mhurhangee/patent-ind-claim-en huggingface dataset:
A light sheet microscope comprising: an illumination unit having a beam source which is configured to direct an illumination beam propagating along an illumination axis (z) onto a sample , light-sheet generating means which are configured to generate a light-sheet-like illumination light distribution illuminating the sample in a partial area from the illumination beam , and a detection unit having a detector which is configured to capture detection light originating from the partial area of the sample illuminated with the illumination light distribution, characterized in that the illumination unit comprises beam modulation means (50, 52, 120, 128; 56, 75, 78, 110, 170, 174, 176) configured to modulate the illumination beam along the illumination axis (z) by changing the illumination intensity and/or the illumination time such that a variation of the illumination of the partial area of the sample illuminated with the illumination light distribution is chosen such along the illumination axis (z) that there results a brightness as constant as possible over the detected image field. an illumination unit having a beam source which is configured to direct an illumination beam propagating along an illumination axis (z) onto a sample , light-sheet generating means which are configured to generate a light-sheet-like illumination light distribution illuminating the sample in a partial area from the illumination beam , and a detection unit having a detector which is configured to capture detection light originating from the partial area of the sample illuminated with the illumination light distribution, characterized in that the illumination unit comprises beam modulation means (50, 52, 120, 128; 56, 75, 78, 110, 170, 174, 176) configured to modulate the illumination beam along the illumination axis (z) by changing the illumination intensity and/or the illumination time such that a variation of the illumination of the partial area of the sample illuminated with the illumination light distribution is chosen such along the illumination axis (z) that there results a brightness as constant as possible over the detected image field.
A method for updating a network side position area, the method comprising: receiving , by a target radio access network, RAN, node, a first update request message, wherein the first update request message is sent by a user equipment, UE, in an inactive state; generating , by the target RAN node, a second update request message according to the first update request message, and sending the second update request message to a source RAN node, wherein identifier information of the UE is carried in the second update request message; and receiving , by the target RAN node, a update acknowledgement message sent by the source RAN node, and performing a subsequent position area update process; wherein the update acknowledgement message comprises: identifier information allocated by the source RAN node to the UE for uniquely identifying the UE at an interface between RAN nodes; and identifier information allocated by the target RAN node to the UE for uniquely identifying the UE at an interface between the RAN nodes. receiving , by a target radio access network, RAN, node, a first update request message, wherein the first update request message is sent by a user equipment, UE, in an inactive state; generating , by the target RAN node, a second update request message according to the first update request message, and sending the second update request message to a source RAN node, wherein identifier information of the UE is carried in the second update request message; and receiving , by the target RAN node, a update acknowledgement message sent by the source RAN node, and performing a subsequent position area update process; wherein the update acknowledgement message comprises: identifier information allocated by the source RAN node to the UE for uniquely identifying the UE at an interface between RAN nodes; and identifier information allocated by the target RAN node to the UE for uniquely identifying the UE at an interface between the RAN nodes. identifier information allocated by the source RAN node to the UE for uniquely identifying the UE at an interface between RAN nodes; and identifier information allocated by the target RAN node to the UE for uniquely identifying the UE at an interface between the RAN nodes.
A composite coil spring comprising: a coil body extending along a coiled axis , the coil body including, a polymer matrix and, disposed in the polymer matrix, a carbon fiber core and a plurality of fiber layers wrapped around the carbon fiber core in alternating oblique fiber angles to the coiled axis, the plurality of fiber layers including, from inside-out starting from the carbon fiber core, at least two consecutive carbon fiber intermediate fiber layers of alternating oblique fiber angles to the coiled axis, immediately followed by at least two consecutive glass fiber intermediate fiber layers of alternating oblique fiber angles to the coiled axis, and immediately followed by a carbon fiber outermost fiber layer . a coil body extending along a coiled axis , the coil body including, a polymer matrix and, disposed in the polymer matrix, a carbon fiber core and a plurality of fiber layers wrapped around the carbon fiber core in alternating oblique fiber angles to the coiled axis, the plurality of fiber layers including, from inside-out starting from the carbon fiber core, at least two consecutive carbon fiber intermediate fiber layers of alternating oblique fiber angles to the coiled axis, immediately followed by at least two consecutive glass fiber intermediate fiber layers of alternating oblique fiber angles to the coiled axis, and immediately followed by a carbon fiber outermost fiber layer .
A system for processing three-dimensional object data representing a three-dimensional object to be generated by an additive manufacturing system , the system comprising a processor to: perform a transformation on the three-dimensional object data ; and generate a plurality of slice images from the transformed three dimensional object data; wherein the performed transformation is based on characteristics of build material to be used by the additive manufacturing system which is to generate the three-dimensional object and the processor is to perform a geometrical transformation on the three-dimensional object data to compensate for distortions introduced by the additive manufacturing system during the generation of the three-dimensional object; wherein the characteristics of the build material comprise any of: the age of the build material, the humidity level of the build material, the average particle size of the build material and the pureness of the build material. perform a transformation on the three-dimensional object data ; and generate a plurality of slice images from the transformed three dimensional object data; wherein the performed transformation is based on characteristics of build material to be used by the additive manufacturing system which is to generate the three-dimensional object and the processor is to perform a geometrical transformation on the three-dimensional object data to compensate for distortions introduced by the additive manufacturing system during the generation of the three-dimensional object; wherein the characteristics of the build material comprise any of: the age of the build material, the humidity level of the build material, the average particle size of the build material and the pureness of the build material.
A crystal material manufacturing method comprising: a first step of preparing a raw material mixture by mixing an alkaline-earth metal or a carbonate or oxide thereof, Nb or Ta or an oxide thereof, Ga or an oxide thereof, Al or an oxide thereof, and Si or an oxide thereof, so as to obtain each cation ratio indicated by any desired congruent composition of AE 3 ME 1+a (Ga 1-x Al x ) 3+b Si 2+c O 14 (AE is an alkaline-earth metal, ME is Nb or Ta, 0 ≤ x ≤ 1, -0.5 < a < 0.5, -0.5 < b < 0.5, and -0.5 < c < 0.5, excluding a = b = c = 0); a second step of melting the raw material mixture; and a third step of forming a crystal material made of a langasite-based oxide having the desired congruent composition by cooling the melted raw material mixture. a first step of preparing a raw material mixture by mixing an alkaline-earth metal or a carbonate or oxide thereof, Nb or Ta or an oxide thereof, Ga or an oxide thereof, Al or an oxide thereof, and Si or an oxide thereof, so as to obtain each cation ratio indicated by any desired congruent composition of AE 3 ME 1+a (Ga 1-x Al x ) 3+b Si 2+c O 14 (AE is an alkaline-earth metal, ME is Nb or Ta, 0 ≤ x ≤ 1, -0.5 < a < 0.5, -0.5 < b < 0.5, and -0.5 < c < 0.5, excluding a = b = c = 0); a second step of melting the raw material mixture; and a third step of forming a crystal material made of a langasite-based oxide having the desired congruent composition by cooling the melted raw material mixture.
A method of vehicle collision avoidance of a vehicle, comprising: receiving camera data comprising one or more points , wherein each point corresponds to a pixel in an image; determining a distance and a direction from the vehicle to the one or more points; determining a velocity constraint for each of the one or more points based on the determined distance and direction from the vehicle to each of the one or more points; determining one or more velocity solutions that satisfy the determined velocity constraints based on a vehicle navigation instruction, wherein the one or more velocity solutions that satisfy the determined velocity constraints are less than or equal to each velocity constraint; selecting a velocity solution from the determined one or more velocity solutions based on the vehicle navigation instruction; and adjusting a vehicle velocity based on the selected velocity solution. receiving camera data comprising one or more points , wherein each point corresponds to a pixel in an image; determining a distance and a direction from the vehicle to the one or more points; determining a velocity constraint for each of the one or more points based on the determined distance and direction from the vehicle to each of the one or more points; determining one or more velocity solutions that satisfy the determined velocity constraints based on a vehicle navigation instruction, wherein the one or more velocity solutions that satisfy the determined velocity constraints are less than or equal to each velocity constraint; selecting a velocity solution from the determined one or more velocity solutions based on the vehicle navigation instruction; and adjusting a vehicle velocity based on the selected velocity solution.
A device for the layered construction of models, comprising a height-adjustable workpiece platform, a cover , a metering device for applying binder onto the workpiece platform, wherein said device additionally comprises a mounting platform to which are attached all the movable devices of the metering device and of the workpiece platform, which are movable in accordance with a Cartesian axis system, and a coater is provided for applying fluids, the coater and all movable units of the coater are attached to the mounting platform and wherein height-adjustable fastening elements are used by which the distance of the mounting platform to the cover of the device can be adjusted so that all attachments can be mounted, adjusted and/or wired to the mounting platform outside the cover before the mounting platform is inserted into the cover and fixed there.
An inertial sensor (100; 200; 300) comprising: a central anchor (130; 230; 330); a proof mass (110; 210; 310), wherein the proof mass surrounds the central anchor; a flexure (120; 220; 320), the flexure having a shape comprising a first set of spiral arms, the first set of spiral arms comprising a first plurality of N spiral arms (121; 221; 321) and a second plurality of N spiral arms (122; 222; 322), where N is an integer greater than 1, each of the arms connected between the central anchor and the proof mass and lying in a first plane, each of the arms of the first plurality of N spiral arms winding about the central anchor in a first sense and each of the arms of the second plurality of N spiral arms winding about the central anchor in a second sense, the second sense being opposite to the first sense; and a plurality of electrodes comprising, at least one drive electrode for driving the proof mass in a first mode of vibration, and at least one sense electrode for sensing a response of the proof mass in a second mode of vibration. a central anchor (130; 230; 330); a proof mass (110; 210; 310), wherein the proof mass surrounds the central anchor; a flexure (120; 220; 320), the flexure having a shape comprising a first set of spiral arms, the first set of spiral arms comprising a first plurality of N spiral arms (121; 221; 321) and a second plurality of N spiral arms (122; 222; 322), where N is an integer greater than 1, each of the arms connected between the central anchor and the proof mass and lying in a first plane, each of the arms of the first plurality of N spiral arms winding about the central anchor in a first sense and each of the arms of the second plurality of N spiral arms winding about the central anchor in a second sense, the second sense being opposite to the first sense; and a plurality of electrodes comprising, at least one drive electrode for driving the proof mass in a first mode of vibration, and at least one sense electrode for sensing a response of the proof mass in a second mode of vibration.
A powered working machine configured to operate a working tool in a direction along a first axis (A1) with a power of a motor , characterised in that : the powered working machine comprising: a control board configured to control the motor ; a board case configured to accommodate the control board ; a housing configured to support the board case ; and an elastic body interposed between the board case and the housing , wherein the housing comprises: a first housing that accommodates the motor ; and a second housing that fixes to the first housing and accommodates the board case , wherein the board case comprises: a plate section extending parallel to a second axis (B1) which extends perpendicular to the first axis (A1) and disposed between the first housing and the control board ; and a side wall formed at an outer circumferential edge of the plate section , wherein the elastic body comprises: a first elastic body interposed between the plate section of the board case and the first housing ; and a second elastic body interposed between a tip of the sidewall of the board case and the second housing in the direction along the first axis (A1). a control board configured to control the motor ; a board case configured to accommodate the control board ; a housing configured to support the board case ; and an elastic body interposed between the board case and the housing , wherein the housing comprises: a first housing that accommodates the motor ; and a second housing that fixes to the first housing and accommodates the board case , wherein the board case comprises: a plate section extending parallel to a second axis (B1) which extends perpendicular to the first axis (A1) and disposed between the first housing and the control board ; and a side wall formed at an outer circumferential edge of the plate section , a first housing that accommodates the motor ; and a second housing that fixes to the first housing and accommodates the board case , wherein the board case comprises: a plate section extending parallel to a second axis (B1) which extends perpendicular to the first axis (A1) and disposed between the first housing and the control board ; and a side wall formed at an outer circumferential edge of the plate section , a plate section extending parallel to a second axis (B1) which extends perpendicular to the first axis (A1) and disposed between the first housing and the control board ; and a side wall formed at an outer circumferential edge of the plate section , wherein the elastic body comprises: a first elastic body interposed between the plate section of the board case and the first housing ; and a second elastic body interposed between a tip of the sidewall of the board case and the second housing in the direction along the first axis (A1). a first elastic body interposed between the plate section of the board case and the first housing ; and a second elastic body interposed between a tip of the sidewall of the board case and the second housing in the direction along the first axis (A1).
An apparatus comprising: a first die having a first mixer (202, 402a-c, 602a-d) with a first input , a second input , and an output , wherein the first input of the first mixer (202, 402a-c, 602a-d) receives an intermediary frequency, IF, signal and the second input of the first mixer (202, 402a-c, 602a-d) receives a local oscillator, LO, signal, and wherein the output of the first mixer (202, 402a-c, 602a-d) outputs a high-speed, HS, signal based on the received IF signal and received LO signal ; an on-package transmission line (214, 314, 414a-c, 514) with a first end and a second end opposite the first end, the first end of the transmission line (214, 314, 414a-c, 514) directly electrically coupled with the output of the first mixer (202, 402a-c, 602a-d); a second die having a second mixer (222, 422a-c, 622a-d, 722a-d) with a first input , a second input , and an output , wherein the first input of the second mixer (222, 422a-c, 622a-d, 722a-d) is directly electrically coupled with the second end of the transmission line (214, 314, 414a-c, 514) and the second input of the second mixer (222, 422a-c, 622a-d, 722a-d) receives the LO signal , and wherein the output of the second mixer (222, 422a-c, 622a-d, 722a-d) outputs an IF signal based upon the received HS signal (220, 603a-d) and the received LO signal (206, 224, 406, 606, 607, 606a, 606b; and wherein there are no discrete amplification components between the first mixer (202, 402a-c, 602a-d) and the transmission line (214, 314, 414a-c, 514). a first die having a first mixer (202, 402a-c, 602a-d) with a first input , a second input , and an output , wherein the first input of the first mixer (202, 402a-c, 602a-d) receives an intermediary frequency, IF, signal and the second input of the first mixer (202, 402a-c, 602a-d) receives a local oscillator, LO, signal, and wherein the output of the first mixer (202, 402a-c, 602a-d) outputs a high-speed, HS, signal based on the received IF signal and received LO signal ; an on-package transmission line (214, 314, 414a-c, 514) with a first end and a second end opposite the first end, the first end of the transmission line (214, 314, 414a-c, 514) directly electrically coupled with the output of the first mixer (202, 402a-c, 602a-d); a second die having a second mixer (222, 422a-c, 622a-d, 722a-d) with a first input , a second input , and an output , wherein the first input of the second mixer (222, 422a-c, 622a-d, 722a-d) is directly electrically coupled with the second end of the transmission line (214, 314, 414a-c, 514) and the second input of the second mixer (222, 422a-c, 622a-d, 722a-d) receives the LO signal , and wherein the output of the second mixer (222, 422a-c, 622a-d, 722a-d) outputs an IF signal based upon the received HS signal (220, 603a-d) and the received LO signal (206, 224, 406, 606, 607, 606a, 606b; and wherein there are no discrete amplification components between the first mixer (202, 402a-c, 602a-d) and the transmission line (214, 314, 414a-c, 514).
A control method for a vehicle having: wheels ; a suspension that includes an elastic member; and a steering angle sensor that detects a steering angle of a steering system, the control method for the vehicle comprising: a step of setting target deceleration to be added to the vehicle based on at least a depression amount of a brake pedal in the vehicle ; a step of determining whether a turning operation of the steering system is performed on the basis of the steering angle that is detected by the steering angle sensor ; a step of setting additional deceleration based on a steering speed calculated from the steering angle when it is determined that the turning operation of the steering system is performed; a step of controlling the vehicle such that deceleration in which the additional deceleration is added to the target deceleration is generated on the vehicle ; and characterized by a step of correcting the additional deceleration to increase the additional deceleration, such correction to be higher when actual deceleration generated on the vehicle or the target deceleration has a first value than when the actual deceleration generated on the vehicle or the target deceleration has a second value that is lower than the first value. a step of setting target deceleration to be added to the vehicle based on at least a depression amount of a brake pedal in the vehicle ; a step of determining whether a turning operation of the steering system is performed on the basis of the steering angle that is detected by the steering angle sensor ; a step of setting additional deceleration based on a steering speed calculated from the steering angle when it is determined that the turning operation of the steering system is performed; a step of controlling the vehicle such that deceleration in which the additional deceleration is added to the target deceleration is generated on the vehicle ; and characterized by a step of correcting the additional deceleration to increase the additional deceleration, such correction to be higher when actual deceleration generated on the vehicle or the target deceleration has a first value than when the actual deceleration generated on the vehicle or the target deceleration has a second value that is lower than the first value.