mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting an impending tip over of a vehicle, in particular for identifying false positives during tip over detection, the method comprising the steps: acquiring first measurement data, the first measurement data comprising vehicle axle strain data, and at least one of attitude data and acceleration data; acquiring second measurement data, the second measurement data comprising vehicle axle strain data, and at least one of attitude data and acceleration data; determining, based on the first measurement data and based on the second measurement data, if the second measurement data is indicative of an impending tip over of the vehicle; and only if it is determined that the second measurement data is indicative of an impending tip over of the vehicle, triggering an alarm signal, overriding a control command or overwriting a control command. acquiring first measurement data, the first measurement data comprising vehicle axle strain data, and at least one of attitude data and acceleration data; acquiring second measurement data, the second measurement data comprising vehicle axle strain data, and at least one of attitude data and acceleration data; determining, based on the first measurement data and based on the second measurement data, if the second measurement data is indicative of an impending tip over of the vehicle; and only if it is determined that the second measurement data is indicative of an impending tip over of the vehicle, triggering an alarm signal, overriding a control command or overwriting a control command.
A lower part for a clamping device, in particular a rail clamping device, wherein the lower part is provided for welding to a metal body, and the lower part has a clamping body securing portion for securing a clamping body of the clamping device to the lower part, characterized in that the lower part has at least one prolongation extending beyond the clamping body securing portion, wherein an underside of the clamping body securing portion and an underside of the prolongation together form a contact surface for contact of the lower part against the metal body and the thickness (11, 12), measured in a direction normal to the contact surface, of the lower part is greater in the clamping body securing portion than in the region of the prolongation and in that a transition region of the lower part is formed between the clamping body securing portion and the prolongation of the lower part and an upper side, opposite the contact surface, of the lower part is sloped and/or curved to a greater extent in the transition region than in the region of the clamping body securing portion and than in the region of the prolongation.
A method for multi-level etch, comprising: providing a substrate having a region designating a control region and another laterally separated region designating a target region at an upper surface of the substrate; forming on the upper surface, a first reference feature, provided as a structure having an upper reference level, possessing a predetermined height extending from the upper surface to the reference level, the first reference feature being formed over the control region of the substrate; forming an etchable layer over the first reference feature and the target region, patterning a masking layer over the etchable layer, the masking layer having a first opening projecting from the control region and a second opening projecting over the target region; removing a portion of the etchable layer through the first opening and the second opening by performing an anisotropic dry etch until the first reference feature is reached prior to the target feature; and after the first reference feature is reached, changing an etching condition from performing the anisotropic dry etch to performing an isotropic wet etch; wherein the control region is configured as a control pivot for changing the etching condition implemented for a target feature formed over the target region of the substrate in that, on reaching the reference level at the predetermined height, the changing of the etching condition is determined thereby. providing a substrate having a region designating a control region and another laterally separated region designating a target region at an upper surface of the substrate; forming on the upper surface, a first reference feature, provided as a structure having an upper reference level, possessing a predetermined height extending from the upper surface to the reference level, the first reference feature being formed over the control region of the substrate; forming an etchable layer over the first reference feature and the target region, patterning a masking layer over the etchable layer, the masking layer having a first opening projecting from the control region and a second opening projecting over the target region; removing a portion of the etchable layer through the first opening and the second opening by performing an anisotropic dry etch until the first reference feature is reached prior to the target feature; and after the first reference feature is reached, changing an etching condition from performing the anisotropic dry etch to performing an isotropic wet etch; wherein the control region is configured as a control pivot for changing the etching condition implemented for a target feature formed over the target region of the substrate in that, on reaching the reference level at the predetermined height, the changing of the etching condition is determined thereby.
A medical instrument, comprising: a handle (200, 200B); a deployment trigger disposed on the handle (200, 200B), the deployment trigger being movable between a pre-deployment configuration and a deployment configuration by application of an external force to the deployment trigger; a shaft mounted to and extending distally from the handle (200, 200B); an end effector disposed distally on the shaft, the end effector comprising a first jaw configured to releasably receive an occlusion clip, the deployment trigger being operatively coupled to the first jaw by a deployment cable; and an elastic member disposed within the handle (200, 200B), the elastic member including a first end and a second end, the second end being affixed to the handle (200, 200B); characterised in that the deployment cable extends from the first end of the elastic member to the first jaw; wherein, when the deployment trigger is in the pre-deployment configuration, the elastic member is held in an extended configuration; wherein, when the deployment trigger is moved to the deployment configuration, the elastic member retracts the deployment cable proximally; and wherein, retracting the deployment cable proximally releases the occlusion clip from the first jaw. a handle (200, 200B); a deployment trigger disposed on the handle (200, 200B), the deployment trigger being movable between a pre-deployment configuration and a deployment configuration by application of an external force to the deployment trigger; a shaft mounted to and extending distally from the handle (200, 200B); an end effector disposed distally on the shaft, the end effector comprising a first jaw configured to releasably receive an occlusion clip, the deployment trigger being operatively coupled to the first jaw by a deployment cable; and an elastic member disposed within the handle (200, 200B), the elastic member including a first end and a second end, the second end being affixed to the handle (200, 200B); characterised in that the deployment cable extends from the first end of the elastic member to the first jaw; wherein, when the deployment trigger is in the pre-deployment configuration, the elastic member is held in an extended configuration; wherein, when the deployment trigger is moved to the deployment configuration, the elastic member retracts the deployment cable proximally; and wherein, retracting the deployment cable proximally releases the occlusion clip from the first jaw.
A method implemented by an electronic device, the method comprising: displaying, in sequential order, a plurality of panels (712a, 712b, 714a, 714b, 710a, 710b, 711b) of a homescreen on a touchscreen of the electronic device, the plurality of panels comprising: a first panel comprising a fullscreen view for a first application executing on the electronic device and at least one launch panel (712a, 712b, 714a, 714b) comprising a plurality of graphical user interface elements (220a, 220b), with each of the plurality of graphical user interface elements being associated with a corresponding application entry point; and when at least one of a plurality of applications other than the first application is executing in a multitasking mode on the electronic device, the plurality of panels comprise a multitasking panel comprising one or more reduced-size views of the at least one of the plurality of applications executing in the multitasking mode. a first panel comprising a fullscreen view for a first application executing on the electronic device and at least one launch panel (712a, 712b, 714a, 714b) comprising a plurality of graphical user interface elements (220a, 220b), with each of the plurality of graphical user interface elements being associated with a corresponding application entry point; and when at least one of a plurality of applications other than the first application is executing in a multitasking mode on the electronic device, the plurality of panels comprise a multitasking panel comprising one or more reduced-size views of the at least one of the plurality of applications executing in the multitasking mode.
A drapable electronic component, comprising: • an electronic layer formed by printing ink, and • a protective layer characterized in that: • the protective layer forms a complex which comprises a fabric and a protective polymer layer coating one side of the fabric • the electronic layer is deposited on the fabric, on the side of the fabric opposite the deposition side of the protective polymer layer • the fabric is obtained by weaving continuous yarns and is characterized by a cover factor CF25 higher than or equal to 0.5, typically of 0.5 to 3, in particular between 0.6 and 2.5, more particularly between 0.7 and 2, for example between 0.7 and 1.5, CF25 being calculated as follows: CF25 = [(number of filaments/cm × diameter of 1 filament in cm) warp + (number of filaments/cm × diameter of 1 filament in cm) weft] × 25 / thickness of said fabric in μm. • an electronic layer formed by printing ink, and • a protective layer • the protective layer forms a complex which comprises a fabric and a protective polymer layer coating one side of the fabric • the electronic layer is deposited on the fabric, on the side of the fabric opposite the deposition side of the protective polymer layer • the fabric is obtained by weaving continuous yarns and is characterized by a cover factor CF25 higher than or equal to 0.5, typically of 0.5 to 3, in particular between 0.6 and 2.5, more particularly between 0.7 and 2, for example between 0.7 and 1.5, CF25 being calculated as follows: CF25 = [(number of filaments/cm × diameter of 1 filament in cm) warp + (number of filaments/cm × diameter of 1 filament in cm) weft] × 25 / thickness of said fabric in μm.
Method for regulating a vertical regulating system of a vehicle having at least two vertical regulating devices, which influence the driving stability of the vehicle, comprising the following steps: - monitoring the functional capability of the at least two vertical regulating devices by means of sensor devices of the respective regulating unit of the respective vertical regulating device, - detecting an error state of a first vertical regulating device of the at least two vertical regulating devices, - adapting the regulating parameters of at least a second vertical regulating device of the at least two vertical regulating devices to at least partially compensate for the error state of the first vertical regulating device. - monitoring the functional capability of the at least two vertical regulating devices by means of sensor devices of the respective regulating unit of the respective vertical regulating device, - detecting an error state of a first vertical regulating device of the at least two vertical regulating devices, - adapting the regulating parameters of at least a second vertical regulating device of the at least two vertical regulating devices to at least partially compensate for the error state of the first vertical regulating device.
High pressure pump system of a fuel system (10, 10', 10"), comprising a high pressure fuel pump with a pump body in which a pumping chamber and a piston are disposed, the piston being constructed and arranged to be inserted into or withdrawn from the pumping chamber to control a flow of fuel from the pumping chamber, the high pressure pump system further comprising a control structure (11, 11', 11 ") for controlling movement of the high pressure fuel pump piston of the fuel system (10, 10', 10"),, the control structure comprising: a rocker arm (42, 42', 42") with an associated roller follower, the roller follower being constructed and arranged to engage a camshaft of an engine, the rocker arm (42, 42', 42") being operatively associated with the piston such that movement of the camshaft causes movement of the rocker arm and thus movement of the piston, and actuator structure associated with the rocker arm (42, 42', 42") and constructed and arranged to vary a percentage of camshaft motion imparted to the piston via the rocker arm, wherein the actuator structure includes a control element (38, 38', 38") associated with the rocker arm (42, 42', 42") and movable along a path between two endpoints in response to electrical current input to the actuator structure, wherein the actuator structure is constructed and arranged to also be hydraulically operated in the event that electrical current is not available. a rocker arm (42, 42', 42") with an associated roller follower, the roller follower being constructed and arranged to engage a camshaft of an engine, the rocker arm (42, 42', 42") being operatively associated with the piston such that movement of the camshaft causes movement of the rocker arm and thus movement of the piston, and actuator structure associated with the rocker arm (42, 42', 42") and constructed and arranged to vary a percentage of camshaft motion imparted to the piston via the rocker arm, wherein the actuator structure includes a control element (38, 38', 38") associated with the rocker arm (42, 42', 42") and movable along a path between two endpoints in response to electrical current input to the actuator structure, wherein the actuator structure is constructed and arranged to also be hydraulically operated in the event that electrical current is not available.
A method of measuring moisture in corn, the method comprising: operatively coupling an ear of corn to a near infrared spectrometer while the ear of corn is being grown on a corn plant; and determining an amount of moisture in the ear of corn with the spectrometer while the ear of corn is being grown on the corn plant; wherein the step of operatively coupling the ear of corn to the spectrometer comprises engaging the ear of corn with a corn interface secured to the spectrometer, said corn interface being the corn interface according to one of the claims 8 to 13. operatively coupling an ear of corn to a near infrared spectrometer while the ear of corn is being grown on a corn plant; and determining an amount of moisture in the ear of corn with the spectrometer while the ear of corn is being grown on the corn plant; wherein the step of operatively coupling the ear of corn to the spectrometer comprises engaging the ear of corn with a corn interface secured to the spectrometer, said corn interface being the corn interface according to one of the claims 8 to 13.
Strong connection between aluminium and copper, comprising a multilayer bond made up of a copper element, an aluminium layer and, lying on the latter, a copper layer in the said order, characterised in that the connection comprises at least one weld seam on the copper layer, with the weld seam extending through the copper layer and the aluminium layer into the copper element.
A device for cutting a moving media, comprising: a controller; a diagonal cutter including a cutting tool and a stationary, linear guide along which the cutting tool is moveable; and a media transport mechanism; wherein: the cutting tool is movable along a first straight line at a speed V C to cut moving media along a second straight line different from the first straight line; and the controller is arranged to control the media transport mechanism such that the media is moved into the cutting tool of cutter slightly faster than away from the cutter so as to help relieve tension in media at cutter. a controller; a diagonal cutter including a cutting tool and a stationary, linear guide along which the cutting tool is moveable; and a media transport mechanism; wherein: the cutting tool is movable along a first straight line at a speed V C to cut moving media along a second straight line different from the first straight line; and the controller is arranged to control the media transport mechanism such that the media is moved into the cutting tool of cutter slightly faster than away from the cutter so as to help relieve tension in media at cutter.
A method for manufacturing a fuel cell where a pair of separators (30a, 30c) are mutually bonded with a sealing member, the sealing member including a thermoplastic resin containing a crystalline polymer as an adhesive layer, the method for manufacturing the fuel cell comprising: preparing a stack structure in which the sealing member is disposed between the pair of separators (30a, 30c); heating the stack structure at a melting point or higher of the thermoplastic resin; after the heating, holding the stack structure in a temperature range of ±10°C of a crystallization temperature of the thermoplastic resin for at least one second to promote a crystallization of the thermoplastic resin; wherein the holding comprising holding the stack structure in the temperature range using a first cooling press; and after the holding, further cooling the stack structure. preparing a stack structure in which the sealing member is disposed between the pair of separators (30a, 30c); heating the stack structure at a melting point or higher of the thermoplastic resin; after the heating, holding the stack structure in a temperature range of ±10°C of a crystallization temperature of the thermoplastic resin for at least one second to promote a crystallization of the thermoplastic resin; wherein the holding comprising holding the stack structure in the temperature range using a first cooling press; and after the holding, further cooling the stack structure.
A method at a network node in a wireless communication network, of selecting an interference-mitigation, IM, mode, to be used by a wireless device operating in the network, said method comprising: obtaining capability information for a wireless device, wherein the capability information indicates which particular IM modes the wireless device supports from among a plurality of defined IM modes that differ with respect to an amount of network assistance required; obtaining selection information bearing on the selection of IM modes for the wireless device, said selection information comprising one or more operating parameters associated with current operation of the network and/or the wireless device; selecting one or more of the supported IM modes from the particular IM modes, as indicated by the capability information, based on evaluating the selection information; and sending IM configuration information for the wireless device, indicating the selected one or more IM modes. obtaining capability information for a wireless device, wherein the capability information indicates which particular IM modes the wireless device supports from among a plurality of defined IM modes that differ with respect to an amount of network assistance required; obtaining selection information bearing on the selection of IM modes for the wireless device, said selection information comprising one or more operating parameters associated with current operation of the network and/or the wireless device; selecting one or more of the supported IM modes from the particular IM modes, as indicated by the capability information, based on evaluating the selection information; and sending IM configuration information for the wireless device, indicating the selected one or more IM modes.
A method for non-contact tracking of an object using magnetic fields, comprising: producing an unperturbed magnetic field comprising at least four predetermined frequencies (ω) in the vicinity of the object; producing a perturbing magnetic field by introduction of an article responsive to the unperturbed field into the vicinity of the object; receiving a respective plurality of signals ( M i) responsive to the unperturbed and perturbing magnetic fields generated at a location of the object after introduction of the article; determining the spatial coordinates of the object responsive to the plurality of signals and the respective frequencies, characterised in that determining the spatial coordinates comprises solving for A 0, using each of the at least four received signals ( M i) responsive to the unperturbed and perturbing magnetic fields, the equation M ̅ i = β i A 0 ⁢ e i ⁢ φ i + β i ⁢ a 0 ⁢ ʹ ⁢ e i ( φ 0 + γ ⁢ ω i - ω 0 where a 0 ' and φ 0 ' are the perturbing amplitude and phase, and A 0 is the unperturbed amplitude, at frequency ω 0, Φ i is the unperturbed phase shift at frequency ω i, β i = M ̅ i M ̅ 0, and γ = ∂ φ ∂ ω M i is a phasor representing the measured field at frequency ω i M 0 is a phasor representing the measured field at frequency ω 0 wherein A 0, a 0 ' and φ 0 ' are unknown. producing an unperturbed magnetic field comprising at least four predetermined frequencies (ω) in the vicinity of the object; producing a perturbing magnetic field by introduction of an article responsive to the unperturbed field into the vicinity of the object; receiving a respective plurality of signals ( M i) responsive to the unperturbed and perturbing magnetic fields generated at a location of the object after introduction of the article; determining the spatial coordinates of the object responsive to the plurality of signals and the respective frequencies, characterised in that determining the spatial coordinates comprises solving for A 0, using each of the at least four received signals ( M i) responsive to the unperturbed and perturbing magnetic fields, the equation M ̅ i = β i A 0 ⁢ e i ⁢ φ i + β i ⁢ a 0 ⁢ ʹ ⁢ e i ( φ 0 + γ ⁢ ω i - ω 0 where a 0 ' and φ 0 ' are the perturbing amplitude and phase, and A 0 is the unperturbed amplitude, at frequency ω 0, Φ i is the unperturbed phase shift at frequency ω i, β i = M ̅ i M ̅ 0, and γ = ∂ φ ∂ ω M i is a phasor representing the measured field at frequency ω i M 0 is a phasor representing the measured field at frequency ω 0 wherein A 0, a 0 ' and φ 0 ' are unknown.
Household appliance with a door for closing an opening of a receiving space for food configured in a housing of the household appliance, wherein, when opened, the door can be introduced into a storage space below the receiving space and wherein the door has at least one electrical consumer (12, 13) and a first electrical contact (15, 16) that can be coupled to the electrical consumer (12, 13) and at least one second electrical contact (17, 18) is arranged on the housing side and can be electrically coupled to the first electrical contact (15, 16) to supply electrical energy to the consumer (12, 13) as a function of an operating position of the door, characterised in that, to introduce the door into the storage space, a guide apparatus is configured in a storage space side wall (11a, 11b) with at least one housing-side guide slot configured laterally in relation to the door in a horizontal direction of the household appliance, the housing-side second electrical contact (17, 18) being arranged adjacent to the guide slot in the storage space side wall (11a, 11b).