mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a control device for a display which is arranged in a vehicle, wherein the control device is designed to determine display data for at least one display element, and the display is designed to visually signal a specific display element depending on the display data determined for the specific display element by the control device, the method comprising the following steps: - for a specific display element, determining an estimated updating time period (t_est) for updating the display data of the display element, and - controlling the updating of the display data of the display element depending on the estimated updating time period (t_est) and a predefined image rate, characterised in that the updating of the display data comprises a determination of a display variable depending on a detected measurand and/or operating variable and a determination of specific image point values for the display element. - for a specific display element, determining an estimated updating time period (t_est) for updating the display data of the display element, and - controlling the updating of the display data of the display element depending on the estimated updating time period (t_est) and a predefined image rate, characterised in that the updating of the display data comprises a determination of a display variable depending on a detected measurand and/or operating variable and a determination of specific image point values for the display element.
An external device (60, 70) for adjusting stimulation for a patient having an implantable stimulator device (10, 100), the external device being adapted for communication with the implantable stimulator device and comprising: control circuitry programmed to a.) cause the implantable stimulator device to apply a waveform comprising time-varying pulses to the patient, wherein the time-varying pulses are formed using a modulation function (150, 150a, 150b, 150c) to modulate at least one of a plurality of time-invariant pulse parameters of the pulses, wherein the modulation function comprises at least one of a modulation shape or modulation parameters that size the modulation shape; b.) obtain at least one measurement for the applied waveform; c.) determine (170, 186) the effectiveness of the time-varying pulses for the patient using the at least one measurement; and d.) if the time-varying pulses are ineffective, adjust the modulation function to adjust the time-varying pulses applied to the patient; wherein step c.) comprises determining a score for the applied waveform using the at least one measurement, and determining the effectiveness of the time-varying pulses for the patient using the score. control circuitry programmed to a.) cause the implantable stimulator device to apply a waveform comprising time-varying pulses to the patient, wherein the time-varying pulses are formed using a modulation function (150, 150a, 150b, 150c) to modulate at least one of a plurality of time-invariant pulse parameters of the pulses, wherein the modulation function comprises at least one of a modulation shape or modulation parameters that size the modulation shape; b.) obtain at least one measurement for the applied waveform; c.) determine (170, 186) the effectiveness of the time-varying pulses for the patient using the at least one measurement; and d.) if the time-varying pulses are ineffective, adjust the modulation function to adjust the time-varying pulses applied to the patient; a.) cause the implantable stimulator device to apply a waveform comprising time-varying pulses to the patient, wherein the time-varying pulses are formed using a modulation function (150, 150a, 150b, 150c) to modulate at least one of a plurality of time-invariant pulse parameters of the pulses, wherein the modulation function comprises at least one of a modulation shape or modulation parameters that size the modulation shape; b.) obtain at least one measurement for the applied waveform; c.) determine (170, 186) the effectiveness of the time-varying pulses for the patient using the at least one measurement; and d.) if the time-varying pulses are ineffective, adjust the modulation function to adjust the time-varying pulses applied to the patient; wherein step c.) comprises determining a score for the applied waveform using the at least one measurement, and determining the effectiveness of the time-varying pulses for the patient using the score. determining a score for the applied waveform using the at least one measurement, and determining the effectiveness of the time-varying pulses for the patient using the score.
A node (A, 44A) for an optical network (10, 100) comprising: one or more modems configured to connect to the optical network (10, 100) and to provide a photonic service with a second node (Z, 44C) in the optical network (10, 100), wherein each modem is capable of supporting variable capacity, C 1, C 2,..., C N where C 1 > C 2 >.. > C N; and a controller connected to the one or more modems and configured to detect or receive a fault on a home route of the photonic service while the photonic service operates at a home route capacity C H, C H is one of C 1, C 2,..., C N-1, cause a downshift of the photonic service to a restoration route capacity C R prior to a switch to a restoration route, C R is one of C 2, C 3..., C N and C R < C H, cause the switch of the photonic service from the home route to the restoration route while the photonic service operates at the restoration route capacity C R, and monitor the photonic service and copropagating photonic services during operation on the restoration route at the restoration route capacity C R for an upshift of the photonic service. one or more modems configured to connect to the optical network (10, 100) and to provide a photonic service with a second node (Z, 44C) in the optical network (10, 100), wherein each modem is capable of supporting variable capacity, C 1, C 2,..., C N where C 1 > C 2 >.. > C N; and a controller connected to the one or more modems and configured to detect or receive a fault on a home route of the photonic service while the photonic service operates at a home route capacity C H, C H is one of C 1, C 2,..., C N-1, cause a downshift of the photonic service to a restoration route capacity C R prior to a switch to a restoration route, C R is one of C 2, C 3..., C N and C R < C H, cause the switch of the photonic service from the home route to the restoration route while the photonic service operates at the restoration route capacity C R, and monitor the photonic service and copropagating photonic services during operation on the restoration route at the restoration route capacity C R for an upshift of the photonic service.
Cooking appliance comprising respectively a lower subassembly and an upper subassembly respectively including a structure (3a, 3b) and at least one heating plate (2a, 2b) fixed to it, the sub-assemblies being relatively movable between a closed position wherein the heating plates define between them a closed chamber and an open position wherein the chamber is open, the or each lower heating plate being removably received in a cavity of the lower structure, characterized in that it comprises a presence safety device including an obstacle (71a, 71b) mobile between: - an active position that it occupies when the or each removable heating plate (2a, 2b) is absent from the cavity that receives it and wherein it prevents closure of the chamber by moving toward each other the sub-assemblies (1a, 1b), and - an inactive position that it occupies when the or each removable heating plate (2a, 2b) is present in said cavity and wherein it allows closure of the chamber. - an active position that it occupies when the or each removable heating plate (2a, 2b) is absent from the cavity that receives it and wherein it prevents closure of the chamber by moving toward each other the sub-assemblies (1a, 1b), and - an inactive position that it occupies when the or each removable heating plate (2a, 2b) is present in said cavity and wherein it allows closure of the chamber.
A cutting module comprising: a carriage supported by a support structure, the carriage being capable of reciprocating movement along a cutting path, the cutting path being perpendicular to a media path; and a cutting blade having a fitting pin to engage the carriage, wherein the fitting pin has a first portion movable laterally with respect to the media path so that the position of the fitting pin during movement of the carriage in a first direction along the cutting path provides a first cutting-edge angle between the cutting blade and the cutting path and the position of the fitting pin during a movement of the carriage in a second direction opposite to the first direction provides a second cutting-edge angle between the cutting blade and the cutting path, the second cutting-edge angle being different than the first cutting-edge angle, characterised in that the movement of the first portion is constrained by a radial clearance between the first portion and the carriage, and in that the fitting pin has a second portion attached to a joining element, wherein the joining element biases the fitting pin towards an alignment position substantially parallel to the media path. a carriage supported by a support structure, the carriage being capable of reciprocating movement along a cutting path, the cutting path being perpendicular to a media path; and a cutting blade having a fitting pin to engage the carriage, wherein the fitting pin has a first portion movable laterally with respect to the media path so that the position of the fitting pin during movement of the carriage in a first direction along the cutting path provides a first cutting-edge angle between the cutting blade and the cutting path and the position of the fitting pin during a movement of the carriage in a second direction opposite to the first direction provides a second cutting-edge angle between the cutting blade and the cutting path, the second cutting-edge angle being different than the first cutting-edge angle, characterised in that the movement of the first portion is constrained by a radial clearance between the first portion and the carriage, and in that the fitting pin has a second portion attached to a joining element, wherein the joining element biases the fitting pin towards an alignment position substantially parallel to the media path.
A method of forming an SiC crystal, the method comprising: a. placing a seed crystal on a shelf of an insulated graphite container thereby defining a volume between ceiling of the graphite container and back surface of the seed; b. placing a source of silicon and carbon atoms in the insulated graphite container, wherein the source of silicon and carbon atoms is for transport to the seed crystal to grow the SiC crystal; c. placing the graphite container inside a furnace; d. evacuating the furnace and filling with inert gas to a pressure above 79993.4 Pascal (600 torr); e. heating the furnace to a temperature from about 2,000°C to about 2,500°C; and, f. evacuating the induction furnace to a pressure of from about 13.3322 Pascal (0.1 Torr) to about 13332.2 Pascal (100 Torr), while directing gas flow from below the seed crystal through a periphery of the seed crystal and to a center of the volume between ceiling of the graphite container and the back surface of the seed, to thereby facilitate vapor transport from the source of silicon and carbon atoms to the seed while preventing the back surface of the seed from contacting the ceiling. a. placing a seed crystal on a shelf of an insulated graphite container thereby defining a volume between ceiling of the graphite container and back surface of the seed; b. placing a source of silicon and carbon atoms in the insulated graphite container, wherein the source of silicon and carbon atoms is for transport to the seed crystal to grow the SiC crystal; c. placing the graphite container inside a furnace; d. evacuating the furnace and filling with inert gas to a pressure above 79993.4 Pascal (600 torr); e. heating the furnace to a temperature from about 2,000°C to about 2,500°C; and, f. evacuating the induction furnace to a pressure of from about 13.3322 Pascal (0.1 Torr) to about 13332.2 Pascal (100 Torr), while directing gas flow from below the seed crystal through a periphery of the seed crystal and to a center of the volume between ceiling of the graphite container and the back surface of the seed, to thereby facilitate vapor transport from the source of silicon and carbon atoms to the seed while preventing the back surface of the seed from contacting the ceiling.
A heat exchanger (1; 32) for exchanging heat between two media (9, 10) in a vehicle, wherein the heat exchanger has the following features: a plurality of double-walled tubes (14; 15; 16; 17) for guiding a first medium (9, 10) of a first temperature, characterised in that a thermoelectric material is disposed between an inner wall of the double-walled tube and an outer wall of the double-walled tube or on an inner wall of the double-walled tube; and with a plurality of guide sheets connected to the double-walled tubes for guiding a second medium (9, 10) of a second temperature, wherein the guide sheets are designed to guide the second medium to the outer walls of the double-walled tube to enable the exchange of heat between the first medium and the second medium. a plurality of double-walled tubes (14; 15; 16; 17) for guiding a first medium (9, 10) of a first temperature, characterised in that a thermoelectric material is disposed between an inner wall of the double-walled tube and an outer wall of the double-walled tube or on an inner wall of the double-walled tube; and with a plurality of guide sheets connected to the double-walled tubes for guiding a second medium (9, 10) of a second temperature, wherein the guide sheets are designed to guide the second medium to the outer walls of the double-walled tube to enable the exchange of heat between the first medium and the second medium.
A process for the production of an olefin, said process comprising contacting a hydrocarbon feed and a molecular oxygen-containing gas with a catalyst, said catalyst being capable of supporting combustion beyond the fuel rich limit of flammability so as to produce an outlet stream comprising an olefin and oxygen, the outlet stream being the stream emerging directly from the catalyst bed of the reaction zone, wherein in said process the outlet stream has an oxygen concentration which is at, near or above the flammable limit and a loss of reaction is detected and used as a signal to activate means for mitigating the risk of explosion downstream of the reaction zone, wherein the loss of reaction is detected within 60 seconds of the loss of reaction occurring and the means employed for mitigating the risk of explosion is selected from one or more of the group consisting of (i) restricting or stopping the feed of molecular oxygen-containing gas to the catalyst bed, (ii) diluting the outlet stream with a diluent to render the outlet stream non-flammable, (iii) restricting or stopping the flow of the outlet stream and (iv) containing the outlet stream in an area of the plant which can withstand ignition of the outlet stream. (i) restricting or stopping the feed of molecular oxygen-containing gas to the catalyst bed, (ii) diluting the outlet stream with a diluent to render the outlet stream non-flammable, (iii) restricting or stopping the flow of the outlet stream and (iv) containing the outlet stream in an area of the plant which can withstand ignition of the outlet stream.
A vehicle comprising: an internal combustion engine; a transmission having a transmission case and arranged next to the internal combustion engine in a vehicle width direction; an electric component supported directly above the transmission case such that a longer direction of the electric component is oriented in a vehicle front-rear direction and a shorter direction of the electric component is oriented in the vehicle width direction; and a support structure comprising a support member connected to an upper wall of the electric component and the internal combustion engine to connect the electric component to the internal combustion engine, the electric component and the internal combustion engine being installed next to each other in the vehicle width direction; wherein the support structure comprises a first bracket that is connected to an upper wall of the internal combustion engine and a side wall of the internal combustion engine facing the transmission in the vehicle width direction, wherein the support member is connected to the internal combustion engine at the first bracket, and the electric component is connected to the internal combustion engine via the support member and the first bracket. an internal combustion engine; a transmission having a transmission case and arranged next to the internal combustion engine in a vehicle width direction; an electric component supported directly above the transmission case such that a longer direction of the electric component is oriented in a vehicle front-rear direction and a shorter direction of the electric component is oriented in the vehicle width direction; and a support structure comprising a support member connected to an upper wall of the electric component and the internal combustion engine to connect the electric component to the internal combustion engine, the electric component and the internal combustion engine being installed next to each other in the vehicle width direction; wherein the support structure comprises a first bracket that is connected to an upper wall of the internal combustion engine and a side wall of the internal combustion engine facing the transmission in the vehicle width direction, wherein the support member is connected to the internal combustion engine at the first bracket, and the electric component is connected to the internal combustion engine via the support member and the first bracket.
Method for operating at least one food preparation device on an operating apparatus, wherein the method has at least the following steps: (a) allowing an automatic identification process to run in order to identify at least one operating feature of the food preparation device by means of the operating apparatus; (b) providing a number of operating modes matched to the at least one food preparation device by means of the operating apparatus on the basis of the automatic identification process and offering, by means of the operator guidance, a selection of operating modes, wherein - an operator guidance matched to the operating features is provided on the operating apparatus in order to set operating parameters of the selected operating mode, - the number of operating modes have at least one temperature control - in order to provide the temperature control, the presence of at least one temperature sensor as an operating feature of the food preparation device has to be identified beforehand, and - the operator guidance provides temperature levels which are dependent on at least one identified operating feature. (a) allowing an automatic identification process to run in order to identify at least one operating feature of the food preparation device by means of the operating apparatus; (b) providing a number of operating modes matched to the at least one food preparation device by means of the operating apparatus on the basis of the automatic identification process and offering, by means of the operator guidance, a selection of operating modes, - an operator guidance matched to the operating features is provided on the operating apparatus in order to set operating parameters of the selected operating mode, - the number of operating modes have at least one temperature control - in order to provide the temperature control, the presence of at least one temperature sensor as an operating feature of the food preparation device has to be identified beforehand, and - the operator guidance provides temperature levels which are dependent on at least one identified operating feature.
Mechanism (4, 40, 41) for connecting a first furniture-part element, such as a front component, to a second furniture-part element, such as a side component (51, 52), so that the connected furniture-part elements (1, 9) form a constituent part of a furniture part, wherein the mechanism (4, 40, 41) comprises an engagement element, which can be fitted on the first furniture-part element, and a catch device with a main body and a force-applying unit, wherein the catch device can be fitted on the second furniture-part element, so that the engagement element can be arranged on the catch device via a front side of the catch device, and wherein, in the state in which the furniture-part elements (1, 9) have been connected by the mechanism, an engagement member of the catch device, said engagement member being accommodated in a movable manner on the main body of the catch device, and the engagement element are locked to one another under the action of the force-applying unit, wherein a two-armed locking lever of the catch device is provided, this locking lever being pivotable about a pivot axis and extending in the longitudinal direction of the catch device, wherein the locking lever has a front arm portion, which extends from the pivot axis in the direction of the front side of the catch device, wherein the engagement member is present on that end portion of the front arm portion which is directed away from the pivot axis, and wherein the locking lever has a rear arm portion, which extends from the pivot axis in the direction of a rear side of the catch device, and wherein the force-applying unit acts on that end portion of the rear arm portion which is directed away from the pivot axis, whereby the locking lever can be prestressed, by the force-applying unit, into a locking-action pivot position of the locking lever, wherein, in the state in which the furniture-part elements (1, 9) have been connected, the engagement member and the engagement element are locked to one another under the action of the locking lever subjected to force, characterized in that the force-applying unit provides a force which acts in a direction transverse to the longitudinal direction of the catch device.
A testing jointed board for testing optical performance of a camera module, characterized in that it comprises: a board body; and at least two medium modules disposed on the board body, wherein each medium module is adapted to be connected to a camera module to perform test of the optical performance of the camera module through the board body; wherein each of the medium modules comprises: a substrate for connecting and detachably fixing the camera module; and an expansion circuit for electrically connecting to the camera module, which expansion circuit is disposed on the substrate and adapted to be connected to the camera module, to provide an adaptive circuit switching for the camera module to connect a test equipment; wherein the board body further comprises a supporting board, and each of the medium modules is detachably connected to the supporting board. a board body; and at least two medium modules disposed on the board body, wherein each medium module is adapted to be connected to a camera module to perform test of the optical performance of the camera module through the board body; wherein each of the medium modules comprises: a substrate for connecting and detachably fixing the camera module; and an expansion circuit for electrically connecting to the camera module, which expansion circuit is disposed on the substrate and adapted to be connected to the camera module, to provide an adaptive circuit switching for the camera module to connect a test equipment; a substrate for connecting and detachably fixing the camera module; and an expansion circuit for electrically connecting to the camera module, which expansion circuit is disposed on the substrate and adapted to be connected to the camera module, to provide an adaptive circuit switching for the camera module to connect a test equipment; wherein the board body further comprises a supporting board, and each of the medium modules is detachably connected to the supporting board.