mhurhangee/ep-ind-claims huggingface dataset:
Method for providing an operating device in a vehicle, in which - a control device generates graphics data which control a display area in such a manner that a graphical object containing a presentation of at least part of the Earth's surface is displayed, and - the presentation of the displayed part of the Earth's surface is subdivided into geographical areas (11, 12) in different time zones, characterized in that - the position of an actuating object in front of or on the display area is detected, - depending on the detected position of the actuating object relative to the displayed geographical areas (11, 12) in different time zones in the presentation of the graphical object, a geographical area which belongs to a single time zone is selected and displayed in highlighted form, and - the time zone of the selected geographical area is associated with at least one timer of the vehicle. - a control device generates graphics data which control a display area in such a manner that a graphical object containing a presentation of at least part of the Earth's surface is displayed, and - the presentation of the displayed part of the Earth's surface is subdivided into geographical areas (11, 12) in different time zones, - the position of an actuating object in front of or on the display area is detected, - depending on the detected position of the actuating object relative to the displayed geographical areas (11, 12) in different time zones in the presentation of the graphical object, a geographical area which belongs to a single time zone is selected and displayed in highlighted form, and - the time zone of the selected geographical area is associated with at least one timer of the vehicle.
Polyamide-based surface material having fillers which improve the tribologic properties, characterized in that, the fillers comprise at least one metal sulfide and calcium phosphate and in that the proportion of the at least one metal sulfide and calcium phosphate in total is 1 - 30% by weight of the surface material, and in that the proportion of the at least one metal sulfide is 1-50% by weight and of calcium phosphate 50 - 99% by weight of the mixture of metal sulfide and calcium phosphate.
A method of controlling a lighting system comprising a first plurality of luminaires (101a-d) located in a first environment and a second plurality of luminaires (201a-c) located in a second environment, the method comprising steps of: receiving a first user input pattern at a first light switch of the lighting system operatively coupled to the first plurality of luminaires; determining at least one parameter of a lighting scene, being rendered by the first plurality of luminaires, when the first user input pattern is received; storing an indication of the first user input pattern in association with the determined at least one parameter; receiving a second user input pattern at a second light switch of the lighting system, operatively coupled to the second plurality of luminaires; comparing the received second user input pattern with the stored indication of the first user input pattern to determine if the second user input pattern matches the first user input pattern; if the second user input pattern is determined to match the first user input pattern, controlling the second plurality of luminaires using the at least one parameter to render a matching lighting scene that matches the lighting scene rendered by the first plurality of luminaires. receiving a first user input pattern at a first light switch of the lighting system operatively coupled to the first plurality of luminaires; determining at least one parameter of a lighting scene, being rendered by the first plurality of luminaires, when the first user input pattern is received; storing an indication of the first user input pattern in association with the determined at least one parameter; receiving a second user input pattern at a second light switch of the lighting system, operatively coupled to the second plurality of luminaires; comparing the received second user input pattern with the stored indication of the first user input pattern to determine if the second user input pattern matches the first user input pattern; if the second user input pattern is determined to match the first user input pattern, controlling the second plurality of luminaires using the at least one parameter to render a matching lighting scene that matches the lighting scene rendered by the first plurality of luminaires.
A system comprising: a cable comprising an insulation and one or more wires disposed in the insulation; a housing (120, 122, 304, 306) comprising a tapered exit hole connected to an internal volume, wherein the one or more wires of the cable are connected to one or more terminals disposed in the internal volume; a tapered seal comprising a tapered outer surface and an inner aperture, wherein the inner aperture of the tapered seal receives the cable; a low viscosity encapsulant disposed in the internal volume and about the one or more wires of the cable connected to the one or more terminals; and a compression cap placed over the tapered seal to compress the tapered seal into the tapered exit hole; wherein compression from the compression cap forces the encapsulant up inside the insulation of the cable and around wire strands of the one or more wires of the cable, wherein the encapsulant prevents capillary transport of moisture through the one or more wires of the cable, and wherein the encapsulant is cured and thereby seals the cable from moisture ingress. a cable comprising an insulation and one or more wires disposed in the insulation; a housing (120, 122, 304, 306) comprising a tapered exit hole connected to an internal volume, wherein the one or more wires of the cable are connected to one or more terminals disposed in the internal volume; a tapered seal comprising a tapered outer surface and an inner aperture, wherein the inner aperture of the tapered seal receives the cable; a low viscosity encapsulant disposed in the internal volume and about the one or more wires of the cable connected to the one or more terminals; and a compression cap placed over the tapered seal to compress the tapered seal into the tapered exit hole; wherein compression from the compression cap forces the encapsulant up inside the insulation of the cable and around wire strands of the one or more wires of the cable, wherein the encapsulant prevents capillary transport of moisture through the one or more wires of the cable, and wherein the encapsulant is cured and thereby seals the cable from moisture ingress.
A protection circuit coupled between a chipset and an I/O port, comprising: at least two protection devices coupled in parallel with each other and coupled between the I/O port and the chipset, wherein the protection devices receive an input signal from the I/O port and perform a discharge operation for a surge current when the I/O port has the surge current thereon; and a control device configured for selecting one of the protection devices to transmit the input signal to the chipset. at least two protection devices coupled in parallel with each other and coupled between the I/O port and the chipset, wherein the protection devices receive an input signal from the I/O port and perform a discharge operation for a surge current when the I/O port has the surge current thereon; and a control device configured for selecting one of the protection devices to transmit the input signal to the chipset.
A method performed for a first steered frame exchange, comprising: receiving an unsteered training request; sending a first unsteered sounding frame in response to the unsteered training request; receiving an unsteered request for explicit feedback for beamforming; receiving a second sounding frame for beamforming; generating the explicit feedback based on the second sounding frame; and sending the explicit feedback in response to the unsteered request for explicit feedback; and receiving the first steered frame sent based on either the explicit feedback or implicit feedback, the implicit feedback being derived based on the first unsteered sounding frame. receiving an unsteered training request; sending a first unsteered sounding frame in response to the unsteered training request; receiving an unsteered request for explicit feedback for beamforming; receiving a second sounding frame for beamforming; generating the explicit feedback based on the second sounding frame; and sending the explicit feedback in response to the unsteered request for explicit feedback; and receiving the first steered frame sent based on either the explicit feedback or implicit feedback, the implicit feedback being derived based on the first unsteered sounding frame.
A polymer having a backbone comprising pendant hindered primary amine groups that are attached to a quaternary carbon atom and are bonded to the polymer backbone by way of an amide, ester, or thioester linkage.
A forwarding path adjustment method, wherein the method comprises: receiving, by an optimization controller, a packet flow optimization policy, wherein the packet flow optimization policy comprises a flow identifier of a to-be-adjusted target packet flow, a device identifier of a to-be-adjusted forwarding device, and information about an adjusted next hop corresponding to the to-be-adjusted forwarding device that is on a forwarding path of the target packet flow; obtaining, by the optimization controller, status information of an access control list, ACL, of the to-be-adjusted forwarding device based on the device identifier, wherein the status information comprises resource usage status information of the ACL and capability information, and the capability information is used to indicate whether the to-be-adjusted forwarding device supports packet flow forwarding that is based on the ACL; and when it is determined, based on the status information, that the ACL comprises an idle resource and the to-be-adjusted forwarding device supports packet flow forwarding that is based on the ACL, sending, by the optimization controller, an ACL record to the to-be-adjusted forwarding device, wherein the ACL record comprises the flow identifier and the information about the next hop, so that the to-be-adjusted forwarding device stores the ACL record in the ACL of the to-be-adjusted forwarding device. receiving, by an optimization controller, a packet flow optimization policy, wherein the packet flow optimization policy comprises a flow identifier of a to-be-adjusted target packet flow, a device identifier of a to-be-adjusted forwarding device, and information about an adjusted next hop corresponding to the to-be-adjusted forwarding device that is on a forwarding path of the target packet flow; obtaining, by the optimization controller, status information of an access control list, ACL, of the to-be-adjusted forwarding device based on the device identifier, wherein the status information comprises resource usage status information of the ACL and capability information, and the capability information is used to indicate whether the to-be-adjusted forwarding device supports packet flow forwarding that is based on the ACL; and when it is determined, based on the status information, that the ACL comprises an idle resource and the to-be-adjusted forwarding device supports packet flow forwarding that is based on the ACL, sending, by the optimization controller, an ACL record to the to-be-adjusted forwarding device, wherein the ACL record comprises the flow identifier and the information about the next hop, so that the to-be-adjusted forwarding device stores the ACL record in the ACL of the to-be-adjusted forwarding device.
A microdosimeter, comprising: an array of detectors (402; 500; 600), each providing a sensitive volume-target; and a tissue equivalent medium for generating secondary charged particles; characterized in that said array is manufactured from a semiconductor on insulator wafer and said detectors (402; 500; 600) are located to detect secondary charged particles generated in said tissue equivalent medium; the detectors (402; 500; 600) are three-dimensional p-n junction semiconductor detectors (402; 500; 600); the detectors (402; 500; 600) are embedded in and spatially separated by said tissue equivalent medium; and each of said detectors (402; 500; 600) has a core electrode (502, 602) surrounded by an active silicon layer (504, 604) surrounded by an outer electrode region (506, 606), wherein the volume of the core electrode, active silicon layer, and outer electrode region define the sensitive volume-target, and wherein either: the core electrode is a p+ electrode (502; 602) and the outer electrode region is a n+ electrode region (506; 606); or the core electrode is a n+ electrode and the outer electrode region is a p+ electrode region. an array of detectors (402; 500; 600), each providing a sensitive volume-target; and a tissue equivalent medium for generating secondary charged particles; characterized in that said array is manufactured from a semiconductor on insulator wafer and said detectors (402; 500; 600) are located to detect secondary charged particles generated in said tissue equivalent medium; the detectors (402; 500; 600) are three-dimensional p-n junction semiconductor detectors (402; 500; 600); the detectors (402; 500; 600) are embedded in and spatially separated by said tissue equivalent medium; and each of said detectors (402; 500; 600) has a core electrode (502, 602) surrounded by an active silicon layer (504, 604) surrounded by an outer electrode region (506, 606), wherein the volume of the core electrode, active silicon layer, and outer electrode region define the sensitive volume-target, and wherein either: the core electrode is a p+ electrode (502; 602) and the outer electrode region is a n+ electrode region (506; 606); or the core electrode is a n+ electrode and the outer electrode region is a p+ electrode region.
A tire, comprising a cap tread and a base tread, the tire satisfying the following relationships and: 0.4 ≦ Tc Tb ≦ 1.5 wherein Tc represents an average thickness of the cap tread, and Tb represents an average thickness of the base tread, and tan δ c E ∗ c ≧ 0.16 wherein tan δc represents a -30°C tan δ (a loss tangent measured at a temperature of -30°C, an initial strain of 10%, a dynamic strain of 2.5%, and a frequency of 10 Hz) of the cap tread, and E*c represents a 0°C E* (a complex modulus measured at a temperature of 0°C, an initial strain of 10%, a dynamic strain of 2.5%, and a frequency of 10 Hz) of the cap tread. the tire satisfying the following relationships and: 0.4 ≦ Tc Tb ≦ 1.5 wherein Tc represents an average thickness of the cap tread, and Tb represents an average thickness of the base tread, and tan δ c E ∗ c ≧ 0.16 wherein tan δc represents a -30°C tan δ (a loss tangent measured at a temperature of -30°C, an initial strain of 10%, a dynamic strain of 2.5%, and a frequency of 10 Hz) of the cap tread, and E*c represents a 0°C E* (a complex modulus measured at a temperature of 0°C, an initial strain of 10%, a dynamic strain of 2.5%, and a frequency of 10 Hz) of the cap tread.
A method for controlling a washing machine, comprising: - the execution of a first wash step, wherein the wash water is gradually warmed up and the drum is moved in rotation at a first speed, in order to facilitate the action of one or more cleansing substances present in the water; - the execution of a second wash step, following said first wash step, wherein the water temperature is kept above a predetermined threshold and the drum is moved in rotation at a second speed, in order to exert a mechanical cleaning action on the laundry in the drum, wherein said first wash step comprises a series of activations/deactivations of said movement, the direction of rotation of the drum being reversed at each deactivation, wherein a movement duty cycle is defined as the ratio between the activation time and the total time of a cycle comprising an activation and a deactivation of said movement, wherein the movement duty cycle in said first wash step is comprised between 80% and 90%; wherein said second wash step comprises a series of activations/deactivations of said movement, the direction of rotation of the drum being reversed at each deactivation, wherein a movement duty cycle is defined as the ratio between the activation time and the total time of a cycle comprising an activation and a deactivation of said movement, wherein the movement duty cycle is comprised between 93% and 99%. - the execution of a first wash step, wherein the wash water is gradually warmed up and the drum is moved in rotation at a first speed, in order to facilitate the action of one or more cleansing substances present in the water; - the execution of a second wash step, following said first wash step, wherein the water temperature is kept above a predetermined threshold and the drum is moved in rotation at a second speed, in order to exert a mechanical cleaning action on the laundry in the drum, wherein said first wash step comprises a series of activations/deactivations of said movement, the direction of rotation of the drum being reversed at each deactivation, wherein a movement duty cycle is defined as the ratio between the activation time and the total time of a cycle comprising an activation and a deactivation of said movement, wherein the movement duty cycle in said first wash step is comprised between 80% and 90%; wherein said second wash step comprises a series of activations/deactivations of said movement, the direction of rotation of the drum being reversed at each deactivation, wherein a movement duty cycle is defined as the ratio between the activation time and the total time of a cycle comprising an activation and a deactivation of said movement, wherein the movement duty cycle is comprised between 93% and 99%.
A motor driven dental handpiece having a motor control for driving a motor comprising: an electric motor; a tool engagably connected to said electric motor, an outer sheath (8, 306); an inner module (10, 302) wholly or partially covered by the outer sheath and detachably engaging with said tool; a microprocessor, and a current sense circuitry, wherein the motor control is constructed to allow the operator to operably control the motor operating speed based on the torque exerted on the motor, an observed time delay, and a predetermined hysteresis current threshold, wherein the motor control is configured so that the time delay is observed before the motor current is measured, determining and updating an upper hysteresis limit current and a lower hysteresis limit current is based on said predetermined hysteresis current threshold, by respectively adding and subtracting said predetermined hysteresis current threshold to the measured motor current, wherein if a new measured motor current operating point is greater than the upper hysteresis limit current, the speed of the motor is increased, and a new upper hysteresis limit current and lower hysteresis limit current are set; if said measured motor current operating point is less than the lower hysteresis limit current, the speed of the motor is decreased, and a new upper hysteresis limit current and lower hysteresis limit current are set; and else the speed of the motor is unchanged. an electric motor; a tool engagably connected to said electric motor, an outer sheath (8, 306); an inner module (10, 302) wholly or partially covered by the outer sheath and detachably engaging with said tool; a microprocessor, and a current sense circuitry, wherein the motor control is constructed to allow the operator to operably control the motor operating speed based on the torque exerted on the motor, an observed time delay, and a predetermined hysteresis current threshold, wherein the motor control is configured so that the time delay is observed before the motor current is measured, determining and updating an upper hysteresis limit current and a lower hysteresis limit current is based on said predetermined hysteresis current threshold, by respectively adding and subtracting said predetermined hysteresis current threshold to the measured motor current, wherein if a new measured motor current operating point is greater than the upper hysteresis limit current, the speed of the motor is increased, and a new upper hysteresis limit current and lower hysteresis limit current are set; if said measured motor current operating point is less than the lower hysteresis limit current, the speed of the motor is decreased, and a new upper hysteresis limit current and lower hysteresis limit current are set; and else the speed of the motor is unchanged.
A muscle implant comprising at least one layer of decellularized muscle matrix that contains at least some of the myofibers normally found in an unprocessed muscle sample, the at least one layer of decellularized muscle matrix being joined to at least one layer of decellularized dermal tissue matrix.
A fixing and tensioning device for fixing an object in place, comprising a base body, an adapter element and a laterally deflectable, elongated tension means which is adapted to be passed through an axial passage opening in the base body, wherein the base body fully encloses the tension means at the circumference and is displaceable along the tension means, the base body and the adapter element being completely non-destructively releasable from each other without a tool and being adapted to be coupled to each other by being axially slid onto each other, and the base body has a lateral slot which extends radially from the outside to the passage opening and through which the tension means can be passed, the adapter element at least partially closing the slot in a mounted state on the base body, the base body and/or the adapter element being sleeve-shaped, and the adapter element being fastened to the base body in a mounted state and clamping the tension means within the slot, characterized in that the adapter element has a passage opening which constitutes a fastening means for an attachment. a base body, an adapter element and a laterally deflectable, elongated tension means which is adapted to be passed through an axial passage opening in the base body, wherein the base body fully encloses the tension means at the circumference and is displaceable along the tension means, the base body and the adapter element being completely non-destructively releasable from each other without a tool and being adapted to be coupled to each other by being axially slid onto each other, and the base body has a lateral slot which extends radially from the outside to the passage opening and through which the tension means can be passed, the adapter element at least partially closing the slot in a mounted state on the base body, the base body and/or the adapter element being sleeve-shaped, and the adapter element being fastened to the base body in a mounted state and clamping the tension means within the slot, characterized in that the adapter element has a passage opening which constitutes a fastening means for an attachment.
Spark gap for providing overvoltage protection having an electrode arrangement which has electrodes (3, 4, 20) that face one another, wherein at least some of the electrodes (3, 4, 20) have current-path bounding means (7, 16, 17) for forcing a desired current path in the electrodes (3, 4, 20), characterized in that the electrodes (3, 4, 20) have electrode arms (10, 11, 22) which extend on a common side of the electrode arrangement on which the spark burns.