interface resource using the at least two different RATs according to the allocation. receiving, from a base station , a radio access technology-identifier-presence indicator, RAT-identifier-presence indicator , that indicates a presence of a RAT identifier by indicating one or more downlink air interface resources used to transmit the RAT identifier, the RAT identifier indicating the allocation of the sharable air interface resource between the at least two different RATs; receiving the RAT identifier according to the one or more downlink air interface resources indicated by the RAT-identifier-presence indicator; identifying, from the RAT identifier, the allocation of the sharable air interface resource between the at least two different RATs; and communicating over the at least two wireless links by processing the sharable air interface resource using the at least two different RATs according to the allocation.
A method of optimizing a pattern for imaging a feature onto a substrate using a photolithography system, the method comprising: identifying points within a source plane of the photolithography system that are associated with pattern shifts resulting from diffraction of light off a photomask due to asymmetric phase effects among diffraction orders; determining pattern shifts associated with the identified source plane points; characterized in that the method further comprises: modifying the source to reduce the determined pattern shifts. identifying points within a source plane of the photolithography system that are associated with pattern shifts resulting from diffraction of light off a photomask due to asymmetric phase effects among diffraction orders; determining pattern shifts associated with the identified source plane points; characterized in that the method further comprises: modifying the source to reduce the determined pattern shifts.
A dishwasher comprising: a main body; a tub configured to be inside the main body ; a basket configured to be inside the tub to receive an item to be washed; an injection assembly configured to spray water towards the basket ; and a duct including: a first body portion which extends in a first direction and configured to supply the water to the injection assembly , and a second body portion through which the water flows, the second body portion extending from the first body portion along a second direction, wherein the duct is formed by coupling a first housing and a second housing , the first housing forming at least a portion of the first body portion and a portion of the second body portion , and the second housing forming another portion of the first body portion and another portion of the second body portion , characterized in that the first housing and the second housing are configured to hook onto each other along the first direction. a main body; a tub configured to be inside the main body ; a basket configured to be inside the tub to receive an item to be washed; an injection assembly configured to spray water towards the basket ; and a duct including: a first body portion which extends in a first direction and configured to supply the water to the injection assembly , and a second body portion through which the water flows, the second body portion extending from the first body portion along a second direction, wherein the duct is formed by coupling a first housing and a second housing , the first housing forming at least a portion of the first body portion and a portion of the second body portion , and the second housing forming another portion of the first body portion and another portion of the second body portion , characterized in that the first housing and the second housing are configured to hook onto each other along the first direction. a first body portion which extends in a first direction and configured to supply the water to the injection assembly , and a second body portion through which the water flows, the second body portion extending from the first body portion along a second direction, wherein the duct is formed by coupling a first housing and a second housing , the first housing forming at least a portion of the first body portion and a portion of the second body portion , and the second housing forming another portion of the first body portion and another portion of the second body portion , characterized in that the first housing and the second housing are configured to hook onto each other along the first direction.
A method, implemented by a reporting node , for reporting the result of a radio signal measurement to a recipient node , the method comprising: obtaining , at the reporting node , the result of a radio signal measurement; obtaining , at the reporting node , a joint mapping in which different possible values for a first reporting variable and different possible values for a second reporting variable are jointly mapped to different possible values for the result of the radio signal measurement, wherein the different possible values for the first reporting variable correspond to different ranges of results of the radio signal measurement, and the different possible values for the second reporting variable correspond to different delta values by which to increment or decrement a component of a range of measurement results reported with the first reporting variable; mapping the result of the radio signal measurement to multiple reported values that jointly represent that result, using the obtained joint mapping, wherein the multiple reported values include one of the different possible values for the first reporting variable and one of the different possible values for the second reporting variable; and reporting the result of the radio signal measurement to the recipient node by sending the multiple reported values from the reporting node to the recipient node . obtaining , at the reporting node , the result of a radio signal measurement; obtaining , at the reporting node , a joint mapping in which different possible values for a first reporting variable and different possible values for a second reporting variable are jointly mapped to different possible values for the result of the radio signal measurement, wherein the different possible values for the first reporting variable correspond to different ranges of results of the radio signal measurement, and the different possible values for the second reporting variable correspond to different delta values by which to increment or decrement a component of a range of measurement results reported with the first reporting variable; mapping the result of the radio signal measurement to multiple reported values that jointly represent that result, using the obtained joint mapping, wherein the multiple reported values include one of the different possible values for the first reporting variable and one of the different possible values for the second reporting variable; and reporting the result of the radio signal measurement to the recipient node by sending the multiple reported values from the reporting node to the recipient node .