mhurhangee/patent-ind-claim-en huggingface dataset:
A torque sensor arrangement configured to attach between a first part and a second part to sense torque therebetween, the torque sensor arrangement comprising: an interface member having on its exterior an engagement configuration configured to rotationally engage the first part ; a torsion member comprising a deflectable body attached at one end thereof to the interface member and comprising, at the other end of the deflectable body , an engagement configuration configured to fixedly engage the second part ; and a deflection sensor attached to the deflectable body ; wherein the interface member defines a rigid sleeve extending around the deflectable body and the torque sensor arrangement further comprises a bushing located between and in contact with both the sleeve and the deflectable body . an interface member having on its exterior an engagement configuration configured to rotationally engage the first part ; a torsion member comprising a deflectable body attached at one end thereof to the interface member and comprising, at the other end of the deflectable body , an engagement configuration configured to fixedly engage the second part ; and a deflection sensor attached to the deflectable body ;
A trim device (DG) including a trim part (PG) suitable for being secured to a structure (SV) of a vehicle in the vicinity of a door entrance and to which an airbag safety device (DS) is secured, said trim part (PG) including a first housing (L1) housing said airbag safety device (DS) and having a first side (C1) close to which a screw (V1) is fixedly secured, and a second housing (L2) close to a second side (C2) of said first housing (L1), opposite said first side (C1) and further including a plate (PF) fixedly secured to said airbag safety device (DS) and including a first end (E1) locked within said second housing (L2) and a second end (E2) opposite said first end (E1), comprising a hole (TV) passed through by said screw (V1), and fixedly secured to said trim part (PG) by a nut screwed on said screw (V1), characterized in that said device further includes a traversing housing (LT) opening at least at the level of two lateral faces (FLj) of said trim part (PG), opposite one another, and housing a cylinder (CV) suitable to be passed through by another screw (V3) intended to fixedly secure it to said structure (SV), and in that said second housing (L2) forms part of said traversing housing (LT).
A work vehicle comprising: a vehicle body with a pair of wheels attached to each of a front and a rear; a working device provided on the vehicle body ; an engine configured to generate a travel driving force for the vehicle body ; a transmission with a plurality of speed positions to which the driving force of the engine is transmitted through a torque converter ; a shiftdown switch configured to give the transmission a command to downshift the speed position by operation; a speed sensor configured to detect a speed of the vehicle body ; and a transmission control device configured to control the speed position of the transmission according to a command signal given from the shiftdown switch or the speed of the vehicle body detected by the speed sensor , characterized by a tilting angle detector configured to detect an inclination of the vehicle body , wherein the transmission control device takes the command signal given to the transmission by a single operation of the shiftdown switch as a command to downshift one speed position at a time or a command to downshift to a lowest speed position, according to the speed position of the transmission during traveling of the vehicle body , the speed of the vehicle body detected by the speed sensor , and the tilting angle detected by the tilting angle detector. a vehicle body with a pair of wheels attached to each of a front and a rear; a working device provided on the vehicle body ; an engine configured to generate a travel driving force for the vehicle body ; a transmission with a plurality of speed positions to which the driving force of the engine is transmitted through a torque converter ; a shiftdown switch configured to give the transmission a command to downshift the speed position by operation; a speed sensor configured to detect a speed of the vehicle body ; and a transmission control device configured to control the speed position of the transmission according to a command signal given from the shiftdown switch or the speed of the vehicle body detected by the speed sensor , characterized by a tilting angle detector configured to detect an inclination of the vehicle body , wherein the transmission control device takes the command signal given to the transmission by a single operation of the shiftdown switch as a command to downshift one speed position at a time or a command to downshift to a lowest speed position, according to the speed position of the transmission during traveling of the vehicle body , the speed of the vehicle body detected by the speed sensor , and the tilting angle detected by the tilting angle detector.
A device, comprising: an instrument usable to collect location data for one or more passageways; and one or more processors coupled to the instrument; wherein the one or more processors are configured to: organize a plurality of points within the location data based on a corresponding insertion depth of the instrument when each of the plurality of points is collected; create a passageway tree based on the organized points; identify at least three non-collinear landmark locations within the passageway tree; create a seed transformation between one or more of the at least three non-collinear landmark locations and corresponding model locations in model data; and register, using the seed transformation, the plurality of points to the model data for the one or more passageways; characterized in that to organize the plurality of points within the location data the one or more processors are further configured to: place the plurality of points into bins based on ranges of insertion depth. an instrument usable to collect location data for one or more passageways; and one or more processors coupled to the instrument; wherein the one or more processors are configured to: organize a plurality of points within the location data based on a corresponding insertion depth of the instrument when each of the plurality of points is collected; create a passageway tree based on the organized points; identify at least three non-collinear landmark locations within the passageway tree; create a seed transformation between one or more of the at least three non-collinear landmark locations and corresponding model locations in model data; and register, using the seed transformation, the plurality of points to the model data for the one or more passageways; characterized in that to organize the plurality of points within the location data the one or more processors are further configured to: place the plurality of points into bins based on ranges of insertion depth. organize a plurality of points within the location data based on a corresponding insertion depth of the instrument when each of the plurality of points is collected; create a passageway tree based on the organized points; identify at least three non-collinear landmark locations within the passageway tree; create a seed transformation between one or more of the at least three non-collinear landmark locations and corresponding model locations in model data; and register, using the seed transformation, the plurality of points to the model data for the one or more passageways; characterized in that to organize the plurality of points within the location data the one or more processors are further configured to: place the plurality of points into bins based on ranges of insertion depth.
Mobile application or application integrated into an electric vehicle , designed to manage a retractable post of a device for recharging the batteries of electric vehicles by induction, the retractable post being located in a roadway and integrating the transmitter part including the coil(s) and the control electronics allowing to bring this transmitter up to the receiver integrated under the floor of the vehicle , allowing to transmit electrical energy to the vehicle batteries via an electronic box and the power supply cable , the retractable post also including a mechanical device allowing the raising and the lowering of the latter, and a power supply cable delivering the energy from the electrical network, the application being designed to: - control the position of the vehicle relative to the retractable post in the rest position, - indicate the quality of the coupling , the level of charge and the charging time , - manage the control of the displacement in height of the retractable post in relation to the vehicle until the contact with the receiving part, and - prohibit the starting of the vehicle if the retractable post has not returned to its starting point, i.e. to zero level with respect to the ground. - control the position of the vehicle relative to the retractable post in the rest position, - indicate the quality of the coupling , the level of charge and the charging time , - manage the control of the displacement in height of the retractable post in relation to the vehicle until the contact with the receiving part, and - prohibit the starting of the vehicle if the retractable post has not returned to its starting point, i.e. to zero level with respect to the ground.
Application method for applying a coating agent to a component (6; 9), comprising the following steps: a) emitting a plurality of coating agent jets (5; 13) from a plurality of application nozzles of an application device (2; 12), b) positioning the application device (2; 12) relative to the component (6; 9) with an application distance (d) between the application device (2; 12) and the component (6; 9) so that the coating agent jets (5; 13) impinge on the component (6; 9) and coat the component (6; 9), the coating agent jets (5; 13) applying a pattern on the component (6; 9), characterized in c) that at least some of the application nozzles are controlled independently of one another, and d) that , in the case of the application nozzles which can be controlled independently of one another, the volumetric flow of the coating agent through the application nozzles can be controlled independently, and e) that the pattern is edge-sharp with maximum deviations (a) from a predetermined edge course of at most 3 mm and without coating agent splashes outside the pattern. a) emitting a plurality of coating agent jets (5; 13) from a plurality of application nozzles of an application device (2; 12), b) positioning the application device (2; 12) relative to the component (6; 9) with an application distance (d) between the application device (2; 12) and the component (6; 9) so that the coating agent jets (5; 13) impinge on the component (6; 9) and coat the component (6; 9), the coating agent jets (5; 13) applying a pattern on the component (6; 9), characterized in c) that at least some of the application nozzles are controlled independently of one another, and d) that , in the case of the application nozzles which can be controlled independently of one another, the volumetric flow of the coating agent through the application nozzles can be controlled independently, and e) that the pattern is edge-sharp with maximum deviations (a) from a predetermined edge course of at most 3 mm and without coating agent splashes outside the pattern.
A medical imaging system , comprising: an X-ray tube configured to generate a dose of X-rays ; a detector configured to capture a plurality of patient tissue images during the dose of X-rays; and a computer system configured to (i) determine, during the dose of X-rays , if motion occurred during the capture of the plurality of patient tissue images and (ii) manage the plurality of patient tissue images, wherein the computer system is configured, in a case that motion is determined, to determine if the motion occurred at a start of the X-ray dose, a middle of the X-ray dose, or at an end of the X-ray dose, wherein the computer system is configured, in a case that motion is determined at the start of the X-ray dose, to discard the images prior to a time when the motion was determined and increase a time of the X-ray dose. an X-ray tube configured to generate a dose of X-rays ; a detector configured to capture a plurality of patient tissue images during the dose of X-rays; and a computer system configured to (i) determine, during the dose of X-rays , if motion occurred during the capture of the plurality of patient tissue images and (ii) manage the plurality of patient tissue images, wherein the computer system is configured, in a case that motion is determined, to determine if the motion occurred at a start of the X-ray dose, a middle of the X-ray dose, or at an end of the X-ray dose, wherein the computer system is configured, in a case that motion is determined at the start of the X-ray dose, to discard the images prior to a time when the motion was determined and increase a time of the X-ray dose.
A data compression method of an electronic apparatus for compressing a plurality of weight parameters of an artificial intelligence model, the method comprising: pruning original data including a plurality of weight parameters of the artificial intelligence model; identifying weight parameters of which a value is not changed according to the pruning from among weight parameters included in the pruned original data; obtaining index data including location information of the weight parameters of which the value is not changed; identifying weight parameters of which a value is changed by the pruning from among weight parameters included in the pruned original data; substituting the weight parameters of which the value is changed with a don't care parameter; quantizing, to a predetermined number of bits, n, a first set of data comprising a number of data items, k, including the weight parameters of which the value is not changed and the don't care parameters, to obtain quantized data that comprises k data items, each data item comprising n bits; obtaining n sets of second data from the quantized first set of data, wherein each set of second data includes k data items, wherein a p-th data item in a q-th set corresponds to the q-th bit in the p-th data item in the quantized data set, where p is an integer between 1 and k and q is an integer between 1 and n; and obtaining n sets of compressed data by applying each of the obtained n sets of second data to a Viterbi algorithm. pruning original data including a plurality of weight parameters of the artificial intelligence model; identifying weight parameters of which a value is not changed according to the pruning from among weight parameters included in the pruned original data; obtaining index data including location information of the weight parameters of which the value is not changed; identifying weight parameters of which a value is changed by the pruning from among weight parameters included in the pruned original data; substituting the weight parameters of which the value is changed with a don't care parameter; quantizing, to a predetermined number of bits, n, a first set of data comprising a number of data items, k, including the weight parameters of which the value is not changed and the don't care parameters, to obtain quantized data that comprises k data items, each data item comprising n bits; obtaining n sets of second data from the quantized first set of data, wherein each set of second data includes k data items, wherein a p-th data item in a q-th set corresponds to the q-th bit in the p-th data item in the quantized data set, where p is an integer between 1 and k and q is an integer between 1 and n; and obtaining n sets of compressed data by applying each of the obtained n sets of second data to a Viterbi algorithm.
An air purifier , comprising: a first case configured to move in a first direction between a first position and a second position; a fan covered by the first case in the first position and configured to suction ambient air; a filter covered by the first case in the first position and configured to filter foreign matter from the suctioned air; and a second case configured to move in the first direction between a third position and a fourth position, the second case at least partially overlapping with the first case such that a length of overlap between the first and second cases changes when the first and second cases move relative to each other. a first case configured to move in a first direction between a first position and a second position; a fan covered by the first case in the first position and configured to suction ambient air; a filter covered by the first case in the first position and configured to filter foreign matter from the suctioned air; and a second case configured to move in the first direction between a third position and a fourth position, the second case at least partially overlapping with the first case such that a length of overlap between the first and second cases changes when the first and second cases move relative to each other.
An inkjet ink comprising: a radiation-curable material; 4% by weight or more in total of one or more polymeric thioxanthone photoinitiators; and 10% by weight or more of wherein the amounts are based on the total weight of the ink.
A method for fuel gas - oxygen carrier combined control system of a gas-powered energy conversion system , wherein the mass flow rate or volume flow rate of the fuel gas and/or oxygen carrier is detected in order to control the mixing ratio (r) of fuel gas and oxygen carrier, characterized in that at least two physical parameters of the fuel gas are determined with a microthermal sensor (3, 3.1, 3.2), wherein the first parameter comprises the mass flow rate and/or volume flow rate of the fuel gas and the second parameter comprises the heat conductivity and/or heat capacity, and in that a desired value for the mixing ratio which is dependent on the fuel gas or on the composition of the fuel gas is determined from the physical parameters and is used to control the mixing ratio, wherein the microthermal sensor (3, 3.1, 3.2) is a microthermal hot-wire anemometer , and the two physical parameters determined with the same microthermal hot-wire anemometer are used for both fuel gas quality determination and fuel gas flow determination.
A feeding device, comprising: M phase shifters , N combiners , and at least one bridge component , wherein N is an integer greater than or equal to 1, M is an integer greater than 1, each of the phase shifters has X output ends, wherein X is an integer greater than or equal to N, each of the combiners has M input ends, one output end and M tributary units , each of the input ends corresponding to a tributary unit of the M tributary units; a first cavity of an i th phase shifter is adjacently connected to a second cavity of a j th combiner ; and a j th output end of the i th phase shifter is connected to a i th tributary unit of the j th combiner by using a bridge component of the at least one bridge component , wherein i=1, 2, ..., and M; j=1, 2, ..., and N; wherein when the second cavity of the j th combiner comprises M chambers , the i th tributary unit of the j th combiner is in a one-to-one correspondence with an i th chamber; or, when the second cavity of the j th combiner comprises one chamber, the M tributary units corresponding to the one chamber. M phase shifters , N combiners , and at least one bridge component , wherein N is an integer greater than or equal to 1, M is an integer greater than 1, each of the phase shifters has X output ends, wherein X is an integer greater than or equal to N, each of the combiners has M input ends, one output end and M tributary units , each of the input ends corresponding to a tributary unit of the M tributary units; a first cavity of an i th phase shifter is adjacently connected to a second cavity of a j th combiner ; and a j th output end of the i th phase shifter is connected to a i th tributary unit of the j th combiner by using a bridge component of the at least one bridge component , wherein i=1, 2, ..., and M; j=1, 2, ..., and N; wherein when the second cavity of the j th combiner comprises M chambers , the i th tributary unit of the j th combiner is in a one-to-one correspondence with an i th chamber; or, when the second cavity of the j th combiner comprises one chamber, the M tributary units corresponding to the one chamber.
A computer-assisted medical device comprising: a first joint set on an articulated arm ; a second joint set on the articulated arm ; a control unit coupled to the first joint set and second joint set, wherein the control unit is configured to: release one or more brakes of the medical device ; determine a disturbance to the first joint set in response to the release of the one or more brakes; and compensate for the disturbance using the second joint set to reduce motion to a position of a point of interest of the articulated arm . a first joint set on an articulated arm ; a second joint set on the articulated arm ; a control unit coupled to the first joint set and second joint set, wherein the control unit is configured to: release one or more brakes of the medical device ; determine a disturbance to the first joint set in response to the release of the one or release one or more brakes of the medical device ; determine a disturbance to the first joint set in response to the release of the one or more brakes; and
Tap-in instrument for joining prosthetic implants, comprising a housing , which receives a firing pin , a first spring element assigned to the firing pin and, at least in part, a striker , the striker protruding from the housing at an end face , characterised in that the housing receives a trigger device , the trigger device being movable between a fixing position and a release position , the firing pin being spaced apart from the striker in the fixing position , the trigger device moving from the fixing position into the release position automatically upon an axial movement of the striker into the housing , so as to release the firing pin after reaching the release position , in such a way that said pin moves towards the striker , accelerated by the first spring element .
A silsesquioxane polymer comprising a three-dimensional branched network of Formula (I): wherein each R 1 and R 2 is independently a (C1-C4)alkyl; each L 1 is independently a single bond, an alkylene, or an alkylene bonded to a group selected from oxy, thio, carbonyl, -NH-, and combinations thereof; each R 3 is independently a linear (C14-C100)alkyl; with the proviso that L 1 is selected such that each Si atom is directly bonded to an alkylene or an alkyl; m is an integer of at least 2; n is an integer of at least 1; m + n is an integer of at least 10; each oxygen atom at an asterisk (*) is bonded to another Si atom within the three-dimensional network; and the silsesquioxane polymer is a solid at 25°C. each R 1 and R 2 is independently a (C1-C4)alkyl; each L 1 is independently a single bond, an alkylene, or an alkylene bonded to a group selected from oxy, thio, carbonyl, -NH-, and combinations thereof; each R 3 is independently a linear (C14-C100)alkyl; with the proviso that L 1 is selected such that each Si atom is directly bonded to an alkylene or an alkyl; m is an integer of at least 2; n is an integer of at least 1; m + n is an integer of at least 10; each oxygen atom at an asterisk (*) is bonded to another Si atom within the three-dimensional network; and the silsesquioxane polymer is a solid at 25°C.