mhurhangee/ep-ind-claims huggingface dataset:
Method for aligning a vehicle surroundings sensor or a headlamp (3, 4) on a vehicle by means of a device which has a camera and an evaluation apparatus, comprising the following steps: a measuring station with a roadway plane with at least three measuring points, arranged on the measuring station, of a control point system is predefined, wherein the three measuring points of the control point system must not lie on a straight line, the position and orientation of the camera in the measuring station is determined on the basis of the measuring points of the control point system, a driving axis of the vehicle is determined by means of the camera and at least one measuring point on the vehicle is determined during driving off by recording a plurality of images, an auxiliary adjustment apparatus ahead of the vehicle surroundings sensor or headlamp (3, 4) of the vehicle is aligned by means of the camera and at least three measuring points of a control point system on the auxiliary adjustment apparatus with the driving axis and the roadway plane, wherein the three measuring points of the control point system must not lie on a straight line, an alignment of the vehicle surroundings sensor or headlamp (3, 4) with respect to the auxiliary adjustment apparatus is determined, and the vehicle surroundings sensor or headlamp (3, 4) is aligned in the event of an incorrect alignment. a measuring station with a roadway plane with at least three measuring points, arranged on the measuring station, of a control point system is predefined, wherein the three measuring points of the control point system must not lie on a straight line, the position and orientation of the camera in the measuring station is determined on the basis of the measuring points of the control point system, a driving axis of the vehicle is determined by means of the camera and at least one measuring point on the vehicle is determined during driving off by recording a plurality of images, an auxiliary adjustment apparatus ahead of the vehicle surroundings sensor or headlamp (3, 4) of the vehicle is aligned by means of the camera and at least three measuring points of a control point system on the auxiliary adjustment apparatus with the driving axis and the roadway plane, wherein the three measuring points of the control point system must not lie on a straight line, an alignment of the vehicle surroundings sensor or headlamp (3, 4) with respect to the auxiliary adjustment apparatus is determined, and the vehicle surroundings sensor or headlamp (3, 4) is aligned in the event of an incorrect alignment.
Injector, in particular common-rail injector, for injecting fuel into a combustion chamber of an internal combustion engine, having an injection valve element which is adjustable between a closed position and an open position and which can be actuated by means of a control valve, which control valve has a control valve element which can be adjusted between a closed position and an open position by way of an actuator and which is at least approximately pressure-balanced in the closed position and which has a sealing line which, in the closed position of the control valve element, interacts sealingly with a control valve seat and which, in the open position, is lifted from the control valve seat and thus permits the flow of fuel from a high-pressure region into a low-pressure region of the injector, wherein the control valve element has a support region which projects beyond the sealing line in the radial direction toward the high-pressure region and which is in the form of a sleeve, wherein a high-pressure relief angle (γ) between a delimiting line of the support region, which delimiting line faces toward the control valve seat and, in the high-pressure region, adjoins the sealing line, and the control valve seat surface is greater than a low-pressure relief angle (δ) between a delimiting line of the control valve element, which delimiting line faces toward the control valve seat and, in the low-pressure region, adjoins the sealing line, and the control valve seat surface, characterized in that the low-pressure relief angle (δ) is selected from an angle range between 0.5° in 5°, preferably between 0.5° and 2°.
A three-dimensional printing method, comprising: selecting a coalescent dispersion for forming a three-dimensional object, the coalescent dispersion including: an aqueous vehicle; and an infrared or near-infrared binding agent dissolved or dispersed in the aqueous vehicle, the infrared or near-infrared binding agent being selected from the group consisting of a phthalocyanine having a polar group attached to each side chain thereof and a naphthalocyanine having a polar group attached to each side chain thereof; depositing a sinterable material; heating the sinterable material to a temperature ranging from about 50°C to about 350°C; selectively applying the coalescent dispersion on at least a portion of the sinterable material; and exposing the sinterable material and the coalescent dispersion applied thereon to infrared or near-infrared radiation, whereby the infrared or near-infrared binding agent absorbs the radiation and converts the absorbed radiation to thermal energy, thereby at least curing the at least the portion of the sinterable material in contact with the infrared or near-infrared binding agent and forming a first layer of the three-dimensional object. selecting a coalescent dispersion for forming a three-dimensional object, the coalescent dispersion including: an aqueous vehicle; and an infrared or near-infrared binding agent dissolved or dispersed in the aqueous vehicle, the infrared or near-infrared binding agent being selected from the group consisting of a phthalocyanine having a polar group attached to each side chain thereof and a naphthalocyanine having a polar group attached to each side chain thereof; an aqueous vehicle; and an infrared or near-infrared binding agent dissolved or dispersed in the aqueous vehicle, the infrared or near-infrared binding agent being selected from the group consisting of a phthalocyanine having a polar group attached to each side chain thereof and a naphthalocyanine having a polar group attached to each side chain thereof; depositing a sinterable material; heating the sinterable material to a temperature ranging from about 50°C to about 350°C; selectively applying the coalescent dispersion on at least a portion of the sinterable material; and exposing the sinterable material and the coalescent dispersion applied thereon to infrared or near-infrared radiation, whereby the infrared or near-infrared binding agent absorbs the radiation and converts the absorbed radiation to thermal energy, thereby at least curing the at least the portion of the sinterable material in contact with the infrared or near-infrared binding agent and forming a first layer of the three-dimensional object.
Method for controlling a supply of air to an internal combustion engine equipping a motor vehicle, the internal combustion engine being equipped with an air-supply conduit that is provided with a member for regulating the rate of an airflow flowing inside the air-supply conduit, the control method comprising a step of positioning the regulation member, which is able to move between a completely open position in which the regulation member allows passage of the airflow and a closed position in which the regulation member prevents such passage, the control method comprising a step of calculating an air-admission coefficient A ADM for determining a position of the regulation member, characterised in that the calculation step takes into account a variation in acoustic tuning frequency f 0 of a column of air housed inside the air-supply conduit.
A system for performing health monitoring of a measurement device, by monitoring the temperature of the measurement device, the system comprising: a measurement device configured to measure a parameter of an environment, wherein the measurement device is a pitot tube; a heating element of a heater section coupled to the measurement device, wherein the heating element is configured to generate heat for the measurement device; the system being characterised in that it further comprises a first sensing element operably coupled to a first region of the measurement device, wherein the first sensing element is configured to sense a condition of the first region of the measurement device, wherein the first region is a tip of the pitot tube; a second sensing element operably coupled to a second region of the measurement device, wherein the second sensing element is configured to sense a condition of the second region, wherein the second region is the heating element which is configured to de-ice the pitot tube; and a programmable logic that is configured to generate a status signal or flag based at least in part on a condition of the first region and the second region of the measurement device, wherein the condition of the first region and the second region is a temperature; a processing system configured to control the heating element responsive to reaching a threshold temperature; and a display configured to display a status of the first region or second region of the measurement device based at least in part on the status signal or flag. a measurement device configured to measure a parameter of an environment, wherein the measurement device is a pitot tube; a heating element of a heater section coupled to the measurement device, wherein the heating element is configured to generate heat for the measurement device; the system being characterised in that it further comprises a first sensing element operably coupled to a first region of the measurement device, wherein the first sensing element is configured to sense a condition of the first region of the measurement device, wherein the first region is a tip of the pitot tube; a second sensing element operably coupled to a second region of the measurement device, wherein the second sensing element is configured to sense a condition of the second region, wherein the second region is the heating element which is configured to de-ice the pitot tube; and a programmable logic that is configured to generate a status signal or flag based at least in part on a condition of the first region and the second region of the measurement device, wherein the condition of the first region and the second region is a temperature; a processing system configured to control the heating element responsive to reaching a threshold temperature; and a display configured to display a status of the first region or second region of the measurement device based at least in part on the status signal or flag.
A computing system to provide a personalized search environment to users through their personal accounts, the computing system being adapted to: receive a request to perform a search for a user based on the user's personal account credentials through a service; upon receiving the request, perform an authentication that includes a personalized search application secret, wherein authentication parameters include a client identifier for a personalized search application; authenticate the user through the service; forward the request to the personalized search application using a tenant identifier assigned to all users of the service with personal accounts; request, by the personalized search application, an access token from a token endpoint of the service by using client credentials associated with the user; enable performance of the search through an aggregation service associated with the service, wherein the aggregation service maintains relevancy information for the user based on a plurality of resources associated with the user; and provide search results to the user. receive a request to perform a search for a user based on the user's personal account credentials through a service; upon receiving the request, perform an authentication that includes a personalized search application secret, wherein authentication parameters include a client identifier for a personalized search application; authenticate the user through the service; forward the request to the personalized search application using a tenant identifier assigned to all users of the service with personal accounts; request, by the personalized search application, an access token from a token endpoint of the service by using client credentials associated with the user; enable performance of the search through an aggregation service associated with the service, wherein the aggregation service maintains relevancy information for the user based on a plurality of resources associated with the user; and provide search results to the user.
A method for removing nitrogen oxides NOx from a gaseous current, comprising the steps of: passing the gaseous current through: - a first de-NOx catalytic bed, - and then into a second de-NOx catalytic bed comprising a catalyst which is iron exchanged zeolite with the addition of ammonia (NH 3) as a reducing agent, wherein the molar ratio of NH 3 over NOx in the gas admitted to said second de-NOx catalytic bed is 1.4 to 2, wherein said second de-NOx catalytic bed is operated at a temperature in the range of 420 °C to 435 °C, and the space velocity in said second de-NOx catalytic bed is 10000 h -1 to 14000 h -1. passing the gaseous current through: - a first de-NOx catalytic bed, - and then into a second de-NOx catalytic bed comprising a catalyst which is iron exchanged zeolite with the addition of ammonia (NH 3) as a reducing agent, - a first de-NOx catalytic bed, - and then into a second de-NOx catalytic bed comprising a catalyst which is iron exchanged zeolite with the addition of ammonia (NH 3) as a reducing agent, wherein the molar ratio of NH 3 over NOx in the gas admitted to said second de-NOx catalytic bed is 1.4 to 2, wherein said second de-NOx catalytic bed is operated at a temperature in the range of 420 °C to 435 °C, and the space velocity in said second de-NOx catalytic bed is 10000 h -1 to 14000 h -1.
A disconnector operating device comprising: - a motor configured to provide driving force to a movable contactor of a disconnector body via an output shaft; - two motor stop limit switches (19a, 19b) provided around a shaft (14, 15) configured to rotate by the driving force of the motor, the two motor stop limit switches (19a, 19b) being configured to stop the motor according to an ON state or an OFF state of the disconnector body; and - a plurality of state detection limit switches (9a, 9b) provided around a cam shaft configured to rotate by the driving force of the motor, the plurality of state detection limit switches (9a, 9b) being configured to detect the ON state and the OFF state of the disconnector body. - a motor configured to provide driving force to a movable contactor of a disconnector body via an output shaft; - two motor stop limit switches (19a, 19b) provided around a shaft (14, 15) configured to rotate by the driving force of the motor, the two motor stop limit switches (19a, 19b) being configured to stop the motor according to an ON state or an OFF state of the disconnector body; and - a plurality of state detection limit switches (9a, 9b) provided around a cam shaft configured to rotate by the driving force of the motor, the plurality of state detection limit switches (9a, 9b) being configured to detect the ON state and the OFF state of the disconnector body.
An ergonomic welding arm, comprising: a support a wire feeder portion a plurality of arm links (14,20,24) coupled by a plurality of joints (12,18,22,26), each of the plurality of joints (12,18,22,26) configured to allow the plurality of arm links (14,20,24) to be rotated about an axis with respect to a directly adjacent arm link; wherein a distal end of the welding arm is coupled via the wire feeder portion to the support for supporting the welding arm; and a proximal end of the welding arm is configured to engage a welding torch; and a welding cable that is coupled to the wire feeder portion and is couplable to the welding torch, and removably connected to at least two of the plurality of arm links (14, 20, 24) so that the welding cable generally follows the lines of the plurality of arm links (14, 20, 24) between the wire feeder portion and the welding torch. a support a wire feeder portion a plurality of arm links (14,20,24) coupled by a plurality of joints (12,18,22,26), each of the plurality of joints (12,18,22,26) configured to allow the plurality of arm links (14,20,24) to be rotated about an axis with respect to a directly adjacent arm link; wherein a distal end of the welding arm is coupled via the wire feeder portion to the support for supporting the welding arm; and a proximal end of the welding arm is configured to engage a welding torch; and a welding cable that is coupled to the wire feeder portion and is couplable to the welding torch, and removably connected to at least two of the plurality of arm links (14, 20, 24) so that the welding cable generally follows the lines of the plurality of arm links (14, 20, 24) between the wire feeder portion and the welding torch.
A chassis component for a motor vehicle, in particular a transverse control arm, comprising a mounting section which is provided for connection to the motor vehicle, a bearing seat for a bearing which is provided for connection to a wheel carrier, and a strut which connects the mounting section and the bearing seat to one another, the strut being a plastic composite component having a strut body and a jacket, and the mounting section including two metal tabs which are firmly connected to the strut, the metal tabs being connected to the strut with an interlocking fit, characterized in that the metal tabs have openings through which material of the strut body extends.
A method of manufacturing a photochromic film, comprising: coating a photochromic composition comprising an acrylate-based monomer, a photochromic dye, and a photoinitiator on a substrate, wherein the photochromic composition is a non-solvent type, and the acrylate-based monomer comprises a multifunctional (meth)acrylate-based monomer having two or more functional groups and a monofunctional acrylate-based monomer, UV curing the coated photochromic composition, and removing the substrate, wherein a viscosity (measured with a viscometer model TV-22, Toki Sangyo at 22°C) of the photochromic composition is 50 to 100,000 mPas (50 to 100,000 cps), and wherein the monofunctional acrylate-based monomer comprises one or two kinds or more monomers selected from the group consisting of ethyl hexyl acrylate, phenoxy ethyl acrylate, and tetrahydroperfuryl acrylate (THFA). coating a photochromic composition comprising an acrylate-based monomer, a photochromic dye, and a photoinitiator on a substrate, wherein the photochromic composition is a non-solvent type, and the acrylate-based monomer comprises a multifunctional (meth)acrylate-based monomer having two or more functional groups and a monofunctional acrylate-based monomer, UV curing the coated photochromic composition, and removing the substrate, wherein a viscosity (measured with a viscometer model TV-22, Toki Sangyo at 22°C) of the photochromic composition is 50 to 100,000 mPas (50 to 100,000 cps), and wherein the monofunctional acrylate-based monomer comprises one or two kinds or more monomers selected from the group consisting of ethyl hexyl acrylate, phenoxy ethyl acrylate, and tetrahydroperfuryl acrylate (THFA).
A lighting control system comprising: a lighting controller configured to control at least one lighting element (1-N); a processor; a lighting environment determination module executable by the processor and configured to determine a target light setting, for the control of the at least one lighting element (1-N) by the lighting controller, based on data received from at least one of an activity sensor and a schedule input; a light transition setting module executable by the processor and configured to compare the target light setting with an initial light setting of the at least one lighting element (1-N) and determine at least one light transition setting, the at least one light transition setting having at least one of an appropriated number of transition settings, a transitional color for each transition setting, a transitional display time and/or a fade time being calculated based on the difference in light intensity, color and color temperature between the initial light setting and the target light setting and based on the amount of time an observer has been immersed in the current light setting used to control the at least one lighting element (1-N); and a lighting control module executable by the processor and for issuing light setting commands to the lighting controller, the lighting control module configured to command the at least one light transition setting prior to commanding the target light setting to the lighting controller. a lighting controller configured to control at least one lighting element (1-N); a processor; a lighting environment determination module executable by the processor and configured to determine a target light setting, for the control of the at least one lighting element (1-N) by the lighting controller, based on data received from at least one of an activity sensor and a schedule input; a light transition setting module executable by the processor and configured to compare the target light setting with an initial light setting of the at least one lighting element (1-N) and determine at least one light transition setting, the at least one light transition setting having at least one of an appropriated number of transition settings, a transitional color for each transition setting, a transitional display time and/or a fade time being calculated based on the difference in light intensity, color and color temperature between the initial light setting and the target light setting and based on the amount of time an observer has been immersed in the current light setting used to control the at least one lighting element (1-N); and a lighting control module executable by the processor and for issuing light setting commands to the lighting controller, the lighting control module configured to command the at least one light transition setting prior to commanding the target light setting to the lighting controller.
An acidic surfactant based cleaning composition comprising lactic acid in an amount of 1 wt.% to 3 wt.% by weight of the total composition, and a surfactant combination, wherein the surfactant combination consists of dodecyl benzene sulfonate in an amount of 3 wt.% to 10 wt.% by weight of the total composition, lauryl ether sulfate with about two EO units in an amount of 3 wt.% to 20 wt.% by weight of the total composition, laurylamidopropyl betaine in an amount of 1 wt.% to 8 wt. % by weight of the total composition, wherein the dodecyl benzene sulfonate is present as a sodium salt of dodecyl benzene sulfonate, and wherein the lauryl ether sulfate is present as a sodium salt of lauryl ether sulfate.