mhurhangee/patent-ind-claim-en huggingface dataset:
Method for adapting at least one operating parameter of a motor vehicle during a driving manoeuvre of the motor vehicle , the at least one operating parameter of the motor vehicle being set by at least one driver assistance system of the motor vehicle , comprising the steps of: - identifying at least one vehicle occupant, biometric features being detected for identifying the vehicle occupant, - creating or loading a predetermined driving profile for the vehicle occupant, - detecting at least one activity by a vehicle occupant during the driving manoeuvre in reaction to the driving manoeuvre by means of a detection device , and - adapting the at least one operating parameter of the motor vehicle on the basis of the detected activity by the vehicle occupant by actuating the at least one driver assistance system by means of a control device, - storing the at least one adapted operating parameter in the driving profile of the vehicle occupant, characterized in that the at least one operating parameter of the motor vehicle is adapted by detecting a confirmation action for a status request regarding the reaction by the vehicle occupant to the driving manoeuvre, which request is output by an output device, wherein the detected activity is a protective action by at least one vehicle occupant to protect the person of the vehicle occupant , the protective action detected being an audible utterance by the vehicle occupant and/or the vehicle occupant's holding onto and/or bracing against an interior fixture element of the motor vehicle . - identifying at least one vehicle occupant, biometric features being detected for identifying the vehicle occupant, - creating or loading a predetermined driving profile for the vehicle occupant, - detecting at least one activity by a vehicle occupant during the driving manoeuvre in reaction to the driving manoeuvre by means of a detection device , and - adapting the at least one operating parameter of the motor vehicle on the basis of the detected activity by the vehicle occupant by actuating the at least one driver assistance system by means of a control device, - storing the at least one adapted operating parameter in the driving profile of the vehicle occupant,
A connector shroud, comprising: an inner housing having a grooved control link formed on an outer surface, the grooved control link extending in a longitudinal direction ; a cam disposed on the inner housing , the cam being rotatable on the inner housing ; a coupling nut sleeved onto the inner housing , the coupling nut being configured to be coupled to an object , the coupling nut comprising a tab extending from a rear end, the tab having a control slot formed thereon, the control slot extending in a direction not parallel to the longitudinal direction ; and a lock nut sleeved onto the inner housing , the lock nut comprising a first pin and a second pin formed on an inner surface, the first pin being movable in the grooved control link and the second pin being movable in the control slot , wherein when the second pin is in the control slot , a movement of the lock nut causes the coupling nut to rotate, when the first pin moves in the grooved control link in the longitudinal direction , the lock nut contacts the cam to make the cam rotate, and the rotating cam applies a force perpendicular to the longitudinal direction to the tab to rotate the coupling nut . an inner housing having a grooved control link formed on an outer surface, the grooved control link extending in a longitudinal direction ; a cam disposed on the inner housing , the cam being rotatable on the inner housing ; a coupling nut sleeved onto the inner housing , the coupling nut being configured to be coupled to an object , the coupling nut comprising a tab extending from a rear end, the tab having a control slot formed thereon, the control slot extending in a direction not parallel to the longitudinal direction ; and a lock nut sleeved onto the inner housing , the lock nut comprising a first pin and a second pin formed on an inner surface, the first pin being movable in the grooved control link and the second pin being movable in the control slot , wherein when the second pin is in the control slot , a movement of the lock nut causes the coupling nut to rotate, when the first pin moves in the grooved control link in the longitudinal direction , the lock nut contacts the cam to make the cam rotate, and the rotating cam applies a force perpendicular to the longitudinal direction to the tab to rotate the coupling nut .
A hermetic refrigerant compressor comprising a sealed container in which lubricating oil is stored, the sealed container accommodating an electric element and a compression element , the compression element being driven by the electric element and configured to compress a refrigerant, wherein the lubricating oil has a kinematic viscosity in a range of 1 mm 2 /S to 7 mm 2 /S at 40°C, has a mass average molecular weight in a range of 150 to 400, and contains 0.5% by mass or more of a high molecular weight component, the high molecular weight component has a mass molecular weight of greater than or equal to 500, the compression element includes: a shaft part that is a crankshaft including a main shaft and an eccentric shaft ; and a bearing part that pivotally supports the shaft part, the bearing part including a main bearing and an eccentric bearing , the main bearing pivotally supporting the main shaft , the eccentric bearing pivotally supporting the eccentric shaft , the main shaft includes a sliding surface that slides on the main bearing , the sliding surface being divided into a plurality of sliding surfaces, wherein a length of one of the sliding surfaces in the axial direction, the one sliding surface having a least length in the axial direction among the plurality of sliding surfaces, is the single sliding length L, and a ratio L / D of the single sliding length L to an external diameter D of the main shaft is less than or equal to 2.0. the lubricating oil has a kinematic viscosity in a range of 1 mm 2 /S to 7 mm 2 /S at 40°C, has a mass average molecular weight in a range of 150 to 400, and contains 0.5% by mass or more of a high molecular weight component, the high molecular weight component has a mass molecular weight of greater than or equal to 500, the compression element includes: a shaft part that is a crankshaft including a main shaft and an eccentric shaft ; and a bearing part that pivotally supports the shaft part, the bearing part including a main bearing and an eccentric bearing , the main bearing pivotally supporting the main shaft , the eccentric bearing pivotally supporting the eccentric shaft , a shaft part that is a crankshaft including a main shaft and an eccentric shaft ; and a bearing part that pivotally supports the shaft part, the bearing part including a main bearing and an eccentric bearing , the main bearing pivotally supporting the main shaft , the eccentric bearing pivotally supporting the eccentric shaft , the main shaft includes a sliding surface that slides on the main bearing , the sliding surface being divided into a plurality of sliding surfaces, wherein a length of one of the sliding surfaces in the axial direction, the one sliding surface having a least length in the axial direction among the plurality of sliding surfaces, is the single sliding length L, and a ratio L / D of the single sliding length L to an external diameter D of the main shaft is less than or equal to 2.0.
Method for calibrating a construction robot , comprising a mobile platform and a manipulator which is movable relative to the mobile platform , and an optical sensor system arranged and/or formed at least partly on the mobile platform , and a control unit which is configured to determine, using the optical sensor system , a position and/or orientation of the manipulator , in particular a tool arranged on the manipulator , relative to the mobile platform , wherein calibration data are generated for calibrating adjustment movements of the manipulator , in that the manipulator is brought into at least one first and then a second situation (I, II, III), and when the respective situation (I, II, III) has been reached, in each case at least one position and/or orientation of the manipulator , in particular a tool arranged on the manipulator , relative to the mobile platform is determined using the optical sensor system at least partially arranged and/or formed on the mobile platform of the construction robot .
Cooling device for cooling at least two separate heat sources, characterized in that it comprises: - a closed circuit in which a diphasic fluid flows, - a capillary evaporator designed to be positioned in thermal contact with one of the heat sources, known as the primary heat source , - for each other heat source, known as the secondary heat source , to be cooled, at least one heat exchanger designed to be positioned in thermal contact with said secondary heat source, - at least one condenser, known as the first condenser , disposed downstream of the evaporator , and upstream of the at least one heat exchanger , - at least one condenser, known as the last condenser , disposed upstream of the evaporator and downstream of the at least one heat exchanger , these heat exchangers and condensers being dimensioned such that head losses in the circuit are less than the maximum capillary pressure of the capillary evaporator . - a closed circuit in which a diphasic fluid flows, - a capillary evaporator designed to be positioned in thermal contact with one of the heat sources, known as the primary heat source , - for each other heat source, known as the secondary heat source , to be cooled, at least one heat exchanger designed to be positioned in thermal contact with said secondary heat source, - at least one condenser, known as the first condenser , disposed downstream of the evaporator , and upstream of the at least one heat exchanger , - at least one condenser, known as the last condenser , disposed upstream of the evaporator and downstream of the at least one heat exchanger ,
A compound of the following general formula (I) or a pharmaceutically acceptable salt and/or solvate thereof, wherein: • R 1 is H, a (C 1 -C 6 )alkyl or a (C 3 -C 6 )cycloalkyl, or R 1 forms together with R 2 or R 4 a heterocycloalkyl, preferably R 1 is H, a (C 1 -C 3 )alkyl or R 1 forms together with R 2 or R 4 a heterocycloalkyl; • R 2 to R 6 are, independently of one another, H or OR 10 ; • R 10 is H or (C 1 -C 6 )alkyl; • R 7 to R 9 are, independently of one another, H; halo; or a group selected from (C 1 -C 6 )alkyl, heterocycle, aryl, heteroaryl, -(C 1 -C 6 )alkyl-aryl, and -(C 1 -C 6 )alkyl-heterocycle, said group being optionally substituted with one or several groups selected from halo, -OR 36 , -NR 37 R 38 , -SR 39 , -S(O)R 40 , -SO 2 R 41 , -SO 2 NR 42 R 43 , - OCOR 44 , -NR 45 COR 46 , -NR 47 C(O)OR 48 , -CO 2 R 49 , -CONR 50 R 51 , -OCONR 53 R 54 ,-COR 55 , nitro (-NO 2 ), cyano (-CN), oxo (=O), and a group selected from aryl, heterocycle and -(C 1 -C 6 )alkyl-heterocycle, said group being optionally substituted with one or several (C 1 -C 6 )-alkyl; and • R 36 to R 55 are, independently of one another, H, halo, benzoylbenzyl, or a group selected from (C 1 -C 6 )alkyl, aryl, heteroaryl, heterocycle, -(C 1 -C 6 )alkyl-heterocycle, and -(C 1 -C 6 )alkyl-aryl, said group being optionally substituted with one or several groups selected from halo, CF 3 or (C 1 -C 6 )alkyl; or R 37 -R 38 , R 42 -R 43 , R 50 -R 51 , and/or R 53 -R 54 may together respectively form a heterocycloalkyl, for use for preventing and/or treating disorders associated with cellular necroptosis . • R 1 is H, a (C 1 -C 6 )alkyl or a (C 3 -C 6 )cycloalkyl, or R 1 forms together with R 2 or R 4 a heterocycloalkyl, preferably R 1 is H, a (C 1 -C 3 )alkyl or R 1 forms together with R 2 or R 4 a heterocycloalkyl; • R 2 to R 6 are, independently of one another, H or OR 10 ; • R 10 is H or (C 1 -C 6 )alkyl; • R 7 to R 9 are, independently of one another, H; halo; or a group selected from (C 1 -C 6 )alkyl, heterocycle, aryl, heteroaryl, -(C 1 -C 6 )alkyl-aryl, and -(C 1 -C 6 )alkyl-heterocycle, said group being optionally substituted with one or several groups selected from halo, -OR 36 , -NR 37 R 38 , -SR 39 , -S(O)R 40 , -SO 2 R 41 , -SO 2 NR 42 R 43 , - OCOR 44 , -NR 45 COR 46 , -NR 47 C(O)OR 48 , -CO 2 R 49 , -CONR 50 R 51 , -OCONR 53 R 54 ,-COR 55 , nitro (-NO 2 ), cyano (-CN), oxo (=O), and a group selected from aryl, heterocycle and -(C 1 -C 6 )alkyl-heterocycle, said group being optionally substituted with one or several (C 1 -C 6 )-alkyl; and • R 36 to R 55 are, independently of one another, H, halo, benzoylbenzyl, or a group selected from (C 1 -C 6 )alkyl, aryl, heteroaryl, heterocycle, -(C 1 -C 6 )alkyl-heterocycle, and -(C 1 -C 6 )alkyl-aryl, said group being optionally substituted with one or several groups selected from halo, CF 3 or (C 1 -C 6 )alkyl; or R 37 -R 38 , R 42 -R 43 , R 50 -R 51 , and/or R 53 -R 54 may together respectively form a heterocycloalkyl,
An angular adjustment tool equipped with a first member , and a second member having a gear means , and a swingable floating wedge member having a toothed surface which can mesh with said gear means , and in respect of an angular adjustment tool with constrained relative swinging motion to the opposite direction (B) from the relative swinging motion enabled to one direction (A) of said second member with respect to said first member , comprising a free-holding means enabling the holding of the toothed surface of said floating wedge member to be freely held in non-contact with said gear means on the occasion of the swinging motion to said one direction (A), wherein the non-contact free-holding means provides a wedge operating member which is revolved through a small angular range by means of the friction forces accompanying the revolution with the second member , and configures a non-contacted free state wherein the wedge operating member holds the toothed surface of the floating wedge member in a non-contacted free state from said gear means , by means of the swinging motion to the one direction (A) of the second member with respect to the first member , in addition to a meshed state of the toothed surface of the floating wedge member with the gear means and the wedge surface formed on the first member side, by means of the swinging motion to the opposite direction (B), wherein the relative swinging motion to the opposite direction (B) of the second member with respect to the first member is constrained by means of the wedge effect of the floating wedge member .
A method of cleaning a jet pump assembly of a nuclear reactor, comprising: inserting a cleaning tool (202/402) into the jet pump assembly such that a front face of the cleaning tool (202/402) is adjacent to an inner surface of the jet pump assembly and below a level of a first liquid in the jet pump assembly; directing a plurality of front jets of a second liquid from a plurality of front orifices on the front face of the cleaning tool (202/402) such that the plurality of front jets of the second liquid travel through the first liquid and strike the inner surface of the jet pump assembly; and maintaining a standoff distance between the front face of the cleaning tool (202/402) and the inner surface of the jet pump assembly during the cleaning of the jet pump assembly. inserting a cleaning tool (202/402) into the jet pump assembly such that a front face of the cleaning tool (202/402) is adjacent to an inner surface of the jet pump assembly and below a level of a first liquid in the jet pump assembly; directing a plurality of front jets of a second liquid from a plurality of front orifices on the front face of the cleaning tool (202/402) such that the plurality of front jets of the second liquid travel through the first liquid and strike the inner surface of the jet pump assembly; and maintaining a standoff distance between the front face of the cleaning tool (202/402) and the inner surface of the jet pump assembly during the cleaning of the jet pump assembly.
A touchscreen display device, comprising: a processor, a touchscreen , a computer storage having computer executable instructions that when executed by the processor performs a method for rendering predictive wet ink on the touchscreen , comprising: receiving a plurality of contact points on a path made by an object across a surface of the touchscreen ; computing an active cubic Bézier approximation using the plurality of contact points as an input, the active cubic Bézier approximation having a starting contact point and a termination contact point ; determining a wet ink latency period for the touchscreen , wherein the wet ink latency period is the amount of time between the object contacting a point on the touchscreen and wet ink generated using the contact point being displayed, wherein the wet ink latency period is determined by calling a function that determines the wet ink latency period; determining a predictive distance the object should travel during the wet ink latency period; computing a new cubic Bézier approximation that extends the predictive distance from the termination contact point ; and rendering a wet ink based on the active cubic Bézier approximation together with a predictive wet ink based on the new cubic Bézier approximation. receiving a plurality of contact points on a path made by an object across a surface of the touchscreen ; computing an active cubic Bézier approximation using the plurality of contact points as an input, the active cubic Bézier approximation having a starting contact point and a termination contact point ; determining a wet ink latency period for the touchscreen , wherein the wet ink latency period is the amount of time between the object contacting a point on the touchscreen and wet ink generated using the contact point being displayed, wherein the wet ink latency period is determined by calling a function that determines the wet ink latency period; determining a predictive distance the object should travel during the wet ink latency period; computing a new cubic Bézier approximation that extends the predictive distance from the termination contact point ; and rendering a wet ink based on the active cubic Bézier approximation together with a predictive wet ink based on the new cubic Bézier approximation.
A method for generating a scatter image of an object at a projection angle in an imaging system, the method comprising: a. acquiring a non-grid image of the object without a scatter rejecting aperture plate using a radiation source and a detector ; b. positioning a scatter rejecting aperture plate between the object and the detector at a first position, wherein the scatter rejecting aperture plate comprises a plurality of apertures , said plurality of apertures being positioned on a grid; c. acquiring a first grid image of the object with the scatter rejecting aperture plate disposed between the object and the detector at the first position; d. moving the scatter rejecting aperture plate to a second position between the object and the detector ; e. acquiring a second grid image of the object with the scatter rejecting aperture plate disposed between the object and the detector at the second position; f. generating a scatter image of the object based on the non-grid image, the first grid image, and the second grid image; and g. storing the scatter image of the object. a. acquiring a non-grid image of the object without a scatter rejecting aperture plate using a radiation source and a detector ; b. positioning a scatter rejecting aperture plate between the object and the detector at a first position, wherein the scatter rejecting aperture plate comprises a plurality of apertures , said plurality of apertures being positioned on a grid; c. acquiring a first grid image of the object with the scatter rejecting aperture plate disposed between the object and the detector at the first position; d. moving the scatter rejecting aperture plate to a second position between the object and the detector ; e. acquiring a second grid image of the object with the scatter rejecting aperture plate disposed between the object and the detector at the second position; f. generating a scatter image of the object based on the non-grid image, the first grid image, and the second grid image; and g. storing the scatter image of the object.
A method for determining the flow rate of combustible fluid injected inside a combustion chamber of a turbine , the combustible fluid being a mixture of air-fuel gas injected inside the combustion chamber through an orifice of at least one injector , said orifice being disposed inside the combustion chamber, the method comprising the following steps: - determine the section of the orifice of said at least one injector through which the combustible fluid is injected into the combustion chamber , - determine the pressure of the combustible fluid upstream of the injector orifice , - determine the pressure downstream of the injector orifice , - determine the flow rate of combustible fluid flowing through the orifice of said at least one injector according to the section of the orifice of said at least one injector, of the pressure of the combustible fluid upstream of the injector orifice and the pressure downstream of the injector orifice determined, - determine the flow rate of combustible fluid injected inside the combustion chamber according to the pressure difference across said at least one injector wherein the pressure of the combustible fluid upstream of the injector orifice is determined indirectly by measuring the pressure difference between the fuel line and the pressure of the compressed air leaving the compressor (PCD). - determine the section of the orifice of said at least one injector through which the combustible fluid is injected into the combustion chamber , - determine the pressure of the combustible fluid upstream of the injector orifice , - determine the pressure downstream of the injector orifice , - determine the flow rate of combustible fluid flowing through the orifice of said at least one injector according to the section of the orifice of said at least one injector, of the pressure of the combustible fluid upstream of the injector orifice and the pressure downstream of the injector orifice determined, - determine the flow rate of combustible fluid injected inside the combustion chamber according to the pressure difference across said at least one injector
An ultrasonic probe comprising: a transducer module including a piezoelectric layer configured to generate an ultrasonic wave and acoustic matching layer positioned to the front of the piezoelectric layer ; a case which has an opened one side and is configured to accommodate the transducer module ; a lens disposed in front of the transducer module ; and a protective member accommodated in the case and positioned to face at least one surface of the transducer module , characterized in that the protective member protrudes further forward compared to the acoustic matching layer so as to protect the transducer module from an external impact, wherein the protective member includes an impact blocking member provided to protrude further forward compared to the transducer module and an impact absorbing member disposed between the impact blocking member and the transducer module to absorb an impact transmitted to the impact blocking member . a transducer module including a piezoelectric layer configured to generate an ultrasonic wave and acoustic matching layer positioned to the front of the piezoelectric layer ; a case which has an opened one side and is configured to accommodate the transducer module ; a lens disposed in front of the transducer module ; and a protective member accommodated in the case and positioned to face at least one surface of the transducer module , characterized in that