mhurhangee/ep-ind-claims huggingface dataset:
Household appliance for preparing food, having an operating device with an operating element, which, by actuation, is embodied to set operating conditions of the household appliance, wherein the operating element can be moved along a guide path of the operating device, along which at least two different positions (14 to 17) are predetermined, at which in each case at least one specific operating sub-unit (3 to 6) of the household appliance is defined for selection purposes, wherein the positions (14 to 17) for selecting the respectively assigned operating sub-unit (3 to 6) can be approached with the operating element, and the positions (14 to 17) each represent a path section (14b to 17b) of the guide path, which path sections (14b to 17b) are in each case at least as long, in particular approximately as long, for as long as the operating element is embodied in the direction of the guide path, and the guide path is embodied to be completely straight-lined in a contiguous and corner-free manner, wherein for a further operating setting the operating element can also be rotated about its axis of rotation, and wherein the axis of rotation is arranged parallel to the longitudinal axis of the guide path, characterised in that the household appliance is embodied as a hob or as a baking oven with cooking zones, and wherein the operating device is arranged at or on the hob or on a front operating panel of the baking oven, which is arranged above a door of the household appliance, or on a door for closing a cooking compartment or on a door handle of this door.
Method for analyzing diagnostic image data, comprising performing the following steps with, or on, or using, or by means of, an apparatus comprising an input unit: the input unit obtaining a first diagnostic image and a second diagnostic image of a vessel of interest in a patient's vasculature, defining at least one determination position for the vessel of interest in the first diagnostic image and at least one corresponding determination position for the vessel of interest in the second diagnostic image, determining a first value for at least one functional parameter at the least one determination position for the first diagnostic image and a second value for the same at least one functional parameter at the corresponding determination position for the second diagnostic image, correlating one or more vessel positions along the vessel of interest as represented in the first diagnostic image with one or more vessel positions along the vessel of interest as represented in the second diagnostic image based on a comparing of the first value of the at least one functional parameter and the second value of the at least one functional parameter, registering the first and second diagnostic images. the input unit obtaining a first diagnostic image and a second diagnostic image of a vessel of interest in a patient's vasculature, defining at least one determination position for the vessel of interest in the first diagnostic image and at least one corresponding determination position for the vessel of interest in the second diagnostic image, determining a first value for at least one functional parameter at the least one determination position for the first diagnostic image and a second value for the same at least one functional parameter at the corresponding determination position for the second diagnostic image, correlating one or more vessel positions along the vessel of interest as represented in the first diagnostic image with one or more vessel positions along the vessel of interest as represented in the second diagnostic image based on a comparing of the first value of the at least one functional parameter and the second value of the at least one functional parameter, registering the first and second diagnostic images.
Heat-distributing body for a heater of a system for the aftertreatment of exhaust gases, wherein the heat-distributing body has a heat-conducting body with multiple arms and has an injection-moulded encapsulation, wherein stress-reducing and/or strain-reducing elements (30, 31, 32, 33, 34, 53, 54, 63) for the retention of the injection-moulded encapsulation on the heat-conducting body with little relative movement are formed on the heat-conducting body, wherein the stress-reducing and/or strain-reducing elements (30, 31, 32, 33, 34, 53, 54, 63) are formed in the outer contour of the heat-conducting body, characterized in that, along some arms of the heat-conducting body, the outer contour of the heat-conducting body comprises undulation peaks and undulation troughs and/or depressions (33, 53, 63) and/or grooves which form the stress-reducing and/or strain-reducing elements, such that, during the heating and cooling, strains and stresses that are generated in the injection-moulded encapsulation are distributed uniformly over the at least one arm, such that the injection-moulded encapsulation is not damaged and the risk of the injection-moulded encapsulation lifting off from the heat-conducting body is reduced.
A method of decoding video data in which adaptive motion vector prediction (AMVP) is used to code a first motion vector and a second motion vector associated with a current video block that is coded in a bi-predictive inter mode, wherein the first motion vector is a list 0 motion vector and the second motion vector is a list 1 motion vector, the method comprising: receiving a first motion vector difference associated with the first motion vector; receiving a first index that identifies a first motion vector predictor; generating the first motion vector based on the first MVD and the first MVP; receiving a second MVD associated with the second motion vector; receiving a second index that identifies a second MVP, wherein the second MVP is defined based on the first motion vector; and generating the second motion vector based on the second MVD and the second MVP, wherein the second MVP comprises a scaled version of the first motion vector. receiving a first motion vector difference associated with the first motion vector; receiving a first index that identifies a first motion vector predictor; generating the first motion vector based on the first MVD and the first MVP; receiving a second MVD associated with the second motion vector; receiving a second index that identifies a second MVP, wherein the second MVP is defined based on the first motion vector; and generating the second motion vector based on the second MVD and the second MVP, wherein the second MVP comprises a scaled version of the first motion vector.
An arrangement for detecting a ground fault in an AC electric circuit comprising - an electric machine having a neutral side connecting to a neutral point and a terminal side and - a unit transformer connected to the terminal side of the machine, wherein the arrangement comprises - a signal injection unit, - a voltage transformer having a primary winding connected to the terminal side of the electric machine and a secondary winding that is open delta-connected, - an instrument transformer (40, 45) having a primary winding connected to the neutral point of the electric machine and a secondary winding, and - a ground fault detecting unit, - the signal injection unit being configured to inject a signal to the secondary winding of the voltage transformer, - the ground fault detecting unit being configured to detect a ground fault based on a measured resultant injected signal, characterised in that the instrument transformer (40, 45) is configured to measure the resultant injected signal at its secondary winding in form of voltage. - an electric machine having a neutral side connecting to a neutral point and a terminal side and - a unit transformer connected to the terminal side of the machine, - a signal injection unit, - a voltage transformer having a primary winding connected to the terminal side of the electric machine and a secondary winding that is open delta-connected, - an instrument transformer (40, 45) having a primary winding connected to the neutral point of the electric machine and a secondary winding, and - a ground fault detecting unit, - the signal injection unit being configured to inject a signal to the secondary winding of the voltage transformer, - the ground fault detecting unit being configured to detect a ground fault based on a measured resultant injected signal, characterised in that the instrument transformer (40, 45) is configured to measure the resultant injected signal at its secondary winding in form of voltage.
A power supply system for an apparatus, the power supply system comprising: an AC (alternating current) to DC (direct current) converter (114,150,180) having an input to receive an AC voltage from an AC source (117,153,183) and having a DC voltage output and having a control input, the control input being configured to control a voltage (V in) of the DC voltage output; a DC to DC converter (109,141,171) having an input coupled to the DC voltage output for inputting a voltage value (V in) of the DC voltage output and having an output configured to provide a DC supply voltage (V s,V out,121,156,186) to a first component of the apparatus, the DC to DC converter being a step-up converter to maintain a substantially fixed voltage value of the DC supply voltage when the voltage value of the DC voltage output changes; and a controller (112,147,177) having a first input coupled to the DC voltage output and having an output coupled to the control input of the AC to DC converter, the controller being configured to adjust the voltage of the DC voltage output in accordance with an operating state of the apparatus detected by the power supply system for the apparatus, wherein when the operating state changes between different power modes, the controller adjusts the output of the controller to cause the AC to DC converter to change the voltage of the DC voltage output to a value within a valid range for the power mode, and wherein the voltage of the DC voltage output remains unchanged until the change of the operating state between the different power modes. an AC (alternating current) to DC (direct current) converter (114,150,180) having an input to receive an AC voltage from an AC source (117,153,183) and having a DC voltage output and having a control input, the control input being configured to control a voltage (V in) of the DC voltage output; a DC to DC converter (109,141,171) having an input coupled to the DC voltage output for inputting a voltage value (V in) of the DC voltage output and having an output configured to provide a DC supply voltage (V s,V out,121,156,186) to a first component of the apparatus, the DC to DC converter being a step-up converter to maintain a substantially fixed voltage value of the DC supply voltage when the voltage value of the DC voltage output changes; and a controller (112,147,177) having a first input coupled to the DC voltage output and having an output coupled to the control input of the AC to DC converter, the controller being configured to adjust the voltage of the DC voltage output in accordance with an operating state of the apparatus detected by the power supply system for the apparatus, wherein when the operating state changes between different power modes, the controller adjusts the output of the controller to cause the AC to DC converter to change the voltage of the DC voltage output to a value within a valid range for the power mode, and wherein the voltage of the DC voltage output remains unchanged until the change of the operating state between the different power modes.
A method for controlling the exposure to a selective laser sintering or laser melting device for manufacturing three-dimensional objects, comprising the following method steps: - providing a selective laser sintering device or laser melting device in which three-dimensional objects can be manufactured by successive solidification of layers of a powder-like construction material that is solidifiable using radiation, at the locations corresponding to the respective cross section of the object, wherein the provided device includes an irradiation device for irradiating layers of the construction material, the irradiation device having a plurality of scanners (8a, 8b) that are separately actuatable, simultaneously irradiating the construction material, characterized by the following method steps: - separately detecting the irradiation times of each individual scanner (8a, 8b) and/or the irradiation areas detected by each individual scanner (8a, 8b) in a first step, and storing the detected irradiation times and/or irradiation areas; - comparing the irradiation times and/or irradiation areas of the individual scanners (8a, 8b) to one another; - redetermining the surface regions of a construction material layer to be irradiated by each individual scanner in such a way that the irradiation times for each individual scanner (8a, 8b) are approximated to one another to the greatest extent possible, and/or the irradiation areas of each individual scanner (8a, 8b) are matched to one another to the greatest extent possible in terms of surface area. - providing a selective laser sintering device or laser melting device in which three-dimensional objects can be manufactured by successive solidification of layers of a powder-like construction material that is solidifiable using radiation, at the locations corresponding to the respective cross section of the object, wherein the provided device includes an irradiation device for irradiating layers of the construction material, the irradiation device having a plurality of scanners (8a, 8b) that are separately actuatable, simultaneously irradiating the construction material, - separately detecting the irradiation times of each individual scanner (8a, 8b) and/or the irradiation areas detected by each individual scanner (8a, 8b) in a first step, and storing the detected irradiation times and/or irradiation areas; - comparing the irradiation times and/or irradiation areas of the individual scanners (8a, 8b) to one another; - redetermining the surface regions of a construction material layer to be irradiated by each individual scanner in such a way that the irradiation times for each individual scanner (8a, 8b) are approximated to one another to the greatest extent possible, and/or the irradiation areas of each individual scanner (8a, 8b) are matched to one another to the greatest extent possible in terms of surface area.
A computer network comprising: a first switch; and a neighboring switch; wherein said first switch is configured to perform an intentional flooding of a message when a new forwarding table entry is added to a forwarding table (315, 320) of said first switch even though a destination address of the message is present in the forwarding table, wherein said neighboring switch is configured to acquire information relating to a proper destination through said intentional flooding of information, wherein said neighboring switch is configured to act as a barrier to prevent a subsequent message which is received on a destination port, that is also the correct route to a destination address of said message from propagating into unrelated areas of said computer network, and wherein said first switch and said neighboring switch are configured to use different unique hash functions to calculate hashed addresses for forwarding table entries such that likelihood of said first switch and said neighboring switch having an identical forwarding table conflict is significantly reduced. a first switch; and a neighboring switch; wherein said first switch is configured to perform an intentional flooding of a message when a new forwarding table entry is added to a forwarding table (315, 320) of said first switch even though a destination address of the message is present in the forwarding table, wherein said neighboring switch is configured to acquire information relating to a proper destination through said intentional flooding of information, wherein said neighboring switch is configured to act as a barrier to prevent a subsequent message which is received on a destination port, that is also the correct route to a destination address of said message from propagating into unrelated areas of said computer network, and wherein said first switch and said neighboring switch are configured to use different unique hash functions to calculate hashed addresses for forwarding table entries such that likelihood of said first switch and said neighboring switch having an identical forwarding table conflict is significantly reduced.
A method performed by a first terminal in a wireless communication system, the method comprising: obtaining resource pool information associated with a side link, the resource pool information including information on a period and information on a resource block, RB, for a physical sidelink feedback channel, PSFCH; transmitting sidelink control information, SCI, associated with sidelink data on a physical sidelink control channel, PSCCH, the SCI including a zone identity, ID, of the first terminal, information on a range requirement, and an indicator indicating a hybrid automatic repeat request, HARQ, enabled; transmitting the sidelink data on a physical sidelink shared channel, PSSCH, based on the SCI; and receiving feedback information associated with the sidelink data from a second terminal, in case that a negative acknowledgement is included in the feedback information and a distance between the first terminal and the second terminal is smaller or equal to the range requirement, wherein the distance between the first terminal and the second terminal is identified based on a center location of a zone indicated by the zone ID and a location of the second terminal, wherein the SCI includes a first part of a destination identity, ID, of the second terminal, and wherein the sidelink data includes a second part of the destination ID of the second terminal. obtaining resource pool information associated with a side link, the resource pool information including information on a period and information on a resource block, RB, for a physical sidelink feedback channel, PSFCH; transmitting sidelink control information, SCI, associated with sidelink data on a physical sidelink control channel, PSCCH, the SCI including a zone identity, ID, of the first terminal, information on a range requirement, and an indicator indicating a hybrid automatic repeat request, HARQ, enabled; transmitting the sidelink data on a physical sidelink shared channel, PSSCH, based on the SCI; and receiving feedback information associated with the sidelink data from a second terminal, in case that a negative acknowledgement is included in the feedback information and a distance between the first terminal and the second terminal is smaller or equal to the range requirement, wherein the distance between the first terminal and the second terminal is identified based on a center location of a zone indicated by the zone ID and a location of the second terminal, wherein the SCI includes a first part of a destination identity, ID, of the second terminal, and wherein the sidelink data includes a second part of the destination ID of the second terminal.
Use of a composition for cleaning skin strips of skin skis, wherein the composition comprises (a) C 1-6 -alcohol; (b) at least 10% by weight of the total weight of the composition of dibasic ester(s) of formula R 1 O-C -(CH 2) n -C -OR 1 wherein n is 1 to 6; and each R 1 is independently C 1-6 -alkyl. (a) C 1-6 -alcohol; (b) at least 10% by weight of the total weight of the composition of dibasic ester(s) of formula R 1 O-C -(CH 2) n -C -OR 1 wherein n is 1 to 6; and each R 1 is independently C 1-6 -alkyl. n is 1 to 6; and each R 1 is independently C 1-6 -alkyl.
Toy having a main body, and also having a first magnet and a counterpart, wherein the first magnet and the counterpart are attached to the main body so as to be movable independently of one another in such a way that the first magnet and the counterpart are able to be brought into a jointly suspended state in which the counterpart is magnetically attracted by the first magnet without the first magnet and the counterpart being in contact with one another, wherein the main body has a bar-like grip portion which is formed in such a way that the grip portion can be gripped by a hand in order to set the first magnet and the counterpart into a movement, wherein the main body has a retention portion which is connected to the grip portion and which has a first and a second attachment region (5, 6), wherein the first magnet is movably attached in the first attachment region and the counterpart is movably attached in the second attachment region, wherein the retention portion is in the form of a fork or in the form of a frame, characterized in that the first and second attachment regions (5, 6) are arranged in a mirror-symmetrical manner in relation to an imaginary longitudinal axis of the grip portion.
Bookbinding machine for producing printed products such as books, magazines and brochures, having a plurality of processing stations, such as, for example, book block insertion station, spine processing station, glue application station, cover feeder and press station, and having a book block transport system, which transports the book blocks through the individual processing stations, the book block transport system having a closed guide track having straight, arcuate and curved-path sections and clamps for clamping the book blocks, the clamps having guide carriages with guide rollers (1, 1a) which roll on the guide track, and the clamps being driven jointly or individually via a drive, characterized in that the guide carriages have two fixed outer guide rollers, which run on a master track forming the outer track of the guide track, and have two fixed inner guide rollers, which run on a slave track, wherein the distance of the two inner guide rollers from each other is smaller than the distance of the two outer guide rollers from each other.